Sold Out
Book Categories |
Contributors List | ||
Preface | ||
Introduction | ||
Ch. 1 | Physiology and Pathophysiology | |
Sect. 1 | Basic Research: From Gene to Phenotype | 1 |
Cardiovascular molecular genetics | 3 | |
Dilated cardiomyopathy and arrhythmogenic right ventricular dysplasia: From gene to phenotype | 19 | |
Heart failure: From gene to therapy | 27 | |
Sect. 2 | Autonomic Nervous System | 39 |
Autonomic Nervous System: Physiology and pathophysiology | 41 | |
Methods to assess baroreflex sensitivity as a measure of the activity of the autonomic nervous system | 51 | |
Role of the Autonomic Nervous System in cardiovascular diseases | 59 | |
Therapeutical options to influence the autonomic nervous system | 69 | |
Ch. 2 | ECG aspects investigated by different methods | |
Sect. 1 | P-wave and QRS | 87 |
The signal averaged P-wave | 89 | |
Wenckebach pattern of ventricular late potentials | 99 | |
Detection of QRS-variability | 109 | |
Sect. 2 | QT-variability/QT dispersion | 121 |
QT-Dispersion: Role in clinical decision making | 123 | |
Dynamic QT-interval analysis | 131 | |
QT-variability: Clinical results and prognostic significance | 143 | |
Heart rate dependency of QT-Interval in congenital and acquired prolonged ventricular repolarisation: Long-term analysis by Holter Monitoring | 155 | |
Sect. 3 | T-wave alternans / repolarization | 161 |
Modern approaches to assessment of ventricular repolarisation | 163 | |
Dynamicity of T-wave alternans: Measurement and role in sudden death | 177 | |
Macrovolt T-wave alternans: pathophysiology and link with repolarization-dispersion | 191 | |
T-wave alternans and variability: prognostic, diagnostic and therapeutic implications | 201 | |
Ch. 3 | Focus on: Ischemic Heart Disease | 209 |
Non-invasive quantification / localisation of myocardial ischemia | 211 | |
Ambulatory ECG, myocardial ischemia and risk stratification | 217 | |
Post thrombolysis / post PTCA-monitoring | 223 | |
Interactive Holter-monitoring of transient ischemic episodes | 233 | |
Silent ischemia: The 1998 status: new observations on triggers, pathophysiological mechanisms and circadian variations | 239 | |
Circadian variation in myocardial ischemia and infarction | 247 | |
Chronopharmacology - Implications for diagnosis and treatment | 263 | |
Beta blockers following acute myocardial infarction | 279 | |
The United States Multicenter Study of enhanced external counterpulsation (MUST-EECP) | 283 | |
Ch. 4 | Methods | |
Sect. 1 | Quality control and standardization of monitoring techniques | 287 |
Heart rate variability: A simple methodology with several unrecognized technical and methodological problems | 289 | |
Quality control and standardization: High resolution ECG | 297 | |
Sect. 2 | Exercise ECG | 303 |
Diagnosis of myocardial viability: Contribution of the ECG | 305 | |
Exercise testing for risk stratification | 317 | |
Cardiopulmonary exercise testing: cardiovascular and respiratory limitations detected by exercise gas exchange | 331 | |
Sect. 3 | Ambulatory Blood Pressure Monitoring | 341 |
White-coat hypertension: State of the art | 343 | |
Should antihypertensive treatment by guided by casual measurement or through Ambultory Blood Pressure Monitoring | 351 | |
Non-invasive pulse wave velocity as a method to evaluate physical properties of the large arteries in aging and hypertension | 359 | |
Prognostic implications of blood pressure variability | 371 | |
Sect. 4 | Magnetocardiography | 381 |
Magnetocardiographic technology: State of the art | 383 | |
Ischemia and hibernation in magnetocardiography | 393 | |
MCG at the turn of the millenium | 401 | |
Ch. 5 | Analysis Techniques | |
Sect. 1 | Non-linear dynamics | 411 |
Methods of non-linear dynamics | 413 | |
Heart rate variability and non-linear dynamics | 421 | |
Symbolic dynamics | 429 | |
Sect. 2 | Newer signal detection and analysis techniques | 439 |
Neural classification in high-resolution ECG signal processing | 441 | |
Cardiovascular system identification | 453 | |
Maximum likelihood analysis in ECG signal processing | 463 | |
What can cardiac computer models tell us about arrhythmogenesis | 471 | |
Index | 481 |
Login|Complaints|Blog|Games|Digital Media|Souls|Obituary|Contact Us|FAQ
CAN'T FIND WHAT YOU'RE LOOKING FOR? CLICK HERE!!! X
You must be logged in to add to WishlistX
This item is in your Wish ListX
This item is in your CollectionAdvances in Non-Invasive Electrocardiographic Monitoring Techniques
X
This Item is in Your InventoryAdvances in Non-Invasive Electrocardiographic Monitoring Techniques
X
You must be logged in to review the productsX
X
X
Add Advances in Non-Invasive Electrocardiographic Monitoring Techniques, Noninvasive electrocardiographic monitoring is a fundamental part of cardiology. Depending on continuous improvements and developments of new technologies, these methods are essential for diagnosis and risk stratification of patients. The rapid changes in, Advances in Non-Invasive Electrocardiographic Monitoring Techniques to the inventory that you are selling on WonderClubX
X
Add Advances in Non-Invasive Electrocardiographic Monitoring Techniques, Noninvasive electrocardiographic monitoring is a fundamental part of cardiology. Depending on continuous improvements and developments of new technologies, these methods are essential for diagnosis and risk stratification of patients. The rapid changes in, Advances in Non-Invasive Electrocardiographic Monitoring Techniques to your collection on WonderClub |