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Cardiovascular Diseases: Causes, Risks and Management
Justin D. Pearlman MD PhD MA FACC, Editor
Cardiovascular diseases comprise problems of the heart and blood vessels, including rhythm, blood supply, blood pressure, birth defects, or damage from cholesterol, tobacco, street drugs, radiation, viruses, bacteria, or fungi.
Thus the category includes heart failure (inadequate pump function), heart or vessel infection (endocarditis, vasculitis), birth defects (congenital heart disease)
Cardiovascular Diseases: Causes, Risks and Management
Justin D. Pearlman MD ME PhD MA FACC, Editor
Leaders in Pharmaceutical Business Intelligence
Director and Founder
Editor-in-Chief
Other e-Books in the BioMedicine Series
Perspectives on Nitric Oxide in Disease Mechanisms
Human Immune System in Health and in Disease
Metabolic Genomics & Pharmaceutics
Infectious Disease & New Antibiotic Targets
Cancer Biology and Genomics for Disease Diagnosis
Nanotechnology in Drug Delivery
Genomics Orientations for Personalized Medicine
This book is a comprehensive review of Innovations in Cardiovascular Medicine, including the latest discoveries in
- Cardiac Medical Imaging,
- Regenerative Medicine,
- Pharmacotherapy,
- Medical Devices for Cardiac Repair,
- Genomics, and opportunities for Targeted Therapy.
It is written by experts in their respective subspecialties. The e-Book’s articles have been published on the Open Access Online Scientific Journal, since April 2012. All new articles on this subject will continue to be incorporated with periodical updates.
http://www.pharmaceuticalIntelligence.com
The Journal is a scientific, medical and business, multi-expert authoring environment for information syndication in domains of Life Sciences, Medicine, Pharmaceutical and Healthcare Industries, BioMedicine, Medical Technologies & Devices. Scientific critical interpretations and original articles are written by PhDs, MDs, MD/PhDs, PharmDs, Technical MBAs as Experts, Authors, Writers (EAWs) on an Equity Sharing basis.
The Editor, Justin D. Pearlman MD ME PhD MA FACC, has many different perspectives developed during the years, including:
- Chief of Cardiology,
- non-invasive imaging,
- molecular biology,
- mathematics,
- imaging research
contributed a number of firsts:
- non-endemic Chagas diagnosis,
- intensity projection angiography,
- magnetization tagging,
- myocardial injury mapping by magnetic resonance contrast retention,
- myocardial viability by MRI,
- atheroma lipid liquid crystal characterization,
- outpatient inotropic infusion therapy,
- angiogenesis imaging,
- multimodal in vivo stem cell imaging,
- real-time velocity beam MRI,
- in vivo microscopic MRI,
- dobutamine stress echocardiography for low gradient valve disease,
- alternative stress tests,
- diagnostic electrocardiography in magnetic environments,
- statistical methods to solve error propagation of large array genomics,
- discovery of monocyte role in native coronary collateral development,
- image tracked stem cell treatment of heart attacks,
- singularity editing in differential topology.
Preface to the Three Volume Series
Cardiovascular disease has been a leading cause of death and disability and so it has also been a major focus for intense research, development, and progress. Knowledge of the causes, risks, and best practices for management continually change. That is why a dynamic electronic living textbook presents an exciting opportunity to help you keep current with the ephemeral leading edge. This book is an outgrowth of the commitment of Leaders in Pharmaceutical Business Intelligence to present the most exciting timely and pertinent advances of our day, in a continual medium to stay fresh and up to date. We hope diverse multispecialty perspectives will help you in your quest to understand, adapt and advance the leading edge of cardiovascular disease causes, risks and best practices management.
On the Diagnosis of Cardiovascular Disease: causes, manifestations, consequences and priorities
Doctors aim to spend their time on prevention, diagnosis, and disease management. More and more the time is diverted to expanding demands for documentation and bureaucratic navigation. This article focuses on the art of diagnosis, with examples based on cardiovascular diseases. Diagnosis cannot be achieved without a knowledge of the causes (etiology) of ailments, a necessary but not sufficient component of diagnosis. The causes broadly relate to nature and nurture, how our biological system develops and functions (nature), and its interactions with the outside world driven in part by behavior, diet, exposures, and activities (nurture). The nature of our individuality has been traced to the human genome, a map of code for protein products that build our structures and mediate our body part functions. Numerous blood tests have been devised to check the expression and activity level of such genomic products to identify disease and characterize its stage. The role of diet, behavior, exposures, activities or lack thereof is well established as a complicit factor in disease development and progression.
The art of diagnosis is designed to find out what is wrong. Literally, it is a flow of knowing, based on knowledge of causes of ailments, probabilities (prevalence), consequences, manifestations, priorities (which would be most urgent) and tests: CPCMPT. Review of those elements generates a list of concerns, often expressed as a “differential diagnosis” which is a prioritized list of plausible explanations for the observations, patient’s report of symptoms and findings from patient examination. The second stage of diagnosis, called the “work-up,” selects and applies tests to stratify the list of possibilities further as well as to characterize the manifestations and stage of disease. Technically, analysis of biological samples, imaging studies and intervention trials each represent tests; however, they are often viewed as distinct tools with just the former labeled as tests (biological samples include blood tests, urine tests, sputum or saliva samples, and biopsies). The primary goal of the work-up is to establish one or more specific diagnoses as the cause of ailment. The secondary goal of the work-up is to characterize the manifestations and stage of disease to define expectations and clarify options for the disease management. The third goal is to develop a management a plan to slow or stop the ailment, decrease risks of complications, slow or stop progression of disease manifestations or otherwise minimize functional impairment.
The manifestations of disease are categorized as signs and symptoms.
- Signs are observable evidence of consequences,
- Symptoms are subjective complaints.
A major component of diagnostic skill is the ability to identify and characterize correctly signs and symptoms of all relevant disease conditions. A second major component of diagnostic skill is the ability to select appropriate tests and interpret their significance in context, in keeping with the patient’s presentation.
When someone sees a doctor about chest pain, coronary artery disease is a prominent consideration. The most common causes of chest pain are mechanical (muscle and bone, e.g., muscle spasms, muscle and bone inflammation), but those conditions are not generally life-threatening. The consequences of blocked arteries – arrhythmia, permanent weakness of the heart, blood clots, pulmonary emboli, stroke, cardiogenic shock, death – raise the stakes and push coronary disease high in priority even when the probabilities are low. The prioritization of the differential diagnosis list has multiple considerations: urgency (how quickly it can worsen), severity of consequences, and the probabilities of a macrovascualar event (prevalence, risk factors). A ten percent risk of coronary disease typically takes precedence over a 70% likelihood of muscle spasm in terms of diagnostic testing.
The road map for the construction of our individuality as humans has been fully mapped: the human genome. Genetic variation means we are not fully determined by the mix of genes inherited from our parents. In addition to the genetic material on our 48 chromosomes, and the genetic material in mitochondria inherited from the mother, there are spontaneous changes in the genetic code, and there are modifications that affect gene expression (which codes produce gene products, quantities, rates, and post-production modifications).
The causes of cardiovascular disease are defined by Murphy’s law: what can go wrong will. However, on the nature side, most malfunctions are too severe to reach the light of day, so there is a limited list of disease mechanisms associated with sufficient viability to reach medical attention. Those mechanisms can be summarized by a mnemonic: diseases can develop new metals in-flame, a-fact externs generated (disease mechanisms: congenital, developmental, neoplastic, metabolic, inflammatory, infectious, extrinsic (e.g. stab wound), and degenerative). A taxonomy of cardiovascular diseases can be constructed in various ways: (1) itemize the major cardiovascular functions and subclassify the dysfunctions, (2) itemize by principle anatomic involvement and subclassify by pathology, (3) classify by mechanism of disease, etiology. Compendiums of cardiovascular disease may be found in: (1) French’s Differential Diagnosis, (2) Robbins and Angel Pathology, (3) Guyton’s Textbook of Physiology, as well as cardiovascular disease textbooks such as Hurst, Braunwald, Mayo Clinic, Cleveland Clinic…
Diagnosis takes many forms. The paranoid inclusive approach, manifested as “medical student syndrome”, considers any semblance of a sign or symptom vaguely similar to a disease manifestation as a frightening prospect worthy of detailed pursuit. The minimalist pragmatic approach commonly attributed to general practitioners focuses on reassurance, and pursuit of persisting complaints that match a common ailment. That approach has been summarized by the advice: when you hear hoof beats think of horses, not zebras. Specialists, on the other hand, are taught to consider all possibilities, with due consideration to urgency and treatability, so that zebras are not punished.
The healthcare system promotes the idea of generalists serving as the front line, identifying who can be managed simply, with specialists serving as finishers for more complex cases or cases requiring special skills. A flaw in that model is the need for detailed knowledge of zebras and subtle findings that may represent an urgent issue at the front line for triage. If the generalist does not know that mild symptoms from mitral valve disease or aortic valve disease may require urgent detailed assessment, patients may be referred to a specialist too late to prevent consequences that requires an earlier intervention.
Parsimony in diagnosis refers to identifying the fewest number of diagnoses that explain all the findings. The concept has been attributed to Osler, and it builds on a guiding procedure voiced in the middle ages by Occum, known as Occum’s razor: when deciding between two explanations, favor the one that requires the fewest assumptions. Parsimony is a useful guide for diagnosis of a previously healthy patient who develops a number of findings that are temporally coherent. After age 65 (official geriatrics age), physicians are taught to abandon parsimony and expect more diagnoses than findings.
A study of difficult diagnoses lead to the concept of a pivotal finding as one that has a narrow differential list. The diagnostic process is prone to errors, including cognitive biases, which may benefit from computer assistance. Intuition and analytics can be applied to reduce cognitive bias. The author developed a just-in-time social networking system within a software package called Missive(c) that enables rapid access to such tools, combining efficiency in documentation with improved quality of analysis and reports (faster and better).
Among older Americans, more are hospitalized for heart failure than for any other medical condition (diastolic failure=stiff heart, systolic failure= inadequate pumping).
Genomics – the study of the genetic basis for disease – is rapidly expanding knowledge about etiology (cause of disease), and it helps identify opportunities for accurate diagnosis and treatment. The American Heart Association journal CIRCULATION has published 348 relevant articles related to cardiovascular genomics from 2010-2013. For example, just on the subtopic of atherosclerosis (hardening of arteries), genomics offers major progress. The genetic factors that affect arterial stiffness are strongly related to a very common underlying health concern, hypertension (high blood pressure). The counterpart to genetics is environment (nature versus nurture), but genetics carries the trump cards because it determines the sensitivities to environment.
anatomy
physiology
laboratory tests
interventional trials
Boundaries of the Domain: Cardiovascular Diseases: Causes, Risks and Management – Volume 1,2,3
The scope of cardiovascular disease scholarly contributions will grow to include: anatomy, surgery, molecular biology, ethics, imaging (echo, nuclear, PET, MRI, OCT, CT), congenital, stress tests, ECG, electrophysiology/rhythm/channelopathies, pacing, resynchronizing, AICD, cardiomyopathies, syncope, valve disease, aorta, renal artery, thrombosis, venous diseases, vasculitis, endothelium, metabolic syndrome, dyslipidemia, risk factors, biomarkers, hypertension, embolism, pulmonary hypertension, cardiac tumors, women’s health, CAD, Angina, Stem cells, complications of MI, thrombolysis, rehabilitation, reflexes, hormones, diastology, pharmaceuticals, myocarditis, hypertrophy, failure, shock, hemodynamics, interventions, contrast nephropathy, and contrast systemic fibrosis, as well as other relevant topics you may suggest.
An overview of the Core Research on Cardiovascular Diseases is based on the following NINE articles:
Have only the article title as a live link of the following 9 [originally were on CVD Zero, title and links, now only links]
http://pharmaceuticalintelligence.com/2013/05/15/diagnosis-of-cardiovascular-disease-treatment-and-prevention-current-predicted-cost-of-care-and-the-promise-of-individualized-medicine-using-clinical-decision-support-systems-2/- http://pharmaceuticalintelligence.com/2013/05/04/cardiovascular-diseases-decision-support-systems-for-disease-management-decision-making/
http://pharmaceuticalintelligence.com/2013/03/07/genomics-genetics-of-cardiovascular-disease-diagnoses-a-literature-survey-of-ahas-circulation-cardiovascular-genetics-32010-32013/http://pharmaceuticalintelligence.com/2013/05/17/synthetic-biology-on-advanced-genome-interpretation-for-gene-variants-and-pathways-what-is-the-genetic-base-of-atherosclerosis-and-loss-of-arterial-elasticity-with-aging/http://pharmaceuticalintelligence.com/2013/05/11/arterial-elasticity-in-quest-for-a-drug-stabilizer-isolated-systolic-hypertension-caused-by-arterial-stiffening-ineffectively-treated-by-vasodilatation-antihypertensives/- http://pharmaceuticalintelligence.com/2013/05/24/imaging-biomarker-for-arterial-stiffness-pathways-in-pharmacotherapy-for-hypertension-and-hypercholesterolemia-management/
- http://pharmaceuticalintelligence.com/2013/04/28/genetics-of-conduction-disease-atrioventricular-av-conduction-disease-block-gene-mutations-transcription-excitability-and-energy-homeostasis/
- http://pharmaceuticalintelligence.com/2013/05/07/on-devices-and-on-algorithms-arrhythmia-after-cardiac-surgery-prediction-and-ecg-prediction-of-paroxysmal-atrial-fibrillation-onset/
- http://pharmaceuticalintelligence.com/2013/05/22/acute-and-chronic-myocardial-infarction-quantification-of-myocardial-viability-fdg-petmri-vs-mri-or-pet-alone
The main points are
[bring here ONLY the INTRODUCTION and the Summary of each, THEN The EDITOR will provide perspective on the Research and the current STate of Cardiology in the US in 2013/2014]
A. Now you provide ONLY links to
Volume #
Contributors to Volume #
eTOCS in Volume #
REPEAT A. for each Volume
Volume One: Causes of Cardiovascular Diseases
Table of Contents
Hardening of the arteries is described as atherosclerosis, or porridge-like wall changes with scarring, which leads to heart attacks, high blood pressure, stroke, and organ injury mediated by ischemia (insufficient nutrient blood supply). The causes are both nature (genetic) and nurture (behavior, diet). Specifics of the causes guide diagnosis and management.
Chapter 1.2: Genomics
The completion of the human genome map was a major accomplishment, as gene products make signals, receptors and building blocks that establish health and disease. However, it is just a stepping stone, not explaining why, where, or how the gene products are regulated and interact.
Chapter 1.3: Cardiovascular Imaging
Imaging applies a principle of physics (light transmission, sound transmission, xray transmission, magnetic resonance, radioactivity) to provide a map of interior structures and/or activities. Image processing (computing) derives further information than simple display of an observed tissue-sensitive parameter. In the case of computed tomography (CT), magnetic resonance (MRI), positron-emission tomography (PET), and single-photon emission tomography (SPECT), computer reformatting of image data is essential.
Volume Two: Risk Assessment of Cardiovascular Diseases
Contributors
Table of Contents
Cardiovascular disease is the leading cause of death and disability, affecting more than four times as many people as all forms of cancer combined.
Chapter 2.2: Testing for cardiovascular risk
The volunteer population of Framingham Massachusetts provided decades of data clarifying determinants of risk for cardiovascular diseases. That data helped establish the usefulness of cholesterol screening, and lead to the search for additional tests to identify risk and guide management.
Chapter 2.3: Biomarkers
Biomarkers are chemistry levels (concentrations in the blood) that identify injury or risk for injury.
Volume Three: Management of Cardiovascular Diseases
Contributors
Chapter 3.1: Therapeutic Genomics
As the mysteries of the human genome products are unraveled, we get closer to identifying key components. One of them is Thymosin beta 4 (Tβ4) , which plays an essential role in cardiac and blood vessel development and regeneration. It may lead to breakthroughs in angiogenesis and vasculogenesis, or new vessel development, mimicking the behavior of the lucky few who develop new vessels, or collaterals, as a natural bypass system, without requiring a surgeon to provide a blood supply to avoid or limit heart attacks.
Chapter 3.2: Image guidance of Therapy
The US government is helping to sponsor new imaging methods, while they also inhibit it by adding new taxes.
Chapter 3.3: Drug therapy
Emerging new therapies are presented, along with the biological basis.
Chapter 3.4: Cardiovascular Interventions
Technological advances enable minimally invasive solutions to problems previously addressed by surgery or autopsy.
Contributors above, need a LINK to the appropriate contributors in each volume. Table of Contents of each volume above need a LINK to the eTOCS of each volume.
Please UPDATE all links ABOVE to the appropriate locations in the respective volumes, after implementing the carry over, remove links below EXCEPT CVD1,2,3 and remove this comment of mine in RED, here
REFERENCES for CVD CORE
A. Diagnosis of Cardiovascular Disease and Cost of Care
Bernstein, HL and A. Lev-Ari 5/15/2013 Diagnosis of Cardiovascular Disease, Treatment and Prevention: Current & Predicted Cost of Care and the Promise of Individualized Medicine Using Clinical Decision Support Systems
B. Cardiovascular Diseases: Disease Management Decision Making – use of CDSS
Pearlman, JD and A. Lev-Ari 5/4/2013 Cardiovascular Diseases: Decision Support Systems for Disease Management Decision Making
C. Genomics & Genetics of Cardiovascular Disease Diagnoses
Lev-Ari, A. and L H Bernstein 3/7/2013 Genomics & Genetics of Cardiovascular Disease Diagnoses: A Literature Survey of AHA’s Circulation Cardiovascular Genetics, 3/2010 – 3/2013
D. Genetic Base of Atherosclerosis and Loss of Arterial Elasticity with Aging
Lev-Ari, A. 5/17/2013 Synthetic Biology: On Advanced Genome Interpretation for Gene Variants and Pathways: What is the Genetic Base of Atherosclerosis and Loss of Arterial Elasticity with Aging
E. Hypertension and Vascular Compliance: 2013 Thought Frontier – An Arterial Elasticity Focus
Pearlman, JD and A. Lev-Ari 5/11/2013 Hypertension and Vascular Compliance: 2013 Thought Frontier – An Arterial Elasticity Focus
F. Arterial Stiffness: Pharmacotherapy for Hypertension and Hypercholesterolemia Management
Pearlman, JD and A. Lev-Ari 5/24/2013 Imaging Biomarker for Arterial Stiffness: Pathways in Pharmacotherapy for Hypertension and Hypercholesterolemia Management
G. Genetics of Conduction Disease
Lev-Ari, A. 4/28/2013 Genetics of Conduction Disease: Atrioventricular (AV) Conduction Disease (block): Gene Mutations – Transcription, Excitability, and Energy Homeostasis
H. Arrhythmia after Cardiac Surgery Prediction and ECG Prediction of Paroxysmal Atrial Fibrillation Onset
Pearlman, JD and A. Lev-Ari 5/7/2013 On Devices and On Algorithms: Arrhythmia after Cardiac Surgery Prediction and ECG Prediction of Paroxysmal Atrial Fibrillation Onset
I. Myocardial Infarction: Quantification of Myocardial Perfusion Viability
Pearlman, JD and A. Lev-Ari 5/22/2013 Acute and Chronic Myocardial Infarction: Quantification of Myocardial Perfusion Viability – FDG-PET/MRI vs. MRI or PET alone
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