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Advancing the Development of Innovative Veterinary Products – FDA.gov

By: Steven M. Solomon, D.V.M., M.P.H., Director, Center for Veterinary Medicine

The U.S. Food and Drug Administrations Center for Veterinary Medicine (CVM) plays a vital role in facilitating the development and availability of innovative medical products for animals. Our role in promoting public health drives us to take steps that can help facilitate access to safe, effective, and innovative products to address existing, new, and emerging animal health challenges. The FDA takes a proactive approach, using all of our available tools and flexible processes, to provide timely and efficient review approaches to ensure safety and effectiveness and help bring these innovations to the market.

Today the FDA released four final guidance documents that demonstrate our commitment to innovative approaches. The guidance documents describe pathways for animal drug sponsors to use new approaches like adaptive study designs, real world evidence and biomarkers to establish drug effectiveness and more detailed guidance on how to leverage data collected from foreign countries to support approval of their products in the U.S. These guidance documents encourage animal drug sponsors to consider these innovative approaches as they prepare data submissions related to new animal drug products for agency evaluation and review, as part of the FDAs new animal drug approval process. The recommendations in these guidance documents closely align with those already issued by the FDAs other medical product centers.

CVM is also committed to the identification and use of alternative methods to bring innovative products to the market by encouraging use of novel approaches to meet the regulatory standards. The typical process for demonstrating drug effectiveness is conducting a clinical trial; however, there are other ways to prove an animal drug works and alternative study designs to use when the standard design doesnt fit the situation.

For example, CVM evaluated a range of data sources that demonstrate the safety of ThyroKare in dogs, a drug used to treat hypothyroidism, as an alternative to conducting laboratory animal studies. These sources included (1) a comprehensive review of publicly available literature on the use of levothyroxine in dogs; (2) pharmacovigilance data for ThyroKare that were voluntarily reported to the sponsor when it was previously marketed as an unapproved drug; and (3) reports to an animal poison control center of accidental overdoses of natural or synthetic thyroid hormone products in dogs.

In 2018, CVM approved Experior (lubabegron Type A medicated article), the first animal drug that when fed to beef cattle under specific conditions results in less ammonia gas released as a by-product of their waste. The drug sponsor collected data in special environmental chambers where gas emissions could be contained and accurately measured. These studies indicated that the product partially reduces ammonia gas emissions from manure from an individual animal or a pen of animals in semi-controlled conditions in enclosed housing.

Additionally, novel products, such as intentional genomic alterations (IGAs) in animals and animal cell and tissue-based products, offer the potential to treat or even cure diseases or conditions for which limited treatment options exist. The fields of veterinary regenerative medicine (e.g., stem cells) and IGAs in animals are fast-growing sectors of the industry and an active area of animal health research. While the same laws and regulations that apply to all other animal drugs also apply to these rapidly developing products, the FDA initiated the Veterinary Innovation Program (VIP) in 2019 to facilitate advancements in development of innovative animal products. The goals of the VIP are to provide greater certainty in the regulatory process, encourage development and research, and support an efficient and predictable pathway to approval for cellular products and IGAs in animals. As of September 2021, there were more than 40 animal drug products enrolled in the VIP program. IGA animals have potentially significant and broad applications to advance animal and human health including development of animal models of human disease, human pharmaceutical production, production of organs/tissues for xenotransplantation, improved animal health/husbandry and enhanced food production. Given the unique nature and evolving science associated with these products, the FDA uses a science- and risk-based review approach to assess the type and amount of information needed to support approval.

In December 2020, CVM approved a first-of-its-kind IGA in a line of domestic pigs, referred to as GalSafe pigs, which may be used for food or human therapeutics. This is the first IGA in an animal that the CVM has approved for both human food consumption and as a source for potential therapeutic uses. This approval underscores the success of the FDA in modernizing our scientific processes to optimize a risk-based approach that advances cutting-edge innovations in which consumers can have confidence. The developer of GalSafe pigs was the first product approved under the VIP program, demonstrating the impact of this initiative in supporting the sponsor throughout the product review process.

The FDA also helps support innovative product development by using legislative authorities designed to increase drug availability for minor animal species or minor uses in major animal species while ensuring critical standards are still met. One way the agency does this is through the conditional approval pathway for new animal drugs. Established as part of the Minor Use and Minor Species (MUMS) Animal Health Act in 2004, conditional approval allows a drug company to legally market a drug for use in a minor species, such as ornamental fish, ferrets, sheep, goats or honey bees, or for a use in a major species (horses, dogs, cats, cattle, pigs, turkeys and chickens) afflicted with an uncommon disease or condition (minor use) after proving the drug is safe and that there is reasonable expectation that it will be effective.

Recently, this program has helped facilitate development and approval of certain innovative canine cancer drugs. For example, in January 2017, the FDA conditionally approved the first drug to treat lymphoma in dogs, and this drug became the first conditionally-approved companion animal drug to achieve full approval in July of this year. In January 2021, the FDA conditionally approved the second drug and first oral tablet to treat lymphoma in dogs. The ability to utilize the MUMS conditional approval pathway enabled access to critical treatments for lymphoma in dogs before evaluation of all of the effectiveness data typical for a full approval had been completed.

In keeping with the goals of reducing, replacing, and/or refining the use of animals in research, CVM is also conducting a study at its research facility to validate an alternative in-vitro dissolution model approach for bioequivalence studies for certain animal drugs. If this study validates the bioequivalence model, this alternative approach will provide animal drug sponsors with a scientifically sound method to demonstrate bioequivalence of certain drugs that does not require that dogs be euthanized as part of the study.

CVMs flexible, collaborative and proactive approach to the regulation of animal drugs has facilitated the availability of critically needed drugs for conditions like heart failure, hypertension, cancer, epilepsy and pain and brought a number of generic animal drugs to market to enhance competition and drive innovation. These approaches have also facilitated the introduction of novel technologies with One Health impacts beyond animal health like reduction in gas emissions from an animals waste and IGAs in animals that produce biopharmaceuticals used in the production of human drugs. We are committed to continuing our collaborations with a variety of stakeholders to ensure the efficiency of our review and approval process for new animal drugs, and that we are supporting innovative approaches that ultimately help safe and effective animal drugs reach the marketplace.

For more information: Innovation in Animal Drug Development

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Advancing the Development of Innovative Veterinary Products - FDA.gov

Cell Based Assay & High Content Screening Market Report 2021: The Workhorse of the Pharmaceutical Industry is Becoming a Central Player in…

DUBLIN, Oct. 4, 2021 /PRNewswire/ -- The "Cell Based Assay & High Content Screening Markets" report has been added to ResearchAndMarkets.com's offering.

Research and Markets Logo

Cell-Based Assays are a mainstay of drug development and scientific research, but growth is now accelerating as the race for a COVID-19 cure gains speed.

On top of this, new technology is allowing Cell-Based Assays to be used to measure any aspect of cell function. This market just keeps on growing with no end in sight. The workhorse of the pharmaceutical industry is becoming a central player in biotechnology.

This is a complex area but this readable report will bring the entire management team up to speed, on both the technology and the opportunity.

The technology is moving faster than the market. Genomics and Immunology are playing a role too. Find the opportunities and pitfalls. Understand growth expectations and the ultimate potential market size.

Industry Overview

Players in a Dynamic Market

Academic Research Lab

Contract Research Organization

Genomic Instrumentation Supplier

Cell Line and Reagent Supplier

Pharmaceutical Company

Audit Body

Certification Body

Market Trends

Factors Driving Growth

Candidate Growth

Immuno-oncology

Genomic Blizzard

Technology Convergence

The Insurance Effect

Factors Limiting Growth

Technology Development

Cell Based Assays Recent Developments

Axxam and FUJIFILM Cellular Dynamics Announce Strategic Alliance

Cancer Genetics to Acquire Organoid Startup Stemonix

Curi Bio Acquires Artificial Intelligence Firm Dana Solutions

CRISPR Screens Uncover Novel Cancer Therapy Targets

ERS Genomics Licenses CRISPR-Cas9 Patents to Axxam

New Transcriptomics Assay Facilitates Compound Screens

Carta Biosciences Betting on Gene Interaction Mapping

High-throughput Identifies cancer drug candidates

Velabs Therapeutics partners with Alytas Therapeutics to develop a novel immune-based therapy for obesity

InSphero platform selected to test Cyclerion's sGC stimulator technology

OcellO to provide in vitro research services to Merus

Charles River Laboratories to acquire Citoxlab

Reaction Biology Corporation Purchases ProQinase GmbH

Cisbio extends its assay portfolio for immuno-oncology drug discovery

STEMCELL Technologies Launches Next-Generation Culture System

Abcam Acquires Calico Biolabs

Evotec announces achievement in Celgene alliance utilizing IPSC screening

Fujifilm Cellular Dynamics Inc. launches iCELL Microglia

Cisbio and Excellerate Bioscience partner

Horizon Discovery extends CRISPR Screening Service to primary human T cells

Profiles of Key Cell Based Assay Companies

Story continues

Abcam

Agilent

Aurora Instruments Ltd

Axxam

Beckman Coulter Diagnostics

Becton, Dickinson and Company

BioIVT

Bio-Rad Laboratories, Inc.

BioTek Instruments

BioVision, Inc.

BMG Labtech

Cell Biolabs, Inc

Cell Signaling Technology, Inc.

Charles River Laboratories

Cisbio Bioassays

Corning, Inc

Cytovale

Enzo Life Sciences, Inc

Eurofins DiscoverX Corporation

Evotec AG

Excellerate Bioscience

Fujifilm Cellular Dynamics International

Genedata

Hemogenix

Horizon Discovery

Invivogen

Leica Biosystems

Lonza Group Ltd.

Luminex Corp

Merck & Co., Inc

Miltenyi Biotec

Molecular Devices

Nanion

Ncardia

New England Biolabs, Inc

Olympus

Origene Technologies

Perkin Elmer

Promega

Qiagen Gmbh

Reaction Biology

Recursion Pharma

Roche Diagnostics

Sartorius

Sartorius-ForteBio

Sartorius-IntelliCyt

Sony Biotechnology

SPT Labtech

Stemcells Technologies Canada Inc

Tecan

Thermo Fisher Scientific Inc.

Vitro Biopharma

For more information about this report visit https://www.researchandmarkets.com/r/olr3vr

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Cell Based Assay & High Content Screening Market Report 2021: The Workhorse of the Pharmaceutical Industry is Becoming a Central Player in...

Pharmaxis Cleared To Progress To Phase 2 Bone Marrow Cancer Trial – WBKO

SYDNEY, Oct. 5, 2021 /PRNewswire/ -- Clinical stage drug development company Pharmaxis Ltd (ASX: PXS) today announced further positive results of data analysis from a phase 1c clinical trial (MF-101) studying its drug PXS-5505 in patients with the bone marrow cancer myelofibrosis for 28 days at three dosage levels.

Assessment with Pharmaxis' proprietary assays of the highest dose has shown inhibition of the target enzymes, LOX and LOXL2, at greater than 90% over a 24-hour period at day 7 and day 28. The trial safety committee has reviewed the results and having identified no safety signals, has cleared the study to progress to the phase 2 dose expansion phase where 24 patients will be treated at the highest dose twice a day for 6 months.

Pharmaxis CEO Gary Phillips said, "We are very pleased to have completed the dose escalation phase of this study with such clear and positive findings.We will now immediately progress to the phase 2 dose expansion study where we aim to show PXS-5505 is safe to be taken longer term with the disease modifying effects that we have seen in the pre-clinical models. The trial infrastructure and funding is in place and we are on track to complete the study by the end of 2022."

Independent, peer-reviewed research has demonstrated the upregulation of several lysyl oxidase family members in myelofibrosis.The level of inhibition of LOX achieved in the current study at all three doses significantly exceeds levels that caused disease modifying effects with PXS-5505 in pre-clinical models of myelofibrosis with improvements in blood cell count, diminished spleen size and reduced bone marrow fibrosis. LOXL2 was inhibited to a similar degree and based on pre-clinical work such high inhibition is likely replicated for other LOX family members (LOXL1, 3 and 4).[1] Study data can be viewed in the full announcement.

Commenting on the results of the trial, Dr Gabriela Hobbs, Assistant Professor, Medicine, Harvard Medical School & Clinical Director, Leukaemia, Massachusetts General Hospital said, "Despite improvements in the treatment of myelofibrosis, the only curative therapy remains an allogeneic stem cell transplantation, a therapy that many patients are not eligible for due to its morbidity and mortality. None of the drugs approved to date consistently or meaningfully alter the fibrosis that defines this disease. PXS-5505 has a novel mechanism of action by fully inhibiting all LOX enzymes. An attractive aspect of this drug is that so far in healthy controls and in this phase 1c study in myelofibrosis patients, the drug appears to be very well tolerated. This is meaningful as approved drugs and those that are undergoing study, are associated with abnormal low blood cell counts. Preliminary data thus far, demonstrate that PXS-5505 leads to a dramatic, >90% inhibition of LOX and LOXL2 at one week and 28 days. This confirms what's been shown in healthy controls as well as mouse models, that this drug can inhibit the LOX enzymes in patients. Inhibiting these enzymes is a novel approach to the treatment of myelofibrosis by preventing the deposition of fibrosis and ultimately reversing the fibrosis that characterizes this disease."

The phase 1c/2a trial MF-101 cleared by the FDA under the Investigational New Drug (IND) scheme aims to demonstrate that PXS-5505, the lead asset in Pharmaxis' drug discovery pipeline, is safe and effective as a monotherapy in myelofibrosis patients who are intolerant, unresponsive or ineligible for treatment with approved JAK inhibitor drugs. Trial sites will now open to recruit myelofibrosis patients into the 6-month phase 2 study in Australia, South Korea, Taiwan and the USA.

An effective pan-LOX inhibitor for myelofibrosis would open a market that is conservatively estimated at US$1 billion per annum.

While Pharmaxis' primary focus is the development of PXS-5505 for myelofibrosis, the drug also has potential in several other cancers including liver and pancreatic cancer where it aims to breakdown the fibrotic tissue in the tumour and enhance the effect of chemotherapy treatment.

Trial Design

Name of trial

PXS5505-MF-101: A phase 1/2a study to evaluate safety, pharmacokinetic and pharmacodynamic dose escalation and expansion study of PXS-5505 in patients with primary, post-polycythaemia vera or post-essential thrombocythemia myelofibrosis

Trial number

NCT04676529

Primary endpoint

To determine the safety of PXS-5505 in patients with myelofibrosis

Secondary endpoints

Blinding status

Open label

Placebo controlled

No

Trial design

Randomised, multicentre, 4 week duration phase 1 (dose escalation) followed by 6 month phase 2 (dose expansion)

Treatment route

Oral

Treatment frequency

Twice daily

Dose level

Dose escalation: three escalating doses

Dose expansion: one dose

Number of subjects

Dose escalation: minimum of three patients to maximum of 18 patients

Dose expansion: 24 patients

Subject selection criteria

Patients with primary or secondary myelofibrosis who are intolerant, unresponsive or ineligible for treatment with approved JAK inhibitor drugs

Trial locations

Dose escalation: Australia (2 sites) and South Korea (4 sites)

Dose expansion: Australia, Korea, Taiwan, USA

Commercial partners involved

No commercial partner

Reference: (1) doi.org/10.1002/ajh.23409

AUTHORISED FOR RELEASE TO ASX BY:

Pharmaxis Ltd Disclosure Committee. Contact: David McGarvey, Chief Financial Officer and Company Secretary: T +61 2 9454 7203, E david.mcgarvey@pharmaxis.com.au

Join the Pharmaxis mailing listhere

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About Pharmaxis

Pharmaxis Ltd is an Australian clinical stage drug development company developing drugs for inflammatory and fibrotic diseases, with a focus on myelofibrosis. The company has a highly productive drug discovery engine built on its expertise in the chemistry of amine oxidase inhibitors, with drug candidates in clinical trials. Pharmaxis has also developed two respiratory products which are approved and supplied in global markets, generating ongoing revenue.

Pharmaxis is developing its drug PXS-5505 for the bone marrow cancer myelofibrosis which causes a build up of scar tissue that leads to loss of production of red and white blood cells and platelets. The US Food and Drug Administration has granted Orphan Drug Designation to PXS-5055 for the treatment of myelofibrosis and permission under an Investigational Drug Application (IND) to progress a phase 1c/2 clinical trial that began recruitment in Q1 2021. PXS5505 is also being investigated as a potential treatment for other cancers such as liver and pancreatic cancer.

Other drug candidates being developed from Pharmaxis' amine oxidase chemistry platform are targeting fibrotic diseases such as kidney fibrosis, NASH, pulmonary fibrosis and cardiac fibrosis; fibrotic scarring from burns and other trauma; and inflammatory diseases such as Duchenne Muscular Dystrophy.

Pharmaxis has developed two products from its proprietary spray drying technology that are manufactured and exported from its Sydney facility; Bronchitol for cystic fibrosis, which is approved and marketed in the United States, Europe, Russia and Australia; and Aridol for the assessment of asthma, which is approved and marketed in the United States, Europe, Australia and Asia.

Pharmaxis is listed on the Australian Securities Exchange (PXS). Its head office, manufacturing and research facilities are in Sydney, Australia. http://www.pharmaxis.com.au

About PXS-5505

PXS-5505 is an orally taken drug that inhibits the lysyl oxidase family of enzymes, two members LOX and LOXL2 are strongly upregulated in human myelofibrosis. In pre-clinical models of myelofibrosis PXS-5505 reversed the bone marrow fibrosis that drives morbidity and mortality in myelofibrosis and reduced many of the abnormalities associated with this disease. It has already received IND approval and Orphan Drug Designation from the FDA.

Myelofibrosis is a disorder in which normal bone marrow tissue is gradually replaced with a fibrous scar-like material. Over time, this leads to progressive bone marrow failure. Under normal conditions, the bone marrow provides a fine network of fibres on which the stem cells can divide and grow. Specialised cells in the bone marrow known as fibroblasts make these fibres.

In myelofibrosis, chemicals released by high numbers of platelets and abnormal megakaryocytes (platelet forming cells) over-stimulate the fibroblasts. This results in the overgrowth of thick coarse fibres in the bone marrow, which gradually replace normal bone marrow tissue. Over time this destroys the normal bone marrow environment, preventing the production of adequate numbers of red cells, white cells and platelets. This results in anaemia, low platelet counts and the production of blood cells in areas outside the bone marrow for example in the spleen and liver, which become enlarged as a result.

Myelofibrosis can occur at any age but is usually diagnosed later in life, between the ages of 60 and 70 years. The cause of myelofibrosis remains largely unknown. It can be classified as either JAK2 mutation positive (having the JAK2 mutation) or negative (not having the JAK2 mutation).

Source: Australian Leukemia Foundation: https://www.leukaemia.org.au/disease-information/myeloproliferative-disorders/types-of-mpn/primary-myelofibrosis/

Forward-looking statements

Forwardlooking statements in this media release include statements regarding our expectations, beliefs, hopes, goals, intentions, initiatives or strategies, including statements regarding the potential of products and drug candidates. All forward-looking statements included in this media release are based upon information available to us as of the date hereof. Actual results, performance or achievements could be significantly different from those expressed in, or implied by, these forward-looking statements. These forward-looking statements are not guarantees or predictions of future results, levels of performance, and involve known and unknown risks, uncertainties and other factors, many of which are beyond our control, and which may cause actual results to differ materially from those expressed in the statements contained in this document. For example, despite our efforts there is no certainty that we will be successful in developing or partnering any of the products in our pipeline on commercially acceptable terms, in a timely fashion or at all. Except as required by law we undertake no obligation to update these forward-looking statements as a result of new information, future events or otherwise.

CONTACT:

Media: Felicity Moffatt: T +61 418 677 701, E felicity.moffatt@pharmaxis.com.au

Investor relations:Rudi Michelson (Monsoon Communications) T +61 411 402 737, E rudim@monsoon.com.au

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Pharmaxis Cleared To Progress To Phase 2 Bone Marrow Cancer Trial - WBKO

Stem cell & gene therapy to treat osteogenesis imperfecta: hype or hope – Open Access Government

A genetic syndrome that affects bones

Osteogenesis Imperfecta (OI) is a hereditary disorder occurring in 1:10,000 births and characterised by osteopenia (bone loss) and skeletal fragility (fractures). Secondary features include short stature, skeletal deformities, blue sclera and dentinogenesis imperfect. (1) There is a large clinical variability in OI, and severity ranges from mild to lethal, based on radiological characteristics. Genetically, OI is a collagen-related syndrome. Type I collagen is a heterotrimeric helical structure synthesized by bone-forming cells (osteoblasts), and it constitutes the most abundant protein of the skeletal organic matrix. (2) Synthesis of type I collagen is a complex process. (3) Collagen molecules are cross-linked into fibrils (which confer tensile strength to the bones). Those are then mineralised by hydroxy-apatites (which provides compressive strength) and assembled into fibres.

Dominant mutations in either the COL1A1 or the COLA1A2 genes are responsible for up to 90% of all OI cases. These mutations (more than 1,000 of which have been identified) lead to impairment of collagen structure and production, which in either quantitative or qualitative bone extracellular matrix (ECM) defects. Mutations affecting ECM structure have serious health consequences because the skeleton protects visceral organs and the central nervous system and provides structural support. Bones also store fat in the yellow bone marrow found within the medullary cavity, whilst the red marrow located at the end of long bones is the site of haematopoiesis. In addition, the ECM constitutes a reservoir of phosphate, calcium, and growth factors, and is involved in trapping dangerous molecules.

Stem cell therapy for OI aims to improve bone quality by harnessing the ability of mesenchymal stem cells (MSC) to differentiate into osteoblasts, with the rationale that donor cells would engraft into bones, produce normal collagen and function as a cell replacement. Stem cells have, therefore, been proposed for the treatment of OI (4) and, in particular, prenatal foetal stem cell therapy (foetal stem cells injected into a foetus, i.e. foetal-to-foetal) approach, which offers a promising route to effective treatment. (5) Human foetal stem cells are more primitive than stem cells isolated from adult tissues and present advantageous characteristics compared to their adult counterparts, i.e. they possess a higher level of plasticity, differentiate more readily into specific lineages, grow faster, senesce later, express higher levels of adhesion molecules, and are smaller in size. (6,7) Prenatal cell therapy capitalises on the small size of the foetus and its immunological naivete. In addition, stem cells delivered in utero benefit from the expansion of endogenous stem cells and may prevent organ injury before irreversible damage. (8)

However, human foetal stem cells used are isolated from either foetal blood drawn by cardiac puncture, either during termination of pregnancy or during ongoing pregnancy, albeit using an invasive procedure associated with a high risk of morbidity and mortality for both the foetus and the mother (9). Foetal cells can also be isolated from the first-trimester liver (following termination of pregnancy) and such cells are currently used in The Boost Brittle Bones Before Birth (BOOSTB4) clinical trial, which aims to investigate the safety and efficacy of transplanting foetal derived MSCs prenatally and/or in early postnatal life to treat severe Osteogenesis Imperfecta (OI) (10). Alternatively, foetal stem cells can be isolated during ongoing pregnancy from the amniotic fluid, either during mid-trimester amniocentesis or at birth (11,12) or from the chorionic villi of the placenta during first-trimester chorionic villi sampling (13).

We have demonstrated that human fetal stem cells isolated from first trimester blood possess superior osteogenic differentiation potential compared to adult stem cells isolated from bone marrow and to fetal stem cells isolated from first trimester liver. We showed that in utero transplantation of these cells in an experimental model of severe OI resulted in a drastic 75% decrease in fracture rate incidence and skeletal brittleness, and improvement of bone strength and quality.(14) A similar outcome was obtained using placenta-derived foetal stem cells (15) and amniotic fluid stem cells following perinatal transplantation into experimental models. (16,17)

Understanding the mechanisms of action of donor cells will enable the engineering of donor cells with superior efficacy to stimulate bone formation and strengthen the skeleton. Despite their potential to differentiate down the osteogenic lineage, there is little evidence that donor cells contribute to regenerating bones through direct differentiation, due to the very low level of donor cell engraftment reported in all our studies. When placed in an osteogenic microenvironment in vitro, foetal stem cells readily differentiate into osteoblasts and produce wild type collagen molecules. However, there are insufficient proofs that collagen molecules of donor cell origin contribute to the formation of the host bone ECM to confer superior resistance to fracture.

It is now well accepted that stem cells can influence the behaviour of target cells through the release of paracrine factors and, therefore, contribute to tissue regeneration indirectly. We have indeed recently shown that donor stem cells stimulate the differentiation of resident osteoblasts, which were unable to fully mature in the absence of stem cell treatment. (16,17) We are now focusing our efforts on understanding the precise molecular mechanisms by which donor cells improve skeletal health to counteract bone fragility caused by various OI-causative mutations.

References

Please note: This is a commercial profile

2019. This work is licensed under aCC BY 4.0 license.

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Stem cell & gene therapy to treat osteogenesis imperfecta: hype or hope - Open Access Government

Chennai-based institute to begin clinical trial on stem cell therapy for liver disease – The New Indian Express

Express News Service

CHENNAI: Doctors at the Stem Cell Research Centre, Government Stanley Medical College Hospital (GSMCH), are in the process of recruiting patients for conducting phase I and II clinical trials of Stem Cell Therapy for end-stage liver disease to assess its safety and efficacy.

The clinical trial comes as a significant move as presently, liver transplant is the only treatment available for end-stage liver disease, but scarcity of donor organs necessitates alternative modalities. The Stem Cell Research Centre in July 2020 received approval from the Central Drug Standard Control Organisation (CDCSO) to conduct clinical trials after animal trails showed promising results, said Dr S Jeswanth, Director, Institute of Surgical Gastroenterology and Principal Investigator, Stem Cell Research Centre, GSMCH.

Dr Secunda Rupert, Co-Investigator at Stem Cell Research Centre, GSMCH told TNIE that liver transplant is currently the only option for end-stage liver disease. Many patients are on the waiting list for liver transplant. So these stem cells can be used as a bridge till they get donor liver for transplant and in some cases, it can be a wholesome therapy. We have found that in acute liver disease, the results are good, the doctor added.

According to data from the Transplant Authority of Tamil Nadu (TRANSTAN), there are 418 patients waiting for liver transplant in the State alone. The CDSCO gave approval and also directed to conduct more animal studies. We will first conduct them and then will start the clinical trials. We are in the process of recruiting patients for the trial. We couldnt recruit patients then because of the pandemic, said Secunda. A total of 30 patients will be recruited for clinical trials, and among them 15 will be put on Stem Cell Therapy and 15 on standard treatment, added Secunda.

Mesenchymal adult stem cells will be extracted from bone marrow of the patients and these will be cultured in the lab before being injected back into the patient, Secunda added. During animal studies, when we caused liver injury in the animal and injected the stem cells, there was an improvement in the injury. It showed these Mesenchymal adult stem cells can alleviate liver injury, Secunda further said. Jeswanth said the trial will be funded by the Tamil Nadu Innovative Initiative scheme (TANII).

Fast facts

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Chennai-based institute to begin clinical trial on stem cell therapy for liver disease - The New Indian Express

"Stem cell-based therapeutics poised to become mainstream option – BSA bureau

In conversation with Dr Koji Tanabe, Founder and CEO, I Peace, Inc., The United States/Japan

To make the trial investments more meaningful and to avoid ambivalence in animal models, medical science is adopting novel in vitro models of specialised human pluripotent cell lines. Pluripotent stem cells(PSCs) have the agility to expand indefinitely and differentiate into almost any organ-specific cell type. iPSC-derived organs andorganoidsare currently being evaluated in multiple medical research arena like drug development, toxicity testing, drug screening, drug repurposing, regenerative therapies, transgenic studies, disease modeling and more across clinical developments. Innovative pharmacovigilance methodologies are preferring induced pluripotent stem cells (iPSCs) for pre-clinical and clinical investigational studies. Global Induced Pluripotent Stem Cell (iPSC) market is expected to reach $2.3 B by 2026. The iPSC market inAsia-Pacificis estimated to witness fast growth due to increasing R&D projects across countries likeAustralia,JapanandSingapore.

I Peace, Inc. a Palo Alto-based global biotech company with its manufacturing base in Japan, has succeeded in developing and mass-producing clinical grade iPS cells through its proprietary iPS cell manufacturing services. The human iPSC (hiPSC) lines at I Peace leverage differentiated cells across clinical research and medical applications. Biopsectrum Asia discovered more about Japan's stem cell manufacturing ecosystem with Dr Koji Tanabe, Founder and CEO, I Peace, Inc., (The United States/Japan). Tanabe earned his doctorate under Dr Shinya Yamanaka, a Kyoto University researcher who received the 2012 Nobel Prize in Physiology or Medicine for discovery of reprogramming adult somatic cells to pluripotent cells. I Peace is focusing on this Nobel Prize-winning iPSCs technology where Tanabe had played a key role in generating the worlds first successful human iPSCs as one of the team members and is currently industrialising it in the US and Japan.

How do you define Japans Stem cell manufacturing dynamics aligning with regional and APAC market potential?

We believe that human cells play a pivotal role in next-generation drug therapy. Clinical trials of iPSC applications are in full swing not only in Japan, but worldwide as well. In the US, the momentum of clinical trial research is astounding. Yet, mass production of GMP compliant cell products remains a challenge. Entry into this venture is no easy task. As a contract development and manufacturing organisation (CDMO), I Peace is geared to tackle that challenge and become the pioneer of mass production technology of clinical grade cell products.

Can you elaborate I Peaces cost-effective proprietary stem cell synthesis solution and its manufacturing scale?

The key advantage of iPSCs is the ability to create pluripotent cells from an individuals own cells. Furthermore, iPSCs can multiply indefinitely and evolve into any type of cell, making iPSCs an ideal tool for transplant and regenerative medicine and drug research. However, clinical applications of iPSCs to date, utilise heterogenic transplantation. It is because manufacturing of just one line of iPSCs requires a cost intensive clean room to be occupied for several months. Manufacturing process complexities also pose a barrier to cost reduction and mass production.

In contrast, I Peace has developed a proprietary, fully automated closed system for iPS manufacturing, enabling cost-effective production of multiple lines of iPSCs from multiple donors in a single room. Within a few years, we expect to manufacture several thousand lines of iPSCs simultaneously in a single room. With this technology, I Peace can efficiently generate an ample supply of various iPSCs for heterogenic transplant, while also fostering a society where everyone can bank their own iPSCs for potential medical use.

How does I-Peace better position its businesses objectives and go-to-market strategies?

I Peaces manufacturing facility and its processes have undergone rigorous audits and are certified to be in compliance with GMP guidelines of the US, Japan, and Europe. We have the capacity to manufacture clinical-grade iPSCs and iPSC-derived cells for clinical use in the global market. Our manufacturing staff have unparalleled expertise in the manufacturing of iPSCs, and their knowledge and experience make it possible to mass produce high quality clinical-grade iPSCs in the shortest possible time. Additionally, we streamlined the iPSC use licensing scheme to expedite collaborative ventures with downstream partners. We believe these strategies position I Peace as a global leader in iPSC technology.

How do you outline the concept of democratising access to iPSC manufacturing?

At I Peace, we envision a world in which everyone would possess their own iPSCs and if needed, receive autologous transplant medication using their own iPSC. We believe in the importance of raising awareness of Nobel Prize winning iPSC technology and we think much more needs to be done. We need to enlighten the public about iPSCs - what they are, how they are created, and how they play a role in next-generation medical therapies. We also need to underscore the benefits of early banking ones own iPSCs, such as autologous transplant and the fact that cells taken in the early stages of life are preferable over cells collected later in life.

To democratise iPSC access, it is also important to expedite application research. We work closely with downstream partners, and support their iPSC-derived drug therapy development efforts by providing iPSCs to meet their needs. We also collaborate with downstream partners in the development of promising therapies including the use of T-cells for cancer therapy, cardiomyocytes for the treatment of heart disease, and neurocytes for neurological disease.

What is your outlook around boosting public-private stakeholders initiatives to encourage awareness on stem-cell-based therapeutics?

iPSC research has advanced tremendously over the past 16 years, and even more so since Dr Shinya Yamanakas Nobel Prize award in 2012. The acceleration of applied research is paving the way for stem cell-based therapeutics to become a common treatment modality in the near future. As human cell manufacturing requires specialised professional skills and knowledge, it is important to promote functional specialisation. These specialisations include donor recruiting, cell manufacturing (where I Peace is the key player), and implementing cell transplant as a medical practice. We believe that creating a systematic industry structure will build awareness and further drive the growth of stem cell-based therapy.

Can you brief Japans licensing key notes to manufacture and process clinical-grade cells in the region?

Japan enacted three laws to promote the use of regenerative medicine as a national policy:

1) The Regenerative Medicine Promotion Act -- representing the country's determination to promote regenerative medicine;

2) The Pharmaceuticals, Medical Devices, and Other Therapeutic Products Act (PMD Act); and

3) The Act on the Safety of Regenerative Medicine (RM Act). The U.S. also has various tracks such as the Regenerative Medicine Advanced Therapy (RMAT) Designation, Breakthrough Therapy designation, and Fast Track designation.

Of significance, the PMD Act enables a fast-track for regulatory approval of regenerative medicalproducts in Japan. In compliance with the RM Act, I Peace was audited by the PMDA and licensed by the Ministry of Health, Labour, and Welfare to manufacture specific cell products.

Because cell product manufacturing regulations are not standardised globally, cell therapy developers are forced to source GMP iPSCs for each market. I Peace however, has overcome this hurdle. We have built in compliance with global GMP regulations, including FDA's cGMP regulations per 21 CFR 210/211 in our operation. As a result, we can provide cells for global use in multiple markets, accelerating both product development and regulatory approval.

Hithaishi C Bhaskar

hithaishi.cb@mmactiv.com

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"Stem cell-based therapeutics poised to become mainstream option - BSA bureau

Anja Health Disrupts Cord Blood Banking with Heartfelt Founding Story and Ground-Breaking Mission – Digital Journal

This umbilical cord blood bank encourages parents to get the best healthcare option for their children.

When Anja Health founder Kathryn Cross was 3 and her brother was 1, he was in a near-drowning accident. His physicians quickly diagnosed him with cerebral palsy, and her parents began searching for a treatment. When they discovered umbilical cord blood, the possibilities that the future held suddenly widened. Umbilical cord blood was increasingly being studied as a treatment for cerebral palsy via clinical trials. Its versatile stem cells were already FDA-approved to treat 85+ diseases, and approximately 1,300 ongoing clinical trials were examining other use cases. Research for cerebral palsy in particular was promising, but the Cross family was ultimately unable to find an umbilical cord blood stem cell match that could have acted as a treatment.

When the founder later lost her brother to cerebral palsy and pneumonia complications, she realized that there was not only a limited supply of life-changing stem cells, but there was also limited awareness. In that moment, Anja Health was born.

Anja Health is a preventative care brand that offers Anja Health Family Defense, Anja Health Family Defense Plus, and Anja Health Family Defense Bundle to collect stem cells from the umbilical cord blood, cord tissue, and placenta.

With stem cell treatments unique ability to grow and develop into almost any cell type in the body, it has earned a reputation for being one of the most sought-after medical solutions and is now at the forefront of a brighter future for medicine. With its proven track record of saving lives, many parents now consider collecting their babys umbilical cord blood to preserve it for future use.

Anja Health collects, cryopreserves, and safe-keeps samples in its New-Jersey-based AABB-accredited, FDA-approved partner facility. It also updates its clients (even after birth and collection) of the newest stem cell uses to illustrate how clients can use samples when a need arises.

Stem cell treatments from banked cord blood, tissue, and placenta stem cells can be wonderfully life-altering for those who suffer from different diseases, said Anja Health founder Kathryn Cross. Today, banking is not simply an insurance policy in the low-probability case that your child gets a disease. Rather, if someone has access to stem cells and they stay up to date with its use cases as they develop, they will use stem cells at some point in their life.

Visithttps://anjahealth.com/for more information about the company and its services.

About Anja Health

Anja Health is a preventative care brand that provides services for collecting and preserving stem cells. Anja aims to bring the revolutionary benefits of stem cell treatments to individuals, especially those who suffer from various diseases.

Media Contact Company Name: Anja Contact Person: Kathryn Cross Email: Send Email Country: United States Website: https://anjahealth.com/

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Anja Health Disrupts Cord Blood Banking with Heartfelt Founding Story and Ground-Breaking Mission - Digital Journal

Longeveron Successfully Advancing its Cell-Based Therapy Studies in a Growing Industry Segment – Yahoo Finance

Research and development of stem cell-based therapies, where a patients own cells, or those from a donor, are used to fight injury and disease, is one of the fastest growing areas in the biotech space. Longeveron Inc. (NASDAQ: LGVN), a clinical-stage biotechnology company in the thick of clinical development, continues to advance its investigational therapeutic, Lomecel-B, for chronic, aging-related and life-threatening conditions.

The company recently announced the results of its randomized, blinded and placebo-controlled Phase 2 trial to evaluate the safety and efficacy of its proprietary Lomecel-B infusion in frail, older patients between 70 and 85 years old. The trial, which was partially funded by the National Institute on Aging, evaluated a single intravenous infusion of 4 different doses of Lomecel-B cell therapy compared to placebo on the change in the distance a person could walk in 6 minutes (a test known as the 6-minute walk test). Results showed that a single infusion of Lomecel-B resulted in an increase in walk distance of approximately 50 meters (164 feet) at 6 and 9 months after infusion, while the placebo-treated subjects showed minimal improvement at 6 months and a deterioration by 9 months.

Lomecel-B is a proprietary allogeneic product comprised of medicinal signaling cells (MSCs) from the bone marrow of adult donors, which are culture-expanded in Longeverons current good manufacturing practice cell-processing facility. According to trial results so far, Lomecel-B, and MSCs in general, may be injected or infused into an unrelated recipient without triggering a harmful reaction (rejection) due to the biochemical properties of these specialized cells. This is in part what makes this class of biologic so intriguing for use as a regenerative therapeutic.

A growing global trend is for biotech companies to direct their services to the cell and gene therapy industry and moving to expand into a new branch of the pharmaceutical contract development and manufacturing organization world.

Story continues

The U.S. Food and Drug Administration (FDA) has approved a small number of cell and gene therapy drugs. Still, a new product pipeline is fighting for the agencys attention with approximately 1,200 experimental therapies more than half in Phase 2 clinical trials. The annual sales growth estimates for cell therapies are projected to reach 15%.

Longeveron has also initiated a Phase 2 trial evaluating the safety and efficacy of Lomecel-B injection into the heart of children born with hypoplastic left heart syndrome (HLHS), a rare and often fatal congenital heart defect.

Longeveron believes that using the same cells that promote tissue repair, organ maintenance and immune system function can develop safe and effective therapies for some of the most challenging diseases and conditions associated with aging.

We continue to make steady progress advancing our Lomecel-B clinical research programs forward, Longeveron CEO Geoff Green said. We have encouraging top-line results from our Aging Frailty program, and anticipate initiating a Phase 2 trial in Alzheimers disease later this year.

Longeveron shared their review of the Aging Frailty trial data with independent frailty experts, with the objective of planning the next steps for the program. The company presented clinical data at the 2021 International Conference on Frailty & Sarcopenia Research on Sept. 29 during a round-table presentation.

Learn more about Longeveron at http://www.longeveron.com.

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Longeveron Successfully Advancing its Cell-Based Therapy Studies in a Growing Industry Segment - Yahoo Finance

Transforming Growth Factor Sales Gaining Traction & to reach US$ 709.9 Mn with Significant Development in Cell Therapy Research – PRNewswire

Cell therapy plays an important role in vascular and hematopoietic, neural, skeletal, pancreatic, periodontal, and mucosal tissue regeneration. Platelet-derived growth factors and bone morphogenetic factors are gaining high demand for diabetic neuropathic ulcers and periodontal defects, and tissue regeneration at sites of tibia fractures. Increasing demand for transforming growth factors in regenerative medicine is expected to propel market growth substantially over the coming years.

Stem cell research continues to expand due to high adoption of stem cell treatment. Therefore, bone morphogenetic proteins (BMPs) and TGF-beta proteins are gaining demand and supporting the clinical development of cellular therapies. Cell culture has helped the most in oncology research as cancer cells are more responsive to culture in vitro, which, in turn, is drive demand in research areas.

Increasing healthcare R&D expenditure further improves the chances of breakthrough treatment options. Rapidly growing healthcare expenditure is resulting in new molecule discovery, evaluation of various molecules for possible disease treatment, and adoption of innovative approaches in these studies.

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Key manufacturers of transforming growth factor are focusing on the development of technology to cater to specific research requirements.

The COVID-19 pandemic affected health services for other diseases such as hypertension, cancer, diabetes, and cardiovascular diseases. Selective procedures such as orthopedic joint replacement were impacted. Shifted focus of healthcare professionals from these diseases to address the COVID-19 crisis negatively impacted the overall healthcare industry.

However, the transforming growth factor space did not see any long-term adverse effect on its business. A short-term impact of COVID-19 has been seen on the market due to disruptions in the supply chain and research activities during lockdowns. The market is projected to experience smooth growth over the coming years.

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Key Takeaways from Market Stud

By grade, the GMP segment is fast-growing at CAGR of 9.3%, on the back of rise is demand for supreme quality growth factors across regions.

Based on product, bone morphogenetic proteins (BMPs) is leading with over 43% market share.

Oncology research is estimated to lead the market by application. This segment accounted for approximately 22% share of the market.

Pharmaceutical and biotechnology companies lead demand for transforming growth factors with a market share of 48%.

By region, North America is set dominate the global market with a value share of around 41%. Europe is slated to be the second-largest leading region with a value share of 32%.

"Increasing drug discovery and stem cell research is expected to drive market expansion of transforming growth factors over the next ten years," says an analyst of Persistence Market Research.

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Market Competition

Agreements, collaborations, and partnerships have emerged as the key growth strategy adopted by industry players. By focusing on these strategies, key stakeholders are expanding their geographic footprints and strengthening their existing product portfolios.

In February, 2019, Roche entered into a definitive merger agreement to acquire Spark Therapeutics.

In 2021, Bio-Techne Corporation) and Catamaran Bio expanded their collaboration for the development of cell engineering and cell process technologies for use by Catamaran in the manufacturing of CAR-NK cell therapy products.

What Does the Report Cover?

Persistence Market Research offers a unique perspective and actionable insights on the transforming growth factor market in its latest study, presenting historical demand assessment of 2016 2020 and projections for 2021 2031.

The research study is based on the product (activin, bone morphogenetic proteins (BMPs), TGF-beta proteins), grade (GMP grade, NON-GMP grade), application (oncology research, haematology research, wound healing research, dermatology research, cardiovascular disease & diabetes, cell therapy and ex vivo manufacturing, others), end user (pharmaceutical and biotechnology companies, research centres & academic institutes, CMOs and CDMOs), across seven key regions of the world.

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Persistence Market Research (PMR), as a 3rd-party research organization, does operate through an exclusive amalgamation of market research and data analytics for helping businesses ride high, irrespective of the turbulence faced on the account of financial/natural crunches.

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Transforming Growth Factor Sales Gaining Traction & to reach US$ 709.9 Mn with Significant Development in Cell Therapy Research - PRNewswire

Ready to Treat Over 80 Life-Threatening Diseases, Discover the Potential of Cord Blood during World Cord Blood Day 2021 – PRNewswire

TUCSON, Ariz., Oct. 5, 2021 /PRNewswire/ --On November 15th, 2021, healthcare professionals and the general public are invited to participate in World Cord Blood Day 2021 (www.WorldCordBloodDay.org) via a free online conference and live educational events being held around the globe. Registration is now open (free, public welcome).

Cord blood is the blood left in the umbilical cord and placenta following the birth of a child. It is rich in life-saving stem cells. While cord blood has been used for over 30 years, Covid-19 has renewed interest in this medical resource given its unique regenerative qualities and the fact that most cord blood currently stored was collected prior to the pandemic. These units are naturally Covid-free, an advantage over many other stem cell sources. Yet, cord blood is still thrown away as medical waste in the majority of births worldwide. Education is key to changing this practice and World Cord Blood Day 2021 will provide the perfect opportunity for OBGYNs, midwives, transplant doctors, nurses, parents and students to learn about this vital medical resource.

During World Cord Blood Day 2021, participants will learn how cord blood is used to treat over 80 life-threatening diseases such as leukemia and lymphoma, bone marrow failure, immune deficiency diseases and inherited blood disorders such as thalassemia and sickle cell disease. Leading transplant doctors and researchers will also highlight cord blood's role in the emerging fields of gene therapy and regenerative medicine to potentially treat cerebral palsy, autism, stroke and more.

Organized by Save the Cord Foundation, a 501c3 non-profit, World Cord Blood Day 2021 is officially sponsored by QuickSTAT Global Life Science Logistics, recognized leader in medical shipping and healthcare logistics. Inspiring Partners include Be the Match (NMDP), World Marrow Donor Association (WMDA-Netcord), AABB Center for Cellular Therapies, Cord Blood Association, and the Foundation for the Accreditation of Cellular Therapy (FACT).

"QuickSTAT, part of Kuehne+Nagel, is proud to sponsor the 5th annual World Cord Blood Day to help support and educate the healthcare community and expectant parents about the life-saving value of cord blood stem cells. We're excited to play a role in the research and development of cord blood derivative therapies by providing logistics supply chain solutions to cord blood, biotech and pharmaceutical companies worldwide," said Monroe Burgess, VP Life Science Commercial Marketing, QuickSTAT.

Visit http://www.WorldCordBloodDay.org to learn how you can participate. Show your support on social media: @CordBloodDay, #WorldCordBloodDay, #WCBD21

About Save the Cord Foundation Save the Cord Foundation (a 501c3 non-profit) was established to advance cord blood education providing non-commercial information to health professionals and the public regarding methods for saving cord blood, as well as current applications and the latest research. http://www.SaveTheCordFoundation.org.

About QuickSTAT Global Life Science Logistics Every day, QuickSTAT, a part of Kuehne+Nagel, safely and reliably moves thousands of critical shipments around the world. For over forty years, QuickSTAT has been entrusted with transporting human organs and tissue for transplant or research, blood, blood products, cord blood, bone marrow, medical devices, and personalized medicine, 24/7/365. QuickSTAT's specially trained experts work with hospitals, laboratories, blood banks and medical processing centers, and utilize the safest routes to ensure integrity, temperature control and chain of custody throughout the transportation process. Learn more at http://www.quickstat.aero.

Contact: Charis Ober (520) 419-0269 [emailprotected]

SOURCE Save the Cord Foundation

http://www.SaveTheCordFoundation.org

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Ready to Treat Over 80 Life-Threatening Diseases, Discover the Potential of Cord Blood during World Cord Blood Day 2021 - PRNewswire