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Expert Group Meeting on Draft Regional Framework for Development of Dry Ports of International Significance, Bangkok, 6-7 June 2017 Peter Hodgkinson, Consultant Transport Economist, UNESCAP

Expert Group Meeting on Draft Regional Framework for ... dry port network... · Expert Group Meeting on Draft Regional Framework for Development of Dry Ports of International Significance,

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Expert Group Meeting on Draft Regional Framework for Development of Dry

Ports of International Significance, Bangkok, 6-7 June 2017

Peter Hodgkinson, Consultant Transport Economist,

UNESCAP

Content

5. Principles and standards for design and operation

6. Coding of dry ports of international significance

7. Incorporation of dry ports into transport documents and

legal instruments

8. Proposed arrangements for customs clearance at dry ports

9. Policy measures, legislation and solutions for planning dry

port development

10. Practical options for financing development and operation

of dry ports

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5. Principles and standards for dry port design and operation

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• Not necessary for dry ports to have identical design standards in order to function

effectively as inter-related components of regional network

• But, there is need for some consistency among them as to basic services offered and

design of infrastructure needed to provide these services

Basic services:

• Handling, consolidation, storage and modal transfer of containers and cargo;

• Customs and other border control inspection and clearance of international cargo

Basic infrastructure needs:

• Fenced customs secure area - segregated entry/exit points for different traffic;

• Container Yard (CY) – receipt/despatch of containers by road and rail, container

storage;

• Container Freight Station (CFS) for loading/discharge of cargo to/from containers;

• Customs inspection area where cargo may be discharged for inspection;

• Bonded warehouse for storage of break-bulk under bond cargo

• Administration building (dry port management, customs, freight forwarders, banking,

etc)

Key principle for CY design: rail access

4

Rail infrastructure to be provided inside a dry port should allow receipt and

despatch of full length unit container trains running between a single origin and

a single destination, without need to be broken up or re-marshalled outside the

dry port

• CY should be designed around rail access and not the reverse

• Loading and unloading of trains would take place in centrally located sidings

comprising at least three tracks – loading, unloading and locomotive release –

but actual number of tracks depends on forecast traffic volumes

• For a reach-stacker served facility, container stacks of CY located either side of

the tracks (to allow loading and unloading on both sides at a time)

• Paved area of CY on which stacks rest would extend entire length of tracks

• Length of loading/unloading tracks determined by number and length of wagons

comprising a train, e.g. for a train of 40 container wagons pulled by a single

locomotive, length = 660 metres approx.

• Design axle loading: 20 t (metre gauge); generally 22.5-25 t for wider gauges

• Best example of a rail-friendly dry port layout is Lard Krabang Dry Port in

Thailand (see next slide)

5

Example of good rail access planning: Lard Krabang Dry Port (Thailand)

• Tracks are one km long,

permitting full length trains

(loco plus 30-40 wagons

carrying 60-80 TEU) to arrive

and depart directly in/from the

terminal

• Rail loading/unloading

tracks centrally located,

permitting working of

handling equipment on

either side

CY layout, capacity and pavement design

6

• Layout depends on length of rail siding tracks as well as type of handling system to be

employed

• Generally choice is between reach-stacker and portal crane systems (such as RMGs or

RTGs) – former are land intensive, but inexpensive while latter are expensive and allow for

dense stacking of containers

• Choice depends on expected volume of containers to be handled – reach-stackers cost

effective for up to 200,000 TEU per year, beyond which portal crane system may be justified

• For portal crane system, crane will straddle at least the tracks and a roadway and possibly

even the container stack as well

• For reach-stacker system, at least two reach-stackers will work simultaneously either side of

loading/unloading tracks, lifting containers directly between wagons and container stacks in

one of 2 CY sections, avoiding need for trailer transfer

• In each CY section, container stacks will be arranged in blocks of about 4 TEU wide, 3 TEU

deep and 3-4 TEU high, along the length of tracks, each separated by a width of 13 metres to

allow for reach-stacker turning circle. Storage capacity = 1,400 TEU approx.

• Annual throughput capacity depends on number of times CY storage volume is turned. In this

case average dwell time of a container cannot exceed 4.5 days for throughput of 100,000

TEU

• To minimize capital cost, CY can be constructed in flexible paving materials, but will have to

withstand heavy wheel loadings of container lifting equipment (reach-stacker lifting 45 tonnes

= 25 tonnes per wheel.

7

Possible CY layout (reach-stacker served terminal)

8

Rubber tyred gantry crane (Uiwang) Reach-stacker (Lard Krabang)

Empty handler (Lard Krabang)

Examples of different container handling systems employed in region

Provision for truck circulation within dry port

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• Efficient operation of dry port depends on unimpeded

circulation of trucks throughout most of dry port area

• Exception is intersection with rail access line, which needs

to be protected by automatic level crossing barriers and

warning devices

• Internal roads should be constructed with width of 15

metres, to allow handling equipment and trucks to pass

safely

Design of other major facilities

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• Areas of Container Freight Station (CFS), Bonded Warehouse and even of

Customs Inspection Area determined in proportion to maximum container

throughput (TEU) expected to be handled in the dry port

• Peak daily number of containers to be handled through these facilities can

be calculated as some proportion of expected TEU throughput volume for

dry port

• Floor area of cargo discharged from these containers calculated by applying

to TEU volume an average area per TEU of 30 square metres and traffic

circulation factor of 1.3

• CFS designed with container bays facing on to a raised loading/unloading

platform on one side and truck loading/unloading bays on the other

• Containers will be packed and unpacked by forklift trucks while still on their

trailers (see photos). Similarly, break-bulk trucks will be loaded and

unloaded from raised platform by smaller forklifts

• Detailed requirements for other buildings shpould be determined in

consultation with local Customs staff, as well as freight forwarders and other

service providers

CFS operations at TIFFA terminal, Lard Krabang

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Terminal management IT system

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• Essential for entry, exit and placement into storage

of containers and cargo to be tracked by a real time

computer system

• Should be possible to locate any container or cargo

consignment from time of departure from seaport or

from shippers premises to arrival in dry port and

placement into storage

• Computerized yard control system should be used

to determine with precision where a container is to

be placed within stack

6. Coding of dry ports of international significance

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• United Nations Code for Trade and Transport Locations, UN/LOCODE – system

developed for uniquely identifying locations (e.g. airports, seaports, inland freight

terminals) which handle international trade

• Can establish electronic link between dry ports in regional network

• Of considerable benefit in facilitating trade and electronic exchange of documents

between dry ports located in different countries

• A five character alpha format, e.g. BT THI indicates a road freight terminal located

in Thimphu, Bhutan; TH LKR indicates Lard Krabang ICD in Thailand, etc.

• UN/LOCODES maintained by UNECE Secretariat

• Application to establish a code can be made on line to the Secretariat

• Strongly recommended that all dry ports which have not yet applied for a locode

should do so

• Within region it was found that Cikarang Dry Port in Indonesia and Lard Krabang

ICD in Thailand are already linked by locodes

7. Incorporation of dry ports into transport

documents and legal instruments

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• Objective to ensure that all dry ports covered by Intergovernmental

Agreement are given legal status, i.e. are specified as cargo origins and

destinations for international trade in such documents and instruments

• In practice Multimodal Transport documents, e.g. FIATA Multimodal Bill of

Lading (next slide), already in use in region for consignment of goods

between dry ports located in different countries – for example between

Cikarang Dry Port (Indonesia) and Lard Krabang ICD (Thailand)

• Transport documents are backed up by international transport conventions

(legal instruments) which set out contractual conditions under which cargo

consignments transported across borders

• Legal instrument which sets out terms and conditions of carriage embodied in

FIATA Multimodal Transport document is UNCTAD/ICC Rules for Multimodal

Transport Documents (1992)

• Possible that this instrument may need modification to specify dry ports as

cargo origins and destinations, despite related documents having already

been adapted for this purpose

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Example of FIATA based Multimodal Transport B/L

8. Proposed arrangements for customs clearance

at dry ports

16

• Effective interoperability of dry ports within regional network requires that they have

full range of functions (customs, quarantine and health) for border clearance of

international cargo

• Implies that intermediate border checks should be kept to minimum necessary for

border security (possibly only a quick inspection of transport documents against

cargo as reported on manifests)

• Desirably border inspection staff should be based permanently at dry ports or

alternatively be available on demand to undertake inspections there

• To make border clearance functions of dry ports fully effective:

• necessary to integrate different processes and documentation under single

window

• necessary to provide border control staff with the authority and IT tools (e.g.

consignee profile data) to be able to undertake pre-clearance of consignments

before arrival in dry port, or indeed in seaports

9. Policy measures, legislation and solutions for

planning dry port development

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• Generally fragmented authority for coordination and planning of dry port

development in region has limited effectiveness and delivery of government

policies and initiatives

• Many agencies and regulatory authorities involved, therefore need to set up inter-

agency coordinating committee under single transport authority (Iran provides a

good example)

• Activities of committee should be directed at delivery of following incentives to

assist development and establishment of dry ports:

a. Taxation and other financial measures (tax holidays, concessional land rent)

b. Priority development of transport infrastructure connecting to dry ports

c. Incorporation of dry ports into export processing or other free trade zones

d. Regulatory measures to assist sustainable transport connections to dry ports

• Few countries have applied financial incentives; some countries (e.g. Iran) have

subsidized private investment in transport connections; mixed success in locating

dry ports near FTZs, especially near borders where there is no industrial base;

some need to reverse past relaxation of truck weights and dimensions which has

worked against sustainable transport (examples Australia and Tajikistan)

10. Practical options for financing development and

operation of dry ports

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• Three main options:

Option 1: Financing by public sector; outsourcing of operation through management

contract with private sector

Option 2: 100% private sector financing and operation

Option 3: Public Private Partnership (PPP) variants

• Under Option 1 (applied to Khorgos project in Kazakhstan) all risk assigned to public

sector; under Option 2 (applied in Australia and Indonesia) all risk assumed by

private sector, may be unattractive to potential investors; only two applications of

Option 3 to existing dry ports (Uiwang and Lard Krabang), but PPP gaining

acceptance for new projects

• All PPP schemes involve 100% private operation and shared public private

investment; risk also shared, some involving heavy infrastructure investment by

public partner

• So far in region PPP mainly applied to highway and seaport projects with guaranteed

level and stability of demand; high level of risk associated with dry port projects due

to uncertain level and stability of demand, particularly in inland areas

• May be need for public sector to assume majority of risk to encourage PPP; in case

of Lard Krabang project, PPP scheme successful because public sector covered all

of project’s infrastructure costs, in addition to providing land

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…..Many thanks for your attention!