This training program is a one-week (40 hr.) course designed to provide or enhance the required skills of an individual currently in or seeking a career in Manufacturing.
BACKGROUND
Training individuals in the skills needed to be successful in the manufacturing trades is crucial for several reasons:
1. Safety
Minimizing Risks: Machining involves the use of heavy machinery, sharp tools, and hazardous materials. Proper training ensures that individuals understand safety protocols, which helps minimize the risk of accidents and injuries.
Compliance with Regulations: Training ensures that workers are familiar with workplace safety regulations and standards, such as those set by OSHA. This compliance is essential for legal and ethical reasons and helps maintain a safe working environment.
2. Quality and Precision
Achieving High Standards: Machining often requires high levels of precision and accuracy. Proper training equips individuals with the skills to produce parts that meet exact specifications, which is vital for industries like aerospace, automotive, and medical device manufacturing, where quality is paramount.
Reducing Errors and Waste: Skilled machinists can minimize errors and scrap, leading to more efficient use of materials and resources. This not only improves product quality but also reduces costs associated with rework and material waste.
3. Productivity and Efficiency
Optimizing Operations: Training enables machinists to operate equipment efficiently and understand the most effective ways to perform tasks. This boosts productivity by reducing downtime and improving the flow of production.
Adapting to Advanced Technologies: The machining industry is continuously evolving with advancements in technology, such as CNC machines and automation. Well-trained individuals are better equipped to adapt to these changes and utilize new technologies effectively.
4. Competitiveness
Meeting Industry Demands: The manufacturing sector is highly competitive, and companies need skilled workers to stay ahead. By training individuals in essential machining skills, companies can maintain a competitive edge by ensuring high-quality, efficient production.
Responding to Market Changes: Skilled machinists are more adaptable and can respond quickly to changes in market demands or customer requirements, providing a strategic advantage in a dynamic industry.
5. Career Development and Retention
Empowering Workers: Providing comprehensive training helps workers feel more competent and confident in their roles, leading to higher job satisfaction and motivation.
Career Growth: Training in machining skills opens up career opportunities for individuals, allowing them to advance to more specialized or supervisory roles. This not only benefits the workers but also contributes to building a more experienced and capable workforce.
Employee Retention: Companies that invest in training are more likely to retain employees, reducing turnover and the associated costs of hiring and training new staff.
6. Economic Impact
Supporting the Economy: The machining industry is a significant contributor to the economy, especially in manufacturing sectors that require skilled labor. Proper training ensures a steady supply of qualified workers, supporting the overall economic growth and stability of the manufacturing sector.
Addressing Skills Gaps: As the industry faces a growing skills gap due to retiring workers and technological advancements, training is essential to prepare a new generation of machinists, ensuring the sustainability of the industry.
7. Innovation and Problem-Solving
Encouraging Innovation: Skilled machinists are more likely to understand and contribute to innovative solutions in machining processes, materials, and techniques, driving the industry forward.
Effective Problem-Solving: Training fosters critical thinking and critical thinking skills, which are essential for diagnosing and fixing issues that arise during the machining process, thus maintaining continuous production and reducing downtime
Course Content:
Upon successful completion of this course, the student will be able
Define types of Machine Tools.
Understand the importance of Safety
Perform Technical Mathematics calculations.
Interpret detail and assembly drawings of tooling and related components.
Demonstrate applications of machining speeds and feeds.
Understand the machine tool coordinate system.
Interpret engineering data presented in graphs or charts, algebraic expressions, and proportional relationships.
Understand the correct use of basic hand tools, special accessories, and required testing equipment.
Understand the importance of a Quality Management System
Develop and utilize mathematical formulas to compute coordinates and solve machining related problems. (e)
Solve problems and make decisions using formal process methods. (e)
Solve mathematical problems related to CNC machining operations.
Course Outline: Essential Skills for the Manufacturing
Industry Module 1: Introduction to Machining
Overview of the Machining Industry
History and evolution of machining
Types of machining industries (e.g., automotive, aerospace, medical devices)
Key roles in machining (machinist, CNC operator, quality inspector, etc.)
Basics of Machining Processes
Understanding common machining processes (turning, milling, drilling, grinding)
Overview of material properties and selection
Introduction to machining terminology
Module 2: Machine Tools and Equipment
Introduction to Machine Tools
Overview of manual machines (lathes, mills, drills, grinders)
Overview of CNC machines and their components
Basic maintenance and troubleshooting of machines
Hand Tools and Measuring Instruments
Common hand tools used in machining (micrometers, calipers, gauges)
Proper use and care of measuring instruments
Calibration and accuracy checks
Module 3: Technical Drawing and Blueprint Reading
Understanding Engineering Drawings
Reading and interpreting technical drawings
Introduction to blueprints and schematics
Basic Geometric Dimensioning and Tolerancing (GD&T)
Dimensioning and Tolerances
Technical mathematics
Types of dimensions (linear, angular, etc.)
Tolerances and fits: importance in machining
Understanding symbols and notes on drawings
Module 4: CNC Programming and Operation
Introduction to CNC Machining
Overview of CNC technology and its applications
Understanding CNC machine coordinates and movements
CNC Programming Basics
Introduction to G-code and M-code
Basic programming for CNC operations (milling and turning)
Tool path creation and simulation
CNC Machine Operation
Setting up and operating CNC machines
Work holding techniques and fixtures
Tool selection and setup
Module 5: Machining Materials and Cutting Tools
Properties of Machining Materials
Common materials used in machining (metals, plastics, composites)
Material properties that affect machinability o Heat treatment and its impact on machining
Cutting Tools and Tooling Systems
Types of cutting tools (inserts, end mills, drills, taps)
Tool materials and coatings
Tool wear and tool life management
Module 6: Machining Processes and Techniques
Fundamentals of Machining Operations
Turning, facing, and boring operations
Milling operations (face milling, end milling, slotting)
Drilling, tapping, and threading operations
Advanced Machining Techniques
Grinding and finishing operations
Introduction to multi-axis machining
Special machining processes (EDM, laser cutting, waterjet cutting)
Module 7: Quality Control and Inspection
Introduction to Quality Standards
Overview of ISO standards and other quality systems
Key principles of quality control in machining
Inspection Techniques and Tools
Using precision measuring tools (CMM, surface roughness testers, profile projectors)
Conducting in-process and final inspections o Statistical Process Control (SPC) basic.
Root Cause Analysis and Problem Solving
Identifying and analyzing machining defects
Implementing corrective and preventive actions
Module 8: Safety in the Machining Environment
Workplace Safety in Machining
OSHA regulations and safety standards
Personal protective equipment (PPE) for machinists
Machine safety, emergency procedures, and risk management
Waste disposal and environmental considerations o Performing SPC and interpreting data for quality improvements
Essential Skills for the Manufacturing Industry
$ 1,799
Essential Skills for the Manufacturing Industry
Overview
This training program is a one-week (40 hr.) course designed to provide or enhance the required skills of an individual currently in or seeking a career in Manufacturing.
BACKGROUND
Training individuals in the skills needed to be successful in the manufacturing trades is crucial for several reasons:
1. Safety
Minimizing Risks: Machining involves the use of heavy machinery, sharp tools, and hazardous materials. Proper training ensures that individuals understand safety protocols, which helps minimize the risk of accidents and injuries.
Compliance with Regulations: Training ensures that workers are familiar with workplace safety regulations and standards, such as those set by OSHA. This compliance is essential for legal and ethical reasons and helps maintain a safe working environment.
2. Quality and Precision
Achieving High Standards: Machining often requires high levels of precision and accuracy. Proper training equips individuals with the skills to produce parts that meet exact specifications, which is vital for industries like aerospace, automotive, and medical device manufacturing, where quality is paramount.
Reducing Errors and Waste: Skilled machinists can minimize errors and scrap, leading to more efficient use of materials and resources. This not only improves product quality but also reduces costs associated with rework and material waste.
3. Productivity and Efficiency
Optimizing Operations: Training enables machinists to operate equipment efficiently and understand the most effective ways to perform tasks. This boosts productivity by reducing downtime and improving the flow of production.
Adapting to Advanced Technologies: The machining industry is continuously evolving with advancements in technology, such as CNC machines and automation. Well-trained individuals are better equipped to adapt to these changes and utilize new technologies effectively.
4. Competitiveness
Meeting Industry Demands: The manufacturing sector is highly competitive, and companies need skilled workers to stay ahead. By training individuals in essential machining skills, companies can maintain a competitive edge by ensuring high-quality, efficient production.
Responding to Market Changes: Skilled machinists are more adaptable and can respond quickly to changes in market demands or customer requirements, providing a strategic advantage in a dynamic industry.
5. Career Development and Retention
Empowering Workers: Providing comprehensive training helps workers feel more competent and confident in their roles, leading to higher job satisfaction and motivation.
Career Growth: Training in machining skills opens up career opportunities for individuals, allowing them to advance to more specialized or supervisory roles. This not only benefits the workers but also contributes to building a more experienced and capable workforce.
Employee Retention: Companies that invest in training are more likely to retain employees, reducing turnover and the associated costs of hiring and training new staff.
6. Economic Impact
Supporting the Economy: The machining industry is a significant contributor to the economy, especially in manufacturing sectors that require skilled labor. Proper training ensures a steady supply of qualified workers, supporting the overall economic growth and stability of the manufacturing sector.
Addressing Skills Gaps: As the industry faces a growing skills gap due to retiring workers and technological advancements, training is essential to prepare a new generation of machinists, ensuring the sustainability of the industry.
7. Innovation and Problem-Solving
Encouraging Innovation: Skilled machinists are more likely to understand and contribute to innovative solutions in machining processes, materials, and techniques, driving the industry forward.
Effective Problem-Solving: Training fosters critical thinking and critical thinking skills, which are essential for diagnosing and fixing issues that arise during the machining process, thus maintaining continuous production and reducing downtime
Course Content:
Upon successful completion of this course, the student will be able
Define types of Machine Tools.
Understand the importance of Safety
Perform Technical Mathematics calculations.
Interpret detail and assembly drawings of tooling and related components.
Demonstrate applications of machining speeds and feeds.
Understand the machine tool coordinate system.
Interpret engineering data presented in graphs or charts, algebraic expressions, and proportional relationships.
Understand the correct use of basic hand tools, special accessories, and required testing equipment.
Understand the importance of a Quality Management System
Develop and utilize mathematical formulas to compute coordinates and solve machining related problems. (e)
Solve problems and make decisions using formal process methods. (e)
Solve mathematical problems related to CNC machining operations.
Course Outline: Essential Skills for the Manufacturing
Industry Module 1: Introduction to Machining
Overview of the Machining Industry
History and evolution of machining
Types of machining industries (e.g., automotive, aerospace, medical devices)
Key roles in machining (machinist, CNC operator, quality inspector, etc.)
Basics of Machining Processes
Understanding common machining processes (turning, milling, drilling, grinding)
Overview of material properties and selection
Introduction to machining terminology
Module 2: Machine Tools and Equipment
Introduction to Machine Tools
Overview of manual machines (lathes, mills, drills, grinders)
Overview of CNC machines and their components
Basic maintenance and troubleshooting of machines
Hand Tools and Measuring Instruments
Common hand tools used in machining (micrometers, calipers, gauges)
Proper use and care of measuring instruments
Calibration and accuracy checks
Module 3: Technical Drawing and Blueprint Reading
Understanding Engineering Drawings
Reading and interpreting technical drawings
Introduction to blueprints and schematics
Basic Geometric Dimensioning and Tolerancing (GD&T)
Dimensioning and Tolerances
Technical mathematics
Types of dimensions (linear, angular, etc.)
Tolerances and fits: importance in machining
Understanding symbols and notes on drawings
Module 4: CNC Programming and Operation
Introduction to CNC Machining
Overview of CNC technology and its applications
Understanding CNC machine coordinates and movements
CNC Programming Basics
Introduction to G-code and M-code
Basic programming for CNC operations (milling and turning)
Tool path creation and simulation
CNC Machine Operation
Setting up and operating CNC machines
Work holding techniques and fixtures
Tool selection and setup
Module 5: Machining Materials and Cutting Tools
Properties of Machining Materials
Common materials used in machining (metals, plastics, composites)
Material properties that affect machinability o Heat treatment and its impact on machining
Cutting Tools and Tooling Systems
Types of cutting tools (inserts, end mills, drills, taps)
Tool materials and coatings
Tool wear and tool life management
Module 6: Machining Processes and Techniques
Fundamentals of Machining Operations
Turning, facing, and boring operations
Milling operations (face milling, end milling, slotting)
Drilling, tapping, and threading operations
Advanced Machining Techniques
Grinding and finishing operations
Introduction to multi-axis machining
Special machining processes (EDM, laser cutting, waterjet cutting)
Module 7: Quality Control and Inspection
Introduction to Quality Standards
Overview of ISO standards and other quality systems
Key principles of quality control in machining
Inspection Techniques and Tools
Using precision measuring tools (CMM, surface roughness testers, profile projectors)
Conducting in-process and final inspections o Statistical Process Control (SPC) basic.
Root Cause Analysis and Problem Solving
Identifying and analyzing machining defects
Implementing corrective and preventive actions
Module 8: Safety in the Machining Environment
Workplace Safety in Machining
OSHA regulations and safety standards
Personal protective equipment (PPE) for machinists
Machine safety, emergency procedures, and risk management
Training and Consulting since 1990 Trained in more than 250 companies across North America, and internationally, with clients ranging from large corporations to small businesses, including manufacturing companies and service providers (partial list):
Allison Gas Turbine
General Motors Corp.
American Axle & Mfg.
Philips Lighting
Central Foundry
Saturn Motor Corp.
Flint Engine
Delphi Corporation
United States Government
Eastman Kodak Company
Xerox Corporation
Gleasons
RIT
MCC
FLCC
GCC
Background:
Owner of Pace-a-tronics – tool and die company and CNC Manufacturing
Plant Manager of Trimatek – manufacturer of precision brake system components
PEN Associates, LLC Owner Director (Training and Consulting Firm)
Adjunct Instructor at Rochester Institute of Technology, Monroe Community College,
Education / Certifications:
B.S from State University of New York at Oswego
Graduate work at Rochester Institute of Technology
Tool and Die Apprenticeship at Eastman Kodak Company
Geometric Dimensioning and Tolerancing
Quality Management Systems Expert, certifying more than 70 companies to… ISO 9001, IATF16949, AS9100
Course Expertise:
Geometric Dimensioning and Tolerancing
All aspects of CNC Machining
All aspect of Lean Manufacturing
TPM
Management by Metrics
ISO 9001, AS9100, IATF 16949, ISO 14001, ISO13485
Blueprint, Mathematics, Metrology
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