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Cases of HIV cure | aidsmap – aidsmap

Posted: May 18, 2024 at 2:38 am

Key points

This page provides information on people who have been cured of HIV or appear able to control the virus without treatment. These cases have all been reported by scientists in medical journals or at scientific conferences. Sometimes, people are described as having long-term viral control without antiretroviral therapy (ART) or being in remission. This reflects uncertainty about whether HIV levels might eventually rebound.

While these cases are unusual, a major focus of HIV cure research involves finding out how these people manage to control their HIV, and developing therapies to help more people do the same thing.

Several cases of HIV cure or long-term viral control have been reported in people who received stem cell transplants to treat life-threatening leukaemia or lymphoma. Stem cells are cells produced bybone marrow (aspongytissue found in the centre of some bones) that can turn into new blood cells.

In all but one of the cases, people with HIV received stem cells from a person who had natural resistance to HIV infection due to the presence of the double CCR5-delta-32 mutation. People with this rare genetic mutation do not have CCR5 receptors on their immune system cells, so HIV is unable to gain entry to cells.

The first person cured of HIV was Timothy Ray Brown, an American then living in Berlin, who received two stem cell transplants to treat leukaemia in 2006. The donor had double copies of a rare gene mutation known as CCR5-delta-32 that results in missing CCR5 co-receptors on T cells, the gateway most types of HIV use to infect cells. He underwent intensive conditioning chemotherapy and whole-body radiotherapy to kill off his cancerous immune cells, allowing the donor stem cells to rebuild a new HIV-resistant immune system.

Brown stopped ART at the time of his first transplant but his viral load did not rebound. Researchers extensively tested his blood, gut, brain and other tissues, finding no evidence of replication-competent HIV anywhere in his body. In December 2010, Brown, known as the Berlin patient, began speaking to the press and at this point researchers started using the word cure for him. It was revealed that Browns cure for HIV had been far from easy. Despite this, Brown survived for 14 years from the date of his bone marrow transplant without any sign of HIV returning. He moved back to the US and became an ambassador for HIV cure research. He died in September 2020 at the age of 54, of the leukaemia that first prompted his treatment.

Browns case led researchers to look for similar donors in subsequent situations where people with HIV needed stem cell transplants.

A second case was reported in 2019. Adam Castillejo, the London patient, received a stem cell transplant from a donor with natural resistance to infection as part of treatment for Hodgkin lymphoma. He stopped antiretroviral treatment 16 months after the transplant, by which time all his CD4 cells lacked CCR5 receptors. Still controlling the virus without ART a year later, Castillejo went public. The COVID pandemic prevented him and Timothy Ray Brown ever meeting, but they did talk on the phone before Browns death. He has now been off ART for five years with no trace of HIV.

Marc Franke, the Dsseldorf patient, received a stem cell transplant to treat leukaemia from a donor immune to HIV in 2013. More cautious than Castillejo, he did not stop taking ART until November 2018. His remission from HIV was first announced at the same time as Castillejos in 2019, although it attracted little attention at the time. In February 2023, after more than four years of extensive testing, his doctors declared him cured of HIV. Later that year, Franke told POZ magazine that he has met his donor and also keeps in contact with other people cured of HIV.

The New York patient was described in February 2022. She was notable as being the first female case, and as of that date had been 14 months off ART without her HIV returning. She received a haplo-cord blood transplant to treat leukaemia in 2017. This is a different kind of stem cell transplant, used in circumstances where it is difficult to find a close genetic match, using cells from more than one donor. In this case, umbilical cord blood from a donor with the double CCR5-delta-32 mutation were supplemented by cells from a relative without the CCR5-delta-32 mutation. This procedure was necessary because the woman was mixed-race and the mutation that confers immunity to HIV is found almost solely in people of White European ancestry.

Paul Edmonds, the City of Hope patient, is a Californian named after the cancer centre where he was treated. As reported in July 2022, he received a stem cell transplant to treat leukaemia from a donor with a double CCR5-delta-32 mutation. He is the oldest person so far to experience viral control without treatment (63 years), has been living with HIV the longest (31years), and has the lowest CD4 nadir (below 100). He stopped ART two years after his transplant and has shown no trace of HIV in the 17 months since, with his leukaemia also in remission. Edmonds went public to the newspaper USA Today in April 2023.

Most recently, Romuald, a French-Swiss man initially known as the Geneva patient became the first person to experience HIV remission after a stem cell transplant in 2018 containing cells that did not have the double CCR5-delta-32 mutation. Based on the results of some previous transplants, scientists had assumed that HIV remission after a stem cell transplant was possible only after a transplant from a donor with the double CCR5-delta-32 mutation.

Romuald was diagnosed with HIV in 1990 at the age of 18and had been taking antiretroviral treatment which fully suppressed HIV since 2005. He received the transplant after chemotherapy and radiotherapy to treat leukaemia. Host CD4 cells were completely replaced within a month of the transplant, but he had graft-versus-host disease, which occurs when donor immune cells attack the recipients body. This required treatment with ruxolitinib, a JAK 1/2 inhibitor, which has also been shown to reduce the size of the HIV reservoir. Ultrasensitive viral load testing could not detect HIV after the transplant and the man undertook a planned treatment interruption. No viral rebound had occurred 54 months after transplantation and HIV DNA levels continued to decline off treatment.

Speaking to French-language media in November 2023, Romuald explained that the treatment for his leukaemia was much more difficult than his treatment for HIV. Isolation unit, heavy treatments, chemotherapy, radiotherapy, he said. It was the most difficult period of my life.

He knew that stopping his HIV treatment would be risky, but chose to do so both for himself and to advance scientific research. His intriguing case raises new questions about potential mechanisms that could lead to HIV remission.

Researchers stress that these are unusual cases and attempts to replicate them in other people undergoing cancer treatment have failed in some cases. Stem cell transplants are far too risky for people who do not need them to treat life-threatening cancer, and the intensive and costly procedure is far from feasible for the vast majority of people living with HIV worldwide.

Several cases of HIV control after discontinuing treatment have been reported. These individuals are known as post-treatment controllers.

In many but not all of these cases, the post-treatment controllers had received very early antiretroviral treatment within the first few weeks after infection which sometimes allows the immune system to get ahead of HIVs ability to evade the bodys natural response to it, producing broadly neutralising antibodies and other immune responses that stop more HIV being produced. This results in a much smaller than usual reservoir of cells containing intact proviral DNA. This strategy usually only works if people are treated very early, and it only produces long-term viral control in a fraction, such as a number of patients in France, the US and Germany.

In 2022, the latest report on the French VISCONTI cohort identified six men and four women who started a course of ART within three months of infection, subsequently stopped it, have remained undetectable and have not re-started treatment. Viral loads before treatment were generally high and ART was taken for at least one year. Seven of the ten have now remained undetectable for more than ten years, including one man who stopped treatment 17 years ago.

Acronym for antiretroviral therapy. Antiretroviral therapy usually includes at least two antiretroviral drugs.

Cells from which all blood cells derive. Bone marrow is rich in stem cells.

A level of viral load that is too low to be picked up by the particular viral load test being used or below an agreed threshold (such as 50 copies/ml or 200 copies/ml). An undetectable viral load is the first goal of antiretroviral therapy.

A substance that acts against retroviruses such as HIV. There are several classes of antiretrovirals, which are defined by what step of viral replication they target: nucleoside reverse transcriptase inhibitors; non-nucleoside reverse transcriptase inhibitors; protease inhibitors; entry inhibitors; integrase (strand transfer) inhibitors.

However, there were an additional nine people in the cohort who had periods of low but detectable viral load during follow-up, and a further three people who needed to re-start ART due to raised viral loads.

Its possible that cases of post-treatment control are not more commonly identified simply because, once having started ART, few people stop. A review of several studies suggests that around one person in nine treated very soon after infection may be able to control HIV for at least a year without treatment, while another suggested the proportion might be less than one in 20.

Children started early on ART are thought to be especially good candidates for post-treatment control as they can be started on ART very soon after infection, and they have fewer effector-memory T-cells, which are the type that become latent and hide HIV.

A South African childs case was first presented in 2017. Born with HIV, he was started on ART when he was two months old and taken off it, as part of a clinical trial of early-treated children, when he was one year old. He was still undetectable off ART in 2022 at the age of 13. He had a very weak immune response to HIV but strong activity in a gene that codes for PD-1, an immune checkpoint cell-surface protein that forces immune cells into latency in other words, to force HIV to hide inside the reservoir cells and not come out.

A study of 281 mother-infant pairs identified five South African boys who had controlled HIV despite non-adherence to postnatal antiretroviral treatment. All infants in the study who had acquired HIV received antiretroviral treatment after delivery and 92% were also exposed to the medication in the womb. Infants had been off antiretroviral treatment for between three and 19 months at the time the study reported its findings. HIV control off treatment was associated with HIV that remained sensitive to type 1 interferon and virus with higher replicative capacity. The study suggests that there may be a gender difference in HIV control in infants, as girls are less likely to have HIV sensitive to type 1 interferon because they produce higher levels of type 1 interferon during gestation.

Another case of HIV control after discontinuing treatment in a child treated soon after birth was reported in 2020. A child in Texas started treatment within two days of birth, had a positive HIV DNA test two weeks after birth and discontinued treatment at the age of 13 months. Three years later the child had undetectable HIV RNA and HIV DNA was detectable at extremely low levels intermittently during the follow-up period.

However, there have been a number of reported cases in which HIV DNA was not detectable on any tests, but HIV subsequently rebounded. In 2013, details of a Mississippi baby who received antiretroviral treatment from very soon after birth were reported. Treatment stopped after 18 months as the mother and baby stopped attending the clinic. HIV DNA was undetectable five months later when the mother and baby returned to the clinic and HIV remained undetectable for 27 months before viral load rebound occurred.

One remarkable case of post-treatment control is an Argentinian woman described as the Buenos Aires patient. She had not received treatment in early infection and there was nothing particularly advantageous in her medical history such as a consistently low viral load. On the contrary, when diagnosed in 1996, she had a low CD4 count (160) and at least one AIDS-related illness (toxoplasmosis). Her viral load, initially 2200, rose to 36,000 a year later due to adherence difficulties but after switching her ART regimen she never had a detectable viral load again despite stopping ART in 2007 due to side effects.

When her case was reported in 2021, she had been off ART with an undetectable viral load for at least 12 years. Investigations in 2015 and 2017 could not find any replication-competent HIV DNA in 2.5 billion white blood cells and an upper limit of one unit of intact viral DNA in 390 million CD4 cells. Though her CD4 cells retained immune responses to HIV, her CD8 cells had very weak responses. Unusually, even for HIV controllers, she is now HIV negative, having lost her antibodies to the virus.

This woman does have HLA B*57, a genetic variant associated with lower viral loads and slow progression, but it does not seem to have stopped her developing a severe HIV infection in the first place. Exactly how she has managed to control her HIV so profoundly remains a mystery but her seroreversion disappearance of antibodies and her sluggish CD8 response do seem to be extreme examples of processes seen in some other post-treatment controllers.

A Barcelona woman has controlled HIV for more than 15 years without treatment. Diagnosed with HIV during acute infection, she received four different immune-modulating drugs in addition to her normal antiretroviral treatment as part ofa clinical trial. However, she was the only person out of 20 participants in the trial to maintain long-term viral control off ART, so it is difficult to know whether to ascribe her control to the extra treatment or not.

Like the Buenos Aires patient, she had had typical or even severe initial HIV infection. Her CD4 T-cells were receptive to HIV and her viral DNA turned out to produce replication-competent virus. But the CD8 T-cells of her cellular immune system and the natural-killer (NK) cells of her innate immune system both proved to have particularly strong activity against HIV. Even if her control was achieved only with extra therapy, the immune signatures of these controllers are interesting because they point the way towards how viral control might be induced in other people.

The reasons for viral control off treatment are still not fully understood. Learning how to reproduce this state in a much larger proportion of people, and in those who didnt start treatment soon after infection, is a major goal of cure research.

Few people with HIV can control viraemia without HIV medication. People that can maintain viral loads between 50-2000 copies without treatment are known as viraemic controllers. In the US and UK, less than 4% of people with HIV are considered viraemic controllers. Surprisingly, a recent study identified that 13% of people in the South African and Zambian PopART cohort were viraemic controllers. This is higher than in the US and UK studies, and most of the viraemic controllers identified in the PopART cohort were women. Some studies suggest that women might be more likely to control HIV without medication compared to other groups, but these studies are limited and require further investigation. Understanding how sex differences, and other factors, may contribute to viraemic control has the potential to inform cure strategies.

While viraemic controllers maintain low but detectable levels of HIV, some people can control virus to below 50 copies. Elite controllers control HIV to undetectable levels in the blood, but viral material is still present elsewhere in the body. On the other hand, exceptional elite controllers maintain undetectable viral loads because their immune system seems to have eliminated all intact viral material from their bodies.

Loreen Willenbergisa Californian woman considered to be an exceptional elite controller. She was diagnosed with HIV in 1992 at the age of 37. From the start she maintained a high CD4 count and undetectable viral load since diagnosis (except for one viral blip). She volunteered for studies of long-term non-progressors (people who maintain intact immune systems without treatment) and in 2011 learned that scientists could find no replication-competent HIV in her immune cells. Loreen went public about her story in 2019 and was featured in The New York Times in 2020.

It appears that Willenbergs immune response to HIV is characterised by CD8 cells that have a strong and specific response to the parts of HIV that are most conserved. This means that they are the parts that change least, because to do so would impair viral fitness. They are therefore less likely to mutate away from the attention of the immune system.

In elite controllers this highly selective immune attack has led to the only replication-competent DNA they have being located in so-called gene deserts parts of the host DNA that lack the necessary conformation to allow viral genes to activate. In Willenbergs case, and in a few others, this process has gone further. Although some of her immune cells do contain junk HIV DNA proof that she once did have an active HIV infection no replication-competent DNA can be found.

The scientists who investigated Loreens response to HIV and some other researchers, notably in Spain, have found a few other patients who appear to have achieved self cures. No more than nine of these exceptional elite controllers have yet been documented.

The Esperanza patient is another example of an exceptional elite controller.This woman is named after her home town in Argentina. Diagnosed at the age of 21 in 2013, she took one six-month course of ART during pregnancy in 2020 to safeguard her baby but has never otherwise been on ART and has never had a detectable viral load test in nine years. As with Loreen Willenberg, researchers could find no replication-competent HIV DNA in 1.2 billion white blood cells, and also in 500 million placental cells sampled when she gave birth. In the case of this patient, doctors know that the likely source partner had a high HIV viral load, so her apparent self-cure is not due to viral factors.

There is also the case of an Australian man who appears to have cleared his own infection. This case was published in 2019 but attracted little attention, partly because the subject had an unusual combination of factors (a defective virus, one of his two CCR5 co-receptor genes missing and a response to HIV characteristic of slow progressors) that most people with HIV would not share. However, these factors did appear to have given his body more time than usual to mount a strong CD8 response, and a very specific CD4 response, to HIV. This is the kind of immune response researchers would like to replicate in other people.

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Cell Therapy Market size is set to grow by USD 31041.49 million from 2023-2027, limitations in traditional organ … – PR Newswire

Posted: May 18, 2024 at 2:38 am

NEW YORK, May 15, 2024 /PRNewswire/ -- The globalcell therapy market size is estimated to grow by USD 31041.49 million from 2023-2027, according to Technavio. The market is estimated to grow at a CAGR of 57.06% during the forecast period.

For more insights on the forecast market size and historic data (2017 - 2021)-Download Freesample report in a minutes

Forecast period

2023-2027

Base Year

2022

Historic Data

2017 - 2021

Segment Covered

Type (Autologous and Allogenic ), Application (Malignancies, Musculoskeletal, Cardiovascular, and Others ), and Geography (North America, Europe, Asia, and Rest of World (ROW))

Region Covered

North America, Europe, Asia, and Rest of World (ROW)

Key companies profiled

Astellas Pharma Inc., Athersys Inc., Avita Medical Inc., BioCardia Inc., BioSenic SA, Brainstorm Cell Therapeutics Inc., Bristol Myers Squibb Co., Capricor Therapeutics Inc., Castle Creek Biosciences Inc., CellSeed Inc., Cellular Biomedicine Group Inc., Celyad Oncology SA, Gilead Sciences Inc., Lineage Cell Therapeutics Inc., Lisata Therapeutics Inc., Mesoblast Ltd., Novartis AG, Pharmicell Co. Ltd., Sanpower Group Co. Ltd., and ThermoGenesis Holdings Inc.

Key Market Trends Fueling Growth

The cell therapy market encompasses various disease areas, including chronic heart failure, cancer, and diabetes. Novel treatments utilize progenitor cells, adult and embryonic stem cells, and iPS cells. While wound and dermal grafts dominate the market, cancer treatments are limited, with PROVENGE, an autologous cell therapy for cancer, being the first FDA-approved product. Autologous cell therapies are under development by Novartis and Opexa. Cell therapy research also explores gene therapies, precision medicine, and individual differences in treatment responses. Global population growth, climate change, and virus outbreaks necessitate advancements in this field. Cell biology research, stem cell therapies, and insulin-dependent diabetes are key focus areas. Automation, genetic editing tools like CRISPR-Cas9, and regulatory bodies such as the EMA and CAR-T therapies are shaping the market's evolution. Funding, guidelines, and cell banking facilities are crucial components, with EU grants and Horizon Europe supporting research in this sector.

MarketChallenges

Research report provides comprehensive data on impact of trend, driver and challenges-Buy Report

Segment Overview

This cell therapy market report extensively covers market segmentation by

1.1 Autologous-The cell therapy market segmentation by type encompasses various applications, including acute lymphocytic leukemia and chronic conditions such as diabetes and multiple myeloma. The market growth in this sector is influenced by factors like clinical studies in regenerative medicine and the development of novel products. The segment exhibits a medium pace due to manufacturing complexities and less established clinical evidence. In contrast, allogeneic therapies, which do not rely on individual cells, are preferred in emergency care. The cell therapy market is driven by advancements in cell biology research, stem cell therapies, and gene therapies. Precision medicine and individual differences in disease mechanisms and progression necessitate drug selection tailored to specific populations. Global population growth, climate change, and virus outbreaks further fuel the market's expansion. Pharmaceutical and biotechnology companies invest heavily in cell therapy research, focusing on quality control, cell banking facilities, and storage. Clinical trials are underway to improve treatment responses and reduce complications, such as immune response and immunosuppressive therapies. EU grants and initiatives like Horizon Europe support these efforts, promoting personalized medicine and stem cell therapy. Key players in the cell therapy market include Panacell Biotech, Cellino Biotech, Achilles Therapeutics, and Sernova. These companies contribute significantly to the development and commercialization of cell therapies, addressing various diseases and disorders.

For more information on market segmentation with geographical analysis including forecast (2023-2027) and historic data (2017 - 2021) -Download a Sample Report

Research Analysis

The Cell Therapy Market encompasses the development, production, and application of novel therapies derived from cell biology research. These therapies aim to address various diseases and their mechanisms, including disease progression and treatment responses. The global population growth and climate change have increased the demand for advanced treatments, leading to a surge in funding for research in this field. Horizon Europe, a significant funding source, supports initiatives in areas such as pneumonia, diabetes, and chronic conditions. Cell banking facilities provide essential storage solutions for cell types used in allogeneic therapies, ensuring their availability for clinical trials and clinical studies. Pharmaceutical and biotechnology companies invest heavily in regenerative medicine to deliver effective treatments for virus outbreaks and other chronic conditions. Grants and guidelines play a crucial role in facilitating research and ensuring ethical standards are met. Achilles Therapeutics and other innovators in this sector are pioneering new approaches to cell therapy, contributing to the advancement of this dynamic and evolving market.

Market Research Overview

The Cell Therapy Market refers to the global industry focused on the development, production, and application of cell therapies. These therapies involve the use of living cells to treat or prevent diseases and injuries. The market encompasses various types of cell therapies, including stem cell therapy, gene therapy, andimmunotherapy. The market is driven by the increasing prevalence of chronic diseases, technological advancements, and regulatory approvals. The global cell therapy market is segmented by application areas, such as oncology, neurology, and regenerative medicine. The market is expected to grow significantly due to the increasing demand for personalized medicine and the potential of cell therapies to offer cure and improvement in quality of life for patients. The market is also influenced by the challenges of manufacturing and delivering these complex therapies at scale and affordability.

Table of Contents:

1 Executive Summary 2 Market Landscape 3 Market Sizing 4 Historic Market Size 5 Five Forces Analysis 6 Market Segmentation

7Customer Landscape 8 Geographic Landscape 9 Drivers, Challenges, and Trends 10 Company Landscape 11 Company Analysis 12 Appendix

About Technavio

Technavio is a leading global technology research and advisory company. Their research and analysis focuses on emerging market trends and provides actionable insights to help businesses identify market opportunities and develop effective strategies to optimize their market positions.

With over 500 specialized analysts, Technavio's report library consists of more than 17,000 reports and counting, covering 800 technologies, spanning across 50 countries. Their client base consists of enterprises of all sizes, including more than 100 Fortune 500 companies. This growing client base relies on Technavio's comprehensive coverage, extensive research, and actionable market insights to identify opportunities in existing and potential markets and assess their competitive positions within changing market scenarios.

ContactsTechnavio Research Jesse Maida Media & Marketing Executive US: +1 844 364 1100 UK: +44 203 893 3200 Email:[emailprotected] Website:www.technavio.com/

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Cell Therapy Market size is set to grow by USD 31041.49 million from 2023-2027, limitations in traditional organ ... - PR Newswire

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Stem Cell Engineering and Biology Program Hosts First Symposium | Newsroom – University of California, Merced

Posted: May 18, 2024 at 2:38 am

In April, the Training Undergraduates in Stem Cell Engineering and Biology (TUSCEB) program marked a significant milestone toward its mission of fostering excellence in stem cell engineering and biology education by hosting its first symposium.

As the cornerstone of our TUSCEB program, this symposium highlighted the specialized stem cell training and biological research activities of our trainees, said program Co-Director Professor Kara McCloskey.

TUSCEB is a collaborative effort between UC Merceds School of Natural Sciences and School of Engineering.

The programs first cohort of scholars showcased their research projects through engaging poster presentations. This platform served as a demonstration of their hard work and dedication and facilitated meaningful interactions with peers, faculty members, industry professionals and community members.

The symposium also offered a comprehensive educational experience through a series of foundational talks from an insightful exploration into the world of stem cells to a detailed overview of the TUSCEB program by McCloskey and Co-Director Professor Jennifer Manilay.

Attendees were enriched with knowledge crucial for navigating the complex landscape of stem cell engineering and biology. The highlight of the event was a talk on medical ethics by guest speaker philosophy Professor Hanna Gunn, whose expertise shed light on ethical considerations in the pursuit of groundbreaking scientific endeavors.

Our TUSCEB Symposium was not only a showcase of academic achievements, but a testament to our unwavering dedication toward shaping the next generation of leaders in regenerative medicine, Manilay said.

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Stem Cell Engineering and Biology Program Hosts First Symposium | Newsroom - University of California, Merced

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Aspen Neuroscience Receives CLIN2 Grant for ANPD001 from California Institute for Regenerative Medicine (CIRM) – PR Newswire

Posted: May 18, 2024 at 2:38 am

Award Will Support the First U.S. Multi-center, Multi-patient Phase 1/2a Trial of an Autologous Neurological Therapy

SAN DIEGO, May 15, 2024 /PRNewswire/ --Aspen Neuroscience, Inc., a California-based private biotechnology company developing personalized regenerative therapies, has received a CLIN2 grant award of $8 million from the California Institute for Regenerative Medicine (CIRM), the world's largest institution dedicated to regenerative medicine, to support clinical research aimed at treating Parkinson's disease (PD).

The grant, a first for an autologous therapeutic for degenerative neurological conditions, will help advance the development of ANPD001, an investigational iPSC-derived dopaminergic neuron replacement therapy.

Award will support the first U.S. multi-center, multi-patient Phase 1/2a trial of an autologous neurological therapy

ANPD001 is being studied in a First in Human Phase 1/2a clinical trial for patients with moderate to advanced PD, to assess safety and tolerability. This is the first use of the autologous approach in a multi-patient and multi-center clinical trial.

"This clinical award represents a significant step forward in the treatment landscape of Parkinson's disease by advancing individualized therapy, which has the potential to restore motor function in patients impacted by this devastating condition," said Dr. Abla Creasey, PhD, Vice President of Therapeutics Development at CIRM.

"We are honored to receive support from CIRM, an incredible sponsor of innovation. ANPD001 was developed in California, and is now being produced and studied here," said Damien McDevitt, PhD, President and CEO of Aspen Neuroscience, Inc. "Providing patients in this study with dopamine neurons made from their own cells is a huge leap forward for personalized medicine, and has the potential to impact the entire field of neurodegenerative disorders."

Affecting more than one million Americans, PD is a neurodegenerative disorder that causes walking and motor problems, as well as impaired balance and coordination. Existing therapies alleviate symptoms but do not treat the underlying disease process, leading to a significant unmet medical need for those suffering from this chronic condition.

"Parkinson's disease is the most common neurodegenerative movement disorder, primarily by depleting dopamine neurons in the midbrain. By the time of diagnosis, it is common for people with Parkinson's to have lost the majority of dopaminergic (DA) neurons, leading to progressive loss of motor and neurological function," explained Edward Wirth III, MD, PhD, Chief Medical Officer of Aspen Neuroscience. "Our Phase 1/2a study has completed enrollment, the first patient has been dosed and we will continue dosing patients this year."

About the California Institute for Regenerative Medicine (CIRM)At CIRM, we never forget that we were created by the people of California to accelerate stem cell treatments to patients with unmet medical needs, and act with a sense of urgency to succeed in that mission.

To meet this challenge, our team of highly trained and experienced professionals actively partners with both academia and industry in a hands-on, entrepreneurial environment to fast track the development of today's most promising stem cell technologies.

With $5.5 billion in funding and more than 150 active stem cell programs in our portfolio, CIRM is one of the world's largest institutions dedicated to helping people by bringing the future of cellular medicine closer to reality. For more information go to http://www.cirm.ca.gov

About the ASPIRO TrialASPIRO is an open-label Phase 1/2a clinical trial to assess the safety and tolerability of ANPD001 in patients with moderate to severe Parkinson's disease.The trial includes patients 5070 years of age, and excludes patients with cognitive impairment and other comorbidities that could preclude treatment. All enrolled patients are under the care of a movement disorder specialist.

The primary study endpoint is safety and tolerability of two sequential escalating doses of ANPD001. Secondary endpoints include improvement in "on" time, when patients experience periods of good symptom control, and improvements in motor symptoms and quality of life based on standard Parkinson's disease rating scales.

About Aspen Neuroscience Headquartered inSan Diego, Aspen Neuroscience, Inc. is a clinical development-stage, private company focused on autologous regenerative medicine. The company's patient-derived iPSC platform is used to create personalized therapies to address diseases with high unmet medical needs, beginning with autologous neuron replacement for Parkinson's disease.

Aspencombines cell biology with the latest machine learning and genomic approaches to investigate patient-specific, restorative cell treatments. The company has developed a best-in-class platform to create and optimize pluripotent-derived cell therapies, which includes in-house bioinformatics, manufacturing and quality control. For more information and important updates, please visithttps://www.aspenneuroscience.com.

SOURCE Aspen Neuroscience, Inc.

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Aspen Neuroscience Receives CLIN2 Grant for ANPD001 from California Institute for Regenerative Medicine (CIRM) - PR Newswire

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Five orthobiologics companies leading the way in the field – Labiotech.eu

Posted: May 18, 2024 at 2:38 am

Coming under the area of regenerative medicine, orthobiologics is a rapidly advancing field that offers new options to treat acute orthopedic injuries and chronic or degenerative conditions without surgery. These products contain growth factors to relieve pain, stimulate tissue healing, and reinstate normal function. There are many types of orthobiologic, and each one has a unique mode of action. As they are one of multiple promising treatments for muscle, joint, and soft tissue injuries, there are now many companies operating within this field.

In this article, we take a look at five orthobiologics companies leading the way in this area.

Bioventus works to deliver cost-effective products that help people heal quickly and safely. The innovations for active healing from the company include offerings for pain treatments, restorative therapies and surgical solutions. In fact, the companys surgical unit says it is specifically driven to advance the science and surgical performance of orthobiologics with a comprehensive portfolio of clinically efficacious and cost-effective solutions.

Bioventus portfolio of surgical biologics offers a wide variety of bone graft solutions to meet the needs of surgeons and their patients, across a broad range of patient needs, procedures, and costs. The products include different types of allografts, an autologous cell and bone marrow extractor (to add needed cells and signals to aid in bone healing), and a suite of minimally invasive therapeutic ultrasonic technologies based on its neXus Ultrasonic Surgical Aspirator System, which is optimized for hard and soft tissue removal.

Isto Biologics is a biologics and cellular therapy company in the orthopedic space. Its focus is on finding ways to help heal patients faster through innovative solutions for bone regeneration and cell-based therapies. The companys flagship product offerings include the Magellan autologous concentration system, which delivers concentrated platelets and cells at the point of care, and bone-growth products, including InQu Bone Graft Extender & Substitute and the Influx product family.

In October 2023, Isto merged with Advanced Biologics, a California-based company known for its biologic solutions. The merger was intended to integrate Advanced Biologics proprietary products into Istos portfolio of allografts found within its Influx line. Prior to the merger, the two companies had maintained a commercial partnership since 2020, catalyzed by the development of Istos Integrative Bone Matrix, SPARC, which is a novel inductive bone matrix that stemmed from Advanced Biologics proprietary tissue processing method used in its allograft, OsseoGen.

Locate Bio, a company committed to developing next-generation orthobiologics, has LDGraft as its main product in development. It is intended for anterior lumbar interbody spinal fusion (ALIF) procedures for patients with degenerative disc disease, an irreversible and debilitating disease that has a significant impact on day-to-day functioning. LDGraft has been designed to provide both an osteoconductive scaffold and a controlled and extended release of osteoinductive recombinant human bone morphogenetic protein 2 (rhBMP-2).

In May last year, Locate Bios LDGraft was granted breakthrough device designation by the U.S. Food and Drug Administration (FDA), which is intended to accelerate patient access to promising technologies that have the potential to provide more effective treatment or diagnosis for life-threatening or irreversibly debilitating diseases or conditions. Furthermore, just last month, the orthobiologics company also managed to raise 9.2 million ($11.6 million) in a funding round from new and existing investors. The proceeds from this will be used to fund a clinical study of LDGraft.

A spin-off of the Swiss Federal Institute of Technology, Kuros Biosciences is viewed as a leader in next-generation bone graft technologies, and it has locations in the U.S., Switzerland, and the Netherlands. The companys first commercial product is called MagnetOs, which is an advanced bone graft that, according to the company, has already been used across three continents in 25,000 fusion surgeries. MagnetOs NeedleGrip surface technology means that it grows bone even in soft tissues. This surface technology provides traction for the bodys vitally important pro-healing immune cells (M2 macrophages). This, in turn, unlocks previously untapped potential to stimulate stem cells and form new bone throughout the graft.

In January 2024, Kuros received an FDA 510K clearance for MagnetOs Granules for interbody use, as well as regulatory clearance for MagnetOs Granules and MagnetOs Putty in New Zealand. Earlier in January, Kuros also announced the FDA clearance of MagnetOs Easypack Putty for interbody use and MagnetOs Putty for standalone use in the posterolateral spine, meaning it can now be used without the need for autograft.

Orthobiologics company OssDsign is focused on developing and marketing products that support the bodys own healing capabilities. The companys primary product is the OssDsign Catalyst, which is a nanosynthetic bone graft putty designed to engage dual bone formation pathways resulting in rapid and reliable bone formation at early time points throughout the entire fusion mass. It has recently been indicated for use in interbody cages in spinal surgery and is the first synthetic bone graft to be cleared to market for interbody use based on bone graft data alone.

At the beginning of last month, OssDsign announced that it has been awarded a new group purchasing agreement for Bone and Bone Substitute Implantable Products with Premier, a leading U.S. healthcare improvement company uniting an alliance of approximately 4,350 U.S. hospitals and health systems and more than 300,000 other providers and organizations. Effective in July, this agreement allows Premier members to take advantage of special pricing and terms pre-negotiated by Premier for the OssDsign Catalyst.

Ongoing advancements in biotechnology and regenerative medicine have contributed to the development of innovative orthobiologics products, with novel biomaterials, growth factors, stem cell therapies, and tissue engineering techniques expanding treatment options and driving market growth. According to a recent report by Market.us, the global orthobiologics market size is expected to be worth around $14.2 billion by 2033 from $7.9 billion in 2023, growing at a compound annual growth rate (CAGR) of 6% during the forecast period from 2024 to 2033.

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Could mapping the bioelectrome lead to limb and organ regeneration drugs? – Longevity.Technology

Posted: May 18, 2024 at 2:38 am

Back in 2022, the news that a team of scientists had used a multi-drug cocktail to stimulate the regeneration of a frogs leg made headlines around the world. The story was remarkable, first because the animal in question, the African clawed frog, doesnt naturally regenerate complex limbs in adulthood, and second because the drugs were used to establish specific bioelectrical states that stimulated regeneration of the limb.

The scientists behind that research, Tufts University professors Michael Levin and David Kaplan, co-founded a company called Morphoceuticals to explore the potential of their work in regenerative medicine. When we first spoke with Levin, he told us of the companys intention to build a turnkey regenerative medicine platform that would allow the potential of bioelectrical signaling to be harnessed to enable limb and organ regeneration in humans.

Backed by Juvenescence and Prime Movers Lab, Morphoceuticals recently appointed biotech veteran Dr Jim Jenson to the role of CEO, as it seeks to build the first map of the druggable bioelectrome the electrical network in our bodies that ultimately controls tissue repair and regeneration.

Longevity.Technology: In contrast to the electrons that power the electrical networks in our homes, our bioelectrome is powered by ions, which can be manipulated by so-called ion channel drugs to establish different bioelectrical states, including those that promote regeneration. Of course, before you can start drugging anything, you need to know what signals are required to activate a desired response hence the need for a map. We caught up with Jenson to find out more about Morphoceuticals immediate objectives and the path towards human applications of its technology.

On its web site, Morphoceuticals describes the bioelectrome as a form of non-neural, multi-cellular cognition which tells cells what tissues to build and, crucially, when to stop. Jenson says the regenerative potential of the bioelectrome is what attracted him to the company.

Ive been in this business for 35 years now, but what is what is unique about Morphoceuticals is the extraordinary opportunity to develop a higher level omics above proteomics and genomics and transcriptomics with such potential for unlocking real control of tissue repair, an organ regeneration, he says.

Of course, Morphoceuticals didnt discover the bioelectrome. Indeed, Jenson says its existence has been known for over a hundred years.

In the last few decades, weve developed our understanding of what leads to this circuitry the ion channels, that every cell is a little battery in every living thing that makes currents, and that cells work collectively to control shape and form, he says. Its just an extraordinary area that is yet untapped by pharma, to a significant degree. But it can be tapped.

Jensons confidence stems from the fact that the tools already exist to allow the bioelectrome to be quantified.

The tools for measuring bioelectricity exist, both the currents and the specific voltage states on a cellular basis, he says. And then the multi-omics tools exist at a very sophisticated level for measuring in each condition, which voltage channels are prominent. Finally, now the artificial intelligence capability also exists to allow us to analyze the vast amounts of data that will be generated.

Mapping the bioelectrome sounds like an undertaking similar to that of the Human Genome Project, or the more recent Human Immunome Project, but Jenson says Morphoceuticals task should be in some ways easier than those initiatives.

There are only 400 ion channels that need to be opened or closed its a finite number, much smaller than the genome, he says. And the tools are there to measure it, so we dont have to create the tools as we did in the genome project. And there are far fewer moving parts in the bioelectrome than in the immunome, for example, so I think its a more approachable task to map it, and I think it will emerge within a shorter timeframe than the other omics.

To begin with, Jenson explains that Morphoceuticals will collect the relevant electrophysiological data, along with the corresponding multi-omics and cellular data, for resting states versus regenerating states, and for disease states versus healthy states in tissues.

After weve collected all that data, well need artificial intelligence to tell us the signatures associated with healthy and regenerating states, he says. And then, as those signatures are identified, well be able to use AI again to identify the triggers that we can pull for tissue growth and regeneration.

To date, Morphoceuticals has existed in essentially virtual form, supporting the ongoing work in its co-founders labs at Tufts. One of Jensons first objectives is to turn the company into an operational entity.

Over the next year or two were going to build out the team, the first elements of which are already in place, and build the toolkit that can help us generate the first map of a druggable bioelectrome, he says.

In terms of which therapeutic areas Morphoceuticals will target with its technology, Jenson indicates its too early to say.

Were going to let the science lead us, he says. The stump health work that we started in the frogs is still underway, but our emphasis now is primarily on building a much broader picture of the signatures. The science will tell us where to focus what is most tractable and for what are there good translational models the usual drug discovery components.

This will provide the path to triggers for tissue growth and regeneration for maladies that are addressable, with translational models, and we will have products going toward the clinic. Perhaps even more importantly, we will have cracked open the bioelectrome as a way of introducing new therapeutic modalities, opening up a new field of bioelectromics on which other companies will build.

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Maryland Stem Cell Research Commission awards $15.4M to 48 scientists – Maryland Daily Record

Posted: May 18, 2024 at 2:37 am

The Maryland Stem Cell Research Commission Tuesday announced its next round of awards granting a total of more than$15.4 million to 48 scientists whose research is propelling stem cell treatments and technologies statewide.

Several scientists from Maryland-based research institutions and companies have been selected as recipients in this grant cycle. Among the 48 awardees are academic researchers from Johns Hopkins University; the University of Maryland, Baltimore: the University of Maryland, College Park; Lieber Institute for Brain Development; and the Hugo W. Moser Research Institute at Kennedy Krieger. Commercial sector entities Seraxis Inc., Theradaptive Inc., HOHCells LLC, Agnos Therapeutics Inc., and Reprocell U.S.A. Inc. were also awarded grants.

These researchers are addressing myriad medical conditions, ranging from sickle cell anemia, type I diabetes, cancer, dental diseases and chronic pain to diseases directed to skin, heart, bone, blood, digestive and central nervous system diseases.

Awardees submitted proposals in response to the Commissions Request for Applications (RFAs) for the second funding round of fiscal year 2024. Earlier in the fiscal year, the commission also allocated nearly $4 million in additional research grants.

The second round ofMSCRF awards for the 2024 fiscal year includes:

Launch

These awards are to encourage new and new-to-the-field faculty to bring innovative research and technology to the regenerative medicine field. Totaling$2,797,553, the Launch Award recipients areGianluca Ursini, Ph.D. andTomoyo Sawada, Ph.D. from the Lieber Institute for Brain Development;Renyuan Bai, Ph.D. from the Hugo W. Moser Research Institute at Kennedy Krieger;Man-Kyo Chung, Ph.D. from theUniversity of Maryland, Baltimore;Li Yan, Ph.D. from theUniversity of Maryland, College Park; and Payam Mohassel, Ph.D.,Chun-Hyun Na, Ph.D. andAllen Eghrari, Ph.D. fromJohns Hopkins University.

Commercialization

These awards are forMaryland-based companies to develop new human stem cell-based products. Totaling$1,692,428, the Commercialization Award recipients areJean-Philippe Richard, Ph.D. from Reprocell,U.S.A., Inc.;Mandeep Singh, Ph.D. from Agnos Therapeutics, Inc.;Xiaoming He, Ph.D. from HOH Cells, LLC; andWilliam Rust, Ph.D. from Seraxis, Inc.

Clinical:This award is for universities/research institutes or companies that wish to conduct human stem cell-based clinical trials in theState of Maryland. Totaling$1,650,000, the Clinical Award recipients areLuis Garza, Ph.D. fromJohns Hopkins UniversityandLuis Alvarez, Ph.D. from Theradaptive Inc.

Validation

This award supports faculty atMaryland-based universities/research institutes with intellectual property (IP) for human stem cell-based technologies that require additional validation. Totaling$500,000the validation award recipients areCurt Civin, Ph.D. from theUniversity of Maryland, BaltimoreandXinzhong Dong, Ph.D. fromJohns Hopkins University.

Discovery

These awards fund innovative ideas to develop novel human stem cell-based technologies and cures. Totaling$7,158,174, the Discovery Award recipients include Chulan Kwon, Ph.D., Emmanouil Tampakakis, Ph.D., Gabsang Lee, Ph.D., Hiromi Sesaki, Ph.D.,Thomas Johnson, Ph.D.,Xiaobo Mao, Ph.D.,Charlotte Sumner, Ph.D., S.Amer Riazuddin, Ph.D.,Zack Wang, Ph.D.,Byoung Chol Oh, Ph.D.,Sashank Reddy, Ph.D., Vasilki Machairak, Ph.D. andAnnie Kathuria, Ph.D. fromJohns Hopkins University; andRaphael Meier, Ph.D.,Ivy Dick, Ph.D.,Xiaofeng Jia, Ph.D.,Yajie Liang, Ph.D.,Miroslaw Janowski, Ph.D.,Graeme Woodworth, Ph.D.,Chengyan Chu, Ph.D. andIris Lindberg, Ph.D. from theUniversity of Maryland, Baltimore.

Post-Doctoral Fellowship

These awards support exceptional post-doctoral fellows conducting research inMaryland. Totaling$1,300,000, award recipients include Neelima Thottappillil, Ph.D.,Cristina Zivko, Ph.D.,Mohit Kwatra, Ph.D.,Feiyu Yang, Ph.D., Heng Zhao, Ph.D. and Ridzky Yuda, Ph.D. fromJohns Hopkins University;Jinghui Wang, Ph.D. andShalini Sharma, Ph.D. from theUniversity of Maryland, Baltimore; andNiannian Xu, Ph.D. andWenshen Wang, Ph.D. from the Hugo W. Moser Research Institute at Kennedy Krieger.

Manufacturing Assistance

These awards provide companies with funding to support the manufacturing processes/infrastructure of stem cell therapy products inMaryland. Totaling$344,402, the Manufacturing Assistance Award recipient isEvelyn Chukwurahfrom Reprocell,U.S.A., Inc.

Gov.Wes Mooreand theMarylandGeneral Assembly have earmarked$20.5 millionfor fiscal year 2025 to support the MSCRF, reaffirming the states commitment to promoting research in stem cell and regenerative medicine withinMaryland.

The commission is gearing up to release Requests for Applications (RFAs) for its first round of FY25 funding and anticipates an acceleration of pioneering research and innovative cures through the various programs of MSCRF.

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Cell Separation Market is Expanding at 13.54% CAGR by 2033 – BioSpace

Posted: May 9, 2024 at 5:32 am

Precedence Research Says, the global cell separation market size was valued at USD 10.92 billion in 2023 and it is increasing over USD 38.99 billion by 2033 with a CAGR of 13.54% from 2024 to 2033.

Cell separation, also known as cell sorting or cell isolation, is a process that separates specific types of cells from a heterogeneous mixture, such as blood or tissue samples. This technique is crucial in various fields, including biomedical research, diagnostics, and therapeutics. In research, cell separation allows scientists to study and analyze specific cell populations, aiding in understanding cell behavior, disease mechanisms, and drug development. In diagnostics, it enables the detection and identification of rare cells, such as circulating tumor cells, which can provide valuable insights into disease progression and treatment response.

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In therapeutics, cell separation plays a vital role in regenerative medicine and cell-based therapies by isolating and purifying desired cell types for transplantation or tissue engineering applications. Techniques for cell separation include centrifugation, magnetic-activated cell sorting (MACS), fluorescence-activated cell sorting (FACS), and microfluidic-based methods. The cell separation market encompasses a range of products and services, including reagents, instruments, and consumables, catering to diverse applications across research, diagnostics, and therapy development. This market continues to evolve with advancements in technology and increasing demand for personalized medicine and cell-based therapies.

Key Insights

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Regional Instances

Reports Highlights

By Product

In the cell separation market, the consumables segment emerges as the dominant force, commanding a significant share due to its essential role in the day-to-day operations of cell separation procedures. Consumables encompass a wide array of products such as reagents, antibodies, beads, and disposable kits, crucial for sample preparation, labeling, and isolation of target cells. With ongoing advancements in cell separation technologies and increasing demand for research and clinical applications, the consumables segment continues to experience steady growth, driven by the perpetual need for high-quality, reliable products to support cell isolation and analysis across diverse biomedical fields.

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By Technique

Among the various techniques employed in cell separation, centrifugation emerges as the dominant segment in the market. This method utilizes centrifugal force to separate cells based on differences in size, density, and sedimentation rate. Widely used across diverse applications, centrifugation offers simplicity, efficiency, and scalability, making it a preferred choice for many researchers and clinicians. Its versatility allows for the isolation of various cell types, ranging from blood components to cell cultures, contributing significantly to biomedical research, diagnostics, and therapeutic development. With ongoing advancements in centrifugation technology, this segment continues to maintain its leading position in the cell separation market.

By Application

In the cell separation market, the biomolecule isolation segment emerges as a dominant force, driven by its wide-ranging applications across biomedical research, diagnostics, and therapeutic development. Biomolecule isolation techniques enable the extraction and purification of specific molecules such as DNA, RNA, proteins, and antibodies from complex biological samples, facilitating critical analyses and downstream applications. With increasing demand for precise molecular profiling, biomolecule isolation remains a cornerstone in unlocking insights into cellular mechanisms, disease pathology, and therapeutic targets, thereby propelling its dominance in the cell separation market.

By End Use

The research laboratory and institutes segment significantly dominates the cell separation market, representing a cornerstone of demand for advanced technologies and solutions. Research laboratories and institutes are at the forefront of scientific exploration, driving the need for precise cell isolation techniques to investigate cellular behavior, disease mechanisms, and therapeutic targets. With a relentless pursuit of knowledge and innovation, these entities heavily rely on cell separation methodologies to unlock new discoveries and advancements in fields such as biomedicine, molecular biology, and drug development. Thus, they remain pivotal contributors to the sustained growth and evolution of the cell separation market.

Market Dynamics

Driver

Advancements in personalized medicine

With the rise of personalized medicine, characterized by tailored treatments based on individual patient characteristics, the demand for precise cell separation technologies has surged. Cell separation plays a crucial role in isolating specific cell types for diagnostic testing, therapy development, and regenerative medicine applications. As healthcare shifts towards more targeted and effective interventions, there is an increasing need for reliable and efficient cell sorting methods to obtain pure cell populations. This drive towards personalized healthcare fuels continuous innovation in cell separation techniques, bolstering the growth and expansion of the market.

Restraint

Regulatory challenges and compliance hurdles

One significant restraint facing the cell separation market is the complex regulatory landscape governing the development, manufacturing, and commercialization of cell separation technologies. Stringent regulations and compliance requirements, particularly in the healthcare and biotechnology sectors, impose considerable challenges and costs on market players. Navigating through diverse regulatory frameworks across different regions often entails lengthy approval processes, thereby delaying product launches and market entry. Moreover, ensuring adherence to evolving regulatory standards demands continuous investment in quality control, documentation, and compliance strategies. Consequently, regulatory hurdles pose a notable barrier to the growth and expansion of the cell separation market.

Opportunity

Expansion into point-of-care applications

One promising opportunity for the cell separation market lies in expanding into point-of-care applications. With the increasing demand for decentralized healthcare solutions and the rise of personalized medicine, there is a growing need for portable and user-friendly cell separation devices that can be utilized directly at the point of care, such as clinics, doctors offices, and even remote or resource-limited settings. Developing efficient and cost-effective point-of-care cell separation technologies would not only enhance accessibility to diagnostic and therapeutic procedures but also open new avenues for market growth and innovation in addressing global health challenges.

Recent advancements

Cell Separation Market Top Companies

Segments Covered in the Report

By Product

By Cell Type

By Technique

By Application

By End-Use

By Geography

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Precision medicine tool predicts breast cancer immunotherapy response – HealthITAnalytics.com

Posted: May 9, 2024 at 5:32 am

May 06, 2024 -Researchers from the University of Texas (UT) Southwestern Medical Center have developed a computational tool to predict breast cancer immunotherapy response by analyzing how cancer and immune cells interact.

The research team indicated that forecasting patients therapy response has significant potential to inform and improve treatment, as current immunotherapies are limited.

Immunotherapies have made incredible strides in extending survival for cancer patients, but they only work about 20% of the time. To make immunotherapies more beneficial, we need to have a much better understanding of the cellular composition of specific tumors and how those cells interact with each other, said Isaac Chan, MD, PhD, assistant professor of Internal Medicine and Molecular Biology and in the Harold C. Simmons Comprehensive Cancer Center at UT Southwestern, in the press release.

The researchers noted that existing immunotherapies rely on the knowledge that many types of cells including cancer and immune cells are present in tumors. These immune cells can either attack tumors or promote them.

Current immunotherapies often stimulate T cells, a type of immune cell, to fight cancer. However, other immune cells, such as natural killer (NK) cells, can also help attack cancer cells.

But the research team emphasized that in some cases, interactions between NK cells and cancer cells can reprogram the NK cells to promote tumor growth, rather than hinder it. In previous research, Chan and colleagues identified reprogrammed NK cells in breast cancer samples and found that patients with high levels of these cells faced worse outcomes than those with lower levels.

To investigate the potential for therapeutic targeting of reprogrammed NK cells, the research team used single cell RNA sequencing (scRNA-seq) to assess individual gene expression and cancer-immune cell interactions.

Combining eight existing scRNA-seq databases, the researchers developed a single-cell breast tumor atlas consisting of 119 tumor samples from 88 breast cancer patients. The atlas allowed the research team to analyze information from over 236,000 cells.

The analysis revealed 10 categories of cancer cells based on epithelial cell heterogeneity and gene expression.

Currently, three categories of cells triple negative, hormone positive and HER2 positive are used to guide therapy planning.

The researchers also determined that the distributions of the 10 cell categories varied among tumors, with most samples containing a mix of cell subtypes. The study further showed that patients with certain combinations of cell subtypes had worse outcomes than their peers.

Using these insights, the research team developed and tested InteractPrint, a precision medicine tool designed to predict breast cancer immunotherapy response. The tool demonstrated high performance when deployed to predict response to immune checkpoint inhibition (ICI) in breast cancer during two clinical trials testing neoadjuvant anti-PD-1 therapy.

The research team highlighted that InteractPrint could prove useful for helping clinicians evaluate the likelihood of immunotherapy response in patients across cancer types, enabling them to choose the treatment with the highest odds of success.

Others are also developing predictive analytics techniques to advance precision medicine.

In April, researchers from Arizona State University detailed the development of a machine learning model to predict how a patients immune system would respond to foreign cells.

The tool, a convolutional neural network called human leukocyte antigen (HLA)-Inception, utilizes individualized data on molecular interactions to assess how Major Histocompatibility Complex-1 (MHC-1) proteins affect immune response.

These proteins are critical to the immune systems ability to recognize and respond to foreign cells.

HLA-Inception sheds light on how MHC-1s interact with foreign peptides, allowing researchers to forecast immune response and potentially personalize treatment.

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The Ottawa Hospital is expanding life-saving biotherapeutics research and manufacturing to its new campus thanks to … – EurekAlert

Posted: May 9, 2024 at 5:32 am

image:

The Ottawa Hospital's Biotherapeutics Manufacturing Centre has manufacturedstem celltherapies, cancer-fighting viruses, cellular immunotherapies and vaccines for clinical trials around the world.

Credit: The Ottawa Hospital

The Ottawa Hospital is receiving $59 million to boost Canadas capacity to develop and manufacture life-saving biotherapeutics, including vaccines, gene therapies and cell therapies. Most of the funding ($47 million) will support the construction and operation of a world-class biomanufacturing facility at The Ottawa Hospitals new campus, while the remainder will enable harmonization and cooperation across six Canadian biomanufacturing facilities.

The funding is part of a $115 million investment from the Government of Canada in the Canadian Pandemic Preparedness Hub (CP2H), co-led by the University of Ottawa and McMaster University, in partnership with The Ottawa Hospital. The investment was made through the federal governments integrated Canada Biomedical Research Fund and Biosciences Research Infrastructure Fund.

This funding will ensure that The Ottawa Hospital continues to be a leader in developing and manufacturing life-saving biotherapeutics, said Dr. Duncan Stewart, Executive Vice-President of Research at The Ottawa Hospital, Professor of Medicine at the University of Ottawa and Principal Investigator for the CP2H infrastructure grant. Biotherapeutics represent the future of medicine, and will be critical in responding to future pandemics and other health threats.

New funding will fuel much-needed expansion of biomanufacturing facility

Over the last 15 years, researchers at The Ottawa Hospital have led more than 20 world-first clinical trials using a variety of biotherapeutics such as stem cells, cancer-fighting viruses and cellular immunotherapy. These trials are possible because of The Ottawa Hospitals Biotherapeutics Manufacturing Centre (BMC), a specialized clean-room facility that can develop and manufacture novel therapeutic products incorporating cells, genes, viruses and other biological materials.

The BMC is the most experienced and successful facility of its kind in Canada, with more than 40 full-time staff based at The Ottawa Hospitals General Campus. It consistently operates at full capacity and is booked far in advance with both academic and industry clients.

This investment will enable a much-needed expansion of our Biotherapeutics Manufacturing Centre, as well as the creation of a biomanufacturing collective with partners across the country, said Dr. John Bell, Senior Scientist at The Ottawa Hospital, Professor of Medicine at the University of Ottawa and Co-Scientific Director of CP2H.

The expanded Biotherapeutics Manufacturing Centre will be part of a larger ambulatory care and research building at The Ottawa Hospitals state-of-the-art new campus, that will be home to one of the largest and most technologically advanced hospitals in Canada.

As a global leader in health care research, TOH is driven to always be on the cutting edge of medical discovery and innovating the patient experience, said Cameron Love, President and CEO of The Ottawa Hospital. Expanding our already successful Biotherapeutics Manufacturing Centre to our new campus will help attract and retain top researchers and clinicians from around the globe and strengthen health research and innovation in the capital.

Biotherapeutics trial saved my life

Many patients have benefited from biotherapeutics research at The Ottawa Hospital, including Camille Leahy, who participated in the first clinical trial of made-in-Canada CAR-T therapy for cancer. This novel gene engineered cell therapy was a success and today she is cancer free.

This trial saved my life, said Camille. Im so grateful to everyone who made it possible, and I hope that many more people will be able to benefit from this kind of research and treatment in the future.

BMC has also been supported by the Canada Foundation for Innovation, the Ontario Research Fund, BioCanRx and generous donors to The Ottawa Hospital Foundation.

The Ottawa Hospital (TOH) is one of Canadas top learning and research hospitals where we are guided by our vision to provide the world-class and compassionate care we would all want for our loved ones. Our multi-campus hospital, affiliated with the University of Ottawa, is home to the Regional Trauma Centre and Cancer Centre, and to discoveries that are adopted globally. Backed by generous support from the community, we are focused on reshaping the future of health care to improve the health of our diverse population of patients from Eastern Ontario, Western Quebec, and Nunavut. For more information about The Ottawa Hospital, visit OttawaHospital.on.ca.

Media contact Jenn Ganton Director, Communications and Public Relations, Ottawa Hospital Research Institute jganton@ohri.ca 613-614-5253

Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy of news releases posted to EurekAlert! by contributing institutions or for the use of any information through the EurekAlert system.

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