CellMex - Stem Cell Medical Clinic

CellMex - Stem Cell Medical Clinic How do we do this? infusion. Stem cell treatments are the future of medicine, available today.

Stem-Cell Clinical Research - Performing Advanced Gene Sequencing Research, Transplant for Cell Regeneration & Repair of Aged and Diseased Human Tissue & Organ Cells Cellmex – Stem Cell Medical Clinic a private medical practice specializing in Stem Cell Treatments that address chronic and acute health conditions; which have no current cure {i.e. Cardio, COPD, Diabetes, MS, Renal, Skin-Disorders,

Anti-Aging & others}

Our form of Stem cell treatment is currently not legal in the USA or Canada, thus our location in Mexico & Cuba. Our clinical research have allowed us to discover new medical therapies for previously untreatable medical conditions; which applied to patients that cannot wait 15 to 20 years before becoming legally available. Our Stem Cell scientists have gained global attention and have generated the means to transplant stem cells which differentiate into healthy new cells and tissue capable of alleviating or potentially even curing a broad array of intractable conditions and the stem cell line which we use has the phenomenal ability to differentiate and multiply making exact copies of themselves indefinitely. By transplanting Pluripotent, Monopotent or Neural stem cells derived from blood cord, adipose tissue or bone marrow; into your body systemically via direct injection, bone-marrow transplant or I.V. Our clinical research at CellMex on theoretical and scientific human applications is the heart of our clinical treatments in regards to efficacy, patient care and culminated with our license granted in 2009.

Happy New Year!
31/12/2024

Happy New Year!

Feliz Año Nuevo 2025!
31/12/2024

Feliz Año Nuevo 2025!

Autoimmune Disease: Easing the Pain with Stem Cells:Story by Ivanhoe Broadcast News:DENVER, Colo. (Ivanhoe Newswire) – F...
07/01/2024

Autoimmune Disease: Easing the Pain with Stem Cells:

Story by Ivanhoe Broadcast News:

DENVER, Colo. (Ivanhoe Newswire) – Fifty million Americans are living with an autoimmune disorder, making it one of the leading causes of chronic illness in the country. In fact, there are more than 80 autoimmune disease. For most, there is no cure. Management is key. But that may soon change as a procedure in clinical trials right now may be the key to keeping their disease in remission.

Award-winning singer Celine Dion was diagnosed with stiff person’s syndrome, an autoimmune disease that causes uncontrollable spasms. Stiff person’s syndrome joins a long list of incurable, debilitating autoimmune diseases — including multiple sclerosis.

Kathy Miska has been living with MS for more than 20 years, the disease has progressed and left her in a wheelchair.

“It’s hard. It feels like you’re giving up a little bit of your independence,” Miska expresses.

As with many autoimmune diseases, they get worse over time. And over time medications and therapies sometimes stop working. Autologous stem cell transplants may be a last resort.

𝗛𝗼𝘄 𝗪𝗲 𝗣𝗿𝗼𝗱𝘂𝗰𝗲 𝗦𝘁𝗲𝗺 𝗖𝗲𝗹𝗹𝘀...𝐡t𝐭p𝐬://𝐬t𝐞m𝐜e𝐥l𝐦e𝐝i𝐜a𝐥c𝐥i𝐧i𝐜.𝐜o𝐦/𝟐0𝟐3/0𝟕/𝟎1/h𝐨w-w𝐞-𝐩r𝐨d𝐮c𝐞-𝐬t𝐞m-c𝐞l𝐥s-i𝐧-𝐨u𝐫-𝐥a𝐛s/𝐇𝐞𝐫𝐞 𝐢𝐬 𝐦...
01/07/2023

𝗛𝗼𝘄 𝗪𝗲 𝗣𝗿𝗼𝗱𝘂𝗰𝗲 𝗦𝘁𝗲𝗺 𝗖𝗲𝗹𝗹𝘀...

𝐡t𝐭p𝐬://𝐬t𝐞m𝐜e𝐥l𝐦e𝐝i𝐜a𝐥c𝐥i𝐧i𝐜.𝐜o𝐦/𝟐0𝟐3/0𝟕/𝟎1/h𝐨w-w𝐞-𝐩r𝐨d𝐮c𝐞-𝐬t𝐞m-c𝐞l𝐥s-i𝐧-𝐨u𝐫-𝐥a𝐛s/

𝐇𝐞𝐫𝐞 𝐢𝐬 𝐦𝐲 𝐬𝐭𝐞𝐩-𝐛𝐲-𝐬𝐭𝐞𝐩 𝐩𝐫𝐨𝐜𝐞𝐝𝐮𝐫𝐚𝐥 𝐥𝐢𝐬𝐭 𝐞𝐱𝐩𝐥𝐚𝐢𝐧𝐢𝐧𝐠 𝐡𝐨𝐰 𝐰𝐞 𝐩𝐫𝐨𝐝𝐮𝐜𝐞 𝐬𝐭𝐞𝐦 𝐜𝐞𝐥𝐥𝐬 𝐢𝐧 𝐭𝐡𝐞 𝐥𝐚𝐛𝐨𝐫𝐚𝐭𝐨𝐫𝐲:

1. Source: choose a suitable source of stem cells: in this case I’ll use “Adult Tissue” generated from adult cells.

2. Cell isolation: For adult tissues isolate the specific cell type you want to reprogram into stem cells.

3. Culturing medium preparation: Prepare a specialized culture medium that contains essential nutrients, growth factors, and signalling molecules to support stem cell growth and maintain their pluripotency.

4. Seeding cells: Place the isolated stem cells into a sterile tissue culture dish containing the prepared culture medium. Ensure the dish is coated with a suitable matrix or extracellular matrix proteins that promote cell attachment.

5. Incubation: Place the dish in a controlled incubator set to specific temperature, humidity, and gas composition (we usually do so at 37°C with a 5% CO2). This incubator provides a stable environment that mimics the conditions necessary for cell growth and differentiation.

6. Feeding and maintenance: Regularly feed the cells by replacing the culture medium every 1-2 days. The medium should be replenished with fresh nutrients and growth factors to sustain cell growth and prevent nutrient depletion.

7. Cell expansion: As the stem cells divide, they will begin to form colonies within the dish. Once the colonies reach a suitable size, usually within a week or two, at this time we then subculture to create more cell lines for further research and experimentation.

8. Passaging: To passage the cells, remove the old culture medium, wash the cells with a sterile buffer, and treat them with an enzyme or dissociation solution to detach them from the dish. Gently break up the cell clumps into smaller fragments, and transfer them to new culture dishes with fresh medium.

9. Differentiation (optional, in this process/procedure) If you want to induce the stem cells to differentiate into specific cell types, modify the culture medium to include differentiation-inducing factors or employ specialized culture techniques. This step allows the cells to adopt specialized functions based on the signals they receive.

10. Characterization: Perform various tests and analyses to confirm the stemness and quality of the cultured cells. This may involve checking for specific cell surface markers, gene expression profiles, and functional assays to ensure the cells retain their desired characteristics.

11. Storage and cryopreservation: If we want to preserve the cultured stem cells for future use instead of using for a direct transplantation, we freeze them in our cryoprotective solution and store in liquid nitrogen. This allows long-term storage while maintaining cell viability.

Important note: Specific protocols and variations exist, depending on the type of stem cells being cultured and the intended research goals. The steps outlined above provide a general overview of the laboratory process for growing stem cells.

20/06/2023

𝗦𝗰𝗵𝘄𝗮𝗻𝗻 𝗖𝗲𝗹𝗹𝘀 𝗮𝘀 𝗖𝗿𝘂𝗰𝗶𝗮𝗹 𝗣𝗹𝗮𝘆𝗲𝗿𝘀 𝗶𝗻 𝗗𝗶𝗮𝗯𝗲𝘁𝗶𝗰 𝗡𝗲𝘂𝗿𝗼𝗽𝗮𝘁𝗵𝘆

(𝐂𝐞𝐥𝐥 𝐭𝐫𝐚𝐧𝐬𝐩𝐥𝐚𝐧𝐭𝐚𝐭𝐢𝐨𝐧 𝐮𝐬𝐢𝐧𝐠 𝐩𝐫𝐨𝐠𝐞𝐧𝐢𝐭𝐨𝐫 𝐨𝐫 𝐬𝐭𝐞𝐦 𝐜𝐞𝐥𝐥𝐬 𝐢𝐬 𝐞𝐱𝐩𝐞𝐜𝐭𝐞𝐝 𝐭𝐨 𝐜𝐮𝐫𝐞 𝐝𝐢𝐚𝐛𝐞𝐭𝐢𝐜 𝐧𝐞𝐮𝐫𝐨𝐩𝐚𝐭𝐡𝐲)

Schwann cells maintain peripheral nerve structure and function by ensheathment of unmyelinated axons, myelination of myelinated axons, and secretion of neurotrophic factors, and these cells also play a crucial role in the pathogenic mechanisms of diabetic neuropathy. A decrease in unmyelinated and small myelinated axons appeared earlier than a decrease in large myelinated fibers in diabetic neuropathy. Electron microscopic studies of human diabetic neuropathy demonstrated edematous cell cytoplasm, aggregates of glycogen particles, and hyperplasia of the surrounding basal lamina in Schwann cells. Diabetic conditions also induces metabolic disorders, such as polyol pathway hyperactivity, activation of protein kinase C, and increased advanced glycosylation end products in Schwann cells, followed by the depletion of neurotrophic factor production. Cell transplantation using progenitor or stem cells is expected to cure diabetic neuropathy. Many studies demonstrated that the paracrine effect of abundant secreted factors from transplanted stem cells was crucial for the success of cell transplantation in diabetic neuropathy. Transplantation of progenitor or stem cells in diabetic animal models ameliorated impaired nerve conduction velocity, nerve blood flow, sensory disorders, and intraepidermal nerve fiber density, with an increase of myelin thickness. The supernatant from cultured dental pulp stem cells increased the proliferation and production of myelin-related protein in Schwann cells, suggesting that Schwann cells is the main target of cell transplantation for diabetic neuropathy.

𝐓𝐫𝐞𝐚𝐭𝐢𝐧𝐠 𝐃𝐢𝐚𝐛𝐞𝐭𝐢𝐜 𝐍𝐞𝐮𝐫𝐨𝐩𝐚𝐭𝐡𝐲 𝐖𝐢𝐭𝐡 𝐒𝐭𝐞𝐦 𝐂𝐞𝐥𝐥𝐬 Several past patients have asked that I comment on treating neuropathy with...
19/06/2023

𝐓𝐫𝐞𝐚𝐭𝐢𝐧𝐠 𝐃𝐢𝐚𝐛𝐞𝐭𝐢𝐜 𝐍𝐞𝐮𝐫𝐨𝐩𝐚𝐭𝐡𝐲 𝐖𝐢𝐭𝐡 𝐒𝐭𝐞𝐦 𝐂𝐞𝐥𝐥𝐬

Several past patients have asked that I comment on treating neuropathy with stem cells. Here are my comments:

𝐀𝐭 𝐂𝐞𝐥𝐥𝐌𝐞𝐱, we are revolutionizing the approach to treating neuropathy and diabetic neuropathy through the power of induced pluripotent stem cells (iPSCs). Neuropathy, particularly in diabetic patients, has long been a complex and challenging condition to treat. This is where our cutting-edge treatment comes into play, harnessing the incredible potential of iPSCs.

iPSCs are a type of stem cell derived from adult cells that are reprogrammed back to a state where they can differentiate into any type of cell in the body. In the context of neuropathy, these cells could be used to generate new, healthy nerve cells, aiming to replace those damaged by the condition, potentially restoring lost nerve function and alleviating symptoms.

The use of iPSCs opens up the exciting prospect of personalized medicine. As these stem cells can be derived from a patient's own cells, treatments developed from them may reduce the risk of immune rejection, paving the way for more targeted treatments.

While this science is still emerging and undergoing extensive research, at CellMex, we're thrilled to be at the forefront of this groundbreaking field. Our ultimate goal is to transform the lives of those living with neuropathy and diabetic neuropathy, bringing hope through innovative stem cell therapy.

We understand the seriousness of living with neuropathy and are committed to offering new, effective treatments to those who need them most. To learn more about our work or to schedule a consultation, reach out to us today.

In conclusion, stem cell therapies and stem cell treatments, offer a promising avenue for addressing various diseases and conditions, such as aging, neurological diseases, organ or tissue failure, spinal cord injuries, and blood disorders. These innovative cell-based therapies capitalize on the rege...

DNA Sequencing Leads To Longer, Better Lives for Cancer Patients...Unlike many Oncologists, the tears by Dr. Thomas Robe...
12/06/2023

DNA Sequencing Leads To Longer, Better Lives for Cancer Patients...

Unlike many Oncologists, the tears by Dr. Thomas Roberts often saw in his office were those of Joy.

His patients had been told they had less than six months to live. But Roberts, then a fellow specializing in lung cancer care at the Dana-Farber Cancer Institute, was able to give many an extra lease on life. Because they had certain genetic mutations in their tumors, he could promise them at least another year and often three, five or more.

That, he says, is the power of genetic sequencing.

Over the last decade, matching tumor and patient genetic mutations with treatments has taken off. Guidelines now call for everyone diagnosed with advanced lung and colon cancer to get their tumor genetically sequenced, and increasingly, patients with earlier stage disease, as well.

Everyone should get their own genomes sequenced, guidelines say, if they have pancreatic or ovarian cancer, prostate cancer that’s spread, are under 50 with colon cancer or have a cancer in childhood. The sequencing looks for genetic mutations that can direct treatment and put them ‒ and some family members ‒ on alert for future tumors.

“You’re talking about people living longer and living better if they get access to the testing and the treatment,” said Roberts, now a head and neck cancer specialist at the Mass General Cancer Center.

Although not every cancer patient will benefit from sequencing, it’s a good idea for each patient to ask about it, Roberts said, so their doctor can consider whether it might benefit them.

But despite the guidelines and the common use of these approaches at major medical centers, many American cancer patients aren’t getting screened and are missing out, he and others said.

Less than half of patients who qualify end up getting their tumors sequenced, according to a 2021 study.

A study published Monday and presented this weekend at the American Society of Clinical Oncology annual meeting in Chicago shows that just 7% of patients who meet criteria to have their own genes sequenced actually do.

Sequencing would help determine if they should receive a drug shown to prolong disease-free survival in those with certain genetic mutations. “If you never get tested and you never got that drug, you missed that opportunity,” said Dr. Allison Kurian, a professor at Stanford University and an oncologist at the Stanford Cancer Institute, who helped lead the research.

President Biden has launched a “cancer moonshot” aiming to develop new tools to dramatically reduce cancer deaths.

“It’s one thing to invent a very cool new (treatment),” Kurian said. “But if you can’t get it out there, it really doesn’t matter.”

Why sequence a tumor
In some cases, therapies are available based on genetic mutations in the tumor itself.

Cancer starts with normal cells that transform through random mutations into rapidly reproducing cancerous cells.

Chemotherapy is directed at these quickly dividing cells, but isn’t specific to the tumor, so it also kills normal cells in places like the gut and skin, causing side effects.

Drugs that target cells with certain mutations can effectively kill cancer cells while mostly leaving healthy cells alone, Roberts said.

About 200,000 Americans will be diagnosed with non-small cell lung cancer this year and about one-third of them will have mutations on their EGFR gene.

In a study presented Sunday at the cancer conference, the AstraZeneca drug Tagrisso, which targets EGFR, cut 5-year cancer deaths in half when given after surgery.

And the more tumors are sequenced, the more researchers realize some cancers originating in other organs, such as the kidney, might have the same mutations as those originating in the lungs and so might benefit from the same targeted treatment.

In other cases, people can avoid certain treatments ‒ and their side effects ‒ because tumor genetics suggest the drug wouldn’t work. A breast cancer patient whose tumor has a certain mutation in the estrogen receptor gene, for instance, wouldn’t benefit from a class of drugs called aromatase inhibitors.

But first, those mutations have to be detected with genetic sequencing of a tumor, Roberts said.

“Knowing what is best for patients is only a small part of what actually determines whether or not they get the care,” he said.

Why not everyone gets their tumor sequenced
Medicaid will pay for treatments based on tumor genetics, but in some states, it won’t cover the genetic screening needed to determine whether a patient should get the drug, Roberts said with frustration. He thinks policies need to be changed to ensure that anyone who could benefit from a covered medication gets necessary testing.

Prior authorization requirements also can be a stumbling blocks, he said, as can the $3,000 to $4,000 cost of testing. The price of genomic sequencing itself has dropped substantially, but the cost of analyzing those results remains high, he said.

Some patients may be hesitant to get tested, said Dr. Stephen Gruber, chair of the Center For Precision Medicine at City of Hope, a national cancer research and treatment organization.

“Some groups of people have reasonable and appropriate concerns about whether medical advances are in their best interest,” he said.

Many health care systems lack support personnel and processes to quickly deliver test results and direct care as a result of them, said Dr. Marie Suga, a thoracic medical oncologist and chair of Kaiser Permanente’s National Lung Cancer Program.

While most academic medical centers have in-house labs, other institutions have to send out tumor samples for testing, which can take three or four weeks or longer. “It’s a very anxious time,” for both patients and doctors, Suga said, and many patients are quickly put on chemotherapy rather than wait to figure out what might be a more appropriate targeted therapy.

Another barrier to genetic testing, Suga said, is the “education gap.” Academic researchers work with genetic tests all the time and are generally specialists in one type of cancer. But oncologists in the community ‒ who treat 80% of all cancer patients ‒ might see a range of tumor types, each with different guidelines, making it hard to keep track. Older clinicians trained before the era of genomics may not fully understand the potential.

Since 2018, Kaiser Permanente has routinely tested tumors in patients with advanced cancers, Suga said, and doctors have often been surprised to find mutations for which there are targeted treatments.

“If you don’t test, you just don’t know,” she said. “You may be missing out on important potential additional options for treatment.”

Why sequence the person with the tumor?
In some cases, it make sense to sequence the patient themselves in addition to or rather than the tumor.

Some patients carry genetic mutations that make them more prone to cancer.

People with mutations in the BRCA1 or BRCA2 genes, for instance, are at higher than average risk for breast, ovarian, prostate and pancreatic cancers and may want to consider surgery before potentially lethal cancers can develop.

Other families carry genetic syndromes that make them prone to a variety of cancers. Knowing that vulnerability can lead to more frequent screening and can be potentially life saving.

But the new study, published Monday in JAMA, found many patients are missing these opportunities.

The study looked at nearly everyone diagnosed with cancer from 2013-2019 in California and Georgia. For ovarian cancer, where genetic sequencing has been recommended for every patient for many years, only about 38% of patients received the screening. For pancreatic cancer, by the end of the study period, 18% of patients were getting genetic screening.

The study didn’t reveal precisely why screening is falling so short. “But it probably is the usual causes that we see in so many settings: It’s structural racism, access issues, issues in terms of care quality and lots of other things,” Kurian said.

Genetic knowledge is particularly important for people with advanced cancers, Kurian said. “It’s recognized as standard of care when you have a patient with metastatic disease.”

It’s also important to sequence the genetics of children with cancer, said Paul Boutros, a cancer data scientist at the David Geffen School of Medicine at UCLA. On the order of 30% to 60% of children with cancer will benefit from getting their genes sequenced, both to match the child to the right course of therapy and to reduce treatment toxicity. Children who receive the chemo drug cisplatin, for instance, are at high risk for hearing loss if they have certain mutations, he said.

Sequencing a person can be particularly challenging because it has implications for others, said University of Michigan’s Dr. Steven Katz, an expert in treatment decisions made between patients newly diagnosed with cancer and their clinicians.

If a patient has a BRCA1 mutation, for instance, at least one of their parents likely carries it, and any children, aunts, uncles and cousins are at risk, too.

Patients are stuck in the impossible situation of deciding whether and how to tell family members about the results ‒ typically without any support from the medical system, said Katz, who co-authored the new study with Kurian. “The doctors, the clinicians, the genetic counselors are completely failing to help families,” he said. “They know it, but they don’t have the bandwidth and they aren’t incentivized for it and they aren’t insured for it.”

New Blood Test Capable Of Detecting 50 Different Types Of Cancer
New Blood Test Capable Of Detecting 50 Different Types Of Cancer
Sequencing and its benefits are not equally spread
A study Roberts co-authored earlier this year confirms that where someone lives makes a big difference in whether they or their tumor get sequenced.

In Arkansas, only 18% of Medicaid-funded lung cancer patients with ALK- or EGFR mutations received treatment targeted to their tumors, the study found, while 113% of patients in Massachusetts did (possibly because people go outside their home state to get their care).

Boutros said he expects people in urban areas are more likely to get testing, along with people who are white and those of higher socioeconomic status. Testing might also vary by age, he said, because of differences in insurance coverage, with older people, children and young adults more likely to have coverage than those in between.

This uneven use “really impinges on our understanding of where genetic testing should be best done,” Boutros said. “It’s both a moral and a biomedical imperative to do a better job at making sure that it’s offered widely.”

So far, most of the cancer-associated mutations have been identified in people of European or Chinese ancestry, so those with a different heritage might not benefit as much, he said.

As the science continues to improve, patients will have more opportunities to be matched with safe and effective treatments, said Dr. Matthew Meyerson, a cancer geneticst at Dana-Farber.

“The amount of data that exists is still growing,” he said. “It’s not going to be complete for a long time.”

Eventually, it will make sense to genetically sequence every cancer patient as well as their tumor, said Dr. William Catalona an expert in the genetics of prostate cancer at Northwestern University.

With just one or the other, “you only have half the picture,” he said

Exploring New Frontiers: Recent Discoveries in Stem Cell MedicineThe ever-evolving field of stem cell medicine continues...
11/06/2023

Exploring New Frontiers: Recent Discoveries in Stem Cell Medicine

The ever-evolving field of stem cell medicine continues to inspire a sense of awe and excitement among medical researchers and practitioners worldwide. With their unique ability to regenerate and differentiate into multiple cell types, stem cells hold the potential to revolutionize treatments for various diseases and conditions. In this blog post, we’ll delve into some of the most exciting and recent advancements in the realm of stem cell research.

Stem Cells and Regenerative Medicine:
Regenerative medicine is a primary area where stem cell research has shown significant potential. Recently, scientists have made headway in developing lab-grown mini-organs or ‘organoids.’ These small-scale, simplified versions of human organs are grown from stem cells and offer new possibilities for drug testing, studying disease progression, and even transplantation.

For instance, researchers at the University of Cambridge developed a pancreatic organoid that mimics the organ’s functionality in the lab. This significant step forward could pave the way for a deeper understanding of diseases like pancreatic cancer and diabetes, and potential new treatments.

Stem Cells and Neurological Disorders:
Stem cells also promise breakthroughs in the treatment of neurological disorders. A recent study published in the journal “Nature Medicine” demonstrated the use of stem cells in treating Parkinson’s disease. Scientists successfully converted stem cells into dopamine-producing neurons and implanted them into monkeys with a Parkinson’s-like condition. The implanted neurons survived and functioned as intended, offering hope for similar treatments in humans in the future.

Stem Cells and Cardiovascular Health:
In the realm of heart health, stem cells are offering a new ray of hope. Recently, researchers have been experimenting with induced pluripotent stem cells (iPSCs) to treat heart failure. A study conducted by scientists at the Gladstone Institutes showed the potential of these iPSCs in regenerating heart tissue, thereby contributing to the recovery process in heart failure patients.

Stem Cells and Spinal Cord Injuries:
For individuals with spinal cord injuries, stem cell therapy could mean the difference between paralysis and recovery. In a groundbreaking study published in “The New England Journal of Medicine,” researchers utilized oligodendrocyte progenitor cells – a type of stem cell – to improve motor function in patients with recent spinal cord injuries. This pioneering work offers significant hope in improving the quality of life for patients with these injuries.

Ethical, Legal, and Regulatory Developments:
Alongside these scientific advances, there have also been important developments in the ethical, legal, and regulatory aspects of stem cell research. Several countries are working to tighten regulations to ensure the safety and efficacy of stem cell treatments, and to guard against unproven and potentially harmful therapies. As the field advances, the conversation around the ethics and legality of stem cell use continues to evolve.

Conclusion:

While there are still many challenges to overcome, the relentless pursuit of knowledge in stem cell research continues to unlock new potential therapies for some of the world’s most debilitating diseases. As we continue to explore this promising terrain, the hope remains that one day, stem cell medicine will reshape the therapeutic landscape and offer a beacon of hope for countless patients across the globe.

*Remember to stay tuned to our blog for more updates on the latest advancements in stem cell medicine.

WHAT IS A SOMATIC CELL?A somatic cell is any cell in an organism's body that is not involved in sexual reproduction. In ...
17/04/2023

WHAT IS A SOMATIC CELL?

A somatic cell is any cell in an organism's body that is not involved in sexual reproduction. In other words, somatic cells are all cells except germ cells (s***m and egg cells) and undifferentiated stem cells. Somatic cells make up the majority of an organism's tissues and organs, including skin, muscles, bones, and organs like the liver, kidneys, and heart.

Somatic cells are diploid, meaning they contain two sets of chromosomes, one from each parent. These cells reproduce through a process called mitosis, in which the cell duplicates its chromosomes and then divides into two identical daughter cells. This process is responsible for the growth, repair, and maintenance of an organism's tissues and organs.

In contrast, germ cells are haploid, containing only one set of chromosomes, and are involved in sexual reproduction. Germ cells reproduce through a process called meiosis, which results in the production of haploid gametes (s***m and egg cells) that combine during fertilization to form a new diploid organism.

Hello, Happy Holidays to everyone.As many of you who've been in constant communication with me over these past six years...
02/01/2023

Hello, Happy Holidays to everyone.
As many of you who've been in constant communication with me over these past six years, in a few months I will have all relief of governmental restrictions lifted, and will return to basic, clinical and translational research regarding DNA-Genetic Therapies and Stem Cell research; combining the two in research efforts for treating Diabetes, Cancer & Tissue disorders and ageing disorders.

I will keep you posted on future laboratory / clinic location.

Hola, y Felices Fiestas a Todos !Como muchos de ustedes que han estado en comunicación constante conmigo durante los últ...
02/01/2023

Hola, y Felices Fiestas a Todos !
Como muchos de ustedes que han estado en comunicación constante conmigo durante los últimos seis años, en unos pocos meses se levantará todo el alivio de las restricciones gubernamentales y volveré a la investigación básica, clínica y traslacional con respecto a las terapias genéticas de ADN y Celulas madre; combinar los dos en los esfuerzos de investigación para tratar la Diabetes, el Cáncer y Trastornos del Envejecimiento.

Los mantendré informados sobre la futura ubicación del laboratorio/clínica.

Hello, Happy Holidays to Everyone!
As many of you who've been in constant communication with me over these past six years, in a few months I will have all relief of governmental restrictions lifted, and will return to basic, clinical and translational research regarding DNA-Genetic Therapies and Stem Cell research; combining the two in research efforts for treating Diabetes, Cancer, Tissue and ageing disorders.

I will keep you posted on future laboratory / clinic location.

06/05/2021

Last-resort antibiotic found to pop superbugs like balloons
By Nick Lavars
May 04, 2021

The superbug Pseudomonas aeruginosa, after being "popped like a balloon"Imperial College London

By turning modern scientific tools on an antibiotic discovered 70 years ago, researchers have unearthed a previously unknown mechanism it uses to pierce and pop superbugs like balloons. Promisingly, the scientists have also demonstrated how this approach to taking out bacteria can be supercharged by combining it with other antibiotics, potentially offering a new form of defense against deadly, drug-resistant bacteria.

The drug at the center of this study is called colistin, which was first described in 1947 and has since become a last-resort treatment for bacterial infections that have grown resistant to other medications. As one of only a handful of drugs capable of taking the fight to the deadliest of superbugs, such as E. Coli, Pseudomonas aeruginosa and Acinetobacter baumannii, colistin works by puncturing the two membranes encasing the bacteria. Though how it does this has been unclear.

Scientists knew that the drug can pe*****te the outer membrane by zeroing in on a target chemical called lipopolysaccharide (LPS). The trouble was, there is very little of this chemical to be found in the inner membrane, raising questions over how colistin is able to find and punch its way through.

"It sounds obvious that colistin would damage both membranes in the same way, but it was always assumed colistin damaged the two membranes in different ways," says Imperial College London's Dr Andrew Edwards, who led the research. "There’s so little LPS in the inner membrane that it just didn’t seem possible, and we were very skeptical at first. However, by changing the amount of LPS in the inner membrane in the laboratory, and also by chemically modifying it, we were able to show that colistin really does puncture both bacterial skins in the same way – and that this kills the superbug."

The superbug Pseudomonas aeruginosa, prior to being "popped like a balloon" in new superbug research
The superbug Pseudomonas aeruginosa, prior to being "popped like a balloon" in new superbug researchImperial College London
With this new understanding of the way colistin functions, the team continued to investigate ways to enhance its bacteria-killing abilities. This involved experiments on the bacterium Pseudomonas aeruginosa, in which the scientists found that an experimental antibiotic called murepavadin could be used to drive up levels of LPS in its inner skin. This in turn enabled colistin to far more easily pe*****te and kill the bug.

While decades old, colistin finds itself growing only more important as drug-resistant bacteria continues evolve and pose a greater threat to human life. In fact, the World Health Organization has designated it as one of the "Highest Priority Critically Important Antimicrobials," for its role as a last-ditch medication in critically ill patients, and we're seeing a lot of research into how we might shore up its defenses.

“As the global crisis of antibiotic resistance continues to accelerate, colistin is becoming more and more important as the very last option to save the lives of patients infected with superbugs," says Akshay Sabnis, lead author of the work. "By revealing how this old antibiotic works, we could come up with new ways to make it kill bacteria even more effectively, boosting our arsenal of weapons against the world’s superbugs.”

The research was published in the journal eLife.

Source: Imperial College London

01/05/2021
Researchers Are Hatching a Low-Cost Coronavirus VaccineA new formulation entering clinical trials in Brazil, Mexico, Tha...
17/04/2021

Researchers Are Hatching a Low-Cost Coronavirus Vaccine

A new formulation entering clinical trials in Brazil, Mexico, Thailand, and Vietnam could change how the world fights the pandemic.

A new vaccine for Covid-19 that is entering clinical trials in Brazil, Mexico, Thailand and Vietnam could change how the world fights the pandemic. The vaccine, called NDV-HXP-S, is the first in clinical trials to use a new molecular design that is widely expected to create more potent antibodies than the current generation of vaccines. And the new vaccine could be far easier to make.

Existing vaccines from companies like Pfizer and Johnson & Johnson must be produced in specialized factories using hard-to-acquire ingredients. In contrast, the new vaccine can be mass-produced in chicken eggs — the same eggs that produce billions of influenza vaccines every year in factories around the world.

If NDV-HXP-S proves safe and effective, flu vaccine manufacturers could potentially produce well over a billion doses of it a year. Low- and middle-income countries currently struggling to obtain vaccines from wealthier countries may be able to make NDV-HXP-S for themselves or acquire it at low cost from neighbors.

https://www.nytimes.com/2021/04/05/health/hexapro-mclellan-vaccine.html

A new formulation entering clinical trials in Brazil, Mexico, Thailand and Vietnam could change how the world fights the pandemic.

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Cellmex – Stem Cell Medical Clinic a private medical practice specializing in Stem Cell Treatments and Performing Advanced Gene Sequencing Research that addresses chronic and acute health conditions {i.e. Anti-Aging & Healthy Aging, Longevity, COPD, Diabetes, MS, Renal, Skin-Disorders & Viral Diseases} Our form of Stem cell treatment and Gene Sequencing Research and application is currently not legally accepted in the USA or Canada, thus our location in Mexico & Cuba. Our clinical research has allowed us to discover new medical therapies for previously untreatable medical conditions; which applied to patients that cannot wait 15 to 20 years before becoming legally available. Our Stem Cell scientists have gained global attention and have generated the means to transplant stem cells which differentiate into healthy new cells and tissue capable of alleviating or potentially even curing a broad array of intractable conditions and the stem cell line which we use has the phenomenal ability to differentiate and multiply making exact copies of themselves indefinitely. How do we do this with Stem Cells? By transplanting Pluripotent, Monopotent or Neural stem cells derived from blood cord, adipose tissue, or bone marrow; into your body systemically via direct injection, bone-marrow transplant, or I.V. infusion.

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