Biohackers believe that we should be using all the technology available to make our bodies and minds work the best they can in everyday life. And they held a summit about it in Helsinki over the weekend

Most people who've heard of Biohacking think of electronic chips inserted under the skin - Cyborg stuff. But here they're promoting a wearable ring to measure the body.

People like Ramsey who's testing out a machine which steadily takes the body to air conditions you'd expect at high altitude...believe in using all the information and modern technology available to optimse human performance.

"I feel amazing - mentally and cognitively - like a stoic. I wake up every morning feeling like the Hulk," says Ramsey Morgan - Biohacker from Seattle, USA.

The movement is trying to make itself more mainstream and accessible.

"That can be like nutrition and diet, that can be taking a sauna, that can be just meditating, that can be injecting yourself with stem cells or something like that. All of these things are exapmles of Biohacking. You're changing your physiological state in order to achieve a certain goal," explains Siim Land - Estonian Biohacker.

And while most of us probably don't get enough sleep, the Biohackers say there's vibration technology to help.

"It affects to the nervous system by calming down the sypathetic side, the fight and fleet [flight] side. So basically, when you calm that down, the sleep comes naturally. You don't have to take any pills or anything," says Katja Nyman - Neurosonic.

One of the products here at the Biohackers summit is the Vielight Neuron, and our reporter, Jack Parrock tested it out.

"This a photobiomodulation device , so this applicator goes inside your nostril like that. And then the headpiece goes on top of your head," Gennady Lemud, VieLight Communications and Marketing Director tells our reporter.

The light rays being pumped onto my head and up my nose are intended to increase oxygenation in the blood and boost performance and happiness. But at well over 15 hundred euros, these devices aren't cheap.

Some Biohackers use blood tests to regularly check their liver function. One of the most controversial aspects of Biohacking is DNA testing. The medical community is still cautious and there are concerns about the data that's harvested by companies. They say there's nothing to worry about.

"We're looking at a few snips, a few genes...100...nothing. So we can't use that information for anything more than delivering information back to you as the consumer or the customer," says Chris Moore - Nordic Laboratories

It's not all so technical - getting in a sauna and a 4 degree celsius bath is enough for some Biohackers. But with the ever evolving technological world we live in - these guys think they're the future.

See the article here:
Meet the biohackers seeking to turbocharge their bodies and minds - Euronews

Skin Stem Cells Comments Off on Meet the biohackers seeking to turbocharge their bodies and minds – Euronews | November 4th, 2019

Diabetes is one of the leading health problems in our modern world and requires the careful management of a patients insulin levels. New research from Tufts University may make that process a little easier. In mouse tests, the team implanted beta cells that produce more insulin on demand, when theyre activated by blue light.

At the heart of both types of diabetes is insulin, the hormone that regulates blood sugar levels, allowing cells in the body to properly use it as energy. In type I diabetes, beta cells in the pancreas dont produce enough insulin, sometimes because the immune system destroys those vital beta cells. In type II diabetes, a patients cells stop responding to insulin, or the pancreas cant keep up with demand, meaning blood glucose levels spike to dangerous highs.

Managing the condition requires constant monitoring of blood sugar levels and boosting insulin levels as needed, either by directly injecting the hormone or through drugs that amplify the beta cells production of it.

For the new study, the Tufts researchers engineered pancreatic beta cells that can produce insulin on demand in this case, that demand is pulses of blue light. The beta cells were engineered with a gene that creates an enzyme called photoactivatable adenylate cyclase (PAC) essentially, when these enzymes are activated by blue light, they produce a molecule called cyclic adenosine monophosphate (cAMP).

In turn, this molecule instructs the beta cell to produce more insulin, but interestingly, it will only do so when theres already a high level of glucose. That helps to prevent a common complication of diabetes treatments, where producing too much insulin can cause the body to consume the available glucose too quickly, resulting in low blood sugar.

To test the new technique, the Tufts team implanted their engineered pancreatic beta cells under the skin of diabetic mice. The researchers found that the cells produced between two and three times more insulin when triggered by blue light and high glucose levels. Importantly, when they fired up the blue light while glucose was low, there was no bump in insulin, indicating that the failsafe worked.

In this way, we can help in a diabetic context to better control and maintain appropriate levels of glucose without pharmacological intervention, says Emmanuel Tzanakakis, corresponding author of the study. The cells do the work of insulin production naturally and the regulatory circuits within them work the same; we just boost the amount of cAMP transiently in beta cells to get them to make more insulin only when its needed.

Similar studies have shown promise in managing diabetes with implanted beta cells either synthetic versions or natural ones produced from a patients own stem cells. Theres still plenty of work to do before this type of treatment makes it to human trials, but the researchers say that using light is a step in the right direction.

There are several advantages to using light to control treatment, says Fan Zhang, first author of the study. Obviously, the response is immediate; and despite the increased secretion of insulin, the amount of oxygen consumed by the cells does not change significantly as our study shows. Oxygen starvation is a common problem in studies involving transplanted pancreatic cells.

Ultimately, tiny sources of light could be embedded alongside the cells, allowing doctors to trigger them remotely when needed. Or they could be automatically activated by a glucose sensor, to fully close the loop.

The research was published in the journal ACS Synthetic Biology.

Source: Tufts University

Continue reading here:
Light-activated pancreatic cells produce insulin on demand - New Atlas

Skin Stem Cells Comments Off on Light-activated pancreatic cells produce insulin on demand – New Atlas | November 4th, 2019

Leslie Mansfield, a California resident who enjoys running a Napa Valley winery and writing cookbooks filed a lawsuit against the Outrigger Canoe Club in Waikiki after her foot was allegedly attacked by a cat. Eventually, the bite marks caused a rare, incurable condition known as host versus graft disease, prompting Mansfield to file the suit.

The incident occurred in September 2015 when Leslie and her husband were visiting the Outrigger Canoe Club to celebrate the end of her leukemia treatments. In the middle of having lunch at the clubs Hau Terrace restaurant, a cat suddenly jumped from a nearby bush and attacked her foot. Mansfield said, all of a sudden I felt this unbelievable sharp, excruciating biteWithin a week it was worse and the bite marks were black and it was really frightening.

According to the lawsuit, the infection from the bite continued to worsen and eventually she began to develop lesions in her mouth, on her skin, and throughout her body. She said, the lesions in my mouth are so swollen around my tongue and cheeks I have deep crevasse-like cuts in the roof of my mouth.

How did a simple cat bite get so infected, though? Well, because Mansfield had recently undergone a stem cell transplant, the bite compromised her immune system. According to Mansfield, who had stem cells donated from her brother, doctors told her that when she got bit by the cat, those cells not only began attacking the pathogens introduced by the cat but they also started to attack her system.

As a result, Mansfield experiences regular painful flares that leave her exhausted and unable to do much of anything. Her quality of life has been diminished and she blames the Outrigger Canoe club that harbored the cat.

When commenting on the matter, attorney Jim Bickerton who is representing Mansfield said, the cat spent its entire existence on those premises. It wasnt a stray that lived somewhere else and came visiting. This was home for this cat. He added that under Hawaii law, the club is not only responsible for the cat bite but its also responsible for the subsequent damage to his clients immune system. He said, if someone has very brittle bones, for example, and they take a small fallYou or I might just fracture a bone or not even have a fracture but they have fractures in 20 places. The person who caused that fall owns all of the damage.

In response to the lawsuit, a spokesperson for the club said, The health, safety, and well-being of all of our members, guests and staff are of primary importance to the Outrigger.

The suit is expected to go to trial next August.

Lawsuit: Cat bite at Outrigger Canoe Club caused womans rare disease

GRAFT-VERSUS-HOST DISEASE

View original post here:
Woman Who Was Attacked By Cat Sues the Outrigger Canoe Club in Waikiki - Legal Reader

Skin Stem Cells Comments Off on Woman Who Was Attacked By Cat Sues the Outrigger Canoe Club in Waikiki – Legal Reader | November 4th, 2019

Stem cells from the patients body when isolated and administered at an appropriate time and at the right place, with the right dose, is expected to help the patient in various ways

Stem Cells In The Body

All humans are born and develop from a small tiny structure called an egg. The cells in the egg have a tremendous potential to develop, multiply and form different cells that are functional in the body. These cells are called mother cells or in scientific terms, they are called stem cells. And all human beings have these stem cells preserved in the body. It is these cells that help us in every day wear and tear and also for tissue repair.

The Body Can Heal Itself

Most of the cells in our body have a definite lifespan that need to be replaced by new cells. The stem cell reserves in the body make up for this and it is done without our knowledge! In fact, any cut or injury, external or internal is healed by the bodys innate mechanism. Our intelligent body recognises the signal of injury and recruits the required stem cells. These stem cells transform themselves into the cells that are required for the repair of the injury and it is always many types of cells in various permutations and combinations.

Where Stem Cells Reside

Bone marrow can be considered as the manufacturing unit of stem cells as it is continuously making blood cells and keeps our circulatory system working perfect all the time. Circulating blood is another source of stem cells, because it works as a courier, carrying cells and other essential enzymes, hormones from one organ to the other in the body. The body converts all the extra material into fat which gets accumulated around the belly. This fatty tissue works like a fixed deposit of stem cells.

Stem cells either from the donor (allogenic) or from the patient (autologous) are being used for more than 50 years and especially for treatment. Blood cancers and other blood-related diseases can be cured using a perfect matched donor stem cells obtained from bone marrow. Patients suffering from organ cancers like breast cancer etc. are given autologous stem cells as a supportive treatment along with chemotherapy and/or radiation.

Protocols for these treatments are standardised globally and considered as standard-of-care. In recent years, umbilical cord blood derived stem cells are being used as an alternative to bone marrow, especially in the paediatric age group. People fall victim to numerous degenerative diseases which occur, as the repairing stem cell system from the body fails slowly with age. Stem cells from the patients body when isolated and administered at an appropriate time and at the right place, with the right dose, is expected to help the patient in various ways. It may also replace, rejuvenate or restore the damaged tissues.

Our body carnes its own repairing kit in the form of stem cells and the body tries its level best to make use of these stem cells to ward off diseases. However, it is possible that with age, the bodys power to recruit and make use of the stem cells diminishes slowly. This is when dreadful degenerative diseases like diabetes, arthritis, Parkinsons disease and heart problems, set in. Heres what the clinical applications of regenerative medicine have found novel mechanisms of:

It is increasingly observed that this kind of autologous therapy takes care of the root cause of disease and offers benefits to patients to whom there is no further solution in other modalities of treatment.

Since each tissue and organ of our body is made up of cells that are derived from the egg cell, any disease which is due to derangement or degeneration of cells can be cured using autologous cellular therapy. And though the list can be endless, here are some examples where there have been very promising results:

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How Stem Cells Can Heal The Body - Version Weekly

Bone Marrow Stem Cells Comments Off on How Stem Cells Can Heal The Body – Version Weekly | November 4th, 2019

This level of disease stabilization has not been observed to this date in approved or investigational ALS therapies.

-Mr Chaim Lebovits, CEO, Brainstorm Cell Therapeutics

In May of this year, I published an article on Brainstorm Cell Therapeutics (BCLI). This small company is developing a Mesenchymal stem cell product called NurOwn, which is in late phase 3 trials targeting Amyotrophic lateral sclerosis (ALS), or Lou Gehrig's disease. My article was bearish, deploring not only the company's cash position, but also phase 2 trial data. The article can be read here.

That article received a lot of critical comments from the ALS community. That made me realize that a fair overview of the issues could be best addressed by going through the comments, as well as my own coverage, and by asking BCLI management, specifically its CEO, Chaim Lebovits, to clarify some of these issues. So that's what I did. I emailed a set of 11 questions to Mr Lebovits, and he was kind enough to respond to them in great detail. The entire interview, sans any edits, is available to Total Pharma Tracker members.

Mr Lebovits has been with BCLI for well over 12 years, joining in 2007 as president and also becoming the CEO in 2015. He has helped develop NurOwn through its preclinical stage to its current stage, and is therefore just the right person to talk to if we want to understand NurOwn and BCLI.

I began by asking him to locate NurOwn in the ALS therapy space and where it stands with respect to competitors. What's its mechanism of action, and how does that MOA distinguish it from competition?

Mr Lebovits said that there are "currently 4 products active in phase 3 ALS clinical trials (Brainstorm (NurOwn, autologous MSC-NTF cells secreting neurotrophic factors), Orion (levosimendan, muscle troponin calcium sensitizer), Orphazyme (arimochlomol, heat shock protein enhancer), and Biogen (SOD1, antisense oligonucleotide)." Top line data from these ALS phase 3 trials is expected in 2020 (Q4 2020 for Brainstorm) and Orion, 2021 (Orphazyme), and 2022 (Biogen). He discussed a number of earlier stage compounds, as well as various stem cell therapies. He said that what distinguishes NurOwn among ALS therapies is that it "confers both neuroprotection and immunomodulation by delivering neuronal survival factors and immune regulatory molecules, including microRNA directly to the CNS compartment at or near the site of disease, and therefore directly addresses two important ALS disease mechanisms."

Among stem cell therapies, Mr Lebovits said that NurOwn distinguishes itself by being autologous and because it can produce high levels of neurotrophic factors. Moreover, unlike most stem cell competitors, it's delivered directly into the spinal fluid through bimonthly lumber punctures, unlike others which need an invasive surgical procedure "that carries considerable morbidity."

This feature it shares with a competing product from Corestem. However, it's differentiated from Corestem because "NurOwn is more convenient than the Corestem product as a single bone marrow cell harvest due to validated cryopreservation, whereas the Corestem product requires repeat bone-marrow aspiration for each treatment."

My next question was a technical question about pharmacoresistance. I wanted to know how NurOwn is managing to cross the blood-spinal cord barrier despite the strong pharmacoresistance (body's resistance to drugs) seen in ALS, specifically for disease-modifying neurotrophic factors. What was it about NurOwn's delivery mechanism that the company thinks is overcoming this natural resistance. So I asked: "Talking about MOA, pharmacoresistance is a disease driving mechanism in ALS. Can you discuss NurOwns delivery mechanism vis-a-vis the inability of neurotrophic factors to effectively cross the blood-brain barrier, or, specifically, the blood-spinal cord barrier (BSCB)? Please correlate that discussion regarding the observed increase in CSF NTFs post treatment as seen in the phase 2 trial."

Mr Lebovits explained this with great clarity - for his entire response, take a look at the complete interview. Broadly, what he said was that NurOwn, being delivered through lumber puncture directly into the spinal fluid, has an advantage. Moreover, the cells secrete neuronal survival factors as well as molecules that regulate the immune system, so that they are able to survive and overcome the pharmacoresistance. Systemically administered NTFs are unable to do that.

As he said, "In the phase 2 trial, CSF biomarkers obtained just prior to treatment and two weeks afterwards demonstrated that MSC-NTF cell secreted neurotrophic factors were significantly increased post treatment and correlated with the reduction in inflammatory biomarkers, consistent with the proposed mechanism of action."

My third and fourth questions related to aspects of the phase 2 study. One, comparison of safety and efficacy data with competitors, and two, the relevance of the reported Caspace-3 reduction of 60% in responders versus 30% in non-responders.

Mr Lebovits said that although the phase 2 study was not powered for efficacy, it exhibited a "level of disease stabilization (that) has not been observed to this date in approved or investigational ALS therapies." About the ongoing phase 3 study, he said the following:

Those who read my original article will recall I was particularly puzzled by the increased occurrence of serious adverse events in active-treatment groups than in placebo groups. 8/36 or 22.2% patients in the treatment arm had an SAE compared to only one out of 12 placebo patients, or 8.3%. Most SAEs were related to the progression of the underlying ALS, most commonly dysphagia. No SAEs were related to study treatment. So I asked Mr Lebovits how this data could be interpreted in the most positive way.

According to him, this decline was not an effect of treatment itself and simply indicated the need for repeat dosing in this patient group. His exact response was as follows:

The MSC-NTF treated group had a slightly more rapid rate of decline compared to the placebo group in the three-month run-in period and most ALS disease progression in the treated group was seen toward the end of the clinical trial, long after a single transplantation. In fact, the bulbar subscale, that includes assessment of swallowing, was the subscale most improved after MSC-NTF treatment in rapid progressors, suggesting that the late decline in motor function was not an adverse effect of treatment per se. Hence the need for repeated dosing.

Last week, the DSMB recommended continuation of the phase 3 trial without any modification. This was major good news, so we asked him about this. Mr Lebovits said that this was a second interim safety review, and there was no significant safety concerns. Therefore, the DSMB recommended no modification in protocol, and no other interim analysis is planned. Phase 3 data will be available by mid-2020 according to this interviewer's reading of the press release.

Now we moved on to another critical aspect of our analysis - funds, or rather, the lack of it. Since this is an important issue, here's the exact exchange we had.

Dr. Ashok Dutta: How does the company plan to fund its operations through the next couple years until the lead development candidate is approved and commercialized? Given the weak financial position, does Brainstorm see the possibility for ATM operations, or thinks about selling rights in regions like China, Japan or Europe to increase the financial condition?

CEO Chaim Lebovits: As you are aware we do receive proceeds from the hospital exemption pathway and also receive grant funding from CIRM and IIA. These avenues have allowed to fund and continue with our trials over the years with non-dilutive financing. From a business standpoint as our ALS phase 3 trial is now fully enrolled, the management team continues to hold high level conversation with some of the leading global pharmaceutical and biotechnology companies. We are actively engaged in strategic partnering and collaboration discussions and although we cannot disclose the details of our conversations due to NDAs we signed with them... we are exploring several opportunities with key interested parties to advance the opportunities for NurOwn development and commercialization. As you have rightly pointed out, we have a $20mm ATM facility in place with Raymond James. We may activate the ATM as required and raise up to $20mm by selling our stock at the market only if the prices are attractive to us. So far as of end of Q319, we have not activated the ATM. If the need arises and the prices are attractive to us, we may employ this tool to raise capital.

This is reassuring that the company intends to focus on non-dilutive financing. The ATM facility, coupled with the grants, should ideally see them through the approval phase. We still wonder how they will manage marketing and sales. Perhaps those commercialization NDAs they have signed will help.

Next, we discussed market potential and a question about a recent patent grant. The CEO's detailed responses can be found in the complete interview material.

The strong involvement of the ALS community impressed us previously, so we now asked the CEO about the recent roundtable convention they had with ALS advocacy groups. Since this will be important for the ALS community as a whole, here's Mr Lebovits' entire response on the question:

Finally, we asked him what we ask everyone: Give us three simple and straightforward reasons why investors would be interested. Here's what he said:

Thanks to the ALS community for inspiring us to conduct this interview, and to Mr Chaim Lebovits, CEO of Brainstorm Cell Therapeutics, for answering our questions.

Thanks for reading. At the Total Pharma Tracker, we interview management of important small biotech doing disruptive work in healthcare. Our members are given exclusive access to these interviews, which helps them with additional primary resource in doing DD on their investments. Sometimes, extracts from these interviews may be published for everyone; but TPT members always get the exclusive view.

Disclosure: I/we have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Additional disclosure: General Disclaimer - This is to confirm that Avisol Capital Partners has neither requested, nor been offered, any monetary compensation for conducting this interview, by any party other than Seeking Alpha.

Also to be noted, this was an emailed questionnaire, and certain editorial material is present in this version, which may or may not reflect BCLI or its CEO's position on the issues discussed.

Read more here:
Interview With Chaim Lebovits, CEO Of Brainstorm Cell Therapeutics - Seeking Alpha

Bone Marrow Stem Cells Comments Off on Interview With Chaim Lebovits, CEO Of Brainstorm Cell Therapeutics – Seeking Alpha | November 4th, 2019

In September end, a good news greeted the biomedical world when a team led by Takanori Takebe at Cincinnati Children's Hospital Medical Center succeeded at growing a connected set of three organs: the liver, pancreas and biliary ducts, in the lab, from human stem cells. The findings were published in journal Nature.

While human organoids already provide a sophisticated tool for research, the connected set of three organs, for the first time, allow scientists to study how human tissues work in concert. This was dubbed as a significant step forward.

In October, another news came. At the annual meeting of the Society for Neuroscience, researchers said that brain cell clusters prepared in the lab- a type of organoid- show abnormal behaviour as compared to the normal brain cells.

They said that the cells in these clumps had ambiguous identities and made more stress molecules than cells taken directly from human brains. However, these abnormalities were found to be alleviated a little bit when the implanted into a more hospitable environment - a mouses brain.

What are organoids?

With the available technology, scientists can grow a group of cells in laboratories into three-dimensional, miniature structures that mimic the cell arrangement of a fully-grown organ.

This is done using stem cells.

Stem cells are special human cells that have the ability to develop into many different cell types, from muscle cells to brain cells.

The embryonic stem cells that are derived from unused embryos (These are created from an in vitro fertilization procedure and used for scientific research) are pluripotent, meaning, they can turn into any type of cell.

On the other hand are adult stem cells. They are derived from fully developed tissues, like the brain, skin, and bone marrow. These cells often have capability of turning into only certain types of cells. For example, a stem cell derived from the liver will only generate more liver cells.

However, the adult stem cells can be manipualted in the laboratory to act like embryonic stem cells. These are called induced pluripotent stem cells. (The technique was developed in 2006). However, scientists are yet to find adult pluripotent stem cells that can develop every kind of cell and tissue.

When scientists create right environment in the laboratory for them, these stem cells follow their own genetic instructions to develop into tiny structures that resemble miniature organs composed of many cell types.

Using these, researchers have been able to produce organoids that resemble the brain, kidney, lung, intestine, stomach, and liver etc.

For example, in the three-organ research mentioned above, Dr Takebe started with stem cells from human skin cells and then guiding and prodding those stem cells to form two very early-stage "spheroids" of cells loosely termed the foregut and the midgut (In human embryos, these form late in the first month of gestation. Over time, they merge and morph into the organs that constitute the digestive tract).

The spheroids were first placed next to each other in a lab dish suspended in a gel used to support organoid growth, then placed on top of a thin membrane that covered a carefully mixed batch of growth medium.

From this point on, the cells knew what to do, and 70 days later, the mini organoids began processing bile acids as if they were digesting and filtering food.

Why are organoids important?

The technique to develop organoids was named by The Scientist as one of the biggest scientific advancements of 2013.

Organoids are an excellent tools to study biological processes like uptake of nutrients, drug transport, secretion of hormones and enzymes etc. This way, diseases related to malabsorption of nutrients, and metabolism-related diseases like obesity, diabetes, insulin resistance can be studied at the cellular-level.

Recently, scientists at the at Memorial Sloan Kettering created a tumor organoid to develop a more accurate rectal cancer model.

In the case of the human brain, organoids opens a window to understand some of the most complicated and hidden aspects of our own biology. They can be used to study neuropsychiatric or neurodevelopmental diseases like schizophrenia or autism spectrum disorder, which are uniquely human diseases that affect the whole human genome.

Organoids also provide a window into how cells interact with each other and their environment. They can be used to create cellular models of human disease, which can be studied in the laboratory to better understand the causes of disease and identify possible treatments. The effects of different drugs and be tested.

Scientists have even used gene editing techniques (CRISPR-Cas9) on the stem cells to to introduce targeted mutations in genes corresponding to two different kidney diseases. When these modified pluripotent cells grew into human kidney organoids, they exhibited the diseases.

Using such organoids relieves the scientific community from experimenting on human and animal subjects. Also, certain treatments that would be unethical to administer on the latter, can be tested on the organoids.

With organoids, researchers can produce a limitless supply of tissue from each patient. This will also be extremely useful for the study of rare diseases, where the number of patients on which to conduct research and test treatments is limited.

Organoids are also being used to develop personalised and precision medicine.

For example, it was found that repairing the CFTR protein could give relief to a patient suffering from non-cystic fibrosis, an inherited disease caused due to a gene mutation. Using the Intestinal organoids grown from a patients stem cells, the doctors could quantify the patients response to the CFTR modulating therapy.

Organoids can have significant therapeutic applications. For example, pluripotent stem cells derived from a diabetes patient could be transformed into insulin-producing beta-like cells.

Organoids also offer an incredible opportunity to study developmental biology. Using them, for example, we can learn more about how organs are formed in embryonic stages and associated disorders.

The rest is here:
Growing Human Organs In A Lab: As Scientists Develop Pathbreaking Three-Organ System, Heres All You Need To Know - Swarajya

Bone Marrow Stem Cells Comments Off on Growing Human Organs In A Lab: As Scientists Develop Pathbreaking Three-Organ System, Heres All You Need To Know – Swarajya | November 4th, 2019

SAN FRANCISCO--(BUSINESS WIRE)--

Imago BioSciences, Inc., a clinical-stage biotechnology company developing innovative treatments for malignant and life-threatening diseases of the bone marrow, today announced the appointment of James D. Watson as Chief Business Officer.

James has a long history of success in biotech financing, business development, and commercial planning. That experience will guide the strategic direction and growth of Imago, said Hugh Young Rienhoff, Jr., M.D., Chief Executive Officer of Imago BioSciences. His experience in corporate development and financings will help ensure the advancement of bomedemstat (IMG-7289) through clinical development in myelofibrosis and other indications.

Mr. Watson most recently served as Chief Business Officer at Sigilon Therapeutics where he closed a $473 million strategic partnership with Eli Lilly for a treatment for Type 1 diabetes. Prior to Sigilon, Mr. Watson was Chief Business Officer for Alvine Pharmaceuticals and led strategy, corporate development, new product planning, and finance during which he closed a transaction giving AbbVie the right to acquire Alvine for $345 million. Previously, Mr. Watson was CEO of a San Francisco-based, boutique investment bank focused on mergers, acquisitions, partnering, and raising capital for life science companies.

I am excited to join Imago BioSciences at this important stage of growth, helping the company realize its full potential. Bomedemstat has great promise for the day-to-day management of myelofibrosis and it offers the additional possibility of altering the course of this disease. Furthermore, its broader myeloproliferative neoplasm platform and expertise in life-threatening diseases of the bone marrow represent an opportunity to address areas of high unmet clinical need and to build a valuable company. said Mr. Watson.

About Bomedemstat (IMG-7289)

Bomedemstat is a small molecule discovered by Imago BioSciences that inhibits lysine-specific demethylase 1 (LSD1 or KDM1A), an enzyme essential for production and normal function of megakaryocytes and for self-renewal of malignant hematopoietic stem or progenitor cells. Megakaryocytes are the primary producer of growth factors and cytokines that drive myelofibrosis pathogenesis.

In non-clinical studies, bomedemstat demonstrated robust in vivo efficacy as a single agent and in combination with other therapeutics across a range of myeloid malignancy models including the myeloproliferative neoplasms encompassing myelofibrosis, essential thrombocythemia and polycythemia vera. The U.S. Food and Drug Administration (FDA) has granted Fast Track designation to bomedemstat for the treatment of myelofibrosis which is currently being studied in an international Phase 2b study. Additional clinical studies in hematologic disorders will begin in 2020.

About Imago BioSciences

Imago BioSciences is a clinical-stage, private therapeutics company focused on malignant and life-threatening diseases of the bone marrow. The initial clinical focus is on myeloproliferative neoplasm (MPN) disorders including myelofibrosis, essential thrombocythemia and polycythemia vera. Investors in Imago include a fund managed by Blackstone Life Sciences, Frazier Healthcare Partners, Omega Funds, Amgen Ventures, MRL Ventures Fund, HighLight Capital, Pharmaron, Greenspring Associates and Xeraya Capital.

View source version on businesswire.com: https://www.businesswire.com/news/home/20191104005265/en/

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Imago BioSciences Further Expands Executive Team with Appointment of James D. Watson as Chief Business Officer - Yahoo Finance

Bone Marrow Stem Cells Comments Off on Imago BioSciences Further Expands Executive Team with Appointment of James D. Watson as Chief Business Officer – Yahoo Finance | November 4th, 2019

Crystal Market Research has recently updated its massive report catalog by adding a fresh study titled Global Autologous Stem Cell Based Therapies Market Report 2019. The Autologous Stem Cell Based Therapies market report presents an analytical study that is defined based on the various parameters and trends followed by the global Autologous Stem Cell Based Therapies market. The report contains the assessment of futuristic growth based on past growth models and currently accompanied by the market. Extensive information on factors entered and market growth forecasts are also included in the market.

Global Autologous Stem Cell Based Therapies Market report provides an in-depth study of industry size, share, trend, opportunities within the latest research report added by CMR. The report consists of market sizes and forecast for the period from 2019 to 2025, and compounded annual growth rate (CAGR%) measured for individual segments and regional markets, competitive landscape of main market players, vital analysis of market dynamics and profiling of key providers collaborating in the Autologous Stem Cell Based Therapies market.

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Latest Released Report on Autologous Stem Cell Based Therapies Market to Witness the Highest Growth Globally in Coming Years: Osiris...

Cardiac Stem Cells Comments Off on Latest Released Report on Autologous Stem Cell Based Therapies Market to Witness the Highest Growth Globally in Coming Years: Osiris… | November 3rd, 2019

IRVINE, Calif., Nov. 1, 2019 /PRNewswire/ --AIVITA Biomedical, Inc., a biotech company specializing in innovative stem cell applications, today announced that it will be presenting at the following regenerative medicine and investor conferences in November:

Society for the Immunotherapy of Cancer (SITC) Annual MeetingOral PresentationPresenter: Dr. Daniela Bota, MD, PhD, University of California, Irvine; AIVITA GBM Principal InvestigatorTitle: Phase II trial of therapeutic vaccine consisting of autologous dendritic cells loaded with autologous tumor cell antigens from self-renewing cancer cells in patients with newly diagnosed glioblastomaTime: November 6-10, 2019Location: Gaylord National Hotel & Convention Center, National Harbor, MD

The Regenerative Medicine Consortium of the Gulf Coast Consortia for Biomedical SciencesOral Presentation Presenter: Dr. Hans S. Keirstead, AIVITA Chairman and CEOTitle: Clinical and Commercial Application of Scaled Human Stem Cell DerivatesTime: November 8, 4:00 PM CTLocation: Bioscience Research Collaborative, Houston, TX

NYC Oncology Investor ConferenceOral Presentation Presenter: Dr. Hans S. Keirstead, AIVITA Chairman and CEO Title: AIVITA Corporate PresentationTime: November 12, 4:50 PM - 5:10 PMLocation: Rockefeller Center, New York, NY

Society for NeuroOncology Annual MeetingPoster PresentationTitle: Phase II trial of AV-GBM-1 (autologous dendritic cells loaded with autologous tumor associated antigens) as adjunctive therapy following primary surgery plus concurrent chemoradiation in patients with newly diagnosed glioblastoma.Time: November 20-24, 2019Location: JW Marriott Desert Ridge, Phoenix, AZ

About AIVITA Biomedical

AIVITA Biomedical is a privately held company engaged in the advancement of commercial and clinical-stage programs utilizing curative and regenerative medicines. Founded in 2016 by pioneers in the stem cell industry, AIVITA Biomedical utilizes its expertise in stem cell growth and directed, high-purity differentiation to enable safe, efficient and economical manufacturing systems which support its therapeutic pipeline and commercial line of skin care products. All proceeds from the sale of AIVITA's skin care products support the treatment of women with ovarian cancer.

View original content to download multimedia:http://www.prnewswire.com/news-releases/aivita-biomedical-to-present-at-upcoming-regenerative-medicine-oncology-and-investor-conferences-in-november-300950053.html

SOURCE AIVITA Biomedical, Inc.

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AIVITA Biomedical to Present at Upcoming Regenerative Medicine, Oncology and Investor Conferences in November - P&T Community

Skin Stem Cells Comments Off on AIVITA Biomedical to Present at Upcoming Regenerative Medicine, Oncology and Investor Conferences in November – P&T Community | November 3rd, 2019

By Robin Mather, Chicago Tribune

Apples may get all of autumns accolades, but its time for pears to muscle in on the action.

Understanding which pear varieties are best for which uses will help you choose wisely from the fruit youll see at farmers markets, farm stands and grocery stores.

You can eat any pear raw, from juicy Bartletts to crisp Asian pears. But in cooking, you may want the pear to retain its shape, or you may want it to melt into a concentrated sauce. I remember pear varieties that hold their shape for poached pears, and for the pear tart we offer here with a simple mnemonic of ABC: Anjou, Bosc and Comice.

Some varieties are more grainy or gritty than others but peeling any pear will help reduce that graininess. As pears ripen on the tree, they develop stone cells, and most of these lie just under the skin. Most pears are harvested before theyre fully ripe for this reason. While the skin is full of nutrients, sometimes you just want that grittiness to go away.

Like apples, cut pears will brown when exposed to air. For salads and other raw uses where appearance is important, place the pears in water acidulated with lemon juice for a quick bath to prevent browning.

These are the varieties youre likely to see this season, with a bit of information about them and their best uses.

Anjou: Firm and mild flavored, Anjous are good for cooking where you want the pear to pick up the flavors of its cooking companions. Red and green Anjous have the same flavor.

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Asian: As crisp as a ripe apple, Asian pears are very mild in flavor. Theyre the outlier in the pear family, more apple than pear.

Bartlett: The juiciest of all the pears, a ripe Bartlett will leave your chin dripping when you eat it out of hand. Choose red or green Bartletts when you want the fruit to cook into a sauce, as we do in the vanilla-cardamom pear butter recipe here.

Bosc: Crisp and mildly sweet, Boscs are the classic choice for poached pears. Theyre easy to recognize because of their cinnamon-colored russeted skin. They tend to be a nice size as well.

Comice: Brightly flavored with the quintessential pear taste, Comice pears are less grainy than many other varieties.

Concorde: A favorite in Europe, the Concorde has a long neck that makes it immediately identifiable. Its distinctively vanilla flavor makes it a favorite for roasting and grilling, but its also great out of hand.

Forelle: A pretty speckled pear thats popular in Europe, this small pear is best for snacking. Its name comes from the German word for trout, because its colors echo the flashing brilliance of the fish. Grown in small quantities in the Pacific Northwest, Forelle tells you its ripe when the skin under its red speckles turns from green to yellow.

French butter: Small with concentrated flavors, make sure French butter pears are fully ripe before use. Underripe fruit has a sharp, tannic flavor. Good for snacking, or in salads.

Seckel: Just as with French butter pears, make sure the little Seckel pears are fully ripe before eating to avoid a tannic hit. Best out of hand, or in salads.

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Robin Mather is a longtime food journalist and the author of The Feast Nearby, a collection of essays and recipes from a year of eating locally on a budget. Follow her as she writes her third book at thefeastofthedove.com.

PEAR-ALMOND TART

This simple tart will look and taste more impressive than its simple ingredients might suggest. Remember that you want pears that will hold their shape for this tart. If you cant find creme fraiche, substitute lightly sweetened sour cream as a garnish at serving time.

Prep: 30 minutes

Cook: 40 minutes

Makes: about 12 servings

Crust:

2 1/4 cups ground almond meal

4 1/2 tablespoons sugar

8 tablespoons melted salted butter

Filling:

2 cups sugar, divided use (plus more for browning)

3 Anjou, Bosc or Comice pears, peeled, sliced in half

1 1/2 cups milk

2 teaspoons vanilla

3 eggs, lightly beaten

1/4 cup flour

1/4 cup sliced toasted almonds

Creme fraiche, sweetened sour cream or whipped cream

For the crust: Heat the oven to 350 degrees. Combine almond meal, sugar and melted butter in a medium bowl. Stir to combine. Pat the crust mixture into the bottom and up the sides of a 12-inch tart pan and press into place with the bottom of a drinking glass. Bake the crust until just colored, 10 to 15 minutes. Remove and allow to cool completely before filling.

For the filling: Heat 4 cups water and 1 1/2 cups sugar to a boil in a large saucepan over medium-high heat. Reduce heat to low. Add the pears; poach until tender, 20-25 minutes. Remove pears from the syrup. Allow to cool, then cut out cores. Cut the pears into fans by slicing into 1/4-inch slices that remain attached by about 1/2 inch at the stem end. Set aside.

Combine milk and vanilla in a small saucepan and bring it to just a simmer over medium heat. (Dont let it boil over.) Combine eggs, remaining 1/2 cup sugar and the flour in a large saucepan. Temper the mixture by slowly whisking in a little of the hot milk. Then gradually whisk in the rest. Cook, whisking continuously, over medium heat. At the first sign of a boil, 3 to 6 minutes, remove pan from the heat while continuing to whisk until mixture begins to thicken. Allow the custard to cool.

Spoon cooled custard into the tart shell. Lay the fanned-out pears, stem end inward, in the custard. Scatter the sliced almonds over top. Sprinkle with 1 to 2 tablespoons sugar. Heat the broiler in the oven. Place the tart on the middle rack, 4 to 5 inches from the broil. Serve warm with creme fraiche, sweetened sour cream or whipped cream.

Nutrition information per serving: 428 calories, 22 g fat, 7 g saturated fat, 69 mg cholesterol, 54 g carbohydrates, 45 g sugar, 8 g protein, 101 mg sodium, 4 g fiber

VANILLA-CARDAMOM PEAR BUTTER

Prep: 35 minutes

Cook: 8-10 hours

Makes: about 7 half-pints

Youll definitely want to use ripe Bartlett pears for this fruit butter because they cook into a silky puree. Making this pear butter in the slow cooker means you dont have to stand over it while it cooks. Weve given directions to both can and freeze this sumptuous delight.

6 1/2 pounds Bartlett pears, peeled, cored and cut into 1/2-inch cubes

Juice of 1 large lemon

1/2 cup sugar

1/4 teaspoon coarse salt

2 teaspoons vanilla

1 teaspoon ground cardamom

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Tumble all ingredients except butter into a slow cooker. Stir to blend, then cover and cook on low until the pear butter is very thick and mounds on a spoon, 8 to 10 hours. Test its readiness by placing a spoonful on a plate; if no liquid escapes around the edges, the pear butter is ready. If it weeps, continue to cook with the lid crosswise to allow excess liquid to evaporate.

Stir in the butter until it is fully melted. Ladle the hot pear butter into sterile half-pint jars, leaving 1/4-inch headspace. To can, apply lids and rings just until finger tight; process in a boiling water bath for 10 minutes. To freeze, allow the pear butter to cool to room temperature, then freeze without lids. Once pear butter is frozen, add lids and freeze for up to six months.

Nutrition information per tablespoon: 21 calories, 0 g fat, 0 g saturated fat, 0 mg cholesterol, 5 g carbohydrates, 3 g sugar, 0 g protein, 5 mg sodium, 1 g fiber

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Pear tart and pear butter recipes a delicious way to enjoy the fruit - The Gazette

Skin Stem Cells Comments Off on Pear tart and pear butter recipes a delicious way to enjoy the fruit – The Gazette | November 3rd, 2019

The proposal was nothing fancy. Shawn Russell arrived at the pub, placed a pint on the table in front of Sarah Hodgetts and asked her to marry him.

It was out of the blue, with no ring, nothing. And I thought: Yeah, thats a really good idea, we should just get married, says Sarah. Id been in love with him for ages.

Their story began seven years earlier, in 2009, also in a pub in north London. He was sitting in his flat cap, good Yorkshireman that he was, and was reading the sports pages. I had just got off the Tube after work. From my perspective, it was love at first sight, says Sarah.

But dating wasnt easy. Shawn, a boarding school-educated boy from an Army family, who had lost his mother to leukaemia when he was two, worked as a picture editor at The Telegraph. Although Sarah was down the road in Westminster, where she worked as a civil servant (and still does), their hours were long and their schedules largely incompatible. They managed just six months initially.

It was a disaster trying to date, so we ended up with a firework display of an argument and decided there was no way we could, says Sarah over coffee near her office.

Their split didnt last, however; they had far too much in common. Besides his ridiculous sense of humour, Shawn was so into news and politics, and I worked in politics, so we couldnt not communicate. We realised we were incredibly good friends, says Sarah. Plus, she adds with a smile, he was a very attractive, 6ft 4in blue-eyed man who I was completely smitten with.

Over time, they got back together in a non-committal way, sharing weekends when their busy lives permitted. It was during this period, three-and-a-half years ago, that Shawn, then 44, proposed. The following week, he moved in with Sarah, then 41, and her son Eddy, 10, from a previous relationship, in Kings Cross, and, like all newly engaged couples, they started making plans for their future. A pair of recovering workaholics, they were going to transform their lives.

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I lost my fianc to leukaemia, but in my dreams hes just working the night shift - Telegraph.co.uk

Bone Marrow Stem Cells Comments Off on I lost my fianc to leukaemia, but in my dreams hes just working the night shift – Telegraph.co.uk | November 3rd, 2019

How isleukaemia treated?

The treatment of leukaemia varies depending on the patient and type of leukaemia they have.

Acute leukaemia (fast developing) is usually curable with standard treatments, such as chemotherapy.

Chronic leukaemia (slow developing), is often incurablebut treatable. For CLL (a form of chronic leukaemia) some patients are not given treatmentstraight away;however if they do require treatment it will often involve chemotherapy.

The main treatments for leukaemia are:

Chemotherapy: This treatment involves theuse ofdrugs.Chemotherapy drugs either kill cancerous cells or stop them from dividing; they can also kill normal blood cells as a side effect.The type of leukaemia you have will depend on the amount and strength of chemotherapy you are offered, along with other factors such as your age and fitness.

Radiation therapy:Similar to chemotherapy, radiation therapy can be used to destroy the cancerous cells but using radiation waves rather than drugs.Again, the type of leukaemia you have will determine what treatment you're offered. External beam radiation therapy (EBRT) is often used for CLL.It is a fast, painless procedure which usually lasts just a few minutes.

Targeted therapy:Drugs are used to block the growth of cancer cells by disturbing specific molecules in the cells. Targeted therapy can also kill cancer cells by stimulating the patient's immune system to recognise the cells as a threat and consequently kill them.

Biological therapy:This treatment does not target the cancer cells directly, but instead helps to stimulate the body's immune system to act against the cancer. It is also often referred to as "immunotherapy". It is often usedfor patients with CML.

Stem cell or bone marrow transplant: Transplants for stem cells or bone marrow are commonly carried out for patients withacute leukaemia,if chemotherapy does not prove effective.By undergoing a stem cell or bone marrow transplant it can help replenish the healthy bone marrow in patients, and stimulate new growth that restores the immune system. It is usually given to younger, or more healthy patients.

Leukaemia Care, which provides support to individuals and families affected by blood cancer, is one ofthree charities supported by this years Telegraph Christmas Charity Appeal. Our two other charities are Wooden Spoon, which works with Britains rugby community to raise money for sick, disabled and disadvantaged children; and The Silver Line, a 24-hour helpline and support service for lonely elderly people. To make a donation, visit telegraph.co.uk/charity or call 0151 284 1927

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Leukaemia: what is it, how to spot the warning signs and who is at risk? - The Telegraph

Spinal Cord Stem Cells Comments Off on Leukaemia: what is it, how to spot the warning signs and who is at risk? – The Telegraph | November 3rd, 2019

HOUSTON--(BUSINESS WIRE)--InGeneron, Inc., a regenerative medicine and cell therapy company, today announced the publication of promising results in developing a novel treatment for chronic ischemic heart failure using its regenerative cell therapy platform.

A newly-released research paper published in the World Journal of Stem Cells provides missing pieces of evidence for a fundamental change in the treatment of chronic ischemic heart failure, showing efficacy and safety of a novel stem cell treatment in cardiology. Patients with heart failure as a consequence of previous myocardial infarction are a large and currently underserved patient population, due to the lack of regenerative treatment options.

The publication, performed in a pig model for the study of chronic myocardial infarction, evidences for the first time that regeneration of the damaged tissue in the heart - responsible for chronic ischemic heart failure - is possible. Specifically, the study demonstrates that InGenerons fresh, uncultured, autologous adipose derived regenerative cells (UA-ADRCs) - isolated and administered at point of care - provide a significant improvement of cardiac circulatory parameters in chronic ischemic heart failure. The results show that the mean cardiac output increased by 37%, the mean left ventricular mass increased by 29% and the mean relative amount of scar volume of the left ventricular wall decreased by 21% six weeks after treatment with the cells. All results were statistically significant compared to the control group. Notably, on average only 18 gram of adipose tissue were required to recover the averaged 18 million cells injected to achieve the reported effects.

The findings represent an important step in research, laying the foundation for new frontiers on cardiac regeneration of chronic ischemic heart failure in human patients. While previous studies indicated that stem cells (including UA-ADRCs) might be of benefit in acute myocardial infarction, this benchmark had previously not been achieved by studies of autologous stem cells for chronic heart failure following myocardial infarction.

Haenel et al., the authors of the publication, attribute the success of the study to two important improvements over previous attempts. The primary success factor was the use of InGeneron's technology for isolating the stem cells at point of care. In this regard, a recent publication by Winnier et al. (PLoS One 2019;14:e0221457) demonstrated that the technology used (TransposeRT / Matrase; InGeneron, Inc., Houston, TX, USA), provides the highest published number of living, uncultured, autologous, adult pluripotent stem cells recovered per gram of adipose tissue.

The second differentiator to all previously published results for myocardial regeneration is the application method to the damaged heart. Haenel et al. administered the stem cells retrograde through the hearts venous system, precisely to the area in need of regeneration. This retrograde injection technique, combined with a temporary blockage of the coronary vein at the level of a previous arterial occlusion, allowed the stem cells to overcome the endothelial barrier and thereby created a homogenous distribution of injected cells throughout the damaged myocardial tissue.

Dr. Eckhard Alt, Executive Chair of InGeneron, Inc. and senior author of the study, commented "this therapy, which may be performed in an ambulatory setting without the known risks associated with major anticoagulation, delivers the stem cells in about 15 minutes and involves a total treatment time of approximately 3 hours. This gives hope that millions of patients suffering from chronic ischemic heart failure might benefit from rebuilding the heart with their own stem cells".

The study, entitled "Unmodified autologous stem cells at point of care for chronic myocardial infarction", by Haenel et al. was published in the World Journal of Stem Cells on October 26, 2019.

While the company is advancing its ongoing clinical programs for key orthopedic conditions, additional studies are designed to validate the clinical potential of stem cells in patients with coronary artery disease and chronic heart failure.

About InGeneron

InGeneron is a clinical stage cell therapy company enabling novel, safe and evidence-based regenerative medicine therapies. Our purpose is to set new therapeutic standards by developing treatments that unlock the healing potential of each patients own regenerative cells processed at the point of care for same-day application. We focus on helping patients who are impacted by musculoskeletal indications and are pursuing research to extend the application of our platform technology to additional treatment areas.

http://www.ingeneron.com

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InGeneron Announces Publication of Preclinical Results for its Cell Therapy in Chronic Ischemic Heart Failure - Business Wire

Cardiac Stem Cells Comments Off on InGeneron Announces Publication of Preclinical Results for its Cell Therapy in Chronic Ischemic Heart Failure – Business Wire | November 1st, 2019

Many for-profit stem cell clinics advertise therapies that are not backed by science and may actually cause harm.

For-profit stem cell clinics have popped up around California in recent years, advertising that they can treat everything from arthritis to Alzheimers, without FDA approval.

They claim that injections of stem cells (naturally occurring blank slate cells that can grow into any type of cell) can help alleviate pain or illness by replacing or regenerating diseased tissue claims that are not supported by existing research. The procedures can cost thousands of dollars out-of-pocket, and regulators have warned that patients have developed tumors, suffered infections and even lost eyesight after unapproved procedures.

No one knows how many clinics there are, but California reportedly has more than any other state. We asked Arnold Kriegstein, MD, PhD, director of the UC San Francisco Developmental & Stem Cell Biology Program, about whats real and whats not in stem cell medicine.

How do these clinics operate?

There has been an explosion of so-called clinics offering stem cell treatments for a wide range of ailments, none of which have been shown to be effective. They are largely unregulated. Many clinics claim that they can treat untreatable illnesses like Alzheimer's disease, autism, muscular dystrophy, or stroke. The list is quite extensive.

The majority are using fat tissue for their stem cells, obtained through liposuction. These are usually autologous cells, which means that they are taking the patient's own tissue and extracting cells to re-administer to the same patient, usually through an intravenous route. In addition to fat cells, some clinics administer bone marrow stem cells or umbilical cord or placental stem cells, which come from unrelated donors.

The clinics often advertise through testimonials from patients who've received their therapies. Many of the conditions that the testimonials address are the kinds that normally improve or fluctuate over time, such as joint pain, low back pain, arthritis, or multiple sclerosis.

The problem is that patients will receive a treatment, and then, within a month or two, they'll notice that the aches and pains in the joints are improving, and they will attribute the improvement to the stem cell therapy, when in fact it would've happened regardless.

What is the risk of trying an unproven stem cell treatment?

Reports of physical harm have included infections and the development of tumors. When using cells that are not the patients own, umbilical cord cells for example, immune responses can occur often triggering inflammatory conditions.

In cases where stem cells have been delivered into the eye, blindness has been reported, and when they have been delivered to the central nervous system through lumbar puncture (spinal tap), adverse outcomes including serious infections of the central nervous system and tumors have occurred.

Then there's the emotional cost associated with raising false hope, and the financial loss that comes from exorbitant fees charged for ineffective, potentially harmful therapies.

Why arent there more legitimate stem cell therapies available?

Stem cells have been in the news so much over the last decade or so that I think it has created the impression that therapies are already on the market. The reality is that it is very early days for the science. The most interesting, most promising animal studies are only now beginning to be translated into clinical trials, and the process for approval of therapies takes many years and very few are likely to succeed.

Unfortunately, the public needs to be patient, but the good news is that potential treatments are progressing along the pipeline.

What are some examples of proven stem cell therapies?

For the last 50 years or so, there have been countless patients successfully treated with hematopoietic stem cells, commonly known as bone marrow transplants. This remains the prototype for how a stem cell therapy can work. Other successful examples include corneal stem cell grafts for certain eye conditions, and skin grafts for burn victims.

There are efforts to see if stem cells could successfully treat diseases like Parkinson's and diabetes, particularly type 1 diabetes. There are clinical trials testing whether stem cell therapy might work against macular degeneration, a blinding disease that is very common as people age. There are also early stage clinical trials for nervous system disorders including stroke, spinal cord injury, and ALS (Lou Gehrigs disease).

All of these examples are still at a very early stage, where the primary goal is to make sure that the approaches are safe. To determine if they are effective will require large, well-controlled, relatively long-term clinical trials.

What will it take to advance stem cell therapy into more real treatments?

This is where basic research comes in. The field is evolving quickly, there's much to be done, and there's still a huge amount of promise in stem cell therapies down the road. But it's going to take a lot of very careful and very laborious research before we get there.

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Stem Cell Therapy: What's Real and What's Not at California's For-Profit Clinics - UCSF News Services

Skin Stem Cells Comments Off on Stem Cell Therapy: What’s Real and What’s Not at California’s For-Profit Clinics – UCSF News Services | November 1st, 2019

Saving the life of a fellow Canadian can be as easy as checking a box online or saying yes to being an organ donor when you renew your drivers license. But, thats just the beginning for those wanting to make a difference.

Deceased donations

In Alberta, individuals over the age of 18 can register their intent to become an organ or tissue donor when they die by using the Alberta Organ and Tissue Donation Registry. (Go to myhealth.alberta.ca online and search organ donation registry.) As well, agents and provincial registries are required to ask the donor question when clients are renewing a drivers licence or identification card.

For those who have Alberta Health Cards issued prior to 2018, the back of the card can be signed (with a witness) to declare their intention to donate.

The Alberta registry has been integrated into the provinces health care system through the use of donor co-ordinators. If a person has declared his or her intent to donate and is in a position to be considered for organ or tissue donation, a co-ordinator will discuss it with family members, who ultimately make the final decision.

Each deceased donor can provide up to eight organs (both lungs, both kidneys, liver, heart, pancreas, intestines), while donated tissues can benefit up to 75 individuals.

Living donations

The vast majority of living organ donors spares one of their two functioning kidneys to a person in need, though living liver donations also occur to a lesser extent.

In most cases, family members or acquaintances donate a living organ if theyre healthy enough to safely act as a donor. Once a viable donor is found, transplant programs in both Calgary and Edmonton perform the surgeries for kidneys, while live liver transplants are only performed in Edmonton.

Theres also been a rise in so-called altruistic donors, who are willing to share their organs with a stranger. Both the Kidney Foundation of Canada and Canadian Blood Services can advise prospective living donors on where to turn, while Alberta Health can connect donors to local living donor programs.

Canadian Blood Services also operates the Kidney Paired Donation Program, an inter-provincial initiative that maintains prospective donors in a registry if they arent a compatible match for their intended recipient. Since January 2009, some 500 living donors across Canada have entered the KPD program, including 90 anonymous donors who joined the program without a specific recipient in mind. Non-directed, anonymous donations are responsible for more than two-thirds of the transplants in the KPD program, and all patients with a match have received a transplant in less than a year.

The Living Donor Services Program Edmonton: Phone 780-407-8698; toll free 1-866-253-6833; email: livingdonors@ahs.ca.

Southern Alberta Transplant Program Calgary: Phone 403-944-4635.

More information on kidney health is available from the Kidney Foundation of Canada: http://www.kidney.ca; 780-451-6900 or 403-255-6108.

More information on liver health is available from the Canadian Liver Foundation: http://www.liver.ca; 403-276-3390 or 1-800-563-5483.

Details about Green Shirt Day and Logan Boulet are at greenshirtday.ca.

Stem cell donations

Stem cell transplants replace a patients unhealthy stem cells with a donors healthy ones, and can be used to treat cancers and other diseases. The three sources of stem cells are from bone marrow, peripheral (circulating) blood and umbilical cord blood.

Prior to any donation, the donor will undergo a comprehensive health assessment before undergoing the procedure. Peripheral blood stem cell donation only requires blood to be drawn from a needle in hospital following five days of under-the-skin injections to boost the number of blood cells in the bloodstream.

Bone marrow donations are performed under anesthesia, with hollow needles used to withdraw stem cells from bone marrow in the back of pelvic bones. The procedure lasts between 45 to 90 minutes and the marrow replenishes itself in four to six weeks.

Those who wish to become a stem cell donor can call Canadian Blood Services at 1-888-2-DONATE (1-888-236-6283) or by visiting the agencys website at blood.ca.

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Organ donations: What you can do to help save a life - Calgary Herald

Skin Stem Cells Comments Off on Organ donations: What you can do to help save a life – Calgary Herald | November 1st, 2019

IRVINE, Calif., Nov. 1, 2019 /PRNewswire/ --AIVITA Biomedical, Inc., a biotech company specializing in innovative stem cell applications, today announced that it will be presenting at the following regenerative medicine and investor conferences in November:

Society for the Immunotherapy of Cancer (SITC) Annual MeetingOral PresentationPresenter: Dr. Daniela Bota, MD, PhD, University of California, Irvine; AIVITA GBM Principal InvestigatorTitle: Phase II trial of therapeutic vaccine consisting of autologous dendritic cells loaded with autologous tumor cell antigens from self-renewing cancer cells in patients with newly diagnosed glioblastomaTime: November 6-10, 2019Location: Gaylord National Hotel & Convention Center, National Harbor, MD

The Regenerative Medicine Consortium of the Gulf Coast Consortia for Biomedical SciencesOral Presentation Presenter: Dr. Hans S. Keirstead, AIVITA Chairman and CEOTitle: Clinical and Commercial Application of Scaled Human Stem Cell DerivatesTime: November 8, 4:00 PM CTLocation: Bioscience Research Collaborative, Houston, TX

NYC Oncology Investor ConferenceOral Presentation Presenter: Dr. Hans S. Keirstead, AIVITA Chairman and CEO Title: AIVITA Corporate PresentationTime: November 12, 4:50 PM - 5:10 PMLocation: Rockefeller Center, New York, NY

Society for NeuroOncology Annual MeetingPoster PresentationTitle: Phase II trial of AV-GBM-1 (autologous dendritic cells loaded with autologous tumor associated antigens) as adjunctive therapy following primary surgery plus concurrent chemoradiation in patients with newly diagnosed glioblastoma.Time: November 20-24, 2019Location: JW Marriott Desert Ridge, Phoenix, AZ

About AIVITA Biomedical

AIVITA Biomedical is a privately held company engaged in the advancement of commercial and clinical-stage programs utilizing curative and regenerative medicines. Founded in 2016 by pioneers in the stem cell industry, AIVITA Biomedical utilizes its expertise in stem cell growth and directed, high-purity differentiation to enable safe, efficient and economical manufacturing systems which support its therapeutic pipeline and commercial line of skin care products. All proceeds from the sale of AIVITA's skin care products support the treatment of women with ovarian cancer.

SOURCE AIVITA Biomedical, Inc.

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AIVITA Biomedical to Present at Upcoming Regenerative Medicine, Oncology and Investor Conferences in November - PRNewswire

Skin Stem Cells Comments Off on AIVITA Biomedical to Present at Upcoming Regenerative Medicine, Oncology and Investor Conferences in November – PRNewswire | November 1st, 2019

31-Oct-2019

Ingredients

Since ancient times medicinal plants have been used for their health beneficial properties, to protect and promote the skin and for treatment of various diseases.

Plantshave an enormous capacity to produce complex chemical molecules with bioactive properties.The market for botanicals is expanding with an increasing demand for plant bioactives. It is therefore important to produce the plant raw material a sustainable way. Often traditional production does not support this.

Plant cell cultivation enables sustainable production of high-quality plant raw material. Based on this technique it is possible to target and enrich specific cell types, such as plant stem cells.

Since the cultivation takes place in a clean and controlled environment, the produced plant raw material is free from adulteration, pollution, pesticides and herbicides. Besides cell enrichment, it is further possible to increase the production of bioactives through the MET (Metabolic Enhancement Technology).

For bioactives it is also important to consider their availability in the final product, otherwise their beneficial properties will not be available to our cells. Some bioactives are not available in dry cells even when these are grinded.

This can be due to that they are tightly bound to a cell structure, such as the cell wall. However, these can be made accessible through extraction where these actives are released from their bound position.

The extract with the highest quality and health beneficial properties are high in concentration and standardised to selected actives or group of molecules. This way it is possible to ensure that the extract is always the same in terms of properties and efficacy.

In vitro Plant-tech develops and produces high quality plant raw material and extracts using the plant cell cultivation technology. We are proud of our green and sustainable production platform, producing superior products with compassion for nature.

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Plant bioactives, combining tradition with technology - Cosmetics Business

Skin Stem Cells Comments Off on Plant bioactives, combining tradition with technology – Cosmetics Business | November 1st, 2019

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Newswise Three researchers at theEli and Edythe Broad Center of Regenerative Medicine and Stem Cell Research at UCLAhave received awards totaling more than $18 million from the California Institute for Regenerative Medicine, the states stem cell agency.

The recipients are Dr. Sophie Deng, professor of ophthalmology at the UCLA Stein Eye Institute;Yvonne Chen, a UCLA associate professor of microbiology, immunology and molecular genetics; and Dr. Caroline Kuo, a UCLA assistant clinical professor of pediatrics. The awards were announced at a CIRM meeting today.

Dengs four-year, $10.3 million award will fund a clinical trial for a blinding eye condition called limbal stem cell deficiency. Limbal stem cells are specialized stem cells in eye tissue that help maintain the health of the cornea. Because of genetic defects or injuries caused by infections, burns, surgeries or other factors, some people do not have enough limbal stem cells, which results in pain, corneal scarring and blindness.

The approach she is testing involves extracting a small number of limbal stem cells from a persons eye, multiplying them in a lab, and then transplanting them back into the eye, where they could regenerate the cornea and restore vision. The research will be conducted in collaboration with theUCLAUCI Alpha Stem Cell Clinic, a partnership between UCLA and UC Irvine.

The grants awarded to Chen and Kuo are for projects that are heading toward the FDAs investigational new drug application process, which is required by the agency before a phase 1 clinical trial the stage of testing that focuses on a treatments safety.

Chens two-year, $3.2 million award will fund efforts to create a more effectiveCAR T cell therapyfor multiple myeloma, a blood cancer that affects white blood cells. The research will evaluate a specialized form of CAR T therapy that simultaneously targets two markers, BCMA and CS1, commonly found on multiple myeloma cells. CAR T therapies that target BCMA alone have been effective in clinical trials, but the presence of BCMA on multiple myeloma cells is not uniform.

Previous research has shown that the marker CS1 is present in around 90% of multiple myeloma cells. A CAR T therapy that targets both markers could potentially help more patients and reduce the likelihood of a cancer relapse.

Kuos 2 1/2-year, $4.9 million award, will support the development of a stem cell gene therapy for a deadly immunodeficiency called X-linked hyper IgM syndrome, or XHIM.

The syndrome, which is caused by a mutation in the CD40LG gene, results in invasive infections of the liver, gastrointestinal tract and lungs. Currently, the only potential cure is a bone marrow transplant from a matched donor, which carries life-threatening risks and is often less effective for XHIM patients than patients with other forms of immune deficiency. Even with current treatments, only 30% of people with the syndrome live to age 30.

Kuo will evaluate a stem cell gene therapy that corrects the genetic mutation that causes XHIM. After removing blood-forming stem cells from a person with the syndrome, the therapy would use a genetic engineering technique called CRISPR to insert a correct copy of the affected gene into the DNA of the stem cells. The corrected blood-forming stem cells would be infused back into the patient, where they could regenerate a healthy immune system.

She will collaborate with Dr. Donald Kohn, a UCLA distinguished professor of microbiology, immunology and molecular genetics who has successfully treated two other immune deficiencies bubble baby disease and X-linked chronic granulomatous disease with a similar therapy.

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Three UCLA scientists receive grants totaling more than $18 million - Newswise

Bone Marrow Stem Cells Comments Off on Three UCLA scientists receive grants totaling more than $18 million – Newswise | October 31st, 2019

Ezer Mizion, the worlds largest Jewish bone marrow registry, will host its Evening of Heroes for the Teaneck, Bergenfield, and New Milford communities on Saturday, November 9, at Congregation Keter Torah in Teaneck.

The evening begins with a musical Havdalah and mini-concert by the chasidic superstar Shulem Lemmer, the first chasidic singer to sign with Universal Records. Then Ezer Mizion will introduce IDF heroes who defend the State of Israel and have saved lives with their stem cells.

A stem cell recipient will recount the day he received a call letting him know that Ezer Mizion had identified a stem cell match for him a match that saved his life. Bret Stephens, a New York Times Pulitzer Prize-winning columnist, and Nachum Segal will give a fireside chat about innovations from Israel, including the export of more than 60 percent of Ezer Mizions stem cell transplants.

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There will be a swabbing station for people who meet the basic criteria for donations. Israeli wines and shuk foods will be served.

The program aims to bring awareness of the organizations role in saving hundreds of lives around the world every year with its growing bone marrow registry. It has more than 1 million potential stem cell donors, and more than 550,000 of these donors are from the IDF. There is no cost to attend the adults-only evening; RSVPs are requested. For more information, go to eveningofheroes.com; email Ezer Mizions national director of development, Ryan Hyman, at ryan@ezermizionusa.org or call him at (718) 853-8400, ext. 109.

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Ezer Mizion's Evening of Heroes is November 9 in Teaneck - The Jewish Standard

Bone Marrow Stem Cells Comments Off on Ezer Mizion’s Evening of Heroes is November 9 in Teaneck – The Jewish Standard | October 31st, 2019

The National Institutes of Health (NIH) and the Bill & Melinda Gates Foundation will each invest $100 million over the next four years to speed the development of affordable gene therapies for sickle cell disease (SCD) and the human immunodeficiency virus (HIV) on a global scale.

This unprecedented collaboration focuses from the get-go on access, scalability and affordability of advanced gene-based strategies for sickle cell disease and HIV to make sure everybody, everywhere has the opportunity to be cured, not just those in high-income countries, said NIH Director Francis S. Collins, MD, PhD.

Seventy-five percent of babies born with SCD live in sub-Saharan Africa. It is hoped that experimental gene therapies would advance to clinical trials in the United States and relevant African countries within the next seven to 10 years, and that safe, effective, and inexpensive gene therapies be made available globally, including in low-resource settings where the cost and complexity of these therapies make them inaccessible to many.

In recent years, gene-based treatments have been groundbreaking for rare genetic disorders and infectious diseases, Trevor Mundel, MD, PhD, president of the global health program at the Bill & Melinda Gates Foundation said in a news release.

While these treatments are exciting, people in low- and middle-income countries do not have access to these breakthroughs. By working with the NIH and scientists across Africa, we aim to ensure these approaches will improve the lives of those most in need and bring the incredible promise of gene-based treatments to the world of public health, he added.

Hemoglobin is the protein in red blood cells that binds oxygen, allowing oxygen to be transported around the body. Mutations in the HBBgene, which encodes a component of hemoglobin, result in the formation of sickle hemoglobin that causes sickle cell anemia.

Currently, gene therapies for SCD involves altering the patients own hematopoietic stem cells (bone marrow cells that divide and specialize to produce blood cells including red blood cells). Genes are introduced into the cells using a modified, harmless virus (known as a viral vector). The cells are then transplanted back into the patient where they will produce healthy red blood cells. Gene therapy has an advantage over a bone marrow transplant, as it circumvents the complications associated with a bone marrow donation.

The first goal of the collaboration between the NIH and the Gates Foundation is to develop an easy-to-administer gene-based intervention to correct the mutations in the HBBgene or deliver a functional gene that will promote the production of normal levels of hemoglobin without the need to extract cells from patients and modify them in the lab before introducing the cells back. However, this strategy, known as in vivotreatment, requires the advancement of more efficient delivery systems that can deliver the gene therapy specifically to hematopoietic stem cells.

A second goal of the collaboration will be to work together with African partners and bring potential therapies to clinical trials.

Further research is required to understand the burden of SCD in sub-Saharan Africa and to screen newborns at high risk for the disease, a task that the National Heart, Lung and Blood Institute (NHLBI) has started to tackle by building the necessary infrastructure for clinical research.

The NIH and the Gates Foundation will help boost this infrastructure to allow point-of-care screening (for example, when infants receive vaccinations), and to initiate a standard of care. This will occur outside of the official collaboration.

Our excitement around this partnership rests not only in its ability to leverage the expertise in two organizations to reduce childhood mortality rates in low-resource countries, but to bring curative therapies for sickle cell disease and HIV to communities that have been severely burdened by these diseases for generations, said Gary H. Gibbons, MD, director of the NHLBI.

A persons health should not be limited by their geographic location, whether rural America or sub-Saharan Africa; harnessing the power of science is needed to transcend borders to improve health for all, he added.

Matshidiso Rebecca Moeti, the regional director for Africa at the World Health Organization said, We are losing too much of Africas future to sickle cell disease and HIV.

Beating these diseases will take new thinking and long-term commitment. Im very pleased to see the innovative collaboration announced today, which has a chance to help tackle two of Africas greatest public health challenges, Moeti added.

Patricia holds her Ph.D. in Cell Biology from University Nova de Lisboa, and has served as an author on several research projects and fellowships, as well as major grant applications for European Agencies. She also served as a PhD student research assistant in the Laboratory of Doctor David A. Fidock, Department of Microbiology & Immunology, Columbia University, New York.

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Margarida graduated with a BS in Health Sciences from the University of Lisbon and a MSc in Biotechnology from Instituto Superior Tcnico (IST-UL). She worked as a molecular biologist research associate at a Cambridge UK-based biotech company that discovers and develops therapeutic, fully human monoclonal antibodies.

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SCD, HIV Gene Therapy Efforts Get $200M from NIH, Gates Foundation - Sickle Cell Anemia News

Bone Marrow Stem Cells Comments Off on SCD, HIV Gene Therapy Efforts Get $200M from NIH, Gates Foundation – Sickle Cell Anemia News | October 31st, 2019