Mathematical Modelling in Motor Neuroscience: State of the Art and Translation to the Clinic. Ocular Motor Plant and Gaze Stabilization Mechanisms, Volume 248, the latest release in the Progress in Brain Research series, highlights new advances in the field, with this new volume presenting interesting chapters on a variety of topics, including Mathematical modeling in clinical and basic motor neuroscience, The math of medicine - the computational lessons learned from the human disease, Mathematical models - an extension of the clinician's mind, From differential equation to linear control systems: the study of the VOR, Closed lop and nonlinear systems, State-space equations and learning, Integrators and optimal control, and much more.
1. Cover image - p. iv 2. Title page - p. iv 3. Table of Contents - p. iv 4. Copyright - p. iv 5. Contributors - p. v 6. Miscellaneous - p. xxi 7. Preface - p. xxiii 8. Section I: View of the field: Past present and future - p. xxv 9. Chapter 1: Mathematical models and human disease - p. xxv 10. Chapter 2: Mathematical models: An extension of the clinician's mind - p. 18 11. Section II: Didactic: Modeling - p. 26 12. Chapter 3: Understanding the rotational vestibular ocular reflex: From differential equations to Laplace transforms - p. 26 13. Chapter 4: Integration of past and current visual information during eye movements in amblyopia - p. 44 14. Chapter 5: Mathematical models for dynamic, multisensory spatial orientation perception - p. 63 15. Section III: Didactic: Translational - p. 90 16. Chapter 6: Non-commutative, nonlinear, and non-analytic aspects of the ocular motor plant - p. 90 17. Chapter 7: Clinical applications of control systems models: The neural integrators for eye movements - p. 102 18. Section IV: Research: Plant and binocular control - p. 114 19. Chapter 8: Translation and eccentric rotation in ocular motor modeling - p. 114 20. Chapter 9: Extraocular muscles involved in convergence are innervated by an additional set of palisade endings that may differ in their excitability: A human study - p. 126 21. Chapter 10: On the retinal correspondences across the binocular visual field - p. 137 22. Chapter 11: Motion and binocular disparity processing: Two sides of two different coins - p. 156 23. Chapter 12: Non-linearity in gaze holding: Experimental results and possible mechanisms - p. 166 24. Chapter 13: Is infantile esotropia subcortical in origin? - p. 181 25. Section V: Research: Vestibular, balance, and postural control - p. 193 26. Chapter 14: The influence of target distance on perceptual self-motion thresholds and the vestibulo-ocular reflex during interaural translation - p. 193 27. Chapter 15: Spatial orientation: Model-based approach to multi-sensory mechanisms - p. 208 28. Chapter 16: Theoretical framework for “unexplained” dizziness in the elderly: The role of small vessel disease - p. 223 29. Chapter 17: The functional head impulse test: Comparing gain and percentage of correct answers - p. 240 30. Chapter 18: Vestibular roll tilt thresholds partially mediate age-related effects on balance - p. 248 31. Chapter 19: The velocity storage time constant: Balancing between accuracy and precision - p. 267 32. Chapter 20: Towards dynamic modeling of visual-vestibular conflict detection - p. 276 33. Chapter 21: A conceptual model of the visual control of posture - p. 284 34. Chapter 22: Computational neurology of gravity perception involving semicircular canal dysfunction in unilateral vestibular lesions - p. 302 35. Chapter 23: Effect of motor and sensory noise in the control of upright standing - p. 317 36. Chapter 24: Model of optokinetic responses involving two different visual motion processing pathways - p. 327
Mathematical Modelling in Motor Neuroscience: State of the Art and Translation to the Clinic. Ocular Motor Plant and Gaze Stabilization Mechanisms, Volume 248, the latest release in the Progress in Brain Research series, highlights new advances in the field, with this new volume presenting interesting chapters on a variety of topics, including Mathematical modeling in clinical and basic motor neuroscience, The math of medicine - the computational lessons learned from the human disease, Mathematical models - an extension of the clinician's mind, From differential equation to linear control systems: the study of the VOR, Closed lop and nonlinear systems, State-space equations and learning, Integrators and optimal control, and much more.
1. Cover image - p. iv 2. Title page - p. iv 3. Table of Contents - p. iv 4. Copyright - p. iv 5. Contributors - p. v 6. Miscellaneous - p. xxi 7. Preface - p. xxiii 8. Section I: View of the field: Past present and future - p. xxv 9. Chapter 1: Mathematical models and human disease - p. xxv 10. Chapter 2: Mathematical models: An extension of the clinician's mind - p. 18 11. Section II: Didactic: Modeling - p. 26 12. Chapter 3: Understanding the rotational vestibular ocular reflex: From differential equations to Laplace transforms - p. 26 13. Chapter 4: Integration of past and current visual information during eye movements in amblyopia - p. 44 14. Chapter 5: Mathematical models for dynamic, multisensory spatial orientation perception - p. 63 15. Section III: Didactic: Translational - p. 90 16. Chapter 6: Non-commutative, nonlinear, and non-analytic aspects of the ocular motor plant - p. 90 17. Chapter 7: Clinical applications of control systems models: The neural integrators for eye movements - p. 102 18. Section IV: Research: Plant and binocular control - p. 114 19. Chapter 8: Translation and eccentric rotation in ocular motor modeling - p. 114 20. Chapter 9: Extraocular muscles involved in convergence are innervated by an additional set of palisade endings that may differ in their excitability: A human study - p. 126 21. Chapter 10: On the retinal correspondences across the binocular visual field - p. 137 22. Chapter 11: Motion and binocular disparity processing: Two sides of two different coins - p. 156 23. Chapter 12: Non-linearity in gaze holding: Experimental results and possible mechanisms - p. 166 24. Chapter 13: Is infantile esotropia subcortical in origin? - p. 181 25. Section V: Research: Vestibular, balance, and postural control - p. 193 26. Chapter 14: The influence of target distance on perceptual self-motion thresholds and the vestibulo-ocular reflex during interaural translation - p. 193 27. Chapter 15: Spatial orientation: Model-based approach to multi-sensory mechanisms - p. 208 28. Chapter 16: Theoretical framework for “unexplained” dizziness in the elderly: The role of small vessel disease - p. 223 29. Chapter 17: The functional head impulse test: Comparing gain and percentage of correct answers - p. 240 30. Chapter 18: Vestibular roll tilt thresholds partially mediate age-related effects on balance - p. 248 31. Chapter 19: The velocity storage time constant: Balancing between accuracy and precision - p. 267 32. Chapter 20: Towards dynamic modeling of visual-vestibular conflict detection - p. 276 33. Chapter 21: A conceptual model of the visual control of posture - p. 284 34. Chapter 22: Computational neurology of gravity perception involving semicircular canal dysfunction in unilateral vestibular lesions - p. 302 35. Chapter 23: Effect of motor and sensory noise in the control of upright standing - p. 317 36. Chapter 24: Model of optokinetic responses involving two different visual motion processing pathways - p. 327
