Bio Platforms
ARMED ONCOLYTIC VIRUSES – Instant Messaging Cancer With a TGF-Beta Trap Carrying Oncolytic Adenovirus
Bryan Oronsky, MD, PhD, says cancer is a systemic disease, the eradication of which heavily depends on immune responses. In his opinion, to overcome impaired immune cell function and, hence, to increase the responsiveness to CIs likely requires a 3-in-1 therapy.
PLATFORM TECHNOLOGY – Versamune®: A New Generation of Cancer Immunotherapies
Dr. Joe Dervan says the unique ability of Versamune® to modulate and enhance numerous critical steps required for an effective clinically relevant immune response and to be combined with targeted antigens found on tumor cells offers several exciting opportunities to treat a variety of cancers.
EXTRACELLULAR VESICLES – Engineering Extracellular Vesicles to Create Next-Generation Therapeutics
David Lowe, PhD, Justin Hean, PhD, Dave Carter, PhD, and Antonin de Fougerolles, PhD, say EVs exhibit key properties that make them extremely attractive as therapeutics, particularly their safety profile and potential for low immunogenicity. In order to effectively unlock this potential, some key challenges remain, such as the development of EV product manufacture and characterization methodologies and rapid pharmacokinetics.
DRUG DISCOVERY – Getting the Most From a DNA-Encoded Library Screen
Matthew A. Clark, PhD, says despite this high level of interest, there remains variable understanding of how to maximize the potential of a DEL screen, and shares his company’s approach to DEL screening and how its partners get the most from this powerful technology.
PLATFORM TECHNOLOGY – The Evolution of Cancer Vaccines: Moving Beyond Failure & a New Era for Cancer Treatment
Jeremy R. Graff, PhD, says new studies show promising data with the use of mRNA-based vaccines and the injection of nanoparticles into regional lymph nodes to achieve disease stabilization. This has led to a potentially groundbreaking era of therapeutic cancer vaccines thanks to discoveries in identifying truncal targets, targeting tumor neoantigens and, notably, developing improved delivery technologies that stimulate a robust, targeted, and persistent immune response.
NANOPARTICLE ENGINEERING – Lighting the Way to a Patient-Centric Future
Christopher Worrall, PhD, discusses how nanoparticle engineering technologies could help improve compliance and patient outcomes, for both small-molecule and biological drugs, and how nanotechnology can help facilitate a shift toward more patient-centric medicine.
GENE THERAPY – Developing Affordable Point of Care CAR-T Therapies: Expanding Efficacy & Impact
Rimas Orentas, PhD, and Boro Dropulić, PhD, MBA, believe the future belongs to those who will be able to innovate rapidly, maintain regulatory confidence, and drive down costs to make CAR-T cell and other engineered cell therapies available to all who would benefit.
LIVE BIOTHERAPEUTIC PRODUCTS – Not All Microbiome Approaches Are Created Equal
Duncan Peyton says in comparison with other therapeutic classes, such as antibodies or gene therapy, the progress that has been made with LBPs to date has been rapid, and for the field to maintain this rate of progress and to establish LBPs as a mainstay in the treatment of patients across a variety of diseases, a number of key questions need to be addressed.
WHITEPAPER – Key Considerations in Oral Delivery of Peptides – Factors to Consider While Evaluating Oral Administration
Peptide therapeutics are a hot topic in pharmaceutical R&D. While most peptides are administered parenterally, oral delivery of peptide therapeutics offers several advantages. Enteris BioPharma’s…
PLATFORM TECHNOLOGY – Confident Silence: Delivering on the Promise of siRNA Therapies
Giles Campion, MD, says while the liver offers plenty of fertile ground for developing siRNAs therapies to treat many diseases, many disease-related genes are not highly expressed in the liver. For this reason, the next great challenge in the field is delivering siRNA to tissues outside the liver.
EXCLUSIVE ONLINE CONTENT

IMIDomics & Bristol Myers Squibb Expand Long-Standing Partnership to Advance Immune-Mediated Inflammatory Disease Treatment Research & Development
IMIDomics recently announced it is expanding its strategic collaboration with Bristol Myers Squibb that extends the existing relationship between the two companies, advancing their shared commitment to….

ONK Therapeutics & NAYA Biosciences Announce Research Partnership to Advance Combination Therapy of Optimally Engineered Off-the-Shelf Natural Killer Cell Therapies & FLEX-NK Bispecific Antibodies
ONK Therapeutics and NAYA Biosciences Inc. announced they have entered into a research partnership to evaluate combination therapy consisting of ONK’s optimally engineered natural….

Ocean Biomedical Announces Groundbreaking Breast Cancer Research Uncovering a New Tumor Suppression Pathway for Its Proprietary Anti-Chi3L1 Antibody
Ocean Biomedical, Inc. recently announced its Scientific Co-founder, Jack A. Elias, MD, co-authored new findings in the peer-reviewed journal Immunity that detail the mechanisms behind the role of….

AbbVie to Acquire ImmunoGen, Including its Flagship Cancer Therapy, Expanding Solid Tumor Portfolio
AbbVie Inc. and ImmunoGen, Inc. recently announced a definitive agreement under which AbbVie will acquire ImmunoGen and its flagship cancer therapy ELAHERE (mirvetuximab soravtansine-gynx), a first-in-class….

Oxford BioTherapeutics Announces Partner Boehringer Ingelheim Received Fast Track Designation for BI 764532 for the Potential Treatment of Advanced or Metastatic Large-Cell Neuroendocrine Carcinoma of the Lung
Oxford BioTherapeutics recently announced the US FDA has granted Fast Track designation to BI 764532 for the potential treatment of advanced or metastatic large-cell neuroendocrine carcinoma of….
MARKET NEWS & TRENDS
WEBINARS

On-Demand Webinar: How to Safely Handle Your Antibody Drug Conjugate
Antibody Drug Conjugates (ADCs) have a highly specific mechanism of action which is an advantage for the treatment of several oncology indications…..
WHITE PAPERS

WHITEPAPER – Use of a Platform Formulation Technology to De-Risk Solid-State Variation in Drug Development
This white paper describes use of mesoporous silica as a porous carrier formulation technology to stabilize unstable polymorphs and to optimize solid state properties.

WHITEPAPER – Long-Acting Injectable Nanoparticle Formulations
Long acting injectable (LAI) formulations have been the subject of continued interest in the recent past due, in part, to their longer systemic circulation requiring less frequent dosing of drugs.

WHITEPAPER – PLGA Nanoparticles – Bridging the Gap From R&D to GMP
Poly(lactic-co-glycolic acid) (PLGA) has emerged as a promising material for drug delivery and biomedical applications. Its exceptional biocompatibility, customizable degradation and release properties, and versatility have led to….

APPLICATION NOTE: Process Optimization & Preclinical Production Using the ANP System
Particle Works is thrilled to announce the launch of a new Application Note that delves into the advancement of nanoparticles as carriers for targeted drug delivery. Developing nanoparticles for this purpose can be….

WHITEPAPER – Improve Process Economics & Enable High Protein Concentrations
What if you could achieve higher protein concentrations during downstream processing? This whitepaper spotlights how excipient combinations can enhance manufacturability and final concentration of mAb formulations.
What are Bio Platforms?
Platforms (or asset-independent technologies to capture all kinds of capabilities that can be leveraged across many different drug candidate assets rather than just discovery tools that the term ‘platform’ immediately brings to mind) are ubiquitous in modern pharma. They are the product of an arms race, to secure access to the best capabilities in key areas.
Platform technologies are considered a valuable tool to improve efficiency and quality in drug product development. The basic idea is that a platform, in combination with a risk-based approach, is the most systematic method to leverage prior knowledge for a given new molecule. Furthermore, such a platform enables a continuous improvement by adding data for every new molecule developed by this approach, increasing the robustness of the platform.
But it has often been said that access to the latest technological platforms to aid efficient drug discovery and development is limited to Big Pharma, which can more easily justify the costs of creating and operating these platforms.
Benefits of Bio Platforms
Platform technologies have the ability to radically improve upon current products and generate completely novel products. In this sense, they open up new arenas for drug discovery and development, potentially increasing the number of therapeutic options for patients. Once a single compound or therapeutic has been generated and demonstrates a clinical benefit in patients, it is more likely this platform technology can successfully be applied to other therapeutic areas, derisking future compounds/products.
Complex drugs by their very nature are challenging and costly to manufacture. This, in turn, translates into higher costs for patients and other payers. In order to provide safe and effective therapies at a reasonable price, it is necessary for the industry to develop manufacturing technologies that reduce costs and provide a consistent product. While the initial investment may be larger, manufacturing costs will be lower over time as the manufacturing process is solidified.
Scale and Investment of Bio Platforms
Despite the initial upfront costs, platform technologies inevitably provide pragmatic solutions to production challenges, while yielding safer and more effective therapeutic products. It has often been said that one of the key features that distinguishes “Big Pharma” from biotech is access to the latest technological platforms to aid efficient drug discovery and development.
These platforms range from vast chemical libraries, ultra-high throughput screening and huge genetic databases in discovery, to predictive toxicology platforms, cutting-edge ‘omics’ and even deep-seated knowledge of particular therapeutic areas in development. All these platforms have two things in common: They can be used on any (or many) development candidate assets, and they cost huge sums to establish in the first place, and in a few cases each time they are used as well. Hence their restriction to the largest pharmaceutical companies (and a few of the so-called “big biotechs” that are, in many ways, indistinguishable from the old-guard pharma).
Only when you have hundreds of active projects can you justify the cost of creating and operating these platforms. Or so the mantra goes. It is access to these platforms that keeps the big companies ahead in the race to discover and develop the best medicines (or at least counterbalance the disadvantages of being large and slow-moving, depending on your point of view). But is that just an assertion? How much evidence is there to support the proposition that the efficiency gains due to these platforms outstrips the cost of creating and maintaining them?
Keeping these technologies “cutting edge” has become so expensive that increasingly we hear pharma companies talking of “pre-competitive” approaches to develop the next generation. A group of companies might develop a platform capability they then share. The principle goal of such initiatives is to access even grander and more expensive tools than individual companies could afford, rather than to dramatically cut costs (although sharing platforms rather than developing the same thing in parallel in each silo should at least keep a lid on rising costs).