heart + vascular + tech 🪽

Charlotte, NC
Joined April 2010
Rolling through PRs today! Are you guys drinking extra coffee or is it Fable? @Teknium @NousResearch
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podcasts.apple.com/us/podcas… Great convo between of my childhood heroes @leolaporte and @theemozilla of @NousResearch. It’s refreshing to hear the early chapters of agentic intelligence are grounded in a desire to do good. Next time join the podcast @Teknium - you can can stay hidden and use a voice change bot 😂
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Getting mine soon.
got my first CT w/wo contrast scan yesterday
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Hey @steipete and @Teknium - can you become friends and work together? Open source collab is a super power.
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We do not fail ASCVD prevention because we lack tools. We fail because we deploy them too late, too slowly, and too inconsistently. Primary prevention across the CKM spectrum must move from "risk recognition" to "sequenced lifetime benefit."
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Widespread genomics is coming whether academia validates its clinical utility or not.
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Replying to @CMichaelGibson
@CMichaelGibson helping the world from a first principles approach - improving patient access to clinical trials. @NCVHonline @sorinmedicalny
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A candid conversation with hip hop artists to improve underserved access to healthcare
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Thrilled PHVI is one of the first outpatient sites in North Carolina to use IVL for PAD! @ShockwaveIVL
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Some of my thoughts - the future for cardiovascular prevention is very bright, as revolutions in medical imaging, therapeutics, and genomics all synergize and accelerate with compute.
piedmonthealthcare.com/the-f… The Hidden Threat of Cardiovascular Disease in Midlife In our 40s and 50s, cardiovascular disease emerges as the leading cause of harm and death, surpassing cancer and lung disease. Yet, when we examine a seemingly healthy population of adults around this age using noninvasive imaging, we often uncover the root cause—atherosclerosis—long before symptoms appear in most people. Unfortunately, many patients receive a diagnosis and treatment only later in life, often after developing obvious symptoms or even suffering a heart attack or stroke. A Surprising Pattern in Atherosclerosis Development Contrary to popular belief, and according to seminal research by Dr. Valentin Fuster and others, atherosclerosis doesn’t first target the heart, as one might assume. In studies such as the Progression of Early Subclinical Atherosclerosis (PESA), which followed aging cohorts with serial noninvasive imaging, plaque buildup tends to appear in the legs (the common and superficial femoral arteries) first, the neck (the carotid arteries) second, and the heart (the coronary arteries) last. This suggests we are often searching for the causes of cardiovascular events—primarily atherosclerosis—in the wrong parts of the body and at the wrong time of life. The Era of Rapid Medical Innovation We are witnessing unprecedented technological acceleration, in which the next decade’s innovations may surpass the gains of the past century. Medical imaging now allows visualization of disease well before symptoms arise. At the same time, pharmacologic advancements target lipids, platelets, coagulation, inflammation, and metabolism more effectively. In the 1980s, endocrinologist Gerald Reaven described a cluster of high-risk features in Americans—closely linked to obesity—as the enigmatic “Syndrome X.” Decades later, our understanding, recognition, and management of what we now call metabolic syndrome have vastly improved and continue to evolve. This syndrome is strongly tied to excess visceral fat and insulin resistance, as well as increased risks for sleep apnea, heart rhythm disorders, hypertension, hyperlipidemia, atherosclerosis, fluid retention, kidney disease, and overall diminished mobility and wellness. By 2026, treatments have evolved dramatically and include disease-modifying agents that address metabolic syndrome head-on. These therapies are safer and more effective than ever and often work synergistically to reduce risk and extend both quality of life and lifespan. What’s Next: Beyond Early Detection of Disease — The Genetic Revolution Today, we can detect disease far earlier—often between ages 25 and 50—well before symptoms emerge—and treat it more effectively than before. So, what’s on the horizon? Lipoprotein(a), discovered in 1963, may ignite the genetic revolution in healthcare. This highly atherogenic, disease-causing lipid particle is inherited and present at birth, affecting 20–30% of the population. If ongoing clinical trials demonstrate that therapies lowering lipoprotein(a) are safe and reduce cardiovascular events or mortality, humanity could take a giant leap forward in the prevention of disease. In the next decade, genome-based risk assessment and targeted therapies will likely become widely available. As this genetic revolution accelerates—synergistically alongside those of imaging and therapeutics—risk stratification, and potentially even therapies, could begin around birth or early in life. The sum of these technological advancements may lead to remarkable increases in average human lifespan in the coming years.
There's a new version of this post
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piedmonthealthcare.com/the-f… The Hidden Threat of Cardiovascular Disease in Midlife In our 40s and 50s, cardiovascular disease emerges as the leading cause of harm and death, surpassing cancer and lung disease. Yet, when we examine a seemingly healthy population of adults around this age using noninvasive imaging, we often uncover the root cause—atherosclerosis—long before symptoms appear in most people. Unfortunately, many patients receive a diagnosis and treatment only later in life, often after developing obvious symptoms or even suffering a heart attack or stroke. A Surprising Pattern in Atherosclerosis Development Contrary to popular belief, and according to seminal research by Dr. Valentin Fuster and others, atherosclerosis doesn’t first target the heart, as one might assume. In studies such as the Progression of Early Subclinical Atherosclerosis (PESA), which followed aging cohorts with serial noninvasive imaging, plaque buildup tends to appear in the legs (the common and superficial femoral arteries) first, the neck (the carotid arteries) second, and the heart (the coronary arteries) last. This suggests we are often searching for the causes of cardiovascular events—primarily atherosclerosis—in the wrong parts of the body and at the wrong time of life. The Era of Rapid Medical Innovation We are witnessing unprecedented technological acceleration, in which the next decade’s innovations may surpass the gains of the past century. Medical imaging now allows visualization of disease well before symptoms arise. At the same time, pharmacologic advancements target lipids, platelets, coagulation, inflammation, and metabolism more effectively. In the 1980s, endocrinologist Gerald Reaven described a cluster of high-risk features in Americans—closely linked to obesity—as the enigmatic “Syndrome X.” Decades later, our understanding, recognition, and management of what we now call metabolic syndrome have vastly improved and continue to evolve. This syndrome is strongly tied to excess visceral fat and insulin resistance, as well as increased risks for sleep apnea, heart rhythm disorders, hypertension, hyperlipidemia, atherosclerosis, fluid retention, kidney disease, and overall diminished mobility and wellness. By 2026, treatments have evolved dramatically and include disease-modifying agents that address metabolic syndrome head-on. These therapies are safer and more effective than ever and often work synergistically to reduce risk and extend both quality of life and lifespan. What’s Next: Beyond Early Detection of Disease — The Genetic Revolution Today, we can detect disease far earlier—often between ages 25 and 50—well before symptoms emerge—and treat it more effectively than before. So, what’s on the horizon? Lipoprotein(a), discovered in 1963, may ignite the genetic revolution in healthcare. This highly atherogenic, disease-causing lipid particle is inherited and present at birth, affecting 20–30% of the population. If ongoing clinical trials demonstrate that therapies lowering lipoprotein(a) are safe and reduce cardiovascular events or mortality, humanity could take a giant leap forward in the prevention of disease. In the next decade, genome-based risk assessment and targeted therapies will likely become widely available. As this genetic revolution accelerates—synergistically alongside those of imaging and therapeutics—risk stratification, and potentially even therapies, could begin around birth or early in life. The sum of these technological advancements may lead to remarkable increases in average human lifespan in the coming years.
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Statin intolerant patient with paradoxic substantial increase of ApoB on incliseran. I am going to switch to evolocumab and do genetic testing. Have you seen this? I suspect PSCK9 or LDLR gene defect. @Drlipid @lipiddoc @nationallipid
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The origin of the word “stent” likely originated from a dentist, Charles Stent. 🤔
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Our new clinic marks an important step forward—enhancing our ability to deliver comprehensive cardiovascular care through risk stratification and prevention, advanced cardiometabolic therapies, genetic evaluation and counseling, clinical trials, and endovascular interventions.
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🧬 a comprehensive review on a not so rare condition
Transthyretin amyloid cardiomyopathy: from cause to novel treatments: @ESC_Journals 🥸 More on amyloid from the European Heart Journal 😱 Good morning! 👇👇👇
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I’ve done less elective PCI already given important QoL gains with GLP1a therapy, which are also anti-atherosclerotic.
Replying to @DutchRojas
Less - bariatric surgeries, PCI, hip/knee/lumbar surgeries, OSA masks/implants More - cosmetic/plastic surgeries, cholecystectomies
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