Are you involved with planning tech transfer of your drug product? Join this webinar to learn more about the regulations and considerations you need to consider and learnings from a case study.
According to ICH Q10, “The goal of technology transfer activities is to transfer product and process knowledge between development and manufacturing, and within or between manufacturing sites to achieve product realization. This knowledge forms the basis for the manufacturing process, control strategy, process validation approach, and ongoing continual improvement.”
As a result, there is an expectation for transfers to be performed in an organized, methodical manner with appropriate documentation. It is also expected that they happen between one Process Development group to another or to a Pilot Lab, from Process Development lab to clinical or commercial manufacturing, or from Process Development to external clinical manufacturing. Lastly, they may also happen between two company facilities at commercial scale, or between a company and an external contract manufacturing at commercial scale.
This presentation will cover points to consider for successful tech transfers with a focus on cGMP training requirements, and include lesson learned from real cases.
Presented by Guillaume Plane on September 22, 2016
Managing Process Scale-up and Tech Transfer MilliporeSigma
Are you involved with planning tech transfer of your drug product? Join this webinar to learn more about the regulations and considerations you need to consider and learnings from a case study.
According to ICH Q10, “The goal of technology transfer activities is to transfer product and process knowledge between development and manufacturing, and within or between manufacturing sites to achieve product realization. This knowledge forms the basis for the manufacturing process, control strategy, process validation approach, and ongoing continual improvement.”
As a result, there is an expectation for transfers to be performed in an organized, methodical manner with appropriate documentation. It is also expected that they happen between one Process Development group to another or to a Pilot Lab, from Process Development lab to clinical or commercial manufacturing, or from Process Development to external clinical manufacturing. Lastly, they may also happen between two company facilities at commercial scale, or between a company and an external contract manufacturing at commercial scale.
This presentation will cover points to consider for successful tech transfers with a focus on cGMP training requirements, and include lesson learned from real cases.
Presented by Guillaume Plane on September 22, 2016
Pharmaceutical Technology Transfer Best PracticesAnthony Grenier
Key Takeaways from the Technology Transfer Guidelines
• Standardize checklist for transferring product development, process development, and analytical method development knowledge
• Requirements are summarized in key deliverables and reports
Tech transfer and Scale-up - Tips and tricks from a Biodevelopment centerMilliporeSigma
Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
● How to design a bioreactor model in order to scale up a process.
● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
Technology Transfer portfolio in Pharmaceutical IndustryAkshay Jirage
In the pharmaceutical industry, “Technology Transfer” refers to the processes that are needed for successful progress from drug discovery to product development to clinical trials to full-scale commercialization.
Managing Process Scale-up and Tech Transfer MilliporeSigma
Are you involved with planning tech transfer of your drug product? Join this webinar to learn more about the regulations and considerations you need to consider and learnings from a case study.
According to ICH Q10, “The goal of technology transfer activities is to transfer product and process knowledge between development and manufacturing, and within or between manufacturing sites to achieve product realization. This knowledge forms the basis for the manufacturing process, control strategy, process validation approach, and ongoing continual improvement.”
As a result, there is an expectation for transfers to be performed in an organized, methodical manner with appropriate documentation. It is also expected that they happen between one Process Development group to another or to a Pilot Lab, from Process Development lab to clinical or commercial manufacturing, or from Process Development to external clinical manufacturing. Lastly, they may also happen between two company facilities at commercial scale, or between a company and an external contract manufacturing at commercial scale.
This presentation will cover points to consider for successful tech transfers with a focus on cGMP training requirements, and include lesson learned from real cases.
Presented by Guillaume Plane on September 22, 2016
Pharmaceutical Technology Transfer Best PracticesAnthony Grenier
Key Takeaways from the Technology Transfer Guidelines
• Standardize checklist for transferring product development, process development, and analytical method development knowledge
• Requirements are summarized in key deliverables and reports
Tech transfer and Scale-up - Tips and tricks from a Biodevelopment centerMilliporeSigma
Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
● How to design a bioreactor model in order to scale up a process.
● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
Technology Transfer portfolio in Pharmaceutical IndustryAkshay Jirage
In the pharmaceutical industry, “Technology Transfer” refers to the processes that are needed for successful progress from drug discovery to product development to clinical trials to full-scale commercialization.
Tech transfer and Scale-up - Tips and tricks from a Biodevelopment centerMerck Life Sciences
Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
● How to design a bioreactor model in order to scale up a process.
● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
Qualitative and Quantitative Technology Transfer Models...
This topic comes under Product Development and Technology Transfer....
This is useful for M.Pharm (Pharaceutical Quality Assurance) Students who studying in Fist year sem I....
This Presentation Contain following...
#Introduction of Technology Transfer
#Types of Technology Transfer
#Importance, Reasons of Technology Transfer
#Models of Technology Transfer
#Conclusion
#References
Thanks For Help and Guidance of Mr. Rakesh P. Dhawale Sir
and Miss. Sadaf A. Mutwalli
A proper technology transfer (TT) is both essential and important to drug discovery and development for new medicinal products. It is also required to upgrade drug quality planned during research development and to final product during manufacturing as well as to guarantee that stable quality is transferred
Medicinal products must comply with their approved specifications before they are released into the market. Compliance with release specifications can be demonstrated by performing a complete set of tests on the active substance and/or finished product, according to the approved specifications. Under certain conditions, an alternative strategy to systematic end product testing is possible. So far this concept has been mainly applied to sterility testing of terminally sterilised products and has become associated with parametric release applications. Recent guidelines adopted in the ICH context (ICH Q8, Q9 and Q10) have made it possible to apply a similar release decision process to tests other than sterility, this approach has been called Real Time Release Testing (RTRT).
RTRT is a system of release that gives assurance that the product is of intended quality, based on the information collected during the manufacturing process, through product knowledge and on process understanding and control. RTRT recognises that under specific circumstances an appropriate combination of process controls (critical process parameters) together with pre-defined material attributes may provide greater assurance of product quality than end-product testing and the context as such be an integral part of the control strategy. The RTRT principle is already authorised for use as an optional alternative to routine sterility testing of products terminally sterilised in their final container i.e. parametric release. Enhanced product knowledge and process understanding, the use of quality risk management principles and the application of an appropriate pharmaceutical quality system, as defined within ICH Q8,Q9 and Q10 provide the platform for establishing RTRT mechanisms for other applications, for new products as well as established marketed products. Release of a product can be a combination of a RTR approach for certain critical quality attributes (CQAs) and a more conventional evaluation for other CQAs (partial RTR).
This presentation deals with the concepts of Real Time Release Testing. This presentation was compiled from material freely available from FDA , ICH , EMEA and other free resources on the world wide web.
Transforming Technology Transfer and Recipe Management: From Spreadsheets to ...guest070fdd
Presented by Paul Wlodarczyk at Documentation and Training Life Sciences, June 23-26, 2008 in Indianapolis.
The creation and management of formulation and control recipes is a process that is overdue for transformation. Today, most pharmaceutical companies still rely on error-prone, manual recipe-management approaches, in which master recipes are treated as static and disconnected documents. These outdated approaches lead to delays in technology transfer and introduce errors as formulations are entered into execution and quality management systems. Inefficient technology transfer, in turn, leads to delays in commercialization, waste or poor yield, compliance challenges, and risks to product quality.
Recipe standardization and management can improve every aspect of the product lifecycle, from late-stage discovery through clinical and commercial manufacturing. As pharmaceutical companies increasingly implement Quality by Design principles, recipe standardization will ensure that critical process parameters and their ranges are documented in a uniform fashion, from the earliest phases of process development and then managed effectively through all stages of manufacturing.
This slide deck explores new approaches for standardizing recipe management to mitigate risk and accelerate time to market. You will see case studies and be provided with a framework for understanding how to migrate to standards-based recipe-management practices.
Technology Transfer and Scale-up in Pharmaceutical IndustryPranjalWagh1
Transfer of technology is defined as “a logical procedure that controls the transfer of any process together with its documentation and professional expertise between development and manufacture or between manufacture sites”.
In Pharmaceutical Industry, technology transfer refers to the processes that are needed for successful progress from drug discovery to product development to clinical trials to full scale commercialization.
It is basically divided into three phases - Research Phase, Development Phase and Production Phase. The presentation elaborates on the technology transfer taking place in production phase. Production phase mainly concerns with validation studies and scale-up.
Validation studies such as performance qualification, cleaning validation and process validation is carried out by R&D department.
Scale-up involves the use of results obtained from lab studies for designing prototype of a product and pilot plant process, constructing pilot plant and further using pilot plant data for full-scale commercialization.
Successful transfer of pharmaceutical products and their processes is critical to the successful launch. Its success ensures that products of the highest quality are delivered to the patients along with meeting the business demands of the company. However execution of that transfer is complex involving the interactions of many disciplines across an organization. It depends both on the careful development, management, and transfer of technical and business knowledge along with the development of steps to define the formal transfer of that knowledge from R&D documents and systems to commercial manufacturing documents and systems.
Discussed about commercial product post-approval variation management as per ICH guideline Q12 Product LifeCycle Management. Covers the Risk-based Variation Categorisation and making effective communication between MAH and Authority.
Fundamental knowledge on pharmaceutical
product development and translation from laboratory to market.
Quality management systems: Quality management & Certifications.
Introduction to Change Control.
Definition of Change Control.
Function of Change Control.
Area of Change.
Written Procedures and Documentation.
An Integrated Approach to Ensure Viral Vector and Gene Therapy Commercial Rea...Merck Life Sciences
Come learn more about our integrated approach to ensure viral vector and gene therapy commercial readiness. We will discuss topics relating to process development for viral vector manufacturing, biosafety testing and commercial readiness.
Significant progress has been made for the use of viral vectors for gene therapy. Promising clinical trial results as well as recent FDA approval for CAR-T cell therapy to treat certain children and young adults with B-cell lymphoblastic leukemia have signaled advancements in the field. This marks a historic action, providing opportunities for new viral vector technologies to transform medicine and the way patients are treated and even cured. The need for process development for viral vector manufacturing to improve yield to meet patient demand, biosafety testing for product characterization, potency and safety and commercial readiness to accelerate therapy to-market are critically important. Here, we emphasis an integrated approach that allows our customers solutions to ensure viral vector and gene therapy commercial readiness to meet the growing market need.
In this webinar, you will learn:
● Process development advances for production scale-up of viral vectors for gene therapy
● Methods specific for viral gene therapy product characterization, purity, potency, safety and release testing
● Commercial readiness through our US and UK Centers of Excellence for viral product manufacturing
The Role of BPOG Extractables Data in the Effective Adoption of Single-Use Sy...Merck Life Sciences
The successful adoption of single-use technologies in a biopharmaceutical process largely relies on confidently selecting the right components for use in the fluid path of a product, within a specific process. An important step in choosing such components requires generating an extractables profile, which can be done by carefully selecting the solvent streams and extraction conditions to model the product and process steps complemented with the right analytical strategy.
In this webinar, you will learn:
● An approach to adopt the BioPhorum Operations Group (BPOG) extractables protocol as a baseline testing strategy.
● How to apply extractables data to a specific process followed by a systematic, risk-based safety assessment approach used for comparing known safety concern thresholds.
● The important stages in the risk assessment process as demonstrated by case studies from typical drug manufacturing processes where single-use components were used.
Tech transfer and Scale-up - Tips and tricks from a Biodevelopment centerMerck Life Sciences
Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
● How to design a bioreactor model in order to scale up a process.
● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
Qualitative and Quantitative Technology Transfer Models...
This topic comes under Product Development and Technology Transfer....
This is useful for M.Pharm (Pharaceutical Quality Assurance) Students who studying in Fist year sem I....
This Presentation Contain following...
#Introduction of Technology Transfer
#Types of Technology Transfer
#Importance, Reasons of Technology Transfer
#Models of Technology Transfer
#Conclusion
#References
Thanks For Help and Guidance of Mr. Rakesh P. Dhawale Sir
and Miss. Sadaf A. Mutwalli
A proper technology transfer (TT) is both essential and important to drug discovery and development for new medicinal products. It is also required to upgrade drug quality planned during research development and to final product during manufacturing as well as to guarantee that stable quality is transferred
Medicinal products must comply with their approved specifications before they are released into the market. Compliance with release specifications can be demonstrated by performing a complete set of tests on the active substance and/or finished product, according to the approved specifications. Under certain conditions, an alternative strategy to systematic end product testing is possible. So far this concept has been mainly applied to sterility testing of terminally sterilised products and has become associated with parametric release applications. Recent guidelines adopted in the ICH context (ICH Q8, Q9 and Q10) have made it possible to apply a similar release decision process to tests other than sterility, this approach has been called Real Time Release Testing (RTRT).
RTRT is a system of release that gives assurance that the product is of intended quality, based on the information collected during the manufacturing process, through product knowledge and on process understanding and control. RTRT recognises that under specific circumstances an appropriate combination of process controls (critical process parameters) together with pre-defined material attributes may provide greater assurance of product quality than end-product testing and the context as such be an integral part of the control strategy. The RTRT principle is already authorised for use as an optional alternative to routine sterility testing of products terminally sterilised in their final container i.e. parametric release. Enhanced product knowledge and process understanding, the use of quality risk management principles and the application of an appropriate pharmaceutical quality system, as defined within ICH Q8,Q9 and Q10 provide the platform for establishing RTRT mechanisms for other applications, for new products as well as established marketed products. Release of a product can be a combination of a RTR approach for certain critical quality attributes (CQAs) and a more conventional evaluation for other CQAs (partial RTR).
This presentation deals with the concepts of Real Time Release Testing. This presentation was compiled from material freely available from FDA , ICH , EMEA and other free resources on the world wide web.
Transforming Technology Transfer and Recipe Management: From Spreadsheets to ...guest070fdd
Presented by Paul Wlodarczyk at Documentation and Training Life Sciences, June 23-26, 2008 in Indianapolis.
The creation and management of formulation and control recipes is a process that is overdue for transformation. Today, most pharmaceutical companies still rely on error-prone, manual recipe-management approaches, in which master recipes are treated as static and disconnected documents. These outdated approaches lead to delays in technology transfer and introduce errors as formulations are entered into execution and quality management systems. Inefficient technology transfer, in turn, leads to delays in commercialization, waste or poor yield, compliance challenges, and risks to product quality.
Recipe standardization and management can improve every aspect of the product lifecycle, from late-stage discovery through clinical and commercial manufacturing. As pharmaceutical companies increasingly implement Quality by Design principles, recipe standardization will ensure that critical process parameters and their ranges are documented in a uniform fashion, from the earliest phases of process development and then managed effectively through all stages of manufacturing.
This slide deck explores new approaches for standardizing recipe management to mitigate risk and accelerate time to market. You will see case studies and be provided with a framework for understanding how to migrate to standards-based recipe-management practices.
Technology Transfer and Scale-up in Pharmaceutical IndustryPranjalWagh1
Transfer of technology is defined as “a logical procedure that controls the transfer of any process together with its documentation and professional expertise between development and manufacture or between manufacture sites”.
In Pharmaceutical Industry, technology transfer refers to the processes that are needed for successful progress from drug discovery to product development to clinical trials to full scale commercialization.
It is basically divided into three phases - Research Phase, Development Phase and Production Phase. The presentation elaborates on the technology transfer taking place in production phase. Production phase mainly concerns with validation studies and scale-up.
Validation studies such as performance qualification, cleaning validation and process validation is carried out by R&D department.
Scale-up involves the use of results obtained from lab studies for designing prototype of a product and pilot plant process, constructing pilot plant and further using pilot plant data for full-scale commercialization.
Successful transfer of pharmaceutical products and their processes is critical to the successful launch. Its success ensures that products of the highest quality are delivered to the patients along with meeting the business demands of the company. However execution of that transfer is complex involving the interactions of many disciplines across an organization. It depends both on the careful development, management, and transfer of technical and business knowledge along with the development of steps to define the formal transfer of that knowledge from R&D documents and systems to commercial manufacturing documents and systems.
Discussed about commercial product post-approval variation management as per ICH guideline Q12 Product LifeCycle Management. Covers the Risk-based Variation Categorisation and making effective communication between MAH and Authority.
Fundamental knowledge on pharmaceutical
product development and translation from laboratory to market.
Quality management systems: Quality management & Certifications.
Introduction to Change Control.
Definition of Change Control.
Function of Change Control.
Area of Change.
Written Procedures and Documentation.
An Integrated Approach to Ensure Viral Vector and Gene Therapy Commercial Rea...Merck Life Sciences
Come learn more about our integrated approach to ensure viral vector and gene therapy commercial readiness. We will discuss topics relating to process development for viral vector manufacturing, biosafety testing and commercial readiness.
Significant progress has been made for the use of viral vectors for gene therapy. Promising clinical trial results as well as recent FDA approval for CAR-T cell therapy to treat certain children and young adults with B-cell lymphoblastic leukemia have signaled advancements in the field. This marks a historic action, providing opportunities for new viral vector technologies to transform medicine and the way patients are treated and even cured. The need for process development for viral vector manufacturing to improve yield to meet patient demand, biosafety testing for product characterization, potency and safety and commercial readiness to accelerate therapy to-market are critically important. Here, we emphasis an integrated approach that allows our customers solutions to ensure viral vector and gene therapy commercial readiness to meet the growing market need.
In this webinar, you will learn:
● Process development advances for production scale-up of viral vectors for gene therapy
● Methods specific for viral gene therapy product characterization, purity, potency, safety and release testing
● Commercial readiness through our US and UK Centers of Excellence for viral product manufacturing
The Role of BPOG Extractables Data in the Effective Adoption of Single-Use Sy...Merck Life Sciences
The successful adoption of single-use technologies in a biopharmaceutical process largely relies on confidently selecting the right components for use in the fluid path of a product, within a specific process. An important step in choosing such components requires generating an extractables profile, which can be done by carefully selecting the solvent streams and extraction conditions to model the product and process steps complemented with the right analytical strategy.
In this webinar, you will learn:
● An approach to adopt the BioPhorum Operations Group (BPOG) extractables protocol as a baseline testing strategy.
● How to apply extractables data to a specific process followed by a systematic, risk-based safety assessment approach used for comparing known safety concern thresholds.
● The important stages in the risk assessment process as demonstrated by case studies from typical drug manufacturing processes where single-use components were used.
Our Life Science business is fully dedicated to supporting small, biotech companies with cutting edge technologies. Besides technical aspects of molecule development and production, fundraising is omnipresent. This webinar will provide insights and perspectives from Merck Ventures, BV, a subsidiary of
Merck KGaA, Darmstadt, Germany.
At Merck Ventures, BV, a subsidiary of Merck KGaA, Darmstadt, Germany, the strategic corporate venture capital arm of Merck KGaA, Darmstadt Germany, we drive innovation and back entrepreneurs through equity investments and hands-on support. We focus on areas that impact the vitality and sustainability of our current and future businesses.
This webinar will provide you with the ABCs of venture capital including:
• How venture capital works
• The role of a corporate venture capital
• How we look at opportunities
Modern BioManufacturing: Single-Use Technologies in Configurable, Prefabricat...Merck Life Sciences
A co-webinar describing a solution to biopharma's challenge of rapidly and rationally expanding capacity by employing single-use technologies, a templated process train, and pre-fabricated mobile/modular cleanrooms.
Biopharmaceutical companies on the verge of investing into manufacturing or facilities expansion face many questions and challenges. Speed, agility, and flexibility are becoming more critical to executing their changing production and distribution strategies. Platform facility designs which integrate the latest process technologies within innovative pre-fabricated cleanrooms are critical for addressing the trending desire to implement 'clonable' modular facilities that can be delivered in a timely fashion across multiple locations. Companies like Merck KGaA, Darmstadt, Germany and G-CON Manufacturing are working together to combine their technologies and develop simple yet robust platform solutions for industry.
As bioprocessing technologies intensify performance, volumetric requirements become less. As such, 2000L single-use bioreactors - or multiple bioreactors of similar or less volumes - now suffice for the production of novel or biosimilar recombinant proteins. Such a shift in the industry enables the development of more mobile, modular facility designs. We will describe the rationale for this collaboration and its result: a turn-key solution that integrates a templated process train with a rapidly-deployable facility platform. By combining the unique advantages found with the G-CON POD construction and the bioprocess technology expertise from within Merck KGaA, Darmstadt, Germany, the goal of creating a cost-effective, pre-fabricated alternative to historical 'stick built' facilities is being achieved. Additionally, the flexibility inherent to our approach provides for a greater configurability that confers more user-specified choice into the selection of options. Simple in concept, this solution is also robust, cost-effective, and conducive to tight timelines for implementation.
In this webinar you will learn:
- Basic options for facilities/capacity expansion
- The value of templated process trains employing single-use equipment
- How modular, prefabricated PODs® outfitted with such single-use bioprocessing equipment represent an attractive, cost-effective strategy for capacity expansion
POD® is a registered trademark of G-CON Manufacturing, Inc.
Integrity testing is a critical operation, especially for sterilizing grade filters used in biopharmaceutical processing. When performed correctly, an integrity test is a fast, definitive, non-destructive way to assure filter retention performance. Fortunately, there are few ways a non-integral filter will pass the integrity test, eliminating the possibility a non-retentive filter is used undetected. Unfortunately, there are a lot of ways an integral filter can fail the integrity test, resulting in retests, lost time, productivity and potentially lost product.
In this webinar you will:
- Gain confidence in your integrity testing results
- Provide justification for retests
- Understand specific challenges and eliminate them to assure the integrity test can be performed correctly the first time
Serum-free Media for Therapeutic Cell Manufacturing – Challenges and InnovationsMerck Life Sciences
The need for high quality materials that are animal origin-free and compatible with a limited number of downstream processing steps will increase as cell therapies achieve clinical success. Large scale manufacturing necessitates transition from planar culture to technologies such as stirred tank bioreactors where culture of suspension cells or adherent-dependent cells on microcarriers is enabled.
This webinar will discuss challenges and solutions to the elimination of animal-derived components from cell culture processes, with focus on human mesenchymal stromal/stem cells (hMSCs). Fetal bovine serum in particular is associated with regulatory, supply, and consistency challenges, yet a wide range of performance has been observed between different serum-free media formulations for expansion of hMSCs in planar formats. Moreover, a positive performance in static culture is not necessarily predictive of that under agitated conditions with microcarriers, highlighting ongoing challenges to the generation of a fully chemically-defined and scalable cell culture medium. Through use of pharma-grade basal media manufactured with advanced milling technology and EMPROVE® raw materials, as well as transition to serum-free supplementation and process development activities, the robust expansion of hMSCs across platforms has been achieved.
Presented by Aletta Schnitzler, Senior Scientist on 5/5/16
Considerations for Manufacturing Commercial Antibody Drug Conjugates (ADCs) -...Merck Life Sciences
ADC manufacturing presents a unique set of challenges as compared to the well established practices employed for more traditional biologic products.
The development and commercialization of key intermediates, complex small-molecule APIs and biologic drug substances shouldn’t be such a headache. The uniqueness, versatility, and complexity involved in each project only means you need to make sure you’re well informed when it comes to the dos and don'ts of manufacturing commercial Antibody Drug Conjugates (ADCs). Tune in to hear a CMO perspective for an in-depth understanding on the subject of manufacturing commercial ADCs. Our team will discuss all of the considerations that must be addressed to successfully manufacture ADCs.
In this webinar you will learn:
- Facility Design and Cleaning Validation
- Advantages of Single Use Systems
- Process Control and Regulatory Strategies
Discover solutions for all phases of product development for genetox assessment from in silico analysis, screening, mode of action assessment, or GLP regulatory required assays. Our BioReliance® Genetic Toxicology Services director will share specifics and rationale for each assay category.
In this webinar you will:
- Learn the required regulatory assays
- Understand why each assay is used and how to employ different assay designs
- Learn different assays and techniques to screen potential compounds and understand mechanism and mode of action
Presented by Rohan Kulkarni, Ph.D., ERT, Director Toxicology, Study Management on February 9, 2017
Time is of the Essence: Creating a New Synergy Between Single-Use Adopters an...Merck Life Sciences
Biopharmaceutical companies race to achieve milestones, advance promising molecules, improve productivity and reduce costs. In addition to perfecting the biology, companies must grapple with challenges such as standardization of process technology, supply security and process economics, especially in light of the burgeoning interest and adoption of single-use systems. Efficient implementation of single-use systems is more than incorporating disposable components into the process. It requires a new approach by suppliers of these systems to nimbly and effectively address such challenges.
This session will highlight best practices for creating a new synergy between biopharmaceutical companies and single-use suppliers to strike the right balance of design flexibility, supply predictability and reliable lead times necessary to beat the clock. A case study describing a more efficient and practical “bottoms-up” approach to configuring and delivering single-use assemblies will be presented.
In this webinar, you will learn:
- How to choose single-use assemblies that are best suited for your process
- Risk reduction strategies that incorporate stock or specialized single-use assemblies vs. custom solutions
- Best practices to strike the right balance of design flexibility and supply predictability
Rapid Methodologies for Biosafety Testing of Biologic TherapeuticsMerck Life Sciences
Learn about existing and emerging methods to accelerate biosafety testing of biologic therapies.
Speed to market for biologic therapeutics is ever more critical. However, the critical safety tests for these molecules, for example screening for adventitious agents such as viral contaminants, can be time consuming as well as challenging and laborious. Join us for this webinar as we explore how rapid methodologies are being used to not only accelerate this process, but also enhance quality by reducing testing complexity. Existing technologies as well as emerging trends will be discussed, along with the implications these may have on the regulatory landscape.
In this webinar you will learn:
● Which existing and emerging technologies are having now, and will have in the future, an impact on biosaftey testing.
● The benefits as well as risks of employing rapid methods for biosafety screening.
● How the regulatory agencies are reacting to rapid testing methods as alternatives to existing methods.
Viral Risk Mitigation Strategies: Key Considerations in the Prevention and De...Merck Life Sciences
Regulatory guidelines have defined industry best practices around adventitious virus contamination and risk mitigation in terms of patient safety.
Today, the industry is taking a closer look at minimizing the business risk associated with viral contamination and is taking a more directed view of risk mitigation. This approach includes virus prevention and detection, in addition to removal.
From cell culture seed train to final fill vial, this presentation will describe:
-Potential risks associated with different areas of biotech processes
-What can be done to minimize adventitious virus risk in those areas.
The overarching strategy of risk mitigation will include evaluation of raw materials, modified expression systems, environmental controls, upstream and downstream processing, as well as testing and regulatory considerations.
Delivering More Efficient Therapeutic Protein Expression Systems Through Cell...Merck Life Sciences
Historically cell line performance has been enhanced through media, feed and process optimization, primarily through trying to meet the basic nutritional requirements of the cells so that they can sustain high growth and productivity throughout the production runs.
However, the omics (genomics, transciptomics and metabolomics) era, sequencing of the CHO genome and enhancements in genome editing technologies over the past several years have enabled scientists to take a more direct route in cell line optimization through the modification of specific genes that have direct implications on cell culture performance, protein quality attributes and upstream and downstream manufacturing processes. These targets include but are not limited to genes that may be involved in cell cycle regulation, cellular metabolism, cellular transcription and translation, the secretory pathway and protein glycosylation or other post-translational modifications.
In this webinar we will discuss specific genetic modifications that have been made to CHO cell lines and how these modifications can lead to more efficient expression systems.
Six Strategies to Get Your Instrument Development Moving
Speeding up the instrument specification process and reducing the need for extensive iterations can greatly accelerate development time. The keys are to fail early and fail on paper, eliminating expensive and time consuming hardware iterations.
Download the whitepaper.
http://solutions.parker.com/6steps-motion-system-ontime-and-underbudget
Migrating clinical studies from one database to another (such as Oracle Clinical to Oracle Clinical or Oracle Clinical to Oracle InForm or Medidata Rave), is a complex process that requires a thorough understanding of clinical data management, technology, and the regulations that govern clinical trials.
In this SlideShare on clinical study migrations we:
Discuss reasons to migrate a clinical study
Provide an overview of the clinical study migration process
Look at validation, technical, and business considerations for migrating a clinical study
Present real-world case studies
Seeking an opportunity to further my experience within the Information Technology and Life Sciences industries that utilizes my knowledge and skills in the areas of TrackWise configuration, validation, systems administration, and technical writing.
Computerized System Validation Business Intelligence SolutionsDigital-360
Executive Summary
Regulated pharmaceutical, biotech and medical device companies are challenged to develop manufacturing capabilities quickly and cost-effectively while at the same time safeguarding product quality and patient safety.
Validation has been an essential part of regulated industries for over 20 years, yet as the field has evolved, little has changed in the business, or manual, approach to validation.
If not tackled head on, early and often 'Technical Debt' will quickly pick up and slow delivery of new products and features down. But where do we start to tackle debt and avoid the product credit crunch? Clear choices can only be informed through common understanding, mutual agreement, rules, and appropriate automation and metrics. Presenting some experiences of how to view and manage debt to create product ecosystems that that thrive.
Similar to Managing Process Scale-up and Tech Transfer (20)
The Viscosity Reduction Platform: Viscosity-reducing excipients for improveme...Merck Life Sciences
Protein viscosity is a major challenge in preparing highly concentrated protein formulations suitable for subcutaneous injection. Recently, the Viscosity Reduction Platform (VRP) was introduced and its technical key features and benefits for formulations were discussed. However, highly viscous solutions do not only pose a challenge when administering a drug to a patient, they can also impose technical limitations in the manufacturing process.
This white paper evaluates the effect of the excipients in the Viscosity Reduction Platform on ultrafiltration processes used to produce a highly concentrated formulation of a monoclonal antibody (mAb). Two filtration methods are demonstrated in this work.
Find more information about the Viscosity Reduction Platform on our website: https://www.sigmaaldrich.com/products/pharma-and-biopharma-manufacturing/formulation/viscosity-reduction-platform
Use of Excipients in Downstream Processing to Improve Protein PurificationMerck Life Sciences
Excipients are used to improve the stability of protein-based therapeutics by protecting the protein against a range of stress conditions such as temperature changes, pH changes, or agitation. Similar stresses are applied to proteins during downstream purification. Shifts in pH during Protein A chromatography, subsequent incubations at low pH for virus inactivation, and changes in conductivity in ion exchange chromatography can lead to aggregation, fragmentation, or other chemical modifications of the therapeutic protein. Given the potential impact on the protein’s structural integrity, there is a need for approaches to reduce the risk presented by the conditions during downstream processing. For example, integration of a solution to prevent aggregation of proteins would be a more efficient strategy than implementing steps to remove multimeric forms.
This white paper highlights the results from a recent paper by Stange et. al., in which protein stabilizing excipients such as polyols, sugars, and polyethylene glycol (PEG4000) were used as buffer system additives. Effect of the excipients on elution patterns, stabilization of the monomer antibody, host-cell protein removal, virus inactivation rates and binding capacity of cation exchange chromatography were explored.
Exploring the protein stabilizing capability of surfactants against agitation...Merck Life Sciences
Agitation of therapeutic protein solutions during manufacturing, shipping and handling is one of the major initiators for protein aggregation and particle formation during the life history of a protein drug. Adsorption of protein molecules to liquid-air interfaces leads to the formation of highly concentrated protein surface films. The rupture of these protein films due to various mechanical processes can then result in the appearance of protein aggregates and particles in the bulk solution phase.
One technique to stabilize proteins against stress induced by liquid-air interfaces is the use of non-ionic surfactants. About 91% of antibody formulations commercially available in 2021 contained a surfactant. Polysorbate 20 and 80, composed of a hydrophilic polyoxyethylene sorbitan and hydrophobic fatty acid esters, made up the largest part being employed in 87% of said formulations.
Despite their frequent use in parenteral drug products, concerns have been raised for decades about the application of polysorbates as surfactants in biopharmaceutical formulations. Autoxidation of polysorbate, caused by residual peroxides in polysorbates, can damage the proteins and can further drive the oxidative degradation of polysorbate. Chemical and enzymatic hydrolysis of polysorbate may lead to the formation of free fatty acid particles, which may become visible; and both mechanisms eventually lead to the reduction in polysorbate concentration. Therefore, the purpose of the current study was to compare various molecules for their capabilities to reduced agitation-induced protein aggregation and particle formation; and furthermore, investigate their underlying protein stabilizing mechanisms.
The Viscosity Reduction Platform: Viscosity Reducing Excipients for Protein F...Merck Life Sciences
Protein viscosity is one of the major obstacles in preparing highly concentrated protein formulations suitable for subcutaneous injection.
This whitepaper examines how combining an amino acid with a second viscosity-reducing excipient circumvents adverse effects on protein stability and improves viscosity-reducing capacity.
To find more information about the Viscosity Reduction Platform, please visit our website: https://sigmaaldrich.com/products/pharma-and-biopharma-manufacturing/formulation/viscosity-reduction-platform
Characterization of monoclonal antibodies and Antibody drug conjugates by Sur...Merck Life Sciences
Watch the presentation of this webinar: https://bit.ly/3Pjpjvr
Highlights of this webinar:
- Surface plasmon resonance as a powerful tool for biologic characterization including mAbs and ADCs.
- SPR allows rapid binding analysis in real time without using labels for SARS-CoV-2 receptor binding domain mutations.
- Kinetic data is indicative of possible neutralizing activity allowed assessment of neutralizing ability of therapeutic monoclonal antibodies.
- The application can provide preliminarily efficacy information and facilitated mAbs/ACDs candidate selection process
Detailed description:
Characterization of therapeutic monoclonal antibodies (mAbs) or Antibody drug conjugates (ADCs) is challenging due to their ability to bind to a variety of proteins via their Fc and Fab domains, giving rise to diverse biological functions associated with each domain. The Fc domain of mAbs interacts with Fc receptors with varying affinities, which can influence biological processes such as Complement-dependent cytotoxicity (CDC) and Antibody-dependent cellular cytotoxicity (ADCC), transcytosis, phagocytosis, and/or serum half-life.
An important characteristic of an antibody is its Fc effector function. Antibodies can be engineered to obtain desired binding of the Fc region to Fc receptors expressed on effector cells. Hence, it is crucial to evaluate the binding interaction of mAbs/ADC with Fc receptors in the early phase of drug development to understand the potential biological activity of the product in vivo.
Surface Plasmon Resonance (SPR) is a powerful technique to establish binding kinetics in real-time, label free, and high sensitivity with low sample consumption. Along with target antigen binding, it is crucial to evaluate the binding interaction of antibodies and ADCs with Fc receptors. Our SPR case studies investigated the impact on binding kinetics of ADCs with different linkers and the binding interactions of SARS-CoV-2 spike protein variants and evaluated the neutralizing ability of therapeutic mAbs. SPR characterisation can be facilitated in all stages of the product life cycle to ensure the quality and safety of mAbs and ADCs.
The Role of BioPhorum Extractables Data in the Effective Adoption of Single-U...Merck Life Sciences
Regulatory expectation does require patient safety evaluations with supporting data for manufacturing components that directly come into contact with drug manufacturing process streams. Readily available extractables data can help manufacturers using singleuse technology to accelerate product qualifications, risk assessments and process optimization
This white paper guides you on how to save time and resources with supplier-provided single-use system extractables data and gives you an overview about the overall strategy for Extractables & Leachables. At the end you will find a case study.
Find more information about filters and single-use components on our website: https://www.sigmaaldrich.com/DE/en/services/product-services/emprove-program/emprove-filter-and-single-use-component-portfolio
Watch the recording of this presentation here: https://bit.ly/3zTOpe4
Detailed description:
SARS-CoV-2 showed us that technology supports us during our inspection activity even if on-site visits are not possible. Travel restrictions of various kinds will remain a risk in the future. The use of new technologies has shown that inspections and audits can be carried out despite these restrictions. We will focus on what possibilities the new technologies offer and take a look at the future of inspections and audits.
In this webinar, you will learn:
• Regulatory overview of remote audits
• The technologies needed to support the audit process
• What types of inspections are possible with the use of these technologies
• How audits may look in the future
Presented by:
Daniel Buescher, Product Manager - Digital Solutions
Moving your Gene Therapy from R&D to IND: How to navigate the Regulatory Land...Merck Life Sciences
Watch the recording of this presentation here: https://bit.ly/3SqOsoP
Novel therapies, including cell and gene therapies, continue to be central to innovation in healthcare and represent the fastest growing area of therapeutic medicine. As a consequence, the number of gene therapies undergoing clinical trials has increased significantly in the last five years.
Manufacturing processes for these novel therapeutics are very complex with a high risk of contamination. Regulatory agencies world-wide have responded by issuing guidance to outline their expectations for development and manufacture of cell and gene therapies. Currently, regulatory guidance is not harmonized globally and can often lead to confusion within industry and increased risk of non-compliance.
In this webinar, we'll answer:
• Which regulatory guidelines do you need to comply for your INDs?
• When do you start implementing GMPs and validated assays?
• How do you get your QC testing strategy ‘right the first time’?
• How do you ensure testing is not your rate limiting step for the IND submission?
Presented by:
Manjula Aysola, Senior Regulatory Consultant
Dr. Alison Armstrong, Sr. Director, Technical and Scientific Solutions
Identity testing by NGS as a means of risk mitigation for viral gene therapiesMerck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3RijkHC
Detailed description:
Imagine you’ve just completed a manufacturing run for your viral vector. Identity testing is performed to confirm the vector sequence. But when the results come back the data reveals unexpected sequence variants! With an appropriate risk mitigation testing strategy, this situation can be prevented.
The situation described above is not hypothetical, and happens more that you think, costing valuable time and resources.
Investigatory testing has shown that sequence variants present in starting materials (e.g. plasmids) are likely to make their way to the final product. Adequate identification of low-level variants with an appropriately sensitive method is critical in ensuring the quality of the final product. A risk-based testing strategy, in the context of identity, for viral vector manufacturing will be presented, focusing on key testing points. NGS assays for identity and variant detection will be highlighted due to their extremely sensitive nature compared to traditional approaches.
In this webinar, we'll explore:
• Regulatory requirements for identity testing
• NGS applications for identity testing as compared to traditional methods
• A case study on the impact of not establishing a proper risk-based testing strategy
Presented by: Bradley Hasson, Director of Lab Operations for NGS Services
Latest advancements of melt based 3D printing technologies for oral drug deli...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3A2WcH4
The application of polymer excipients in 3D printing manufacturing is usually limited due to the concerns of filament strength, high processing temperature and large scale manufacturing.
Latest technology developments are targeting a direct melt deposition to simplify the process and enable a constant and efficient process. Two different processing approaches will be presented:
The advanced melt drop deposition, where individual three dimensional geometries can be created by depostition of polymer droplets and the MED® 3D printing technology which allows by precise layer-by-layer deposition to produce objects with well-designed geometric structures.
In this webinar, you will learn:
• Latest advancements of melt based 3D printing approaches
• Application examples for the individual technologies
• Deep dive in the MED® 3D printing technology to design dedicated drug release profiles
Presented by:
Dr. Thomas Kipping, Head of Drug Carriers
Dr. Xianghao Zuo, Deputy Director of R&D, Triastek
CAR-T Manufacturing Innovations that Work - Automating Low Volume Processes a...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3NDNIKe
Automated, fit-for-purpose tools are essential in CAR-T processing to support sustainable manufacturing of clinical and market-approved cell therapy products. This webinar will discuss how the ekko™ Acoustic Cell Processing System uses acoustic technology as a touchless approach to manipulate cells, enabling a modular tool across the CAR-T manufacturing workflow. Typical performance of templated ekko™ System processes for DMSO washout of leukapheresis material, low volume and high cell concentrate for electroporation preparation, and harvest of expanded T cells will be reviewed.
This webinar will also give an early glimpse at the ekko™ Select System for unmatched T cell selection.
In this webinar, you will:
• Uncover how the ekko™ System supports the broad industrialization of cell therapy, with particular focus on how to achieve low volume, high concentrate cell product for critical transduction and transfection steps
• Discover how ekko™ System for wash and concentrate processes throughout the cell therapy workflow achieve high cell recovery, viability, and effective residual removal
• Preview to ekko™ Select, our cell therapy selection platform, to achieve unmatched ease-of-use with direct processing from leukopaks reducing the need for preparation steps
Presented by:
Benjamin Ross-Johnsrud, Acoustic Technology Expert
Robert Scott, Mechanical Engineer III
Viral safety of biologics: What's changing with the ICH Q5A revision?Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3t7X9tg
How does the ICH Q5A revision impact viral safety strategies for biologics?
Biologics continue to grow at a fast pace. Manufactured using cell lines of human or animal origin, these are at risk of viral contamination making safety strategies critical. A comprehensive risk mitigation strategy using multiple orthogonal measures is a regulatory expectation. ICH Q5A, the globally-harmonized guideline outlines the expectations. ICH Q5A is currently being revised to address recent scientific advancements including novel therapeutic modalities, new manufacturing paradigms, updates in viral clearance applications, and alternate detection technologies. We’ll discuss the expected changes and potential impact on viral safety strategies with case studies and examples.
In this webinar, you will learn about:
• The Importance of virus testing in biologics products
• Regulatory landscape, expectations for the Q5A revision
• What's new and changing
• Examples of alternate testing schedules, impact on viral clearance
Presented by:
Manjula Aysola, Senior Regulatory Consultant
Alison Armstrong, PhD, Sr. Director, Technical and Scientific Solutions
Improve Operational Efficiency by Over 30% with Product, Process, & Systems A...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3adaxWh
When implementing new automation systems, organizations must consider things like deployment time, user adoption, and costs.
They must also consider the cost of doing nothing – that is, what competitive advantage is lost in standing still? What time and quality is lost in repetitive, manual tasks rather than an automated, digital workflow? What operational efficiencies are lost?
In this webinar we examine how a product, process, and system agnostic automation platform can be deployed faster than traditional system specific software while bringing greater operational efficiencies (in many cases over 30% improvement).
To remain competitive in the market, biopharma manufacturers must adopt automation and digital technologies, but most plants still have island of automation consisting of independently functioning, standalone unit operations. This results in operational inefficiency, regulatory concerns, and a poor understanding of the process and product life cycle.
Taking the first, right step must include considering risks, costs, timelines, and technology alternatives. Traditional automation approaches tied to specific systems, processes, and products are, by their nature, limited; while an agnostic platform will address current biomanufacturing business challenges and ensure future readiness. With the right platform, a phased automation implementation can yield operational efficiency gains of up to 30% and improved product quality and regulatory compliance.
In this webinar, let's explore:
• Challenges of automation and digital technology adoption
• What a product, process, and system agnostic platform entails
• Applications and benefits of a process orchestration platform
• Ensuring future readiness with process orchestration
Presented by:
Braj Nandan Thakur, Global Product Manager - Automation
Insights from a Global Collaboration Accelerating Vaccine Development with an...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3Nbb5ug
Get insights and best practices from a multinational team establishing a platform for vaccine production. See how a long-term collaboration on a bench-scale process used to produce a Virus Like Particle (VLP) vaccine for SARS-CoV-2 was successfully converted to a robust GMP-compatible, scalable process.
The COVID-19 pandemic further emphasized the need for collaboration in the development of urgently needed vaccines and therapeutics. In this webinar, we take you behind the scenes of our collaboration with Technovax and Innovative Biotech in which a scalable VLP vaccine platform was optimized for use in a production facility in Nigeria in response to the need for local production of SARS-CoV-2 vaccines. The flexibility and robustness of the platform will enable its rapid deployment to support the West African pandemic readiness program. Initial development of the VLP process began in late 2019 and by March 2020, was already adapted for production of a SARS-CoV-2 vaccine.
In this webinar, you will learn:
• About building a priceless collaborative network with integrated solutions
• Virus-Like Particle Vaccines
• Process Development Overview and Challenges
• Pre-clinical Results and Next Steps
Presented by:
Jose M. Galarza, PhD,
President and Founder of TechnoVax
Naomi Baer,
Business development consultant, Emerging Biotech, BioProcess division
Youssef Gaabouri, Eng. ,
Associate Director, Head of Sales Middle East & Africa, BioProcess division
Risk-Based Qualification of X-Ray Sterilization for Single-Use SystemsMerck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3vQf0qv
In the single-use bioprocess industry, X-ray irradiation warrants consideration as an alternate sterilization technology. Using a risk-based qualification testing strategy is important when evaluating and implementing equivalent ionizing irradiation sterilization methods.
The urgent need for life-saving therapies as a result of the global pandemic has reinforced the criticality of flexibility in pharmaceutical manufacturing, including sterilization. The single-use bioprocess industry traditionally has employed gamma irradiation sterilization. X-ray irradiation is being considered as an additional sterilization technology for business and supply continuity. We will share a risk-based qualification testing strategy including Extractables and data generated to support comparability of gamma irradiation and X-ray irradiation as equivalent ionizing irradiation sterilization methods.
In this webinar, you will learn about:
• The comparison of gamma and X-ray irradiation sterilization
• A risk-based qualification test strategy
• Data evaluation of gamma versus X-ray sterilized single-use components
Presented by:
Monica Cardona,
Global Senior Program Manager
Paul Killian, Ph.D.,
R&D Director, Analytical Technologies
Rapid replication competent adenovirus (rRCA) detection: Accelerate your lot ...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3MJ4u9V
Testing for presence of replication competent adenovirus (RCA) is a key component to ensure patient safety and a requirement for all biologicals manufactured using adenoviral vectors. For many adenoviral-based products, the RCA assay is a rate-limiting assay for lot release.
Join this webinar to learn about a rapid RCA detection assay currently in development, which combines a 7-day culture assay with a highly sensitive molecular endpoint specific for RCA. The method can detect presence of as little as 1 RCA in adenoviral vector material at an approximate concentration of 5x107 - 2x108 vector particles (VP)/mL, making it a suitable method to meet regulatory requirements while accelerating your lot release timelines.
In this webinar, you will learn about:
• Regulatory framework for adenoviral vector products
• Considerations for lot release testing of adenoviral-based therapies
• Advantages of a rapid method for RCA testing on production lot material
Presented by:
Axel Fun, Ph.D.,
Principal Scientist
Alberto Santana, MBA,
Product Manager, Biologics Biosafety Testing
The High Intensity Sweeteners Neotame and Sucralose: 2 Ways to ace the Patien...Merck Life Sciences
Watch the presentation of this webinar here: https://bit.ly/3vQyN7K
Bitter medicines are an important issue, especially for pediatric applications. As several APIs have bitter tasting components, high intensity sweeteners for taste optimization are of great interest. Join our webinar to discover our new sweetener toolbox enabling safe and stable formulations.
Mask bitter aftertaste for a sweeter pill to swallow! Patients’ compliance and the therapeutic benefit are supported by a pleasant taste of pharmaceutical formulations. With the high intensity sweeteners Neotame and Sucralose, you have efficient tools at hand which are superior to other sweeteners in many aspects:
• excellent sugar-like taste profile
• outstanding sweetness factors
• use effectiveness
• enhanced stability
We will present our new toolbox of two high performance sweeteners and focus on aspects of stability, safety, the application in various dosage forms, and market perception.
In this webinar, you will learn:
• How to optimize the patients' taste experience of your pharmaceuticals
• How sweeteners can be differentiated by their sensory profiles and features
• How our new product offering Neotame can be effectively used in your targeted formulations
Presented by:
Almut von der Brelie,
Senior Manager Strategic Marketing
Excipients for Solid Applications
The Developability Classification System (DCS): Enabling an Optimized Approac...Merck Life Sciences
This whitepaper by Dr. Daniel Joseph Price outlines how poorly soluble drug formulations can be designed using the developability classification system (DCS).
The DCS identifies the root cause of low solubility and enables lean, cost-effective and effective formulations to be developed.
#solubility #pharmaceuticalmanufacturing #oralsoliddosage #drugdevelopment
In this webinar, you will learn about:
The advantages of using advanced intermediates to develop ADC therapies
How to increase ADC solubility and efficiency
Fast, small-scale ADC library generation
Seamless supply chain with reduced complexity and regulatory support
The ADCore product line offers versatile intermediates that simplify the synthesis of common ADC payloads (dolastatins, maytansinoids, and PBDs) by greatly reducing the number of synthetic steps. This translates to savings in development and manufacturing costs and shorter timelines to the clinic. To address the poor solubility of many ADC payloads, ChetoSensar™ was developed to significantly increase the hydrophilicity of the drug linker, which has been shown to also substantially increase the efficacy of ADCs and broaden the therapeutic window.
Lastly, the ADC Express™ service leverages conjugation chemistry and analytical expertise to help design and quickly synthesize sets of potential ADC therapies suitable for screening to simplify candidate selection and get ADC therapies to market faster.
The dimensions of healthcare quality refer to various attributes or aspects that define the standard of healthcare services. These dimensions are used to evaluate, measure, and improve the quality of care provided to patients. A comprehensive understanding of these dimensions ensures that healthcare systems can address various aspects of patient care effectively and holistically. Dimensions of Healthcare Quality and Performance of care include the following; Appropriateness, Availability, Competence, Continuity, Effectiveness, Efficiency, Efficacy, Prevention, Respect and Care, Safety as well as Timeliness.
CHAPTER 1 SEMESTER V PREVENTIVE-PEDIATRICS.pdfSachin Sharma
This content provides an overview of preventive pediatrics. It defines preventive pediatrics as preventing disease and promoting children's physical, mental, and social well-being to achieve positive health. It discusses antenatal, postnatal, and social preventive pediatrics. It also covers various child health programs like immunization, breastfeeding, ICDS, and the roles of organizations like WHO, UNICEF, and nurses in preventive pediatrics.
Leading the Way in Nephrology: Dr. David Greene's Work with Stem Cells for Ki...Dr. David Greene Arizona
As we watch Dr. Greene's continued efforts and research in Arizona, it's clear that stem cell therapy holds a promising key to unlocking new doors in the treatment of kidney disease. With each study and trial, we step closer to a world where kidney disease is no longer a life sentence but a treatable condition, thanks to pioneers like Dr. David Greene.
Navigating the Health Insurance Market_ Understanding Trends and Options.pdfEnterprise Wired
From navigating policy options to staying informed about industry trends, this comprehensive guide explores everything you need to know about the health insurance market.
Antibiotic Stewardship by Anushri Srivastava.pptxAnushriSrivastav
Stewardship is the act of taking good care of something.
Antimicrobial stewardship is a coordinated program that promotes the appropriate use of antimicrobials (including antibiotics), improves patient outcomes, reduces microbial resistance, and decreases the spread of infections caused by multidrug-resistant organisms.
WHO launched the Global Antimicrobial Resistance and Use Surveillance System (GLASS) in 2015 to fill knowledge gaps and inform strategies at all levels.
ACCORDING TO apic.org,
Antimicrobial stewardship is a coordinated program that promotes the appropriate use of antimicrobials (including antibiotics), improves patient outcomes, reduces microbial resistance, and decreases the spread of infections caused by multidrug-resistant organisms.
ACCORDING TO pewtrusts.org,
Antibiotic stewardship refers to efforts in doctors’ offices, hospitals, long term care facilities, and other health care settings to ensure that antibiotics are used only when necessary and appropriate
According to WHO,
Antimicrobial stewardship is a systematic approach to educate and support health care professionals to follow evidence-based guidelines for prescribing and administering antimicrobials
In 1996, John McGowan and Dale Gerding first applied the term antimicrobial stewardship, where they suggested a causal association between antimicrobial agent use and resistance. They also focused on the urgency of large-scale controlled trials of antimicrobial-use regulation employing sophisticated epidemiologic methods, molecular typing, and precise resistance mechanism analysis.
Antimicrobial Stewardship(AMS) refers to the optimal selection, dosing, and duration of antimicrobial treatment resulting in the best clinical outcome with minimal side effects to the patients and minimal impact on subsequent resistance.
According to the 2019 report, in the US, more than 2.8 million antibiotic-resistant infections occur each year, and more than 35000 people die. In addition to this, it also mentioned that 223,900 cases of Clostridoides difficile occurred in 2017, of which 12800 people died. The report did not include viruses or parasites
VISION
Being proactive
Supporting optimal animal and human health
Exploring ways to reduce overall use of antimicrobials
Using the drugs that prevent and treat disease by killing microscopic organisms in a responsible way
GOAL
to prevent the generation and spread of antimicrobial resistance (AMR). Doing so will preserve the effectiveness of these drugs in animals and humans for years to come.
being to preserve human and animal health and the effectiveness of antimicrobial medications.
to implement a multidisciplinary approach in assembling a stewardship team to include an infectious disease physician, a clinical pharmacist with infectious diseases training, infection preventionist, and a close collaboration with the staff in the clinical microbiology laboratory
to prevent antimicrobial overuse, misuse and abuse.
to minimize the developme
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Defecation
Normal defecation begins with movement in the left colon, moving stool toward the anus. When stool reaches the rectum, the distention causes relaxation of the internal sphincter and an awareness of the need to defecate. At the time of defecation, the external sphincter relaxes, and abdominal muscles contract, increasing intrarectal pressure and forcing the stool out
The Valsalva maneuver exerts pressure to expel faeces through a voluntary contraction of the abdominal muscles while maintaining forced expiration against a closed airway. Patients with cardiovascular disease, glaucoma, increased intracranial pressure, or a new surgical wound are at greater risk for cardiac dysrhythmias and elevated blood pressure with the Valsalva maneuver and need to avoid straining to pass the stool.
Normal defecation is painless, resulting in passage of soft, formed stool
CONSTIPATION
Constipation is a symptom, not a disease. Improper diet, reduced fluid intake, lack of exercise, and certain medications can cause constipation. For example, patients receiving opiates for pain after surgery often require a stool softener or laxative to prevent constipation. The signs of constipation include infrequent bowel movements (less than every 3 days), difficulty passing stools, excessive straining, inability to defecate at will, and hard feaces
IMPACTION
Fecal impaction results from unrelieved constipation. It is a collection of hardened feces wedged in the rectum that a person cannot expel. In cases of severe impaction the mass extends up into the sigmoid colon.
DIARRHEA
Diarrhea is an increase in the number of stools and the passage of liquid, unformed feces. It is associated with disorders affecting digestion, absorption, and secretion in the GI tract. Intestinal contents pass through the small and large intestine too quickly to allow for the usual absorption of fluid and nutrients. Irritation within the colon results in increased mucus secretion. As a result, feces become watery, and the patient is unable to control the urge to defecate. Normally an anal bag is safe and effective in long-term treatment of patients with fecal incontinence at home, in hospice, or in the hospital. Fecal incontinence is expensive and a potentially dangerous condition in terms of contamination and risk of skin ulceration
HEMORRHOIDS
Hemorrhoids are dilated, engorged veins in the lining of the rectum. They are either external or internal.
FLATULENCE
As gas accumulates in the lumen of the intestines, the bowel wall stretches and distends (flatulence). It is a common cause of abdominal fullness, pain, and cramping. Normally intestinal gas escapes through the mouth (belching) or the anus (passing of flatus)
FECAL INCONTINENCE
Fecal incontinence is the inability to control passage of feces and gas from the anus. Incontinence harms a patient’s body image
PREPARATION AND GIVING OF LAXATIVESACCORDING TO POTTER AND PERRY,
An enema is the instillation of a solution into the rectum and sig
2. 2 Managing process scaling and tech transfer
Let us start with ICH Q10…
“The goal of technology transfer activities is to transfer product and process
knowledge between development and manufacturing, and within or between
manufacturing sites to achieve product realization. This knowledge forms the
basis for the manufacturing process, control strategy, process validation
approach, and ongoing continual improvement.”
Transfers have to be performed in an organized, methodical manner, with
appropriate documentation.
We will focus on the transfer of Drug Substance process parameters and
process knowledge (data).
Technology Transfer
3. 3 Managing process scaling and tech transfer
Process transfers include:
• Transfer from one Process Development group to another, or to Pilot Lab
• Transfer from Process Development to clinical or commercial manufacturing
• Transfer from Process Development to external clinical manufacturing
• Transfer of commercial process between company facilities
• Transfer of commercial process to external contract manufacturing
Greater rigor and documentation are needed for the latter cases, especially transfers between companies.
Best practices discussed here cover the greater level of detail
Scale as appropriate for the situation
Scope of Process Transfers
4. 4 Managing process scaling and tech transfer
Mobius® 2,000 L Single-Use Bioreactor Performances
Production of a mAb with a CHO-S cell line
Define Scale in Advance of Transfer
5. 5 Managing process scaling and tech transfer
Mobius®
2000L Single Use Bioreactor Performances
Production of mAb with CHO-K1 cell line (Cellvento®
CHO 220)
6. 6 Managing process scaling and tech transfer
1. Form tech transfer teams and governance structures, define project charter with goals and timelines
2. Consolidate process knowledge into transferable documentation
3. Gap Analysis / Risk Assessment – leads to detailed project plan
4. Tech Transfer Execution (work the plan)
5. Process “Q/q”ualification – demonstrate technical success
6. Finalize transfer: documentation, support of regulatory activities, follow-up actions, plan for ongoing technical
support, lessons learned
Process Transfer: Key Activities
Transfer does not end at completion of
Qualification lots or approval,
but extends over duration of
manufacturing
7. 7 Managing process scaling and tech transfer
Write Request for Proposal (RFP)
• Provide sufficient detail for accurate assessment
Due Diligence
• Assess capabilities
• Capacity, facility, cGMP, personnel
• High level gap analysis
• Be ready to order long lead time equipment
• Assess feasibility if significant process changes would be required
Write contract
• Be specific on deliverables and expectations
• Ensure terms incentivize rigorous scientific behaviors
Early Planning Stage: often precedes external transfers
8. 8 Managing process scaling and tech transfer
Key content and outcomes from this document must include:
• A well-defined team structure
• Sub-teams for different disciplines
• Connect counterparts
• Establish communication paths
• A well defined governance structure to resolve issues
• Aligned timelines, gating/review points, and goals for deliverables
• Clearly described roles and responsibilities
• Who will be responsible for ongoing support and troubleshooting throughout manufacturing?
• Clearly established success criteria
Set expectations and responsibilities between partners
Project Charter
9. 9 Managing process scaling and tech transfer
A Process Description document with an overview of each step and key process parameters is required
• Information should be described in a site- and scale-independent manner, to focus on intrinsic process
requirements
• Site-specific details from previous process installations should also be gathered as examples
For example:
• Buffers may have been prepared in batch or via in-line dilution
• Bioreactors may have been operated with different sparger configurations
Consolidated Process Knowledge
Use an electronic file sharing system
for document hosting– not email
10. 10 Managing process scaling and tech transfer
Additional Valuable Process Information
Materials
• BOM
• Consumables: bags, filters,
tubing, gaskets, o-rings,
etc.
• Vendors
• Grade
Analytics
• Assays used as part of mfg
process: pH, osmo,
conductivity, OD
• Assays required to support
transfer of scale-down
models
Facility & Equipment
Requirements
• URS/FRS
• Heating/cooling
• Process gas flow rates and
total capacity
• Instrumentation and control
capabilities
• Materials of construction
• Safety assessments,
hazardous material
containment/
disposal
Other Sources of
Process Information
• PD reports
• Validation reports
• Batch records / SOPs
• Historical trends of process
and product data
• License requirements
• Small scale model
instructions and data
• Spreadsheet process models
• Tacit knowledge: cell
morphology, media color,
etc.
11. 11 Managing process scaling and tech transfer
Thorough process walk through:
• Based on Process Description document
• Assesses detailed fit of process in receiving facility
• Identifies areas where changes will be necessary or what differences are acceptable
• Guides project work plan
• Identifies needs for facility modifications
Great process learning exercise for the receiving site!
Gap Analysis
Gaps can be addressed by changing equipment,
procedures, or the process
Changes may require specific new validation studies or may
be covered through the Process Qualification validation
12. 12 Managing process scaling and tech transfer
If you have to make process changes…
• Some process changes are inevitable based on
major differences in facility, equipment, or
operational practices
• Proper experiments must be performed to
determine acceptability of the change. Small-
scale models may be a good tool for
examining the effects of changes
• Pre-defined success criteria are key to timely
progress and decision making- Otherwise, how
do you know if the proposed change is
acceptable?
13. 13 Managing process scaling and tech transfer
Quality Risk Management
What do we do with all these gaps we identified?
Risks are inherent in
technology transfers
Identifying, assessing, and
mitigating
- or -
accepting risks defines the
project work scope of a
transfer
From ICH Q9, two primary principles of quality risk
management are:
• Evaluation of the risk to quality should be based on scientific
knowledge and ultimately link to the protection of the patient
• The level of effort, formality, and documentation of the quality
risk management process should be commensurate with the
level of risk
14. 14 Managing process scaling and tech transfer
Goal: To achieve readiness for process qualification
Mitigate identified risks
• Equipment/facility modifications and validations
Execute process using small scale model – qualify model
Full scale engineering or “water” runs
Author and approve manufacturing instruction documents
• Requires a well-organized system for tracking and managing edits
Training of production and support staff
Tech Transfer Execution
Work the plan…
15. 15 Managing process scaling and tech transfer
Process “Q/q”ualification
Demonstration that the process is performing correctly at the receiving unit
This may be a formal validation exercise or a simple report following an early clinical campaign
Important to have Pre-defined Success Criteria (may or may not be part of Validation protocol)
• Key Process Performance Metrics
• Step yields, impurities, growth rates, titers, etc.
• Product Quality Ranges
• Successful Validation
At key “go/no-go” decision
points, it is helpful for parties
to have agreed in advance
on what success looks like
16. 16 Managing process scaling and tech transfer
Review process performance
• If there are issues to be corrected, assign actions and plan the work
• If failures occurred due to flaws in the methods of transfer, amend
transfer procedures for future executions
Support Regulatory activities
• Document preparation for submissions
• Respond to questions
• Preparation for inspections
Implement systems for ongoing technical support of manufacturing
Complete all documentation
Finalize Transfer
17. 17 Managing process scaling and tech transfer
What if you don’t have to make any changes to your process?
Provantage®
End-to-End Value
Existing Process
New Process
Re-fit Process
New Facility
- We develop your manufacturing process for you
- We fit the process to the updated template while your facility is being built
18. 18 Managing process scaling and tech transfer
Provantage®
End-to-End Value
Proven
Templates
Innovation
Knowledge
Transfer
Tech
Transfer
19. 19 Managing process scaling and tech transfer
Template approach
Save time and money thanks to our ClinicReady™ Template
Clarification
Affinity
Chromatography
Ultrafiltration
Sterile filtration
CEX
Chromatography
Bulk
Drug
Substance
Bioreactor
Virus removal
AEX
Chromatography
20. 20
• At each end of stage, a « Gate Review » is performed to ensure that quality of deliverables is online
with the initial target
• The whole stage is then validated
• Intermediates Go/No Go will also occur during a stage to start activities of the next stage
• Allows a time optimization by perfoming tasks in parallel (fast-tracking)
A stage-gate approach
27. Tech Transfer
Kick off
meeting
Team
members
Regulatory and
validation
requirements
Technical and
Quality Agreement
Planning
Communication
plan
Risk analysis
validated
Kick off meeting: Scope, transfer timelines and team members are defined
Team members: At least composed of a project manager, a technical leader and a tech transfer team
Communication plan: Deliverables
Team members with their respective responsibilities
Communication flow path
Meeting frequency
Tech transfer protocol: Equipment
Raw materials and consumables
Detailed process description including critical parameters
Analytical methods
Tech Transfer
Protocol
Reference
material provided
Tech
Transfer
report
Tech
Transfer
Closure
Experiments
28. Goal: Select parameters from cloning to adapt cells to our internal platform for sub-cloning step
Cloning report:
Draft version: incomplete (raw mat.) / mistakes (% DMSO) but enough data to launch the project
Cloning medium composition
Cloning efficiency
Direct contact with sending entity (SE) for further information (mail exchange)
Technical transfer for Downstream Processing & Analytical parts but no Upstream part:
SE did not perform a sub-cloning phase but only a cloning step
The sub-cloning phase would not be included in a Tech transfer document (SE expertise)
Case study
In-tech transfer of a cell line
Technical transfer
Productivity
assessment
Selection of 3 best clones
Sub-Cloning I
Failed
Tech. meeting
SE/Merck
Media and Feed
Screening
New medium:
ActiCHO
Sub-cloning II
Failed
Technical meeting
SE/M
June 2015 July 2015 Sept 2015 Nov. 2015 March 2016 May 2016
29. Current Working Data
Final version of cloning report: after review from SE based on Merck comments
Final version of cell line generation report: provided by Customer in order to know all process of pool generation
From technical meeting SE/Merck (1)
• Composition of Cloning medium modified. (Gln Gltmx).
From technical meeting SE/Merck (2)
• Tech. Transfer document unfilled
• “A” clone has suffered during cloning process=> it is a “difficult” clone => The both failures of sub-cloning are
clone dependent. (and not due to a missing data)
• No defined process of sub-cloning from SE: performing of process dev. for each clone.
• Sub-cloning success rate from SE: 90% for sub-cloning of mAb secreting pool, 80% of failure in case of protein
secreting pool.
Case study
In-tech transfer of a cell line
30. The process has never been running twice within the same template
Robustness of the process has never been demonstrated
Case study
In-tech transfer of a stainless steel process to single use
Kick off
meeting
Team
members
Regulatory and
validation
requirements
Technical and
Quality Agreement
Planning
Communication
plan
Risk analysis
validated
Tech Transfer
Protocol
Reference
material provided
Tech
Transfer
report
Tech
Transfer
Closure
Experiments
Process is not robust, even Quality
Attributes of the product
Decision to redevelop a process
Tech transfer is not only related to the transfer of a process,
but to the transfer of a process and its associated issues
31. 31 Managing process scaling and tech transfer
Questions?
Proven
Templates
Innovation
Knowledge
Transfer
Tech
Transfer