System Architecture and Plant Layout(Feasibility Study/Basic Design/Detailed Design)

• According to the site map of the factory area and road traffic, total layout planning is carried out with production processes as the core consideration. Ensure the area and positioning of the main factory building, power station, and other auxiliary buildings, while considering the separation of pedestrian and vehicle traffic, as well as the logistics flow of goods, to enhance operational efficiency and safety, while also reserving flexible space for future expansion.

Mechanical and Electrical Integration Space Planning (Feasibility Study/Basic Design)

• ln the integrated layout of specialized pipelines to optimize space utilization, ensure clear ceiling heights in critical areas, and precisely coordinate pipeline routes and installation elevations. This will provide a safe, efficient, and maintainable electromechanical support environment for process production equipment and logistics operations.

Permit for Design Plans of Mechanical and Electrical Public Utility Systems:

• The scope includes the permit application for design plans for municipal power, potable water supply, plumbing drainage, telecommunications systems, and fire safety systems, as required by the relevant authorities for construction approval.

Tendering Planning & Tender Documentation Preparation(Detail Design)

• Prepare tender documents based on the owner's contracting strategy, including tender instructions, drawings, specifications, budgets, bid forms, subcontractor interfaces, etc.

Project Management & Construction Management

• To safeguard the owner's critical quality standards, responsible for supervising contractors' compliance with design drawings, on-site monitoring of construction quality, managing progress and budget, and ensuring that materials, construction methods, and outcomes fully adhere to design specifications and safety standards. Serving as a professional coordination and supervision bridge between the owner and the construction team.

HV Power Distribution System

• Analyze the overall electricity demand of the plant area, assess the total power load, and review and provide high-quality, high-stability power infrastructure solutions. This includes the plant's power system architecture, planning for high-voltage substations such as 161KV, 22.8KV and 11.4KV, as well as the distribution planning and design for 4.16KV high-voltage power equipment.

Electrical Power Distribution System

• To ensure the stable operation of process and facility equipment, the characteristics and requirements of all plant systems are analyzed to develop suitable power distribution solutions. These include lighting, power, air conditioning, fire protection power supply and distribution systems, control systems, lightning protection, grounding systems, electrical fire alarm systems, emergency power generation systems, uninterruptible power supply systems, as well as facility power distribution systems such as cleanroom lighting and power, primary power distribution for process equipment, and anti-static grounding systems.

Telecommunications and Low-Current Systems

• To ensure smooth communication, efficient data transmission, and personnel and production safety throughout the factory, and to provide a solid guarantee for the safety and convenience of the factory area. The intelligent weak current engineering of the entire factory includes comprehensive cabling system, telephone system, network system, security system, access control system, building automation system, radio system, broadcasting system, conference system, lighting control system, and planning and design of data center and weak current room.

Facility Monitoring and Control System

• To ensure a stable, safe, and efficient production environment, the factory will undergo automation and electromechanical integration, covering network architecture, server setup, PLC selection, integration of required I/O points, and related control panel planning. This includes the planning and design of systems such as FMCS monitoring, energy management, power monitoring, vibration monitoring, AMC monitoring, and operational management.

Building Interior Finishing System

• Responsible for the systematic design of the functional division and decoration of interior spaces of buildings, including the planning of interior partitions, layout of functional zones, and design of internal decoration plans for rooms, ensuring rational space utilization, meeting environmental usage requirements, and complying with relevant building and safety standards. This includes the systematic planning of ceilings, floors, partition walls, suspended ceiling transitions, and basic pipe ducts.

Cleanroom System

• Responsible for designing, optimizing, and maintaining constant temperature and humidity, positive pressure, and air cleanliness (such as ISO Class), managing key equipment such as FFU, high-efficiency filters, and air conditioning units, ensuring that environmental parameters continuously meet the stringent production requirements of industries like semiconductors and biopharmaceuticals.CR engineering includes equipment selection and layout (such as recirculating air handling units (AHU), fresh air handling units (MAU), fan filter units (FFU), dry coils, etc.), as well as ductwork and plumbing system schema, plan layout, and other details.

Air Conditioning System (HVAC)

• Responsible for the design and planning of air conditioning system for temperature-, humidity-, and ventilation-controlled rooms across the entire factory. This involves calculating cooling and heating loads based on outdoor meteorological parameters and indoor temperature/humidity requirements, then determining an optimized system solution that aligns with energy conservation, environmental protection, and workplace safety standards to meet the air conditioning and ventilation needs of all rooms.The scope  includes:Equipment selection and layout for utility systems (e.g., chillers, cooling towers, boilers, and water pumps in the central utility station);System schema design, pipeline routing, and terminal equipment specification (e.g., air handling units [AHUs], fan coil units [FCUs], and general ventilation/exhaust systems);Layout planning for air ducts, water piping systems, and overall floor plans.

Process Exhaust System

• Responsible for the design and planning of systems to treat exhaust  generated by production equipment and gaseous emissions from chemical process rooms. By integrating the emission concentration of process waste gases with relevant safety and environmental protection regulations, appropriate treatment systems are developed to ensure that process exhaust  concentrations meet regulatory emission standards.                                              Process exhaust system includes treatment methods, equipment selection and layout, system schema, pipeline routing planning, and other related aspects for various exhaust systems, such as acid exhaust, alkaline exhaust, organic exhaust, general exhaust, and dust exhaust systems

Process Supply System

• Responsible for the design and planning of various process support systems required for the normal and safe operation of production equipment during manufacturing processes, aiming to ensure the stability of required pressure and temperature conditions for such equipment.                                                      Process support system includes equipment selection and layout, system schema, pipeline routing planning, and other related aspects for various process support systems, such as dried compressed air systems, process vacuum systems, cleaning vacuum systems, and process cooling water systems.

UltraPure Water Treatment System(UPW)

• Pure water treatment system is a highly customized engineering project, with its process configuration determined by the end user's precise requirements. Based on the owner's water consumption and water quality standards, the pure water treatment process and solution are planned and designed, including equipment layout, selection of major components, pipeline sizing, material choices, and routing planning, etc

Wastewater Treatment System(WWT)

• Wastewater treatment system is a complex and critical environmental engineering facility. Depending on the different waste discharges from the owner's production lines, appropriate wastewater treatment processes are designed to classify and treat effluents, ensuring compliance with environmental discharge standards. This includes equipment layout, selection of major components, pipeline sizing, material choices, and routing planning, etc.

Recycled Water Treatment System

• Reclaimed water treatment system is no longer merely an end-of-pipe solution for pollution but serves as the starting point for water resource recycling, transforming wastewater into a valuable asset. Based on the varying waste discharges from the owner's production lines, tailored reclaimed water treatment processes are designed to classify and treat effluents, enabling reuse in applications such as pure water production and HVAC makeup water. This includes equipment layout, selection of major components, pipeline sizing, material choices, and routing planning, etc.

Bulk Gas System(BG)

• Bulk gas system serves as the "lifeline" of modern industries such as semiconductors and photovoltaics, making its reliability, safety, cost-effectiveness, and scalability critical to its design. Based on the owner's gas consumption and quality requirements, and in compliance with building codes and gas-related regulations, the bulk gas supply system is planned and designed. This includes equipment layout, selection of major components, pipeline sizing, material choices, and routing planning

Specialty Gas System(SG)

• Specialty gas system, characterized by its inherent high hazard potential, ultra-high purity requirements, and significant value, is a critical infrastructure in high-tech manufacturing sectors such as semiconductors, photovoltaics, and microelectronics. In accordance with the owner's gas consumption and quality specifications, as well as relevant building codes and gas safety regulations, the specialty gas supply system is meticulously designed. This encompasses equipment layout, selection of major components, pipeline sizing, material compatibility assessments, and detailed routing planning to ensure operational safety and reliability.

Chemical Supply System

• Chemical supply system is a complex integration of chemical processes, mechanical design, fluid dynamics, cleanroom technology, and high-precision automation control. It serves as another critical lifeline for high-tech manufacturing industries such as semiconductors, flat-panel displays, and photovoltaic cells. Based on the owner's chemical consumption and quality requirements, and in compliance with building codes and chemical-related regulations, the chemical supply system is meticulously planned and designed. This includes equipment layout, selection of major components, pipeline sizing, material compatibility assessments, and detailed routing planning to ensure operational safety, efficiency, and reliability.

Water Supply and Drainage System

• Design and plan the entire plant's water supply and drainage system to safely, reliably, and economically meet the water demands of buildings or zones, while properly managing wastewater treatment. This includes the following systems:Potable water system/Air conditioning makeup water system/Industrial process water system/Fire water supply system/Domestic sewage system/Wastewater system/Stormwater drainage system/Special drainage systemsThe scope covers process design, equipment layout, pipeline planning, as well as the preparation of material lists, design documents, and technical specifications.

Fire Protection System

• Plan and design the configuration and equipment selection for automatic fire alarm, fire suppression, smoke extraction, and other related systems in compliance with building codes, fire regulations, NFPA, UL/FM standards, and risk assessment requirements. Develop construction drawings and specifications, and coordinate with other engineering teams to ensure system effectiveness and safeguard life and property.This includes the design and planning of fire protection and smoke exhaust systems, sprinkler systems, gas-based fire suppression, foam-based fire suppression, indoor/outdoor fire hydrants, emergency lighting, fire broadcast systems, fire control systems, and very early warning smoke detection apparatus (VESDA), among others.

Hook Up Planning and Design

• Including the design process for pipeline planning from the primary side to the tool hook-up point and usage planning for various systems such as mechanical and electrical systems, ultra-pure water and wastewater systems, water supply systems, gasification systems, pumping lines, etc.; as well as the Bill of Materials (BOM) for hook-up connections and statistics on pipeline material quantities for each system.

Database Software Design for Hook Up

• Provides visual management of the drawing surface for secondary construction, visual data summary analysis, factory usage analysis, standardized definition of machine demand information, and offers owners reliable and trustworthy machine UM data for the future. The system incorporates functions such as intelligent pre-allocation of machines at designated points, pipeline load calculation, machine usage recording, and data verification.