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Farmer irrigating crops in a field - Introduction to Water Management online course (Study hours: 6, Self-study)

We are excited to share a valuable resource for agricultural engineers, students, and anyone involved in agro-services! CABI Academy is offering a free online course titled Introduction to Water Management. Whether you're an experienced professional or a student eager to enhance your knowledge of water management in agriculture, this course is an excellent opportunity.

Course Overview

This self-paced, self-study course has been developed by water management experts at CABI. It takes approximately 5-6 hours to complete and covers key concepts in water management for both rainfed and irrigated agriculture.

You can navigate through the course using a simple menu, and upon completion, you will have the option to take assessments for a Foundation or Practitioner certification, which you can retake as many times as you like.

What You Will Learn

By the end of this course, you will be able to:

  • Recognize the limitations of water resources and optimize their use in agricultural settings.
  • Understand how water moves through soil and plants.
  • Determine the water requirements for crops.
  • Implement changes to soil and plot structures to improve water retention.
  • Diagnose plant issues related to water management.
  • Innovate on water management practices based on course principles.

Who Is It For?

This course is designed for agricultural engineers, extension workers, agro-input dealers, and other professionals advising farmers. Farmers and agricultural students will also find it useful for enhancing their understanding of water management in farming.

Key Skills You Will Gain

  • Digital learning: Learn at your own pace and engage in discussions with others globally.
  • Advising farmers: Develop the skills to guide farmers in choosing the right water management practices.
  • Critical thinking: Use real-world scenarios to apply the knowledge you gain and evaluate different water management techniques.

Course Structure

The course consists of the following sections:

  1. Introduction to water management: Basic concepts like the water cycle, irrigation, soil drainage, and sustainable water practices.
  2. Water productivity and management: How to improve water productivity, especially in rainfed agriculture.
  3. Soil and water: The role of soil in water management, infiltration, and soil water content.
  4. Plants and water: How water impacts plant growth and crop water requirements.
  5. Rainwater productivity: Strategies to improve water use efficiency on rainfed farms.
  6. Irrigation: Choosing irrigation methods, scheduling, and managing irrigation systems.
  7. Certifications: Option to gain Foundation and Practitioner certificates.

Certification

The course offers two types of certifications:

  • Foundation certification: Tests your recall of course information.
  • Practitioner certification: Tests your ability to apply the concepts to real-world scenarios.

The pass mark for the assessments is 80%, and once you complete the course and a final questionnaire, you'll receive a CABI Academy certificate.

Ready to Enroll?

If this course sounds like the perfect fit for you or your colleagues, click the link below to get started!

👉 Enroll Now: Introduction to Water Management

Don’t miss this chance to expand your skills in water management—an essential element in today’s agricultural practices.

Socio-Economic Impact Study of Sheshnarayan Dakshinkali Irrigation SubProject, Dakshinkali, Kathmandu

Socio-Economic Impact Study of Sheshnarayan Dakshinkali Irrigation SubProject, Dakshinkali, Kathmandu

Abstract

This article presents an impact study that assesses the effects of the Sheshnarayan Dakshinkali Irrigation Sub-Project on the local community and environment. The study aims to analyze changes in crop yields, crop diversity, and income levels for farmers, as well as changes in water availability and water quality. Additionally, the sustainability of the project is evaluated, focusing on its ability to provide long-term benefits to the community beyond the project's funding period.  The study incorporates an assessment of the maintenance and management of the irrigation infrastructure, as well as the extent of community participation in the project's planning and implementation. Furthermore, the research explores indirect effects, including their potential impact on the local economy, such as the creation of new jobs or business opportunities. To gather comprehensive data, a combination of surveys, interviews, and field observations was conducted, ensuring the inclusion of both quantitative and qualitative information. The study's findings are expected to make significant contributions to the sustainable development of the irrigation sector in Nepal.  

Keywords: Crop Yields, Crop Diversity, Water Quality, Sustainable Development

Authors: 

✏️ Sajit Raj Karki1, Samjhana Bhetwal2, Kasam Timsina3

1 Senior Agricultural Engineer, Green Eye Engineering Solutions Pvt. Ltd.

2 Agricultural Engineer


Introduction

Nepal, known for its predominantly agrarian society, heavily relies on agriculture as the primary source of livelihood for a majority of its population. However, the country's irrigation infrastructure has been a persistent challenge, leading to limited access to reliable water sources for crop cultivation. With only 30% of arable land currently benefiting from irrigation, farmers face significant constraints in achieving optimal crop yields and sustainable income levels.  

Recognizing the urgent need to address these issues, there has been a growing interest in recent years to improve irrigation infrastructure in Nepal. The government, in collaboration with international organizations, has undertaken various irrigation projects, such as the Irrigation System Project (ISP) and the Medium Irrigation Project (MIP), to enhance the irrigation network and increase agricultural productivity.  

One noteworthy initiative among these projects is the Shesnarayan Dakshinkali Irrigation SubProject. Its primary objective is to improve irrigation infrastructure in the Shesnarayan Dakshinkali area, situated within the picturesque Kathmandu Valley. This sub-project aims to provide efficient irrigation facilities to approximately 32 hectares of agricultural land, with the ultimate goal of improving the livelihoods of farmers in the region.  

Despite the promising nature of such endeavours, the impacts of these irrigation projects on the local community and environment are not yet well understood. It is crucial to conduct a comprehensive impact study to assess the effects of the Shesnarayan Dakshinkali Irrigation SubProject, encompassing various dimensions and aspects.  

This impact study seeks to evaluate the multifaceted consequences of the project, encompassing changes in crop yields, crop diversity, and income levels for farmers. By examining these indicators, researchers can gauge the direct benefits of the sub-project in terms of enhanced agricultural productivity and improved economic well-being for the local farming community.  

Methodology

Research Design

This research evaluates the impact of the Sheshnarayan Dakshinkali Irrigation Sub Project on the local community and environment, focusing on changes in crop yields, income levels, water availability and quality, sustainability, maintenance, and community participation. It provides valuable insights and recommendations for future irrigation projects in Nepal, using a mixed methods approach of surveys, interviews, and focus groups to gain a comprehensive understanding of the project's outcomes.  

Study Area

The Sheshnarayan Dakshinkali Irrigation Sub Project is located at Dakshinkali Municipality-5 which is around 14.5 km away from Balkhu. The project location is at an altitude of around 1500 m.  The latitude and Longitude of the project area are 27°36'59.18" and 85°15'50.57"E.  

Methods of Data Collection   

1.   Primary Data Collection: It involves a household survey with structured questionnaires administered to project beneficiaries. The survey covered irrigation, agriculture, water management, and other relevant aspects. Focus Group Discussions (FGDs) were conducted to gather in-depth insights on the research topic. Key Informant Interviews (KIIs) were conducted with relevant personnel to supplement FGD findings. Secondary data were collected from reports and documents.  

2.   Secondary Data Collection: It includes reports, documents, and articles, to complement the primary data. This secondary data encompassed feasibility and baseline survey reports, design reports, environment study reports, monitoring reports, budget and expenditure documents, and information from the Agriculture Knowledge Centre and Water Resource and Irrigation Development Division. The integration of secondary data enriched the research methodology and analysis.  

Data Processing & Analysis

Data analysis was conducted using MS Excel, employing both qualitative and quantitative techniques. After data collection, calculations relevant to the analysis were performed to derive meaningful insights from the data.


Results and Discussion  

1. General Overview of Irrigation System:  

The Sheshnarayan Dakshinkali Irrigation Sub Project is one such initiative that aims to improve the irrigation infrastructure in Nepal. The farmers in the sub-project area used to convey water from the intake near the Sheshnarayan temple through earthen channels in the past during the monsoon season before the implementation of the project. The water was not adequate to irrigate all farmer's fields, especially during the winter season. After the implementation of the project, the farmers in the project area formed a WUA for the operation and maintenance of canals. The proposed work is the rehabilitation of the existing irrigation system.  

2.   Land Holding Pattern:  

Most of the farmers in the project area are owners of land. However, some farmers have taken land on lease and are currently running farms. Even though the land holding pattern is not uniform farmers hold around 4-5 ropani of land including leased land.  

3. Major Occupation  

The majority around 51% of the respondents belong to the agriculture sector followed by service, business and others.

4.  Income and Expenditure:  

In the project area, agriculture is the primary occupation for the respondents. However, most of them stated that they have not been able to generate significant income from agriculture, as the crop yield is primarily sufficient for family consumption. Only a few farmers with larger farms can generate some savings from agriculture. The main sources of income from agriculture include vegetables, wheat, and paddy. A small number of respondents send their crops to the market, earning approximately NRS 25,000 per month. Other sources of income for the respondents include labour, electrician work, services, and business, contributing to a monthly income of around NRS 30,000. Surprisingly, only a few farmers in the project area are involved in livestock farming, resulting in minimal income generation from this sector.  

5.  Change in Cropping Intensity:

The project intervention aimed to increase the productivity of crops and crop intensity in the command area by rehabilitating existing irrigation facilities. So after the intervention cropping intensities increased to 231%. From the figure we can conclude that cropping intensities have increased to 231% from 169%. The table below shows a comparison of crop intensities during the different seasons before and after the project interventions in the respondent's land.  

6.  Change in Cropping Pattern:  

After the implementation of the project, the cropping pattern of farmers in the project area changes hugely as compared to the old pattern. Most of the farmers used to grow paddy during the monsoon season and maize during the winter season. But after the implementation project, most of the respondents told during the field survey that they have started growing high-yielding vegetables during winter and summer. Now farmers grow paddy and vegetables during summer while wheat, potato and vegetables during the winter.  

7. Agricultural Productivity  

Overall, the productivity of agricultural products increased after the implementation of SDISP which is due to sufficient irrigation.

Summer & Monsoon Crops

Crops

Before Project (t/ha)

After Project (t/ha)

Paddy

5.4

6.03

Maize

1.56

2.7

Vegetables

5

15

Winter Crops

Crops

Before Project (t/ha)

After Project (t/ha)

Potato

6

14

Vegetables

8

19

Mustard

1.54

1.83

Wheat

1.39

2

Barley

1.2

1.8


8. Project Impact:  

Several factors, including poverty reduction, food sufficiency, higher income and spending, decreased workload for women, gender equality, and migration, were used to assess the irrigation system's impact in the command area.

(i) Economic Sustainability: The project's implementation has had a significant impact on raising the standard of living for the underprivileged. One of the biggest effects following the project's implementation in the command area is a decrease in poverty.  

(ii)  Employment: Farmers have begun selling their goods on the market as a result of the growth in agricultural productivity on irrigated land. Farmers who previously relied on seasonal and off-seasonal veggies for their living now have revenue. As a result, one of the key industries in this command area is the production of out-of-season vegetables. There is a visible increase in employment opportunities for farmers due to the provision of irrigation.  

(iii). Food Sufficiency: Overall, most of the respondents told that the cultivated food items are just sufficient to fulfil their household demands. About 10% of respondents responded that the food is not sufficient for a whole year and they need to buy food products from the market.   

(iv) Women’s Drudgery: Since women perform most agricultural labour, it goes without saying that the lack of water in agricultural fields adds to the burdens they already bear. This irrigation project's greatest benefit to women has been the reduction of their fieldwork workload and hardship.  

(v) Time-Saving Utilization:   To transfer water from the source into their irrigation canal, farmers used to devote important time. They also need to spend more time distributing water to their farms. The farmers had to wait for their turn because the water flow was limited. Farmers who steal water are dishonest, therefore disagreements are frequent. Peasants greatly increased their time for animal husbandry after the project participated in the project region. Similar to this, the civilization built an alluring social harmony that decreased water conflicts.  


Conclusion and Recommendations

A) Conclusions: In conclusion, the study on the impact of the SDISP irrigation canal has provided significant insight into the positive effects that the efficient operation of an irrigation canal can have on a community. The successful operation of the canal has improved agricultural productivity, increased crop yield, and promoted economic growth in the surrounding areas. The efficient water distribution system has ensured that the farmers have access to water when they need it, allowing them to increase their crop production and maximize their profits.  

B) Recommendations: To ensure the successful implementation and long-term sustainability of the canal system, a series of important recommendations can be put forth. Firstly, addressing accessibility issues is of paramount importance to guarantee the equitable distribution of benefits to all farmers in the region. This may necessitate improvements in transportation infrastructure or the provision of alternative means of access for remote areas. Concurrently, measures must be implemented to minimize environmental impacts associated with the canal, such as soil salinization and the loss of wildlife habitat. Achieving this objective entails adopting and promoting sustainable farming practices while preserving and protecting natural ecosystems.  


References

  1. Sheshnarayan Irrigation Sub-Project: Detail Project Report. Kathmandu: Department of  Irrigation,2021  

  2. NPC, Three Years Plan (2014-2016). Kathmandu: National Planning Commission, 2014.  

  3. GoN, Irrigation Policy. Kathmandu: Government of Nepal,2060.  

  4. Bagale, D. R. (n.d.). Socioeconomic Impacts of FMIS after Rehabilitation Case Study of Bakultar Irrigation Project, Mahadevsthan, Dhading. SCITECH Nepal, Vol. 14, No. 1,

  5. Paudyal, N. P. (2011). Role of Irrigation in Crop Production and Productivity: A Comparative Study of Tube Well and Canal Irrigation in Shreepur VDC of Kanchanpur District. The Geographical Journal of Nepal, Vol. 8, 2010-2011: 53-62, 53-62.

This is the web copy of an article that was originally published in the print version of 'The agrineer 2023' - Annual Magazine

Abstract  

Bhabar Lift Irrigation Project has been proposed based on the genuine demand of farmers who have agreed to comply with the Irrigation Policy/procedures throughout the sub-project development process and operation and maintenance after completion. The project has a gross command area of 30 Ha, with a net command area of 25 Ha. Water is pumped from the intake to the tank at the head of 80 m through a proposed 80 mm dia GI pipe to deliver water from the well to the reservoir. The project aims to benefit 122 households with a population of 800 people, by providing them with a consistent water supply. Currently, agriculture practices in the area are completely dependent on rainwater and the present cropping intensity is 130%, with maize and pulses being the major crops. However, after the completion of the project, the future cropping intensity is expected to reach 232%. The proposed development plan includes an intake, pipeline works, reservoir tank, and electrical pumping system installation with a total cost of Rs. 15,136,000.00. Farmers have been extensively consulted and involved in the development of the project plan, with their active participation being a vital aspect. Comprehensive economic analysis shows that the project is technically feasible, environmentally friendly, socially acceptable, and economically viable, with an EIRR of 19.91% and a B/C ratio of 1.91 and 1.66, respectively. Overall, the feasibility study concludes that the project should be implemented, and the farmers are enthusiastic about its potential success. Further training in areas such as O&M, water management, and leadership development will be essential to ensure that farmers can take full advantage of the project's benefits.  

Keywords: Cropping Intensity, EIRR, Reservoir, Pump  

Authors: 

✏️ Roshan Pandey1, Er. Rupesh Acharya1, Er. Ramesh Regmi2

1Chief Executive Officer, Green Eye Engineering Solutions Pvt. Ltd., Sunsari, Nepal 

2Engineer, Agriculture Knowledge Center, Palpa, Nepal 

Introduction  

Lift irrigation is an important source of water for agriculture in Nepal, especially in areas with limited water availability. However, the feasibility of implementing lift irrigation systems and the economic benefits they can provide for farmers are often unclear. Therefore, conducting a feasibility study and agri-economic analysis of lift irrigation systems is necessary to assess their viability and potential impact on agriculture in Nepal. This analysis should consider factors such as the availability and quality of water sources, the terrain and topography of the area, the cost and maintenance of lift irrigation systems, and the potential impact on crop yields and farmer incomes. The results of such a study can provide valuable information for policymakers and investors to make informed decisions about the implementation of lift irrigation systems and their potential impact on rural communities in Nepal. Reviewing the literature, “ The study Assessing the Operation Management: A Case of Narayani Lift Irrigation System, Nepal” used field visits, surveys, and interviews to collect data, which was analyzed using various methods. The system's past performance showed limited irrigation coverage, occasional supplements, and frequent disputes during water distribution. The role of NLIWUA was effective in managing these disputes. The system has brought about changes in the socioeconomic and agricultural status of the users, including an increase in economic status and a shift from rice plantations to cash crops. The system needs proper rehabilitation as the allocated budget is only sufficient for temporary maintenance, and sediment management is a significant problem. The study “Enhancing Water Productivity in Agriculture at Fokshingkot Lift Irrigation System” briefs that a high-head lifting/pumping system was constructed that successfully delivers 1.94 liters per sec of water for drinking and irrigation. This has benefited 102 households, saved time for women and children, and increased household income through farming.   

The Bhabar Lift Irrigation Project is located in the Alital-5 region of Sudur Paschim province in Nepal, with a proposed lifting point at a latitude of 29° 7'54.29"N & longitude of 80°29'46.68"E.  

Access to the project area is provided by nearby roads such as the Bhimdutta Panta Highway & Mahakali Highway, and the specific road for the site is Jogbuda-Alital or Budor to Alital. The water in Rangun Khola is sufficient for the pumping requirement.  

The study of Bhabar Lift Irrigation includes feasibility analysis, the construction of necessary irrigation infrastructure to ensure reliable water supply, providing year-round irrigation to the area, and increasing cropping intensity and productivity. Additionally, the project aims to strengthen water user associations and institutions, promote advanced farming technologies, and increase farm income.  

Methodology  

To achieve the objectives, the project team conducted field visits, topographical surveys, and focus group discussions to identify the location of the lifting point, source, and reservoir. GPS surveys were conducted to determine the altitude and location of the source and command area. The results of the digital data were then imported into CAD and GIS software for further analysis.  

The float method was used to measure discharge, and the cross-sectional areas at the start and endpoints of the reach were measured and plotted in the graph using a suitable scale. Discharge was computed by multiplying the average area and velocity. MIP (Medium Irrigation Project) was used to estimate mean monthly flows at ungauged sites. Nepal is divided into 7 hydrological regions, and the project location lies in Hydrological Region 1. Once the low-flow discharge measurement data is taken, long-term average monthly flows can be determined by multiplying the unit hydrograph with the measured catchment area according to the MIP Method. The criteria for the selection of design discharge were based on agro-technical considerations such as crop water requirement and command area.  

In addition to the design discharge, high flood design discharge was also taken into consideration. The catchment area of the river source was computed to be 50 square kilometers, and the highflood discharge was computed using five different methods. The average of these values obtained is taken into consideration, and regional analysis is adopted for high-flow calculations.  

This study aimed to design an irrigation project to provide water to the command area for crop cultivation. The study involved a joint walk-through survey and site investigation to identify river stability problems and high-risk zones for laying the pipe network. A focus group discussion was conducted to assess the agricultural situation of the command area.

Agro-economic data collection was carried out through household surveys and discussions with key informants. Crop water requirements and water balance were calculated using CROPWAT software and the mean monthly flow was determined using the MIP method.  

Cropping intensity was calculated to evaluate the extent of multiple cropping on the farm. Engineering design involved the design of major components such as the intake well, pump house, electrical accessories and fittings, transformer and power connection, sump well, pipe networks, distribution system, and protective devices. The economic analysis was undertaken with two major assumptions: a) the project life is 25 years, and b) the maintenance cost is taken to be 1% of the total investment cost, occurring from the second year.  

Sensitivity analysis was performed to assess the economic viability of the chosen irrigation project at several selected input scenarios. The analysis included examining the risks that occur when investment costs increased, incremental benefit shortfall, and when both investment costs increase and incremental benefit shortfall. The internal rate of return (IRR) and benefit-cost ratio (BCR) were applied in the economic analysis, and sensitivity analysis was carried out.  

Results and Discussions 

The study showed that the project is feasible as the lift height is 80 meters. The water balance was calculated and found that the crop water requirement meets the design discharge.   

Figure: water demand and supply graph showing water balance
Figure 1: Water Balance

From the figure in the horizontal axis 1, represents the January First half and 2 represents the Second half and is similar in the case of other months respectively It was found that for every half month, the mean monthly flow is excess, indicating that water is enough for the command area.  

The proposed project involves the construction of a lift irrigation system in Rangun Khola to provide year-round irrigation to the command area. Water is to be lifted from the river to an upper tank using an electrical pump and then distributed to the command area through a network of main pipes, sub-main pipes, and laterals. The pipes are made of GI and HDPE and have been designed based on the necessary discharge to effectively irrigate the command area. The farmers in the project area currently follow traditional subsistence practices of agriculture, with terraced agricultural lands and a moderate gradient. The existing cropping intensity is 130%, and the proposed Cropping intensity is 232% the irrigation facility will have an impact on increasing the intensity of crops and modernizing the cropping pattern with more valuable crops, which will further enhance the potential to achieve the expected benefits.  

The project has conducted a detailed item-wise rate analysis based on prevailing government approved norms and district rates. The analysis has also considered transportation costs to the rate of market materials at Dadeldhura or nearest, wherever it is available. The rate of labor and market materials are adopted from the district rate of Dadeldhura FY 2078/79.  

In terms of technical specifications, the capacity of the tank is 73.13m3 and the main riser is made of GI pipe (Medium class) of 80mm dia with a length of 900m. The total length of the main pipe is 750m, the sub-main 1100m, and the laterals 3800m.  

Sensitivity Analysis of the Study
Figure 2: Sensitivity Analysis of the Study 

The lift irrigation project proposed for the command area near Rangun Khola is expected to cost NPR 15,136,000.00. The economic viability of the project has been evaluated using several parameters. The Benefit Cost Ratio (BCR) of the project at 10% and 12% discount rates are computed to be 1.91 and 1.66, respectively, indicating that the project is economically feasible. The Economic Internal Rate of Return (EIRR) of the project is computed to be 19.91%, which is considered good. The cost analysis also considered different scenarios, such as a cost increase of 10%, a benefit decrease of 10%, and a combination of both, and the BCR values were still greater than one in all cases, indicating that the project is viable. Overall, the lift irrigation project is expected to have good economic returns and would benefit the farmers in the command area.  

Conclusion  

The Bhabar Lift Irrigation Project aims to provide reliable lift and distribution systems to the area as it lacks any irrigation facility, leading to low productivity. To guarantee the successful implementation of the project, special attention needs to be paid to the following risk factors: extended or prolonged implementation, decreased or delayed benefits, lack of coordination between beneficiaries and government organizations, inadequate agricultural support programs, and inadequate operation and maintenance. Therefore, the institutional development aspects should be implemented from the beginning of the project, including beneficiary participation, setting up of Water Users’ Organizations, female participation in the WUAs, and setting up of a Steering Committee to coordinate the different aspects of irrigated agriculture.  

Overall, the Bhabar Lift Irrigation Project is technically feasible, economically viable, socially acceptable, and environmentally friendly. Thus, the project is recommended for implementation. It has the potential to not only increase productivity and benefit the farmers but also promote institutional and social development in the region.  

References   

  • Pradhan, Prachanda & Belbase, Madhav. (2018). Institutional Reforms in Irrigation Sector for Sustainable Agriculture Water Management including Water Users Associations in Nepal. Hydro Nepal: Journal of Water, Energy, and Environment. 23. 58. 10.3126/hn.v23i0.20827.   

  • Sugden,  Fraser.   (2016).   Indigenous  rrigation  systems  in  Bajhang,   Nepal. 10.13140/RG.2.1.4203.8163.   

  • Poudel, Krishna & Sharma, Suresh. (2012). Small Irrigation Systems in Nepal: An Analytical Preview from Irrigated Agricultural Development Perspective of Batch I Irrigation Sub-projects under Community Managed Irrigated Agriculture Sector Project.   

  • Adhikari, Basistha. (2016). Design of Water Distribution System: Appropriateness of Structured System in Large Irrigation Projects in Nepal. Hydro Nepal: Journal of Water, Energy, and Environment. 19. 25. 10.3126/ hn.v19i0.15348.   

  • Department of Water Resources and Irrigation (2017).about background.Ministry of Energy, Water Resource and Irrigation. https://dwri.gov.np/about/background   

  • Department  of  Local  Infrastructure  Development  and  Agricultural  Roads,  DoLIDAR(2014).Design Manual for Small Scale Irrigation Scheme.Ministry of Federal Affairs and Local Development. www.dolidar.gov.np   Department of Irrigation(2013).Design Manuals for Irrigation Projects in Nepal: M.3 Hydrology and Agrometeorology Manual.Planning and Design Strengthening Project.United Nations Development Programme.   

  • CropWat. (n.d.). Food and Agriculture Organization of the United Nations. Retrieved February 10, 2020, from http://www.fao.org/land-water/databases-and-software/cropwat/en/   

  • Regulations. (1999.). Water and Energy Commission Secretariat. Retrieved April 4, 2020, from https:// wecs.gov.np/pages/regulations   

  • Rajouria, Dinesh & Aryal, Padma. (2012). Enhancing Water Productivity in Agriculture at Fokshingkot Lift Irrigation System. Hydro Nepal: Journal of Water, Energy, and Environment. 10.   

  • 10.3126/hn.v10i0.7100.   

  • Ruwali, Ashish & Ghimire, Rajib & Nepal, Sagar & Gautam, Shasit & Kc, Subin & Dhakal, Sudip  & Parajuli, Sandeep & Mishra, Anjay. (2022). Assessing the Operation Management: A Case of  Narayani Lift Irrigation System, Nepal. 3-4. 10.24321/2455.3190.202201.

This is the web copy of an article that was originally published in the print version of '
The agrineer 2023' - Annual Magazine.