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SIP Project 2: Opportunities and Risks for Farming and
the Environment at Landscape Scales (LM0302)
Analysis of Farm Business Survey 2011-12 Business
Management Practices
(WP 2.3A Task 2)
Paul Wilson (University of Nottingham)
February 2017
Background The Sustainable Intensification Research Platform (SIP) is a multi-partner research programme comprising
farmers, industry experts, academia, environmental organisations, policymakers and other stakeholders. The
platform has explored the opportunities and risks of Sustainable Intensification (SI) from a range of perspectives and
scales across England and Wales, through three linked and transdisciplinary research projects:
SIP Project 1 Integrated Farm Management for improved economic, environmental and social performance
SIP Project 2 Opportunities and risks for farming and the environment at landscape scales
SIP Project 3 A scoping study on the influence of external drivers and actors on the sustainability and
productivity of English and Welsh farming
Projects 1 and 2 have investigated ways to increase farm productivity while reducing environmental impacts and
enhancing the ecosystem services that agricultural land provides to society.
Project 2 partners are: University of Exeter (lead), ADAS, Bangor University, Biomathematics and Statistics
Scotland (BioSS), University of Bristol, University of Cambridge, Centre for Ecology and Hydrology (CEH), Eden
Rivers Trust, Fera, Game and Wildlife Conservation Trust (GWCT), James Hutton Institute, University of Kent,
Lancaster University, University of Leeds, Linking Environment And Farming (LEAF), Newcastle University, NIAB,
University of Nottingham, Rothamsted Research, Westcountry Rivers Trust
Acknowledgements This study was made possible through the support provided by Defra within the Sustainable Farm Platform (SIP)
research programme. Thanks are given to the FBS Co-operators who willingly gave of their time and shared their
data with the Research Officers (ROs) from Rural Business Research (RBR). Thanks to Lindsey Clothier and Tony
Pike in Defra for constructive comments on an earlier draft. The views and comments expressed herein are those
of the author alone.
Funding for the SIP from Defra and The Welsh Government is gratefully acknowledged.
The views expressed in this report are those of the authors and are not necessarily shared by Defra and the
Welsh Government
Contains public sector information licensed under the Open Government Licence v3.0
Data
[leave blank]
Citations
This report should be cited as:
Wilson, P. (2017). Analysis of Farm Business Survey 2011-12 Business Management Practices. Report for Defra
project LM0302 Sustainable Intensification Research Platform Project 2: Opportunities and Risks for Farming
and the Environment at Landscape Scales
Contact
Michael Winter ([email protected]), Paul Wilson ([email protected])
1
Table of Contents
Executive Summary ............................................................................................... 5
1. Background and Introduction ......................................................................... 7
1.2 Aims and Objectives ................................................................................ 10
2 Methodology ................................................................................................. 11
2.1 Sample Selection .................................................................................... 11
2.2 Analysis of FBS Data ............................................................................... 13
3 Results ......................................................................................................... 14
3.1: Summary of Chi-Squared tests ................................................................. 14
3.2: Working with others to achieve environmental benefits ................................ 14
3.3 Environmental monitoring practices ........................................................... 20
3.4 Current practices to reduce greenhouse gas emissions ................................ 25
3.5 Current Practice to adjust to climate change ............................................... 30
3.6 Accessing technical information ................................................................ 35
3.7 Accessing business management information ............................................. 40
3.8: Summary of Logistic Regression Analyses .................................................. 45
4. Discussion ................................................................................................. 47
4.1 Farmer .................................................................................................. 47
4.2 Farm ..................................................................................................... 48
4.3 Farming Finances .................................................................................... 50
4.4 Farm and Farmer Characteristics Summarised ............................................ 50
5. Conclusion and Recommendations ................................................................ 52
5.1 Conclusion ............................................................................................. 52
References ......................................................................................................... 55
Appendix 1: Results of Chi Squared Tests and Logistic Regression Analysis ................ 57
2
List of Tables
Table 1.1: Aspects of Cooperation ……………………………………………………………………………………11
Table 2.1: Potential Explanatory Variables Used in Analysis……………………………………………12
Table 2.2: Collaborative, Environmental and Production Variables Used in Analysis..……13
Table 2.3: Logistic Regression Analysis Dependent Variable Definitions .………………………14
Table 3.1: Summary of Statistical Significance of Factors by Groups ……………………………16
Table 3.2: Summary of Logistic Regression Factors by Groups……………………………….…….47
List of Figures
Figure 3.1: Percentage of ways of working with others to deliver environmental benefits
by education level ………………………………………………………………………………………………………………17
Figure 3.2: Percentage of ways of working with others to deliver environmental benefits
by Farm Type……………………………………………………………………………………………………………………..17
Figure 3.3: Percentage of ways of working with others to deliver environmental benefits
by Government Office Region……………………………………………………………………………………………18
Figure 3.4: Percentage of ways of working with others to deliver environmental benefits
by Farm Business Income (£/farm) groups .……………………………………………………………………18
Figure 3.5: Percentage of ways of working with others to deliver environmental benefits
by Agricultural Output: Agricultural Input Ratio groups.…………………………………………………19
Figure 3.6: Percentage of ways of working with others to deliver environmental benefits
by proportion of utilised agricultural area (UAA) owned groups……………………………………..19
Figure 3.7: Percentage of ways of working with others to deliver environmental benefits
by farmer age (in years) groups……………………………………………………………………………………….20
Figure 3.8: Percentage of ways of working with others to deliver environmental benefits
by segmentation groups…………………………………………………………………………………………………….20
Figure 3.9: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by education level………………………………………………………………………22
Figure 3.10: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Type……………………………………………………………………………..22
Figure 3.11: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Government Office Region……………………………………………………23
Figure 3.12: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Business Income (£/farm) groups……………………………..23
Figure 3.13: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Agricultural Output: Agricultural Input Ratio groups………….24
Figure 3.14: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by proportion of utilised agricultural area (UAA) owned
groups…………………………………………………………………………………………………………………………………24
Figure 3.15: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by farmer age (in years) groups……………………………………………….25
Figure 3.16: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by segmentation groups…………………………………………………………….25
3
Figure 3.17: Percentage of practices to reduce greenhouse gas (GHG) emissions by
education level……………………………………………………………………………………………………………………27
Figure 3.18: Percentage of practices to reduce greenhouse gas (GHG) emissions by Farm
Type………………………………………………………………………………………………………………….........27
Figure 3.19: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Government Office Region…………………………………………………………………………………………………28
Figure 3.20: Percentage of practices to reduce greenhouse gas (GHG) emissions by Farm
Business Income (£/farm) groups…………………………………………………………………………..28
Figure 3.21: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Agricultural Output: Agricultural Input Ratio groups………………………………………………………..29
Figure 3.22: Percentage of practices to reduce greenhouse gas (GHG) emissions by
proportion of utilised agricultural area (UAA) owned groups……………………………………………29
Figure 3.23: Percentage of practices to reduce greenhouse gas (GHG) emissions by farmer
age (in years) groups………………………………………………………………………………………......30
Figure 3.24: Percentage of practices to reduce greenhouse gas (GHG) emissions by
segmentation groups………………………………………………………………………………………………………….30
Figure 3.25: Percentage of current practices to adjust to climate change by education
level…………………………………………………………………………………………………………………………………….32
Figure 3.26: Percentage of current practices to adjust to climate change by Farm
Type…………………………………………………………………………………………………………………………………….32
Figure 3.27: Percentage of current practices to adjust to climate change by Government
Office Region……………………………………………………………………………………………………………………….33
Figure 3.28: Percentage of current practices to adjust to climate change by Farm Business
Income (£/farm) groups…………………………………………………………………………………….33
Figure 3.29: Percentage of current practices to adjust to climate change by Agricultural
Output: Agricultural Input Ratio groups……………………………………………………………………………34
Figure 3.30: Percentage of current practices to adjust to climate change by proportion of
utilised agricultural area (UAA) owned groups…………………………………………………………34
Figure 3.31: Percentage of current practices to adjust to climate change by farmer age
(in years) groups…………………………………………………………………………………………………………….35
Figure 3.32: Percentage of current practices to adjust to climate change by segmentation
groups………………………………………………………………………………………………………….35
Figure 3.33: Access to technical information by education level…………………………………….37
Figure 3.34: Access to technical information by Farm Type……………………………………………37
Figure 3.35: Access to technical information by Government Office Region………………….38
Figure 3.36: Access to technical information by Farm Business Income (£/farm)
groups…………………………………………………………………………………………………………………………………38
Figure 3.37: Access to technical information by Agricultural Output: Agricultural Input
Ratio groups……………………………………………………………………………………………………………………….39
Figure 3.38: Access to technical information by proportion of utilised agricultural area
(UAA) owned groups………………………………………………………………………………………………………….39
Figure 3.39: Access to technical information by farmer age (in years) groups…………….40
Figure 3.40: Access to technical information by segmentation groups………………………….40
Figure 3.41: Access to business management information by education level………………42
Figure 3.42: Access to business management information by Farm Type…………………….42
4
Figure 3.43: Access to business management information by Government Office
Region…………………………………………………………………………………………………………………………………43
Figure 3.44: Access to business management information by Farm Business Income
(£/farm) groups………………………………………………………………………………………………………………….43
Figure 3.45: Access to business management information by Agricultural Output:
Agricultural Input Ratio groups……………………………………………………………………………………….…44
Figure 3.46: Access to business management information by proportion of utilised
agricultural area (UAA) owned groups………………………………………………………………………………44
Figure 3.47: Access to business management information by farmer age (in years)
groups…………………………………………………………………………………………………………………………………45
Figure 3.48: Access to business management information by segmentation groups…..45
5
Executive Summary
Understanding the social and economic drivers and constraints of collaboration
represent important research enquiries within Defra’s Sustainable Intensification
Farm Platform (SIP) research programme.
Building upon previous literature and the results from Defra (2013) this study
draws upon data collected within the 2011/12 FBS for England for 1399 farms; the
hypotheses that there was no association between farmer responses towards
working with others to achieve environmental benefits (WOEB), environmental
monitoring practices (EMP), greenhouse gas reduction practices (GHGRP), current
practices to adjust to climate change (CPCC), access to technical information (ATI)
and access to business management information (ABMI), and explanatory factors
of Farm Type, Farm Size, Government Office Region (GOR), Farm Business Income
(FBI), Agricultural Output value to Agricultural Input costs ratio (AO:AI), proportion
of Utilised Agricultural Area owned (UAA Prop Owned), Education and Farmer Age
were tested. In addition, for a sub-sample of 522 farms the hypotheses were tested
in relation to Segmentation groups.
With respect to working with others to achieve environmental benefits, farm
businesses with managerial personnel who have obtained further or higher
education and are achieving greater levels of farm business performance are most
likely to collaborate with others for environmental benefit.
Farm businesses with further or higher education on the managerial team,
achieving greater levels of Farm Business Income (FBI) (but lower levels of
Agricultural Output to Agricultural Input ration (AO:AI)) are more likely to
undertake environmental monitoring practices, indicating the importance of
non-agricultural income with respect to environmental monitoring.
Younger farmers in the North East, on farms with managerial input at further or
higher education level, are most likely to undertake interventions towards
reducing greenhouse gas emissions; improved nutrient management is most
likely to occur on farms with degree-level educated farmers and farm-type specific
influences of practices to reduce greenhouse gas emissions exist as appropriate to
particular farming enterprises.
Farms with further or higher education within the managerial team are most likely
to undertake intervention practices to adjust to climate change; clear farm
type influences exist, with water efficiency being of greater importance on Dairy
and both water efficiency and water quality being greater on General Cropping and
Horticulture (combined) farms.
Farm businesses with greater levels of FBI and AO:AI ratios, with a member of the
managerial team with further or higher education, and classified as ‘Modern Family
Businesses’, have a greater reliance on accessing technical information
supplied for a charge; technical advice is also linked to enterprise – farm-type
specific factors.
Characteristics of farm businesses accessing business management
information include greater use of advice on farms achieving larger levels of FBI
and AO:AI ratios and having higher levels of educational attainment.
6
While others have identified the typical weakness of farm structural variables as
explanatory factors of collaborative activities (Emery and Franks, 2012), this report
finds that farm structural and outcome variables (e.g. farm type and FBI) are
associated with actions towards working with others to deliver environmental
benefits.
The findings reinforce outcomes from previous studies, in particular with respect to
the importance of human (Mathijs, 2003) and social capital (Pretty and Ward,
2001; Coleman, 1998) factors as captured within this report by indicators including
education, connectedness via farmer discussion groups and farmer self-
segmentation analysis.
Extending the concept of ‘human’ and ‘social’ capital and applying this to the
sustainable intensification of agriculture, it is recommended that the focus of
support should be towards enhancing ‘agricultural managerial capacity’ in particular
via mechanisms that develop such capacity, for example investment in business
benchmarking (House of Lords, 2016) and technical events that engage farmers in
an applied context.
Recommendations flowing from the findings of this report include cross-sector
Government-Industry-Academia investment to support further and higher
agricultural research and education, incentivising agri-tech solutions alongside
embedded training, enhancing business benchmarking and providing regional
flexibility in government supported (e.g. RDP) training courses.
7
1. Background and Introduction
Understanding the social and economic drivers and constraints of collaboration within the
context of Sustainable Intensification (SI) represents a central part of Defra’s Sustainable
Intensification Platform (SIP) research programme. Within this context, the current report
provides analysis of previously collected data, that draws upon Defra’s Farm Business
Survey (FBS) research programme, to address Objective 2.3a (Task 3). The preceding
tasks within Objective 2.3a relate to a review of literature on collaborative activities (Task
1) and case studies (Task 2). Consequently, the focus of this report is on the analysis of
FBS data, placing this in the context of task 1, the literature review. Specifically, the
report analyses attitudes of, and actions undertaken with respect to, collaborative
activities, environmental monitoring and measures taken to mitigate against climate
change, together with analysis of farmer attitudes towards their desire (or otherwise) to
know more about environmental management and practices, working with others to
deliver environmental benefits, and how environmental activities fit within the wider
working of the farm. This report seeks to build upon previous work undertaken by Defra
(2013), analyses examining cooperation and performance (e.g. Wilson et al., 2014) and
the ecosystems services literature (e.g. Emery and Franks, 2012). However, as noted
above the report does not seek to undertake a full analysis of the literature in this field,
but rather to highlight a selection of directly relevant pieces of work prior to the analysis
of data.
Defra’s (2013) report drew upon data from the English Farm Business Survey Business
Management Practices module in 2011/12, comparing these data with results from a
previous 2007/08 module across a range of factors important to SI, including accessing
information, working with others to achieve environmental benefit and attitudes towards
the environment. Within their analysis, Defra identify that a small, but statistically
significant increase in accessing advice across a number of communication channels
occurred. Defra (op cit.) note the importance of farm size and farmer age as key drivers
of business advice with smaller farm business and older farmers being less likely to access
advice. Key regional differences with respect to accessing technical information were
identified; the North West and Yorkshire and Humber regions were more likely to access
technical advice through the farming media and older farmers were less likely to access
Rural Development Programme funded technical advice. With respect to environmental
monitoring large farms and those in the South East were identified as being more likely to
undertake environmental monitoring; with respect to farm business performance Defra
(op cit.) identified that higher performing farms were more likely to undertake
environmental monitoring, albeit that this result was not statistically significant. Farm
type differences were also observed, in particular with respect to soil testing being
undertaken on 92% of General Cropping farms in contrast to 57% on Lowland Grazing
Livestock farms. Examining environmental collaborative practices specifically, Defra
(2013) note that farm type influences exist with Cereal farms being the most likely to work
with others to achieve environmental benefits, and Pig farms the least likely. It is
informative to note that lower performing farms were more likely than higher performing
business to not collaborate in respect to working with others to achieve environmental
benefit; moreover regional differences were also observed, with farmers in the North East
and Yorkshire and Humber being the most likely to not collaborate, and those in the South
East and South West, the least likely to not work with others to achieve environmental
benefits. while farm type influences exist, regional and farm business performance
differences were found to not be statistically significant with respect to working with others
to achieve environmental benefit.
The subject of cooperation and collaboration has recently received renewed attention
within Defra as evidenced by the report by Wilson et al. (2014) into Farm Business
Innovation, Cooperation and Performance. The focus of the 2014 report was primarily
around identifying factors associated with innovation and performance, within the context
of cooperation or collaborative activities (relatively narrowly defined, e.g. machinery
8
sharing or contract rearing), with this latter aspect forming a central theme of the
literature review of Wilson et al. Supplementary to Wilson et al. (op cit.) the literature
review embedded within this current SIP Objective 2.3a programme has extended the
literature analysis previously presented to Defra, in particular to provide a more holistic
view of collaboration / cooperation, within the specific objectives of SI and in particular
achieving positive environmental outcomes at the landscape scale. The remainder of this
section highlights a number of key points that have emerged from the literature, while not
seeking to repeat the literature review previously presented, but to highlight key areas
which will facilitate discussion of the results derived from the data analysis within this
report. Within the literature, the terms “collaboration” and “cooperation” are frequently
used interchangeably to define any actions whereby farmers are working together to
achieve either a common goal or to gain mutual benefits, broadly defined. However,
“collaboration” most frequently refers to collective or joint action that provides an
environmental benefit, while “cooperation” tends to be used to define actions pertaining
to production, marketing or business activities.
Other authors have focused upon the importance of ‘social capital’ within agricultural-
environmental sustainability contexts (e.g. Mathijs 2003) within the context that social
bonds and norms of behaviour are of importance in delivering sustainable solutions, in
particular where collective action is required (Pretty and Ward, 2001) and given that it can
be viewed as input to a production process (Coleman, 1998). Within the context of
delivery of the Countryside Stewardship Scheme (CSS), Mathjis (op cit.) notes the
importance of farmer ‘openness’ to contacts with professionals and non-professional as
drivers of willingness to engage in CSS activities. Pretty and Ward (op cit.) note that
“connectedness, networks and groups” form one of the four central aspects of social capital
– others being “relations of trust”, “reciprocity and exchanges”, “common rules, norms
and sanctions” (Pretty and Ward, 2001, pp 211). Others have argued that while it is
challenging to capture metrics of social capital, the educational attainment of individuals
provides an objective measure of ‘human capital’ (Schermer et al., 2011), while other
indicators taken together also influence social capital – for example, age, gender, health,
family characteristics, education, attitudes, values and geographic association (Lehtonen,
2004). Hence, within the context of sustainable intensification of agriculture, contacts and
levels of engagement with others (e.g. via discussion groups), education levels (e.g.
School versus degree in Agriculture), age of decision maker, attitudes (e.g. self-identify
of the farmer) and association (e.g. regionally or collectively within a type of farming
system) arguably provide a range of indicators that can be viewed as social capital within
an agricultural context.
Within the ecosystems services literature the importance of the appropriate landscape
scale has been highlighted as a necessary, but system-specific, condition of successful
intervention, albeit that collaborative actions across farms represents a small proportion
of the management activities funded thus far via Agri-Environment Schemes (AES) in the
UK. Considering this within the context of data pertaining to individual farm businesses
suggests that issues of farm type and particular regions may potentially influence
collaborative activities while farm business performance is likely to be a smaller influencing
factor (Defra 2013). Pragmatically, collaboration (and cooperation) is specifically
influenced by geography, physical distance and personal relationships. Individual farmers
that are willing to collaborate and seek out others with whom to collaborate with may be
constrained by farmers who are geographically close, but who do not wish to collaborate
or cooperate. With respect to environmental outcomes, successful collaboration may
require contiguous land parcels to be linked for effective collaboration. In terms of
production cooperation, similar farm types in close proximity may be required for success,
or alternatively complementary farm types (e.g. straw for manure arrangements between
livestock and arable farms). However, while a number of factors influence collaboration,
it was also noted (Emery and Franks 2012) that with respect to the delivery of AES
activities, some authors have identified patterns across structural variables such as farm
9
type, size, farmer age and finances. Meanwhile, evidence does suggest that existing
engagement with AES activities is likely to facilitate future engagement.
Fundamental drivers of, and barriers, to collaboration and cooperation include issues of
personal objectives, experiences and values which in turn are potentially influenced by
education, exposure to information and farmer age; the two former aspects being
potentially modifiable with respect to policy delivery. Barriers to success include lack of
communication and mutual understanding, farmer’s individual desire for independence,
attitudes towards risk, in particular with respect to machinery sharing and the use of
machinery at the most appropriate time. In these contexts social contacts and access to
information can be important factors. The formal and informal nature of collaborative
practices is also important to recognise – some farmers may view collaboration or
cooperative practices as “being neighbourly”, while others may view similar activities
explicitly as cooperation.
Table 1.1 draws upon Wilson et al.’s (2014) summary of cooperation enablers and
constraints and has been extended on the basis of the key findings from the literature
review in SIP 2. In summary, a range of factors are seen as enabling aspects of
cooperation. Financial benefits, directly achieved, or via economies of scale and efficiency
improvements, are clear cooperation enablers and tend to revolve around production or
resource (labour and machinery) sharing activities. Social interactions and structures that
facilitate interactions are also enabling factors of cooperation – in particular via discussion
groups and strong cohesive farmer and social networks; trust between members is a clear
enabler towards cooperation. With respect to environmental outcomes, clear scheme aims,
developed in consultation with farmers and delivered through small or modest sized
collaborative groups are effective, particularly when there is not a requirement for the
whole farm to be included in a scheme. Group member skills are also important,
encompassing business and practical skills. Compatibility of labour and machinery
availability between parties enables cooperation; it is interesting to note that this can be
derived via farms with the same enterprises (e.g. two combinable cropping farms), or
farms with mutually beneficial machinery with respect to timing of use (e.g. dairy and beef
farms working together for silage making). Some farmers view strong relationships with
contractors as a form of collaboration that is more typically viewed and conceptualised
within the context of machinery rings or sharing arrangements. Consultants, advisers and
‘innovation brokers’ are additional enabling factors towards cooperation, while trust, often
gained from past experiences or family connections, additionally aids cooperation.
Interactions along the marketing or value chain, in contrast to arms-length trading, also
enable cooperation. Factors associated with similar or different farm types can additionally
aid or constrain collaboration; however the clear message being that benefits need to
accrue to all parties. Weaker associations of collaboration include the different attitudes
held between early and later group adopters, and the need for strong governance and
clear member benefits to communicated and achieved.
10
Table 1.1: Aspects of Cooperation
Cooperation Enabling Cooperation Constraining Level of confidence
Clear financial benefit / economies of scales / increase efficiency of production
No demonstrable financial or other benefit, including economic failure experiences
+++
Labour and machinery pooling +++
Farmer discussion groups / social cohesion Social gaps between farmers +++
Trust between farmers Uncertainty over motivations of others ++
Flexibility over choice of other farmers to work with to achieve environmental outcomes, including small group size with clear scheme aims
Requirement to work with specific neighbours or large number of group members
++
Farmer involvement in scheme design and environmental schemes not requiring the whole farm to be included
Limitations in institutional support / infrastructure to members
++
Strong communication, practical and business skills of group members
++
Compatibility of labour, machinery or technology to sharing between members
Timeliness constraints over shared resources
++
Strong contractor or machinery sharing relationships or prospects
Negative past experiences over machinery sharing, including cost sharing disputes
++
Advisers and innovation brokers Lack of external influence on the group and farmer desire for independence
++
Value or marketing chain interactions Arms-length trading and ‘weak’ cooperative management in particular with respect to output prices achieved
++
Complementary farm types (e.g. combinable cropping and intensive pigs)
Biosecurity ++
Inaugural members of cooperation group Joining established group / motivations for cooperation non-aligned with those of
existing members.
+
Dedication of members with clear leadership / decision making processes
+
Key to level of confidence: + weak; ++ moderate; +++ strong. Source: Based upon Wilson et al. (2014), with additions drawn SIP 2 literature review.
1.2 Aims and Objectives
This analysis will examine the above attitudes, actions and activities in relation to a range
of farm and farmer characteristic data including: farmer biographical (e.g. age,
education); economic (e.g. Farm Business Income [FBI]); geographical; farm type; farm
size; and agricultural business performance (e.g. analysis of the above collaborative
practices in relation to agricultural performance in addition to whole farm business
performance) for 1399 farm businesses across England. For a sub-set of 522 of the above
1399 farm businesses, the impact of self-categorisation drawing upon attitudinal and
behavioural segmentation approaches will also be examined.
11
2 Methodology
2.1 Sample Selection
Data was taken from the Farm Business Survey (FBS) 2011/12 drawing upon the core FBS
data relating to physical and financial farm performance, farm characteristics and business
management practices data on 1399 farm businesses across England. Drawing on these
1399 observations provides the largest possible data set for analysis, however, a few of
the these farms fell below the FBS threshold and would not have been included in the
formal data set for the 2011/12 year. Moreover, the data analysis presented in the tables
and charts in this report use unweighted data and averages may therefore not reflect the
full background population. In a few cases practices or defining structural characteristics
(e.g. farm type) have been combined to permit data analysis and presentation. The
specific variables drawn from the FBS for the analysis in this report are detailed in Table
2.1 (potential explanatory variables) and Table 2.2 (collaborative, environmental and
production practices variables). In addition, data on 522 of these farm businesses were
also cross-referenced to self-segmentation data pertaining to the principal farm decision-
maker from the FBS 2009/10 year, where data were collected during the period February
to September 2010.
Table 2.1: Potential Explanatory Variables Used in Analysis
FBS Core Data
Farm Type Cereals; Dairy; General Cropping; Horticulture; LFA [Less Favoured Area]
Grazing Livestock; Lowland Grazing Livestock; Miked; Pigs and Poultry
(combined group).
Government Office Region
(GOR)
NE=North East; NW=North West; Y&H= Yorkshire and the Humber;
EM=East Midlands; WM=West Midlands; EE=East of England; SE=South
East; SW=South West.
Farm Business Income £/farm
(FBI)
FBI groups given in £/farm: <0; 0-30k; 30-60k; 60-90k; 90-120k; 120-
200k; 200k+.
Agricultural Output:
Agricultural Input ratio
(AgO:AgI)
Agricultural Output value divided by Agricultural Input cost where measures
<1 refer to costs exceeding value of output and >1 refers to value of outputs
exceeding costs: <0.75; 0.75-1; 1-1.25; >1.25.
Utilised Agricultural Area
proportion owned by farmer
(UAA Prop Owned)
Proportion of utilised agricultural area (UAA) owned by the farmer groups:
<0.25; 0.25-0.5; 0.5-0.75; >0.75.
FBS Business Management
Practices
Highest education level and
details of individuals with
managerial responsibility
(Education)
In increasing level: 1) No FE.HE= No further or higher level education; 2)
Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture,
related subject or in business management, accounting, marketing,
economics or related subject; 3) Degree.Bus.Other= Degree in business
management, accounting, marketing, economics or related subject or any
other subject; 4) Degree.Ag= Degree in agriculture or a related subject;
5) PG= Postgraduate qualification in business management or related
subject.
Age of the youngest member
of the farm with managerial
responsibility (Age)
Farmer age groups (in years): <30; 30-39; 40-49; 50-59; 60-69; 70+.
FBS Segmentation Analysis
Self-Segment Group
(Segment)
C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family
Business; CE=Challenged Enterprise.
12
Table 2.2: Collaborative, Environmental and Production Variables Used in Analysis
Group Abbreviation Definition of Activity
Ways o
f w
ork
ing w
ith
oth
er
to d
eliver
environm
enta
l benefits
(WO
EB)
NC No collaboration
FDDGN Farmer-driven discussion groups/networks of farmers
FDCEABNF Farmer-driven coordination of environmental activities and benefits with neighbouring farms
BPFDIOA As a by-product from farmer-driven initiatives which have other aims e.g.
shooting syndicates
PETPB Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts
AETPB Active engagement through third-party bodies e.g. RSPB, FWAG, GAME
conservancy and wildlife trusts
Environm
enta
l
monitoring
pra
ctices (
EM
P)
NP No practices
WBSI Wild birds. E.g. bird counts (self-initiated)
WBNSI Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance
scheme)
OMSI Other monitoring, e.g. floral, habitats, wild animals (self-initiated)
OMNSI Other monitoring, e.g. floral, habitats, wild animals (not self-initiated)
ST Soil testing
Gre
enhouse g
as
reduction
pra
ctices
(GH
GRP)
NI No intervention
INM Improved nutrient management
ISMM Improved slurry/manure management
ISD Improved soil drainage
LHAD Livestock health and adjustments to diet
FELET Fuel efficient/low emissions tractors
Other Other
Curr
ent
pra
ctices t
o
adju
st
to c
lim
ate
change (
CPCC
)
NI No intervention
WE Water efficiency
WQ Water quality
LUCEP Land use change and environmental protection
LS Livestock sustainability
CS Crop sustainability
SM Soil management
SK Sharing knowledge
SA Seeking advice
Access t
o t
echnic
al
info
rmation (
ATI)
NI None identified
TOF Through talking to other farmers
FM Through the farming media e.g. internet sites, trade magazines
ED Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies
DG Through discussion groups, farm walks or workshops
TANC Through technical advice supplied with no direct charge, e.g. input supplier
TAWC Through technical advice supplied for a charge
RAHT Through RDP-funded initiatives with a strong animal health theme
RTT Through RDP-funded initiatives with a strong technical theme
Access t
o b
usin
ess
managem
ent
info
rmation
(ABM
I)
NI None identified
TOF Through talking to other farmers
FM Through the farming media e.g. internet sites, trade magazines
ED Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies
DG Through discussion groups, farm walks or workshops
ANC Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS)
AWC Through specific business advice supplied for a charge (e.g. consultant)
RBMT Through RDP-funded initiatives with a strong business management theme
Note: Farms can undertake one or more activity within each category. Analysis presented for each group shows that the percentage undertaken in any group can sum to >100%. With respect to WOEB and EMP, farms classificited as “not applicable” (e.g. intensive holdings/protective cropping) were excluded from analysis.
13
2.2 Analysis of FBS Data
Drawing upon FBS data for 2011/12, data were extracted for the variables noted in Tables
2.1 and 2.2. The focus of the analysis was to test the hypotheses that there was no
association between the responses from farmers towards WOEB, EMP, GHGRP, CPCC, ATI
and ABMI and the potential explanatory factors of Farm Type, GOR, FBI, AgO:AgI, UAA
Prop Owned, Greatest level of Educational Attainment of Individuals with Managerial
Responsibility, Age of the Youngest Person of the Farm Team with Managerial
Responsibility, and for the reduced sample of 522 farms, Segmentation group.
Specifically, the analysis sought to establish if the presence or absence of particular farm
or farmer characteristics may explain differences in farmer responses to towards WOEB,
EMP, GHGRP, CPCC, ATI and ABMI. As the data pertaining to the variables of interest
represented count, or observational data only, these non-continuous or categorical data
were tested via a Chi-Squared test1 in order to provide overview analysis of the data
pertaining to the broad influence of potential explanatory or correlated variables. Note
however that this level of statistical testing does not seek to determine the causal effects
of individual variables.
Further analysis was therefore undertaken following the Chi-Squared tests via logistic
regression analysis in Genstat (17th edition) to identify the key drivers within each of the
categories identified above. Table 2.3 shows the dependent variable for each group. A
logistic regression was run for each dependent variable against the following independent
variables (Farm Business Income [£/farm], Age of Youngest Manager [years], Proportion
of Utilised Agricultural Area owned by the farm business [proportion], Government Office
Regions (GORs) [one of 8 GORs in Table 2.1 set as factors], Farm Type [one of 8 Farm
Types set as factors], Education [one of 5 Education codes in Table 2.1 set as factors].
Table 2.3: Logistic Regression Analysis Dependent Variable Definitions
Group Definition of Dependent Binary Variable Mean value
WOEB 2 or more practices undertaken 0.147
EMP 3 or more practices undertaken 0.208
GHGRP 3 or more practices undertaken 0.189
CPCC 4 or more practices undertaken 0.187
ATI 5 or more practices undertaken 0.416
ABME 4 or more practices undertaken 0.445
Key: Ways of working with other to deliver environmental benefits (WOEB); Environmental monitoring practices (EMP); Greenhouse gas reduction practices (GHGRP); Current practices to adjust to climate change (CPCC); Access to technical information (ATI); Access to business management information (ABMI).
1 A continuous variable can take any value- for example farm income, whereas categorical data can only take a
finite number of values, for example farm type.
14
3 Results
3.1: Summary of Chi-Squared tests
Table 3.1 provides an overview of the results derived from the Chi-Squared significance
tests undertaken on the data. Appendix 1, Tables A.1.1 to A.1.48 details the results of
the individual tests, while Figures 3.1 to 3.48 inclusive in this chapter provide a visual
representation of the results within particular areas of interest. Within Table 3.1 it is
interesting to note that the most common factors for which significant differences arise
across the activities examined are Farm Business highest education level present
(individuals with managerial responsibility), Farm Type, Government Office Region (GOR)
and Farm Business Income (FBI); however there is a strong correlation between certain
Farm Types and GORs given the regional clustering of particular Farm Types and hence
the results need to be interpreted in this context as discussed further in Section 4. For a
number of areas, farmer age (defined as the age of the youngest person on the farm with
managerial responsibility) additionally has been found to be a significant factor. The
Utilised Agricultural Area proportion owned (UAA Prop Owned) was found to be significant
factor in a small number of cases. It is informative to note that while overall farm
profitability, as measured by Farm Business Income (FBI) in £/farm is identified as a main
driver, the more narrowly defined metric of specific agricultural performance (The ratio of
Agricultural Output value to Agricultural Input costs (AgO:AgI)) was found to be marginally
less of a significant factor with respect to the range of activities examined in comparison
to the business level FBI metric. Farmer self-segmentation group analysis revealed fewer
significant influences with respect to environmental, climate change or greenhouse gas
practices, and only reveals modestly significant results with respect to accessing technical
and business management information. However this may be related to the smaller
number of data points available for analysis, particularly for some segments.
3.2: Working with others to achieve environmental benefits
Farm businesses where school level qualifications represented the highest level of
educational achievement of any individual with managerial responsibility undertook fewer
collaborative activities; this was particularly the case with respect to farmer driven
discussion groups and networks and passive or active engagement through third party
bodies (Figure 3.1). Farm type groupings (Figure 3.2) were observed to have a significant
impact on working together to achieve environmental benefits, in particular with respect
to active engagement through third party bodies. Regional influences (Figure 3.3)
demonstrate that farmers in the Yorkshire and the Humber region were less likely to
undertake collaborative environmental practices, while farmers in the South East and
South West were more likely to undertake collaborative practices. Greater collaboration
via passive or active engagement through third party bodies was observed in the West
Midlands, East of England, South East and South West. Lower levels engagement through
farmer discussion groups and networks was observed in Yorkshire and Humber, West
Midlands and the East of England. A significant influence of farm business income groups
(Figure 3.4) was identified with collaborative practices increasing as FBI increases. There
is an overall significant impact of agricultural performance groups, as measured by the
ratio of agricultural output value to agricultural input costs (Figure 3.5), indicating that
those farmers achieving the lowest Agricultural Input - Output Ratios undertake greater
levels of collaborative practises. Similarly, there was no significant influence of the
proportion of the utilised agricultural area owned on collaborative environmental activities
(Figure 3.6). Farmer age groups (Figure 3.7) did not have a significant influence on
collaborative practices, with the exception of lower levels of passive engagement through
third party bodies in the 40-49 year old farmer group. Segmentation group had no clear
influence on collaborative environmental practice (Figure 3.8), albeit that there was a
trend for Pragmatist and Modern Family Businesses to engage to a lower extent with
farmer discussion groups and networks to deliver environmental benefits.
15
Table 3.1: Summary of Statistical Significance of Factors by Groups
G
roup
Activity
Education
Farm
Type
GO
R
FBI
AgO
:AgI
UAA P
rop
Ow
ned
Age
Segm
ent
Ways o
f
work
ing w
ith
oth
er
to d
eliver
environm
enta
l
benefits
(WO
EB)
NC *** *** **
FDDGN *** #1 *** #2 #4 * #5
FDCEABNF ** #1 *** #2 *** #4 * #5
BPFDIOA *** *** ***
PETPB ** ** *** #3 ** ** ***
AETPB *** ** *** #3 ***
Environm
enta
l
monitoring
pra
ctices
(EM
P)
NP *** *** *** ***
WBSI * ***
WBNSI ** ** *** **
OMSI *** **
OMNSI *** *** * **
ST *** *** *** ** * ***
Gre
enhouse
gas r
eduction
pra
ctices
(GH
GRP)
NI *** *** *** *** *** ** ***
INM *** *** ** *** *** *** ***
ISMM ** *** ** *** ** ** *** **
ISD * *** ** *** * ***
LHAD ** *** ** ** **
FELET ** *** *** *** ** ***
Curr
ent
pra
ctices t
o
adju
st
to c
lim
ate
change (
CPCC
)
NI *** *** *** *** **
WE ** *** *** *** *
WQ * *** ***
LUCEP * ** *** ***
LS *** *** ** **
CS * *** *** ***
SM *** *** *** *** * ** **
SK *** * * ** * **
SA *** ** **
Access t
o t
echnic
al
info
rmation (
ATI)
TOF * *
FM
ED *** ** *** *
DG *** ** ** *** * *** **
TANC
TAWC *** *** *** *** *** ** * ***
RAHT *** *** *** *** *
RTT *** *** ***
Access t
o b
usin
ess
managem
ent
info
rmation (
ABM
I) NI * * - - - * -
TOF ***
FM ***
ED *** *** *** *** * **
DG *** ** *** ** ** **
ANC *** * *
AWC *** #6 *** ** * * #7
RBMT *** * #6 * ** * #7
Key: See Tables 2.1 and 2.2: Statistical significance level (*=90%; **=95%; ***=99%). #j = j activities combined with corresponding joint significant noted.
16
Figure 3.1: Percentage of ways of working with others to deliver environmental benefits
by education level. Key: NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of
farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; PG= Postgraduate qualification in business management or related subject.
Figure 3.2: Percentage of ways of working with others to deliver environmental benefits
by Farm Type. Key: NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers;
FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts.
0
10
20
30
40
50
60
70
80
No FE.HE Clg.NDC.Cert.Ag.Bus Degree.Bus.Other Degree.Ag Postgrad.BusMngt
Per
cen
tage
NC FDDGN FDCEABNF BPFDIOA PETPB AETPB
0
10
20
30
40
50
60
70
Cereals Dairy GeneralCropping
Horticulture LFA GrazingLivestock
LowlandGrazing
Livestock
Mixed, Pigsand Poultry
Per
cen
tage
NC FDDGN/FDCEABNF BPFDIOA PETPB AETPB
17
Figure 3.3: Percentage of ways of working with others to deliver environmental benefits
by Government Office Region. Key: NC=No collaboration; FDDGN=Farmer-driven discussion
groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.4: Percentage of ways of working with others to deliver environmental benefits
by Farm Business Income (£/farm) groups. Key: NC=No collaboration; FDDGN=Farmer-driven
discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies
e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. FBI groups given in £/farm.
0
10
20
30
40
50
60
70
80
90
NE NW Y&H EM WM EE SE SW
Per
cen
tage
NC FDDGN/FDCEABNF BPFDIOA PETPB/AETPB
0
10
20
30
40
50
60
70
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
NC FDDGN FDCEABNF BPFDIOA PETPB AETPB
18
Figure 3.5: Percentage of ways of working with others to deliver environmental benefits
by Agricultural Output: Agricultural Input Ratio groups. Key: NC=No collaboration;
FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs.
Figure 3.6: Percentage of ways of working with others to deliver environmental benefits
by proportion of utilised agricultural area (UAA) owned groups. Key: NC=No collaboration;
FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. Proportion of utilised agricultural area (UAA) owned by the farmer groups.
0
10
20
30
40
50
60
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
NC FDDGN FDCEABNF BPFDIOA PETPB AETPB
0
10
20
30
40
50
60
70
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
NC FDDGN FDCEABNF BPFDIOA PETPB AETPB
19
Figure 3.7: Percentage of ways of working with others to deliver environmental benefits
by farmer age (in years) groups. Key: NC=No collaboration; FDDGN=Farmer-driven discussion
groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. Farmer age groups (in years).
Figure 3.8: Percentage of ways of working with others to deliver environmental benefits
by segmentation groups. Key: NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks
of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise.
0
10
20
30
40
50
60
70
<30 30-39 40-49 50-59 60-69 70+
Per
cen
tage
NC FDDGN/FDCEABNF BPFDIOA PETPB AETPB
0
10
20
30
40
50
60
70
C/LC/CE P MFB
Per
cen
tage
NC FDDGN BPFDIOA PETPB AETPB
20
3.3 Environmental monitoring practices
As observed for working with others to deliver environmental practices (section 3.2) farm
businesses where school level qualifications represented the highest level of educational
achievement of any individual with managerial responsibility undertook fewer
environmental monitoring practices (Figure 3.9). Significant impacts of farm type
groupings (Figure 3.10) on environmental monitoring practices were observed, in
particular for soil testing which was carried out on a larger proportion Cereals, Dairy,
General Cropping and Mixed farms as would be expected a priori; in addition, Pig and
Poultry farm types were observed to have the greatest proportion of businesses
undertaking no practices. The Yorkshire and Humber, North West and South West regions
had greater proportions of farmers that undertook no environmental monitoring practices
(Figure 3.11). Of particular note is the lower than expected levels of self-initiated wild
bird counts and other self-initiated monitoring in the Yorkshire and Humber region. Note
that while South Western self-initiated monitoring levels were in line with other regions,
non-self-initiated monitoring in the South West is notably lower. A significant influence
of farm business income (Figure 3.12) was identified with a clear decrease in farm business
undertaking no environmental monitoring practices as FBI increases; it is informative to
note the increase in soil testing as FBI increasing, indicating the interaction of Farm Type
and FBI performance within these data when examining the results from Figures 3.10 and
3.12 tighter. The impact of agricultural performance group (Figure 3.13) was identified
with respect to soil testing increasing with Agricultural Output to Agricultural Input ratio,
while a reverse non-significant trend is observed for other monitoring that is self-initiated.
With respect to the proportion of the utilised agricultural area owned (Figure 3.14), it is
interesting to note the significantly lower levels of other non-self-initiated environmental
monitoring on farms with greater than 50% owned utilised agricultural area. Farmer age
groups (Figure 3.15) demonstrated a significant negative trend for undertaking soil testing
as age increases, while no other significant impacts of age group were identified. Farmer
segmentation group analysis indicates a lower level of soil testing undertaken on Custodian
and Lifestyle Choice and Challenged Enterprise (combined) groups (Figure 3.16).
21
Figure 3.9: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by education level. Key: NP=No practices; WBSI=Wild birds. E.g. bird counts
(self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; PG= Postgraduate qualification in business management or related subject.
Figure 3.10: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Type. Key: NP=No practices; WBSI=Wild birds. E.g. bird counts
(self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing.
0
10
20
30
40
50
60
70
80
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
0
10
20
30
40
50
60
70
80
90
Cereals Dairy GeneralCropping
Horticulture LFA GrazingLivestock
LowlandGrazing
Livestock
Mixed Pigs &Poultry
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
22
Figure 3.11: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Government Office Region. Key: NP=No practices; WBSI=Wild birds.
E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.12: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Business Income (£/farm) groups. Key: NP=No practices;
WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. FBI groups given in £/farm.
0
10
20
30
40
50
60
70
80
NE NW Y&H EM WM EE SE SW
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
0
10
20
30
40
50
60
70
80
90
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
23
Figure 3.13: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Agricultural Output: Agricultural Input Ratio groups. Key: NP=No
practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs.
Figure 3.14: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by proportion of utilised agricultural area (UAA) owned groups. Key: NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. Proportion of utilised agricultural area (UAA) owned by the farmer.
0
10
20
30
40
50
60
70
80
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
0
10
20
30
40
50
60
70
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
24
Figure 3.15: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by farmer age (in years) groups. Key: NP=No practices; WBSI=Wild
birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other
monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing.
Figure 3.16: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by farmer age segmentation groups. Key: NP=No practices; WBSI=Wild
birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprises.
0
10
20
30
40
50
60
70
80
<30 30-39 40-49 50-59 60+
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
0
10
20
30
40
50
60
70
80
C LC/CE P MFB
Per
cen
tage
NP WBSI WBNSI OMSI OMNSI ST
25
3.4 Current practices to reduce greenhouse gas emissions
Where school level qualifications represented the highest level of educational achievement
of any individual with managerial responsibility, farm businesses were observed to
undertake fewer practices to reduce GHG emissions (Figure 3.17). Improved nutrient
management was greatest amongst degree educated farmers (and lowest amongst farm
businesses having no further or higher education). Farm type groups (Figure 3.18) were
observed to have a significant impact on GHG reduction practices. Of particular note are
the greater levels of General Cropping and Horticulture (combined), Grazing Livestock
(LFA and Lowland) and Pig and Poultry farm types to have recorded no GHG reduction
practices (this may in part be due to the nature of the specific questions within the survey).
As anticipated, improved slurry/manure management was more frequently observed on
livestock farms, in particular on dairy farms. Improvement to livestock health and
adjustments to diets were greatest on Dairy and Pig and Poultry farms; fuel efficiency or
low emissions tractors were more frequently observed on Cereals and Mixed farms.
Regionally, farms in the Yorkshire and Humber and East of England regions recorded
greatest levels of no interventions with respect to GHG reduction practices, while farms in
the North East and East Midlands recorded the lowest level of ‘no interventions’ (Figure
3.19). Improved slurry/manure management was greatest in the North West and South
West (were larger concentrations of dairy farms are located), but also high in the North
East. Note that the West Midlands recorded the greatest proportion of livestock health
and adjustment to diet practices. Substantial and significant regional differences were
observed with respect to investment in fuel efficient/low emissions tractors, with the North
East, East Midlands and South East recording greater levels in this category. A significant
influence of farm business income (Figure 3.20) on GHG reduction practices was observed,
with a clear increase in improved nutrient management as FBI increases. More generally,
there is a decrease in the proportion of farm businesses undertaking no practices as FBI
increases. With respect to the agricultural output: agricultural input ratio groups (Figure
3.21) the proportion of farm undertaking no practices decreases as the ratio increases and
conversely, the proportion of farms undertaking improved nutrient management increase.
With respect to tenure, farmers with more than 75% of their UAA owned recorded the
greatest proportion of ‘no intervention’ in GHG reduction practices, while those with 50-
75% UAA owned recorded the lowest level of ‘no intervention’; notably this group recorded
a greater proportion that undertook improved nutrient management and had invested in
fuel efficient / low emissions tractors (Figure 3.22). There was a clear and significant
linkage between farmer age groups (Figure 3.23), with the proportion recording ‘no
intervention’ increasing with farmer age; the reverse trend is broadly observed with
respect to levels of improved slurry/manure management and improved nutrient
management decreasing with farmer age. With respect to farmer segmentation groups
(Figure 3.24) improved slurry or manure management was more likely to be observed on
Lifestyle Choice and Challenged Enterprises (combined) and Modern Family Businesses.
26
Figure 3.17: Percentage of practices to reduce greenhouse gas (GHG) emissions by
education level. Key: NI=No intervention; INM=Improved nutrient management; ISMM=Improved
slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells.. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; PG= Postgraduate qualification in business management or related subject.
Figure 3.18: Percentage of practices to reduce greenhouse gas (GHG) emissions by Farm
Type. Key: NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure
management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
0
10
20
30
40
50
60
70P
erce
nta
ge
NI INM ISMM ISD LHAD FELET
0
10
20
30
40
50
60
Cereals Dairy GeneralCropping andHorticulture
LFA GrazingLivestock
LowlandGrazing
Livestock
Mixed Pigs & Poultry
Per
cen
tage
NI INM ISMM ISD LHAD FELET
27
Figure 3.19: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Government Office Region. Key: NI=No intervention; INM=Improved nutrient management;
ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.20: Percentage of practices to reduce greenhouse gas (GHG) emissions by Farm
Business Income (£/farm) groups. Key: NI=No intervention; INM=Improved nutrient management;
ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells. FBI groups given in £/farm.
0
10
20
30
40
50
60
70
NE NW Y&H EM WM EE SE SW
Per
cen
tage
NI INM ISMM ISD LHAD FELET
0
10
20
30
40
50
60
70
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
NI INM ISMM ISD LHAD FELET
28
Figure 3.21: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Agricultural Output: Agricultural Input Ratio groups. Key: NI=No intervention; INM=Improved
nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’
due to small number of observations (<5) in a number of cells. Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs.
Figure 3.22: Percentage of practices to reduce greenhouse gas (GHG) emissions by
proportion of utilised agricultural area (UAA) owned groups. Key: NI=No intervention;
INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells. Proportion of utilised agricultural area (UAA) owned by the farmer.
0
10
20
30
40
50
60
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
NI INM ISMM ISD LHAD FELET
0
10
20
30
40
50
60
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
NI INM ISMM ISD LHAD FELET
29
Figure 3.23: Percentage of practices to reduce greenhouse gas (GHG) emissions by farmer
age (in years) groups. Key: NI=No intervention; INM=Improved nutrient management; ISMM=Improved
slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Figure 3.24: Percentage of practices to reduce greenhouse gas (GHG) emissions by
segmentation groups. Key: NI=No intervention; INM=Improved nutrient management; ISMM=Improved
slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet;
FELET=Fuel efficient/low emissions tractors; Excludes ‘Other’ due to small number of observations (<5) in a number of cells. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise.
0
10
20
30
40
50
60
70
<30 30-39 40-49 50-59 60+
Per
cen
tage
NI INM ISMM ISD LHAD FELET
0
10
20
30
40
50
60
C LC/CE P MFB
Per
cen
tage
NI INM ISMM ISD LHAD FELET
30
3.5 Current Practice to adjust to climate change
Farm businesses where school level qualifications represented the highest level of
educational achievement of any individual with managerial responsibility undertook fewer
practices to adjust to climate change (Figure 3.25); broadly as the level of education
increased the proportion of farm businesses that undertake no practices to adjust to
climate change decreased. Significant results with respect to sharing knowledge
demonstrated that, in general, as education level increased, practices towards sharing
knowledge increased. Farm businesses where no further or higher education was present
amongst the managerial personnel were least likely to seek advice on practices to adjust
to climate change. Farm type groupings had a significant impact on climate change
adjustment practices (Figure 3.26) with the greatest proportions of no practices observed
on Grazing Livestock (LFA and Lowland) and Mixed, Pig and Poultry (combined) farms.
Water efficiency was more overserved on Dairy and General Cropping and Horticulture
farms (combined), while water quality and land use change were of greatest importance
on General Cropping and Horticulture (combined) farms. As anticipated livestock and crop
sustainability were more frequently cited on cropping and livestock farm types
respectively, with soil management dominate on Cereals farms. Regional influences
(Figure 3.27) demonstrated that farmers in the Yorkshire and Humber region were more
likely to undertake ‘no interventions’ towards adjusting to climate change; by contrast
East Midlands’ farmers recorded the lowest level of ‘no intervention’. Regional differences
were also observed with respect to water efficiency, water quality, land use change and
environmental protection, livestock sustainability and crop sustainability. A significant
influence of farm business income was identified with respect to practices to adjust to
climate change (Figure 3.28) with the proportion of farms undertaking no intervention
broadly declining as FBI increases. Significant influence of agricultural performance
groups (Figure 3.29), as measured by the ratio of agricultural output value to agricultural
input costs was only noted with respect to livestock sustainability, and soil management,
most probably reflecting farm type influences. The influence of the proportion of the
utilised agricultural area owned on current practices to adjust to climate change (Figure
3.30) was most evident with respect to the lower level of soil management on farms with
greater than 75% owned UAA. Farmer age groups (Figure 3.31) demonstrates a
significant influence of age on ‘no intervention’ towards practices to adjust to climate
change; specifically a greater proportion of farmers in the 60+ age bracket recorded no
intervention towards climate change adaptation practices. It is informative to note that
there are substantial proportional differences for a number of practices with respect to
adjusting to climate change by segmentation group (Figure 3.32) albeit that these are
largely not statistically significant. In particular, note the large proportion of modern
family businesses undertaking water efficiency practices and the large proportion of
Lifestyle Choice and Challenge Enterprises farm businesses undertaking no interventions
in comparison to the other groups.
31
Figure 3.25: Percentage of current practices to adjust to climate change by education
level. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and
environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag= College national diploma/certificate in agriculture or related subject; Clg.NDC.Cert.Bus= College national diploma/certificate in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus= Degree in business management, accounting, marketing, economics or related subject; Degree.Other= Degree (any other subject); Postgrad.BusMngt= Postgraduate qualification in business management or related subject.
Figure 3.26: Percentage of current practices to adjust to climate change by Farm Type. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice.
0
10
20
30
40
50
60P
erce
nta
ge
NI WE WQ LUCEP LS CS SM SK SA
0
10
20
30
40
50
60
70
Cereals Dairy General Croppingand Horticulture
LFA GrazingLivestock
Lowland GrazingLivestock
Mixed, Pigs andPoultry
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
32
Figure 3.27: Percentage of current practices to adjust to climate change by Government
Office Region. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change
and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.28: Percentage of current practices to adjust to climate change by Farm Business
Income (£/farm) groups. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality;
LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. FBI groups given in £/farm.
0
10
20
30
40
50
60
NE NW Y&H EM WM EE SE SW
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
0
10
20
30
40
50
60
70
80
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
33
Figure 3.29: Percentage of current practices to adjust to climate change by Agricultural
Output: Agricultural Input Ratio groups. Key: NI=No intervention; WE=Water efficiency; WQ=Water
quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs.
Figure 3.30: Percentage of current practices to adjust to climate change by proportion of
utilised agricultural area (UAA) owned groups. Key: NI=No intervention; WE=Water efficiency;
WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice.
0
10
20
30
40
50
60
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
0
10
20
30
40
50
60
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
34
Figure 3.31: Percentage of current practices to adjust to climate change by farmer age
(in years) groups. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use
change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice.
Figure 3.32: Percentage of current practices to adjust to climate change by segmentation
groups. Key: NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and
environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise.
0
10
20
30
40
50
60
<30 30-39 40-49 50-59 60+
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
0
5
10
15
20
25
30
35
40
45
50
C LC/CE P MFB
Per
cen
tage
NI WE WQ LUCEP LS CS SM SK SA
35
3.6 Accessing technical information
Farm business education level (education level of any individual on the farm with
managerial responsibility) had a significant impact on accessing technical information.
Farm businesses without further or higher education had a significantly lower use of the
farming media and a significantly lower use of obtaining technical information supplied for
a direct charge, from events and demonstrations and discussion groups or from RDP-
funded initiatives (Figure 3.33). There was also a positive trend for greater use of technical
information supplied for a charge in relation to increasing higher levels of farm business
education. Farm businesses with no further or higher education used events and
demonstrations, discussion groups and advice supplied with a charge to a lower extent
than other groups. With respect to farm type influences (Figure 3.34), a significantly
greater use of RDP-funded initiatives with respect to animal health theme / technical
theme within the livestock farm types was observed. Taking advice supplied for a charge
was lower on Grazing Livestock (LFA and Lowland) farms; differences were also observed
in level of use of events and demonstrations and discussion groups across farm types.
Regional influences (Figure 3.35) were observed, specifically with respect to the East of
England, South East and East Midlands having greater use of advice supplied for a direct
charge; the South West region recorded a greater use of RDP-funded initiatives (animal
health and technical) which may in part be explained by availability of RDP-funded events
in this region. Overall there was a significant influence of FBI group (Figure 3.36) on
access to technical information, with a general increase in taking advice supplied for a
charge as FBI increases; it is informative to also note the significant difference in the use
of events and demonstrations and discussion groups, which typically increases as FBI
increases. With respect to the influence of the ratio of agricultural output value to
agricultural input costs (AO:AI), a significant relationship was observed for an increase in
taking advice supplied for a direct charge and greater AO:AI ratio. There was no overall
impact of the proportion of the utilised agricultural area owned on uptake of technical
advice, with the exception of the greater use of technical advice supplied for a charge
within the 0.25-0.5 and 0.5-0.75 proportion groups (Figure 3.38). Farmer age groups
(Figure 3.39) demonstrate a significant influence of age, specifically with respect to a trend
for the uptake of RDP-funded initiatives and attending discussion groups to decrease as
farmer age increases. Segmentation group analysis demonstrated that Modern Family
Businesses were most likely to draw upon technical advice supplied for a direct charge,
while Modern Family Businesses and Pragmatists were most likely to make use of
discussion groups (Figure 3.40).
36
Figure 3.33: Access to technical information by education level. Key: TOF=Through talking to
other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; PG= Postgraduate qualification in business management or related subject.
Figure 3.34: Access to technical information by Farm Type. Key: TOF=Through talking to other
farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
0
10
20
30
40
50
60
70
80
90
100P
erce
nta
ge
TOF FM ED DG TANC TAWC RAHT RTT
0
10
20
30
40
50
60
70
80
90
100
Cereals Dairy GeneralCropping andHorticulture
LFA GrazingLivestock
LowlandGrazing
Livestock
Mixed Pigs & Poultry
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT/RTT
37
Figure 3.35: Access to technical information by Government Office Region. TOF=Through
talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.36: Access to technical information by Farm Business Income (£/farm) groups. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. FBI groups given in £/farm.
0
10
20
30
40
50
60
70
80
90
100
NE NW Y&H EM WM EE SE SW
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT RTT
0
10
20
30
40
50
60
70
80
90
100
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT RTT
38
Figure 3.37: Access to technical information by Agricultural Output: Agricultural Input
Ratio groups. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites,
trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy
firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Figure 3.38: Access to technical information by proportion of utilised agricultural area
(UAA) owned groups. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet
sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice
supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
0
10
20
30
40
50
60
70
80
90
100
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT RTT
0
10
20
30
40
50
60
70
80
90
100
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT RTT
39
Figure 3.39: Access to technical information by farmer age (in years) groups. Key
TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Figure 3.40: Access to technical information by segmentation groups. Key TOF=Through
talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise.
0
10
20
30
40
50
60
70
80
90
100
<30 30-39 40-49 50-59 60+
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT RTT
0
10
20
30
40
50
60
70
80
90
100
C LC/CE P MFB
Per
cen
tage
TOF FM ED DG TANC TAWC RAHT/RTT
40
3.7 Accessing business management information
Farm business education level had a significant impact on the use of business management
information (Figure 3.41). As the education level of any individual with managerial
responsibility increased, there were a greater proportion of farm businesses drawing upon
advice supplied for a charge, and those with a business or other degree, or a postgraduate
qualification were more likely to access RDPE advice, but less likely to access advice from
the farming media. Farm businesses with no further or higher education were less likely
to access business advice via events and demonstrations or discussion groups. In line
with usage of technical information (section 3.6), as education level increased, the usage
of advice supplied for a direct charge also increased. There was a significant impact of
farm type groupings on the use of business management information (Figure 3.42), with
respect to obtaining business advice from events and demonstrations being greater on
Cereals and Dairy farms and lowest on farms; taking advice supplied for no charge was
greatest on Mixed farms. The impact of regional differences (Figure 3.43) was observed
with respect to farmers in the North West and Yorkshire and Humber drawing most upon
advice from other famers, the low level of advice from the farming media in the South
East, and lower usage of events and demonstrations for business advice in the West
Midlands, South East and South West. Farmers in the North West and East Midlands were
most likely to draw on business advice from discussion groups.. There was a significant
influence of farm business income (Figure 3.44), in particular with the use of business
advice supplied for a direct charge, and advice from events and demonstrations, and
discussion groups, increasing as FBI increases. With respect to the influence of agricultural
output to agricultural input ratio (Figure 3.45), those businesses recording an AO:AI of >
1.25 recorded an overall greater use of business advice from a range of sources. It is
interesting to note that there is a trend for farmers who own more than 75% of their
utilised agricultural area to have a greater likelihood of recording no use of business
management information (Figure 3.46) albeit this result draws upon data pertaining to
small proportions. Farmer age was observed to have a significant impact on the use of
business management information (Figure 3.47); as age increases obtaining business
advice from a range of sources decreases. Segmentation group analysis demonstrated
that Modern Family Businesses and Pragmatists were most likely to draw upon advice from
events and demonstrations, and discussion groups (Figure 3.48).
41
Figure 3.41: Access to business management information by education level. Key: NI=None
identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; PG= Postgraduate qualification in business management or related subject.
Figure 3.42: Access to business management information by Farm Type. TOF=Through
talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
0
10
20
30
40
50
60
70
80
90P
erce
nta
ge
NI TOF FM ED DG ANC AWC RBMT
0
10
20
30
40
50
60
70
80
90
Cereals Dairy GeneralCropping andHorticulture
LFA GrazingLivestock
LowlandGrazing
Livestock
Mixed Pigs & Poultry
Per
cen
tage
TOF FM ED DG ANC AWC RBMT
42
Figure 3.43: Access to business management information by Government Office Region. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West.
Figure 3.44: Access to business management information by Farm Business Income
(£/farm) groups. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites,
trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells. FBI groups given in £/farm.
0
10
20
30
40
50
60
70
80
90
100
NE NW Y&H EM WM EE SE SW
Per
cen
tage
TOF FM ED DG ANC AWC/RBMT
0
10
20
30
40
50
60
70
80
90
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Per
cen
tage
TOF FM ED DG ANC AWC RBMT
43
Figure 3.45: Access to business management information by Agricultural Output:
Agricultural Input Ratio groups. TOF=Through talking to other farmers; FM=Through the farming media
e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Figure 3.46: Access to business management information by proportion of utilised
agricultural area (UAA) owned groups. NI=None identified; TOF=Through talking to other farmers;
FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme.
0
10
20
30
40
50
60
70
80
90
<0.75 0.75-1 1-1.25 >1.25
Per
cen
tage
TOF FM ED DG ANC AWC RBMT
0
10
20
30
40
50
60
70
80
90
<0.25 0.25-0.5 0.5-0.75 >0.75
Per
cen
tage
NI TOF FM ED DG ANC AWC RBMT
44
Figure 3.47: Access to business management information by farmer age (in years) groups. TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme; Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Figure 3.48: Access to business management information by segmentation groups. NI=None identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise.
0
10
20
30
40
50
60
70
80
90
<30 30-39 40-49 50-59 60+
Per
cen
tage
TOF FM ED DG ANC AWC RBMT
0
10
20
30
40
50
60
70
80
90
C LC/CE P MFB
Per
cen
tage
NI TOF FM ED DG ANC AWC/RBMT
45
3.8: Summary of Logistic Regression Analyses
Table 3.2 provides an overview of the results derived from the logistic regression analyses.
Appendix 1, Tables A.1.49 to A.1.54 details the results of the final regression models for
each case. When examining the results within Table 3.2, note that the dependent variable
in each case is a broad indication of the number of different practices undertaken within
any particular category; it does not in itself indicate the depth to which each of these
practices may be undertaken by farm businesses, but rather provides a broad indication
of overall engagement across different activities. With this caveat in mind, it is
nevertheless interesting to note that Farm Business Income has a significant and positive
effect on all practice levels. Education level is also important, in particular farm businesses
with no further or higher education are significantly less likely to engage in working with
others for environmental benefit, access technical and business management advice and
undertake practices to adjust to climate change. By contrast, farm businesses with
personnel holding a degree in agriculture or a postgraduate degree are significantly more
likely to work with others and undertake environmental monitoring practices, in
comparison to farm businesses with college level qualifications as the highest level of
managerial education. Regionally, relative to the East Midlands, the North East
demonstrates greater levels of engagement across all practices, while farm businesses in
the North West are significantly more likely to work with others to achieve environmental
benefit and also more likely to access technical and business advice from a greater range
of sources. Farm businesses in the South West are less likely to undertake a wide range
of different practices with respect to environmental monitoring, greenhouse gas reduction
practices, adapting to climate change and accessing technical and business management
information. Other regional influences include the lower likelihood of a wide range of
greenhouse gas reduction practices being adopted in Yorkshire and Humber and the East
of England, and lower levels of engagement in practices to adjust to climate change in
Yorkshire and Humber. In addition, farm businesses that access a smaller range of
technical advice sources are likely to be found in the West Midlands and East of England,
while farm businesses in the West Midlands are also likely to access business advice from
a wide range of sources. With respect to farm types, relative to Cereals farms, Dairy farms
are less likely to work with others to achieve environmental benefits and are also less
likely to undertake environmental monitoring, but more likely to undertake greenhouse
gas reduction practices. Horticulture businesses are less likely to undertake environmental
monitoring, greenhouse gas reduction practices, adapt to climate change or access a wider
range of business management information sources. Lowland Grazing Livestock and Pig
and Poultry farms are less likely to undertake environmental monitoring than Cereals
farms. Farmer age was positively associated with working with others and undertaking
environmental monitoring, but negatively associated with greenhouse gas reduction
practices. Finally, note that the proportion of the utilised agricultural area owned does not
have a significant impact on practice levels.
46
Table 3.2: Summary of Logistic Regression Factors by Groups
Gro
up
Facto
r
WO
EB
EM
P
GH
GRP
CPCC
ATI
ABM
I
Education:
refe
rence
gro
up
Clg
.ND
C.
Cert
.Ag.B
us No FE.HE - - - - - - - -
Degree.Bus.Other
Degree.Ag ++ +
PG ++ ++
Farm
Type:
refe
rence
gro
up C
ere
als
Dairy - - - - + ex
General Cropping ex
Horticulture - - - - - - ex - -
LFA Grazing Livestock
ex
Lowland Grazing Livestock
- ex
Mixed ex
Pig & Poultry - -
GO
R
refe
rence g
roup
East
Mid
lands
NE ++ ++ ++ ++ ++ ++
NW ++ ++ ++
Y&H - - - -
WM - - - -
EE - - - -
SE ++
SW - - - - - - - - - -
FBI (£/farm) NI ++ ++ ++ ++ ++ +
AO:AI (prop) ex ex ex ex ex ex
Age (years) + + - - ex ex ex
Key: Practices: Ways of working with other to deliver environmental benefits (WOEB); Environmental monitoring practices (EMP); Greenhouse gas reduction practices (GHGRP); Current practices to adjust to climate change (CPCC); Access to technical information (ATI); Access to business management information (ABMI). Education: 1) No FE.HE= No further or higher level education; 2) Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; 3) Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; 4) Degree.Ag= Degree in agriculture or a related subject; 5) PG= Postgraduate qualification in business management or related subject. GOR NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West. Indicators: positive and significant at 95% (++); positive and significant at 90% (+); negative and significant at 95% (- -); negative and significant at 90% (-); not significant ( ); excluded from regression because all factors in group or variable was not significant at 90% or greater (ex).
47
4. Discussion
The sections below aim to summarise the key findings from the analysis of FBS data. The
chapter is structured around three main themes: i) “Farmer”, focusing upon farmer age,
education and self-segmentation analysis; ii) “Farm”, examining the impact of Farm Type,
Size, GOR and UAA proportion owned; iii “Farming Finances”, considering the analysis of
farm business and agricultural cost centre performance.
4.1 Farmer
One of the main findings from the results of the data analysis relate to the biographical
characteristics of the ‘farmer’ that were observed to influence actions and practices across
the six categories analysed: ways of working with others to deliver environmental benefits
(WOEB); environmental monitoring practices (EMP); greenhouse gas reduction practices
(GHGRP); Current practices to adjust to climate change (CPCC); access to technical
information (ATI); access to business management information (ABMI). Farmer education
(defined as the highest educational qualification of a member of the farm business with
managerial responsibility) was observed to be a key factor influencing across all six
categories and from the logistics regression analysis, with a common finding being the
significantly greater proportion of farm businesses where no one with managerial
responsibility has further or higher education, undertaking no collaboration (WOEB), no
practices (EMP) and no interventions / no practice identified (GHGRP, CPCC, ABMI).
Typically farm businesses with no member of the managerial responsibility having further
or higher education were less likely to take part in discussion groups and other networks.
As education levels increased on farm, there was an increase in seeking and sharing
knowledge, both technical and business related, and farm businesses with higher levels of
education were more likely to obtain advice supplied for a charge. It is argued that these
key findings relating to education are partly influenced by a link to farmer age, with a
greater proportion of older farmers typically having no further or higher education,
however, the link to farmer age is only partial, in particular because the data specifically
captures the highest level of qualification of anyone in the farm business with managerial
responsibility. Moreover, and arguably of more direct importance, is that education is
acting as an enabler to cooperation, collaboration and engagements with both other
farmers and agricultural professionals more widely. Baranchenko and Oglethorpe (2012)
identified education as an enabling factor towards cooperative membership that in turn
had environmental collaboration potential. Mills et al. (2011) identified previous
acquaintances with other farmers as an enabling factor towards collaboration which may
not directly flow from educationally attainment level, but is arguably likely to be in part
driven by the enabling factor of like-mindedness farmers working together (Emery and
Franks, 2012); more generally there has been a growing interest in issues of human
(Mathjis, 2003) and social capital (Pretty and Ward, 2001; Coleman, 1998) and social
cohesion with respect to farmer decision making (e.g. Barnes et al., 2013; Schermer et
al., 2011; Wilson et al., 2014), within which education will arguably play a crucial role.
The influence of farmer age (within these data defined as the youngest member of the
farm business with managerial responsibility) on the six categories examined is less well-
defined than with respect to the highest educational qualification groupings. This lower
statistical evidence is also demonstrated when examining the broad findings of the logistic
regression analysis. However, clear themes do emerge, with decreasing levels of soil
testing, interventions to reduce GHG emissions, interventions to adjust climate change
and uptake of RDP training (both technical and business related) as farmer age increases.
With respect to environmental activities, Emery and Franks (2012) found no influence of
farmer’s age on collaboration, and it is informative to note that significant results in respect
to farmer age from this study largely pertain to activities at the individual farm business
level rather than working with other farmers per se. However, there is some evidence
from the logistic regression analysis that older farmers are more likely to work with others
to achieve environmental benefit and undertake environmental monitoring practices. The
48
analysis of farmer segmentation groups, drawing upon a sub-set of the data, resulted in
weaker levels of significant relationships across the six categories examined, albeit that
the results draw on more modest sample sizes with some groups combined to permit data
presentation and analysis, ng. and this needs to be interpreted with this caveat in mind.
Specifically, ‘pragmatist’ and ‘modern family bsinesses’ were more likely to undertake soil
testing, and ‘modern family businesses’ were more likely to access technical advice
supplied for a charge. The custodians and lifestyle choice and challenged enterprise
(combined) groups were also less likely to undertake soil testing. Previous analyses of
farmer segmentation within England (Garforth and Rehman, 2006; Defra, 2008; Wilson et
al. 2013) have identified the importance of farmer-life-stage and agricultural economic
conditions at the time of data capture to be important in farmer self-segmentation
analyses and that most farmers exhibit characteristics of more than one segment, and will
also move between segments over time (Defra, 2008; Wilson et al., 2013). It is
informative to note that while the findings from this current study demonstrate weaker
statistical results with respect to examining farmer segmentation groupings, this absence
of statistical significance does not directly demonstrate absence of impact by segmentation
group. Others have identified the personal rationale of farmers for engaging with
enhancing biodiversity (Farmar-Bowers and Lane, 2009) which would a priori be
hypothesised to be most strongly correlated with the custodian segment. It is however
important to note that the smaller sample size (522) and slight difference in data capture
time frames between the farmer segmentation data and the self-reported data on
environmental, advice and collaborative practices analysed within this study, are potential
caveats to the findings generated.
4.2 Farm
The key ‘farm’ characteristics examined within the data were farm type, Government Office
Region (GOR) and the proportion of the UAA owned by the farmer. Significant influences
of farm type were identified across all six categories examined. With respect to ways of
working with others to deliver environmental benefits, Cereals and General Cropping farms
were least likely to be undertaking no practices with Mixed, Pigs and Poultry (combined)
and Dairy farms more likely to undertake no practices, in line with findings from Defra
(2013). This is demonstrated in part through differences in passive and active engagement
with professional bodies and farmer discussion groups. The logistic regression analysis
demonstrated lower levels of overall practice uptake on Horticulture farms, albeit that this
could be a reflection of the options available within the survey questions rather than the
actual practice uptake. Farm type differences were also observed with respect to
environmental monitoring with crop-based farm types more engaged with soil testing
(Defra, 2013), and practices to reduce greenhouse gas emissions were also in line with
expectations relating to the particular practice relevant to the farm type (e.g. improved
slurry manure management on livestock farms). In part, these findings, with respect to
environmental collaboration or environmental monitoring practices contrast with Emery
and Franks’ (2012) analysis of Agri-Environmental Scheme (AES) practices, who find a
lack of farm type impact. With respect to practices to adjust to climate change, enterprise
specific factors were more likely to be observed on particular farm types (e.g. soil
management on cropping farms), while it is informative to note that water efficiency or
water quality practices were more frequently observed on Dairy and General Cropping and
Horticulture (combined) farms. Farm type differences in accessing technical advice in part
followed directly from specific advice categories (e.g. greater uptake of animal health RDP-
funded initiatives on livestock farms), but also that there was a lower uptake of technical
advice supplied for a direct charge on Grazing Livestock farms. This latter lower uptake
of charged-for-advice in the Grazing Livestock farm types was also present for business
advice supplied for a charge, alongside lower uptake by Mixed farms. Hence, these
findings in part reinforce a priori expectations with respect to particular production-specific
practices, but also highlight key farm type differences with respect to environmental
collaborative practices, engagement more generally and seeking paid-for business advice.
49
Given the influence of farm type identified above, and the strong farm type – regional
groupings that exist given the geographic-specific nature of the clustering of particular
farm types in England, the significant differences observed with respect to GOR is in part
anticipated. However, with respect to ways of working with others to deliver
environmental benefit and environmental monitoring practices, the influence of GOR
appears to be of greater significance than that of farm type. GOR influences represented
one of the two key distinguishing factors (alongside education) across the six categories
examined from the Chi-Squared analysis. In particular, farms in the Yorkshire and Humber
region were less likely to work with others to achieve environmental benefits, in contrast
to the greater practice levels of the South East (Defra, 2013) and South West. Passive or
active engagement to deliver environmental benefits was observed to be greater across
the West Midlands, East Midlands, South East and South West. With respect to
environmental monitoring, farms in the Yorkshire and Humber region were also observed
to undertake fewer practices than observed for the other regions. Yorkshire and Humber
region farms additionally were observed to record greater levels of no interventions to
reduce GHG emissions alongside the East of England region; these contrast with farms in
the North East and East Midlands that recorded the lowest level of no interventions. With
respect to adjusting to climate change, farms in the East Midlands recorded the lowest
level of ‘no interventions’ while farms in Yorkshire and Humber recorded the greatest levels
of no interventions. With respect to accessing technical information, the South West
region was observed to access greater levels of RDP-funded initiatives, whilst in terms of
business information, the North East and North West recorded the greatest proportional
use of RDP-business related information; such regional variation with respect to access to
technical and business information is a function of availability of the training and scheme
initiatives, which in recent years have been focused on particular regions (Defra, 2015).
The East of England and the South East recorded greater use of technical information
supplied for a charge; in terms of business advice the North East, Yorkshire and Humber
and West Midlands drew most heavily on advice supplied for no charge Previous
collaboration and cooperation studies have frequently focused upon particular regions
rather undertaking cross-regional comparisons. Within England, Wilson et al., (2014)
identified examples of cooperation across farm types (e.g. arable and intensive pig or
poultry units viva straw-for-manure arrangements) that whilst not explicitly geographically
defined, are, in this example, most likely to occur in mainly arable regions.
In terms of UAA tenure / ownership levels, there was a lower uptake of non-self-initiated
environmental monitoring on farms that own more than 50% of their UAA; additionally
those farmers who owned more than 75% of their UAA recorded the greatest proportion
to undertake no intervention towards GHGRP. Contrasting this latter result, farmers who
owned 50-75% of their UAA undertook greater levels of improved nutrient management
practices and also invested more in fuel efficient / low emissions tractors. Land ownership
was weakly associated with water efficiency, with uptake of water efficiency practices
increasing with the UAA proportion owned. Other UAA proportion owned impacts were
restricted to the greater use of technical information supplied for a charge for farmers
owning 25-75% of their UAA and the lower uptake of business management information
by farmers owning more than 75% of their UAA. It is informative to note that farmers
who own the larger proportion of their UAA were less likely to record interventions towards
GHGRP and uptake of business management information. This later result perhaps reflects
the greater need of farmers who own less than 75% of their UAA to undertake efficient
technical and business practices in order to ensure sufficient returns to meet rental
obligations. However, with respect to working with others to achieve environmental
benefits and undertaking environmental monitoring practices, tenure impacts were
insignificant. This contrasts with Emery and Franks (2012) who note the need to include
landlords in successful AES delivery as a barrier to uptake, albeit that AES participation
requires a greater level of formality than the collaborative and environmental practices
analysed within this report.
50
4.3 Farming Finances
With respect to financial performance as analysed via Farm Business Income (FBI) and
Agricultural Output - Agricultural Input (AO:AI) ratio groups, those farm business
achieving greater FBI were more likely to undertake collaborative practices to benefit the
environment, undertake some environmental monitoring, practices to reduce greenhouse
gas emission and adjust to climate change and moreover obtain technical and business
advice supplied for a direct charge; this finding was also reinforced by the logistic
regression analysis. The FBI metric captures the overall farm business performance; the
AO:AI metric provides a measure of the Agricultural component of the business. With
respect to AO:AI it is informative to note the contrasting and complementary analyses
with FBI performance. In line with the broad findings with respect to FBI groups, farms
achieving greater AO:AI ratios are more likely to undertake soil testing, undertake some
form of greenhouse gas reduction practices, and obtain technical and business advice
supplied for a direct charge. By contrast, farm businesses with lower AO:AI performance
are more likely to undertake greater levels of collaboration to achieve environmental
benefit and other self-initiated environmental monitoring. This contrast between
environmental monitoring and collaborative practices with respect to business / agriculture
cost centre performance is in line with Defra’s (2013) analysis that identified non-
significant differences between economic performance bands and these practices. The
analysis presented herein indicates that those businesses achieving greater FBI
performance (encompassing Agriculture, Single Payment, Diversification and Agri-
Environment cost centres) are arguably driven to undertake greater levels of monitoring
and collaboration as a function of their diversified or agri-environment activities, rather
than their agricultural activities and performance per se. Implications of this finding
include the direct link between payment for ecosystem services and the environmental
activity or output achieved (Burton et al., 2008) and that targeting of environmental
policies to achieve specific objectives is arguably a resource efficient policy tool
(Armsworth et al., 2012).
4.4 Farm and Farmer Characteristics Summarised
Combining the main findings from the above results indicates that with respect to working
with others to achieve environmental benefits, farm businesses with personnel in the
managerial team who have obtained further or higher education, achieving greater levels
of FBI (in contrast to AO:AI) are most likely to collaborate. By contrast farm businesses
that are more specialist livestock producers, achieving lower levels of FBI, which do not
have a member of the farm managerial team that has undertaken further or higher
education, are least likely to collaborate for this purpose. With respect to environmental
monitoring practices, farms with managerial personal without further or higher
education, who are in the South West are least likely to undertake monitoring practices,
while farms achieving greater levels of FBI but lower levels of AO:AI are more likely to
undertake environmental monitoring, indicating the importance of non-agricultural income
with respect to environmental monitoring. Older farmers are more likely to not undertake
soil testing. Examining practices to reduce greenhouse gas emissions, the results
demonstrate that younger farmers in the North East, on farms with managerial input at
further or higher education level, are most likely to undertake some interventions towards
reducing greenhouse gas emissions. By contrast, older farmers in the Yorkshire and
Humber, East of England and South West regions, who have not undertaken further or
higher education, are least likely to undertake greenhouse gas reduction practices.
Improved nutrient management is most likely to occur on farms with degree-level
educated farmers. Farm-type specific influences of practices to reduce greenhouse gas
emissions exist, in-line with appropriate activities for the particular farm type. With
respect to practices to adjust to climate change, farm businesses with further or higher
education levels amongst the managerial team, are most likely to undertake intervention
practices. By contrast, farmers in the Yorkshire and Humber region, in farm businesses
without further or higher education are least likely to undertake practices to adjust to
climate change. Clear farm type influences exist, with water efficiency and / or water
51
quality being of greater importance on Dairy, and General Cropping and Horticulture,
farms. In terms of accessing technical information, farm businesses who achieve
greater levels of FBI and AO:AI ratios, have someone on the managerial team that has
obtained further or higher education, and classified as a ‘modern family business’, have a
greater reliance on technical information supplied for a charge. By contrast farm
businesses without further or higher education as part of the managerial team, have a
greater reliance on the farming media and lower use of information supplied for a direct
charge. Technical advice is also linked to enterprise-farm type specific factors.
Characteristics of farmers accessing business management information include
greater use of advice with farms achieving greater levels of FBI and AO:AI ratio, having
higher levels of educational attainment.
52
5. Conclusion and Recommendations
5.1 Conclusion
Within Defra’s Sustainable Intensification Platform (SIP) research programme,
understanding the social and economic drivers and constraints of collaboration represent
an important are of enquiry. This report builds upon the literature review undertaken
within the SIP and previous analysis by Defra (2013). Drawing upon data collected within
the 2011/12 FBS for England for 1399 farms, this report has tested the hypotheses that
there was no association between the responses from farmers towards WOEB, EMP,
GHGRP, CPCC, ATI and ABMI and explanatory factors of Farm Type, GOR, FBI, AgO:AgI,
UAA Prop Owned, Farm Size, Education, and Age. Moreover for a sub-sample of 522 farms
the hypotheses were tested in relation to Segmentation groups. The Chi-Squared analysis
was followed by logistic regression analysis to provide analysis of a broad level of practice
uptake while controlling for compounding factors.
Key empirical drivers of collaboration, cooperation, uptake of practices and accessing
information were identified from this report. These included farm business managerial
education level - in particular with an absence of further or higher education associated
with lower practice uptakes. Clear themes also emerged with respect to farmer age, with
respect to lower levels of training uptake, practices to adjust to climate change and reduce
GHG emissions and undertake soil testing, all decreasing as farmer age increased. Farm
businesses achieving greater levels of FBI but lower levels of AO:AI ratios were more likely
to undertake collaborative practices and environmental monitoring, highlighting the
importance of non-agricultural income sources in respect to these areas (Burton et al.,
2008). With respect to ‘farm’ characteristics, both farm type and regional influences were
identified as drivers, being mindful that within England there is a correlation between farm
type and region given regional clustering of particular farm types. Cereals and General
Cropping farms (Defra, 2013) were more likely to engage in collaborative practices and
undertake environmental monitoring, while more specialist livestock producers (Pigs and
Poultry and Dairy) were least likely to collaborative for environmental benefit. Both farm
type and regional influences were present with respect to accessing enterprise specific
knowledge, in particular as observed by the South West accessing greater levels of RDP-
funded technical information. Farm type influences largely confirmed a priori expectations
of undertaking GHG reduction practices and accessing technical information of relevance
to livestock or arable farm types, while farm type influences environmental collaboration
or monitoring practices to a lesser extent. Tenure influences included lower uptake of
non-self-initiated environmental monitoring on farms owning more than 50% of their UAA,
and on farms with more than 75% of their UAA owned, there was a greater proportion
undertaking no GHG reduction practices (and lower uptake of business management
information); water efficiency practices were more likely to be found on farms with more
than 75% of the UAA owned.
While previous studies have identified that farm structural variables are typically only
weakly- or are un- correlated with collaborative activities (Emery and Franks, 2012),
evidence in this report indicates that farm-type specific activities are most likely to
enhance the ability of farm businesses to adjust to market, environmental and social
pressures in the future. The findings reinforce outcomes from previous studies, in
particular that decisions pertaining to collaboration, uptake of environmental practices and
accessing information are largely farmer personality dependent (Wilson et al., 2014),
which in turn is argued to reflect ‘social’ capital factors (Barnes et al., 2013; Schermer et
al., 2011), of which education levels is argued to be a key determinant and a direct
indicator of ‘human’ capital (Mathijs, 2003). Arguably what is required within the context
of sustainable intensification of agriculture, is to focus support towards enhancing
‘agricultural managerial capacity’. While farm businesses have been identified as
accessing technical and business advice (e.g. use of agronomists), these are arguably
“production inputs” to agriculture and do not in themselves enhance ‘agricultural
53
managerial capacity’. However mechanisms that would develop such capacity include
investment in business benchmarking (House of Lords, 2016) and technical events that
engage farmers in an applied context, as evidenced in this report via the uptake of
enterprise-specific RDP training.
5.2 Recommendations
This report has highlighted that individual drivers of farmer collaboration and cooperation
are largely dependent upon farmer characteristics, which reflect the ‘social capital’ of
farmers as captured by their level of engagement with positive ‘nudging’ behaviours (e.g.
Agri-Environmental Schemes and engagement with professional bodies [e.g. Linking
Farming and the Environment, LEAF]) (Barnes, et al., 2013). Social capital is argued to
be influenced by uptake of further and higher education (which is a direct indicator of
‘human capital’), the supply chain with which the business operates, the level of
engagement in non-farming activities, and the broader landscape within which the farm
operates. For example, on the basis of the results presented herein, a Cereal farm that
additionally undertakes non-agricultural business activities and is operated by a
managerial team that includes personnel with further or higher education is likely to be
engaging in collaborative environmental practices, be monitoring environmental
outcomes, obtaining business and technical advice supplied for a charge and also attending
discussion groups, undertaking practices towards greenhouse gas reduction and to adjust
to climate change; this farm business is more likely to be self-characterised as a “modern
family business”. By contrast, a specialist livestock farm business (e.g. Pig, Poultry, Dairy)
with little or no non-farming income activities, operated by an older farmer without further
or higher education, achieving low levels of FBI is considerably less likely to engage with
external activities, undertake collaborative practices, environmental monitoring or
activities and practices to adjust to climate change and reduce greenhouse gas impacts;
this farm business is more likely to be self-characterised as a “challenged enterprise”
business.
In order to support Defra’s Sustainable Intensification Platform, cross-agency investment
and working will be required. Specifically, government, industry and academia should
invest in further and higher agricultural education, in particular towards facilitating
provision of research and teaching to support courses that focus upon the key areas of
Defra’s Sustainable Intensification programme. In so doing, this engagement should be
collaborative with the wider agricultural-environment-food nexus to embed a positive
approach to external engagement of farmers with the direct supply chain, customers and
land custodians and users; examples of these practices currently exist (e.g. LEAF).
In recognising the impact of farmer age on sustainable intensification practices, there
needs to be recognition of the time frames required to achieve wide-spread uptake
of agricultural practices to adjust to a changing climate and reduce GHG emissions from
agricultural production. However, agricultural-technological solutions (e.g. fuel efficient
tractors) exist that were not significantly influenced by farmer age groups. Therefore
incentivising agri-tech solutions that are embedded within agricultural plant and
machinery are likely to enhance uptake of sustainable intensification practices; these
investments should be supported by training programmes that are, in turn, backed by
farmer representation groups (e.g. National Farmers Union).
Key farm type and regional differences have been identified with respect to collaboration
activities towards environmental monitoring. To address these disparities, it will be
necessary to more fully understand the social drivers that underlie farmer behaviour across
different farm types and regions, in order to provide targeted, type and regionally
specific programmes of support. Evidence of successful RDP uptake was found to be
both regional and farm type specific in the South West of England; hence future
government and industry supported training programmes should continue to provide
regional flexibility with respect to programme content, context and method of
54
delivery. Moreover, it is recommended that investment in business benchmarking
services aimed at farm businesses will additionally enhance ‘agricultural managerial
capacity’ which is argued to be central to achieving sustainable intensification objectives.
55
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57
Appendix 1: Results of Chi Squared Tests and Logistic Regression Analysis
Table A1.1: Percentage of ways of working with others to deliver environmental benefits
by education level. Note a farm can undertake more than one practice.
No FE.HE Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
NC 69 56 35 43 34 0.0000 *** FDDGN 4 8 15 13 21 0.0000 ***
FDCEABNF 3 5 9 9 9 0.0183 ** BPFDIOA 9 14 14 22 26 0.0005 *** PETPB 17 24 32 30 32 0.0130 ** AETPB 7 13 27 18 26 0.0000 ***
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.2: Percentage of ways of working with others to deliver environmental benefits
by Farm Type. Note a farm can undertake more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g
Hort
iculture
LFA G
razin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed,
Pig
s a
nd
Poultry
Chi Sq
Sig
NC 45 63 47 55 58 54 60 0.1273 FDDGN/FDCEABNF 19 10 17 16 18 10 8 0.1779
BPFDIOA 23 9 19 8 11 14 4 0.0005 ***
PETPB 27 22 31 31 18 24 16 0.0432 ** AETPB 14 8 18 11 13 19 22 0.0152 **
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
58
Table A 1.3: Percentage of ways of working with others to deliver environmental benefits
by Government Office Region (GOR). Note a farm can undertake more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
NC 61 65 77 61 56 55 42 42 0.0003 *** FDDGN/ FDCEABNF 20 19 8 16 8 9 21 14 0.0040 ***
BPFDIOA 21 15 10 16 10 17 11 16 0.2636 PETPB/AETPB 21 27 14 29 42 40 53 51 0.0000 ***
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms;
BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A1.4: Percentage of ways of working with others to deliver environmental benefits
by Farm Business Income (£/farm) group. Note a farm can undertake more than one
practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
NC 58 64 58 48 53 48 35 0.0118 ** FDDGN 9 7 7 10 13 9 13 0.3138
FDCEABNF 9 4 4 8 7 6 6 0.4931 BPFDIOA 12 8 17 22 14 15 23 0.0002 *** PETPB 23 20 24 25 21 25 39 0.0451 ** AETPB 16 11 11 13 16 17 19 0.3490
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS Farm Business Income (£/farm) groups. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A1.5: Percentage of ways of working with others to deliver environmental benefits
by Agricultural Output: Agricultural Input Ratio groups. Note a farm can undertake more
than one practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
NC 42 56 57 56 0.2569 FDDGN 11 10 7 8 0.4862
FDCEABNF 14 6 3 6 0.0002 *** BPFDIOA 11 15 14 17 0.3985 PETPB 35 22 25 21 0.0436 ** AETPB 24 16 10 13 0.0014 ***
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
59
Table A 1.6: Percentage of ways of working with others to deliver environmental
benefits by proportion of utilised agricultural area (UAA) owned groups. Note a farm can
undertake more than one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
NC 51 57 52 57 0.5378
FDDGN 10 9 10 8 0.7426
FDCEABNF 8 7 4 5 0.1888
BPFDIOA 17 9 15 14 0.2836
PETPB 23 27 29 23 0.4699
AETPB 16 13 8 14 0.1532
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.7: Percentage of ways of working with others to deliver environmental benefits
by farmer age (in years; youngest person with managerial responsibility) groups. Note a
farm can undertake more than one practice.
<30 30-39 40-49 50-59 60-69 70+ Chi Sq Sig
NC 56 49 58 52 58 61 0.7165 FDDGN/FDCEABNF 14 16 16 15 11 11 0.6310
BPFDIOA 18 16 14 16 12 9 0.5349 PETPB 23 27 13 26 23 20 0.0036 *** AETPB 8 13 15 14 12 11 0.6099
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.8: Percentage of ways of working with others to deliver environmental benefits
by segmentation groups. Note a farm can undertake more than one practice.
C/LC/CE P MFB Chi Sq Sig
NC 55 59 49 0.4927 FDDGN/ FDCEABNF 13 7 5 0.0797 *
BPFDIOA 14 15 16 0.8721 PETPB 27 20 30 0.1494 AETPB 15 11 11 0.4372
Key: ROWS NC=No collaboration; FDDGN=Farmer-driven discussion groups/networks of farmers; FDCEABNF=Farmer-driven coordination of environmental activities and benefits with neighbouring farms; BPFDIOA=As a by-product from farmer-driven initiatives which have other aims e.g. shooting syndicates; PETPB=Passive engagement (e.g. discussion groups) through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts; AETPB=Active engagement through third-party bodies e.g. RSPB, FWAG, GAME conservancy and wildlife trusts. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
60
Table A1.9: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by education level. Note a farm can undertake more than one
practice.
No FE.HE Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
NP 36 22 20 14 13 0.0000 *** WBSI 31 32 37 32 40 0.7896
WBNSI 9 13 19 18 21 0.0100 ** OMSI 25 24 30 27 38 0.3852
OMNSI 8 11 19 22 23 0.0000 *** ST 43 63 60 74 72 0.0000 ***
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.10: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Type. Note a farm can undertake more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g
Hort
iculture
LFA
Gra
zin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed
Pig
s a
nd
Poultry
Chi Sq Sig
NP 12 27 13 27 33 28 15 44 0.0000 ***
WBSI 39 29 41 32 26 33 33 19 0.0618 *
WBNSI 17 7 19 16 16 14 12 7 0.0200 **
OMSI 27 21 27 23 25 33 26 18 0.2752
OMNSI 17 8 15 13 16 15 12 7 0.1725
ST 79 59 81 49 42 44 77 40 0.0000 ***
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil
testing. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
61
Table A 1.11: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Government Office Region (GOR). Note a farm can undertake
more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
NP 13 33 42 24 17 16 14 30 0.0000 ***
WBSI 42 27 9 40 29 43 32 30 0.0000 ***
WBNSI 24 12 12 12 9 17 25 5 0.0000 ***
OMSI 36 21 7 33 26 33 23 24 0.0002 ***
OMNSI 22 13 11 11 11 14 26 5 0.0000 ***
ST 66 50 52 59 65 64 72 53 0.1311
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A1.12: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Farm Business Income (£/farm) group. Note a farm can
undertake more than one practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
NP 28 33 25 19 16 16 9 0.0000 ***
WBSI 34 30 36 34 29 25 38 0.4794
WBNSI 13 9 11 15 19 19 21 0.0131 **
OMSI 32 26 28 24 22 18 28 0.3475
OMNSI 10 10 11 16 19 17 18 0.0763 *
ST 53 46 53 67 77 77 83 0.0000 ***
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS Farm Business Income (£/farm) groups. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A.1.13: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by Agricultural Output: Agricultural Input Ratio groups. Note a
farm can undertake more than one practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
NP 30 24 23 19 0.4006
WBSI 35 34 31 37 0.6288
WBNSI 19 14 13 11 0.2821
OMSI 33 28 24 21 0.1642
OMNSI 15 13 13 11 0.8282
ST 41 59 62 70 0.0163 **
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
62
Table A 1.14: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by proportion of utilised agricultural area (UAA) owned groups.
Note a farm can undertake more than one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
NP 23 22 18 26 0.3205 WBSI 31 25 40 33 0.1930 WBNSI 17 12 13 12 0.1986 OMSI 27 17 31 25 0.1182 OMNSI 18 16 10 11 0.0148 ** ST 58 67 65 58 0.5096
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.15: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by farmer age (in years; youngest person with managerial
responsibility) groups. Note a farm can undertake more than one practice.
<30 30-39 40-49 50-59 60+ Chi Sq Sig
NP 21 19 23 25 27 0.5320
WBSI 32 32 31 31 38 0.5442
WBNSI 12 13 14 14 13 0.9826
OMSI 23 27 21 25 34 0.0386 **
OMNSI 12 15 11 14 13 0.6726
ST 69 68 64 56 51 0.0868 *
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.16: Percentage of Environmental monitoring practices relating to biodiversity,
conservation and habits by segmentation group. Note a farm can undertake more than
one practice.
C LC/CE P MFB Chi Sq Sig
NP 37 22 25 18 0.1051
WBSI 36 35 28 30 0.6746
WBNSI 13 15 13 15 0.9625
OMSI 31 31 21 23 0.2571
OMNSI 13 9 13 11 0.8823
ST 40 50 72 73 0.0092 ***
Key: ROWS NP=No practices; WBSI=Wild birds. E.g. bird counts (self-initiated); WBNSI= Wild birds. E.g. bird counts (not self-initiated, e.g. as part of assurance scheme); OMSI=Other monitoring, e.g. floral, habitats, wild animals (self-initiated); OMNSI= Other monitoring, e.g. floral, habitats, wild animals (not self-initiated); ST=Soil testing. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
63
Table A 1.17: Percentage of practices to reduce greenhouse gas (GHG) emissions by
education level. Note a farm can undertake more than one practice.
No FE.HE Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
NI 58 40 37 34 35 0.0000 *** INM 22 35 46 43 43 0.0000 ***
ISMM 17 28 32 27 27 0.0190 ** ISD 20 26 22 29 35 0.0666 *
LHAD 7 13 16 12 18 0.0139 ** FELET 15 24 17 20 20 0.0403 **
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS No FE.HE= No further or higher level education;
Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A 1.18: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Farm Type. Note a farm can undertake more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g a
nd
Hort
iculture
LFA
Gra
zin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed
Pig
s a
nd
Poultry
Chi Sq Sig
NI 34 27 47 55 56 34 56 0.0000 ***
INM 46 43 37 22 24 39 15 0.0000 ***
ISMM 13 57 8 25 22 31 24 0.0000 ***
ISD 36 30 23 23 17 31 11 0.0000 ***
LHAD 4 23 2 10 12 15 24 0.0000 ***
FELET 35 23 18 16 13 28 5 0.0000 ***
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A. 1.19: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Government Office Region (GOR). Note a farm can undertake more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
NI 33 47 59 30 42 53 37 45 0.0015 ***
INM 33 29 26 44 34 27 40 36 0.0445 **
ISMM 32 32 23 26 27 16 19 30 0.0141 **
ISD 34 31 17 32 29 20 25 20 0.0159 **
LHAD 18 11 11 12 20 6 11 10 0.0146 **
FELET 38 14 11 39 10 13 31 15 0.0000 ***
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99. Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
64
Table A 1.20: Percentage of practices to reduce greenhouse gas (GHG) emissions by by
Farm Business Income (£/farm) group. Note a farm can undertake more than one practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
NI 46 63 44 29 40 26 20 0.0000 ***
INM 30 21 31 43 39 45 61 0.0000 ***
ISMM 25 17 25 34 29 36 25 0.0005 ***
ISD 23 17 23 29 31 35 40 0.0000 ***
LHAD 15 10 13 10 8 13 12 0.5225
FELET 18 9 19 23 31 30 41 0.0000 ***
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS Farm Business Income (£/farm) groups Chi Sq= Chi-squared test
result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99. Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A 1.21: Percentage of practices to reduce greenhouse gas (GHG) emissions by
Agricultural Output: Agricultural Input Ratio groups. Note a farm can undertake more
than one practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
NI 56 49 39 35 0.0047 ***
INM 21 30 37 45 0.0022 ***
ISMM 15 24 28 19 0.0100 **
ISD 19 22 28 26 0.1246
LHAD 10 13 12 2 0.0177 **
FELET 11 18 23 24 0.0239 **
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A 1.22: Percentage of practices to reduce greenhouse gas (GHG) emissions by
proportion of utilised agricultural area (UAA) owned groups. Note a farm can undertake
more than one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
NI 44 38 31 47 0.0469 **
INM 36 33 48 31 0.0087 ***
ISMM 29 31 31 21 0.0153 **
ISD 21 32 32 25 0.0569 *
LHAD 12 14 14 10 0.4880
FELET 25 26 34 15 0.0000 ***
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
65
Table A.1.23: Percentage of practices to reduce greenhouse gas (GHG) emissions by
farmer age (in years; youngest person with managerial responsibility) groups. Note a farm
can undertake more than one practice.
<30 30-39 40-49 50-59 60+ Chi Sq Sig
NI 25 33 38 48 58 0.0000 ***
INM 45 44 40 30 22 0.0000 ***
ISMM 41 36 31 20 12 0.0000 ***
ISD 39 33 27 20 21 0.0006 ***
LHAD 15 15 13 11 6 0.0122 **
FELET 25 24 22 20 15 0.1295
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A.1.24: Percentage of practices to reduce greenhouse gas (GHG) emissions by
segmentation group. Note a farm can undertake more than one practice.
C LC/CE P MFB Chi Sq Sig
NI 55 55 46 38 0.2919
INM 23 35 33 42 0.1875
ISMM 12 29 22 33 0.0321 **
ISD 22 24 22 29 0.6073
LHAD 8 13 11 6 0.4474
FELET 18 13 19 24 0.4255
Key: ROWS NI=No intervention; INM=Improved nutrient management; ISMM=Improved slurry/manure management; ISD=Improved soil drainage; LHAD=Livestock health and adjustments to diet; FELET=Fuel efficient/low emissions tractors. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘Other’ due to small number of observations (<5) in a number of cells.
Table A. 1.25: Percentage of current practices to adjust to climate change by education
level. Note a farm can undertake more than one practice.
No FE.HE Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
NI 42 33 27 29 20 0.0070 ***
WE 25 33 39 34 42 0.0476 **
WQ 18 22 20 23 32 0.1941
LUCEP 14 20 22 23 27 0.0579 *
LS 21 23 26 21 20 0.8158
CS 12 19 21 20 22 0.0931 *
SM 31 44 47 49 55 0.0015 ***
SK 6 12 21 13 25 0.0001 ***
SA 7 17 20 16 23 0.0003 ***
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
66
Table A 1.26: Percentage of current practices to adjust to climate change by Farm Type.
Note a farm can undertake more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g
and
Hort
iculture
LFA
Gra
zin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed,
Pig
s a
nd
Poultry
Chi Sq Sig
NI 24 30 27 41 40 33 0.0003 ***
WE 21 49 46 29 27 26 0.0000 ***
WQ 23 26 25 21 20 19 0.0685 *
LUCEP 27 19 19 18 18 22 0.0480 **
LS 10 30 7 30 29 34 0.0000 ***
CS 33 11 26 10 16 26 0.0000 ***
SM 63 45 43 32 34 45 0.0000 ***
SK 18 13 12 8 10 12 0.0538 *
SA 20 15 14 12 12 13 0.1897
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.27: Percentage of current practices to adjust to climate change by Government
Office Region (GOR). Note a farm can undertake more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
NI 31 38 56 17 24 32 35 40 0.0000 ***
WE 21 37 18 37 44 27 35 32 0.0026 ***
WQ 12 19 6 22 15 34 20 25 0.0000 ***
LUCEP 19 16 8 22 21 26 11 23 0.0018 ***
LS 22 27 13 38 41 17 10 15 0.0000 ***
CS 20 6 10 28 26 22 16 13 0.0000 ***
SM 51 36 29 55 50 43 42 35 0.0035 ***
SK 9 13 10 19 12 10 14 8 0.0572 *
SA 11 13 12 21 21 15 15 9 0.0200 **
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
67
Table A. 1.28: Percentage of current practices to adjust to climate change by Farm
Business Income (£/farm) group. Note a farm can undertake more than one practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
NI 38 44 38 26 29 20 16 0.0000 ***
WE 32 27 28 33 37 39 49 0.0059 ***
WQ 15 17 20 26 24 23 39 0.0004 ***
LUCEP 18 14 17 25 20 24 31 0.0033 ***
LS 23 24 20 24 24 23 17 0.7524
CS 15 12 13 22 24 25 33 0.0000 ***
SM 32 32 37 51 47 57 69 0.0000 ***
SK 12 8 11 17 15 15 15 0.0364 **
SA 19 9 14 17 15 17 20 0.0286 **
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS Farm Business Income (£/farm) groups. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.29: Percentage of current practices to adjust to climate change by Agricultural
Output: Agricultural Input Ratio groups. Note a farm can undertake more than one
practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
NI 37 35 33 26 0.4673
WE 26 29 34 39 0.1859
WQ 20 19 23 25 0.4507
LUCEP 25 18 18 22 0.3379
LS 29 23 22 11 0.0193 **
CS 18 16 19 17 0.6740
SM 31 41 44 51 0.0895 *
SK 13 10 13 9 0.2691
SA 17 14 13 17 0.5717
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.30: Percentage of current practices to adjust to climate change by proportion
of utilised agricultural area (UAA) owned groups. Note a farm can undertake more than
one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
NI 33 31 29 35 0.5655
WE 27 33 34 34 0.2744
WQ 19 27 25 21 0.3406
LUCEP 21 19 20 19 0.8300
LS 25 27 26 20 0.1650
CS 19 19 18 17 0.9597
SM 47 51 48 38 0.0337 **
SK 16 14 13 10 0.0518 *
SA 16 15 15 13 0.6516
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
68
Table A 1.31: Percentage of current practices to adjust to climate change by farmer age
(in years; youngest person with managerial responsibility) groups. Note a farm can
undertake more than one practice.
<30 30-39 40-49 50-59 60+ Chi Sq Sig
NI 27 29 32 32 44 0.0227 **
WE 31 38 34 32 25 0.1156
WQ 24 22 23 20 21 0.8682
LUCEP 22 19 18 22 16 0.4321
LS 29 25 24 23 15 0.0433 **
CS 17 21 19 18 15 0.6266
SM 52 47 43 44 32 0.0468 **
SK 10 13 12 15 7 0.0281 **
SA 11 15 15 17 10 0.1159
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.32: Percentage of current practices to adjust to climate change by segmentation
group. Note a farm can undertake more than one practice.
C LC/CE P MFB Chi Sq Sig
NI 33 42 32 29 0.5931
WE 37 25 31 46 0.0744 *
WQ 15 15 20 28 0.1301
LUCEP 12 11 19 23 0.1914
LS 25 20 23 14 0.2702
CS 16 11 17 18 0.7405
SM 36 36 45 47 0.5370
SK 8 13 11 16 0.5176
SA 8 15 12 16 0.5554
Key: ROWS NI=No intervention; WE=Water efficiency; WQ=Water quality; LUCEP=Land use change and environmental protection; LS=Livestock sustainability; CS=Crop sustainability; SM=Soil management; SK=Sharing knowledge; SA=Seeking advice. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A. 1.33: Access to technical information by education level. Note a farm can
undertake more than one practice.
No FE.HE
Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other
Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
TOF 68 73 65 70 62 0.7587 FM 84 87 80 85 75 0.8586 ED 46 63 65 69 65 0.0016 *** DG 37 60 61 62 60 0.0000 *** TANC 72 74 73 75 65 0.9399 TAWC 25 37 37 46 52 0.0001 *** RAHT 7 12 20 14 17 0.0093 *** RTT 5 10 13 13 12 0.0089 ***
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject.Chi Sq= Chi-squared
69
test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.34: Access to technical information by Farm Type. Note a farm can undertake
more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g
and
Hort
iculture
LFA
Gra
zin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed
Pig
s
and
Poultry
Chi Sq Sig
TOF 66 78 64 83 69 68 66 0.1702 FM 88 89 81 88 82 87 78 0.8873 ED 67 63 59 58 54 62 55 0.6190 DG 59 66 51 44 50 61 46 0.0350 ** TANC 71 79 70 68 70 81 76 0.7341 TAWC 51 46 44 12 20 33 37 0.0000 *** RAHT 11 38 7 24 25 28 24 0.0000 ***
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong
technical theme. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.35: Access to technical information by Government Office Region (GOR). Note
a farm can undertake more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
TOF 75 81 88 73 64 61 64 70 0.0767 * FM 94 85 92 90 80 82 79 85 0.8517 ED 73 67 65 69 44 54 60 57 0.0434 ** DG 54 59 60 61 40 42 64 56 0.0120 ** TANC 85 73 78 72 76 66 68 76 0.7201 TAWC 21 31 34 43 34 47 46 24 0.0000 *** RAHT 15 16 6 8 5 4 8 27 0.0000 *** RTT 15 11 5 7 7 5 4 18 0.0000 ***
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A. 1.36: Access to technical information by Farm Business Income (£/farm) group.
Note a farm can undertake more than one practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
TOF 68 68 74 72 70 70 69 0.9673 FM 76 83 86 90 84 88 88 0.8636 ED 60 47 61 66 64 64 82 0.0011 *** DG 47 41 54 62 61 68 75 0.0000 *** TANC 73 69 74 78 73 73 75 0.9595 TAWC 36 22 31 37 42 61 62 0.0000 *** RAHT 13 9 12 15 13 17 10 0.1796
70
RTT 8 7 8 11 14 11 14 0.1752
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS Farm Business Income (£/farm) groups. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
71
Table A 1.37: Access to technical information by Agricultural Output: Agricultural Input
Ratio groups. Note a farm can undertake more than one practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
TOF 67 70 70 75 0.8925 FM 77 80 89 84 0.3226 ED 52 56 63 62 0.2362 DG 47 49 57 66 0.0746 * TANC 68 71 76 71 0.6750 TAWC 21 32 39 51 0.0003 *** RAHT 8 14 12 10 0.3835 RTT 6 9 10 11 0.3349
Group 0.2414
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong
technical theme. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.38: Access to technical information by proportion of utilised agricultural area
(UAA) owned groups. Note a farm can undertake more than one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
TOF 74 75 72 68 0.6779 FM 90 84 89 82 0.6022 ED 62 60 64 58 0.7667 DG 57 60 64 50 0.1223 TANC 75 76 72 72 0.9114 TAWC 32 45 45 34 0.0264 ** RAHT 13 19 10 11 0.1158 RTT 9 13 4 10 0.1222
Group 0.3060
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
72
Table A 1.39: Access to technical information by farmer age (in years; youngest person
with managerial responsibility) groups. Note a farm can undertake more than one practice.
<30 30-39 40-49 50-59 60+ Chi Sq Sig
TOF 84 78 71 70 59 0.0620 * FM 89 87 86 85 79 0.8103 ED 68 66 61 63 50 0.0782 * DG 60 66 57 54 45 0.0072 *** TANC 76 79 73 75 64 0.4528 TAWC 37 41 41 33 32 0.0783 * RAHT 19 17 13 12 4 0.0001 *** RTT 12 13 13 8 3 0.0003 ***
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.40: Access to technical information by segmentation group. Note a farm can
undertake more than one practice.
C LC/CE P MFB Chi Sq Sig
TOF 66 62 72 68 0.8482 FM 74 71 87 87 0.5018 ED 44 45 61 61 0.1953 DG 34 42 56 65 0.0224 ** TANC 62 67 78 67 0.3644 TAWC 32 29 35 55 0.0081 *** RAHT/RTT 8 13 22 22 0.0628 *
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; TANC=Through technical advice supplied with no direct charge, e.g. input supplier; TAWC= Through technical advice supplied for a charge; RAHT=Through RDP-funded initiatives with a strong animal health theme; RTT= Through RDP-funded initiatives with a strong technical theme. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
73
Table A. 1.41: Access to business management information by education level. Note a
farm can undertake more than one practice.
No FE.HE
Clg.NDC.Cert. Ag.Bus
Degree. Bus.Other
Degree.Ag
Postgrad. BusMngt
Chi Sq Sig
NI 7 4 7 3 8 0.0767 * TOF 51 62 49 56 52 0.1428 FM 72 77 64 74 58 0.3975 ED 35 58 53 62 57 0.0000 *** DG 29 50 50 51 57 0.0000 *** ANC 54 61 66 63 50 0.4298 AWC 20 29 32 38 45 0.0003 *** RBMT 2 8 12 9 13 0.0008 ***
Key: ROWS NI=None identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS COLUMNS No FE.HE= No further or higher level education; Clg.NDC.Cert.Ag.Bus= College national diploma/certificate in agriculture, related subject or in business management, accounting, marketing, economics or related subject; Degree.Ag= Degree in agriculture or a related subject; Degree.Bus.Other= Degree in business management, accounting, marketing, economics or related subject or any other subject; Postgrad.BusMngt= Postgraduate qualification in business management or related subject. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
Table A 1.42: Access to business management information by Farm Type. Note a farm
can undertake more than one practice.
Cere
als
Dairy
Genera
l
Cro
ppin
g a
nd
Hort
iculture
LFA
Gra
zin
g
Liv
esto
ck
Low
land
Gra
zin
g
Liv
esto
ck
Mix
ed
Pig
s
and
Poultry
Chi Sq Sig
NI 57 64 52 70 53 52 48 0.0826 * TOF 78 75 63 82 71 78 72 0.3394 FM 60 59 49 49 43 54 50 0.1375 ED 52 58 39 39 41 45 38 0.0099 *** DG 61 58 58 59 57 69 55 0.8323 ANC 38 45 26 18 21 23 29 0.0000 *** AWC 7 10 4 9 8 8 7 0.1794 RBMT 57 64 52 70 53 52 48 0.0826 *
Key: ROWS NI=None identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
74
Table A 1.43: Access to business management information by Government Office Region
(GOR). Note a farm can undertake more than one practice.
NE NW Y&H EM WM EE SE SW Chi Sq Sig
TOF 61 71 74 65 45 57 45 50 0.0011 *** FM 87 83 87 85 65 76 54 66 0.0014 *** ED 62 62 56 66 41 51 43 46 0.0047 *** DG 44 55 50 56 37 40 46 39 0.0325 ** ANC 73 56 68 51 70 59 49 61 0.0801 * AWC/RBMT 42 40 24 35 28 40 41 36 0.1422
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS NE=North East; NW=North West; Y&H= Yorkshire and the Humber; EM=East Midlands; WM=West Midlands; EE=East of England; SE=South East; SW=South West; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A. 1.44: Access to business management information by Farm Business Income
(£/farm) group. Note a farm can undertake more than one practice.
<0 0-30k 30-60k 60-90k 90-120k 120-200k 200k+
Chi Sq Sig
TOF 52 54 63 60 56 58 54 0.7363 FM 67 69 78 81 74 71 75 0.6116 ED 55 38 51 62 63 54 73 0.0000 *** DG 41 33 47 53 47 53 63 0.0003 *** ANC 56 54 59 65 69 58 66 0.4089 AWC 32 17 26 28 33 42 58 0.0000 *** RBMT 13 6 6 8 7 8 10 0.1101
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS Farm Business Income (£/farm) groups. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
75
Table A 1.45: Access to business management information by Agricultural Output:
Agricultural Input Ratio groups. Note a farm can undertake more than one practice. <0.75 0.75-1 1-1.25 >1.25 Chi Sq Sig
TOF 49 56 58 64 0.4247 FM 69 71 75 77 0.7278 ED 39 53 53 60 0.1067 DG 38 42 46 61 0.0363 ** ANC 56 58 60 65 0.8157 AWC 20 30 29 38 0.0492 ** RBMT 8 10 6 6 0.0820 *
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS refer to Agricultural Output value divided by Agricultural Input cost where measures <1 refer to costs exceeding value of output and >1 refers to value of outputs exceeding costs; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.46: Access to business management information by proportion of utilised
agricultural area (UAA) owned groups. Note a farm can undertake more than one practice.
<0.25 0.25-0.5 0.5-0.75 >0.75 Chi Sq Sig
NI 3 5 4 7 0.0857 * TOF 64 55 62 53 0.1399 FM 77 70 78 71 0.6152 ED 52 51 55 52 0.9670 DG 48 48 54 42 0.2040 ANC 60 64 64 57 0.6356 AWC 31 34 35 26 0.1265 RBMT 9 11 8 6 0.1121
Key: ROWS NI=None identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS refer to proportion of utilised agricultural area (UAA) owned by the farmer; Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
76
Table A 1.47: Access to business management information by farmer age (in years;
youngest person with managerial responsibility) groups. Note a farm can undertake more
than one practice.
<30 30-39 40-49 50-59 60-69 Chi Sq Sig
TOF 68 61 59 56 50 0.2848 FM 78 74 78 74 65 0.3763 ED 56 57 55 53 41 0.0617 * DG 47 56 46 46 35 0.0174 ** ANC 70 69 60 57 52 0.0772 * AWC 25 35 33 27 23 0.0666 * RBMT 13 11 9 7 3 0.0035 **
Key: ROWS TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS Farmer age groups (in years). Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%). Excludes ‘None identified’ due to small number of observations (<5) in a number of cells.
Table A 1.48: Access to business management information by segmentation group. Note
a farm can undertake more than one practice.
C LC/CE P MFB Chi Sq Sig
NI 10 9 4 5 0.1399
TOF 52 51 60 53 0.6818 FM 66 62 77 75 0.5493 ED 30 36 55 56 0.0164 ** DG 29 29 48 55 0.0143 ** ANC 48 53 60 56 0.6603 AWC/RBMT 33 31 32 48 0.0900 *
Key: ROWS NI=None identified; TOF=Through talking to other farmers; FM=Through the farming media e.g. internet sites, trade magazines; ED=Through events and demonstrations e.g. meetings organised by banks/accountancy firms/levy bodies; DG=Through discussion groups, farm walks or workshops; ANC=Through advice supplied with no direct charge, e.g. casual discussion with bank manager or accountant, or subsidised specific advice (e.g. FBAS); AWC= Through specific business advice supplied for a charge (e.g. consultant; RBMT=Through RDP-funded initiatives with a strong business management theme. COLUMNS C=Custodian; LC=Lifestyle Choice; P=Pragmatist; MFB=Modern Family Business; CE=Challenged Enterprise. Chi Sq= Chi-squared test result (p-value); Sig=statistical significance level (*=90%; **=95%; ***=99%).
77
Table A 1.49: Logistic Regression of Working with Others to Achieve Environmental
Benefit.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -13.189 0.431 -30.59 <.001 1.87E-06
Farm Business Income 0.000000722 3.28E-07 2.2 0.028 1
East of England -0.138 0.295 -0.47 0.639 0.8707
North East 2.049 0.366 5.6 <.001 7.758
North West 0.971 0.301 3.22 0.001 2.641
South East 0.571 0.288 1.98 0.047 1.77
South West 0.375 0.265 1.41 0.157 1.455
West Midlands 0.182 0.317 0.57 0.566 1.2
Yorkshire & Humber -0.621 0.462 -1.35 0.178 0.5373
Dairy -0.624 0.273 -2.29 0.022 0.5355
General Cropping 0.119 0.278 0.43 0.668 1.127
Horticulture -0.379 0.342 -1.11 0.268 0.6846
LFA Grazing Livestock -0.075 0.28 -0.27 0.789 0.9279 Lowland Grazing Livestock 0.011 0.234 0.05 0.961 1.012
Mixed 0.133 0.259 0.51 0.608 1.142
Pig & Poultry -0.617 0.412 -1.50 0.134 0.5394
Degree.Ag 0.549 0.181 3.04 0.002 1.731
Degree.Bus.Oth 0.389 0.265 1.47 0.142 1.476
No.FE.HE -0.688 0.238 -2.89 0.004 0.5027
PG 0.878 0.28 3.14 0.002 2.405
Age 0.01269 0.0066 1.92 0.055 1.013
Table A 1.50: Logistic Regression of Environmental Monitoring Practices.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -12.17 0.343 -35.51 <.001 5.19E-06
Farm Business Income 6.94E-07 2.66E-07 2.61 0.009 1
East of England -0.065 0.200 -0.32 0.747 0.9375
North East 2.255 0.253 8.9 <.001 9.539
North West 0.158 0.262 0.6 0.546 1.171
South East 0.525 0.211 2.48 0.013 1.69
South West -0.774 0.241 -3.22 0.001 0.4611
West Midlands -0.347 0.258 -1.35 0.178 0.7065
Yorkshire & Humber -1.155 0.407 -2.84 0.005 0.3152
Dairy -0.488 0.219 -2.23 0.026 0.6136
General Cropping 0.273 0.198 1.38 0.169 1.314
Horticulture -0.74 0.318 -2.33 0.02 0.4771
LFA Grazing Livestock -0.318 0.248 -1.29 0.199 0.7275 Lowland Grazing Livestock -0.339 0.205 -1.65 0.098 0.7121
Mixed -0.099 0.214 -0.46 0.642 0.9054
Pig & Poultry -1.016 0.377 -2.7 0.007 0.3622
Degree in Agriculture 0.278 0.159 1.75 0.08 1.321 Degree in Business/other 0.121 0.252 0.48 0.63 1.129 No Further or Higher Education -0.286 0.176 -1.63 0.103 0.751
Postgraduate Degree 0.594 0.242 2.45 0.014 1.81
Age 0.00922 0.00557 1.66 0.098 1.009
78
Table A 1.51: Logistic Regression of Greenhouse Gas Reduction Practices.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -10.817 0.32 -33.83 <.001 2.01E-05
Farm Business Income 0.000000986 0.000000279 3.54 <.001 1
East of England -0.827 0.244 -3.39 <.001 0.4372
North East 1.383 0.272 5.08 <.001 3.986
North West 0.137 0.23 0.60 0.55 1.147
South East 0.213 0.218 0.98 0.328 1.238
South West -0.679 0.207 -3.28 0.001 0.5071
West Midlands -0.292 0.229 -1.27 0.203 0.7469
Yorkshire & Humber -0.659 0.297 -2.22 0.027 0.5173
Dairy 0.364 0.193 1.89 0.059 1.439
General Cropping 0.1 0.247 0.40 0.687 1.105
Horticulture -1.316 0.381 -3.46 <.001 0.2682
LFA Grazing Livestock -0.099 0.253 -0.39 0.696 0.906 Lowland Grazing Livestock -0.289 0.232 -1.25 0.213 0.7488
Mixed 0.073 0.231 0.32 0.753 1.076
Pig & Poultry -0.404 0.316 -1.28 0.202 0.6679
Age -0.02004 0.00538 -3.73 <.001 0.9802
Table A 1.52: Logistic Regression of Practices to Adjust to Climate Change.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -11.698 0.192 -60.92 <.001 8.31E-06
Farm Business Income 0.000000751 2.56E-07 2.93 0.003 1
East of England -0.316 0.207 -1.53 0.127 0.7287
North East 1.099 0.327 3.36 <.001 3.002
North West 0.041 0.249 0.16 0.87 1.041
South East -0.276 0.249 -1.11 0.267 0.7587
South West -0.553 0.209 -2.64 0.008 0.5754
West Midlands 0.109 0.213 0.51 0.61 1.115
Yorkshire & Humber -1.102 0.365 -3.02 0.003 0.3322
Dairy 0.101 0.204 0.5 0.62 1.106
General Cropping 0.366 0.218 1.68 0.093 1.442
Horticulture -0.764 0.303 -2.52 0.012 0.4656
LFA Grazing Livestock -0.14 0.269 -0.52 0.603 0.8697 Lowland Grazing Livestock -0.196 0.228 -0.86 0.39 0.8218
Mixed 0.196 0.229 0.85 0.393 1.216
Pig & Poultry -0.465 0.306 -1.52 0.128 0.6279
Degree in Agriculture 0.004 0.165 0.03 0.98 1.004 Degree in Business/other 0.225 0.231 0.97 0.33 1.253 No Further or Higher Education -0.719 0.189 -3.8 <.001 0.4873
Postgraduate Degree 0.346 0.269 1.29 0.198 1.413
79
Table A 1.53: Logistic Regression of Accessing Technical Information.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -11.14 0.114 -97.36 <.001 1.45E-05
Farm Business Income 5.89E-07 1.93E-07 3.06 0.002 1
East of England -0.592 0.16 -3.71 <.001 0.5532
North East 1.505 0.197 7.64 <.001 4.506
North West 0.608 0.151 4.02 <.001 1.837
South East 0.205 0.156 1.32 0.188 1.227
South West -0.281 0.138 -2.04 0.041 0.7551
West Midlands -0.458 0.18 -2.54 0.011 0.6327
Yorkshire & Humber 0.056 0.174 0.32 0.747 1.058
Degree in Agriculture 0.097 0.109 0.89 0.375 1.102 Degree in Business/other 0.051 0.165 0.31 0.759 1.052 No Further or Higher
Education -0.328 0.115 -2.85 0.004 0.72
Postgraduate Degree 0.064 0.207 0.31 0.758 1.066
Table A 1.54: Logistic Regression of Accessing Business Management Information.
Parameter estimate s.e. t(*) t pr. antilog of estimate
Constant -10.923 0.131 -83.37 <.001 1.80E-05
Farm Business Income 4.33E-07 2.22E-07 1.95 0.051 1
East of England -0.172 0.139 -1.24 0.216 0.8416
North East 1.571 0.185 8.48 <.001 4.81
North West 0.474 0.15 3.16 0.002 1.607
South East -0.034 0.163 -0.21 0.835 0.9666
South West -0.476 0.14 -3.41 <.001 0.621
West Midlands -0.668 0.185 -3.61 <.001 0.5129
Yorkshire & Humber -0.028 0.169 -0.16 0.87 0.9727
Dairy 0.097 0.134 0.73 0.468 1.102
General Cropping 0.067 0.156 0.43 0.667 1.07
Horticulture -0.526 0.183 -2.88 0.004 0.5907
LFA Grazing Livestock 0.052 0.157 0.33 0.742 1.053 Lowland Grazing Livestock -0.131 0.148 -0.89 0.373 0.8768
Mixed -0.034 0.159 -0.22 0.829 0.9662
Pig & Poultry -0.23 0.181 -1.27 0.204 0.7944
Degree in Agriculture 0.046 0.106 0.43 0.665 1.047 Degree in Business/other -0.027 0.168 -0.16 0.874 0.9738 No Further or Higher Education -0.474 0.115 -4.14 <.001 0.6226
Postgraduate Degree 0.056 0.197 0.28 0.778 1.057