Internal Indicator Section

Worksheets 5 - 12 require a good field visit to the project by qualified evaluators. They focus on how the project actually works - what the instructions are, how water is physically moved throughout the canal/pipeline system, what perceptions and reality are, and other items such as staffing, budgets, and communication. A quick look (Rapid Appraisal) of these items will immediately identify weaknesses and strengths in the project. Action items are virtually always readily apparent after the systematic RAP has been conducted.

At first glance, the large number of pages in worksheets 5-12 appears daunting. However, a close examination of the pages will show that only about 25% of the lines require an answer (the other lines are explanations or blanks), and computations are only necessary for a few items such as budget questions. Furthermore, the questions for the Main Canal are identical to those of the Second Level Canals and the Third Level Canals. Once an evaluator understands the Main Canal questions, the remainder of the pages are easily answered after a field visit.

Worksheet 5. Project Office Questions

Most of the questions in this worksheet should be filled out by the Irrigation Project employees prior to the visit, as this includes many simple data values such as salaries, number of employees, and stated project policies.

However, the evaluator must answer some of the questions during the visit.

This worksheet includes questions that address the possibility of chaos existing in a project. "Chaos" exists when the reality in a project does not match what project authorities believe occurs. Therefore, the evaluator must ask the project authorities what levels of water delivery service the main canal delivers, what various operators do, and how water arrives to individual farmers. These "stated" conditions are later compared against what the evaluator actually observes in the field.

In general, it is easiest to modernize irrigation projects that have a minimum of chaos. If the project authorities are either not aware of actual field conditions, or if they refuse to recognize certain problems, it is then very difficult to make changes.

This worksheet also introduces the concept of assigning a rating of 0-4 to project characteristics, with 0 being the worst rating and 4 being the best. In the majority of cases, the evaluator reads a series of descriptions, and assigns a rating to each of "internal indicators" that are later summarized in worksheet "12. Internal Indicators".

Some indicator values (such as "O&M adequacy") are automatically calculated based on previous answers. The rating scale for those values can be found if one highlights the calculated value and reads the formula in the cell.

This worksheet has some Drainage and Salinity Information questions at the very end. Those are used in various benchmarking indicators.

If there is an "umbrella" Water User Association (WUA), elected by smaller Water User Associations, that manages the project, then that "umbrella" WUA is considered part of the "project office".

Worksheet 6. Project Employees

Most of these questions require a qualitative assessment of conditions in the project, with the evaluator giving a rating of 0-4 for each question. Topics include:

- Adequacy of employee training
- Availability of written performance rules
- Power of employees to make independent decisions
- The ability of the project to fire employees with cause
- Rewards to employees for good work

Worksheet 7. WUA

In the worksheets, the abbreviation WUA stands for "Water User Association". Some irrigation projects have a large WUA that operates the whole project canal system, but the final water distribution is done by many smaller WUA. In such a situation, the WUA questions pertain only to the smaller WUA.

Many of the questions are identical to those used in worksheet 5. Project Office Questions.

The answers must reflect average conditions throughout the whole irrigation project, rather than any single WUA. Therefore, several WUAs must be visited to properly answer the questions.

Worksheet 8. Main Canal

This worksheet begins with 6 questions about general conditions throughout the project. The answers will have a large confidence interval (defined earlier, in the section covering external indicators), but because there are large differences between various projects, the answers are meaningful.

The remainder of the questions are identical to those for the Second Level and Third Level Canals. Most of the questions are self-explanatory, but a few points deserve special explanations

  1. Wave travel time. This is the lag time between making a change in flow rate at one point in a canal, and having the change stabilize at another point downstream.
  2. Functionality of various structures and instructions. An evaluator must always consider the operations from the point of view of the operator, and ask himself/herself "If I was to walk up to this structure, how would I know what to do and would it be easy to do?". For example, if the objective is to maintain a constant water level with a structure, what does "constant" mean - within 1 centimeter, or within 5 centimeters? And how many times/day would the structure need to be moved, and even with that movement would it be possible to achieve the desired result? And is the structure dangerous or difficult to operate?
    If an operator is told to deliver a flow rate into a canal, yet there is no flow rate measurement device (or the device is inaccurate, improperly maintained, improperly located, or requires significant time to stabilize), then it will be almost impossible to accurately achieve the desired result.
    Therefore, the evaluator must not just listen to explanations. The evaluator must put him/herself into the operator's shoes. It isn't sufficient to know that the operator moves something and then looks at something; the evaluator must understand if those "somethings" do indeed give the proper answer, etc.

The format of the worksheet 8. Main Canal is this:

  1. General observations are recorded.
  2. Ratings are given to various aspects of operation, maintenance, and process. Some of these ratings depend upon the general observations that are recorded in the same worksheet. Other ratings stand on their own.

It may appear that some of the general observations are not necessary because they are addressed later in the form of ratings. However, they have been included to force the evaluator to make a more systematic examination of various features - which are summarized in later ratings.

The questions about actual SERVICE are key. RAP evaluators must recognize that the RAP has been designed under the assumption that all employees of an irrigation project only have their jobs for one reason - to provide service to customers.

When one analyzes a project by "levels" (office, main canal, second level canal, third level canal, distributaries, field), a huge project can be understood in simple terms. The operators of the main canal only have one objective - everything they do should be done to provide good water delivery service to their customers, the second level canals (and perhaps a few direct turnouts from the main canal). This "service concept" must be understood and accepted by everyone, from the chief engineer to the lowest operator. Once it is accepted, then the system management becomes very simple. Personnel on each level are only responsible for that level's performance.

Main canal operators do not need to understand the details of that day's flow rate requirements on all the individual fields. Of course, in order to subscribe to the service concept, operators generally need to know that their ultimate customer if the farmer. But the details of day-to-day flow rates do not need to be known at all levels.

Rather, the main canal operators have one task to accomplish - to deliver flow rates at specific turnouts (off takes) with a high degree of service. Service is described in RAP with 3 indices:

  1. Flexibility, composed of
    - Frequency
    - Flow rate
    - Duration
  2. Reliability
  3. Equity

For very simple field irrigation techniques, reliability and equity are crucial. Without good reliability and equity, there are generally social problems such as vandalism and non-payment of water fees. Reliability and equity, then, are cornerstones of projects that have good social order.

In order to have efficient field irrigation practices, some minimum level of flexibility is required. Even with the most simple irrigation methods such as paddy rice, the flow rates are completely different at the beginning of the season (for land preparation), compared to when the rice crop is established. And not everyone plants at the same time, meaning that the irrigation project must have some flexibility built into it.

To obtain a high project efficiency, the canal system must have sufficient flexibility built into it to be able to change flows frequently in response to continually changing demands and weather. There is no doubt that most irrigation projects are not very flexible. There is also no doubt that most irrigation projects have low project efficiencies.

Finally, the evaluator must consider that a major purpose of the RAP is to identify what can be done to improve project performance. Modern field irrigation methods, such as sprinkler and drip, require a much higher degree of flexibility and reliability than do traditional surface irrigation methods. The evaluator must always be asking him/herself during the RAP:

"I don't only want to recommend how to rehabilitate the project - I want to recommend steps that will move the project closer to a higher efficiency and better water management as the future will certainly demand. Will these structures and operating instructions and personnel be capable meeting the new requirements, and if not, what adjustments must be made?"

Therefore, the examination of the main canal must be thorough. The evaluator must start at the source, and go all the way to the downstream end of the canal. This is not to say that every single structure must be analyzed. But an evaluator must examine key structures along the complete length of the canal.

Common challenges that must be overcome by the evaluators include:

  1. The project authorities want to spend a disproportionate amount of time at the dam, discussing dam maintenance, the watershed, and politics. Actually, the only items of interest at the dam are (a) the storage, and (b) how discharges are computed and actually made and measured.
  2. Evaluators will be told, "the canal is all the same". The explicit or implied conclusion is that the evaluator only needs to examine portions of the canals near the headworks. While it may be true that the canal is indeed identical along its complete length, in general there are significant differences in maintenance, slope, structures, etc. along its length. Only by physically traveling along the canal will the evaluator learn about those differences.
  3. The operation will be explained by project authorities that are driving with the evaluators. This is definitely a difficult challenge. The office visit (worksheet 5) is designed to obtain the perspective of the office staff and bosses. A purpose of the field visit is to talk to the actual structure operators and review their notes - without having their bosses interrupt and give the "official" answer. In many cases, it is necessary to separate the bosses from the operators, so that the operators are not cautious with the answers they give. Therefore, the "rules of the game" must be understood before the field visit is made.

Another challenge arises in the selection of which canals to visit. Sometimes a project will have 2 or more main canals, and dozens of "second level" canals. The good news is that in general, operator instructions, hardware, and maintenance levels will be similar on all of the canals at a specific level. Visiting more canals is helpful, but it is not necessary to visit all of the canals in a project.

There is no doubt that different main canals each have a few specific engineering/hydraulic challenges. One canal may have a bottleneck (restriction) at a river crossing, and another canal may have a peculiar control problem - even though everything else seems the same. If the RAP evaluator can provide good recommendations for those specific hydraulic problems (that are not covered specifically in the RAP forms), the credibility of the evaluator will be enhanced, and RAP recommendations will have a better chance of being accepted. Therefore, the evaluator should take ample pictures and notes during the visit.

Basic advice for evaluators as they tour the main, second, third, etc. levels of canals is this:

Understand everything. Understand how the operators THINK things should work. Question everything. If you do not understand explanations, continue to question the explanations until you understand the perspective of the operators. But go beyond that. Every structure has a function. Do not be satisfied with attempting to visualize how that function can be accomplished easier or better; question the very reason that the structure has been assigned that function. Perhaps in a modernization plan, a structure that is presently operated under flow rate control should be operated instead under upstream water level control. In other words, question the very nature of the strategies of operation - not just individual structures. The RAP is not an examination of individual structures - it is a comprehensive examination of a whole process…in which structures have functions. One must understand the pieces (operators, rules, structures) to understand the process, but RAP also questions the assumptions behind the specific processes, themselves. RAP requires evaluators who can look beyond the individual pieces; it requires evaluators who can visualize how the pieces can be manipulated and re-arranged as parts of a complete process that provides good service and high efficiency.

Worksheet 9. Second Level Canals

See the discussion for Worksheet 8. Second Level Canals are those that receive water from the Main Canals. In general, the Second Level Canals are operated differently than the Main Canals.

Worksheet 10. Third Level Canals

See the discussion for Worksheet 8. In many medium sized projects, the "Third Level" does not exist, so this worksheet would not be filled out in those cases.

Worksheet 11. Final Deliveries

There are two possible points that are considered in this workshop. One is the Individual Ownership Units - the smallest unit that is owned by a single individual (if private ownership is allowed) or that is managed by a farmer. The Individual Ownership Unit may be larger than a single field if one farmer receives water and then distributes the water over several fields from a single turnout (very common in the USA). The key feature of the Individual Ownership Unit is that at this point, there is no cooperation needed between individual farmers.

The second point is the Point of Management Change. In projects with a high density of turnouts, the Point of Management Change may be the same as the point of Individual Ownership Units. In other words, the irrigation project authority (or the water user association) employee delivers water all the way to the field level. The Point of Management Change is the "hand-off" point between paid employees and volunteers or farmers.

In some projects, the irrigation authorities place great emphasis on the number of farmers within a project. One must go beyond that statistic when examining the present operation, because the project authorities may relinquish control of the water to groups of 200 farmers - who are expected to somehow provide equitable and reliable water distribution among themselves. Therefore, there are 2 important indicators for this discussion:

  • The number of fields (Individual Ownership Units) downstream of the Point of Management Change. The greater the number, the poorer is the reliability, equity, and flexibility of water delivery service. Furthermore, any number greater than 1 or 2 indicates that drip and sprinkler irrigation are almost impossible to support.
  • The number of turnouts that are operated per employee. This is much more meaningful than the "number of farmers per employee", because employees may never provide water directly to individual farmers.


Worksheet 12. Internal Indicators

This worksheet contains 3 types of values:

  1. Summaries of the various internal Sub-Indicators that were rated in the previous workshops, and then computed weighted values for each Primary Indicator. The shaded columns on the right hand side provide information about the values, the weighting factors, and the worksheet location for detailed rating criteria of the Sub-Indicators. All of these values are given a rating of 0-4, with 4 being highest and most desirable.
  2. Sub-Indicators and Primary Indicators, the values of which are input directly into this worksheet (as opposed to being transferred from previous worksheets). These are Indicators I-32, I-33, and I-34. These values all have a rating of 0-4.
  3. A few Indicators (I-35+) that do not conform to the rating scale of 0-4. Rather, these are direct ratios of values or individual values that have special significance.

Worksheet 13. IPTRID Indicators

This worksheet is an intermediate worksheet that should not be used. Instead, refer to Worksheet 14, as described below.

Worksheet 14. World Bank BMTI Indicators

This worksheet contains the "Benchmarking Technical Indicators", or BMTI values as of October 2002. The definitions of the various BMTI values are given below:

Water Year described:________________________

WATER BALANCE INDICATORS

Indicator
Definition
Data specifications
Total annual volume of irrigation water available at the user level (MCM) (also called "irrigation water delivered") Total volume of irrigation water (surface plus ground) directly available to users, MCM - using stated conveyance efficiencies for surface and ground water supplies. It includes water delivered by project authorities as well as water pumped by the users themselves. Water users in this context describe the recipients of irrigation service, these may include single irrigators or groups or irrigators organized into water user groups. This value is used to estimate field irrigation efficiency; it is not used to estimate project irrigation efficiency. Calculated from the stated value of system water delivery efficiency (from the dam or diversion point, to the final project employee delivery point). Includes farmer pumping, because this is a "delivery" in the sense that it is irrigation water that is available to the farm/field.
Total annual volume of irrigation supply into the 3-dimensional boundaries of the command area (MCM) This is the irrigation water that is imported into the project boundaries, to include river diversions, reservoir discharges, and NET groundwater extraction from the aquifer. This value is used to estimate project irrigation efficiency; it is not used in the computation of field irrigation efficiency. Determination of this value requires a detailed water balance if there is groundwater pumping, because the NET extraction must be estimated.
Total annual volume of irrigation water managed by authorities. (MCM) This is the irrigation water that is imported into the project boundaries by the authority, plus any internal groundwater pumped by the authorities. The value is not used to compute any efficiencies, as some of the internal pumping may be recirculation of original source water. However, this is the volume of water that the project authorities administer, so it is used for the computations related to costs.  
Total annual volume of water supply (MCM) Total annual volume of surface water diverted and net groundwater abstraction, plus total rainfall, excluding any re-circulating internal drainage within the scheme. This is the irrigation water that is imported into the project boundaries, to include river diversions, reservoir discharges, and NET groundwater extraction from the aquifer. PLUS, this includes total rainfall.
Total annual volume of irrigation water delivered to users by project authorities. Total volume of water delivered to water users by the authorities over the year that was directly supplied by project authority (including WUA) diversions or pumps. Water users in this context describe the recipients of irrigation service, these may include single irrigators or groups or irrigators organized into water user groups. This does not include farmer pumps or farmer drainage diversions. This can be directly measured, or is more commonly estimated based on an assumed conveyance efficiency.
Total annual volume of groundwater pumped within/to the command area (MCM) Total annual volume of groundwater that is pumped by authorities or farmers that is dedicated to irrigated fields within the command area. This groundwater can originate outside of the command area. An answer must be provided even if the user does not precisely know the volume of groundwater pumped. The uncertainty can be handled by assigning a large confidence interval, if necessary.
Total annual volume of field ET in irrigated fields (MCM) Total annual volume of crop ET. This includes evaporation from the soil as well as transpiration from the crop. Depending upon how the user entered the data, this may include off-season soil evaporation. This is computed based on crop coefficients and ETo values.
Total annual volume of (ET - effective precipitation), (MCM) The volume of evapotranspiration that must be supplied by irrigation water. Regardless of how one enters data for ET, above, if one follows the guidelines in this manual, one obtains the same final answer of (ET - effective ppt.) - which is the net irrigation requirement. The user gives an estimate of the effective rainfall, by month, and by crop. Effective rain contributes to the ET.
Peak net irrigation water ET requirement (CMS) The net peak daily irrigation requirement (ET - effective rainfall) for the command area, based on actual cropping patterns for this year. (CMS) Calculated as the peak monthly (ET - effective rainfall) value, divided by the number of days in that month.
Total command area of the system (ha) The physical hectares of fields in the project that that are provided with irrigation infrastructure and/or wells.  
Irrigated area, including multiple cropping (ha) The hectares of cropped land that received irrigation. If a 1 hectare field has two irrigated crops per year, the reported irrigated area would be 2.0 hectares.  
Annual irrigation supply per unit command area (m3/ha)
Total annual vol. of irrig. supply into the command area
Total command area of the system
Total annual volume of irrigation supply into the command area:
See earlier definition.

Total command area of the system:
See earlier definition

Annual irrigation supply per unit irrigated area (m3/ha)
Total annual volume of irrigation supply
Total annual irrigated crop area
Total annual volume of irrigation supply:
See earlier definition

Total annual irrigated crop area:
See earlier definition. Includes multiple cropping.

Conveyance efficiency of project-delivered water, %

(Weighted value using stated values)

Volume of irrigation water delivered by authorities
(Total annual volume of project authority irrigation supply)
Volume of external irrigation water delivere by authorities:
Total volume of irrigation water supply that is delivered to water users by the project authorities over the year. Water users in this context describe the recipients of irrigation service, these may include single irrigators or groups or irrigators organized into water user groups.
Total annual volume of project authority irrigation supply:
Defined earlier
Estimated conveyance efficiency for project groundwater (%)
Annual volume of project groundwater delivered to users x 100
Annual volume of groundwater pumped by authorities
Annual volume of project groundwater delivered to users
This refers to a weighted value of conveyance efficiency for groundwater that is pumped by authorities from wells both inside and outside of the command area, but which is delivered within the command area.
Annual volume of groundwater pumped by authorities
Self explanatory
Annual Relative Water Supply (RWS)

Total annual volume of water supply
Total annual volume of field ET in irrigated fields

Total annual volume of water supply:
defined earlier
Total annual volume of field ET:
Defined earlier.
Annual Relative Irrigation Supply (RIS)

Total annual volume of irrigation supply into the 3-D boundaries
Total annual volume of field ET in irrigated fields

Total annual volume of irrigation supply into the 3-D boundaries:
Defined earlier
Total annual volume of field ET:
Defined earlier.
Water delivery capacity

Canal capacity to deliver water at system head
Peak irrigation water ET requirement

Canal capacity to deliver water at system head:
Actual gross discharge capacity of main canal(s) at all diversion point(s). (CMS)
Peak irrigation water ET requirement:
Defined earlier (CMS)
Security of entitlement supply, %
The frequency with which the irrigation organization is capable of supplying the established system water entitlements System water entitlement:
The bulk volume (MCM) or bulk discharge of water (CMS) to which the scheme is entitled per annum.
Average Field Irrigation Efficiency, %
(ET - Effective precipitation + LR water) x 100
(Total Public and Private Water Delivered to Fields)
All values are expressed in 12 month volumes.
Command area Irrigation Efficiency, %
(ET + Leaching needs - Effective ppt.) x 100
(Surface irrigation imports + Net groundwater)
All values are expressed in 12 month volumes.

FINANCIAL INDICATORS

Indicator
Definition
Data specifications
Cost recovery ratio
Gross revenue collected
Total MOM cost
Gross revenue collected:
Total revenues collected from payment of services by water users.

Total MOM cost:
Total management, operation and maintenance cost of providing the irrigation and drainage service excluding capital expenditure and depreciation/renewals.

Maintenance cost to revenue ratio
Maintenance cost
Gross revenue collected
Maintenance cost:
Total expenditure on system maintenance

Gross revenue collected:
Total revenues collected from payment of services by water users.

Total MOM cost per unit area (US$/ha)
Total MOM cost
Total command area serviced by the system
Total MOM cost:
Total management, operation and maintenance cost of providing the irrigation and drainage service excluding capital expenditure and depreciation/renewals.

Total command area serviced by the system:
Defined earlier

Total cost per staff person employed (US$/person)
Total cost of personnel
Total number of personnel
Total cost of personal :
Total cost of personnel employed in the provision of the irrigation and drainage service, either in the field or office (including secretarial and administrative staff). Includes WUA employees and project employees.

Total number of personnel engaged in I&D service:
Total number of personnel employed in the provision of the irrigation and drainage service, either in the field or office (includes secretaries, administrators). This includes WUA employees and project employees.

Revenue collection performance
Gross revenue collected
Gross revenue invoiced
Gross revenue collected:
Total revenues collected from payment of services by water users.

Gross revenue invoiced:
Total revenue due for collection from water users for provision of irrigation and drainage services.

Staff persons per unit irrigated area (Persons/ha)
Total number of personnel engaged in I&D service
Total irrigated area serviced by the system
Total number of personnel engaged in I&D service:
Total number of personnel employed in the in provision of the irrigation and drainage service, including secretarial and administrative staff - in WUAs plus project employment.
Total irrigated area, ha :
(defined earlier)
Number of turnouts per field operator
Total number of turnouts (offtakes)
Total number of personnel engaged in field I&D service
Total number of personnel engaged in I&D service:
Total number of field personnel employed in the provision of the irrigation and drainage service, including supervisors.

Total number of turnouts:
The number of turnouts (offtakes) to fields, farms, or groups of farmers, plus offtakes to laterals and sublaterals, that are physically operated by the field personnel.

Average revenue per cubic meter of irrigation water delivered to water users by authorities (US$/m3)
Gross revenue collected
Total annual volume of project irrigation water delivered
Gross revenue collected:
Total revenues collected from payment of services by water users.

Total annual volume of irrigation water delivered:
Defined earlier

Total MOM cost per cubic meter of irrigation water delivered to water users by the project authorities (US$/m3)
Total MOM Cost
Total annual volume of irrigation delivered by project authorities
Total MOM cost:
Total management, operation and maintenance cost of providing the irrigation and drainage service excluding capital expenditure and depreciation/renewals.
Total annual volume of irrigation water delivered by project authorities: Defined earlier

AGRICULTURAL PRODUCTIVITY AND ECONOMIC INDICATORS

Indicator
Definition
Data specifications
Total annual value of agricultural production (US$)
Total annual value of agricultural production received by producers.
 

Output per unit command area (US$/ha)

Total annual value of agricultural production
Total command area of the system
Total annual value of agricultural production:
Total annual value of agricultural production received by producers.

Total command area of the system:
The command area is the nominal or design area provided with irrigation infrastructure that can be irrigated.

Output per unit irrigated area, including multiple cropping (US$/ha)

Total annual value of agricultural production
Total annual irrigated crop area
Total annual value of agricultural production:
Defined earlier
Total command area of the system:
Defined earlier
Output per unit irrigation supply (US$/m3)
Total annual value of agricultural production
Total annual volume of irrigation supply into the 3-D boundaries of the command area
Total annual value of agricultural production:
Defined earlier

Total annual irrigated crop area:
Defined earlier

Output per unit water supply (US$/m3)
Total annual value of agricultural production
Total annual volume of water supply
Total annual value of agricultural production:
Defined earlier
Total annual volume of water supply:
Defined earlier

Output per unit of field ET (US$/m3)

Total annual value of agricultural production
Total annual volume of field ET

Total annual value of agricultural production:
Defined above

Total annual volume of field ET:
Defined earlier

ENVIRONMENTAL PERFORMANCE INDICATORS

Indicator
Definition
Data specifications
Water quality: Average salinity of the irrigation supply (dS/m). Salinity (electrical conductivity) of the irrigation supply. Weighted (by volume) value, using monthly data. Should include both surface and groundwater supplies.
Water quality: Average salinity of the drainage water (dS/m). Salinity (electrical conductivity) of the drainage water that leaves the command area. Weighted (by volume) value, using monthly data.
Water quality: Average BOD of the irrigation supply (mgm/liter) Biological load of the irrigation supply expressed as Biochemical Oxygen Demand (BOD) Weighted (by volume) value, using monthly data. Should include both surface and groundwater supplies.
Water quality: Average BOD of the drainage water. (mgm/liter) Biological load of the drainage water expressed as Biochemical Oxygen Demand (BOD) Weighted (by volume) value, using monthly data.
Water quality: Average COD of the irrigation water (mgm/liter). Chemical load of the irrigation supply expressed as Chemical Oxygen Demand (COD). Weighted (by volume) value, using monthly data. Should include both surface and groundwater supplies.
Water quality: Average COD of the drainage water (mgm/liter). Chemical load of the drainage water expressed as Chemical Oxygen Demand (COD). Weighted (by volume) value, using monthly data.
Average depth to shallow water table (m) Average annual depth of the shallow water table calculated from water table observations over the irrigation area. This is an average value for the area of high water table.
Change in shallow water table depth over time (m) (+ indicates up) Change in shallow water table depth over the last five years. This is an average value for the area of high water table.

OTHER PERFORMANCE INDICATORS

Indicator
Definition
Data specifications
Percent of O&M expenses that are used for pumping The annual pumping expenses (typically these are mostly fuel charges) as a percentage of the total operation and maintenance budget of the project - for project authorities, only. Based on questions asked in the Project Office section.