Cell and Gene therapy Internship Task Portal Access (Portal 02 )

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Hi Interns ,
Welcome to the Internship Task Portal
Here you will get all the intimations regarding your tasks , sessions , assignments and any updated briefing .
(The information and content provided in this portal is purely confidential and is under protected surveillance by the technical support team.)

🧬 Cell and Gene Therapy – Internship Update

The Cell and Gene Therapy Internship is designed to help students build strong foundations in modern biotechnology while applying concepts to real-world therapeutic and clinical applications. This program focuses on combining theoretical knowledge with practical understanding of advanced biomedical technologies such as gene editing, stem cell therapy, immunotherapy, molecular biology, and regenerative medicine.

Throughout the internship, participants will:

  • Learn the fundamentals of cell and gene therapy
  • Understand DNA/RNA technologies and genetic engineering concepts
  • Explore stem cell culture, CRISPR, and gene delivery methods
  • Study applications of cell therapy in disease treatment and regenerative medicine
  • Gain exposure to laboratory workflows, clinical research, and bioinformatics basics
  • Build a mini project or case study based on real-world therapeutic applications

Each task includes:

  • 📘 Session-based learning
  • 📝 Notes preparation
  • 💻 Hands-on practical assignments
  • 📂 Case study analysis
  • 📤 Submission via Google Forms

By the end of the internship, students will gain practical exposure in biotechnology and regenerative medicine while developing skills useful for careers in cell and gene therapy, biomedical research, biotechnology industries, clinical research, and healthcare innovation.

TASK 1: What is Translational Science? – Pioneers of Cell Therapy

🎯 Objective

To understand the concept of Translational Science and explore the pioneering discoveries that led to the development of modern Cell Therapy. This session introduces the journey from laboratory research to clinical applications and highlights the scientists and innovations that transformed regenerative medicine.

🎥 Session

Session 1 – What is Translational Science? Pioneers of Cell Therapy

Session Link: click here to access

📖 Task Description

Translational Science is the process of converting scientific discoveries into practical medical treatments that improve patient health. It bridges the gap between laboratory research and clinical practice, ensuring that promising scientific findings become safe and effective therapies.

Cell Therapy is one of the most significant achievements of translational science. Over several decades, researchers and clinicians have developed treatments that use living cells to repair, replace, or regenerate damaged tissues and organs. These breakthroughs have revolutionized the treatment of blood disorders, cancers, immune diseases, and regenerative medicine applications.

In this session, you will learn about the origins of translational science, the pioneers who contributed to the field of cell therapy, and the major milestones that led to modern therapeutic approaches such as stem cell transplantation and immune cell therapies.

📝 Write Notes On
1. Introduction to Translational Science

  • Definition and importance

  • Bench-to-bedside approach

  • Role in healthcare innovation

2. Evolution of Cell Therapy

  • Early discoveries in cellular medicine

  • Development of transplantation techniques

  • Growth of regenerative medicine

3. Pioneers of Cell Therapy

  • Key scientists and clinicians

  • Contributions to stem cell research

  • Milestones in cellular therapeutics

4. Stem Cells and Their Applications

  • Types of stem cells

  • Properties of stem cells

  • Clinical applications

5. Translational Research Process

  • Basic research

  • Preclinical studies

  • Clinical trials

  • Regulatory approval

6. Impact of Cell Therapy on Modern Medicine

  • Treatment of blood disorders

  • Cancer immunotherapy

  • Tissue regeneration

  • Future opportunities

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (250–400 words) on:

“How Translational Science Enabled the Development of Modern Cell Therapy”

Your report should include:

  • Definition of Translational Science

  • Importance of translating research into therapies

  • Contributions of early cell therapy pioneers

  • Major breakthroughs in cell therapy

  • Current applications in medicine

  • Future potential of cell-based treatments

🔍 Research Activity

Research one scientist or medical researcher who made a major contribution to Cell Therapy.

Provide:

  • Scientist Name

  • Key Contribution

  • Year of Discovery

  • Impact on Modern Medicine

(100–150 words)

📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

 

TASK 2: How to Overcome AAV Manufacturing Challenges

🎯 Objective

To understand the major challenges associated with Adeno-Associated Virus (AAV) manufacturing and explore innovative strategies used by researchers and biotechnology companies to improve production efficiency, quality, scalability, and safety in gene therapy applications.

🎥 Session
Session 2 – How to Overcome AAV Manufacturing Challenges

Session Link: click here to access

📖 Task Description

Adeno-Associated Virus (AAV) vectors are among the most widely used delivery systems in modern gene therapy. They play a critical role in transporting therapeutic genes into target cells for the treatment of genetic disorders, neurological diseases, and rare inherited conditions.

Despite their success, manufacturing AAV vectors at commercial scale remains one of the biggest challenges in the cell and gene therapy industry. Researchers must overcome issues related to production yield, purity, scalability, quality control, regulatory compliance, and manufacturing costs.

In this session, you will learn about the AAV manufacturing process, the challenges faced during vector production, and the technologies being developed to improve large-scale manufacturing.

📝 Write Notes On
1. Introduction to AAV Vectors

  • What is Adeno-Associated Virus (AAV)?

  • Characteristics of AAV vectors

  • Applications in gene therapy

2. AAV Manufacturing Workflow

  • Vector design and development

  • Cell culture systems

  • Vector production

  • Purification and downstream processing

  • Quality testing

3. Common Manufacturing Challenges

  • Low vector yield

  • Empty and full capsid separation

  • Scalability limitations

  • High production costs

  • Batch-to-batch variability

  • Product stability concerns

4. Solutions and Technological Advances

  • Suspension cell culture systems

  • Bioreactor technologies

  • Improved plasmid design

  • Advanced purification methods

  • Process automation

  • AI-driven manufacturing optimization

5. Regulatory and Quality Considerations

  • Good Manufacturing Practices (GMP)

  • Quality control testing

  • Regulatory requirements for gene therapy products

6. Future of AAV Manufacturing

  • Next-generation manufacturing platforms

  • Scalable production technologies

  • Emerging alternatives to viral vectors

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (300–400 words) on:

“Major Challenges in AAV Manufacturing and Strategies to Overcome Them”

Your report should include:

  • Overview of AAV vectors

  • Key manufacturing challenges

  • Impact of these challenges on gene therapy

  • Technologies used to improve production

  • Future prospects for large-scale AAV manufacturing

🔬 Research Activity

Research any one commercially approved AAV-based gene therapy.

Include:

  • Therapy Name

  • Target Disease

  • Type of AAV Vector Used

  • Manufacturing Challenges Faced

  • Key Achievements

(150–200 words)

💡 Critical Thinking Question

Why is large-scale manufacturing considered one of the biggest barriers to making gene therapies affordable and accessible worldwide?

Provide your answer in 100–150 words.

📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

 

TASK 3: Enterprise Solutions for Cell Therapy – cGMP Manufacturing

🎯 Objective

To understand the role of Current Good Manufacturing Practices (cGMP) in cell therapy production and explore enterprise-scale solutions used to manufacture safe, effective, and high-quality cell therapy products.

🎥 Session

Session 3 – Enterprise Solutions for Cell Therapy: cGMP Manufacturing

Session Link: click here to access

📖 Task Description

Cell therapies have transformed modern medicine by providing innovative treatments for cancers, genetic disorders, autoimmune diseases, and regenerative medicine applications. However, developing a successful cell therapy product requires more than scientific discovery—it requires robust manufacturing systems that ensure product safety, quality, consistency, and regulatory compliance.

Current Good Manufacturing Practices (cGMP) are a set of regulations and quality standards designed to ensure that cell therapy products are manufactured under controlled conditions. cGMP facilities use advanced technologies, quality control systems, automation, and strict documentation procedures to produce clinical-grade and commercial-grade cell therapies.

In this session, you will learn how enterprise-level organizations establish cGMP manufacturing facilities, maintain quality standards, manage risks, and scale production to meet patient demand.

📝 Write Notes On
1. Introduction to cGMP

  • Definition of cGMP

  • Importance in Cell and Gene Therapy

  • Regulatory expectations

2. Cell Therapy Manufacturing Process

  • Cell collection

  • Cell isolation and processing

  • Cell expansion

  • Quality testing

  • Cryopreservation and storage

  • Product release

3. Components of a cGMP Facility

  • Cleanrooms

  • Controlled environments

  • Equipment qualification

  • Personnel training

  • Documentation systems

4. Quality Assurance and Quality Control

  • Batch record management

  • Product testing

  • Sterility testing

  • Process validation

  • Risk management

5. Enterprise Manufacturing Solutions

  • Automation technologies

  • Closed-system manufacturing

  • Digital manufacturing platforms

  • Supply chain management

  • Manufacturing scalability

6. Regulatory Compliance

  • FDA and global regulations

  • Good Documentation Practices (GDP)

  • Audit readiness

  • Product traceability

7. Challenges in Cell Therapy Manufacturing

  • High production costs

  • Process variability

  • Scale-up challenges

  • Product consistency

  • Logistics and cold-chain management

8. Future of cGMP Manufacturing

  • AI-driven manufacturing

  • Smart manufacturing facilities

  • Advanced automation

  • Personalized medicine production

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (300–500 words) on:

“Why cGMP Manufacturing is Critical for Successful Cell Therapy Development”

Your report should include:

  • Definition of cGMP

  • Importance of quality and safety

  • Key manufacturing stages

  • Enterprise manufacturing solutions

  • Regulatory requirements

  • Future trends in cell therapy manufacturing

🔬 Research Activity

Research any one commercial cell therapy product (e.g., CAR-T therapy or stem cell therapy).

Include:

  • Product Name

  • Target Disease

  • Manufacturing Process

  • Quality Control Measures

  • Regulatory Approval Status

(150–250 words)

💡 Case Study Exercise

Imagine a biotechnology company is planning to manufacture a new cell therapy product for cancer treatment.

Identify:

  • Three major manufacturing challenges

  • Three quality control measures

  • Three technologies that could improve production efficiency

Provide your answer in 200–300 words.

📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

TASK 4: Meet the Nucleic Acid Therapeutics

🎯 Objective

To understand the fundamentals of nucleic acid therapeutics, their mechanisms of action, and their growing role in treating genetic diseases, cancers, infectious diseases, and other medical conditions.

🎥 Session

Session 4 – Meet the Nucleic Acid Therapeutics

Session Link: click here to access

📖 Task Description

Nucleic acid therapeutics represent one of the fastest-growing areas in biotechnology and precision medicine. Unlike traditional drugs that target proteins, nucleic acid therapies directly target genetic material such as DNA and RNA to modify gene expression, correct mutations, or deliver therapeutic instructions to cells.

Recent advancements in mRNA vaccines, gene silencing technologies, gene editing tools, and RNA-based medicines have demonstrated the enormous potential of nucleic acid therapeutics in modern healthcare.

In this session, you will explore the different types of nucleic acid therapies, their mechanisms of action, delivery systems, clinical applications, and future opportunities in precision medicine.

📝 Write Notes On
1. Introduction to Nucleic Acid Therapeutics

  • Definition

  • Historical development

  • Importance in modern medicine

2. Types of Nucleic Acid Therapeutics

  • mRNA Therapeutics

  • siRNA (Small Interfering RNA)

  • Antisense Oligonucleotides (ASOs)

  • DNA-based Therapies

  • Gene Editing Technologies

  • CRISPR-based Therapeutics

3. Mechanism of Action

  • Gene silencing

  • Gene replacement

  • Gene correction

  • Protein expression

  • Regulation of gene activity

4. Delivery Technologies

  • Lipid Nanoparticles (LNPs)

  • Viral vectors

  • Non-viral delivery systems

  • Emerging delivery approaches

5. Clinical Applications

  • Rare genetic disorders

  • Cancer therapies

  • Infectious diseases

  • Cardiovascular diseases

  • Neurological disorders

6. Challenges and Limitations

  • Delivery efficiency

  • Immune responses

  • Safety concerns

  • Manufacturing complexity

  • Regulatory considerations

7. Future of Nucleic Acid Medicine

  • Personalized medicine

  • Advanced gene editing

  • Next-generation RNA therapeutics

  • Artificial intelligence in drug design

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (300–500 words) on:

“How Nucleic Acid Therapeutics Are Transforming Modern Healthcare”

Your report should include:

  • Definition of nucleic acid therapeutics

  • Different types of nucleic acid therapies

  • Mechanisms of action

  • Major medical applications

  • Advantages over conventional therapies

  • Future opportunities and challenges

🔬 Research Activity

Research one FDA-approved or clinically successful nucleic acid therapeutic.

Include:

  • Product Name

  • Disease Target

  • Type of Therapy (mRNA, siRNA, ASO, etc.)

  • Mechanism of Action

  • Clinical Impact

(150–250 words)

💡 Critical Thinking Exercise

Imagine you are part of a biotechnology company developing a new RNA-based therapy for a rare genetic disease.

Discuss:

  • Which type of nucleic acid therapeutic you would choose

  • How you would deliver the therapy to patients

  • Potential challenges during development

  • Expected benefits for patients

(200–300 words)

🧪 Mini Practical Activity

Create a comparison table between the following therapeutic approaches:

Therapy Type Target Mechanism Advantages Limitations
mRNA Therapy        
siRNA Therapy        
Antisense Oligonucleotide        
Gene Editing Therapy        
📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

TASK 5: Meet the Nucleic Acid Therapeutics Team – Katarina Stenklo

🎯 Objective

To understand the multidisciplinary team involved in the development of nucleic acid therapeutics and learn about the role of scientific leaders, researchers, and biotechnology professionals in bringing innovative therapies from research laboratories to patients.

🎥 Session

Session 5 – Meet the Nucleic Acid Therapeutics Team: Katarina Stenklo

Session Link: click here to access

📖 Task Description

The development of nucleic acid therapeutics requires collaboration between scientists, clinicians, bioinformaticians, regulatory experts, manufacturing specialists, and business leaders. Each member of the team plays a critical role in transforming scientific discoveries into life-changing treatments.

In this session, you will gain insights into how nucleic acid therapeutic teams operate within biotechnology and pharmaceutical organizations. Through the experiences and perspectives shared by Katarina Stenklo, students will explore the skills, expertise, and teamwork required to successfully develop RNA- and DNA-based therapies.

The session also highlights career opportunities available within the rapidly growing fields of gene therapy, RNA therapeutics, precision medicine, and biotechnology innovation.

📝 Write Notes On
1. Introduction to Nucleic Acid Therapeutics Teams

  • Importance of teamwork in drug development

  • Multidisciplinary collaboration

  • Research-to-commercialization journey

2. Key Professionals in Nucleic Acid Therapeutics
Research Scientists

  • Drug discovery

  • Molecular biology research

  • Therapeutic design

Clinical Scientists

  • Clinical trial management

  • Patient safety monitoring

  • Data interpretation

Bioinformaticians

  • Genomic data analysis

  • Sequence optimization

  • Computational biology

Manufacturing Specialists

  • Process development

  • Quality control

  • GMP production

Regulatory Affairs Teams

  • Regulatory submissions

  • Compliance requirements

  • Product approvals

3. Role of Scientific Leadership

  • Project management

  • Strategic decision-making

  • Cross-functional collaboration

  • Innovation management

4. Skills Required in the Industry

  • Molecular biology knowledge

  • Data analysis

  • Communication skills

  • Problem-solving abilities

  • Team collaboration

5. Career Opportunities

  • Gene Therapy Research

  • RNA Therapeutics Development

  • Clinical Research

  • Bioprocess Engineering

  • Regulatory Affairs

  • Biotechnology Entrepreneurship

6. Future Workforce Needs

  • Emerging biotechnology roles

  • AI and computational biology integration

  • Personalized medicine careers

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (300–500 words) on:

“The Importance of Teamwork in Developing Nucleic Acid Therapeutics”

Your report should include:

  • Overview of nucleic acid therapeutics

  • Different team members involved

  • Responsibilities of each professional

  • Importance of collaboration

  • Challenges in therapeutic development

  • Future career opportunities

🔬 Career Exploration Activity

Choose any one role from the nucleic acid therapeutics team and prepare a profile covering:

  • Job Title

  • Educational Qualifications

  • Technical Skills Required

  • Daily Responsibilities

  • Career Growth Opportunities

  • Average Industry Demand

(200–300 words)

💡 Reflection Exercise

Imagine you have joined a biotechnology company developing an mRNA-based therapy.

Answer the following:

  1. Which team would you like to work in?

  2. Why does that role interest you?

  3. What skills would you need to develop?

  4. How would your role contribute to patient treatment?

(150–250 words)

🧪 Team Structure Activity

Create an organizational chart showing the following roles:

  • Research Scientist

  • Bioinformatician

  • Clinical Scientist

  • Manufacturing Specialist

  • Regulatory Affairs Manager

  • Quality Assurance Specialist

  • Project Manager

Briefly explain how these professionals work together to bring a therapy to market.

📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

TASK 6: VIA Freeze™ Uno, VIA Freeze™ Duo & VIA Freeze™ Quad – Nitrogen-Free Controlled-Rate Freezer Systems

🎯 Objective

To understand the importance of controlled-rate freezing in cell and gene therapy manufacturing and explore how advanced nitrogen-free freezing systems such as VIA Freeze™ Uno, VIA Freeze™ Duo, and VIA Freeze™ Quad help ensure cell viability, product quality, and regulatory compliance.

🎥 Session

Session 6 – VIA Freeze™ Uno, VIA Freeze™ Duo & VIA Freeze™ Quad: Nitrogen-Free Controlled-Rate Freezer Systems

Session Link: click here to access

📖 Task Description

Cryopreservation is a critical step in cell and gene therapy manufacturing. Cells must be preserved under carefully controlled conditions to maintain their viability, functionality, and therapeutic effectiveness.

Traditional freezing methods can lead to cell damage due to uncontrolled ice crystal formation, temperature fluctuations, and inconsistent cooling rates. Controlled-rate freezing systems have been developed to address these challenges by precisely managing temperature reduction during the freezing process.

The VIA Freeze™ Uno, VIA Freeze™ Duo, and VIA Freeze™ Quad systems represent advanced nitrogen-free controlled-rate freezer technologies used in research laboratories, biobanking facilities, and GMP manufacturing environments. These systems enable reproducible cryopreservation processes while reducing operational complexity and improving compliance with regulatory standards.

In this session, you will learn how controlled-rate freezing works, why it is essential for cell therapy manufacturing, and how modern freezing technologies contribute to product quality and patient safety.

📝 Write Notes On
1. Introduction to Cryopreservation

  • Definition of cryopreservation

  • Importance in cell therapy

  • Applications in regenerative medicine

2. Principles of Controlled-Rate Freezing

  • Cooling rate optimization

  • Ice crystal formation

  • Cell survival mechanisms

  • Temperature control

3. Challenges in Cell Preservation

  • Cell damage during freezing

  • Loss of viability

  • Product inconsistency

  • Storage and transportation issues

4. VIA Freeze™ Systems Overview
VIA Freeze™ Uno

  • Single-chamber freezing system

  • Research and development applications

  • Process optimization

VIA Freeze™ Duo

  • Dual-chamber configuration

  • Increased manufacturing flexibility

  • Parallel processing capabilities

VIA Freeze™ Quad

  • Four-chamber system

  • High-throughput operations

  • Large-scale manufacturing applications

5. Nitrogen-Free Technology

  • Advantages over liquid nitrogen systems

  • Improved safety

  • Reduced contamination risks

  • Simplified facility requirements

6. Applications in Cell and Gene Therapy

  • Stem cell therapies

  • CAR-T cell manufacturing

  • Gene-modified cell products

  • Clinical trial materials

7. Regulatory and GMP Considerations

  • Process validation

  • Batch consistency

  • Data recording and traceability

  • Quality assurance requirements

8. Future Trends in Cryopreservation

  • Automated freezing platforms

  • Digital process monitoring

  • AI-assisted manufacturing

  • Smart biobanking systems

📋 Assignment
Knowledge-Based Report Assignment

After watching the session, prepare a report (300–500 words) on:

“The Role of Controlled-Rate Freezing in Cell and Gene Therapy Manufacturing”

Your report should include:

  • Importance of cryopreservation

  • Challenges in preserving living cells

  • Benefits of controlled-rate freezing

  • Features of nitrogen-free freezer systems

  • Impact on product quality and patient outcomes

🔬 Research Activity

Research one cryopreservation technology used in biotechnology or regenerative medicine.

Include:

  • Technology Name

  • Purpose

  • Key Features

  • Advantages

  • Industrial Applications

(150–250 words)

💡 Case Study Exercise

A biotechnology company is preparing to manufacture CAR-T cell therapies for clinical trials.

Identify:

  • Three risks associated with improper cell freezing

  • Three advantages of controlled-rate freezing

  • How nitrogen-free systems can improve manufacturing operations

(200–300 words)

🧪 Practical Analysis Activity

Create a comparison table:

Feature VIA Freeze™ Uno VIA Freeze™ Duo VIA Freeze™ Quad
Capacity      
Applications      
Throughput      
Manufacturing Scale      
Advantages      

Provide a brief explanation of which system would be most suitable for:

  • Research laboratories

  • Clinical manufacturing

  • Commercial-scale production

📤 Submission Form

Submission Link: https://forms.gle/dcfdpoDgksgP9KUY8

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