Programs

TMEP Career Coaching is a part of TedMed Engineering Projects also know as TMEP Consulting

TedMed Engineering Project Consulting specializes in delivering expert project management and regulatory consulting services across the full spectrum of drug and medical device research and development. Our mission is to help life science organizations navigate the complex journey from concept to commercialization with precision, compliance, and confidence.

With over 18 years of industry experience, we bring deep expertise in regulatory affairs, validation, quality systems, and product development. Our team of PMP®-certified Project Managers and Certified Scrum Masters integrates traditional and agile methodologies to ensure efficient execution, risk mitigation, and successful project delivery — on time and in full compliance with global regulatory standards.

We partner with pharmaceutical, biotechnology, and medical device companies to provide strategic oversight, regulatory alignment, and technical leadership throughout each phase of the product lifecycle. From pre-clinical research and process validation to clinical trials and market approval, we ensure that every project meets the highest standards of quality, safety, and regulatory integrity.

Programs Offered:

Quality Assurance & Quality Control Training Program (QA/QC)

The QA/QC Program prepares professionals for careers in quality systems, compliance, and manufacturing oversight in regulated industries.

Students learn how organizations implement and maintain quality systems that comply with global regulatory standards such as U.S. Food and Drug Administration, International Organization for Standardization, and European Medicines Agency.

QA/QC 100 — Entry-Level Quality Foundations

Designed for beginners entering the life sciences or manufacturing industries.

Topics include:

• Introduction to Quality Systems

• Good Manufacturing Practice (GMP)

• Good Laboratory Practice (GLP)

• Good Clinical Practice (GCP)

• Document control and compliance

• Root cause analysis and CAPA

• Quality audits and inspection readiness

Career Outcomes

• Quality Associate

• Quality Technician

• Document Control Specialist

• Compliance Assistant

QA/QC 200 — Advanced Quality & Compliance

This program focuses on advanced regulatory quality systems and operational compliance.

Topics include:

• Quality Management Systems (QMS)

• Risk management and deviation investigations

• Audit preparation and inspection readiness

• Supplier quality management

• Change control systems

• Process validation oversight

• Data integrity and quality metrics

Career Outcomes

• Quality Specialist

• Compliance Specialist

• Quality Systems Analyst

• Internal Auditor

QA/QC 300 — Senior Quality Leadership

This advanced program prepares professionals for leadership roles in quality management.

Topics include:

• Global regulatory strategy

• Quality leadership and governance

• Enterprise QMS systems

• Regulatory inspections and enforcement

• Risk-based quality management

• Quality culture development

Career Outcomes:

• Senior Quality Engineer

• Quality Manager

• Compliance Director

• Head of Quality Systems

Validation Engineering Training Program

Validation engineers ensure equipment, systems, and processes meet regulatory requirements before being used in production or clinical environments.

Students learn validation methodologies used in pharmaceutical and medical device manufacturing environments.

Training includes:

• Equipment Qualification

• Process Validation

• Computer System Validation

• Cleaning Validation

• Commissioning and Qualification

• Validation lifecycle management

Students learn how to develop:

• Validation protocols

• IQ/OQ/PQ documentation

• Risk assessments

• Traceability matrices

Career Outcomes

• Validation Engineer

• CQV Engineer

• Commissioning Specialist

• Process Validation Specialist

Clinical Research Associate (CRA) Training Program

This program prepares students for careers in clinical trial monitoring and clinical research management.

Students learn how clinical trials are conducted under international guidelines such as International Council for Harmonisation and Good Clinical Practice.

CRA 100 — Clinical Research Foundations

Topics include:

• Clinical trial phases

• Clinical trial protocols

• Investigator site management

• Patient safety and informed consent

• Study documentation and compliance

Career Outcomes

• Clinical Research Coordinator

• Clinical Trial Assistant

• Regulatory Specialist

CRA 200 — Advanced Monitoring & Site Management

Topics include:

• Clinical site monitoring

• Source data verification

• Trial master file management

• Regulatory inspections

• Study closeout procedures

Career Outcomes

• Clinical Research Associate

• Site Monitor

• Clinical Trial Manager

Regulatory Affairs Specialist Training

This program prepares professionals to support regulatory submissions for pharmaceuticals, biologics, and medical devices.

Students learn regulatory pathways used by global regulatory agencies.

Topics include:

• Regulatory strategy development

• Medical device regulatory pathways

• Drug development lifecycle

• Regulatory submissions

• Labeling and post-market compliance

Students gain exposure to regulatory frameworks including:

• FDA regulations

• ISO 13485 medical device standards

• EU MDR regulatory framework

Career Outcomes

• Regulatory Affairs Specialist

• Regulatory Submissions Coordinator

• Compliance Analyst

Project Management Professional (PMP) Preparation Program

The PMP preparation program helps professionals prepare for the Project Management Institute certification exam.

Students learn how to manage complex projects using globally recognized project management principles.

Topics include:

• Project initiation and planning

• Risk management

• Agile and hybrid project delivery

• Stakeholder management

• Program and portfolio governance

Career Outcomes

• Project Manager

• Program Manager

• PMO Specialist

Career Development & Professional Coaching

In addition to technical training, TMEP Career Coaching Institute offers comprehensive career coaching services to help students successfully enter the workforce.

Services include:

• Executive resume development

• LinkedIn optimization

• Mock interview preparation

• Career transition coaching

• Salary negotiation guidance

Students also receive mentorship from professionals working in regulated industries.

Why Choose TMEP Career Coaching Institute

Our programs are designed by professionals with real-world experience in:

• Biomedical engineering

• Regulatory affairs

• Clinical research

• Quality engineering

• Project management

Students benefit from:

• Industry-focused training

• Real-world case studies

• Career coaching support

• Resume and interview preparation

• Access to industry career pathways

Program Delivery Format

Programs are offered through:

• Live virtual training

• Self-paced online learning

• Career mentorship sessions

• Industry workshops

Students receive:

• Certificate of completion

• Training materials and templates

• Career coaching support

Career Outcomes

Graduates of TMEP Career Coaching Institute pursue careers in industries such as:

• Pharmaceutical companies

• Biotechnology companies

• Medical device manufacturers

• Contract research organizations

• Healthcare organizations

• Regulatory consulting firms

Typical roles include:

• Quality Assurance Specialist

• Validation Engineer

• Clinical Research Associate

• Regulatory Affairs Specialist

• Project Manager

Advance Your Career in Life Sciences, Regulatory Affairs, Quality, and Project Management

TMEP Career Coaching Institute provides industry-focused training designed to help professionals enter and advance in regulated industries.

Programs Include

• Quality Assurance & Quality Control Training

• Validation Engineering Training

• Clinical Research Associate Programs

• Regulatory Affairs Specialist Training

• PMP Certification Preparation

• Resume & Interview Coaching

Who Should Enroll

• Career changers entering life sciences

• Entry-level professionals seeking industry skills

• Mid-career professionals seeking advancement

• Engineers, scientists, and healthcare professionals

What You Will Gain

• Industry-relevant skills

• Career coaching support

• Professional certifications preparation

• Resume and interview guidance

• Access to new career opportunities

Course Requirements

Our training Programs at TMEP Career Coaching is focused on preparing professionals to be career ready. We educate and prepare you for the real world.

When you take our training program, you will be provided all information needed to start your career. You will be provided educational and practical training.

To prepare for the live sessions, we provide pre-recorded module videos for students to watch beforehand.

The modules videos are designed to familiarize you with the content and allow you to come to the live class equipped with relevant knowledge and questions we can discussed in class.
The live classes serve as an interactive platform where you can ask questions and delve deeper into the topics covered in that week's module.
We provide the training materials and resources to obtain the knowledge needed.

After training, you will take a final exam. We will help you create a resume, prepare you for interviews and guide you till you get a job.

If you are new to the industry, you might be linked to our consulting firm, to obtain a working experience depending on your training performance and exam scores.

Learn more about the industry

Life sciences—whether medical devices, pharmaceuticals, biologics, or combination products—Regulatory Affairs (RA) serves as the bridge between scientific innovation and market approval. The function ensures that products are developed, approved, manufactured, and maintained in compliance with regulatory requirements while aligning with business strategy. Regulatory affairs professionals guide companies through complex global regulatory landscapes so that safe and effective products reach patients efficiently.

Below are the core roles and functional areas within Regulatory Affairs.

Regulatory Strategy

Regulatory strategy is the foundation of regulatory affairs. It involves designing the most efficient pathway to bring a product to market while meeting all regulatory requirements.

Regulatory strategists work closely with research and development, quality, clinical, and project management teams to determine how a product will be classified and approved. They analyze regulatory pathways such as FDA 510(k), PMA, De Novo, NDA, BLA, or CE marking under EU MDR.

Key responsibilities include:

• Determining the correct regulatory pathway for a product

• Developing regulatory development plans aligned with product timelines

• Advising R&D teams on regulatory expectations during product design

• Defining submission strategies and clinical evidence requirements

• Interacting with regulatory agencies through meetings such as FDA Pre-Submission or Scientific Advice with EMA

A strong regulatory strategy can significantly reduce development time and regulatory risk.

Regulatory Labeling

Labeling ensures that product information presented to healthcare providers, patients, and users is accurate, compliant, and aligned with regulatory approvals.This includes all regulated product communications such as:

• Instructions for Use (IFU)

• Package inserts

• Drug prescribing information

• Device labeling and UDI information

• Safety warnings and contraindications

• Promotional labeling review

Regulatory labeling teams ensure that labeling content complies with regulations such as:

• FDA labeling requirements (21 CFR)

• EU MDR labeling rules

• ICH guidelines for pharmaceuticals

They also ensure labeling updates reflect changes resulting from post-market surveillance, new safety data, or regulatory commitments.

Regulatory Intelligence and Policy

Regulatory intelligence focuses on monitoring and interpreting evolving regulatory requirements across global markets.

Regulatory intelligence professionals track changes in policies, guidance documents, and regulatory frameworks issued by agencies such as:

• FDA (United States)

• EMA (European Union)

• MHRA (United Kingdom)

• Health Canada

• PMDA (Japan)

• NMPA (China)

Their role includes:

• Monitoring regulatory updates and new legislation

• Analyzing industry trends and regulatory expectations

• Providing guidance to internal teams on regulatory impact

• Supporting global market entry strategies

• Advising leadership on upcoming regulatory changes

Regulatory policy specialists also engage with industry associations and regulators to help shape future regulatory frameworks.

Regulatory Operations

Regulatory operations focuses on the execution and management of regulatory submissions and documentation.

This function ensures that regulatory filings are properly prepared, formatted, tracked, and submitted according to agency requirements.

Key responsibilities include:

• Preparing and managing regulatory submission packages

• Maintaining regulatory document control systems

• Managing electronic submissions such as eCTD

• Coordinating cross-functional input from clinical, quality, and manufacturing teams

• Tracking submission timelines and regulatory milestones

• Maintaining regulatory archives and databases

Regulatory operations ensures submissions are complete, accurate, and submitted on schedule.

Regulatory Compliance

Regulatory compliance ensures that products and company processes remain compliant with regulatory requirements throughout the product lifecycle. Compliance activities involve collaboration with quality assurance, manufacturing, and clinical teams.

Key responsibilities include:

• Ensuring compliance with global regulatory regulations

• Supporting regulatory inspections and audits

• Managing regulatory commitments and post-approval requirements

• Monitoring adverse events and safety reporting

• Ensuring adherence to standards such as GMP, GLP, and GCP

Regulatory compliance protects organizations from enforcement actions, recalls, and regulatory penalties.

Country and Regional Regulatory Affairs

Regulatory requirements vary significantly across global markets. Country or regional regulatory specialists ensure compliance with specific regulatory authorities in each region. This role includes managing regulatory approvals and market access for products in different jurisdictions such as:

• United States (FDA)

• European Union (EMA and Notified Bodies)

• United Kingdom (MHRA)

• Canada (Health Canada)

• Japan (PMDA)

• China (NMPA)

Regional regulatory teams:

• Adapt global regulatory strategies to local requirements

• Prepare country-specific regulatory submissions

• Coordinate product registrations and renewals

• Ensure compliance with regional labeling and reporting rules

Global coordination is essential to maintain consistent regulatory compliance across markets.

Lifecycle Management (Post-Market Regulatory Affairs)

Once a product is approved, regulatory affairs continues to manage its lifecycle.

Lifecycle management ensures that products remain compliant as changes occur in manufacturing, labeling, safety data, or regulatory requirements.

Responsibilities include:

• Managing post-approval submissions and variations

• Supporting product changes and design modifications

• Maintaining product registrations and renewals

• Responding to regulatory agency questions and commitments

• Managing safety reporting and post-market surveillance

Lifecycle regulatory management is critical for sustaining product approvals and market presence.

Importance of Regulatory Affairs in Life Sciences

Regulatory affairs plays a strategic role in ensuring that medical products are safe, effective, and compliant with global regulations. It supports the entire product lifecycle—from early research and development to post-market surveillance.

Strong regulatory leadership helps organizations:

• Accelerate product approvals

• Reduce regulatory risk

• Maintain compliance with global standards

• Support innovation while protecting patient safety

Regulatory affairs professionals are essential partners in product development, quality management, and global commercialization.

Regulatory Affairs in Drug Development

Biomedical Engineering (BME): Detailed Overview and Job Description

Biomedical Engineering (BME) is an interdisciplinary field that combines engineering principles with biological and medical sciences to improve healthcare systems, medical technologies, and patient outcomes. Biomedical engineers design, develop, test, maintain, and manage medical devices, diagnostic equipment, and healthcare technologies used in hospitals, laboratories, pharmaceutical companies, and medical device manufacturing organizations.

The goal of biomedical engineering is to apply engineering innovation to solve medical problems, enhance diagnostic capabilities, improve treatment effectiveness, and ensure patient safety while meeting strict regulatory and quality standards.

Biomedical engineers work at the intersection of engineering, medicine, regulatory compliance, and healthcare technology, making them critical contributors to modern healthcare systems.

Core Responsibilities of a Biomedical Engineer

Biomedical engineers are responsible for the lifecycle of medical technologies—from design and development to maintenance, validation, and regulatory compliance.

Medical Equipment Design and Development

Biomedical engineers design and improve medical technologies used in patient care, research, and diagnostics.

Responsibilities include:

• Designing medical devices and healthcare systems

• Developing prototypes for diagnostic or therapeutic equipment

• Collaborating with physicians and scientists to understand clinical needs

• Conducting product testing and validation

• Improving existing medical technologies for better performance and safety

Examples of technologies biomedical engineers work on include:

• Imaging systems (MRI, CT scanners, ultrasound)

• Patient monitoring systems

• Surgical robotics

• Implantable medical devices (pacemakers, prosthetics)

• Laboratory diagnostic equipment

Medical Equipment Installation and Commissioning

Biomedical engineers are responsible for installing and commissioning medical equipment in hospitals and healthcare facilities.

This includes:

• Equipment setup and configuration

• Acceptance testing and equipment verification

• Equipment calibration and performance validation

• Integration with hospital IT systems and electronic medical records

• Training healthcare staff on proper equipment use

Proper installation ensures equipment functions safely and accurately.

Equipment Calibration and Preventive Maintenance

Biomedical engineers ensure medical equipment performs within manufacturer specifications through routine maintenance and calibration.

Key activities include:

• Scheduled preventive maintenance programs

• Calibration of diagnostic and laboratory instruments

• Troubleshooting equipment failures

• Repair and replacement of faulty components

• Documentation of service activities

Maintenance activities are critical for ensuring patient safety and regulatory compliance.

Equipment Qualification and Validation

In regulated environments such as pharmaceutical manufacturing and clinical laboratories, biomedical engineers perform equipment qualification and validation activities.

These activities include:

• Installation Qualification (IQ)

• Operational Qualification (OQ)

• Performance Qualification (PQ)

Engineers verify that equipment operates consistently and meets regulatory requirements such as:

• FDA regulations

• ISO 13485 quality standards

• Good Manufacturing Practices (GMP)

Validation ensures that equipment produces reliable and reproducible results.

Medical Equipment Asset Management

Biomedical engineers manage the lifecycle of medical equipment through asset management systems.

Responsibilities include:

• Maintaining equipment inventory databases

• Tracking maintenance schedules

• Managing equipment replacement planning

• Monitoring equipment performance and utilization

• Supporting hospital technology management programs

This ensures healthcare facilities maintain efficient and safe equipment operations.

Quality and Regulatory Compliance

Biomedical engineers work closely with quality and regulatory teams to ensure compliance with global healthcare regulations.

They support compliance with standards such as:

• FDA Quality System Regulation (21 CFR 820)

• ISO 13485 Medical Device Quality Management

• Good Manufacturing Practices (GMP)

• Good Laboratory Practices (GLP)

Responsibilities may include:

• Supporting regulatory submissions

• Conducting quality audits

• Implementing corrective and preventive actions (CAPA)

• Ensuring documentation and traceability

Clinical Engineering Support

In healthcare facilities, biomedical engineers often function as clinical engineers who manage and support medical technology used in patient care.

Responsibilities include:

• Evaluating new medical technologies

• Supporting clinical trials involving medical devices

• Investigating equipment-related incidents

• Providing technical expertise to physicians and clinical staff

Clinical engineers ensure that technology integrates effectively into patient care environments.

Work Environments for Biomedical Engineers

Biomedical engineers work in a variety of industries, including:

Hospitals and Healthcare Systems

• Equipment management and clinical engineering

Medical Device Companies

• Product development, design, testing, and regulatory compliance

Pharmaceutical and Biotechnology Companies

• Equipment qualification, validation, and manufacturing support

Clinical Research Organizations

• Supporting clinical trials and medical technology research

Government and Regulatory Agencies

• Regulatory compliance and safety oversight

Consulting Firms

• Providing validation, regulatory, and engineering expertise

Key Skills Required

Successful biomedical engineers possess a combination of technical, analytical, and regulatory skills.

Important competencies include:

Engineering Skills

• Mechanical and electrical system knowledge

• Medical device design and development

• System integration and testing

Regulatory Knowledge

• FDA regulations

• ISO 13485 standards

• Quality management systems

Technical Skills

• Equipment troubleshooting and repair

• Calibration and validation procedures

• Data analysis and documentation

Professional Skills

• Project management

• Communication with clinicians and engineers

• Cross-functional collaboration

Education and Certification

Most biomedical engineers hold:

• Bachelor’s Degree in Biomedical Engineering or Biomedical Engineering Technology

• Master’s Degree in Engineering Management or Biomedical Engineering (optional but valuable for leadership roles)

Career Opportunities

Biomedical engineering offers a wide range of career paths, including:

• Biomedical Engineer

• Clinical Engineer

• Validation Engineer

• Medical Device Design Engineer

• Quality Engineer

• Regulatory Affairs Specialist

• Equipment Calibration and Maintenance Engineer

• Clinical Research Engineer

• Healthcare Technology Manager

Impact of Biomedical Engineering

Biomedical engineers play a vital role in advancing healthcare by developing innovative technologies that improve diagnosis, treatment, and patient safety.

Their work supports:

• Advanced medical technologies

• Safer healthcare systems

• Improved clinical outcomes

• Regulatory compliance in medical products

As healthcare technology continues to evolve, biomedical engineers will remain essential in bridging the gap between engineering innovation and patient care.

What a Validation Engineer Does

Validation Engineers are responsible for verifying and documenting that equipment, systems, and manufacturing processes perform as intended. Their responsibilities include:

• Developing validation protocols and documentation

• Performing Installation Qualification (IQ)

• Conducting Operational Qualification (OQ)

• Executing Performance Qualification (PQ)

• Supporting Computer System Validation (CSV)

• Validating manufacturing processes and laboratory equipment

• Ensuring compliance with FDA 21 CFR, ISO 13485, and GMP regulations

• Supporting commissioning, qualification, and equipment lifecycle management

• Collaborating with quality assurance, engineering, manufacturing, and regulatory teams

• Investigating deviations and supporting CAPA implementation

Validation Engineers ensure that all systems and equipment are fit for intended use and capable of producing consistent, high-quality results.

Skills Students Will Develop

Students enrolled in the Validation Engineering program will gain knowledge and practical skills in:

• Validation lifecycle management

• Commissioning and Qualification (C&Q)

• Equipment validation and process validation

• Risk assessment and validation planning

• Regulatory compliance and documentation practices

• Good Manufacturing Practices (GMP)

• Quality systems and validation documentation

• Technical report writing and protocol execution

• Root cause analysis and deviation investigation

A Quality Assurance Engineer and Quality Control Engineer can be a combine role depending on a company's structure.

Role summary: A Quality Assurance Engineer designs, implements, and maintains quality processes and systems to ensure products and services meet internal standards, customer requirements, and regulatory obligations. They focus on preventing defects through system-level controls, testing strategies, process validation, and continuous improvement.

Key responsibilities:

• Develop, implement, and maintain QA policies, procedures, and test plans (SOPs, test cases, validation protocols).

• Design and execute verification and validation activities for products, processes, and software (functional, performance, regression testing).

• process validations, including IQ/OQ/PQ where applicable, and document results.

• Establish and monitor quality metrics (defect rates, CAPA effectiveness, process capability) and generate reports for stakeholders.

• Support root-cause analysis and corrective/preventive action (CAPA) programs; verify implementation and effectiveness.

• Collaborate with R&D, manufacturing, regulatory, and supplier teams to ensure quality requirements are integrated throughout product lifecycle.

• Manage internal audits, supplier audits, and readiness for external regulatory inspections (e.g., FDA, ISO).

• Maintain traceability of design changes and support change-control processes.

All our courses at TMEP Career Coaching are consulting work titles and work duties we provide for our client at TMEP Consulting. Learn more at our consulting firm website www.tmepconsult.com/quality-and-validation-engineering.

Clinical Research Assiociate (CRA)

Our Clinical Research Assiociate (CRA) and Clinical Research Coordinator (CRC) course provides GCP training, and practical site monitoring training. After training, you will take a final exam. We will help you create a resume, prepare you for interviews and guide you till you get a job.

We provide guidance on how to become eligible for PMP Certification exam consultation for free. Applying for PMP coaching and preparing for the exam training is paid.

Project Management Professional

Program Overview :This program prepares you for a real-world career as a project manager by combining practical skills, tool mastery, and industry-focused guidance. You’ll learn how to lead projects end-to-end, apply best practices in real contexts, and choose a subject-matter focus that fits your strengths and market demand.

Build or adopt lightweight templates for Project Charter, Stakeholder Register, Risk Log, Issue Log, Change Request, Communication Plan, RAID, WBS, Schedule (MS Project / Primavera / Smartsheet), and Status Report.

• Use checklists for project start-up, milestone reviews, and handoffs so best practices become routine.

Get fluent with the tools you’ll use

• Pick 1–2 project management tools common in the industry (MS Project, Primavera, Jira, Asana, Monday, Smartsheet) and become efficient: create baselines, manage resource leveling, track burndown, update forecasts.

• Learn basic Excel modeling (pivot tables, VLOOKUP/XLOOKUP, scenario tables) and simple dashboards (Power BI / Tableau basics).

Practice the day-to-day PM tasks

• Run mock project scenarios: create a project plan, identify risks, run a stakeholder analysis, simulate a status meeting and an escalation.

• Role-play difficult conversations: scope change negotiation, missed milestones, performance issues, and vendor disputes.

Who it’s for

• New PMs or certified PMPs transitioning to hands-on roles

• Professionals moving into PM from technical or functional backgrounds

• PMs who want to specialize in an industry or domain

Program Outcomes : By the end of the program you will:

• Run projects using real-world templates, tools, and governance

• Confidently manage scope, schedule, budget, risk, and stakeholders

• Lead cross-functional teams and resolve common delivery challenges

• Demonstrate practical competence via a capstone project or portfolio

• Choose and validate a subject-matter expertise (SME) aligned to your strengths and market needs

Core Modules (sample)

1. Foundations of Real-World Project Delivery

• Project initiation, chartering, stakeholder mapping, governance

2. Planning and Scheduling

• WBS creation, estimating, resource leveling, baselining (MS Project/Smartsheet)

3. Execution, Monitoring & Control

• Status reporting, change control, earned value basics, KPI dashboards

4. Risk, Quality & Compliance

• Live risk registers, CAPA, SPC basics, validation and audits

5. Tools & Automation

• Jira/Asana/Teams workflows, Excel modeling, basic Power BI dashboards

6. Leadership & Communication

• Facilitation, negotiation, stakeholder engagement, conflict resolution

7. Agile & Hybrid Delivery

• Scrum/Kanban essentials, scaling practices, when to hybridize

8. Supplier & Contract Management

• Procurement basics, vendor performance and SLAs

9. Career & SME Selection Clinic

• Market research, skills mapping, validation plan, mentoring

10. Capstone Project

• End-to-end project delivery simulation or real sponsor project

Quality Control (QC) — Brief Job Description

Role summary: A Quality Control (QC) professional inspects, tests, and verifies products, materials, and processes to ensure they meet specified standards, regulatory requirements, and customer expectations. They identify defects, document findings, and support corrective actions to maintain product quality and consistency.

Key responsibilities:

• Inspect incoming materials, in-process items, and finished products against specifications.

• Perform laboratory or on-line tests (physical, chemical, dimensional, functional) and record results.

• Operate and maintain QC instruments; perform routine calibration and basic troubleshooting.

•Monitor process control charts and quality metrics; report trends and out-of-spec conditions.

• Document nonconformances and assist with root-cause analysis and corrective/preventive actions (CAPA).

• Approve or reject product batches based on test results and release criteria.

• Maintain accurate quality records and ensure compliance with SOPs and regulatory standards (e.g., ISO, FDA).

• Participate in internal audits, supplier quality assessments, and continuous improvement initiatives.

• Support product investigations, change control, and validation activities as needed.

Typical qualifications:

• Diploma, associate degree, or bachelor’s degree in a relevant field (e.g., chemistry, biology, engineering, or manufacturing).

• Experience in laboratory testing, manufacturing QC, or regulated industries preferred.

• Familiarity with quality systems (SOPs, GMP, ISO) and basic statistics/SPC is an advantage.

What SPC ?

• Statistical Process Control (SPC) is a data-driven methodology for monitoring, controlling, and improving processes by using statistical tools. In product development and quality control, SPC helps ensure processes produce consistent, within-specification outputs during design, prototyping, and scale-up.

Purpose in product development:

• Detect and prevent variation early in the development lifecycle.

• Verify process stability and capability before full production.

• Reduce defects, rework, and time-to-market by identifying issues during product design and pilot runs.

• Provide objective data to support design decisions and supplier qualification.