100 từ vựng và cụm từ vựng tiếng Anh về ngành nghề Quản lý dự án xây dựng công trình thủy điện

Bài viết này tổng hợp 100 từ vựng và cụm từ tiếng Anh quan trọng liên quan đến ngành nghề Quản lý dự án xây dựng công trình thủy điện. Những thuật ngữ chuyên ngành này sẽ giúp bạn nắm vững kiến thức chuyên môn, giao tiếp hiệu quả trong công việc, và nâng cao khả năng sử dụng tiếng Anh trong lĩnh vực này.

Từ vựng nghề Quản lý dự án xây dựng công trình thủy điện

Hydropower Project Management – Quản lý dự án thủy điện
Dam Construction – Xây dựng đập
Hydroelectric Power Plant – Nhà máy điện thủy điện
Water Flow Analysis – Phân tích dòng chảy nước
Turbine Installation – Lắp đặt tuabin
Reservoir Management – Quản lý hồ chứa
Power Generation – Sản xuất điện
Civil Engineering – Kỹ thuật dân dụng
Hydrology Study – Nghiên cứu thủy văn
Construction Planning – Lập kế hoạch xây dựng
Site Surveying – Khảo sát hiện trường
Project Feasibility Study – Nghiên cứu khả thi dự án
Flood Control – Kiểm soát lũ
Environmental Impact Assessment (EIA) – Đánh giá tác động môi trường
Engineering Design – Thiết kế kỹ thuật
Infrastructure Development – Phát triển cơ sở hạ tầng
Safety Management – Quản lý an toàn
Cost Estimation – Dự toán chi phí
Project Scheduling – Lên lịch dự án
Risk Management – Quản lý rủi ro
Contract Management – Quản lý hợp đồng
Resource Allocation – Phân bổ tài nguyên
Quality Control – Kiểm soát chất lượng
Construction Supervision – Giám sát xây dựng
Hydraulic Engineering – Kỹ thuật thủy lực
Turbine Testing – Kiểm tra tuabin
Dam Safety – An toàn đập
Permit Acquisition – Xin giấy phép
Maintenance Planning – Lập kế hoạch bảo trì
Water Resource Management – Quản lý tài nguyên nước
Project Budgeting – Lập ngân sách dự án
Energy Efficiency – Hiệu suất năng lượng
Engineering Survey – Khảo sát kỹ thuật
Contract Negotiation – Đàm phán hợp đồng
Construction Materials – Vật liệu xây dựng
Mechanical Systems – Hệ thống cơ khí
Electrical Systems – Hệ thống điện
Operational Testing – Kiểm tra hoạt động
Site Development – Phát triển khu vực
Civil Works – Công trình dân dụng
Hydropower Plant Design – Thiết kế nhà máy thủy điện
Water Intake Structure – Công trình lấy nước
Flood Risk Assessment – Đánh giá rủi ro lũ
Dam Design – Thiết kế đập
Environmental Compliance – Tuân thủ môi trường
Energy Production – Sản xuất năng lượng
Infrastructure Maintenance – Bảo trì cơ sở hạ tầng
Project Documentation – Hồ sơ dự án
Sustainable Development – Phát triển bền vững
Construction Safety – An toàn xây dựng
Hydropower Efficiency – Hiệu suất thủy điện
Flow Measurement – Đo lưu lượng nước
Erosion Control – Kiểm soát xói mòn
Regulatory Requirements – Các yêu cầu quy định
Flood Management – Quản lý lũ
Project Implementation – Thực hiện dự án
Water Conservation – Bảo tồn nước
Hydraulic Modeling – Mô hình hóa thủy lực
Turbine Maintenance – Bảo trì tuabin
Energy Storage – Lưu trữ năng lượng
Floodplain Mapping – Lập bản đồ vùng lũ
Construction Techniques – Kỹ thuật xây dựng
Dam Monitoring – Giám sát đập
Power Distribution – Phân phối điện
Construction Budget – Ngân sách xây dựng
Environmental Protection – Bảo vệ môi trường
Project Evaluation – Đánh giá dự án
Water Treatment – Xử lý nước
Structural Integrity – Độ bền cấu trúc
Safety Standards – Tiêu chuẩn an toàn
Regulatory Compliance – Tuân thủ quy định
Power Output – Công suất điện
Site Preparation – Chuẩn bị hiện trường
Construction Oversight – Giám sát xây dựng
Energy Demand Forecasting – Dự báo nhu cầu năng lượng
Cost Control – Kiểm soát chi phí
Hydraulic Systems – Hệ thống thủy lực
Construction Project Management – Quản lý dự án xây dựng
Environmental Regulations – Quy định môi trường
Power Plant Operations – Vận hành nhà máy điện
Dam Construction Materials – Vật liệu xây dựng đập
Hydropower Feasibility – Khả thi thủy điện
Flood Protection Measures – Biện pháp bảo vệ lũ
Site Analysis – Phân tích hiện trường
Energy Generation – Tạo ra năng lượng
Project Planning – Lập kế hoạch dự án
Turbine Efficiency – Hiệu suất tuabin
Water Supply Systems – Hệ thống cung cấp nước
Operational Efficiency – Hiệu quả vận hành
Construction Workflow – Quy trình xây dựng
Structural Design – Thiết kế cấu trúc
Hydropower Development – Phát triển thủy điện
Construction Challenges – Thách thức xây dựng
Energy Transmission – Truyền tải năng lượng
Safety Protocols – Quy trình an toàn
Project Coordination – Phối hợp dự án
Water Flow Management – Quản lý dòng chảy nước
Environmental Impact – Tác động môi trường
Risk Assessment Plan – Kế hoạch đánh giá rủi ro
Project Completion – Hoàn thành dự án

Bài viết sử dụng thuật ngữ trên

Hydropower Project Management: Effective hydropower project management ensures timely completion and adherence to budget.
Dam Construction: Dam construction requires careful planning and engineering to ensure structural integrity.
Hydroelectric Power Plant: The hydroelectric power plant was designed to maximize energy production from the river.
Water Flow Analysis: Accurate water flow analysis is crucial for determining the optimal location for a hydroelectric facility.
Turbine Installation: Turbine installation must be performed with precision to ensure optimal performance.
Reservoir Management: Reservoir management involves regulating water levels to balance power generation and environmental needs.
Power Generation: The primary goal of the project is to increase power generation from renewable sources.
Civil Engineering: Civil engineering expertise is essential for the design and construction of dam structures.
Hydrology Study: A detailed hydrology study was conducted to predict the river’s behavior during different seasons.
Construction Planning: Construction planning involves outlining the phases and timeline for the project.
Site Surveying: Site surveying helps determine the most suitable location for the dam and associated infrastructure.
Project Feasibility Study: The project feasibility study provided insights into the economic and technical viability of the hydroelectric plant.
Flood Control: Implementing flood control measures is critical to protect surrounding areas from potential flood damage.
Environmental Impact Assessment (EIA): An environmental impact assessment (EIA) was required to evaluate the potential effects of the project on local wildlife.
Engineering Design: The engineering design team developed detailed blueprints for the dam and power generation systems.
Infrastructure Development: Infrastructure development includes constructing access roads and facilities for the project.
Safety Management: Safety management practices are essential to minimize risks on the construction site.
Cost Estimation: Accurate cost estimation helps in budgeting and financial planning for the project.
Project Scheduling: Project scheduling outlines the timeline for each phase of the construction process.
Risk Management: Effective risk management identifies potential issues and prepares mitigation strategies.
Contract Management: Contract management involves overseeing agreements with suppliers and contractors.
Resource Allocation: Proper resource allocation ensures that materials and labor are used efficiently throughout the project.
Quality Control: Quality control measures are implemented to ensure that construction meets the required standards.
Construction Supervision: Construction supervision ensures that the project is built according to design specifications.
Hydraulic Engineering: Hydraulic engineering is crucial for designing systems that manage water flow and pressure.
Turbine Testing: Turbine testing verifies that each unit performs efficiently before being installed in the plant.
Dam Safety: Regular inspections and maintenance are required to ensure dam safety and prevent failures.
Permit Acquisition: Obtaining necessary permits is a critical step before beginning construction on the hydroelectric project.
Maintenance Planning: Maintenance planning ensures that the facility remains operational and efficient over time.
Water Resource Management: Water resource management involves balancing the needs of power generation with environmental conservation.
Project Budgeting: Project budgeting involves estimating costs and managing finances throughout the construction phase.
Energy Efficiency: Increasing energy efficiency reduces operational costs and environmental impact.
Engineering Survey: An engineering survey is conducted to assess the suitability of the construction site.
Contract Negotiation: Contract negotiation ensures that all parties agree on terms and conditions before work begins.
Construction Materials: Selecting the right construction materials is essential for the durability and safety of the dam.
Mechanical Systems: Mechanical systems, including turbines and pumps, are integral to the power generation process.
Electrical Systems: Electrical systems manage the distribution of power generated by the hydroelectric plant.
Operational Testing: Operational testing confirms that all systems function correctly before the plant becomes fully operational.
Site Development: Site development includes clearing land and preparing it for construction activities.
Civil Works: Civil works encompass all construction activities related to the dam and supporting infrastructure.
Hydropower Plant Design: The hydropower plant design integrates various components to maximize efficiency and output.
Water Intake Structure: The water intake structure channels water from the river into the turbines for power generation.
Flood Risk Assessment: A flood risk assessment evaluates the potential for flooding and its impact on the surrounding area.
Dam Design: The dam design process includes engineering calculations to ensure structural stability and safety.
Environmental Compliance: Environmental compliance ensures that construction activities meet regulatory requirements.
Energy Production: Energy production from the hydroelectric plant contributes significantly to the local power grid.
Infrastructure Maintenance: Regular infrastructure maintenance is necessary to keep the dam and related systems in good working condition.
Project Documentation: Project documentation includes all records and reports related to the construction and operation of the facility.
Sustainable Development: Sustainable development practices are applied to minimize the environmental impact of the project.
Construction Safety: Implementing construction safety measures helps prevent accidents and injuries on site.
Hydropower Efficiency: Improving hydropower efficiency enhances the overall performance of the plant.
Flow Measurement: Flow measurement instruments are used to monitor water flow rates and adjust operations accordingly.
Erosion Control: Erosion control techniques prevent soil erosion around the construction site and downstream.
Regulatory Requirements: Adhering to regulatory requirements ensures that the project complies with all legal standards.
Flood Management: Flood management strategies are implemented to control water levels and mitigate flood risks.
Project Implementation: Project implementation involves executing the construction plan and achieving project milestones.
Water Conservation: Water conservation efforts are integrated into the project to preserve local water resources.
Hydraulic Modeling: Hydraulic modeling helps predict how water flow will behave under different conditions.
Turbine Maintenance: Routine turbine maintenance is essential to ensure long-term operational efficiency.
Energy Storage: Energy storage systems are used to store excess power generated during peak production periods.
Floodplain Mapping: Floodplain mapping provides information on areas prone to flooding and guides construction planning.
Construction Techniques: Advanced construction techniques are employed to enhance the efficiency and safety of the project.
Dam Monitoring: Continuous dam monitoring helps detect any potential issues and ensures structural integrity.
Power Distribution: Power distribution systems manage the delivery of electricity from the plant to the grid.
Construction Budget: Keeping track of the construction budget helps control costs and prevent overspending.
Environmental Protection: Environmental protection measures are put in place to minimize the ecological impact of the project.
Project Evaluation: Project evaluation assesses the success of the project and identifies areas for improvement.
Water Treatment: Water treatment processes ensure that the water used in the facility meets quality standards.
Structural Integrity: Ensuring structural integrity is vital for the safety and longevity of the dam.
Safety Standards: Adhering to safety standards helps prevent accidents and ensures compliance with regulations.
Regulatory Compliance: Regulatory compliance involves following all applicable laws and guidelines during construction.
Power Output: Monitoring power output ensures that the plant operates efficiently and meets production goals.
Site Preparation: Site preparation involves clearing and grading the land before construction begins.
Construction Oversight: Construction oversight ensures that all work is performed according to design specifications and safety standards.
Energy Demand Forecasting: Energy demand forecasting helps plan for future energy needs and adjust production levels.
Cost Control: Cost control measures are implemented to keep the project within budget and prevent unnecessary expenses.
Hydraulic Systems: Hydraulic systems are used to manage water flow and pressure within the plant.
Construction Project Management: Construction project management involves coordinating all aspects of the project from start to finish.
Environmental Regulations: Compliance with environmental regulations is necessary to protect natural resources and habitats.
Power Plant Operations: Power plant operations include the day-to-day activities required to generate and distribute electricity.
Dam Construction Materials: Selecting high-quality dam construction materials ensures durability and safety.
Hydropower Feasibility: Assessing hydropower feasibility determines if the project is economically and technically viable.
Flood Protection Measures: Implementing flood protection measures helps safeguard against potential flood damage.
Site Analysis: Site analysis evaluates the characteristics of the location to ensure it is suitable for the project.
Energy Generation: The energy generation capacity of the plant is a key factor in meeting local electricity needs.
Project Planning: Project planning involves developing a detailed strategy for all phases of construction.
Turbine Efficiency: Maximizing turbine efficiency increases the overall productivity of the power plant.
Water Supply Systems: Water supply systems ensure a reliable source of water for the plant’s operations

Operational Efficiency: Improving operational efficiency helps reduce costs and enhance the performance of the hydroelectric facility.
Construction Workflow: Establishing an efficient construction workflow ensures that each task is completed in the proper sequence.
Structural Design: The structural design of the dam must withstand environmental pressures and provide stability.
Hydropower Development: Hydropower development focuses on harnessing water resources to generate clean energy.
Construction Challenges: Addressing construction challenges promptly helps keep the project on track and within budget.
Energy Transmission: Energy transmission systems deliver electricity from the power plant to end-users.
Safety Protocols: Implementing safety protocols ensures the well-being of workers and compliance with safety regulations.
Project Coordination: Project coordination involves managing various teams and resources to achieve project goals.
Water Flow Management: Effective water flow management is critical for optimizing power generation and controlling flood risks.
Environmental Impact: Assessing the environmental impact of the project helps mitigate negative effects on local ecosystems.
Risk Assessment Plan: A risk assessment plan identifies potential issues and outlines strategies for managing them.
Project Completion: Successful project completion involves finalizing construction, testing systems, and ensuring all objectives are met.

Bài tập

Effective ________ ensures timely completion and adherence to budget.
________ requires careful planning and engineering to ensure structural integrity.
The ________ was designed to maximize energy production from the river.
Accurate ________ is crucial for determining the optimal location for a hydroelectric facility.
________ must be performed with precision to ensure optimal performance.
________ involves regulating water levels to balance power generation and environmental needs.
The primary goal of the project is to increase ________ from renewable sources.
________ expertise is essential for the design and construction of dam structures.
A detailed ________ was conducted to predict the river’s behavior during different seasons.
________ involves outlining the phases and timeline for the project.
________ helps determine the most suitable location for the dam and associated infrastructure.
The ________ provided insights into the economic and technical viability of the hydroelectric plant.
Implementing ________ measures is critical to protect surrounding areas from potential flood damage.
An ________ was required to evaluate the potential effects of the project on local wildlife.
The ________ team developed detailed blueprints for the dam and power generation systems.
________ includes constructing access roads and facilities for the project.
________ practices are essential to minimize risks on the construction site.
Accurate ________ helps in budgeting and financial planning for the project.
________ outlines the timeline for each phase of the construction process.
Effective ________ identifies potential issues and prepares mitigation strategies.
________ involves overseeing agreements with suppliers and contractors.
Proper ________ ensures that materials and labor are used efficiently throughout the project.
________ measures are implemented to ensure that construction meets the required standards.
________ ensures that the project is built according to design specifications.
________ is crucial for designing systems that manage water flow and pressure.
________ verifies that each unit performs efficiently before being installed in the plant.
Regular inspections and maintenance are required to ensure ________ and prevent failures.
Obtaining necessary ________ is a critical step before beginning construction on the hydroelectric project.
________ ensures that the facility remains operational and efficient over time.
________ involves balancing the needs of power generation with environmental conservation.
________ involves estimating costs and managing finances throughout the construction phase.
Increasing ________ reduces operational costs and environmental impact.
An ________ is conducted to assess the suitability of the construction site.
________ ensures that all parties agree on terms and conditions before work begins.
Selecting the right ________ is essential for the durability and safety of the dam.
________, including turbines and pumps, are integral to the power generation process.
________ manage the distribution of power generated by the hydroelectric plant.
________ confirms that all systems function correctly before the plant becomes fully operational.
________ includes clearing land and preparing it for construction activities.
________ encompasses all construction activities related to the dam and supporting infrastructure.
The ________ integrates various components to maximize efficiency and output.
The ________ channels water from the river into the turbines for power generation.
A ________ evaluates the potential for flooding and its impact on the surrounding area.
The ________ process includes engineering calculations to ensure structural stability and safety.
________ ensures that construction activities meet regulatory requirements.
The ________ from the hydroelectric plant contributes significantly to the local power grid.
Regular ________ is necessary to keep the dam and related systems in good working condition.
________ includes all records and reports related to the construction and operation of the facility.
________ practices are applied to minimize the environmental impact of the project.
Implementing ________ helps prevent accidents and injuries on site.
Improving ________ enhances the overall performance of the plant.
________ instruments are used to monitor water flow rates and adjust operations accordingly.
________ techniques prevent soil erosion around the construction site and downstream.
Adhering to ________ ensures that the project complies with all legal standards.
________ strategies are implemented to control water levels and mitigate flood risks.
________ involves executing the construction plan and achieving project milestones.
________ efforts are integrated into the project to preserve local water resources.
________ helps predict how water flow will behave under different conditions.
Routine ________ is essential to ensure long-term operational efficiency.
________ systems are used to store excess power generated during peak production periods.
________ provides information on areas prone to flooding and guides construction planning.
Advanced ________ are employed to enhance the efficiency and safety of the project.
Continuous ________ helps detect any potential issues and ensures structural integrity.
________ manage the delivery of electricity from the plant to the grid.
Keeping track of the ________ helps control costs and prevent overspending.
________ measures are put in place to minimize the ecological impact of the project.
________ assesses the success of the project and identifies areas for improvement.
________ processes ensure that the water used in the facility meets quality standards.
Ensuring ________ is vital for the safety and longevity of the dam.
Adhering to ________ helps prevent accidents and ensures compliance with regulations.
________ involves following all applicable laws and guidelines during construction.
Monitoring ________ ensures that the plant operates efficiently and meets production goals.
________ involves clearing and grading the land before construction begins.
________ ensures that all work is performed according to design specifications and safety standards.
________ helps plan for future energy needs and adjust production levels.
________ measures are implemented to keep the project within budget and prevent unnecessary expenses.
________ are used to manage water flow and pressure within the plant.
________ involves coordinating all aspects of the project from start to finish.
Compliance with ________ is necessary to protect natural resources and habitats.
________ includes the day-to-day activities required to generate and distribute electricity.
Selecting high-quality ________ ensures durability and safety.
Assessing ________ determines if the project is economically and technically viable.
Implementing ________ helps safeguard against potential flood damage.
________ evaluates the characteristics of the location to ensure it is suitable for the project.
The ________ capacity of the plant is a key factor in meeting local electricity needs.
________ involves developing a detailed strategy for all phases of construction.
Maximizing ________ increases the overall productivity of the power plant.
________ ensure a reliable source of water for the plant’s operations.
Improving ________ helps reduce costs and enhance the performance of the hydroelectric facility.
Establishing an efficient ________ ensures that each task is completed in the proper sequence.
The ________ of the dam must withstand environmental pressures and provide stability.
________ focuses on harnessing water resources to generate clean energy.
Addressing ________ promptly helps keep the project on track and within budget.
________ systems deliver electricity from the power plant to end-users.
Implementing ________ ensures the well-being of workers and compliance with safety regulations.
________ involves managing various teams and resources to achieve project goals.
Effective ________ is critical for optimizing power generation and controlling flood risks.
Assessing the ________ of the project helps mitigate negative effects on local ecosystems.
A ________ identifies potential issues and outlines strategies for managing them.
Successful ________ involves finalizing construction, testing systems, and ensuring all objectives are met.