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Final Environmental Monitoring Report
Bi-Annual Report December 2014
AFG: Western Basin Water Resources Management
Project
Prepared by Sheladia Associates Inc.(SAI), USA for the Project Management Unit under the Ministry of
Energy and Water of Afghanistan.
___________________________________________________________________________
1
Final Environmental Monitoring Report
Project Number: 36252-013 December, 2014
Afghanistan: Western Basin Water Resources Management Project (WBWRMP) (Loan No. 2227, Grant No. 0033, Grant No. 0052)
Prepared by Sheladia & Associate Inc. (SAI), USA for the Project Management Unit under the Ministry of Energy and Water of Afghanistan
2
CONTENTS
1. INTRODUCTION ............................................................................................................................ 5
1.1 Objectives, Scope and Methodology ....................................................................................... 5
1.2. Project Description ..................................................................................................................... 6
1.3 Project Activities Progress ...................................................................................................... 10
2. LEGISLATION BASE AND INSTITUTIONAL CAPACITY ..................................................... 10
2.1 Legislation base ........................................................................................................................ 10
2.1.1. National Environmental Legislation ............................................................................... 10
2.1.2 Asian Development Bank’s Environmental Procedures ............................................. 13
2.1.3 Project permitting status .................................................................................................. 13
2.2 Institutional Capacity ................................................................................................................ 14
3. SITE ENVIRONMENTAL MANAGEMENT PLAN IMPLEMENTATION ............................... 16
4.1 Implementation of Site Environmental Management Plan ................................................. 16
4.2 Public disclosure during the Project implementation .......................................................... 16
4.3 Training activities ...................................................................................................................... 17
4. IEEs FOR PUL-E-HASHIMI AND SOUTH MAIN CANALs .................................................... 17
5. PROJECT’S ENVRIONMENTAL IMPACT ASSESSMENT ................................................... 18
5.1 Baseline data ............................................................................................................................. 18
5.2 Current situation and Project Impact assessment ............................................................... 21
6. CONCLUSION AND RECOMMENDATIONS .......................................................................... 24
6.1 On SEMP implementation ....................................................................................................... 24
6.2 On IEEs for Pul-e-Hashimi and South Main Canal Projects .............................................. 24
6.3 On Project Impact Assessment on Environment ................................................................. 24
ATTACHMENTS ....................................................................................................................................... 25
Attachment 1-a: Site Environmental Management Plan for Sia Sang Canal I&U Project ............. 25
3
Attachment 1-b: Site Environmental Management Plan for Ghoryan I&U Project ......................... 38
Attachment 2: Example of Socio-Economic Survey (2008-2009) ..................................................... 42
Attachment 3: Photos from Sia Sang Canal Project sites .................................................................. 45
Attachment 4: Photos from Ghoryan Canal Project sites ................................................................... 46
Attachment 5: Example of Socio-Economic Questionnaire (2008-2009) ........................................ 45
Attachment 6: Example of Project Impact Assessment Questionnaire (2014) ............................... 51
4
ACCRONYMS
ADB - Asian Development Bank
CMP - Comprehensive Mitigation Plan
EIA - Environmental Impact Statement
EIS - Environmental Impact Statement
EMP - Environmental Management Plan
EO - Environmental Officer
FGD - Focus Group Discussion
FS - Feasibility Study
HRMRBA - Hari Rud Murghab River Basin Agency
ICB - International Contract Bidding
IEE - Initial Environmental Examination
IRA - Islamic Republic of Afghanistan
IWRM - Integrated Water Resources Management
MAIL - Ministry of Agriculture, Irrigation and Livestock
MEW - Ministry of Energy and Water
MOF - Ministry of Finance
NEPA - National Environmental Protection Agency
NGO - Non-Governmental Organization
O&M - Operation and Maintenance
PAM - Project Administration Memorandum
PIC - Project Implementation Consultant
RBA - River Basin Authority
SEMP - Site Environmental Management Plan
SPS - Safeguards Policy Statement
WBWRMP - Western Basin Water Resources Management Project
WUA Water Users Association
5
1. INTRODUCTION
1. The Western Basin Water Resource Management and Irrigated Agriculture Development
Project is a ‘sector’ project under the Natural Resources Sector in Afghanistan. The project was
based around the Hari Rud and Murghab River valley in Western Afghanistan and will be
referred to as the WBP in this document.
2. Work for preparing the feasibility study for WBWRM commenced in December 2004 and
was completed in July 20051. ADB has approved on 21 December 2005 a Loan of SDR42.446
million and a Grant of $14.5 million from ADB’s Special Funds resources to help finance the
Project2.
3. The WBWRMP sought to address key issues related to water use and management
primarily in the Hari Rud catchment/watershed. Herat is the main urban and commercial centre
in the basin and irrigated agriculture is a major activity close to the river where land is suitable
and to a limited extent around karezes. The irrigated area occupies a relatively small part of the
overall basin, most of which consists of rangelands and steep slopes with some high peaks to
over 4000 meters. It is a generally arid environment with limited ground cover and is heavily
utilized by different groups of people including migratory pastoralists.
1.1 Objectives, Scope and Methodology
5. The main objective of this report is to provide final assessment on implementation of Site
Environmental Management Plans (EMP), to report any other environmental concerns occurred
during project implementation, and to provide final environmental assessment of the Project
activities. The report is also prepared to comply with environmental safeguards of the
Government of the Afghanistan and ADB Safeguards Policy Statement (ADB, 2009) as well as
to fulfill the loan covenant as described in the Financial Agreement FAS: AFG 36252 between
ADB and Islamic Republic of Afghanistan (IRA).
6. The final environmental monitoring report consist of three parts: (i) results of monitoring of
implementation of EMPs by 2 Contractors covering the period from February 2014 till December
2014, (ii) brief information on two IEEs developed within Pul-e-Hashimi canal and South Main
canal FSs, and (iii) results of final environmental assessment of whole Project.
7. First part of the report is based on findings from field monitoring trips conducted by
Project Management Unit (PMU)’s staff, environmental checklists filled by PMU’s Environmental
Officer during joint observations with Contractors. Second part provides short summary of the
main findings of IEEs. An Impact Assessment Report for WB Project prepared by Project
Implementation Consultant that includes Summary Questionnaire Survey Results conducted in
September 2014 was used for third part of the report.
1
TA 4420 – AFG (TAR 36252-01) Final TA Report – July 2005
. Western Basins Water Resources management And Irrigated Agriculture Development Project
2 Project Administration Memorandum for the WBWRMP, June 2007
6
1.2. Project Description
8. The overall goal of the Project is to improve rural livelihoods in the Project area through
strengthened integrated water resource management (IWRM), improved irrigation service
delivery, enhanced agricultural practices and increased productivity of irrigated agriculture in the
Hari Rud and the Murghab River Basins, which are spread in Badghis, Ghor, and Herat
provinces.
9. The Project has been implemented mainly in the Hari Rud River Basin as shown in
Figure 1. By July 2011, security conditions had not been amenable to conducting work in the
Murghab River Basin. When the work could not be started, the Murghab River Basin Project and
its office in Badghis was closed in December 2012. However, the project did complete
construction of a Hari Rud Sub-basin Agency building in Badghis, which now is occupied and
functioning.
Figure 1: Map with location of completed projects
10. The Project is implemented by the Ministry of Energy and Water (MEW) with the loan
and grant support of the ADB. Sheladia & Associate Inc. (SAI), USA provides technical support
to implement the three components of the project as a Project Implementation Consultant (PIC),
while Cowater, Canada supports implementing the capacity building component of the project.
11. The project consists of the following four components;
Component 1. Integrated Water Resource Management: (i) support IWRM and basin
management through technical activities, which include surface water investigations,
groundwater investigations and establishment of basin management information
7
systems; (ii) undertake water allocation planning studies, and support development of
basin master plans; and (iii) enhance IWRM institutional and capacity development.
Component 2. Water Resources and Irrigation Development: (i) support irrigation
rehabilitation and upgrading in the Hari Rud river basins; (ii) support water resources
development; and (iii) support Mirab development and strengthen Mirabs’ capacity for
operation and maintenance (O&M).
Component 3. Agriculture and Livelihood Support Services: (i) assist in improving on-
farm water management; (ii) enhance cropping opportunities; and (iii) support livelihood
opportunities for women and the landless.
Component 4. Capacity Development and Project Management: (i) strengthen capacity
of the MEW, Ministry of Agriculture, Irrigation and Livestock (MAIL), River Basin Agency
(RBA), and other project participants; and (ii) support the establishment of a PMU.
13. Construction activities have being implemented only within Component 2 - Water
Resources and Irrigation Development. Therefore, this environmental report provides
information only on the Component 2.
14. Component 2 included three types of activities. First type was physical works -
rehabilitation and upgrading of 6 large irrigation canal systems, second was construction of 9
office buildings for the HRMRBA and WUAs, and third was drilling of 7 test wells. To implement
these construction works more than 10 contracts between MEW and various Contractors were
concluded. At present, all physical works have been completed.
15. Summary information on the concluded contracts under WBWRMP is presented in
Table 1.
8
Table 1: Detailed list of the Sub Projects - (WBWRMP-08.12.2014)3
S.N Description Contractor
Dates
Pro
gre
ss %
Status
Status of Final Hand
over Certificate/ After
Retention Period Start (NTP)
issued
Actual
Comp. Date
Canals R&U
1 Jui Nau Fast Track
Project
Arian Bana Construction
Company (ABCC) 16.Jan.2010 15.Feb.2011 100 Completed Issued
2 Jui Nau Main Canal R&U Project
Mumtaz Construction Group (MCG)
29.Sep.2010 10.Dec.2012 100 Completed Not issued yet
3 Kohsan Fast Track Project
Samandar Constriction and Producing Company
(SCPC) 19.Jan.2011 27.Feb.2012 100 Completed Not issued yet
4 Zinda Jan Canal R&U Project
Shahran Construction and Engineering Ltd (SCL)
05.Oct.2010 23.Mar.2013 100 Completed Not issued yet
5 Kohsan Main Canal R&U Project
Samandar Constriction and Producing Company
(SCPC) 17.Jun.2012 16.Dec.2013 100 Completed Not issued yet
6 Ghoryan Canal R&U Project
Afghan Sadaqat Construction Company
(ASCC) 14.Oct.2012 29.Jun.2014 100 Completed
Retention Period is not completed
7 Sia Sang Canal R&U Project
JV- National Gold / Samandar Construction and Building Companies
(JV-NGCC/SCBC)
17.Jul.2012 29.Nov.2014 100 Completed Retention Period is not
completed
8 Yahya Abad Canal R&U Project
Khudai Noor Barak Construction Company
(KNCC) 07.Jun.2012 08.Sep.2013 100 Completed Not issued yet
3 Source: Impact Assessment Report for WB Project (2014), Sheladia & Associate Inc. (SAI)
9
S.N Description Contractor
Dates
Pro
gre
ss %
Status
Status of Final Hand
over Certificate/ After
Retention Period Start (NTP)
issued
Actual
Comp. Date
Buildings Construction
9
3rd Floor of the
HRMRBA office building
in Herat
Samar Construction
Company (SCC) 24.Aug.2009 06.Sep.2010 100 Completed Issued
10 Ghor HRMRBA Sub-
basin office
Khudai Noor Barak
Construction Company
(KNCC)
19.Apr.2012 15.Dec.2012 100 Completed Issued
11 Badghis HRMRBA Sub-
basin office
Khwaja Abdul Mohayuddin
Construction Company
(KACC)
19-May-
2012 30.Spt.2012 100 Completed Issued
12 WUA Building (Sia Sang
Canal)
Raqim Office for Project
and Construction Services
(ROPCS)
22.Apr.2013 19.Oct.2013 100 Completed Issued
13 WUAs office Building Jui
Nau Canal Hadi Construction
Company (HCC) 17.Jun.2013 11.Dec.2013 100 Completed Not issued yet
14 WUAs office Buildings
Yahya Abad Canal
15 Office Building for
Kohsan Canal WUAs
Helal Khosti Construction
Company (HKCC) 27.May.2013 05.Jan.2014
100 Completed
Not issued yet 16 Office Building for
Ghoryan Canal WUA 100 Completed
17 Office Building for Zenda
Jan Canal WUA 100 Completed
Ground Water Study
18
Package of drilling 10 test wells (3 in Gozara, 2 in Zendajan, 2 in Ghoryan, 1 in Kohsan, I in Injil and 1 in
Bright Pearl Construction Company (BPCC)
12.Dec.2012 09.Jan.2014 100 Completed Not issued yet
10
S.N Description Contractor
Dates
Pro
gre
ss %
Status
Status of Final Hand
over Certificate/ After
Retention Period Start (NTP)
issued
Actual
Comp. Date
Herat city)
10
1.3 Project Activities Progress
16. The following paragraphs provide a brief description of project works conducted under
remaining 2 sub-projects - Ghoryan Canal and Sia Sang Canal R&U since only these two sub-
projects were on-going during the reporting period (March-December 2014). Four of the six
main sub-projects were completed in 2012-2013 and are discussed in the previous
Environmental Monitoring Report dated from February 2014. To date, only the Jui Nau Fast
Track Project construction works has received a construction completion certificate from the
HRMRBA, the National Agency responsible for operation and maintenance of all sub-projects
after their commissioning (the completion certificates for the rest of the projects are pending
completion of maintenance periods).
17. The Ghoryan Canal Rehabilitation Project has been completed 100% in 29 June
2014. The major structures constructed in this canal are headwork, canal reshaping, cover
canal, canal lining and cart/foot bridges, cross regulator, drops, river training, water divider, and
outlets. A total of 122 jobs of different structures were undertaken for the rehabilitation and
upgrading of this canal. The project was implemented by Afghan Sadaqat Construction
Company (ASCC).
18. The Sia Sang Rehabilitation Project has been completed 100 % in 29 November
2014. The major structures constructed in this canal are headwork, canal reshaping, cover
canal, canal lining and cart/foot bridges, cross regulator, drops, river training, water divider, and
outlets. A total of 122 jobs of different structures were undertaken for the rehabilitation and
upgrading of this canal. The project was implemented by the joint venture of the National Gold
Construction Company and Samandar Construction and Building Company (NGCC/SCBC).
2. LEGISLATION BASE AND INSTITUTIONAL CAPACITY
2.1 Legislation base
2.1.1. National Environmental Legislation
23. The Government’s regulation on environmental impact assessment is based on the
Environmental Act of Islamic Republic of Afghanistan (Gazette No. 873), dated 29 Jadi, 1384
(19 January, 2006). The National Environmental Protection Agency (NEPA), as an independent
institutional entity, is responsible for coordinating and monitoring conservation and rehabilitation
of the environment, and for implementing this act. Article 16 and 17 of Chapter 3 of the Act
describes the process of preparing a preliminary assessment, an environmental impact
statement and a comprehensive mitigation plan to be conducted by the proponent of each
project. Article 21 mentions that public consultation is required for all the projects. Article 18
describes the approval procedure for environmental impact assessment study reports.
24. The NEPA will appoint an Environmental Impact Assessment (EIA) Board of Experts to
review, assess and consider applications and documents submitted by the proponent. Acting on
11
the advice of the EIA Board of Experts, NEPA shall either grant or refuse to a grant permit in
respect of the project. A permit will lapse if the proponent fails to implement the project within
three years of the date at which the permit was granted. Article 19 describes the appeal
procedure. Any person may within thirty (30) days of the granting or refusal of a permit, appeal
the decision to the Director- General of the NEPA. The Director-General shall review the appeal
application and thereafter make an appropriate decision. Should the appellant wish to appeal
the Director-General’s final decision, the matter shall be referred to the relevant court.
25. The flow chart presented in Figure 2 describes a general procedure of the
Environmental Assessment in Afghanistan. The chart was prepared on the basis of NEPA’s
chart4 (blue frame and writings) with incorporating amendments prepared by PMU’s and PIC’s
Environmental Expert (marked on red).
4 Introduction to " Environmental Impacts Evaluation", NEPA, IRA, 2007
12
Figure 2: National Procedures of Environmental Impact Assessment
Yes
NEPA make the project owner to revise the report
Permission given
Project owner starts to work
Special committee of NEPA
reviews the revised report Permission by NEPA
Project owner can issue their objection within 30 days
NEPA considers the objection within 6 days and make a decision.
Adverse impact is determined
Screening of the project (Project Owner) Submission of proposing project by Project Owner
Assessment of Negative Environmental Impacts (NEPA) EIA Board of Experts makes decision
Collecting ideas About the Project (NEPA Office)
Yes No
Project owner starts work
Project owner updates IES or CMP and submits to NEPA
Revised IES or CMP address all env. impacts
No
Yes
NEPA make the project owner to prepare the environmental
assessment report
NEPA Issues the permission
Project owner prepare the Environmental
Impact Statement (EIS) or Comprehensive
Mitigation Plan (CMP) and submit it to NEPA
Project owner starts work
Special committee starts to evaluate the project impacts (EIS)
No Yes
IES or CMP address all env. impacts
Screening of the project (Project Owner) Submission of proposing project by Project Owner
Assessment of Negative Environmental Impacts (NEPA) EIA Board of Experts makes decision
Collecting ideas About the Project (NEPA Office)
Adverse impact is determined
13
2.1.2 Asian Development Bank’s Environmental Procedures
26 The ADB Safeguards Policy Statement (SPS) 2009 sets out policy principles and
outlines the delivery process for ADB’s safeguard policy in relation to environmental safeguards.
The ADB has adopted a set of specific safeguard requirements that borrowers/clients are
required to meet in addressing environmental and social impacts and risks. ADB staff will
ensure that borrowers/clients comply with these requirements during project preparation and
implementation. Based on the results of the Rapid Environmental Assessment conducted at the
PPTA stage, all sub-projects were classified as category B (in accordance with ADB
classification) and required conducting Initial Environmental Examination (IEE).
27 The methodology for screening subproject activities by implementation activity was done
in consultation with the NEPA professionals. Potential impacts were initially assessed using the
checklist provided for irrigation projects in the ADB Environmental Guidelines for Selected
Agricultural and Natural Resources Development Projects (Supplementary Appendix D). While
conducting the public consultations, the NEPA professionals reviewed project activities and
visited the project areas (except Obe because of security concerns). They used the rapid
environmental assessment checklist to evaluate the subproject. They found no significant
impacts. The project strategy of rehabilitating and expanding existing systems to improve the
reliability of diversions and efficiency of water use, combined with groundwater resource
evaluation and use, and institutional development is expected to result in positive environmental
impacts5.
28 The IEE reports are helpful in the following way, they provide:
(i) basic information about the local environmental conditions of the project area and
what will be potential environmental impacts.
(ii) recommendations to mitigate potential environmental impact and describe how to
implement EMP.
(iii) a guideline how Environmental Monitoring Plans (EMPs) should be carried out.
2.1.3 Project permitting status
29 IEEs for all six subprojects were developed jointly by the Sheladia & Associate Inc.
(SAI), USA and the PMU for the MEW in 2010-12. The IEE reports were prepared to identify
potential negative impacts to the environment related to activities Component 2 of the Project
and to propose mitigation measures. The IEEs concluded that the rehabilitation works on the six
Project’s canals will not have any significant negative environmental impacts on the local
environment during construction and operation stages and that the identified minor impacts
5 Report and Recommendation of the President to the Board of Directors, WBWRMP, November 2005
s Sri W
14
could be minimized by preventive measures to comply with the GOA and ADB environmental
requirements.
30 IEEs were prepared in English and all of them were approved by ADB. To ensure
implementation of environmental safeguards by Contractors appropriate requirements were
included in all contracts between MEW and Contractors. Particularly, paragraph 4.18 of part B
of Specific Provision of each Contracts states: “The Contractor will pursue a policy of
incorporating and integrating environmental consideration into their operations for the Project as
shown in the IEE, which is attached as volume 3 of 3 of this bidding documents”. Each Contract
included an appropriate IEE as an attachment.
31 At the begining stage of the consrtuction works each Contractor submitted to the PMU a
Site Envrionmental Plan (SEMP), which the Enivronmental Oficcer of the PMU reviewed. After
revising, those SEMPs which met all requirements of the IEE were approved by the PMU, and
for the SEMPs that didn’t comply with the requirements, the PMU provided comments with
request a to re-submit a revised version of SEMP. Finally all Contractors have SEMPs approved
by PMU.
2.2 Institutional Capacity
32 The Executing Agency for the Project was the Ministry of Finance (MOF) and the
Implementation Agency is Ministry of Energy and Water (MEW). In 2007 under the MEW a PMU
was created to manage overall implementation of whole Project. In accordance with Project
Administration Memorandum (PAM) (2007) the PMU was responsible for day-to-day project
management, including, but not limited to:
Consultants/NGO recruitment
Procurement
Compliance of subprojects with ADB safeguard policies
Financial management
Monitoring and evaluation
Submission of quarterly progress reports and annual reports through MOF
Provision of overall inter-agency coordination for project activities
33 To meet ADB safeguard requirements the PMU engaged a full time EO who was in
charge for the Project’s environmental performance related to construction / rehabilitation
activities.
34 The EO was responsible to ensure timely submission of SEMPs by Contractors,
reviewing these SEMPs on compliance with IEEs requirements, conducting environmental audit
of construction sites.
35 The Project Consultant’s Environmental Specialist (ES) involved in the Project on a part-
time basis to assist the PMU’s EO in execution of environmental performance monitoring, and
preparing 6 IEEs for the sub-projects approved by Implementation Agency within WBWRMP. In
collaboration with PMU’s EO the ES has prepared 2 IEEs for the next Feasibility Studies (FS)
that were submitted to ADB for no-objection.
15
36 Each Contractor designated a responsible person who was in charge for implementation
of SEMP on construction sites. An organizational chart of environmental performance within
WBWRMP is presented in the Figure 3.
Figure 3: Project Implementation Arrangements
37. It should be noted, that the National Environmental Protection Agency (NEPA) also was
involved in the Project’s environmental performance as a member of a Project Implementation
Committee. The main objective of the Committee was to coordinate project implementation and
technical issues. The PIC met on quarterly base and discusses all project related issues,
including environmental aspects.
Ministry of Energy and Water
(MEW)
Project Management Unit (PMU)
Asian Development Bank
(ADB)
Project Consultant
International Environmental
Specialist
Environmental Officer (EO)
6 Contractors under the
WBWRMP
2 contracts have been completed in
2014
4 contracts have been completed in
2012-2013
Environmental Engineers
16
38. Project Consultant team also met with NEPA representatives in order to discuss
environmental monitoring activity during the Project operation stage. In June 2014 two NEPA
representatives participated at the Public Consultations meeting that was conducted as part of
Public Disclosure Process in accordance with environmental legislation of the IRA and ADB
SPS (2009) requirements. More detail information about Public Consultation is provided in the
chapter 4.
3. SITE ENVIRONMENTAL MANAGEMENT PLAN IMPLEMENTATION
4.1 Implementation of Site Environmental Management Plan
39. As was mentioned in para 31 of this report all contracts provided SEMPs developed on
the EMP base included into the Contracts’ documents. SEMPs for two reviewing sub-projects
are presented in the Attachment 1 (a-b).
42. In order to monitor implementation of SEMP by Contractors, the PMU’s Environmental
Officer has developed a checklist that included all EMP’s measures. Filled example of the
checklists for construction works under Ghoryan and Sia Sang Projects are presented in
Attachment 2.
43. To conduct a completion environmental audit the PMU’s staff visited construction sites
and observed compliance with general environmental requirements during the reported period.
They observed the completed works in the Ghoryan Canal sub-project, on-going and completed
works in Sia Sang Canal sub-project.
44. Several sites were observed in Sia Sang Canal sub-project: (i) completed head works
and canals, (ii) areas which were used for storage place of equipment and construction
materials. The audited site was clean, no residuals of construction wastes, observed oil spoils
were observed on the construction site. It was concluded that Contractor’s activity at this site
meet IEE/EMP’s requirements (Attachment 3).
45. Majority of Contractor’s laborers were local people living in the surrounding villages.
Therefore, there were no labor camps for workers.
46. Completed works were audited in the Ghoryan Canal sub-project. The site was clean,
no residuals of construction wastes, no oil spoils were observed. Excavated soil from the canal
was disposed and placed alongside with canal and currently is used as a road. As one of
Contractors contract’s covenants, vegetation activity was undertaken inside of the observed
canal to prevent erosion. This vegetation activity is supported by the local community and Water
Users Association. It was concluded that Contractor’s activity at this site meets IEE/EMP’s and
national Afghanistan environmental requirements (see Attachment 3 and 4 photos).
4.2 Public disclosure during the Project implementation
17
47. The PMU and Contractors worked in collaboration with local communities at all
construction sites. Heads of local communities participated in the design and routing of new
canals, provide advice and requirements on conducting some type of activities.
48. Contractors also closely worked with local communities. They informed the communities
about planning activities in advance and Contractors coordinated their work schedule with
farmers’ activities. In some cases Contractors’ workers were accommodated in villages located
close to construction sites.
49. The PMU has established a Grievance Redress Mechanism in the PMU and on the
construction sites level. Logbooks for records complaints and comments received from
communities were delivered to Water User Association (WUA) of both project districts. Head of
WUA was appointed as a focal person for receiving complaints and informing PMU about them.
50. For the reported period no complaints were received from communities.
4.3 Training activities
51. The PMU’s EO and 3 representatives of Contractors (two managers and one engineer)
participated on the training “Improving the Implementation of Environmental Safeguards in
Central and West Asia“, organized by ADB within RETA 7548 in 23-25 December 2013. The
aim of the training was to provide knowledge of ADB environmental safeguard requirements
during project implementation to strengthen the environmental management and monitoring
capability of project Executing and Implementing organizations, as well as construction
Contractors and Supervision Consultants working on ADB-financed projects.
52. During the reporting period PMU’s EO and Project’s Consultant conducted on-jobs
training for Contractors on the regular base.
53. It should be noted that within Components 3 and 4 a number of trainings covering
advantageous water management practices, growing new crops and other topics were
conducted for more than 5500 people from project area.
4. IEEs FOR PUL-E-HASHIMI AND SOUTH MAIN CANALs
54. As part of the FSs two IEEs were prepared for Pul-e-Hashimi (PHM) and South Main
Canals (SMC) sub-projects. Environmental Assessment was conducted in accordance with
national environmental legislation of IRA and ADB SPS (2009).
55. During IEEs preparation the Project Consultant’s Environmental Expert and PMU’s EO
worked closely with the Project team, governmental organizations and community. The purpose
of IEE was collect information on areas where sub-projects are planning to be implemented,
identify the main impacts and develop appropriate mitigation measures in order to ensure that
planning activity will not adversely impact on surrounded environment. During assessment it
was identified that major impacts are expecting during project construction phase and the
impacts will be on air, soil and surface water.
18
56. Most parts of construction activities were conducted in the areas remote from
settlements, therefore the majority of proposed mitigation measures are typical for constructions
of irrigation network and structures.
57. In accordance with requirements of Environmental Law of IRA (2005) and ADB SPS
(2009) Public Consultations (PC) were conducted in June 2014. Detail information about Public
Consultation is presented in IEEs that were submitted to ADB and NEPA.
58. In general, IEEs concluded that no significant impacts are expected during PHM and
SMC sub-projects implementation. However, the final decision on the project implementation
will be done after assessing water availability for this project in the Hari-Rud river.
5. PROJECT’S ENVIRONMENTAL IMPACT ASSESSMENT
59. In order to assess impacts of the Project on the environment, the current situation has
been compared with a baseline. The situation of the Project coverage area presented in the
IEE reports for 6 sub-projects within FS and results of socio-economic survey conducted in
2008-2009 by PMU in 4 projects areas (Zinda Jan, Ghoryan, Jui Nau, and Kohsan) were used
as a baseline.
60. Results of assessment survey conducted by the Project Consultant in September 2014
and results of observations conducted during the monitoring period were used for revision and
assessment of impacts that took place during the Project implementation.
5.1 Baseline data
61. IEEs were prepared as part of FS of six sub-project in 2009 and 2010. Environmental
Assessment was conducted in accordance with ADB Safeguard Policy. Baseline data from IEEs
were combined with results from Socio-economic survey and presented below.
62. Socio-economic survey was conducted in the form of Focus Group Discussions (FGD)
with inviting heads of villages located in the relevant Project districts. A moderator of FGD
(PMU’s EO) asked questions/issues (example of questionnaire is provided in Attachment 5) and
FGD’s participants discussed the topics and provided their comments and suggestions. The
number of participants in each FGD varied from 15 to 22.
63. Aggregated description of the baseline environment based on the data provided in IEEs
and Socio economic survey is presented in Table 2. The description provides information on
existing situation in term of air quality, water availability and its quality, soil resources, rare and
endangered species of flora and fauna, existence of historical and archeological heritage within
project areas. Possible causes of environmental problems related to these biosphere
components and their consequences also were discussed during the FGDs.
64. Analysis of the table shows that the baseline situation is quite similar for all 4 districts.
There are no anthropogenic sources of air pollution and only during the summer period air
pollution may have significant impact. This impact leads to health problems, silting of canal and
some participants mentioned about of road, settlements and irrigation lands pollution. Some
19
participants noted that such occurrences are being happened more often during the last
decades due to deforestation and overgrazing. The following were indicated as reasons of
deforestation: (i) lack of irrigation water limits to plant and cultivate trees and greens, (ii) low
income does not allow to buy fuel or pay for electricity and people have to cut trees and use it
as fuel, (iii) floods which inundate all greenery including trees.
65. Surface water from the Hari Rud river and adjusted canals serve as sources of irrigation
water for all observed villages. Almost all participants noted that surface water supply is not
reliable and people have to pump water from wells. Pumped water is costly and majority of
people could not pay for it and as consequences they could not grow anything in dry season. In
the situation when agriculture is the main source of income (in all observed villages), the
consequences of irrigation water shortage increase dramatically.
66. Ground water from deep wells are using as drinking water sources (though many
households have small shallow wells). Participants from Jui Nau and Kohsan FGDs indicated
that drinking water is saline. In some villages surface water from canals are using for washing,
bathing, and other uses as well.
67. FGDs participants assessed the soil quality as good and suitable for growing many
types of plants including high value crops such as saffron. They indicated that there are two
main constrains for growing such plants – water shortage/unreliable water supply and soil
erosion. In turn, soil erosion results to silting of irrigation canals (this problem was raised by
participants from Ghoryan), reducing plants and etc.
68. As per IEEs conclusion and results of FGDs, there are no rare and endangered species
of flora and fauna could be found in the project areas and there are no nature protected areas.
Flora and fauna represented as typical for steppe inhabitants. Some small fish and frogs are
observed in canals during the irrigation season, however when canals dry they move to other
places or die.
69. Floods were indicated as the main and significant problem occurring during the spring
and summer seasons. This statement was made by all participants. In some cases floods result
in not only damaging crops but to destroying houses and livestock mortality. Another adverse
consequence is flashing fertility level of soil.
70. According to information provided by FGDs participants, there are some historical and
archeological heritage sites in Zenda Jan area only. But all known heritage sites are located
far from the project works.
20
Table 2: Baseline data from the Project site (2008-2010)
# Distri
ct/Ca
nal
Data
of
issued
IEE
Data of
conducting
Socio-
economic
survey
Irrigation water
source problems
Drinking
water
source
problems
Growing plants
problems
Air
pollution
Soil quality problem Use of fertilizer
and chemicals
problems
Flood risk
1 Zinda
Jan
2009 Dec 2008 Canal, during the
dry season –
underground water
/ unreliable
Wells/kareze
s
Water
quality is
good
90 % of
farmland under
wheat, the rest
is under barely,
sesame, beans,
palez, fruit
Reshqa
Dust during
the summer
season
Soil quality is good
but due to often
floods cultivated area
is decreasing
Mostly organic.
Use of chemical
is very limited
due to lack of
funds
Floods - main
problems during the
summer time. It leads
to damaging 20% of
arable land,
destroying 10% of
houses and dying 5%
of livestock
2 Ghory
an
2010 Dec 2008 Main canal/
unreliable
Deep wells/
water quality
deteriorates
from center
village to the
outskirts
Wheat, barely,
palez, fruit
Reshqa.
Dust during
the summer
season
Due to lack of water
trees and vegetation
dried and soil erosion
brings sand to the
road, settlement, and
irrigation areas
Only organic
fertilizer,
chemicals are
too costly
Floods - main
problems during the
spring time
3 Jui
Nau
2009 Jan 2009 Main canal, during
the dry season -
pumping water. No
each farmer could
use such water –
too costly/ water is
too muddy (silted)
Pumping
wells/ salted
water
Wheat, barely,
palez, fruit
Reshqa.
Air pollution
caused by
strong wind.
Soil quality is good,
the main problem is
lack of irrigation water
Only organic
fertilizer,
chemicals are
too costly
Floods during the
spring season
4 Kohs
an
2010 Dec 2008 Surface water from
Harirud river. Water
is too muddy
Pumping
wells/ salted
water
wheat, barely,
sesame, beans,
vegetables,
tomatoes,
onions
Only seasonal
pollution
during the dry
season in
summer time
Soil quality is good,
the main problem is
lack of irrigation water
Only organic
fertilizer, people
would like to us
chemicals, but
they are too
costly
Floods during the
spring season brings
a lot of problems – it
destroys houses and
damages crops
21
5.2 Current situation and Project Impact assessment
64. Findings of the Impact Assessment Report for WBWRMP and results of Impact
Assessment Survey conducted by the Project Consultant team were used for evaluation of
current situation in the Project districts. The Impact Assessment Survey questionnaire (example
is provided in Attachment 6) included various questions on different topics, such as Details of
WBWRMP intervention, Impact on irrigated area, Impact on annual irrigation rotation, WUAs
performance and etc.
65. It is obvious that the Project has had significant positive social impacts: increasing
population incomes, improvements of livelihood, increasing variety of growing crops, enhancing
of water management institutions and etc. Detailed information about social impacts is
presented in a separate Impact Assessment Report for the WB Project. Most of the social
impacts are inseparably linked with environmental impacts that are reviewed below.
66. The Project impact on air quality was temporary and local, and related to construction
activity. At the current project operation stage the Project is not source of air pollution. Therefore
it could be concluded that there are no direct adverse impacts during the project operation and
maintenance stage.
67. At the same time, an indirect positive impact of the Project on air quality is expected
through improvement of water availability and soil stabilization. These achievements will allow
increasing planting trees and greens and, as consequences it should decrease level of air
pollution during the dry season.
68. Data provided in the Project completion report and field survey indicates improvement of
reliability of water supply, which was achieved through construction of headwork, lining
canals, introducing WUAs as a water resources management institution and advantageous
water resources management practices. As a result of these activities water use efficiency will
be improved which in the end allows improve natural resources management. All respondents
interviewed during the Impact Assessment Survey noted significant differences between water
losses from canals before and after the project implementation.
69. Construction of headwork together with other flood protection activities significantly
decreased flood risk in the project districts. As noted above all participants of Socio-economic
survey (2008-2009) indicated floods as the main factor adversely impact on arable lands,
houses and livestock during the spring and summer season. Results of Assessment survey
(2014) show that situation when irrigation systems are destroyed by floods dramatically
improved. Such, respondents indicated that the number of labors involved to repair works on
O&M of canals decreased by 75%. And there are no further needs to involve people for
repairing of water intakes damaged from floods (before the project implementation this number
varied from 300 to more than 900 workers).
70. Construction of gabions to strength riverbanks could be defined as the most visible
positive impact of the WBWRMP for decreasing soil erosion. As indicated, the WBWRMP has
22
made substantial investments on river training works, which focused mostly on the protection of
river intake and head reach canals. Below Figure 4 presents before and after situation of one of
its river training sites.
Figure 4: River bank before and after training works in Khosan district
71. Besides protecting intakes & head reach canals, such river training works also helped
protect the cultivated land. Without such river training works, much of the head reach cultivated
lands would have been already converted into riverbed.
72. Quantitative data on the reclamation of lands by river training works are not available in
all cases. However, farmers of Kohsan reported that the river training works implemented by the
project recovered about 50 to 60 Jiribs of land (10-12 ha) that was under the flood erosion.
Farmers also reported that had there been no river training works in their area, by now they
would have lost more than 500 Jiribs of land (100 ha) in the head reach portion of their system.
73. Along with direct and indirect project impacts on environment, certain adverse impacts
which may happen in the future need to be assessed as well. Expanding irrigated lands will
increase volume of water delivered to the fields. It may increase the ground water table and lead
to further salinization of soil. The irrigation network designed and constructed within this Project
use dried riverbeds as natural drains. However in case of further extension of irrigated lands,
the capacity of natural drains may be not enough for discharging excess irrigation water from
fields.
74. Therefore it is recommend to conduct monitoring of the groundwater table on a regular
base and undertake necessary measures in case of increasing a groundwater table. Taking into
consideration the existing situation in the project’s districts, when a majority of population uses
groundwater as a drinking water source, avoiding increasing the groundwater table is very
important.
75. Wells that will be used to monitor groundwater levels are the 10 deep observation wells
constructed in the WRMRBA and the system of 69 groundwater table monitoring wells
established in the WRMRBA using existing shallow wells in villages. A map showing the location
of those 69 wells is given in Figure 5.
23
Figure 5: Network of existing shallow wells established for monitoring water table levels
76. Improvement of the reliability of water supply together with introducing new
technology of growing various high value crops among farmer will increase income from
agriculture. As showed results of Socio-Economic survey (2008-2009), the main reason for
low/or not using of chemical fertilizers was lack of funds.
77. After increasing farmers and households incomes more fertilizer could be applied by
them. Overusing of chemicals or not following requirements for their storage and disposal may
also pollute soil and ground water. Therefore it is recommended to conduct trainings for farmers
and households on pest management and treatment of chemicals on the regular base.
24
6. CONCLUSION AND RECOMMENDATIONS
78. Based on results of conducted monitoring the following conclusions and
recommendations are given:
6.1 On SEMP implementation
79. All Contractors have submitted their SEMPs to the PMU for review. The PMU’s
Environmental Engineer reviewed EMPs on compliance with EMP included into the IEEs. After
revising and updating per the PMU’s requests all SEMP were approved by the PMU.
80. Construction activities were conducted in accordance with SEMP approved by PMU.
Final observation of sites showed that there were no construction or domestics wastes after
project work completion.
81. The PMU’s Environmental Engineer and Contractors’ Engineers participated in the
environmental training on ADB safeguards implementation. Moreover, the PMU’s environmental
Engineer and Project’s Consultant provide on-job training for Contractors on the regular base.
6.2 On IEEs for Pul-e-Hashimi and South Main Canal Projects
82. Two IEEs were prepared in accordance in accordance with national environmental
legislation of IRA and ADB SPS (2009). No significant impacts are expecting during PHM and
SMC sub-projects implementation. However, the final decision on the project implementation
will be done after assessing water availability for this project in the Hari-Rud River.
83. In case the Government of Afghanistan decides to implement these sub-projects, it is
recommended to include in tender documents for Contractors proposed IEEs mitigation
measures and Environmental Management Plans.
6.3 On Project Impact Assessment on Environment
84. The Project has number of direct and indirect positive impacts on environment. For
example, riverbank protection works are visible and direct and can significantly decrease soil
erosion if done with proper training in the design and construction of these works (see Kohsan
works, Figure 4 above). Training in the design and construction of such works is
recommended so that this practice can be extended to other regions of Afghanistan with similar
riverbank erosion problems. These works are not sustainable if they are built improperly with
insufficient budget support as is the case in many places in Afghanistan and elsewhere.
25
85. Other positive and visible impacts are: decreasing of flood risks in the project areas,
increasing crop variation growing be farmers, and improvement of water resources
management, as part of natural resources management.
86. Besides short term and currently visible impacts there are a number of impacts which
could be observed in future: improvement of soil fertility, increasing amount of planted trees and
greens, and improving of air quality during the wind season.
87. In order to provide sustainable development of agriculture and livestock in the Project
area, expending of existing monitoring system of ground water and inclusion topics on modern
pest management in training for farmers and householders are recommended.
25
ATTACHMENTS
Attachment 1-a: Site Environmental Management Plan for Sia Sang Canal I&U Project
ENVIRONMENTAL MANAGEMENT
PLAN (EMP)
Project Name:
Procurement of Works for Sia Sang Canal Rehabilitation Project, Ghor
Chaghcharan Province, Afghanistan.
(MEW-1426-ICB)
Submitted to:
Project Management Unit (PMU),
Hirat, Afghanistan.
Submitted by:
26
National Gold Construction Company and Samandar Construction Building
Company Joint Venture (NGCC & SCC JV)
NGCC & SCC JV ENVIRONMENTAL MANAGEMENT SYSTEM (EMS)
1. Introduction:
Pollution and hazards caused by urban civil construction projects have become a serious
problem. Sources of pollution and hazards from construction sites include dust, harmful gases,
noises, blazing lights, solid and liquid wastes, ground movements, messy sites, fallen items, etc.
These types of pollution and hazards can not only annoy residents nearby, but also affect the
health and well-being of people in the entire city. For example, in big cities such as Kabul and
Kandahar, air quality has been deteriorating due to extensive urban redevelopment activities.
NGCC & SCC JV EMS provides a systematic approach to dealing with environmental pollution
caused by construction projects. This approach allows for both qualitative analysis and control
and quantitative assessments through measuring the Construction Pollution Index (CPI). We
believe that the qualitative assessment and control method is useful because it can provide
construction project managers with essential knowledge on how to limit environmental pollution
to its minimum. The CPI is also necessary as it can be used to quantitatively measure the degree
of pollution caused by particular construction projects. The concept of CPI can also help
construction project managers to re-arrange and revise construction plans and schedules in order
to reduce the level of pollution and disturbance.
2. Environmental Management System (EMS) Model:
Management
Review
Review
Planning
Implementation
Checking
Corrective Action
27
2.1. POLICY:
Environmental Policy for the project will be developed by NGCC & SCC JV senior management
team. The environmental policy is a statement by the organization of its intentions and
principles in relation to its overall environmental performance which provides a framework for
action and for the setting of its environmental objectives and targets. It will be communicated to
all employees and sub-contractors via site inductions and tool box talks and will be displayed on
various notice boards throughout the construction sites. The policy should also be available to
the public.
2.2. PLANNING:
The core document of the EMS is the Environmental Management Plan (EMP). The EMP is the
lead environmental management document that defines the procedures for achieving the
objectives set out in the Environmental Policy and identified environmental performance targets
for the project.
The EMP provides the framework for which commitments made in the ES or any requirements
of planning conditions can be realized. The EMP outlines NGCC & SCC JV approach to
environmental management throughout the construction phases with the primary aim of reducing
any adverse impacts from construction on local sensitive receivers.
2.3. RESPONSIBILITIES:
2.3.1. RESPONSIBILITIES OF NGCC & SCC JV ENVIRONMENTAL MANAGER:
The project environmental manager would be responsible for coordinating and managing all the
environmental activities during the construction phase. The project environmental manager
would carry out the following duties:
• Develop and review the CEMP, Construction Method Statements (CMS’s), work
instructions (WIs) and other specialist procedures.
• Identify environmental competence requirements for all staff working on the project and
ensure delivery of environmental training to personnel within the project team.
• Review and improve method statements for environmental aspects prior to work starting.
• Monitor construction activities performance to ensure that identified and appropriate
control measures are effective and ensure compliance with the CEMP
• Act as main point of contact between the regulatory authorities and the project on
environmental issues
• In conjunction with the site environmental representatives, overall monitoring of the
programmer for the environmental works, and provision of status reports as necessary
28
• Provision of advice and liaison with the construction teams to ensure that environmental
risks are identified and appropriate controls are developed and included within method
statements
• Assistance in the development and delivery of environmental training for site personnel
and sub-contractors
• Liaison with the client’s environmental manager
• Liaison with the project’s public liaison officer
• Management of the environmental monitoring programmer, including noise, vibration
and dust and review of the routine reports
• Environmental audit of subcontractors and suppliers.
2.3.2. RESPONSIBILITIES OF NGCC & SCC JV ENVIRONMENTAL REPRESENTATIVE/SITE FOREMAN:
The site environmental Representative/Site Foreman would report to the project environmental
manager and would be directly involved in managing and co-coordinating environmental
activities on-site. These would include:
• Assist environmental manager in developing and maintaining the CEMP, CMS, WIs and
various registers and checklists
• Monitor construction activities to ensure that identified and appropriate control measures
are effective and in compliance with the CEMP
• Undertake weekly site inspections, initiate actions, and complete a weekly environmental
inspection report
• Maintain training register, identify training needs and provide training where required
• Provide advice and assistance to site personnel on environmental matters
• Assist site foreman in maintaining environmental records
• Assist in investigating and resolving complaints
• Undertake monitoring when required
• Ensure correct procedures are followed in the event of an environmental incident
• Dissemination of waste reduction and waste management procedures to all relevant
personnel on site
• Implement and maintain environmental controls on site.
• Attend to any spills or environmental incident that may occur on site
• Report any activity that has resulted, or has the potential to result, in an environmental
incident
• immediately to the site environmental representative/environmental manager
• Complete daily environmental log
• Maintain waste register and ensure correct waste management procedures are being
implemented
2.4. IMPLEMENTATION:
29
2.4.1. CONSTRUCTION METHOD STATEMENT:
The EMP provides the overall project strategy for management of environmental issues;
however, a Construction Method Statement (CMS) will address environmental
management issues at a site level. The CMS provides an environmental manual for use
by management and construction staff involved in the works. It addresses the
environmental issues that are specific to an activity and/or site. CMS’s should be
produced for all major construction activities and/or major construction sites.
2.4.2. WORK INSTRUCTIONS:
Environmental work instructions (WI’s) are the most detailed form of environmental controls
and provide “hands on” directions for on-site staff. They are related to specific environmental
aspects on-site and provide clear and concise instruction to site personnel in dealing with
situations such as:
• environmental incidents
• adverse weather conditions
• complaints
• controls and commitments detailed in the EMP and CMS’s
• a trigger point contained in the environmental inspection checklist or log
• general good site practice
2.5. CHECKING & CORRECTIVE ACTION:
2.5.1. MONITORING & REPORTING:
Monitoring is an integral part of the EMS as it establishes how the project is performing
against objectives and targets set in the EMP. A schedule and procedures for monitoring
and reporting should be developed at the outset in order to:
• identify any negative impacts from construction activities
• assess the effectiveness of control measures
• demonstrate compliance with regulatory conditions and objectives and targets set in the
EMP
• Identify if further controls/corrective action is required
Regular monitoring and reporting of dust, noise, vibration and water quality will be required
by the regulatory authority. The frequency of this monitoring and reporting will largely be
dictated by requirements of the controls and commitments detailed in the EMP and CMS’s a
trigger point contained in the environmental inspection checklist or log general good site
practice.
30
2.5.2. ENVIRONMENTAL INSPECTIONS, AUDITS & REGISTERS:
In addition to the routine monitoring detailed above a schedule of regular inspections, audits
and reporting will be required by the NGCC & SCC JV. These inspections etc will provide a
record of site conditions and activities and provide a mechanism by which the NGCC & SCC
JV can establish the effectiveness of its EMP.
These checklists and reports should be kept at each site office and should be updated and
used in the day to day operation of the site.
The client will also develop a schedule of inspections and auditing of the NGCC & SCC JV’s
EMP in order to ensure that established standards of environmental controls are being
maintained by the NGCC & SCC JV.
2.5.3. COMPLIANCE AND NON-CONFORMANCE/CORRECTIVE ACTION:
If criteria within the EMP are not fulfilled and appropriate and corrective action is not taken a
non-conformance may be raised by the environmental manager. Examples of circumstances
where this may arise include:
• Receipt of a complaint regarding pollution or other environmental impacts caused by the
project
• Departure from approved or agreed procedures
• Non-conformance identified as a consequence of any self-assessment, formal audit or other
environmental survey or inspection
Corrective action may include changes to work instructions (frequency of testing, test
method etc.), alterations to the CMS, further staff training etc. Non conformances should be
reviewed by the environmental manager and form part of construction meeting agendas.
In addition, non-conformance/corrective action report can be issued to NGCC & SCC JV by
the client. It is the responsibility of NGCC & SCC JV to immediately initiate corrective
actions and, once completed, provide details of the actions undertaken on the non-
conformance/corrective action report and return it signed to the client’s environmental
manager within an agreed timeframe. If the non-conformance is considered to breach
legislative requirements, the breach should be reported to the appropriate public authority.
2.6. MANAGEMENT REVIEW:
Review triggers will be set in order to maintain the suitability and effectiveness of the EMP.
A review would be carried out when triggers such as the following are met:
31
• As a minimum annually
• If required as a corrective and/or preventative action in response to an environmental
incident or the outcomes of an environmental audit
• If required by a statutory body
3. Qualitative Analysis Of Pollution And Hazards Generated From urban
Construction Projects:
Sources of pollution and/or hazards from construction activities can be divided into seven major
types: dusts, harmful gases, noises, solid and liquid wastes, fallen objects, ground movements
and others. In order to reduce and prevent the pollution and hazards, it is necessary to identify
the construction operations that generate the sources. In Table 1, construction activities that
generate pollution and hazards, and corresponding methods for prevention are listed.
Table 1 Causes of pollution and hazards and preventive methods
Type Causes Methods to prevent
Dust Demolition, Rock blast Static crushing / Chemical breaking
Excavation, Rock drilling Static crushing / Chemical breaking /
Wet excavation / Wet drilling
Open-air rock power and soil Covering / Wet construction
Open-air site and structure Wet keeping / Site clearing / Mask
Bulk material transportation Awning / Concrete goods /
Washing transporting equipment
Bulk material loading and unloading Concrete goods / Packing and awning /
Wet keeping
Open-air material Awning / Storehouse
Transportation equipment Cleaning
Concrete and mortar making Concrete goods
Harmful gases Construction machine-Pile driver Hydraulic piling equipment
Construction machine-crane Electric machine
Construction machine-Electric welder Bolt connection / Pressure connection
Construction machine-Transporting Night shift
equipment
Construction machine-Scraper
Organic solvent Poison-free solvent
Electric welding Bolt connection / Pressure connection
Cutting Laser cutting
Noises Demolition Static crushing / Chemical breaking
Construction machine-Pile driver Hydraulic pile equipment
Construction machine-crane Electric machine
32
Construction machine-Rock drill Static crushing / Chemical breaking
Construction machine-Mixing Concrete goods / Prefabricated
component
machinery
Construction machine-Cutting machine Laser cutting machine / Prefabricated
component / Soundproof room
Construction machine-Transporting
equipment
Construction machine-Scraper
Ground Movements Demolition Static crushing / Chemical breaking
Pile driving Static pressing-in pile
Forced ramming Static compacting
Wastes solid-state waste-Building Prefabricated component / Recovery
material waste
solid-state waste-Building Recovery
material package Recovery
Liquid waste-Mud / Building
material waste
Liquid waste-Machinery oil Material saving
Fallen Objects solid-state waste-Building Recycle of solid waste /
material waste Technology improvement
solid-state waste-Building Recovery
material package
Liquid waste-Mud / Building Technology improving / Recovery
material waste
Liquid waste-Construction water Recovery
Construction tools-Scaffold Safety control / Reliable tools
and board
Construction tools-Model plate Technology improving / Safety control
Construction tools-Building material Technology improving / Recovery
Construction tools-Sling / Others Safety control
Others Urban transportation-Road Enclosing wall / Night shift /
33
encroachment underground construction
Civic safety-Demolition Static crushing / Chemical breaking
Civic safety-Automobile Overloading forbidden / Speed limiting
transportation
Civic safety-Tower crane Safety control
Civic safety-Construction elevator Safety control
Civic safety-Foundation / Earth dam Safety control
Urban landscape-Structure exposed Masking
Urban landscape-Night lighting Using projection lamp
Urban landscape-Electric-arc light Bolt connection / Pressure connection /
Prefabricated component
Urban landscape-Mud / Waste water Drainage organization
Urban landscape-Civic facility Technology improving /
destruction Plan preconception
Methods for preventing pollution and hazards can be divided into the following four categories:
Technology
This category recommends a range of advanced construction technologies which can reduce the
amount of dust, harmful gases, noise, solid and liquid wastes, fallen objects, ground movements
and others. For example, replacing the impact hammer pile driver with the hydraulic piling
machine can significantly reduce the level of noise generated by the piling operation.
Managerial
This category recommends the use of modern construction management methods which may
help reduce the amount of dusts, noises, solid and liquid wastes, fallen objects and others.
Planning This category emphasizes on revising and re-arranging construction schedules to reduce the aggregation
of pollution and hazards. This category has effect on dusts, noises, solid and liquid wastes, fallen objects,
ground movements and others.
Building material Better building material can also help reduce pollution and hazards. This category has effect on harmful
gases, fallen objects, ground movements and others.
The four categories of preventive methods and their effects are also summarized in table 2.
34
Table 2 countermeasures of construction pollution in urban civil engineering and their
effects
Category Pollution and hazards
Note: α – More Effective, ∞ – Partial Effective, β – Non Effective.
NGCC & SCC JV believes that by adopting the above preventive methods, it is possible to
effectively control and reduce the amount of pollution and hazards generated from construction
activities. In order to further analyze the effect of pollution and hazards, the next section
describes a method to quantify the amount of pollution and hazards generated by a construction
project.
4. Quantitative analysis of pollution and hazards in urban Construction projects:
As a construction project spans over a year or even longer, the methods for quantitative analysis
have to be a continuous monitoring and assessment of the whole project duration. In this section,
we present a method to quantatively measure the amount of pollution and hazards generated by a
construction project within its project duration. The method sets to measure the Construction
Pollution Index (CPI), as shown in formula 1.
Note:
CPI — Construction Pollution Index of an urban construction project.
CPi— Construction Pollution Index of a specific construction operation i.
hi — hazard magnitude per unit of time generated by a specific construction operation i.
Di— Duration of the construction operation I that generates hazard h
Dusts
Harmful
gases Noises
Ground
movements Wastes
Fallen
objects Others
Technological methods α α α α α α α
Managerial methods α β α β α α α
Planning methods α β α β ∞ β α
Building material methods β α β ∞ β β ∞
35
n — Number of construction operations that generate pollution and hazards.
In formula 1, parameter hi is a relative value indicating the magnitude of hazard generated by a
particular construction operation in a unit of time. Its value is limited in the range of [0,1]. If hi
=1, it means that the hazard can cause fatal damage or catastrophes to people and/or properties
nearby. For example, if a construction operation can generate some noise and the sound level at
the receiving end exceeds the ‘threshold of pain’, which is 140 dB, then the value of for this
particular construction operation is 1. If hi = 0, then it indicates that no hazard is detectable from
a construction operation. It is possible to identify values of hi for all types of pollution and
hazards generated by commonly used construction operations and methods. For example,
according to the information on sound emission from piling driven machines, as well as the types
of piles, we can formulate the content of Table 3 which contains values of hi for some piling
operations.
Table 3: Values of hi for some piling operations
Piling operations hi value
(per day)
1 Prefabricated concrete piles using
drop hammer driver
0.5
2 Sheet steel piles using drop-
hammer driver
0.6
3 Prefabricated concrete piles using
hydraulic piling driver
0.2
4 Sheet steel piles using hydraulic
piling driver
0.3
5 Bored piling 0.1
6 Sheet steel piles using drop-
hammer driver
0.7
7 Prefabricated concrete piles using
static pressing-in driver
0.2
Information and data such as the emission of noise levels, harmful gases and wastes are normally
available in the specifications of relevant construction machinery and plant, or can be
conveniently measured. These data can then be converted to hi values by normalizing them into
the range of [0,1]. In case that there is no data available for such conversion, and then hi values
have to be decided based on user’s experience and expert opinions.
It is also very useful to create a CPI bar chart. A CPI bar chart is very similar to the ordinary bar
value for the corresponding construction operation. By integrating the concept of CPI into MS
Project, which is a commonly used tool for construction project management, we can develop a
system to neatly combine environmental management with project management. H charts used in
36
construction scheduling, except that the thickness of the bars represents the h values are listed
beside their corresponding construction operations. As the height of a bar represents the hi value,
the area of the bar represents the CPI value of the construction operation. The aggregation of the
thicknesses of bars, as indicated at the bottom of the bar chart, represents the distribution of the
CPI value along the whole project duration. This distribution is particularly useful for project
managers to identify the periods when the project will generate the highest amount of pollution
and hazards. Therefore, preventive methods such as those listed in Table 1 can be used to reduce
the amount of pollution and hazards during those periods.
5. Conclusions:
In order to tackle pollution and hazards generated by urban construction projects, we first
presented a qualitative system to identify and to categories sources of pollution and hazards on
construction sites. Methods for preventing or reducing the amount of pollution and hazards at the
sources are provided. Then, a method is presented to quantitatively measure the construction
pollution index (CPI) which indicates the accumulated pollution and hazards generated from a
construction site. Integrated with MS Project, popular scheduling software used by construction
professionals in Afghanistan, we developed a computer tool which can automatically generate
the pollution and hazards distribution diagram over the project duration. The distribution
diagram can assist project managers to identify worst periods in terms of emission of pollution,
and to take necessary preventive measures to reduce the amount of pollution and hazards. The
computer tool is being tested on different projects, and detailed descriptions of the computer tool
and its test results will be reported in the future.
6. Chart:
Notes:
Environmental Policy: the environmental policy and the requirements to pursue this policy via
objectives, targets, and environmental programs
ENVIRONMENTAL POLICY
Planning Management Overview
Implementation &
Operation
Checking & Corrective
Action
37
Planning: the analysis of the environmental aspects of the organization (including its processes,
products and services as well as the goods and services used by the organization;
Implementation and operation: implementation and organization of processes to control and
improve operational activities that is critical from an environmental perspective (including both
products and services of an organization)
Checking and corrective action: checking and corrective action including the monitoring,
measurement, and recording of the characteristics and activities that can have a significant
impact on the environment
Management Review: review of the EMS by the organization's top management to ensure its
continuing suitability, adequacy and effectiveness
45
Attachment 3: Photos from Sia Sang Canal Project sites
Canal lining in Sia Sang canal sub-project
Lining of the Sia Sang Main Canal R&U Project
Under Sluice of the head work Sia Sang/Puzelich
Outlet structures of the Sia Sang canal R&U project
Gabion to protect Sia Sang canal banks from river erosion
Impact on flora and fauna was minimized
46
Attachment 4: Photos from Ghoryan Canal Project sites
Cross regulator at Ghoryan Main Canal R&U Project
Gabion work for the river bank Ghoryan canal
Lining of the Ghoryan canal
Bank protection of the Ghoryan canal
Lining of Ghoryan Main canal & culvert construction
Head work Regulator of the Ghoryan main canal
51
Attachment 6: Example of Project Impact Assessment Questionnaire (2014)
Impact Evaluation of WRBWRMP Summary of questionnaire survey result
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
Date of interview (Farmer) 13/9/2014 18/9/2014 15/9/2014 Date of interview (WUA) 13/9/2014 18/9/2014 15/9/2014
Interviewed by (Farmer) Qadi, Rahim and Shakoor Qadi, Rahim and Shakoor Qadi, Rahim and Shakoor Interviewed by ( WUA) Qadi, Rahim and Shakoor Qadi, Rahim and Shakoor Qadi, Rahim and Shakoor 1 Physical
system Intake Permanent Permanent Permanent
Length of MC (Km) 31 31 29.6
Outlet type Open cut Open cut Open cut
No of water users 2016 1434 996
Basis of water allocation
As per water right As per water right As per water right
No of Mirabs 4 4 2
Details of structures
Bifurcating structures: 3 Cross regulators: 3 Outlets: 26 Canal bottom escape: 6 Weirs: 1
Bifurcating structures: 3 Cross regulators: 1 Outlets: 40 Canal bottom escape: 4 Weirs: 1
Bifurcating structures: 4 Cross regulators: 1 Outlets: 20 Canal bottom escape: 5 Weirs: 1
2 Details of
WBWRMP
intervention
Five key
intervention
1. Building new Intake 2. Rehabilitation of
canal 3. Training 4. Demonstration of drip
& improvement of the outlets
5. WUA formation
6. Building new Intake 7. Rehabilitation of
canal 8. Training 9. Demonstration of drip
& improvement of the outlets
10. WUA formation
11. Building new Intake 12. Rehabilitation of canal 13. Training 14. Demonstration of drip &
improvement of the outlets
15. WUA formation
Five key benefits
(on priority basis)
16. Water supply more reliable
17. Water supply &command area
21. Water supply mor\\e reliable
22. Water supply &command area
26. Water supply more reliable
27. System sustainability increased
52
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
increased 18. System sustainability
increased 19. Improved water
management 20. More knowledge
gained through training
increased 23. System sustainability
increased 24. Improved water
management 25. More knowledge
gained through training
28. Water supply &command area increased
29. More knowledge gained through training
30. Improved water management
Any change in
socio institutional
aspects?
Yes Yes Yes
Remarks Canal was breached at intake
by flood, it was closed, now
functioning
Water is more in the system
,no more leakage, water
losses are prevented, system
operation is easy etc
Water is more in the system ,no
more leakage, water lossess are
prevented, system operation is
easy etc
Information on
previous
intervention
No information available No information available No information available
3 Impact on
irrigated area
(ha)
Yes / No Yes Yes Yes
Increase in area
(%)
Winter 100 100 100
Summer 20-25 25-35 20-30
Reason 31. More water due to new intake,
32. More water due to rehabilitated canal
33. Improved water management
34. Improved agriculture
36. More water due to new intake,
37. More water due to rehabilitated canal
38. Improved water management
39. Improved agriculture
41. More water due to new intake,
42. More water due to rehabilitated canal
43. Improved water management
44. Improved agriculture
53
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
practices 35. WUA management
practices 40. WUA management
practices 45. WUA management
Remarks No of crops per unit area
increased, more yield, more
area, diversified crops
No of crops per unit area
increased, more yield, more
area, diversified crops
No of crops per unit area
increased, more yield, more
area, diversified crops
4 Impact on
annual
irrigation
rotation
Yes / no Yes Yes Yes
Head Before Once in 3 years No annual rotation Once in 3 years
After No annual rotation No annual rotation No annual rotation
Middle Before Once in 3 years Once in 2 years Once in 3 years
After No annual rotation No annual rotation No annual rotation
Tail Before Once in 3 years Once in 3 years Once in 3 years
After No annual rotation No annual rotation No annual rotation
5 Impact on
flow reliability
and O&M
Days intake is
closed for O&M
Before 8 25 7
After No data No data No data
Days canal is
closed for O&M
Before 40 40 12
After 8 11 6
Labor for intake
O&M
Before 296 *8 104*25 924*7
After No data
Labor for canal Before 296 *40 = 11840 104*40 12*924
54
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
O&M After 296 *8 = 2368 104*11 6*924
O&M source Farmers Farmers Farmers
Basis of Resource
mobilization
As per water rights As per water rights As per water rights
6 Adequacy,
reliability,
Equity, &
Efficiency
Water
Sufficiency?
Yes/No Yes Yes Yes
If no why
Is WD reliable? Yes/No Yes Yes Yes
If no, why
Is WD fair? Yes / No Yes Yes Yes
If no, why
Change in WD
after intervention
Yes / No Yes Yes Yes
If yes, (?)
Remarks System improved; leakages &
water losses controlled because
water distribution is uniform and
fair.
System improved; leakages
&water losses controlled
because of that water
distribution is uniform and fair.
System improved, leakages &
water losses controlled because
the water distribution is uniform
and fairr.
7 Assessment
of water
losses
Main canal Before High High High
After Low Low Low
Distribution Before High High High
55
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
system After Low Low Low
8 Water
disputes
Common? Yes/ No
If, Yes Frequency Seldom Seldom Seldom
Common causes Plot size with respect to water
supply
Plot size with respect to water
supply
Plot size with respect to water
supply
Responsible for
dispute resolution
WUA WUA WUA
9 Formal WUA Existence of
WUA?
Yes/ No Yes Yes Yes
If Yes, Main role Manage meeting, regulate
water rights and resolve
disputes
Manage meeting, regulate
water rights and resolve
disputes
Manage meeting, regulate water
rights and resolve disputes
How it is
different
from
Mirab?
Officially registered; have legal
entity; trained; work in group
Officially registered; have legal
entity; trained; work in group
Officially registered; have legal
entity; trained; work in group
Remarks They will have machinery and
equipment for maintenance of
their system and can generate
fund for WUA functioning
They will have machinery and
equipment for maintenance of
their system and can generate
fund for WUA functioning
They will have machinery and
equipment for maintenance of
their system and can generate
fund for WUA functioning
Is formal WUA
required?
Yes/No Yes
Reason 46. Arrange O&M schedules
47. Manage system
49. Arrange O&M schedules
50. Manage system
52. Arrange O&M schedules 53. Manage system 54. Solve community
56
Name of Irrigation system, Zenda Jan Yahya Abad Kohsan
48. Solve community problems
51. Solve community problems
problems
10 Functioning of
WUA
Frequency of
general meeting?
Twice a year Twice a year Twice a year
Who calls
meeting?
Chairman or board of director Chairman or board of director Chairman or board of director
Common meeting
agenda
Resources mobilization for
O&M; election / selection of
executive body; financial issue;
water allocation; dispute
resolution
Resources mobilization for
O&M; election / selection of
executive body; financial issue;
water allocation; dispute
resolution
Resources mobilization for O&M;
election / selection of executive
body; financial issue; water
allocation; dispute resolution
How resolution is
passed?
Vote Vote Vote
Meeting minute
maintained?
Yes Yes Yes
Remuneration of
executive body?
No remuneration but they have
dignity rights in the society
No remuneration but they have
dignity rights in the society
No remuneration but they have
dignity rights in the society
Process of
decision making?
WUA regulation WUA regulation WUA regulation