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What is the capacity of the Upper Budhi Gandaki Hydropower Project, and at which locations is the project situated?
The Upper Budhi Gandaki Hydropower Project has a capacity of 254 MW and is located at Sirdibas, Uhiya, and Kerauja.
UPPER BUDHI GANDAKI HYDROPOWER PROJECT (Sirdibas, Uhiya, Kerauja) 254 MW DESK STUDY REPORT
factual
factual
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easy
What is the installed capacity and project type of the Upper Budhi Gandaki Hydropower Project, and where are its headworks and powerhouse sites located?
The Upper Budhi Gandaki Hydropower Project has an installed capacity of 254 MW and is a Run-off-the-River type project. Its headworks site is located at Sirdibas, Kerauja, and its powerhouse site is at Uiya, both in Gorkha district.
Salient Features: Project Name - Upper Budhi Gandaki Hydropower Project (254 MW); Type of Project - Run-off-the-River; Headworks site - Sirdibas, Kerauja; Powerhouse site - Uiya; District - Gorkha
salient_features
structured_extraction
easy
For the Upper Budhi Gandaki Hydropower Project (254 MW), describe the diversion weir and undersluice arrangement at the headworks, including the number of spillway gates and undersluice bays and their respective crest levels, and state how much lower the undersluice crest is compared to the spillway crest.
The diversion structure is a gated weir equipped with 4 spillway gates, with a spillway crest level of 1257.00 m. The undersluice has 1 bay with a crest level of 1252.00 m. The undersluice crest therefore sits 1257.00 m − 1252.00 m = 5.00 m below the spillway crest.
Diversion Weir – Type of weir: Gated Weir; No. of Spillway Gates: 4; Crest Level of the spillway: 1257.00 m. Undersluice – No. of bay: 1 No; Crest level of undersluice: 1252.00 m.
hydropower_headworks_design
calculation
medium
The Upper Budhi Gandaki Hydropower Project has 5 turbine units, each rated at 50.80 MW. Verify whether this configuration is consistent with the stated installed capacity of 254 MW.
Yes, the configuration is consistent. Installed capacity = number of units × capacity of each unit = 5 × 50.80 MW = 254.0 MW, which matches the stated installed capacity of 254 MW.
No. of unit: 5; Capacity of each unit: 50.80 MW; Installed Capacity: 254 MW
hydropower_engineering
calculation
medium
For the Upper Budhi Gandaki Hydropower Project (254 MW), calculate the total annual energy generation by adding the reported dry season and wet season energy values. Show the calculation and preserve units.
Total annual energy = Dry Season Energy + Wet Season Energy = 206.52 GWh + 1178.43 GWh = 1384.95 GWh. The project therefore generates 1384.95 GWh annually, with the wet season (1178.43 GWh) contributing substantially more than the dry season (206.52 GWh).
Energy Generation section of the UPPER BUDHI GANDAKI HYDROPOWER PROJECT (254MW) DESK STUDY REPORT: 'Dry Season Energy 206.52 GWh' and 'Wet Season Energy 1178.43 GWh'.
energy_generation
calculation
easy
Why does hydroelectricity serve only a small share of Nepal's population despite hydropower being the country's most abundant energy resource?
The source identifies one key reason: 80% of Nepal's land area comprises rugged hills and difficult mountain terrain with undeveloped road infrastructure and scattered households, which makes extension of the power grid difficult and costly. In addition, the large initial investment required for hydropower development ...
One reason for the low electrification of the country is that 80% of the country's land area comprise rugged hill, difficult mountain terrain with undeveloped road infrastructure, and scattered households making extension of power grid difficult and costly. ... due to large initial investment required for its developme...
hydropower
cause_effect
medium
Why is extension of the power grid difficult and costly in the country?
Grid extension is difficult and costly because a large portion of the country's land area comprises rugged hills and difficult mountain terrain with undeveloped road infrastructure, and households are scattered across the landscape. These conditions make physically connecting dispersed consumers to the grid both logist...
country's land area comprise rugged hill, difficult mountain terrain with undeveloped road infrastructure, and scattered households making extension of power grid difficult and costly.
hydropower
cause_effect
medium
According to the intent of study, what additional work is required to verify the findings of the preliminary study before the project can proceed to the 'Feasibility Study and Environmental Impact Assessment' level?
To verify the findings of the preliminary study, additional studies will be required. This would include visits to the site, survey of the area, and some field investigations in order to proceed the study to the 'Feasibility Study and Environmental Impact Assessment' level.
1.2. INTENT OF STUDY: To verify the findings of the preliminary study, additional studies will be required. This would include visits to site, survey of the area, and some field investigations to proceed the study to 'Feasibility Study and Environmental Impact Assessment' level.
hydropower_study_methodology
technical_explanation
medium
Describe the geographic location of the Upper Budhi Gandaki Hydropower Project, including the Village Development Committees it spans, its district and development region, its river bank position, its geographic coordinates, and its distance from the nearest road head.
Upper Budhi Gandaki Hydropower Project is a run-off-the-river type project located on the left bank of the Budhi Gandaki River. It is located in Sirdibas, Kerauja and Uiya Village Development Committees (VDCs) of Gorkha District, Central Development Region of Nepal. The proposed project lies at 84° 56' 56" E to 84° 51'...
Upper Budhi Gandaki Hydropower Project is a run-off-the-river type project located in Gorkha District in the Central Development Region of Nepal... The project area lies on the left bank of the Budhi Gandaki River. ... Upper Budhi Gandaki Hydropower Project is located in Sirdibas, Kerauja and Uiya Village Development C...
project_location
structured_extraction
medium
What road access works are required to reach the project area from the existing road network?
The nearest roadhead is at Soti, which is connected by a fair weather road. From Soti, a new access road must be constructed to the project area: approximately 14 km up to the powerhouse site and 17.5 km up to the intake site. In addition, a crossing over the Budhi Gandaki River is needed.
The nearest road head is at Soti which is a fair weather road. The access road from Soti to the project area need to be constructed which is 14 Km and 17.5 Km up to the Powerhouse site and Intake site of the project respectively and cross over Budhi Gandaki River is needed.
project_access_infrastructure
technical_explanation
medium
The Upper Budhi Gandaki Hydropower Project (UBGHP) intake is at an elevation of 1290.00 masl and the power house is at an elevation of 985.00 masl. What is the vertical drop (elevation difference) between the intake and the power house?
Vertical drop = 1290.00 masl − 985.00 masl = 305.00 m.
This project intake is at an elevation of 1290.00 masl and the power house at an elevation of 985.00 masl.
hydropower_engineering
calculation
easy
What is the current accessibility status of the Upper Budhi Gandaki Hydropower Project (UBGHP) sites, and what road works have been completed or are proposed to reach the powerhouse and intake sites?
The UBGHP is presently accessible only by fair weather motorable road up to Soti Khola; the powerhouse site and intake site are not accessible at present. An alignment survey from Soti Khola to Salleri Village of Sirdibas VDC has been completed, and the preliminary design drawing of the road is presented in the report....
The UBGHP is now accessible with fair weather motorable road up to Soti Khola. The powerhouse site and intake site not accessible at present but the alignment survey from Soti Khola to Salleri Village of Sirdibas VDC has been finished and drawing of preliminary design of the road has been presented in the report. The p...
hydropower_project_infrastructure
synthesis
medium
What is the main objective of the topographical survey works for the Upper Budhi Gandaki Hydropower Project, and where are the project headworks located?
The main objective of the survey works is to prepare topographical maps of the project area for siting major components of the project such as the headworks, headrace, surge shaft, powerhouse and tailrace. The project area comprises the headworks at Yaru of Uiya VDC in Gorkha District.
"The main objective of the survey works is to prepare topographical maps of the project area for sitting major components of the project such as headworks, headrace, surge shaft, powerhouse and tailrace." and "The project area comprises headworks at Yaru of Uiya VDC in Gorkha District."
topographical_survey
technical_explanation
medium
What is the status of previous geological studies for the Upper Budhi Gandaki Hydropower Project area, and what source was used to obtain regional geological information?
Geological studies of the project area for hydropower purposes have not been carried out so far. However, information regarding the regional geology of the project area was obtained from the geological map of Central Nepal at a scale of 1:250,000, prepared by the United Nations for the Government of Nepal under the Min...
The geological studies of the project area for the hydropower purposes have not been carried out so far now. However, the information regarding the regional geology of the project area was obtained from the geological map of Central Nepal at a scale of 1:250,000 prepared by United nations for the Government of Nepal un...
geology
factual
medium
Describe the lithology of the Budhi Gandaki River Basin from south to north, naming each formation/group and its principal rock types.
From south to north, the lithology of the Budhi Gandaki River Basin comprises three units: (1) Ranimatta Formation – mainly grey-greenish phyllite with interbedding of conglomerates and massive quartzite beds; (2) Ghanpokhara Formation – mainly black to grey slates and green shales, which also includes white-grey dolom...
Ranimatta Formation: Comprises mainly of Grey – Greenish Phyllite with interbedding of conglomerates and massive quartzite beds. Ghanpokhara Formation: Comprised mainly of black to grey, slates and green shales. It also comprises white – grey dolomite and limestone with interbedding of shale beds. Himal Group: Comprise...
geology
structured_extraction
medium

Budhi-Gandaki-Hydropower

Made with ❤️ using 🦥 Unsloth Studio

dataset_hydropower2 was generated with Unsloth Recipe Studio. It contains 20 generated records.


🚀 Quick Start

from datasets import load_dataset

# Load the main dataset
dataset = load_dataset("Binoddai/budhi-gandaki-hydropower", "data", split="train")
df = dataset.to_pandas()

📊 Dataset Summary

  • 📈 Records: 20
  • 📋 Columns: 6

📋 Schema & Statistics

Column Type Column Type Unique (%) Null (%) Details
instruction string expression 16 (80.0%) 0 (0.0%) -
output string expression 16 (80.0%) 0 (0.0%) -
evidence string expression 16 (80.0%) 0 (0.0%) -
category string expression 13 (65.0%) 0 (0.0%) -
task_type string expression 7 (35.0%) 0 (0.0%) -
difficulty string expression 2 (10.0%) 0 (0.0%) -

⚙️ Generation Details

Generated with 9 column configuration(s):

  • expression: 6 column(s)

  • llm-structured: 1 column(s)

  • seed-dataset: 2 column(s)

📄 Full configuration available in builder_config.json and detailed metadata in metadata.json.


📚 Citation

If you use Data Designer in your work, please cite the project as follows:

@misc{nemo-data-designer,
  author = {The NeMo Data Designer Team, NVIDIA},
  title = {NeMo Data Designer: A framework for generating synthetic data from scratch or based on your own seed data},
  howpublished = {\url{https://github.com/NVIDIA-NeMo/DataDesigner}},
  year = 2026,
  note = {GitHub Repository},
}

💡 About NeMo Data Designer

NeMo Data Designer is a general framework for generating high-quality synthetic data that goes beyond simple LLM prompting. It provides:

  • Diverse data generation using statistical samplers, LLMs, or existing seed datasets
  • Relationship control between fields with dependency-aware generation
  • Quality validation with built-in Python, SQL, and custom local and remote validators
  • LLM-as-a-judge scoring for quality assessment
  • Fast iteration with preview mode before full-scale generation

For more information, visit: https://github.com/NVIDIA-NeMo/DataDesigner (pip install data-designer)

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