#precisionmedicine Tag

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The pursuit of a longer life has dominated medical science for decades, but the conversation is rapidly shifting toward the quality of those additional years. Today, healthcare professionals are focusing on the distinction between lifespan and healthspan. As researchers evaluating proactive healthcare and telehealth innovations frequently explore, modern medicine is transitioning away from reactive symptom management. Instead, there is a strong global emphasis on early lifestyle interventions and increasing patient access to preventive medical assessments via virtual care.

This evolution in care delivery is also reshaping how aging populations engage with technology, a shift explored in detail in this overview of tech-smart aging for home, help and health.

The Impact of Precision Telehealth on Preventive Care and Healthy Ageing

[caption id="attachment_74426" align="aligncenter" width="279"]Laboratory Research Gases-pexels.jpg Pexels[/caption]

Why Aluminum Gas Cylinders Matter in Clinical Research and Diagnostic Testing

Laboratory research often turns on details most people never see. A metabolic chamber, a calibration gas mixture, a diagnostic analyzer, or a clinical research workflow depends on gases that arrive exactly as specified. The focus is usually on the instrument, the sample, or the study design, but the cylinder holding the gas has its own role in the reliability of the result.

Modern research and diagnostics are built on precision. Small variations in gas composition can affect measurements, especially when testing involves trace-level compounds, respiratory exchange, oxygen consumption, carbon dioxide production, anaerobic conditions, or instrument calibration. In those settings, a cylinder is not just packaging. It is part of the testing environment.

This is where specialized aluminum gas cylinders deserve more attention. They help protect high-purity and specialty gases from unnecessary contamination, support safe handling, and give research teams more control over the materials used in sensitive work. For labs, hospitals, device developers, and specialty gas suppliers, the right cylinder design can quietly support better consistency from one test cycle to the next.

The Cylinder Becomes Part of the Research System

When a laboratory orders high-purity oxygen, nitrogen, carbon dioxide, calibration mixtures, or specialty gases for metabolic and diagnostic work, the gas itself is only one part of the equation. The container also matters. A research team can invest in advanced instruments and careful protocols, but if the gas cylinder contributes moisture, particles, corrosion byproducts, or reactive surface issues, the final measurement is less reliable.

That is why many organizations look closely at their aluminum cylinder manufacturing partner when working with specialty gas programs. A qualified cylinder manufacturer understands that research gases need a stable storage environment, not merely a pressure-rated shell.

In metabolic research, for example, even minor uncertainty can create problems. Instruments that measure oxygen uptake or carbon dioxide output depend on accurate calibration. Clinical research teams studying respiratory function, energy expenditure, or treatment response need repeatable measurements. Diagnostic labs using gas-based processes also rely on tight control. When the container supports purity, the lab has one less variable to manage.

[caption id="attachment_74104" align="alignleft" width="200"]dr_avishek_kumar Dr. Avishek Kumar[/caption] MedicalResearch.com Interview with: Avishek Kumar, MD Board-Certified Medical Oncologist and Hematologist Edison, NJ (NYC Metro) MedicalResearch.com: What is the background for this announcement? Response: Pancreatic cancer has been one of the hardest cancers to treat in all of oncology. It is often found late. It spreads early. For decades, it has not had the kind of breakthroughs we have seen in lung cancer, melanoma, breast cancer, or other tumors. In the majority of patients with advanced pancreatic cancer, treatment has mostly meant chemotherapy. Regimens like FOLFIRINOX or gemcitabine/nab-paclitaxel can help. They can extend life. They can shrink cancer. But the benefit is often limited, and the side effects can be tough. Once the cancer grows after first-line treatment, the options get even more narrow. That is why the daraxonrasib data matter. Daraxonrasib, also known as RMC-6236, is an investigational oral targeted drug. It is designed to block active RAS signaling. That is a big deal because pancreatic cancer is one of the most RAS-driven cancers we see. Most pancreatic cancers have a KRAS mutation or another alteration in that pathway. For years, KRAS was considered "undruggable." We knew it was driving the cancer. We just did not have a good way to hit it. This new data suggests that may be changing. In previously treated advanced RAS-mutated pancreatic cancer, daraxonrasib appeared to improve median overall survival compared with standard chemotherapy. Reports have described survival of about 13.2 months versus 6.7 months. In pancreatic cancer, that is not a small finding. That is meaningful. Very meaningful.

Imagine two people diagnosed with the same disease. One person is in their 30s, runs marathons, and eats a healthy diet. The other person is in their 60s, leads a sedentary lifestyle, and has diabetes. Previously, one diagnosis was likely to lead to the same medication prescription. However, it is recognized now that one medication will lead to different health outcomes. Their bodies will react differently, and they have different risk factors. Precision medicine is defined as a type of treatment that accounts for your genes, environmental factors, lifestyle, and medical history. Naturally, doctors were not previously able to track large amounts of data and consider all of it for every prescription or recommendation. It is only with advances in technology that it became possible. Custom healthcare app development creates solutions that gather data from various sources. They are wearables and habit trackers, integrations with previous medical records and lab work, and even genetic test results.  Essentially, precision medicine is personalized medicine. It helps people to get the exactly right treatment according to their individual genetic composition, biomarkers, habits, and needs.

  [caption id="attachment_64327" align="aligncenter" width="500"]advanced-screening-techniques.jpg Photo Credit: istock Medical Research Laboratory Meeting of diverse team of scientists discussing innovative biotechnology for advanced medicine[/caption] Advanced screening techniques are changing healthcare by making it easier to find and treat diseases earlier. These new technologies are helping doctors and researchers improve the way they diagnose these diseases and create better treatments. A key area where these techniques are making a big impact is in antibody discovery. It helps scientists find important proteins that can be used to fight diseases like cancer and autoimmune disorders. In this article, we’ll look at how advanced screening techniques are changing healthcare, how they help with antibody discovery, and what the future might hold for these technologies.

MedicalResearch.com Interview with: [caption id="attachment_60195" align="alignleft" width="143"]Jonathan Mosley, MD, PhDAssociate Professor Division of Clinical Pharmacology Departments of Internal Medicine and Biomedical Informatics Vanderbilt University Medical Center Dr. Mosley[/caption] Jonathan Mosley, MD, PhD Associate Professor Division of Clinical Pharmacology Departments of Internal Medicine and Biomedical Informatics Vanderbilt University Medical Center MedicalResearch.com: What is the background for this study? Response: Prostate cancer is an important source of morbidity and mortality among men. Earlier detection of disease is essential to reduce these adverse outcomes. Prostate cancer is heritable, and many single nucleotide polymorphisms (SNPs) associated with disease risk have been identified. Thus, there is considerable interest in using tools such as polygenic risk scores, which measure the burden of genetic risk variants an individual carries, to identify men at elevated risk of disease.

MedicalResearch.com Interview with: [caption id="attachment_60185" align="alignleft" width="161"]Aristotelis Tsirigos, Ph.D.Professor of Medicine and Pathology Co-director, Precision Medicine Director, Applied Bioinformatics Laboratories New York University School of Medicine Dr. Tsirigos[/caption] Aristotelis Tsirigos, Ph.D. Professor of Medicine and Pathology Co-director, Precision Medicine Director, Applied Bioinformatics LaboratoriesNew York University School of Medicine MedicalResearch.com: What is the background for this study? Response: Pancreatic cancer is one of the most lethal types of cancer with only 12% of patients surviving more than 5 years after diagnosis. One of the main reasons behind the dismal prognosis is the complexity of the tumor. Pancreatic cancer cells are very heterogenous and interact with different types of non-malignant cells in what is known as the tumor microenvironment.

MedicalResearch.com Interview with: [caption id="attachment_58487" align="alignleft" width="150"]Dr. Bernard Esquivel Dr. Esquivel[/caption] Bernard Esquivel Zavala, MD, PhD, MHA GenXys Chief Medical Officer MedicalResearch.com: What is the mission of GenXys? Response: Our mission at GenXys is to tailor the right treatment for each individual patient at the right time. GenXys founders, including Professors Pieter Cullis and Martin Dawes, were heavily involved in the precision medicine field from the very beginning, and they noticed a functional gap between the expectations and the actual clinical implementation of precision medicine Particularly, when it came to, at the time, the new field of pharmacogenetics. Their solution was to provide a comprehensive, user-friendly platform that organizes all patient data relevant to prescribing to provide the safest and most appropriate personalized prescribing options. Simply put, GenXys’ solutions were made by clinicians, for clinicians. The GenXys software suite collects patient information and categorizes that information, including pharmacogenetic data, based on clinical relevance and runs it through advanced condition -based algorithms to provide real time accurate prescribing options. It makes my life as a clinician easier and safer and gives me the confidence that I am not practicing ‘trial and error’ prescribing. Ideally, every healthcare provider should be using a real time medication decision support solution like ours, and not just for pharmacogenetic test results. Pharmacogenomics is just one piece. In fact, our core product, TreatGx™ can run with or without pharmacogenomics. Let's say that you've run it without pharmacogenomics, meaning that you are using this tool to organize and rapidly identify how biophysical factors, liver function, kidney function, comorbidities, and drug-drug interactions may impact the medication you're about to prescribe to your patient. This functionality alone is incredibly helpful. In fact, the factors I just mentioned likely account for 95% of the reasons why a patient does not respond to a particular medication or might have an adverse drug reaction. But the TreatGx platform will also highlight when the evidence supports bringing pharmacogenomic information into the mix. The right approach is bringing all those relevant clinical, biochemical, and molecular factors closer to the provider which will ultimately foster personalization. We will start treating the individual instead of the disease(s). As with any new technology, there are barriers to precision prescribing. This includes educational and emotional barriers. It’s important to educate providers and keep them up to date to help them understand the power that precision prescribing can bring into their practice—and the limitations—to set the right level of expectation. The Human Genome Project was finished in 2000, and there was a lot of buzz about pharmacogenomics even back in 2003. The field got a lot of traction in 2015. So, everyone thought, "Oh, this is going to be groundbreaking and quite disruptive. From now on my prescription is going to be a hundred percent accurate and safe." But it's not quite the whole story. Pharmacogenomics has to be considered as another piece of the puzzle. It's like saying that by having an MRI, you're curing cancer. It's just another piece of the treatment puzzle. There are also emotional barriers, where ego can factor into a decision. It can be uncomfortable for a physician to say, "I don't know this. Let me check it out. Let me explore it further, review, and come back to you." It's easier to say if I don't know it, that it doesn't work or isn’t relevant, rather than exposing yourself. And so that, in terms of the emotional piece, I would say is a big component. We can tackle the emotional component that element by fostering education and bringing education closer to providers.