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PTInternational LLC  Semiconductor Training
a SEMI U Training Partner!

Sustainability in Semiconductor Wafer Processing

                                8-Hour Course

Target Audience:
- New professionals in the semiconductor industry
- Engineers with some experience in related fields looking to transition into semiconductor manufacturing
- Environmental, Health, and Safety (EHS) professionals in the semiconductor industry

Course Objectives:

- Understand the basic semiconductor wafer processing steps.
- Identify the major health hazards and environmental impacts associated with semiconductor manufacturing.
- Learn about the various gases, chemicals, water, and electricity that can be recovered and recycled.
- Develop strategies for improving sustainability in semiconductor wafer processing.
- Foster a culture of sustainability and environmental responsibility in the workplace.

 Attendees Will Learn:

- The fundamental steps involved in semiconductor wafer processing.
- Specific health hazards and environmental effects of semiconductor manufacturing.
- Techniques and technologies for reclaiming and recycling materials and resources.
- Best practices for reducing the environmental footprint of semiconductor fabs.

 Course Outline

Module 1: Introduction and Overview
- **1.1 Welcome and Course Introduction**
  - Overview of the course objectives and structure
  - Importance of sustainability in semiconductor manufacturing
- **1.2 Basics of Semiconductor Wafer Processing**
  - Introduction to semiconductor wafers
  - Key steps in semiconductor wafer processing: wafer fabrication, photolithography, etching, doping, deposition, and packaging

Module 2: Health Hazards in Semiconductor Manufacturing
- **2.1 Overview of Health Hazards**
  - Common health risks associated with semiconductor processing
- **2.2 Specific Health Hazards**
  - Exposure to hazardous chemicals (e.g., solvents, acids, gases)
  - Risks of particulate matter and nanomaterials
  - Physical hazards (e.g., radiation, noise)
- **2.3 Mitigation Strategies**
  - Personal protective equipment (PPE)
  - Engineering controls (ventilation, containment)
  - Health monitoring and safety protocols

**Module 3: Environmental Impacts
- **3.1 Environmental Effects of Semiconductor Manufacturing**
  - Air pollution (volatile organic compounds, greenhouse gases)
  - Water pollution (chemical runoff, waste treatment)
  - Solid waste generation (chemical containers, scrap materials)
- **3.2 Impact of Specific Processes**
  - Photolithography
  - Etching
  - Chemical Vapor Deposition (CVD)
  - Physical Vapor Deposition (PVD)
- **3.3 Mitigation and Management**
  - Environmental regulations and compliance
  - Environmental management systems (ISO 14001)

Module 4: Reclaiming and Recycling Gases, Chemicals, Water, and Electricity
- **4.1 Gases**
  - Overview of gases used in semiconductor manufacturing (e.g., nitrogen, hydrogen, helium, argon, silane)
  - Techniques for gas reclamation and recycling
- **4.2 Chemicals**
  - Overview of chemicals used (e.g., solvents, photoresists, acids)
  - Methods for reclaiming and recycling chemicals
- **4.3 Water**
  - Water usage in semiconductor fabs
  - Water recycling and reclamation techniques (e.g., ultra-pure water systems, wastewater treatment)
- **4.4 Electricity**
  - Energy consumption in semiconductor manufacturing
  - Energy-saving technologies and practices (e.g., energy-efficient equipment, renewable energy sources)

Module 5: Basic Semiconductor Wafer Processing Steps 
- **5.1 Wafer Fabrication**
  - Crystal growth and wafer slicing
  - Wafer cleaning and preparation
- **5.2 Photolithography**
  - Photoresist application
  - Exposure and development
- **5.3 Etching**
  - Wet etching
  - Dry etching (plasma etching)
- **5.4 Doping**
  - Diffusion
  - Ion implantation
- **5.5 Deposition**
  - Chemical Vapor Deposition (CVD)
  - Physical Vapor Deposition (PVD)
- **5.6 Packaging**
  - Die preparation
  - Wire bonding and encapsulation

Module 6: Strategies for Sustainable Manufacturing
- **6.1 Best Practices for Reducing Environmental Impact**
  - Design for the environment
  - Lean manufacturing principles
  - Green chemistry approaches
- **6.2 Case Studies and Examples**
  - Real-world examples of sustainable practices in semiconductor manufacturing
  - Lessons learned and successes

Module 7: Developing a Culture of Sustainability 
- **7.1 Creating Awareness and Engagement**
  - Training and education programs
  - Employee engagement strategies
- **7.2 Sustainability Leadership**
  - Role of leadership in driving sustainability
  - Establishing sustainability goals and metrics
- **7.3 Continuous Improvement**
  - Monitoring and evaluating sustainability performance
  - Implementing continuous improvement processes

Who Should Attend:
- New professionals entering the semiconductor industry
- Engineers transitioning to semiconductor manufacturing
- Environmental, Health, and Safety (EHS) professionals
- Managers and supervisors looking to implement sustainable practices

Learning Outcomes:
- Comprehensive understanding of the semiconductor wafer processing steps and associated sustainability issues
- Awareness of health hazards and environmental impacts in semiconductor manufacturing
- Knowledge of techniques for reclaiming and recycling gases, chemicals, water, and electricity
- Ability to develop and implement strategies for sustainable semiconductor manufacturing

This course will equip attendees with the necessary knowledge and skills to contribute to more sustainable practices in the semiconductor industry

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