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nU-Span Flooring Limited Barholm Road Tallington Lincolnshire PE9 4RL

Tel: 01842 810445 Agrément Certificate e-mail: info@nu-span.com 13/4967 website: www.nu-span.com Product Sheet 1

NU-SPAN FLOORING SYSTEMS NU-SPAN PRECAST INSULATED CONCETE FLOOR SYSTEM

This Agrément Certificate Product Sheet(1) relates to the nU-Span Precast Insulated Concrete Floor System, comprising precast concrete and expanded polystyrene one-piece elements, used in conjunction with a non-structural sand/cement screed, or self-levelling compound or timber floor battens. The system is for use as a suspended ground floor in domestic and residential buildings not more than four storeys in height.

(1) Hereinafter referred to as ‘Certificate’.

CERTIFICATION INCLUDES:

• factors relating to compliance with Building Regulations where applicable

• factors relating to additional non-regulatory information where applicable

• independently verified technical specification • assessment criteria and technical investigations • design considerations • installation guidance • regular surveillance of production • formal three-yearly review.

KEY FACTORS ASSESSED

Structural performance — the system is suitable for use as a suspended ground floor in domestic buildings, subject to the maximum imposed loads given in section 6.

Thermal performance — ground floors incorporating the system can contribute to meeting the national Building Regulation requirements (see section 7).

Condensation risk — ground floors incorporating the system can help minimise the risk of interstitial and surface condensation (see section 8).

Durability — suspended ground floors incorporating the system will have a design life equivalent to that of the building in which they are incorporated (see section 11). The BBA has awarded this Certificate to the company named above for the system described herein. This system has been assessed by the BBA as being fit for its intended use provided it is installed, used and maintained as set out in this Certificate.

On behalf of the British Board of Agrément

Date of Third issue: 30 August 2017

Originally certificated on 16 January 2013

Brian Chamberlain Head of Technical Excellence

Claire Curtis-Thomas Chief Executive

The BBA is a UKAS accredited certification body – Number 113. The schedule of the current scope of accreditation for product certification is available in pdf format via the UKAS link on the BBA website at www.bbacerts.co.uk Readers are advised to check the validity and latest issue number of this Agrément Certificate by either referring to the BBA website or contacting the BBA direct.

British Board of Agrément Bucknalls Lane Watford Herts WD25 9BA

©2017

tel: 01923 665300 fax: 01923 665301

clientservices@bbacerts.co.uk www.bbacerts.co.uk

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Regulations In the opinion of the BBA, the nU-Span Precast Insulated Concrete Floor System, if installed, used and maintained in accordance with this Certificate, can satisfy or contribute to satisfying the relevant requirements of the following Building Regulations (the presence of a UK map indicates that the subject is related to the Building Regulations in the region or regions of the UK depicted):

The Building Regulations 2010 (England and Wales) (as amended)

Requirement: A1(1) Loading Comment: Suspended ground floors incorporating the system can be designed to sustain and

transmit dead and imposed floor loads to the ground. See sections 6.1 and 6.2 of this Certificate.

Requirement: C2(c) Resistance to moisture Comment: Suspended ground floors incorporating the system can adequately limit the risk of

surface and interstitial condensation. See sections 8.1 to 8.4 of this Certificate. Requirement: L1(a)(i) Conservation of fuel and power Comment: Suspended ground floors incorporating the system can contribute to satisfying this

Requirement. See section 7 of this Certificate. Regulation: 7 Materials and workmanship Comment: The system components are acceptable. See section 11 and the Installation part of this

Certificate. Regulation: Regulation: Regulation: Regulation:

26 26A 26A 26B

CO2 emission rates for new buildings Fabric energy efficiency rates for new dwellings (applicable to England only) Primary energy consumption rates for new buildings (applicable to Wales only) Fabric performance values for new dwellings (applicable to Wales only)

Comment: The system can contribute to satisfying these Regulations. See section 7 of this Certificate.

The Building (Scotland) Regulations 2004 (as amended)

Regulation: 8(1) Durability, workmanship and fitness of materials Comment: The system components can contribute to a construction satisfying this Regulation. See

section 11 and the Installation part of this Certificate. Regulation: 9 Building standards applicable to construction Standard: 1.1 Structure Comment: Suspended ground floors incorporating the system can be designed to be capable of

safely accommodating dead and imposed loads, with reference to clause 1.1.1(1). See sections 6.1 and 6.2 of this Certificate.

Standard: 3.15 Condensation

Comment: Suspended ground floors incorporating the system can adequately limit the risk of surface and interstitial condensation, with reference to clause 3.15.1(1), 3.15.4(1) and 3.15.5(1). See sections 8.1 to 8.3 and 8.5 of this Certificate.

Standard: 6.1(b) Carbon dioxide emissions

Standard: 6.2 Building insulation envelope

Comment: Suspended ground floors incorporating the system can contribute to satisfying the requirements of this Standard, with reference to clauses 6.1.16(1), 6.1.67(1), 6.2.1(1) to 6.2.6(1), 6.2.9(1), 6.2.10(1), 6.2.11(1) and 6.2.13(1). See section 7 of this Certificate.

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Standard: 7.1(a) Statement of sustainability Comment: Suspended ground floors incorporating the system can contribute to meeting the

relevant requirements of Regulation 9, Standards 1 to 6 and therefore will contribute to a construction meeting a bronze level of sustainability as defined in this Standard. In addition, the floors can contribute to a construction meeting a higher level of sustainability as defined in this Standard, with reference to clauses 7.1.4(1) [Aspects 1(1) and 2(1)], 7.1.6(1) [Aspects 1(1) and 2(1)] and 7.1.7(1) [Aspect 1(1)]. See section 7 of this Certificate.

Regulation: 12 Building standards applicable to conversions Comment: All comments given for the system under Regulation 9, Standards 1 to 6 also apply to this

Regulation, with reference to clause 0.12.1(1) and Schedule 6(1). (1) Technical Handbook (Domestic).

The Building Regulations (Northern Ireland) 2012 (as amended)

Regulation: 23(a)(i) Fitness of materials and workmanship Comment: (iii)(b) Suspended ground floors incorporating the system are acceptable. See section 11 and

the Installation part of this Certificate. Regulation: 29 Condensation Comment: Suspended ground floors incorporating the system can adequately limit the risk of

interstitial condensation. See sections 8.1 to 8.3 of this Certificate. Regulation: 30 Stability Comment: Suspended ground floors incorporating the system can be designed to sustain and transmit

dead and imposed floor loads to the ground. See sections 6.1 and 6.2 of this Certificate. Regulation: 39(a)(i) Conservation measures

Regulation: 40(2) Target carbon dioxide emission rates

Comment: The system components can satisfy the requirements of this Regulation. See section 7 of this Certificate.

Construction (Design and Management) Regulations 2015 Construction (Design and Management) Regulations (Northern Ireland) 2016 Information in this Certificate may assist the client, designer (including Principal Designer) and contractor (including Principal Contractor) to address their obligations under these Regulations. See sections: 1 Description (1.1 and 1.3) and 3 Delivery and site handling (3.4) of this Certificate.

Additional Information

NHBC Standards 2017 In the opinion of the BBA, nU-Span Precast Insulated Concrete Floor System, if installed, used and maintained in accordance with this Certificate, can satisfy or contribute to satisfying the relevant requirements in relation to NHBC Standards, Chapter 5.2 Suspended ground floors.

Technical Specification

1 Description 1.1 The nU-Span Precast Insulated Concrete Floor System comprises precast reinforced concrete units bonded to an expanded polystyrene (EPS) insulation moulding, for use in ground floor construction. There are two moulding elements available (see Figure 1), with the system characteristics given in Table 1.

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Table 1 System characteristics

Characteristic (unit) Product reference

NU G300 NU W300 NU G375 NU W375 NU G375 DB NU W375 DB

Standard width (mm) 1200 1200 1200 1200 1200 1200

Depth (mm) 300 300 375 375 375 375

Beam Depth (mm) 225 225 225 225 300 300

Maximum clear span (mm) <6600 <6600 <6600 <6600 <7200 <7200

Maximum total length (mm) <6800 <6800 <6800 <6800 <7400 <7400

Self-weight of unit including insulation (Kg·m–2)

195 196 227 227 263 263

1.2 The structural component of the elements is cast-in concrete, strength class C40/50 in accordance with BS EN 206 : 2013 and BS 8500-1 : 2015, reinforced with steel bars to BS 4449 : 2005. 1.3 The insulation component is either standard grade white EPS 70 with a nominal density of 15 kg·m–3 or grey EPS 70 with a nominal density of 18 kg·m–3. 1.4 The joint filling used is concrete grout, strength class C25/30(1) with maximum aggregate size 10 mm(2). (1) Cement complies with BS EN 197-1 : 2011. (2) Gravel and sand comply with BS EN 12620 : 2002.

1.5 Ancillary items that can form part of the overall floor construction, but which are outside the scope of this Certificate, include:

• concrete floor screed, typically between 25 and 100 mm thick or self-levelling compound with 10 mm average nominal thickness

• timber battens — to receive floor finishes

• floor finishes

• damp proof courses (dpc), damp proof membranes and gas membranes.

2 Manufacture 2.1 The concrete component of the system is manufactured in accordance with the requirements of BS EN 13224 : 2011. The moulded EPS component is manufactured in accordance with BS EN 13163 : 2012. 2.2 As part of the assessment and ongoing surveillance of product quality, the BBA has:

• agreed with the manufacturer the quality control procedures and product testing to be undertaken

• assessed and agreed the quality control operated over batches of incoming materials

• monitored the production process and verified that it is in accordance with the documented process

• evaluated the process for management of nonconformities

• checked that equipment has been properly tested and calibrated

• undertaken to carry out the above measures on a regular basis through a surveillance process, to verify that the specifications and quality control operated by the manufacturer are being maintained.

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Figure 1 nU-Span system elements

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3 Delivery and site handling 3.1 Each floor system element is delivered to site marked with the Certificate holder’s product reference (see Table 1) and, if requested, the customer’s own reference code. 3.2 The elements should be handled with care during offloading, storage and installation to minimise damage. 3.3 The elements should be stacked on a flat base and protected against direct sunlight and high winds. 3.4 The EPS component must not be exposed to flame or ignition. Careful consideration should also be given to the management of fire risk when in storage. Contact with solvents and organic based materials should also be avoided.

Assessment and Technical Investigations The following is a summary of the assessment and technical investigations carried out on the nU-Span Precast Insulated Concrete Floor System.

Design Considerations

4 General The nU-Span Precast Insulated Concrete Floor System, when used in accordance with the recommendations of this Certificate, is satisfactory for use as insulated suspended ground floors for use in domestic buildings not more than four storeys in height.

5 Practicability of installation The system is designed to be installed by contractors/builders experienced with this type of system.

6 Structural performance

6.1 The Certificate holder undertakes structural calculations for the structural adequacy of the system. Individual designs are verified by calculation in accordance with BS EN 1992-1-1 : 2004 and its UK National Annex or BS EN 13224 : 2011, when the floor panels are treated as minor floor elements (see Annex B of BS EN 13224 : 2011. All calculations should take account of the suspended ground floor loading requirements set out in BS EN 1990 : 2002 and its UK National Annex, and load category A limitations set out in table 6.2 of BS EN 1991-1-1 : 2002 and its UK National Annex.

Floor loading

6.2 Concrete floor elements, to the Certificate holder’s design and specification, used in domestic and residential properties are generally subject to the following maximum imposed loadings:

Domestic and residential applications for single family dwellings and blocks of flats

• uniformly distributed imposed load 1.5 kN·m–2 for floor according to table NA.2 of NA to BS EN 1991-1-1 : 2002, sub-category A1 and A2

• for moveable partition with self-weight ≤1.0 kN·m–1 a UDL of 0.5 kN·m–2 in accordance with BS EN 1991-1 : 2002 clause 6.3.1.2(8) should be added to uniformly distributed imposed load

• for moveable partition with self-weight >1 ≤2 kN·m–1 a UDL of 0.8 kN·m–2 in accordance with BS EN 1991-1 : 2002 clause 6.3.1.2(8) should be added to uniformly distributed imposed load

• for moveable partition with self-weight >2 ≤3 kN·m–1 a UDL of 1.2 kN·m–2 in accordance with BS EN 1991-1 : 2002 clause 6.3.1.2(8) should be added to uniformly distributed imposed load

• line load of 6 kN·m–1 from blockwork partition walls both perpendicular and parallel to the beam as permanent action

• concentrated imposed load 2.0 kN for floors according to table NA.2 of NA to BS EN 1991-1-1 : 2002, sub-categories A1, A2, A3 and A5.

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Communal areas, balconies and stairs:

• uniformly distributed imposed load 2.5 kN·m–2 for balconies in single family dwelling and communal areas in blocks of flats according to table NA.2 of NA to BS EN 1991-1-1 : 2002, sub-category A5

• uniformly distributed imposed load 3.0 kN·m–2 for stairs according to table NA.2 of NA to BS EN 1991-1-1 : 2002 category C32(1)

• concentrated imposed load 4.0 kN for stairs according to table NA.2 of NA to BS EN 1991-1-1 : 2002 category C32(2). (1) Communal areas in blocks of flats with limited use are blocks of flats not more than three storeys in height and with not more than four self-

contained dwelling units per floor accessible from one staircase. (2) To ensure a minimum local resistance of the floor structure, a separate verification must be performed with a concentrated load that, unless

stated otherwise, must not be combined with the uniformly distributed loads or other variable actions. 6.3 When considering the floor units as minor floor elements, the minimum bearing lengths shown in Table 2 are required.

Table 2 Minimum bearing lengths Support reinforced elements

(mm)

Masonry 100

Concrete 80

Steel 70

7 Thermal Performance

7.1 The overall floor U value will depend significantly on the deck U value, the ratio of the exposed (and semi-exposed) floor perimeter length to floor area (p/a), the amount of underfloor ventilation and the ground thermal conductivity. Each floor U value, therefore, should be calculated to BS EN ISO 13370 : 2007 and BRE Report BR 443 : 2006.

7.2 A floor deck U value (from inside to the underfloor void) will depend significantly on the chosen nU-Span plank, as shown in Table 3. Each configuration has been numerically modelled to BS EN ISO 10211: 2007. The floor deck U value may then be taken as an area-weighted average and the overall floor U value calculated as described in section 7.1.

Table 3 Floor deck U values (W·m–2·K–1)

Deck panel U values

Element type

NU W300 NU G300 NU W375 NU G375 NU W375 DB NU G375 DB

0.165 0.248 0.1521 0.1262 0.2084 0.1754

7.3 Example floor U values given in Table 4 indicate that the system can enable a floor to satisfy, or improve upon, the design floor U values of between 0.13 and 0.25 W∙m–2∙K–1 specified in documents supporting the national Building Regulations.

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Table 4 Example U values(1) (W·m–2·K–1) for Floor System Elements

p/a ratio

Floor Element U values (W·m–2·K–1)

NU W300 NU G300 NU W375 NU G375 NU W375 DB NU G375 DB

0.2 0.16 0.12 0.11 0.097 0.14 0.12

0.3 0.18 0.13 0.12 0.10 0.15 0.13

0.4 0.19 0.14 0.12 0.11 0.16 0.14

0.5 0.19 0.14 0.13 0.11 0.17 0.14

0.6 0.20 0.14 0.13 0.11 0.17 0.15

0.7 0.204 0.14 0.13 0.11 0.17 0.15

0.8 0.21 0.15 0.13 0.11 0.18 0.15

0.9 0.21 0.15 0.13 0.11 0.18 0.15

1.0 0.21 0.15 0.14 0.11 0.18 0.15

(1) These calculations are in accordance with sections 7.1 and 7.2 and assume: • 75 mm concrete screed λ is 1.15 W∙m-1∙K-1 • a 300 mm thick perimeter wall with a U value of 0.35 W∙m-2∙K-1 • underfloor ventilation area is 0.0015 m2∙m-1 • ground conductivity is 1.5 W∙m-1∙K-1 • all other parameters are default values from BRE Report BR 443 : 2006.

Junction ψ-values

7.4 Care must be taken in the overall design and construction of junctions between the floor and external, internal and party walls, to limit excessive heat loss and air infiltration. Detailed guidance can be found in the documents supporting the national Building Regulations. 7.5 The junction ψ-values given in Table 5 may be used in SAP calculations. Alternatively, values can be modelled in 3D, in accordance with the requirements and guidance in BRE Report BR 497 : 2016, BRE Information Paper IP 1/06 and the provisions in the documents supporting the national Building Regulations relating to competency to perform calculations, determine robustness of design/construction and limiting heat loss by air infiltration.

Table 5 Junction psi values

Junction Junction ψ-values (Wm-1·K-1)

External wall 0.32(1)

Party wall 0.16(1) (1) Conservative default values column of Table K1, Appendix K of SAP 2012.

8 Condensation risk Interstitial condensation

8.1 The risk for each case should be assessed, both through the central part of the plank and the legs at the edges, in accordance with BS EN ISO 13788 : 2012 and BS 5250 : 2011, Annex D.3, accounting for the slab construction, dwelling humidity class, dwelling type, dwelling location and use of any VCL and/or gas membranes placed only between the screed and the floor planks.

8.2 To help minimise the risk of condensation, the void space beneath the lowest point of the floor construction should be at least 150 mm high, with provision for adequate through-ventilation, in the form of ventilation openings provided in two opposing external walls. The ventilation openings should be sized at not less than 1500 mm2∙m–1 run of external wall or 500 mm2·m–2 of floor area, whichever is greater. Where pipes are used to carry ventilating air, these should be at of least 100 mm diameter. 8.3 To minimise the risk of interstitial condensation at junctions with external walls, specifiers should ensure that wall insulation extends to at least 150 mm below the bottom of the infill panel.

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Surface condensation

8.4 Floors constructed from the system will adequately limit the risk of surface condensation when the thermal transmittance (U value) does not exceed 0.7 W·m–2·K–1 at any point and the junctions with walls are in accordance with the relevant requirements of Limiting thermal bridging and air leakage : Robust construction details for dwellings and similar buildings TSO 2002 or BRE Information Paper IP 1/06.

8.5 Floors constructed from the system will adequately limit the risk of surface condensation when the thermal transmittance (U value) does not exceed 1.2 W·m–2·K–1 at any point and design and construction is to BS 5250 : 2011. Additional guidance can be found in BRE Report BR 262 : 2002.

8.6 To minimise the risk of surface condensation at service penetrations, care should be taken to minimise gaps in the insulation layer.

9 Void depth A minimum ventilation void of 150 mm should be provided below the underside of precast concrete beams for suspended floors. In locations where the risk of clay heave is anticipated or has been confirmed by geotechnical investigations, a total void of up to 300 mm may be required to accommodate the possible expansion of the ground below the floor.

10 Maintenance As the system is an integral part of the floor construction, maintenance is not necessary.

11 Durability

Suspended insulated ground floors incorporating the system will have adequate durability for the design life of the building, when designed and installed in accordance with the requirements of this Certificate.

12 Reuse and recyclability The precast concrete and EPS components of the system can be fully recycled.

Installation

13 General 13.1 To facilitate installation and provide sufficient sub-floor ventilation for the system, a void of sufficient depth must be provided beneath the floor construction (see section 8.2). 13.2 Typical installation details used in the design of floors incorporating the system are shown in Figure 2.

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Figure 2 Typical installation

13.3 The ground beneath the floor should be free of topsoil and vegetation. Oversite concrete or other surface seal is not required, but material added to bring the solum to an even surface must be hard and dry. 13.4 Provision should be included for ventilation of the sub-floor space and to resist moisture ingress, and should be in accordance with normal good practice, for example, provision of ventilators and adequate drainage of the sub-floor. 13.5 A continuous damp proof course must be laid along the support wall below the floor in accordance with BS 8102 : 2009. 13.6 Normal precautions for handling EPS materials should be taken to avoid damaging the system elements during off-loading, storage, handling and installation. Any damaged parts of the system elements must be replaced before installation.

14 Procedure 14.1 The installers should confirm that the system supplied to site is in accordance with the details shown on the designer’s drawings for the project. 14.2 The system elements are put in place by a lorry-mounted high-reach crane using four chain lifting connectors, which is directed by operatives until in place. 14.3 After the first system element has been accurately positioned, the subsequent elements are positioned. 14.4 The system elements must be fitted tightly and care must be taken when placing the service access points the correct positions. 14.5 When using a concrete pump, truck or skip, concrete should not be discharged onto the system from heights greater than 300 mm and concrete heaps must not be formed over 150 mm. 14.6 Before the screed is applied, EPS offcuts are used to fill the gaps in the units, to ensure that the concrete screed stays in place. 14.7 The concrete screed is applied as grouting in the space between units.

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14.8 Where required, a suitable concrete screed or self-levelling compound finish is applied to the designer’s specification.

Technical Investigations

15 Investigations 15.1 An assessment was made of existing data relating to:

• structural calculations

• thermal properties

• durability. 15.2 A site visit was carried out to assess the practicability of installation of the system. 15.3 The manufacturing process was evaluated, including the methods adopted for quality control, and details were obtained of the quality and composition of the materials used.

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Bibliography BRE Information Paper IP 1/06 Assessing the effects of thermal bridging at junctions and around openings

BRE Report BR 262 : 2002 Thermal insulation : avoiding risks

BRE Report BR 443 : 2006 Conventions for U-value calculations

BRE Report BR 497 : 2016 Conventions for calculating linear thermal transmittance and temperature factors

BS 4449 : 2005 + A3 : 2016 Steel for the reinforcement of concrete — Weldable reinforcing steel — Bar, coil and decoiled product — Specification

BS 5250 : 2011 + A1 : 2016 Code of practice for control of condensation in buildings

BS 8102 : 2009 Code of practice for protection of below ground structures against water from the ground

BS 8500-1 : 2015 + A1 : 2016 Concrete — Complementary British Standards to BS EN 206 — Method of specifying and guidance for the specifier

BS EN 197-1 : 2011 Cement — Composition, specifications and conformity criteria for common cements

BS EN 206 : 2013 + A1 : 2016 Concrete — Specification, performance, production and conformity

BS EN 1990 : 2002 + A1 : 2005 Eurocode. Basis of structural design NA to BS EN 1990 : 2002 + A1 : 2005 UK National Annex for Eurocode — Basis of structural design

BS EN 1991-1-1 : 2002 Eurocode 1 : Actions on structures — General actions — Densities, self-weight, imposed loads for buildings NA to BS EN 1991-1-1 : 2002 UK National Annex to Eurocode 1 : Actions on structures — General actions — Densities, self-weight, imposed loads for buildings

BS EN 1992-1-1 : 2004 + A1 : 2014 Eurocode 2 : Design of concrete structures — General rules and rules for buildings NA + A2 : 14 to BS EN 1992-1-1 : 2004 + A1 : 2014 UK National Annex to Eurocode 2 : Design of concrete structures — General rules and rules for buildings

BS EN 12620 : 2002 + A1 : 2008 Aggregates for concrete

BS EN 13163 : 2012 + A2 : 2016 Thermal insulation products for buildings — Factory made products of expanded polystyrene (EPS) – Specification

BS EN 13224 : 2011 Precast concrete elements — Ribbed floor elements

BS EN ISO 10211 : 2007 Thermal bridges in building construction — Heat flows and surface temperatures — Detailed calculations

BS EN ISO 13370 : 2007 Thermal performance of buildings — Heat transfer via ground – Calculation methods

BS EN ISO 13788 : 2012 Hygrothermal performance of building components and building elements — Internal surface temperature to avoid critical surface humidity and interstitial condensation — Calculation methods

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Conditions of Certification

16 Conditions 16.1 This Certificate:

• relates only to the product/system that is named and described on the front page

• is issued only to the company, firm, organisation or person named on the front page – no other company, firm, organisation or person may hold claim that this Certificate has been issued to them

• is valid only within the UK

• has to be read, considered and used as a whole document – it may be misleading and will be incomplete to be selective

• is copyright of the BBA

• is subject to English Law. 16.2 Publications, documents, specifications, legislation, regulations, standards and the like referenced in this Certificate are those that were current and/or deemed relevant by the BBA at the date of issue or reissue of this Certificate. 16.3 This Certificate will remain valid for an unlimited period provided that the product/system and its manufacture and/or fabrication, including all related and relevant parts and processes thereof:

• are maintained at or above the levels which have been assessed and found to be satisfactory by the BBA

• continue to be checked as and when deemed appropriate by the BBA under arrangements that it will determine

• are reviewed by the BBA as and when it considers appropriate. 16.4 The BBA has used due skill, care and diligence in preparing this Certificate, but no warranty is provided. 16.5 In issuing this Certificate the BBA is not responsible and is excluded from any liability to any company, firm, organisation or person, for any matters arising directly or indirectly from:

• the presence or absence of any patent, intellectual property or similar rights subsisting in the product/system or any other product/system

• the right of the Certificate holder to manufacture, supply, install, maintain or market the product/system

• actual installations of the product/system, including their nature, design, methods, performance, workmanship and maintenance

• any works and constructions in which the product/system is installed, including their nature, design, methods, performance, workmanship and maintenance

• any loss or damage, including personal injury, howsoever caused by the product/system, including its manufacture, supply, installation, use, maintenance and removal

• any claims by the manufacturer relating to CE marking. 16.6 Any information relating to the manufacture, supply, installation, use, maintenance and removal of this product/system which is contained or referred to in this Certificate is the minimum required to be met when the product/system is manufactured, supplied, installed, used, maintained and removed. It does not purport in any way to restate the requirements of the Health and Safety at Work etc. Act 1974, or of any other statutory, common law or other duty which may exist at the date of issue or reissue of this Certificate; nor is conformity with such information to be taken as satisfying the requirements of the 1974 Act or of any statutory, common law or other duty of care.

British Board of Agrément Bucknalls Lane Watford Herts WD25 9BA

©2017

tel: 01923 665300 fax: 01923 665301

clientservices@bbacerts .co.uk www.bbacerts.co.uk