�ݺ�ߣshows by User: JoeAntony14

�ݺ�ߣshows by User: JoeAntony14 / http://www.slideshare.net/images/logo.gif �ݺ�ߣshows by User: JoeAntony14 / Mon, 04 Nov 2024 13:19:50 GMT �ݺ�ߣShare feed for �ݺ�ߣshows by User: JoeAntony14 Osseo-Integrated Prosthesis for amputation /slideshow/osseo-integrated-prosthesis-for-amputation/273005663 osseo-integratedprosthesisoip-241104131950-f715eb27
Osseointegrated prostheses represent a significant advancement in prosthetic technology, offering a more natural and stable connection between the prosthesis and the residual limb. This technology involves the direct integration of a metal implant into the bone, which provides enhanced mobility and comfort compared to traditional socket-based prosthetics. The benefits of osseointegration include improved proprioception and a more intuitive limb movement, which can significantly enhance the quality of life for amputees. The following sections delve into various aspects of osseointegrated prostheses, including design considerations, safety measures, and clinical implications.]]>
Osseointegrated prostheses represent a significant advancement in prosthetic technology, offering a more natural and stable connection between the prosthesis and the residual limb. This technology involves the direct integration of a metal implant into the bone, which provides enhanced mobility and comfort compared to traditional socket-based prosthetics. The benefits of osseointegration include improved proprioception and a more intuitive limb movement, which can significantly enhance the quality of life for amputees. The following sections delve into various aspects of osseointegrated prostheses, including design considerations, safety measures, and clinical implications.]]> Mon, 04 Nov 2024 13:19:50 GMT /slideshow/osseo-integrated-prosthesis-for-amputation/273005663 JoeAntony14@slideshare.net(JoeAntony14) Osseo-Integrated Prosthesis for amputation JoeAntony14 Osseointegrated prostheses represent a significant advancement in prosthetic technology, offering a more natural and stable connection between the prosthesis and the residual limb. This technology involves the direct integration of a metal implant into the bone, which provides enhanced mobility and comfort compared to traditional socket-based prosthetics. The benefits of osseointegration include improved proprioception and a more intuitive limb movement, which can significantly enhance the quality of life for amputees. The following sections delve into various aspects of osseointegrated prostheses, including design considerations, safety measures, and clinical implications. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/osseo-integratedprosthesisoip-241104131950-f715eb27-thumbnail.jpg?width=120&height=120&fit=bounds" /> Osseointegrated prostheses represent a significant advancement in prosthetic technology, offering a more natural and stable connection between the prosthesis and the residual limb. This technology involves the direct integration of a metal implant into the bone, which provides enhanced mobility and comfort compared to traditional socket-based prosthetics. The benefits of osseointegration include improved proprioception and a more intuitive limb movement, which can significantly enhance the quality of life for amputees. The following sections delve into various aspects of osseointegrated prostheses, including design considerations, safety measures, and clinical implications.

Osseo-Integrated Prosthesis for amputation from Joe Antony

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0 Rehabilitation of disorders of consciousness /slideshow/rehabilitation-of-disorders-of-consciousness/272603955 rehabilitationofdisordersofconsciousness-241021134511-ba76bcb8
Rehabilitation plays a crucial role in the management of disorders of consciousness (DoC), which include conditions such as coma, unresponsive wakefulness syndrome, and minimally conscious state. These conditions often arise from severe brain injuries and present significant challenges in diagnosis and treatment. Rehabilitation aims to enhance recovery by employing various therapeutic strategies, although the effectiveness of specific interventions remains under investigation. The following sections outline key aspects of rehabilitation in DoC. Diagnostic and Therapeutic Approaches Accurate diagnosis is essential for effective rehabilitation planning. Tools like the Coma Recovery Scale-Revised (CRS-R) are used to assess consciousness levels and guide treatment decisions(Lippert & Guggisberg, 2023) (Woodward et al., 2023). Advanced neuroimaging and electrophysiological techniques are being explored to improve diagnostic accuracy and predict recovery outcomes(Lippert & Guggisberg, 2023). Multidisciplinary Rehabilitation A multidisciplinary team approach is recommended, involving neurologists, rehabilitation specialists, and family members to address the complex needs of DoC patients(Belkin et al., 2023). Early initiation of rehabilitation is crucial for maximizing recovery potential(Belkin et al., 2023). Therapeutic Interventions Pharmacological treatments, such as amantadine, have shown some evidence of improving consciousness in DoC patients(Bender et al., 2023). Non-pharmacological interventions, including sensory stimulation and positioning methods, are also employed, though robust evidence for their effectiveness is limited(Bender et al., 2023). Repetitive transcranial magnetic stimulation (rTMS) is being investigated for its potential to enhance recovery by stimulating brain function and supporting other rehabilitation methods(Formica et al., 2021). Challenges and Future Directions Misdiagnosis is common, highlighting the need for repeated assessments and standardized diagnostic tools(Bender et al., 2023). Further research is needed to establish the efficacy of various rehabilitation techniques and to develop comprehensive guidelines for the treatment of DoC(Formica et al., 2021). While rehabilitation offers hope for recovery in DoC patients, the field faces challenges such as inconsistent care standards and limited evidence for specific interventions. Continued research and development of evidence-based guidelines are essential to improve outcomes for this vulnerable population.]]>
Rehabilitation plays a crucial role in the management of disorders of consciousness (DoC), which include conditions such as coma, unresponsive wakefulness syndrome, and minimally conscious state. These conditions often arise from severe brain injuries and present significant challenges in diagnosis and treatment. Rehabilitation aims to enhance recovery by employing various therapeutic strategies, although the effectiveness of specific interventions remains under investigation. The following sections outline key aspects of rehabilitation in DoC. Diagnostic and Therapeutic Approaches Accurate diagnosis is essential for effective rehabilitation planning. Tools like the Coma Recovery Scale-Revised (CRS-R) are used to assess consciousness levels and guide treatment decisions(Lippert & Guggisberg, 2023) (Woodward et al., 2023). Advanced neuroimaging and electrophysiological techniques are being explored to improve diagnostic accuracy and predict recovery outcomes(Lippert & Guggisberg, 2023). Multidisciplinary Rehabilitation A multidisciplinary team approach is recommended, involving neurologists, rehabilitation specialists, and family members to address the complex needs of DoC patients(Belkin et al., 2023). Early initiation of rehabilitation is crucial for maximizing recovery potential(Belkin et al., 2023). Therapeutic Interventions Pharmacological treatments, such as amantadine, have shown some evidence of improving consciousness in DoC patients(Bender et al., 2023). Non-pharmacological interventions, including sensory stimulation and positioning methods, are also employed, though robust evidence for their effectiveness is limited(Bender et al., 2023). Repetitive transcranial magnetic stimulation (rTMS) is being investigated for its potential to enhance recovery by stimulating brain function and supporting other rehabilitation methods(Formica et al., 2021). Challenges and Future Directions Misdiagnosis is common, highlighting the need for repeated assessments and standardized diagnostic tools(Bender et al., 2023). Further research is needed to establish the efficacy of various rehabilitation techniques and to develop comprehensive guidelines for the treatment of DoC(Formica et al., 2021). While rehabilitation offers hope for recovery in DoC patients, the field faces challenges such as inconsistent care standards and limited evidence for specific interventions. Continued research and development of evidence-based guidelines are essential to improve outcomes for this vulnerable population.]]> Mon, 21 Oct 2024 13:45:11 GMT /slideshow/rehabilitation-of-disorders-of-consciousness/272603955 JoeAntony14@slideshare.net(JoeAntony14) Rehabilitation of disorders of consciousness JoeAntony14 Rehabilitation plays a crucial role in the management of disorders of consciousness (DoC), which include conditions such as coma, unresponsive wakefulness syndrome, and minimally conscious state. These conditions often arise from severe brain injuries and present significant challenges in diagnosis and treatment. Rehabilitation aims to enhance recovery by employing various therapeutic strategies, although the effectiveness of specific interventions remains under investigation. The following sections outline key aspects of rehabilitation in DoC. Diagnostic and Therapeutic Approaches Accurate diagnosis is essential for effective rehabilitation planning. Tools like the Coma Recovery Scale-Revised (CRS-R) are used to assess consciousness levels and guide treatment decisions(Lippert & Guggisberg, 2023) (Woodward et al., 2023). Advanced neuroimaging and electrophysiological techniques are being explored to improve diagnostic accuracy and predict recovery outcomes(Lippert & Guggisberg, 2023). Multidisciplinary Rehabilitation A multidisciplinary team approach is recommended, involving neurologists, rehabilitation specialists, and family members to address the complex needs of DoC patients(Belkin et al., 2023). Early initiation of rehabilitation is crucial for maximizing recovery potential(Belkin et al., 2023). Therapeutic Interventions Pharmacological treatments, such as amantadine, have shown some evidence of improving consciousness in DoC patients(Bender et al., 2023). Non-pharmacological interventions, including sensory stimulation and positioning methods, are also employed, though robust evidence for their effectiveness is limited(Bender et al., 2023). Repetitive transcranial magnetic stimulation (rTMS) is being investigated for its potential to enhance recovery by stimulating brain function and supporting other rehabilitation methods(Formica et al., 2021). Challenges and Future Directions Misdiagnosis is common, highlighting the need for repeated assessments and standardized diagnostic tools(Bender et al., 2023). Further research is needed to establish the efficacy of various rehabilitation techniques and to develop comprehensive guidelines for the treatment of DoC(Formica et al., 2021). While rehabilitation offers hope for recovery in DoC patients, the field faces challenges such as inconsistent care standards and limited evidence for specific interventions. Continued research and development of evidence-based guidelines are essential to improve outcomes for this vulnerable population. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/rehabilitationofdisordersofconsciousness-241021134511-ba76bcb8-thumbnail.jpg?width=120&height=120&fit=bounds" /> Rehabilitation plays a crucial role in the management of disorders of consciousness (DoC), which include conditions such as coma, unresponsive wakefulness syndrome, and minimally conscious state. These conditions often arise from severe brain injuries and present significant challenges in diagnosis and treatment. Rehabilitation aims to enhance recovery by employing various therapeutic strategies, although the effectiveness of specific interventions remains under investigation. The following sections outline key aspects of rehabilitation in DoC. Diagnostic and Therapeutic Approaches Accurate diagnosis is essential for effective rehabilitation planning. Tools like the Coma Recovery Scale-Revised (CRS-R) are used to assess consciousness levels and guide treatment decisions(Lippert & Guggisberg, 2023) (Woodward et al., 2023). Advanced neuroimaging and electrophysiological techniques are being explored to improve diagnostic accuracy and predict recovery outcomes(Lippert & Guggisberg, 2023). Multidisciplinary Rehabilitation A multidisciplinary team approach is recommended, involving neurologists, rehabilitation specialists, and family members to address the complex needs of DoC patients(Belkin et al., 2023). Early initiation of rehabilitation is crucial for maximizing recovery potential(Belkin et al., 2023). Therapeutic Interventions Pharmacological treatments, such as amantadine, have shown some evidence of improving consciousness in DoC patients(Bender et al., 2023). Non-pharmacological interventions, including sensory stimulation and positioning methods, are also employed, though robust evidence for their effectiveness is limited(Bender et al., 2023). Repetitive transcranial magnetic stimulation (rTMS) is being investigated for its potential to enhance recovery by stimulating brain function and supporting other rehabilitation methods(Formica et al., 2021). Challenges and Future Directions Misdiagnosis is common, highlighting the need for repeated assessments and standardized diagnostic tools(Bender et al., 2023). Further research is needed to establish the efficacy of various rehabilitation techniques and to develop comprehensive guidelines for the treatment of DoC(Formica et al., 2021). While rehabilitation offers hope for recovery in DoC patients, the field faces challenges such as inconsistent care standards and limited evidence for specific interventions. Continued research and development of evidence-based guidelines are essential to improve outcomes for this vulnerable population.

Rehabilitation of disorders of consciousness from Joe Antony

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0 Total hip replacement rehabilitation (THR) /slideshow/total-hip-replacement-rehabilitation-thr/270670917 totalhipreplacementrehabilitation-240801160254-6f03d32d
Rehabilitation following total hip replacement (THR) is a multifaceted process aimed at restoring patients' mobility and quality of life. Post-operative rehabilitation is crucial as patients often exhibit abnormal gait patterns that do not naturally revert to normal, which can increase the risk of osteoarthrosis in adjacent joints. Effective rehabilitation involves imprinting correct gait patterns in long-term memory, and visual feedback has been shown to significantly improve mental representation of gait, enhancing recovery outcomes . Additionally, walking rehabilitation is highly recommended, but patients must control the weight load on their limbs, which can be challenging. A proposed monitoring system embedded in customized shoes, which includes pressure sensors and a smartphone application, helps patients manage weight load and gait, providing real-time feedback and alerts to prevent excessive weight bearing and falls . The development of rehabilitation guidelines, often based on consensus processes due to limited scientific evidence, assists healthcare teams in making informed decisions about post-operative care, ensuring consistency and safety in practice . Rehabilitation aims to enable patients to use their residual abilities effectively, promoting personal autonomy and a fulfilling life. This process involves not only physical recovery but also cognitive, social, and psychological support, aligning with the World Health Organization's comprehensive definition of rehabilitation . Innovative devices like the Therapeutic Hand Robot (THR), which uses electromechanical-assisted exercises and voice-activated commands, exemplify advancements in rehabilitation technology, offering home-based tele-rehabilitation options that reduce healthcare costs and waiting lists . Overall, the integration of advanced technologies, evidence-based guidelines, and holistic rehabilitation approaches is essential for optimizing recovery and enhancing the quality of life for THR patients.]]>
Rehabilitation following total hip replacement (THR) is a multifaceted process aimed at restoring patients' mobility and quality of life. Post-operative rehabilitation is crucial as patients often exhibit abnormal gait patterns that do not naturally revert to normal, which can increase the risk of osteoarthrosis in adjacent joints. Effective rehabilitation involves imprinting correct gait patterns in long-term memory, and visual feedback has been shown to significantly improve mental representation of gait, enhancing recovery outcomes . Additionally, walking rehabilitation is highly recommended, but patients must control the weight load on their limbs, which can be challenging. A proposed monitoring system embedded in customized shoes, which includes pressure sensors and a smartphone application, helps patients manage weight load and gait, providing real-time feedback and alerts to prevent excessive weight bearing and falls . The development of rehabilitation guidelines, often based on consensus processes due to limited scientific evidence, assists healthcare teams in making informed decisions about post-operative care, ensuring consistency and safety in practice . Rehabilitation aims to enable patients to use their residual abilities effectively, promoting personal autonomy and a fulfilling life. This process involves not only physical recovery but also cognitive, social, and psychological support, aligning with the World Health Organization's comprehensive definition of rehabilitation . Innovative devices like the Therapeutic Hand Robot (THR), which uses electromechanical-assisted exercises and voice-activated commands, exemplify advancements in rehabilitation technology, offering home-based tele-rehabilitation options that reduce healthcare costs and waiting lists . Overall, the integration of advanced technologies, evidence-based guidelines, and holistic rehabilitation approaches is essential for optimizing recovery and enhancing the quality of life for THR patients.]]> Thu, 01 Aug 2024 16:02:54 GMT /slideshow/total-hip-replacement-rehabilitation-thr/270670917 JoeAntony14@slideshare.net(JoeAntony14) Total hip replacement rehabilitation (THR) JoeAntony14 Rehabilitation following total hip replacement (THR) is a multifaceted process aimed at restoring patients' mobility and quality of life. Post-operative rehabilitation is crucial as patients often exhibit abnormal gait patterns that do not naturally revert to normal, which can increase the risk of osteoarthrosis in adjacent joints. Effective rehabilitation involves imprinting correct gait patterns in long-term memory, and visual feedback has been shown to significantly improve mental representation of gait, enhancing recovery outcomes . Additionally, walking rehabilitation is highly recommended, but patients must control the weight load on their limbs, which can be challenging. A proposed monitoring system embedded in customized shoes, which includes pressure sensors and a smartphone application, helps patients manage weight load and gait, providing real-time feedback and alerts to prevent excessive weight bearing and falls . The development of rehabilitation guidelines, often based on consensus processes due to limited scientific evidence, assists healthcare teams in making informed decisions about post-operative care, ensuring consistency and safety in practice . Rehabilitation aims to enable patients to use their residual abilities effectively, promoting personal autonomy and a fulfilling life. This process involves not only physical recovery but also cognitive, social, and psychological support, aligning with the World Health Organization's comprehensive definition of rehabilitation . Innovative devices like the Therapeutic Hand Robot (THR), which uses electromechanical-assisted exercises and voice-activated commands, exemplify advancements in rehabilitation technology, offering home-based tele-rehabilitation options that reduce healthcare costs and waiting lists . Overall, the integration of advanced technologies, evidence-based guidelines, and holistic rehabilitation approaches is essential for optimizing recovery and enhancing the quality of life for THR patients. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/totalhipreplacementrehabilitation-240801160254-6f03d32d-thumbnail.jpg?width=120&height=120&fit=bounds" /> Rehabilitation following total hip replacement (THR) is a multifaceted process aimed at restoring patients' mobility and quality of life. Post-operative rehabilitation is crucial as patients often exhibit abnormal gait patterns that do not naturally revert to normal, which can increase the risk of osteoarthrosis in adjacent joints. Effective rehabilitation involves imprinting correct gait patterns in long-term memory, and visual feedback has been shown to significantly improve mental representation of gait, enhancing recovery outcomes . Additionally, walking rehabilitation is highly recommended, but patients must control the weight load on their limbs, which can be challenging. A proposed monitoring system embedded in customized shoes, which includes pressure sensors and a smartphone application, helps patients manage weight load and gait, providing real-time feedback and alerts to prevent excessive weight bearing and falls . The development of rehabilitation guidelines, often based on consensus processes due to limited scientific evidence, assists healthcare teams in making informed decisions about post-operative care, ensuring consistency and safety in practice . Rehabilitation aims to enable patients to use their residual abilities effectively, promoting personal autonomy and a fulfilling life. This process involves not only physical recovery but also cognitive, social, and psychological support, aligning with the World Health Organization's comprehensive definition of rehabilitation . Innovative devices like the Therapeutic Hand Robot (THR), which uses electromechanical-assisted exercises and voice-activated commands, exemplify advancements in rehabilitation technology, offering home-based tele-rehabilitation options that reduce healthcare costs and waiting lists . Overall, the integration of advanced technologies, evidence-based guidelines, and holistic rehabilitation approaches is essential for optimizing recovery and enhancing the quality of life for THR patients.

Total hip replacement rehabilitation (THR) from Joe Antony

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0 Total knee arthroplasty rehabilitation ( TKR ) /slideshow/total-knee-arthroplasty-rehabilitation-tkr/270670585 totalkneearthroplastyrehabilitation-240801154522-721cb967
Rehabilitation following total knee replacement (TKR) is crucial for optimizing patient outcomes and involves various approaches and intensities. A study in England highlighted that rehabilitation typically begins with pre-operative education and continues with inpatient physiotherapy starting on the first post-operative day, often extending into outpatient, community, or home settings for the first four weeks after discharge. However, the rehabilitation provided for revision TKR is often the same as for primary TKR, despite the need for tailored programs to improve outcomes . Korean rehabilitation treatments, including acupuncture, electro-acupuncture, and various cupping therapies, have shown significant improvements in pain relief and knee range of motion (ROM) for post-TKR patients, suggesting their potential effectiveness in enhancing recovery . Additionally, combining cryotherapy and electrical stimulation with therapeutic exercises has been proven to improve joint mobility, reduce pain, and enhance microcirculation, leading to better functional outcomes and increased ability to perform daily activities . Telerehabilitation programs, such as TheraNow, have also demonstrated high patient satisfaction and effectiveness, with a Net Promoter Score significantly above the national average, indicating that patients are likely to recommend these programs to others . Furthermore, high-intensity (HI) rehabilitation programs have been found to provide superior functional gains and patient-reported outcomes compared to low-intensity (LI) programs, with long-term benefits observed up to 12 months post-operation, although both HI and LI programs are effective . Overall, these findings underscore the importance of a comprehensive and possibly individualized rehabilitation approach to maximize recovery and functional outcomes following TKR.]]>
Rehabilitation following total knee replacement (TKR) is crucial for optimizing patient outcomes and involves various approaches and intensities. A study in England highlighted that rehabilitation typically begins with pre-operative education and continues with inpatient physiotherapy starting on the first post-operative day, often extending into outpatient, community, or home settings for the first four weeks after discharge. However, the rehabilitation provided for revision TKR is often the same as for primary TKR, despite the need for tailored programs to improve outcomes . Korean rehabilitation treatments, including acupuncture, electro-acupuncture, and various cupping therapies, have shown significant improvements in pain relief and knee range of motion (ROM) for post-TKR patients, suggesting their potential effectiveness in enhancing recovery . Additionally, combining cryotherapy and electrical stimulation with therapeutic exercises has been proven to improve joint mobility, reduce pain, and enhance microcirculation, leading to better functional outcomes and increased ability to perform daily activities . Telerehabilitation programs, such as TheraNow, have also demonstrated high patient satisfaction and effectiveness, with a Net Promoter Score significantly above the national average, indicating that patients are likely to recommend these programs to others . Furthermore, high-intensity (HI) rehabilitation programs have been found to provide superior functional gains and patient-reported outcomes compared to low-intensity (LI) programs, with long-term benefits observed up to 12 months post-operation, although both HI and LI programs are effective . Overall, these findings underscore the importance of a comprehensive and possibly individualized rehabilitation approach to maximize recovery and functional outcomes following TKR.]]> Thu, 01 Aug 2024 15:45:22 GMT /slideshow/total-knee-arthroplasty-rehabilitation-tkr/270670585 JoeAntony14@slideshare.net(JoeAntony14) Total knee arthroplasty rehabilitation ( TKR ) JoeAntony14 Rehabilitation following total knee replacement (TKR) is crucial for optimizing patient outcomes and involves various approaches and intensities. A study in England highlighted that rehabilitation typically begins with pre-operative education and continues with inpatient physiotherapy starting on the first post-operative day, often extending into outpatient, community, or home settings for the first four weeks after discharge. However, the rehabilitation provided for revision TKR is often the same as for primary TKR, despite the need for tailored programs to improve outcomes . Korean rehabilitation treatments, including acupuncture, electro-acupuncture, and various cupping therapies, have shown significant improvements in pain relief and knee range of motion (ROM) for post-TKR patients, suggesting their potential effectiveness in enhancing recovery . Additionally, combining cryotherapy and electrical stimulation with therapeutic exercises has been proven to improve joint mobility, reduce pain, and enhance microcirculation, leading to better functional outcomes and increased ability to perform daily activities . Telerehabilitation programs, such as TheraNow, have also demonstrated high patient satisfaction and effectiveness, with a Net Promoter Score significantly above the national average, indicating that patients are likely to recommend these programs to others . Furthermore, high-intensity (HI) rehabilitation programs have been found to provide superior functional gains and patient-reported outcomes compared to low-intensity (LI) programs, with long-term benefits observed up to 12 months post-operation, although both HI and LI programs are effective . Overall, these findings underscore the importance of a comprehensive and possibly individualized rehabilitation approach to maximize recovery and functional outcomes following TKR. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/totalkneearthroplastyrehabilitation-240801154522-721cb967-thumbnail.jpg?width=120&height=120&fit=bounds" /> Rehabilitation following total knee replacement (TKR) is crucial for optimizing patient outcomes and involves various approaches and intensities. A study in England highlighted that rehabilitation typically begins with pre-operative education and continues with inpatient physiotherapy starting on the first post-operative day, often extending into outpatient, community, or home settings for the first four weeks after discharge. However, the rehabilitation provided for revision TKR is often the same as for primary TKR, despite the need for tailored programs to improve outcomes . Korean rehabilitation treatments, including acupuncture, electro-acupuncture, and various cupping therapies, have shown significant improvements in pain relief and knee range of motion (ROM) for post-TKR patients, suggesting their potential effectiveness in enhancing recovery . Additionally, combining cryotherapy and electrical stimulation with therapeutic exercises has been proven to improve joint mobility, reduce pain, and enhance microcirculation, leading to better functional outcomes and increased ability to perform daily activities . Telerehabilitation programs, such as TheraNow, have also demonstrated high patient satisfaction and effectiveness, with a Net Promoter Score significantly above the national average, indicating that patients are likely to recommend these programs to others . Furthermore, high-intensity (HI) rehabilitation programs have been found to provide superior functional gains and patient-reported outcomes compared to low-intensity (LI) programs, with long-term benefits observed up to 12 months post-operation, although both HI and LI programs are effective . Overall, these findings underscore the importance of a comprehensive and possibly individualized rehabilitation approach to maximize recovery and functional outcomes following TKR.

Total knee arthroplasty rehabilitation ( TKR ) from Joe Antony

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0 Rehabilitation of movement disorders and Parkinson's disease /slideshow/rehabilitation-of-movement-disorders-and-parkinson-s-disease/269942776 rehabilitationofdegenerativemovementdisorders-240628101632-096a4721
Parkinsonism is one of the most common movement disorders and may be the clinical manifestation of a variety of neurodegenerative, structural, toxic, metabolic, infectious, and vascular disorders. Since therapy and prognosis diff er considerably between diff erent forms of parkinsonism, an early correct diagnosis is of great clinical signifi cance but may be challenging on clinical grounds alone. Ancillary tests for enhancement of diagnostic accuracy include drug-challenge testing to assess dopaminergic responsiveness, neuroimaging to evaluate nigrostriatal presynaptic dopaminergic function or evidence for structural abnormalities, and genetic testing to identify common genetic subtypes of Parkinson’s disease. Th erapeutic management of parkinsonism mainly depends on the underlying pathology. Levodopa is the single most eff ective way to treat the motor symptoms of Parkinson’s disease, but it may also be at least partially effective in other types of parkinsonism, so that a trial with levodopa will be part of the treatment approach in most patients presenting with parkinsonism. Parkinsonism is one of the most common movement disorders among the elderly. Published reports on the prevalence of parkinsonism estimate a range of 2–15% in the population aged over 65.]]>
Parkinsonism is one of the most common movement disorders and may be the clinical manifestation of a variety of neurodegenerative, structural, toxic, metabolic, infectious, and vascular disorders. Since therapy and prognosis diff er considerably between diff erent forms of parkinsonism, an early correct diagnosis is of great clinical signifi cance but may be challenging on clinical grounds alone. Ancillary tests for enhancement of diagnostic accuracy include drug-challenge testing to assess dopaminergic responsiveness, neuroimaging to evaluate nigrostriatal presynaptic dopaminergic function or evidence for structural abnormalities, and genetic testing to identify common genetic subtypes of Parkinson’s disease. Th erapeutic management of parkinsonism mainly depends on the underlying pathology. Levodopa is the single most eff ective way to treat the motor symptoms of Parkinson’s disease, but it may also be at least partially effective in other types of parkinsonism, so that a trial with levodopa will be part of the treatment approach in most patients presenting with parkinsonism. Parkinsonism is one of the most common movement disorders among the elderly. Published reports on the prevalence of parkinsonism estimate a range of 2–15% in the population aged over 65.]]> Fri, 28 Jun 2024 10:16:32 GMT /slideshow/rehabilitation-of-movement-disorders-and-parkinson-s-disease/269942776 JoeAntony14@slideshare.net(JoeAntony14) Rehabilitation of movement disorders and Parkinson's disease JoeAntony14 Parkinsonism is one of the most common movement disorders and may be the clinical manifestation of a variety of neurodegenerative, structural, toxic, metabolic, infectious, and vascular disorders. Since therapy and prognosis diff er considerably between diff erent forms of parkinsonism, an early correct diagnosis is of great clinical signifi cance but may be challenging on clinical grounds alone. Ancillary tests for enhancement of diagnostic accuracy include drug-challenge testing to assess dopaminergic responsiveness, neuroimaging to evaluate nigrostriatal presynaptic dopaminergic function or evidence for structural abnormalities, and genetic testing to identify common genetic subtypes of Parkinson’s disease. Th erapeutic management of parkinsonism mainly depends on the underlying pathology. Levodopa is the single most eff ective way to treat the motor symptoms of Parkinson’s disease, but it may also be at least partially effective in other types of parkinsonism, so that a trial with levodopa will be part of the treatment approach in most patients presenting with parkinsonism. Parkinsonism is one of the most common movement disorders among the elderly. Published reports on the prevalence of parkinsonism estimate a range of 2–15% in the population aged over 65. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/rehabilitationofdegenerativemovementdisorders-240628101632-096a4721-thumbnail.jpg?width=120&height=120&fit=bounds" /> Parkinsonism is one of the most common movement disorders and may be the clinical manifestation of a variety of neurodegenerative, structural, toxic, metabolic, infectious, and vascular disorders. Since therapy and prognosis diff er considerably between diff erent forms of parkinsonism, an early correct diagnosis is of great clinical signifi cance but may be challenging on clinical grounds alone. Ancillary tests for enhancement of diagnostic accuracy include drug-challenge testing to assess dopaminergic responsiveness, neuroimaging to evaluate nigrostriatal presynaptic dopaminergic function or evidence for structural abnormalities, and genetic testing to identify common genetic subtypes of Parkinson’s disease. Th erapeutic management of parkinsonism mainly depends on the underlying pathology. Levodopa is the single most eff ective way to treat the motor symptoms of Parkinson’s disease, but it may also be at least partially effective in other types of parkinsonism, so that a trial with levodopa will be part of the treatment approach in most patients presenting with parkinsonism. Parkinsonism is one of the most common movement disorders among the elderly. Published reports on the prevalence of parkinsonism estimate a range of 2–15% in the population aged over 65.

Rehabilitation of movement disorders and Parkinson's disease from Joe Antony

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0 Minimally invasive pain and spine interventions for low back pain /slideshow/minimally-invasive-pain-and-spine-interventions-for-low-back-pain/269711984 mipsibackpain-240616173738-885c4552
Minimally invasive interventions for managing chronic spine pain have shown promising results in recent research. Studies have highlighted the effectiveness of various techniques such as radiofrequency ablation, biologic therapies, and multifidus muscle stimulation in providing significant and durable improvements in pain and disability for chronic low back pain patients . Additionally, pain interventional therapy, including neuroregulation and spinal cord electrical stimulation, has emerged as a cost-effective and efficient alternative to traditional surgical methods, offering effective solutions for conditions like post-herpetic neuralgia, complex regional pain syndrome, and disc herniation . Furthermore, personalized clinical care protocols rooted in validated pain generators have been identified as successful approaches for treating patients with lumbar spinal stenosis, emphasizing the importance of targeted surgical pain management therapies in enhancing patient outcomes and reducing complications.]]>
Minimally invasive interventions for managing chronic spine pain have shown promising results in recent research. Studies have highlighted the effectiveness of various techniques such as radiofrequency ablation, biologic therapies, and multifidus muscle stimulation in providing significant and durable improvements in pain and disability for chronic low back pain patients . Additionally, pain interventional therapy, including neuroregulation and spinal cord electrical stimulation, has emerged as a cost-effective and efficient alternative to traditional surgical methods, offering effective solutions for conditions like post-herpetic neuralgia, complex regional pain syndrome, and disc herniation . Furthermore, personalized clinical care protocols rooted in validated pain generators have been identified as successful approaches for treating patients with lumbar spinal stenosis, emphasizing the importance of targeted surgical pain management therapies in enhancing patient outcomes and reducing complications.]]> Sun, 16 Jun 2024 17:37:38 GMT /slideshow/minimally-invasive-pain-and-spine-interventions-for-low-back-pain/269711984 JoeAntony14@slideshare.net(JoeAntony14) Minimally invasive pain and spine interventions for low back pain JoeAntony14 Minimally invasive interventions for managing chronic spine pain have shown promising results in recent research. Studies have highlighted the effectiveness of various techniques such as radiofrequency ablation, biologic therapies, and multifidus muscle stimulation in providing significant and durable improvements in pain and disability for chronic low back pain patients . Additionally, pain interventional therapy, including neuroregulation and spinal cord electrical stimulation, has emerged as a cost-effective and efficient alternative to traditional surgical methods, offering effective solutions for conditions like post-herpetic neuralgia, complex regional pain syndrome, and disc herniation . Furthermore, personalized clinical care protocols rooted in validated pain generators have been identified as successful approaches for treating patients with lumbar spinal stenosis, emphasizing the importance of targeted surgical pain management therapies in enhancing patient outcomes and reducing complications. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/mipsibackpain-240616173738-885c4552-thumbnail.jpg?width=120&height=120&fit=bounds" /> Minimally invasive interventions for managing chronic spine pain have shown promising results in recent research. Studies have highlighted the effectiveness of various techniques such as radiofrequency ablation, biologic therapies, and multifidus muscle stimulation in providing significant and durable improvements in pain and disability for chronic low back pain patients . Additionally, pain interventional therapy, including neuroregulation and spinal cord electrical stimulation, has emerged as a cost-effective and efficient alternative to traditional surgical methods, offering effective solutions for conditions like post-herpetic neuralgia, complex regional pain syndrome, and disc herniation . Furthermore, personalized clinical care protocols rooted in validated pain generators have been identified as successful approaches for treating patients with lumbar spinal stenosis, emphasizing the importance of targeted surgical pain management therapies in enhancing patient outcomes and reducing complications.

Minimally invasive pain and spine interventions for low back pain from Joe Antony

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0 Osteoarthritis knee- introduction and approach /slideshow/osteoarthritis-knee-introduction-and-approach/268240511 oaknee-240513144044-2b346699
Osteoarthritis (OA) of the knee is a degenerative joint disorder characterized by structural changes like cartilage loss, synovial inflammation, and bone remodeling . Knee OA commonly affects daily activities due to symptoms like joint pain and stiffness, impacting functional abilities . Various factors contribute to knee OA development, including mechanical, enzymatic, and biological factors . In knee OA patients, proinflammatory cytokines like IL-6 and TNF-α have been found to correlate with functional impairment assessed by WOMAC scores, indicating a potential impact on knee joint function . Understanding the interplay between aging and knee OA is crucial, as aging processes can exacerbate the degenerative changes in the knee joint, leading to functional limitations . Evaluating patients' perspectives on knee OA management through instruments like the Knee Outcome Survey Activity Daily Living Scale (KOS-ADLS) is essential for assessing the success of interventions]]>
Osteoarthritis (OA) of the knee is a degenerative joint disorder characterized by structural changes like cartilage loss, synovial inflammation, and bone remodeling . Knee OA commonly affects daily activities due to symptoms like joint pain and stiffness, impacting functional abilities . Various factors contribute to knee OA development, including mechanical, enzymatic, and biological factors . In knee OA patients, proinflammatory cytokines like IL-6 and TNF-α have been found to correlate with functional impairment assessed by WOMAC scores, indicating a potential impact on knee joint function . Understanding the interplay between aging and knee OA is crucial, as aging processes can exacerbate the degenerative changes in the knee joint, leading to functional limitations . Evaluating patients' perspectives on knee OA management through instruments like the Knee Outcome Survey Activity Daily Living Scale (KOS-ADLS) is essential for assessing the success of interventions]]> Mon, 13 May 2024 14:40:44 GMT /slideshow/osteoarthritis-knee-introduction-and-approach/268240511 JoeAntony14@slideshare.net(JoeAntony14) Osteoarthritis knee- introduction and approach JoeAntony14 Osteoarthritis (OA) of the knee is a degenerative joint disorder characterized by structural changes like cartilage loss, synovial inflammation, and bone remodeling . Knee OA commonly affects daily activities due to symptoms like joint pain and stiffness, impacting functional abilities . Various factors contribute to knee OA development, including mechanical, enzymatic, and biological factors . In knee OA patients, proinflammatory cytokines like IL-6 and TNF-α have been found to correlate with functional impairment assessed by WOMAC scores, indicating a potential impact on knee joint function . Understanding the interplay between aging and knee OA is crucial, as aging processes can exacerbate the degenerative changes in the knee joint, leading to functional limitations . Evaluating patients' perspectives on knee OA management through instruments like the Knee Outcome Survey Activity Daily Living Scale (KOS-ADLS) is essential for assessing the success of interventions <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/oaknee-240513144044-2b346699-thumbnail.jpg?width=120&height=120&fit=bounds" /> Osteoarthritis (OA) of the knee is a degenerative joint disorder characterized by structural changes like cartilage loss, synovial inflammation, and bone remodeling . Knee OA commonly affects daily activities due to symptoms like joint pain and stiffness, impacting functional abilities . Various factors contribute to knee OA development, including mechanical, enzymatic, and biological factors . In knee OA patients, proinflammatory cytokines like IL-6 and TNF-α have been found to correlate with functional impairment assessed by WOMAC scores, indicating a potential impact on knee joint function . Understanding the interplay between aging and knee OA is crucial, as aging processes can exacerbate the degenerative changes in the knee joint, leading to functional limitations . Evaluating patients' perspectives on knee OA management through instruments like the Knee Outcome Survey Activity Daily Living Scale (KOS-ADLS) is essential for assessing the success of interventions

Osteoarthritis knee- introduction and approach from Joe Antony

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0 Gait deviations in Transtibial prosthesis users /slideshow/gait-deviations-in-transtibial-prosthesis-users/268239933 gaitdeviationsintranstibialprosthesisusers-240513143353-ab765d62
Gait deviations in transtibial amputations involve altered biomechanics and asymmetries. Research highlights that spatiotemporal gait parameters are affected, with reduced propulsive force, knee extension moment, and increased knee abduction moment in the amputated leg. Additionally, individuals with transtibial amputations exhibit shorter stance times, longer swing times, and larger step lengths compared to able-bodied individuals. These deviations can lead to asymmetrical loads, potentially causing issues like osteoarthritis or lower back pain. Furthermore, gait asymmetry in transtibial amputees is associated with poor functional outcomes, impacting performance-based physical function tests like the Timed Up and Go, the 10-Meter Walk Test, and the 6-Minute Walk Test. Understanding these gait abnormalities is crucial for tailored interventions and prosthetic design to improve outcomes for individuals with transtibial amputations.]]>
Gait deviations in transtibial amputations involve altered biomechanics and asymmetries. Research highlights that spatiotemporal gait parameters are affected, with reduced propulsive force, knee extension moment, and increased knee abduction moment in the amputated leg. Additionally, individuals with transtibial amputations exhibit shorter stance times, longer swing times, and larger step lengths compared to able-bodied individuals. These deviations can lead to asymmetrical loads, potentially causing issues like osteoarthritis or lower back pain. Furthermore, gait asymmetry in transtibial amputees is associated with poor functional outcomes, impacting performance-based physical function tests like the Timed Up and Go, the 10-Meter Walk Test, and the 6-Minute Walk Test. Understanding these gait abnormalities is crucial for tailored interventions and prosthetic design to improve outcomes for individuals with transtibial amputations.]]> Mon, 13 May 2024 14:33:53 GMT /slideshow/gait-deviations-in-transtibial-prosthesis-users/268239933 JoeAntony14@slideshare.net(JoeAntony14) Gait deviations in Transtibial prosthesis users JoeAntony14 Gait deviations in transtibial amputations involve altered biomechanics and asymmetries. Research highlights that spatiotemporal gait parameters are affected, with reduced propulsive force, knee extension moment, and increased knee abduction moment in the amputated leg. Additionally, individuals with transtibial amputations exhibit shorter stance times, longer swing times, and larger step lengths compared to able-bodied individuals. These deviations can lead to asymmetrical loads, potentially causing issues like osteoarthritis or lower back pain. Furthermore, gait asymmetry in transtibial amputees is associated with poor functional outcomes, impacting performance-based physical function tests like the Timed Up and Go, the 10-Meter Walk Test, and the 6-Minute Walk Test. Understanding these gait abnormalities is crucial for tailored interventions and prosthetic design to improve outcomes for individuals with transtibial amputations. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/gaitdeviationsintranstibialprosthesisusers-240513143353-ab765d62-thumbnail.jpg?width=120&height=120&fit=bounds" /> Gait deviations in transtibial amputations involve altered biomechanics and asymmetries. Research highlights that spatiotemporal gait parameters are affected, with reduced propulsive force, knee extension moment, and increased knee abduction moment in the amputated leg. Additionally, individuals with transtibial amputations exhibit shorter stance times, longer swing times, and larger step lengths compared to able-bodied individuals. These deviations can lead to asymmetrical loads, potentially causing issues like osteoarthritis or lower back pain. Furthermore, gait asymmetry in transtibial amputees is associated with poor functional outcomes, impacting performance-based physical function tests like the Timed Up and Go, the 10-Meter Walk Test, and the 6-Minute Walk Test. Understanding these gait abnormalities is crucial for tailored interventions and prosthetic design to improve outcomes for individuals with transtibial amputations.

Gait deviations in Transtibial prosthesis users from Joe Antony

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0 Basics of electro myo graphy study (EMG) /slideshow/basics-of-electro-myo-graphy-study-emg/268103190 basicsofelectromyographyemg-240512082509-7f61d737
Electromyography (EMG) is a vital technique in the field of bioelectrical signal analysis. It involves capturing muscle activity through surface or needle electrodes for diagnostic purposes. EMG signals can be analyzed to detect various muscle conditions, such as myopathic or neuropathic lesions, using numerical parameters. The spatial frequency bandwidth of surface EMG signals is crucial for detailed muscle activity reconstruction, with appropriate inter-electrode distances being essential for accurate mapping. In the context of neuro-monitoring, EMG plays a role in intra-operative detection of adverse events and predicting postoperative outcomes, especially when used complementarily with other modalities like motor evoked potentials. Overall, EMG serves as a valuable tool for understanding muscle function, diagnosing muscle disorders, and enhancing neuro-monitoring practices]]>
Electromyography (EMG) is a vital technique in the field of bioelectrical signal analysis. It involves capturing muscle activity through surface or needle electrodes for diagnostic purposes. EMG signals can be analyzed to detect various muscle conditions, such as myopathic or neuropathic lesions, using numerical parameters. The spatial frequency bandwidth of surface EMG signals is crucial for detailed muscle activity reconstruction, with appropriate inter-electrode distances being essential for accurate mapping. In the context of neuro-monitoring, EMG plays a role in intra-operative detection of adverse events and predicting postoperative outcomes, especially when used complementarily with other modalities like motor evoked potentials. Overall, EMG serves as a valuable tool for understanding muscle function, diagnosing muscle disorders, and enhancing neuro-monitoring practices]]> Sun, 12 May 2024 08:25:09 GMT /slideshow/basics-of-electro-myo-graphy-study-emg/268103190 JoeAntony14@slideshare.net(JoeAntony14) Basics of electro myo graphy study (EMG) JoeAntony14 Electromyography (EMG) is a vital technique in the field of bioelectrical signal analysis. It involves capturing muscle activity through surface or needle electrodes for diagnostic purposes. EMG signals can be analyzed to detect various muscle conditions, such as myopathic or neuropathic lesions, using numerical parameters. The spatial frequency bandwidth of surface EMG signals is crucial for detailed muscle activity reconstruction, with appropriate inter-electrode distances being essential for accurate mapping. In the context of neuro-monitoring, EMG plays a role in intra-operative detection of adverse events and predicting postoperative outcomes, especially when used complementarily with other modalities like motor evoked potentials. Overall, EMG serves as a valuable tool for understanding muscle function, diagnosing muscle disorders, and enhancing neuro-monitoring practices <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/basicsofelectromyographyemg-240512082509-7f61d737-thumbnail.jpg?width=120&height=120&fit=bounds" /> Electromyography (EMG) is a vital technique in the field of bioelectrical signal analysis. It involves capturing muscle activity through surface or needle electrodes for diagnostic purposes. EMG signals can be analyzed to detect various muscle conditions, such as myopathic or neuropathic lesions, using numerical parameters. The spatial frequency bandwidth of surface EMG signals is crucial for detailed muscle activity reconstruction, with appropriate inter-electrode distances being essential for accurate mapping. In the context of neuro-monitoring, EMG plays a role in intra-operative detection of adverse events and predicting postoperative outcomes, especially when used complementarily with other modalities like motor evoked potentials. Overall, EMG serves as a valuable tool for understanding muscle function, diagnosing muscle disorders, and enhancing neuro-monitoring practices

Basics of electro myo graphy study (EMG) from Joe Antony

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0 Principles of tendon transfer surgeries in rehabilitation /slideshow/principles-of-tendon-transfer-surgeries-in-rehabilitation/267197635 principlesoftendontransfers-240410145016-da3e5c14
Tendon transfers, a fundamental aspect of reconstructive surgery, represent a sophisticated intervention in the domain of orthopedics and plastic surgery. This intricate procedure involves the repositioning or redirection of tendons to restore lost function, correct deformities, or alleviate debilitating conditions resulting from tendon injuries, neurological disorders, or musculoskeletal anomalies. By harnessing the body's inherent capacity for adaptation and regeneration, tendon transfers offer a transformative solution to patients grappling with impairments affecting mobility, dexterity, and overall quality of life. Within the realm of medical science, tendon transfers stand as a testament to the innovative intersection of anatomy, biomechanics, and surgical expertise. Guided by meticulous anatomical knowledge and informed by patient-specific considerations, surgeons meticulously navigate the intricate network of tendinous structures to achieve optimal outcomes. This precise manipulation of tendons demands not only technical proficiency but also a profound understanding of functional anatomy, pathological processes, and the dynamic interplay between muscles and joints. The rationale underlying tendon transfers rests upon the principle of functional restoration through strategic tendon re-routing. Whether addressing paralysis resulting from nerve injury or rectifying muscular imbalances precipitated by congenital anomalies, the overarching goal remains consistent: to enhance musculoskeletal function and foster meaningful improvements in patient well-being. By redistributing the forces exerted by muscles across joints, tendon transfers serve as a cornerstone in the rehabilitation arsenal, offering a pathway towards enhanced motor control, stability, and range of motion. In this discourse, we embark on a comprehensive exploration of tendon transfers, delving into the intricacies of surgical technique, patient selection criteria, rehabilitative protocols, and outcomes assessment. Through a synthesis of clinical insights, scientific inquiry, and empirical evidence, we endeavor to illuminate the multifaceted dimensions of this therapeutic modality. By elucidating the underlying principles and practical applications of tendon transfers, we aspire to equip healthcare practitioners with the requisite knowledge and insights to navigate this dynamic landscape and empower patients with newfound avenues for functional restoration and renewed vitality.]]>
Tendon transfers, a fundamental aspect of reconstructive surgery, represent a sophisticated intervention in the domain of orthopedics and plastic surgery. This intricate procedure involves the repositioning or redirection of tendons to restore lost function, correct deformities, or alleviate debilitating conditions resulting from tendon injuries, neurological disorders, or musculoskeletal anomalies. By harnessing the body's inherent capacity for adaptation and regeneration, tendon transfers offer a transformative solution to patients grappling with impairments affecting mobility, dexterity, and overall quality of life. Within the realm of medical science, tendon transfers stand as a testament to the innovative intersection of anatomy, biomechanics, and surgical expertise. Guided by meticulous anatomical knowledge and informed by patient-specific considerations, surgeons meticulously navigate the intricate network of tendinous structures to achieve optimal outcomes. This precise manipulation of tendons demands not only technical proficiency but also a profound understanding of functional anatomy, pathological processes, and the dynamic interplay between muscles and joints. The rationale underlying tendon transfers rests upon the principle of functional restoration through strategic tendon re-routing. Whether addressing paralysis resulting from nerve injury or rectifying muscular imbalances precipitated by congenital anomalies, the overarching goal remains consistent: to enhance musculoskeletal function and foster meaningful improvements in patient well-being. By redistributing the forces exerted by muscles across joints, tendon transfers serve as a cornerstone in the rehabilitation arsenal, offering a pathway towards enhanced motor control, stability, and range of motion. In this discourse, we embark on a comprehensive exploration of tendon transfers, delving into the intricacies of surgical technique, patient selection criteria, rehabilitative protocols, and outcomes assessment. Through a synthesis of clinical insights, scientific inquiry, and empirical evidence, we endeavor to illuminate the multifaceted dimensions of this therapeutic modality. By elucidating the underlying principles and practical applications of tendon transfers, we aspire to equip healthcare practitioners with the requisite knowledge and insights to navigate this dynamic landscape and empower patients with newfound avenues for functional restoration and renewed vitality.]]> Wed, 10 Apr 2024 14:50:16 GMT /slideshow/principles-of-tendon-transfer-surgeries-in-rehabilitation/267197635 JoeAntony14@slideshare.net(JoeAntony14) Principles of tendon transfer surgeries in rehabilitation JoeAntony14 Tendon transfers, a fundamental aspect of reconstructive surgery, represent a sophisticated intervention in the domain of orthopedics and plastic surgery. This intricate procedure involves the repositioning or redirection of tendons to restore lost function, correct deformities, or alleviate debilitating conditions resulting from tendon injuries, neurological disorders, or musculoskeletal anomalies. By harnessing the body's inherent capacity for adaptation and regeneration, tendon transfers offer a transformative solution to patients grappling with impairments affecting mobility, dexterity, and overall quality of life. Within the realm of medical science, tendon transfers stand as a testament to the innovative intersection of anatomy, biomechanics, and surgical expertise. Guided by meticulous anatomical knowledge and informed by patient-specific considerations, surgeons meticulously navigate the intricate network of tendinous structures to achieve optimal outcomes. This precise manipulation of tendons demands not only technical proficiency but also a profound understanding of functional anatomy, pathological processes, and the dynamic interplay between muscles and joints. The rationale underlying tendon transfers rests upon the principle of functional restoration through strategic tendon re-routing. Whether addressing paralysis resulting from nerve injury or rectifying muscular imbalances precipitated by congenital anomalies, the overarching goal remains consistent: to enhance musculoskeletal function and foster meaningful improvements in patient well-being. By redistributing the forces exerted by muscles across joints, tendon transfers serve as a cornerstone in the rehabilitation arsenal, offering a pathway towards enhanced motor control, stability, and range of motion. In this discourse, we embark on a comprehensive exploration of tendon transfers, delving into the intricacies of surgical technique, patient selection criteria, rehabilitative protocols, and outcomes assessment. Through a synthesis of clinical insights, scientific inquiry, and empirical evidence, we endeavor to illuminate the multifaceted dimensions of this therapeutic modality. By elucidating the underlying principles and practical applications of tendon transfers, we aspire to equip healthcare practitioners with the requisite knowledge and insights to navigate this dynamic landscape and empower patients with newfound avenues for functional restoration and renewed vitality. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/principlesoftendontransfers-240410145016-da3e5c14-thumbnail.jpg?width=120&height=120&fit=bounds" /> Tendon transfers, a fundamental aspect of reconstructive surgery, represent a sophisticated intervention in the domain of orthopedics and plastic surgery. This intricate procedure involves the repositioning or redirection of tendons to restore lost function, correct deformities, or alleviate debilitating conditions resulting from tendon injuries, neurological disorders, or musculoskeletal anomalies. By harnessing the body's inherent capacity for adaptation and regeneration, tendon transfers offer a transformative solution to patients grappling with impairments affecting mobility, dexterity, and overall quality of life. Within the realm of medical science, tendon transfers stand as a testament to the innovative intersection of anatomy, biomechanics, and surgical expertise. Guided by meticulous anatomical knowledge and informed by patient-specific considerations, surgeons meticulously navigate the intricate network of tendinous structures to achieve optimal outcomes. This precise manipulation of tendons demands not only technical proficiency but also a profound understanding of functional anatomy, pathological processes, and the dynamic interplay between muscles and joints. The rationale underlying tendon transfers rests upon the principle of functional restoration through strategic tendon re-routing. Whether addressing paralysis resulting from nerve injury or rectifying muscular imbalances precipitated by congenital anomalies, the overarching goal remains consistent: to enhance musculoskeletal function and foster meaningful improvements in patient well-being. By redistributing the forces exerted by muscles across joints, tendon transfers serve as a cornerstone in the rehabilitation arsenal, offering a pathway towards enhanced motor control, stability, and range of motion. In this discourse, we embark on a comprehensive exploration of tendon transfers, delving into the intricacies of surgical technique, patient selection criteria, rehabilitative protocols, and outcomes assessment. Through a synthesis of clinical insights, scientific inquiry, and empirical evidence, we endeavor to illuminate the multifaceted dimensions of this therapeutic modality. By elucidating the underlying principles and practical applications of tendon transfers, we aspire to equip healthcare practitioners with the requisite knowledge and insights to navigate this dynamic landscape and empower patients with newfound avenues for functional restoration and renewed vitality.

Principles of tendon transfer surgeries in rehabilitation from Joe Antony

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0 International standards for neurological classification of spinal cord /slideshow/international-standards-for-neurological-classification-of-spinal-cord/265101997 internationalstandardsforneurologicalclassificationofspinalcord-240103160201-8553aa41
The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) or more commonly referred to as the ASIA Impairment Scale (AIS), was developed by the American Spinal Injury Association (ASIA) as a universal classification tool for Spinal Cord Injury based on a standardized sensory and motor assessment, with the most recent revised edition published in 2011. The impairment scale involves both a motor and sensory examination to determine the sensory and motor levels for the right and left side, the overall neurological level of the injury and completeness of the injury i.e. whether the injury is complete or incomplete.]]>
The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) or more commonly referred to as the ASIA Impairment Scale (AIS), was developed by the American Spinal Injury Association (ASIA) as a universal classification tool for Spinal Cord Injury based on a standardized sensory and motor assessment, with the most recent revised edition published in 2011. The impairment scale involves both a motor and sensory examination to determine the sensory and motor levels for the right and left side, the overall neurological level of the injury and completeness of the injury i.e. whether the injury is complete or incomplete.]]> Wed, 03 Jan 2024 16:02:01 GMT /slideshow/international-standards-for-neurological-classification-of-spinal-cord/265101997 JoeAntony14@slideshare.net(JoeAntony14) International standards for neurological classification of spinal cord JoeAntony14 The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) or more commonly referred to as the ASIA Impairment Scale (AIS), was developed by the American Spinal Injury Association (ASIA) as a universal classification tool for Spinal Cord Injury based on a standardized sensory and motor assessment, with the most recent revised edition published in 2011. The impairment scale involves both a motor and sensory examination to determine the sensory and motor levels for the right and left side, the overall neurological level of the injury and completeness of the injury i.e. whether the injury is complete or incomplete. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/internationalstandardsforneurologicalclassificationofspinalcord-240103160201-8553aa41-thumbnail.jpg?width=120&height=120&fit=bounds" /> The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) or more commonly referred to as the ASIA Impairment Scale (AIS), was developed by the American Spinal Injury Association (ASIA) as a universal classification tool for Spinal Cord Injury based on a standardized sensory and motor assessment, with the most recent revised edition published in 2011. The impairment scale involves both a motor and sensory examination to determine the sensory and motor levels for the right and left side, the overall neurological level of the injury and completeness of the injury i.e. whether the injury is complete or incomplete.

International standards for neurological classification of spinal cord from Joe Antony

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0 Wheelchairs in rehabilitation /slideshow/wheelchairs-in-rehabilitation/264424377 wheelchair-231207171138-fa631119
Wheelchairs and seating systems allow individuals with mobility impairments to actively participate at home, work, school, and the community. The quality of life of an individual is reflective of the overall effectiveness of the wheelchair and seating system when considering activities of daily living (ADLs). Therefore it is imperative that the multidisciplinary team of rehabilitation professionals considers not only the individual and the wheelchair but also the activities, context, policies, and personal assistance associated with the technology. Historically, rehabilitation professionals have focused on functional mobility at the time of implementation of the wheelchair and seating system. Now, as a result of changes in the overall health care environment, driven by a need for increased value, rehabilitation professionals must integrate a more holistic approach to manage costs while improving outcomes at the time of implementation and throughout the life of the wheelchair and seating systems.To better understand the long-term effects of the wheelchair and seating system and to maximize the functional outcomes of the individual, rehabilitation professionals across the multidisciplinary health care team must understand the advances in current technology as well as best practices in the service delivery. process. The value of the wheelchair and seating system within the context of health care now extends beyond the four walls of a traditional clinic to the community in which the individual uses the wheelchair and seating system.]]>
Wheelchairs and seating systems allow individuals with mobility impairments to actively participate at home, work, school, and the community. The quality of life of an individual is reflective of the overall effectiveness of the wheelchair and seating system when considering activities of daily living (ADLs). Therefore it is imperative that the multidisciplinary team of rehabilitation professionals considers not only the individual and the wheelchair but also the activities, context, policies, and personal assistance associated with the technology. Historically, rehabilitation professionals have focused on functional mobility at the time of implementation of the wheelchair and seating system. Now, as a result of changes in the overall health care environment, driven by a need for increased value, rehabilitation professionals must integrate a more holistic approach to manage costs while improving outcomes at the time of implementation and throughout the life of the wheelchair and seating systems.To better understand the long-term effects of the wheelchair and seating system and to maximize the functional outcomes of the individual, rehabilitation professionals across the multidisciplinary health care team must understand the advances in current technology as well as best practices in the service delivery. process. The value of the wheelchair and seating system within the context of health care now extends beyond the four walls of a traditional clinic to the community in which the individual uses the wheelchair and seating system.]]> Thu, 07 Dec 2023 17:11:37 GMT /slideshow/wheelchairs-in-rehabilitation/264424377 JoeAntony14@slideshare.net(JoeAntony14) Wheelchairs in rehabilitation JoeAntony14 Wheelchairs and seating systems allow individuals with mobility impairments to actively participate at home, work, school, and the community. The quality of life of an individual is reflective of the overall effectiveness of the wheelchair and seating system when considering activities of daily living (ADLs). Therefore it is imperative that the multidisciplinary team of rehabilitation professionals considers not only the individual and the wheelchair but also the activities, context, policies, and personal assistance associated with the technology. Historically, rehabilitation professionals have focused on functional mobility at the time of implementation of the wheelchair and seating system. Now, as a result of changes in the overall health care environment, driven by a need for increased value, rehabilitation professionals must integrate a more holistic approach to manage costs while improving outcomes at the time of implementation and throughout the life of the wheelchair and seating systems.To better understand the long-term effects of the wheelchair and seating system and to maximize the functional outcomes of the individual, rehabilitation professionals across the multidisciplinary health care team must understand the advances in current technology as well as best practices in the service delivery. process. The value of the wheelchair and seating system within the context of health care now extends beyond the four walls of a traditional clinic to the community in which the individual uses the wheelchair and seating system. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/wheelchair-231207171138-fa631119-thumbnail.jpg?width=120&height=120&fit=bounds" /> Wheelchairs and seating systems allow individuals with mobility impairments to actively participate at home, work, school, and the community. The quality of life of an individual is reflective of the overall effectiveness of the wheelchair and seating system when considering activities of daily living (ADLs). Therefore it is imperative that the multidisciplinary team of rehabilitation professionals considers not only the individual and the wheelchair but also the activities, context, policies, and personal assistance associated with the technology. Historically, rehabilitation professionals have focused on functional mobility at the time of implementation of the wheelchair and seating system. Now, as a result of changes in the overall health care environment, driven by a need for increased value, rehabilitation professionals must integrate a more holistic approach to manage costs while improving outcomes at the time of implementation and throughout the life of the wheelchair and seating systems.To better understand the long-term effects of the wheelchair and seating system and to maximize the functional outcomes of the individual, rehabilitation professionals across the multidisciplinary health care team must understand the advances in current technology as well as best practices in the service delivery. process. The value of the wheelchair and seating system within the context of health care now extends beyond the four walls of a traditional clinic to the community in which the individual uses the wheelchair and seating system.

Wheelchairs in rehabilitation from Joe Antony

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0 Burns Rehabilitation /slideshow/burns-rehabilitation/263267832 burnsrehabilitation-231110133742-6fd3c7fd
Significant advances in management have resulted in an increase in survival after burn injury in regions of the world with access to current medical and surgical resources. As a consequence, burn survivors with access to up-to-date care and who tend to be young adults have long-term sequelae that impair function and limit return to preinjury function, including work and community reintegration. Up to 1 million burns require treatment annually in North America, and over 10 times as many burns occur worldwide. In low-income and middle-income countries, mortality is significantly greater than in high-income countries.The future of burn care will be challenged by the expense and complexity of treatment, a predicted shortage of qualified burn care providers, and an aging population.]]>
Significant advances in management have resulted in an increase in survival after burn injury in regions of the world with access to current medical and surgical resources. As a consequence, burn survivors with access to up-to-date care and who tend to be young adults have long-term sequelae that impair function and limit return to preinjury function, including work and community reintegration. Up to 1 million burns require treatment annually in North America, and over 10 times as many burns occur worldwide. In low-income and middle-income countries, mortality is significantly greater than in high-income countries.The future of burn care will be challenged by the expense and complexity of treatment, a predicted shortage of qualified burn care providers, and an aging population.]]> Fri, 10 Nov 2023 13:37:42 GMT /slideshow/burns-rehabilitation/263267832 JoeAntony14@slideshare.net(JoeAntony14) Burns Rehabilitation JoeAntony14 Significant advances in management have resulted in an increase in survival after burn injury in regions of the world with access to current medical and surgical resources. As a consequence, burn survivors with access to up-to-date care and who tend to be young adults have long-term sequelae that impair function and limit return to preinjury function, including work and community reintegration. Up to 1 million burns require treatment annually in North America, and over 10 times as many burns occur worldwide. In low-income and middle-income countries, mortality is significantly greater than in high-income countries.The future of burn care will be challenged by the expense and complexity of treatment, a predicted shortage of qualified burn care providers, and an aging population. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/burnsrehabilitation-231110133742-6fd3c7fd-thumbnail.jpg?width=120&height=120&fit=bounds" /> Significant advances in management have resulted in an increase in survival after burn injury in regions of the world with access to current medical and surgical resources. As a consequence, burn survivors with access to up-to-date care and who tend to be young adults have long-term sequelae that impair function and limit return to preinjury function, including work and community reintegration. Up to 1 million burns require treatment annually in North America, and over 10 times as many burns occur worldwide. In low-income and middle-income countries, mortality is significantly greater than in high-income countries.The future of burn care will be challenged by the expense and complexity of treatment, a predicted shortage of qualified burn care providers, and an aging population.

Burns Rehabilitation from Joe Antony

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0 Stroke rehabilitation /slideshow/stroke-rehabilitation/261947048 strokerehabilitation-231009065819-29020af3
Physical medicine and rehabilitation (PM&R) is a relatively young specialty that developed during the 20th century, with signifi cant growth and development stimulated by two World Wars and by increasingly severe epidemics of paralytic poliomyelitis during the fi rst half of the 20th century (1–4). During and after each of the World Wars, many soldiers returned with serious injuries and severe disabilities, and physicians and therapists were needed to treat and manage their chronic disabling conditions. This was particularly true after World War II, when the availability of antibiotics and improved surgical techniques allowed more injured soldiers to survive, albeit with significant disabilities. Similarly, over the same time period, increasingly severe epidemics of polio, frequent industrial accidents, and escalating motor vehicle accidents as a result of the increased availability of automobiles and higher-speed roadways added greatly to the burden of impairment and disability among the civilian population. Thus, events in the fi rst half of the 20th century necessitated the development of new restorative treatment programs incorporating new physical and rehabilitative techniques, and the establishment of training programs for physicians and therapists to administer the treatments. Nevertheless, with the exception of a relatively few scattered physical medicine physicians, it was not until the second half of the 20th century that specialists in rehabilitation medicine could profi tably direct their energies exclusively, or even preferentially, to rehabilitation outside of the unprecedented and unsustainable circumstances of wartime military programs. Also largely missing until the second half of the 20th century were separate departments in academic and nonacademic medical centers devoted to the specialty, established training programs in PM&R, a sufficient number of PM&R practitioners, separate dedicated facilities for provision of rehabilitation services (e.g., dedicated wards in hospitals or separate rehabilitation centers), forums for the interchange of ideas (e.g., texts, journals, and professional societies), recognition by professional colleagues and the public that rehabilitation medicine specialists provided a needed service, and supportive legislation that would provide fi nancial mechanisms to develop and provide such resources]]>
Physical medicine and rehabilitation (PM&R) is a relatively young specialty that developed during the 20th century, with signifi cant growth and development stimulated by two World Wars and by increasingly severe epidemics of paralytic poliomyelitis during the fi rst half of the 20th century (1–4). During and after each of the World Wars, many soldiers returned with serious injuries and severe disabilities, and physicians and therapists were needed to treat and manage their chronic disabling conditions. This was particularly true after World War II, when the availability of antibiotics and improved surgical techniques allowed more injured soldiers to survive, albeit with significant disabilities. Similarly, over the same time period, increasingly severe epidemics of polio, frequent industrial accidents, and escalating motor vehicle accidents as a result of the increased availability of automobiles and higher-speed roadways added greatly to the burden of impairment and disability among the civilian population. Thus, events in the fi rst half of the 20th century necessitated the development of new restorative treatment programs incorporating new physical and rehabilitative techniques, and the establishment of training programs for physicians and therapists to administer the treatments. Nevertheless, with the exception of a relatively few scattered physical medicine physicians, it was not until the second half of the 20th century that specialists in rehabilitation medicine could profi tably direct their energies exclusively, or even preferentially, to rehabilitation outside of the unprecedented and unsustainable circumstances of wartime military programs. Also largely missing until the second half of the 20th century were separate departments in academic and nonacademic medical centers devoted to the specialty, established training programs in PM&R, a sufficient number of PM&R practitioners, separate dedicated facilities for provision of rehabilitation services (e.g., dedicated wards in hospitals or separate rehabilitation centers), forums for the interchange of ideas (e.g., texts, journals, and professional societies), recognition by professional colleagues and the public that rehabilitation medicine specialists provided a needed service, and supportive legislation that would provide fi nancial mechanisms to develop and provide such resources]]> Mon, 09 Oct 2023 06:58:19 GMT /slideshow/stroke-rehabilitation/261947048 JoeAntony14@slideshare.net(JoeAntony14) Stroke rehabilitation JoeAntony14 Physical medicine and rehabilitation (PM&R) is a relatively young specialty that developed during the 20th century, with signifi cant growth and development stimulated by two World Wars and by increasingly severe epidemics of paralytic poliomyelitis during the fi rst half of the 20th century (1–4). During and after each of the World Wars, many soldiers returned with serious injuries and severe disabilities, and physicians and therapists were needed to treat and manage their chronic disabling conditions. This was particularly true after World War II, when the availability of antibiotics and improved surgical techniques allowed more injured soldiers to survive, albeit with significant disabilities. Similarly, over the same time period, increasingly severe epidemics of polio, frequent industrial accidents, and escalating motor vehicle accidents as a result of the increased availability of automobiles and higher-speed roadways added greatly to the burden of impairment and disability among the civilian population. Thus, events in the fi rst half of the 20th century necessitated the development of new restorative treatment programs incorporating new physical and rehabilitative techniques, and the establishment of training programs for physicians and therapists to administer the treatments. Nevertheless, with the exception of a relatively few scattered physical medicine physicians, it was not until the second half of the 20th century that specialists in rehabilitation medicine could profi tably direct their energies exclusively, or even preferentially, to rehabilitation outside of the unprecedented and unsustainable circumstances of wartime military programs. Also largely missing until the second half of the 20th century were separate departments in academic and nonacademic medical centers devoted to the specialty, established training programs in PM&R, a sufficient number of PM&R practitioners, separate dedicated facilities for provision of rehabilitation services (e.g., dedicated wards in hospitals or separate rehabilitation centers), forums for the interchange of ideas (e.g., texts, journals, and professional societies), recognition by professional colleagues and the public that rehabilitation medicine specialists provided a needed service, and supportive legislation that would provide fi nancial mechanisms to develop and provide such resources <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/strokerehabilitation-231009065819-29020af3-thumbnail.jpg?width=120&height=120&fit=bounds" /> Physical medicine and rehabilitation (PM&R) is a relatively young specialty that developed during the 20th century, with signifi cant growth and development stimulated by two World Wars and by increasingly severe epidemics of paralytic poliomyelitis during the fi rst half of the 20th century (1–4). During and after each of the World Wars, many soldiers returned with serious injuries and severe disabilities, and physicians and therapists were needed to treat and manage their chronic disabling conditions. This was particularly true after World War II, when the availability of antibiotics and improved surgical techniques allowed more injured soldiers to survive, albeit with significant disabilities. Similarly, over the same time period, increasingly severe epidemics of polio, frequent industrial accidents, and escalating motor vehicle accidents as a result of the increased availability of automobiles and higher-speed roadways added greatly to the burden of impairment and disability among the civilian population. Thus, events in the fi rst half of the 20th century necessitated the development of new restorative treatment programs incorporating new physical and rehabilitative techniques, and the establishment of training programs for physicians and therapists to administer the treatments. Nevertheless, with the exception of a relatively few scattered physical medicine physicians, it was not until the second half of the 20th century that specialists in rehabilitation medicine could profi tably direct their energies exclusively, or even preferentially, to rehabilitation outside of the unprecedented and unsustainable circumstances of wartime military programs. Also largely missing until the second half of the 20th century were separate departments in academic and nonacademic medical centers devoted to the specialty, established training programs in PM&R, a sufficient number of PM&R practitioners, separate dedicated facilities for provision of rehabilitation services (e.g., dedicated wards in hospitals or separate rehabilitation centers), forums for the interchange of ideas (e.g., texts, journals, and professional societies), recognition by professional colleagues and the public that rehabilitation medicine specialists provided a needed service, and supportive legislation that would provide fi nancial mechanisms to develop and provide such resources

Stroke rehabilitation from Joe Antony

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0 Pathophysiology of Spasticity /slideshow/pathophysiology-of-spasticity-260809182/260809182 pathophysiologyofspasticity1-230911134403-d4c5b6a6
In lesions below the mid-pons, a state of flaccidity, termed spinal shock, ensues immediately after injury with loss of all reflexes caudal to the injury. The resolution of spinal shock occurs gradually , taking weeks to months. The recovery from spinal shock is poorly understood and likely results from multiple, simultaneous adaptations in spinal processing that allow motor neuron to function independently from supraspinal control. Existence of spinal shock, followed by a gradual return of reflexes that eventually become hyperactive, suggests that spasticity is not just a result of a simple on/off switch triggered by an alteration in inhibitory and facilitative signals ]]>
In lesions below the mid-pons, a state of flaccidity, termed spinal shock, ensues immediately after injury with loss of all reflexes caudal to the injury. The resolution of spinal shock occurs gradually , taking weeks to months. The recovery from spinal shock is poorly understood and likely results from multiple, simultaneous adaptations in spinal processing that allow motor neuron to function independently from supraspinal control. Existence of spinal shock, followed by a gradual return of reflexes that eventually become hyperactive, suggests that spasticity is not just a result of a simple on/off switch triggered by an alteration in inhibitory and facilitative signals ]]> Mon, 11 Sep 2023 13:44:02 GMT /slideshow/pathophysiology-of-spasticity-260809182/260809182 JoeAntony14@slideshare.net(JoeAntony14) Pathophysiology of Spasticity JoeAntony14 In lesions below the mid-pons, a state of flaccidity, termed spinal shock, ensues immediately after injury with loss of all reflexes caudal to the injury. The resolution of spinal shock occurs gradually , taking weeks to months. The recovery from spinal shock is poorly understood and likely results from multiple, simultaneous adaptations in spinal processing that allow motor neuron to function independently from supraspinal control. Existence of spinal shock, followed by a gradual return of reflexes that eventually become hyperactive, suggests that spasticity is not just a result of a simple on/off switch triggered by an alteration in inhibitory and facilitative signals <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/pathophysiologyofspasticity1-230911134403-d4c5b6a6-thumbnail.jpg?width=120&height=120&fit=bounds" /> In lesions below the mid-pons, a state of flaccidity, termed spinal shock, ensues immediately after injury with loss of all reflexes caudal to the injury. The resolution of spinal shock occurs gradually , taking weeks to months. The recovery from spinal shock is poorly understood and likely results from multiple, simultaneous adaptations in spinal processing that allow motor neuron to function independently from supraspinal control. Existence of spinal shock, followed by a gradual return of reflexes that eventually become hyperactive, suggests that spasticity is not just a result of a simple on/off switch triggered by an alteration in inhibitory and facilitative signals

Pathophysiology of Spasticity from Joe Antony

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0 Lower limb Prostheses /slideshow/lower-limb-prostheses/260185435 lowerlimbprostheses-230825230630-f54acb1f
Walking depends on the repeated performance by the lower limbs of a sequence of motions that simultaneously advances the body along the desired line of progression while also maintaining a stable weight-bearing posture. Effectiveness depends on free joint mobility and muscle action that is selective in both timing and intensity. Normal function is also optimally conservative of physiologic energy. Pathologic conditions alter the mode and efficiency of walking. The loss of some actions necessitates substitution of others if forward progression and stance stability are to be preserved. Through a detailed knowledge of normal function and the types of gait errors that the various pathologic conditions can introduce, the clinician becomes able to define the significant deficits and plan appropriate corrective measures]]>
Walking depends on the repeated performance by the lower limbs of a sequence of motions that simultaneously advances the body along the desired line of progression while also maintaining a stable weight-bearing posture. Effectiveness depends on free joint mobility and muscle action that is selective in both timing and intensity. Normal function is also optimally conservative of physiologic energy. Pathologic conditions alter the mode and efficiency of walking. The loss of some actions necessitates substitution of others if forward progression and stance stability are to be preserved. Through a detailed knowledge of normal function and the types of gait errors that the various pathologic conditions can introduce, the clinician becomes able to define the significant deficits and plan appropriate corrective measures]]> Fri, 25 Aug 2023 23:06:30 GMT /slideshow/lower-limb-prostheses/260185435 JoeAntony14@slideshare.net(JoeAntony14) Lower limb Prostheses JoeAntony14 Walking depends on the repeated performance by the lower limbs of a sequence of motions that simultaneously advances the body along the desired line of progression while also maintaining a stable weight-bearing posture. Effectiveness depends on free joint mobility and muscle action that is selective in both timing and intensity. Normal function is also optimally conservative of physiologic energy. Pathologic conditions alter the mode and efficiency of walking. The loss of some actions necessitates substitution of others if forward progression and stance stability are to be preserved. Through a detailed knowledge of normal function and the types of gait errors that the various pathologic conditions can introduce, the clinician becomes able to define the significant deficits and plan appropriate corrective measures <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/lowerlimbprostheses-230825230630-f54acb1f-thumbnail.jpg?width=120&height=120&fit=bounds" /> Walking depends on the repeated performance by the lower limbs of a sequence of motions that simultaneously advances the body along the desired line of progression while also maintaining a stable weight-bearing posture. Effectiveness depends on free joint mobility and muscle action that is selective in both timing and intensity. Normal function is also optimally conservative of physiologic energy. Pathologic conditions alter the mode and efficiency of walking. The loss of some actions necessitates substitution of others if forward progression and stance stability are to be preserved. Through a detailed knowledge of normal function and the types of gait errors that the various pathologic conditions can introduce, the clinician becomes able to define the significant deficits and plan appropriate corrective measures

Lower limb Prostheses from Joe Antony

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0 Tendo Achilles tenotomy as a part of Ponsetti technique /slideshow/tendo-achilles-tenotomy-as-a-part-of-ponsetti-technique/259838403 tendoachillestenotomyasapartofponsetti-230813110542-4960340e
Most CTEV children will need the tenotomy, which is a minor procedure usually done with local anaesthetic. Children need the tenotomy because their heel (Achilles) tendon is short and tight and it pulls the heel up.If it is not corrected the child will walk on tiptoes. Some doctors use general anaesthetic for older patients. After the tenotomy a final POP cast is applied and left on for three weeks. During this time the tendon regenerates in the lengthened position and the foot can be bent up easily towards the front of the leg (dorsiflexion). If your baby is unhappy after the tenotomy, it is fine to use some paracetamol as you would after vaccinations]]>
Most CTEV children will need the tenotomy, which is a minor procedure usually done with local anaesthetic. Children need the tenotomy because their heel (Achilles) tendon is short and tight and it pulls the heel up.If it is not corrected the child will walk on tiptoes. Some doctors use general anaesthetic for older patients. After the tenotomy a final POP cast is applied and left on for three weeks. During this time the tendon regenerates in the lengthened position and the foot can be bent up easily towards the front of the leg (dorsiflexion). If your baby is unhappy after the tenotomy, it is fine to use some paracetamol as you would after vaccinations]]> Sun, 13 Aug 2023 11:05:42 GMT /slideshow/tendo-achilles-tenotomy-as-a-part-of-ponsetti-technique/259838403 JoeAntony14@slideshare.net(JoeAntony14) Tendo Achilles tenotomy as a part of Ponsetti technique JoeAntony14 Most CTEV children will need the tenotomy, which is a minor procedure usually done with local anaesthetic. Children need the tenotomy because their heel (Achilles) tendon is short and tight and it pulls the heel up.If it is not corrected the child will walk on tiptoes. Some doctors use general anaesthetic for older patients. After the tenotomy a final POP cast is applied and left on for three weeks. During this time the tendon regenerates in the lengthened position and the foot can be bent up easily towards the front of the leg (dorsiflexion). If your baby is unhappy after the tenotomy, it is fine to use some paracetamol as you would after vaccinations <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/tendoachillestenotomyasapartofponsetti-230813110542-4960340e-thumbnail.jpg?width=120&height=120&fit=bounds" /> Most CTEV children will need the tenotomy, which is a minor procedure usually done with local anaesthetic. Children need the tenotomy because their heel (Achilles) tendon is short and tight and it pulls the heel up.If it is not corrected the child will walk on tiptoes. Some doctors use general anaesthetic for older patients. After the tenotomy a final POP cast is applied and left on for three weeks. During this time the tendon regenerates in the lengthened position and the foot can be bent up easily towards the front of the leg (dorsiflexion). If your baby is unhappy after the tenotomy, it is fine to use some paracetamol as you would after vaccinations

Tendo Achilles tenotomy as a part of Ponsetti technique from Joe Antony

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0 Upper limb prostheses /JoeAntony14/upper-limb-prostheses upperlimbprosthesis-230804173716-e5ee4db2
Prosthetic management of individuals with upper extremity amputations presents all health professionals, including prosthetists and therapists, with a set of unique challenges. For those wearing an upper extremity prosthesis, the terminal device (TD) of the prosthesis is not covered or obscured by clothing in the same way that a lower extremity prosthesis is “hidden” by pants, socks, and shoes. The person with upper extremity amputation must cope with not only physical appearance changes, but the loss of some of the most complex movement patterns and functional activities of the human body. In addition, upper extremity limb loss deprives the patient of an extensive and valuable system of tactile and proprioceptive inputs that previously provided “feedback” to guide and refine functional movement. Even the simplest tasks related to grasp and release become challenging. The ability to position the prosthetic limb segments in space, as well as the ability to maintain advantageous postures needed to manipulate objects, challenge the medical community to continuously improve the functional and aesthetic outcomes of prostheses for patients in this population.]]>
Prosthetic management of individuals with upper extremity amputations presents all health professionals, including prosthetists and therapists, with a set of unique challenges. For those wearing an upper extremity prosthesis, the terminal device (TD) of the prosthesis is not covered or obscured by clothing in the same way that a lower extremity prosthesis is “hidden” by pants, socks, and shoes. The person with upper extremity amputation must cope with not only physical appearance changes, but the loss of some of the most complex movement patterns and functional activities of the human body. In addition, upper extremity limb loss deprives the patient of an extensive and valuable system of tactile and proprioceptive inputs that previously provided “feedback” to guide and refine functional movement. Even the simplest tasks related to grasp and release become challenging. The ability to position the prosthetic limb segments in space, as well as the ability to maintain advantageous postures needed to manipulate objects, challenge the medical community to continuously improve the functional and aesthetic outcomes of prostheses for patients in this population.]]> Fri, 04 Aug 2023 17:37:16 GMT /JoeAntony14/upper-limb-prostheses JoeAntony14@slideshare.net(JoeAntony14) Upper limb prostheses JoeAntony14 Prosthetic management of individuals with upper extremity amputations presents all health professionals, including prosthetists and therapists, with a set of unique challenges. For those wearing an upper extremity prosthesis, the terminal device (TD) of the prosthesis is not covered or obscured by clothing in the same way that a lower extremity prosthesis is “hidden” by pants, socks, and shoes. The person with upper extremity amputation must cope with not only physical appearance changes, but the loss of some of the most complex movement patterns and functional activities of the human body. In addition, upper extremity limb loss deprives the patient of an extensive and valuable system of tactile and proprioceptive inputs that previously provided “feedback” to guide and refine functional movement. Even the simplest tasks related to grasp and release become challenging. The ability to position the prosthetic limb segments in space, as well as the ability to maintain advantageous postures needed to manipulate objects, challenge the medical community to continuously improve the functional and aesthetic outcomes of prostheses for patients in this population. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/upperlimbprosthesis-230804173716-e5ee4db2-thumbnail.jpg?width=120&height=120&fit=bounds" /> Prosthetic management of individuals with upper extremity amputations presents all health professionals, including prosthetists and therapists, with a set of unique challenges. For those wearing an upper extremity prosthesis, the terminal device (TD) of the prosthesis is not covered or obscured by clothing in the same way that a lower extremity prosthesis is “hidden” by pants, socks, and shoes. The person with upper extremity amputation must cope with not only physical appearance changes, but the loss of some of the most complex movement patterns and functional activities of the human body. In addition, upper extremity limb loss deprives the patient of an extensive and valuable system of tactile and proprioceptive inputs that previously provided “feedback” to guide and refine functional movement. Even the simplest tasks related to grasp and release become challenging. The ability to position the prosthetic limb segments in space, as well as the ability to maintain advantageous postures needed to manipulate objects, challenge the medical community to continuously improve the functional and aesthetic outcomes of prostheses for patients in this population.

Upper limb prostheses from Joe Antony

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0 PELVIC FLOOR REHABILITATION /slideshow/pelvic-floor-rehabilitation-258446003/258446003 pelvicfloor-230616013347-62be25b4
Pelvic floor disorders include a wide-ranging group of potentially disabling, embarrassing, and often painful conditions that can greatly affect a person’s quality of life. The pelvic floor consists of muscles, fascia, and ligaments that support the pelvic organs and help to provide control for bodily functions. Pathology within the musculoskeletal and neurologic structures of the deep pelvis can lead to the development of pelvic pain, dyspareunia, voiding dysfunction including urinary incontinence or urinary urgency, fecal incontinence (FI), constipation, and pelvic organ prolapse (POP) . Both women and men can develop pelvic floor disorders, although women are at increased risk compared with men because of their unique anatomy and biomechanics. The female pelvis is broader and shallower, requiring greater muscular and ligamentous stiffness to provide support and stability. Women are also more likely to incur injury to the pelvic floor as a result of pregnancy and childbirth. As a result, abnormal biomechanics of the pelvic floor muscles (PFMs) may lead to changes in contraction, relaxation, muscle strength, and myofascial pain. In a 2014 study, the prevalence of symptomatic pelvic floor disorders in the United States was estimated to be approximately 25%. It is important to note that this percentage does not consider women with pelvic pain due to high-tone pelvic floor dysfunction. People with pelvic floor disorders benefit from an interdisciplinary rehabilitation approach to improve function and reduce pain. Physiatrists with experience in acute and chronic pain, neurologic and musculoskeletal conditions, and neurogenic bowel/bladder management are well suited to direct such a patient’s care.In addition to diagnosing and managing the patient’s pelvic floor disorder medically, the physiatrist plays a key role in providing a detailed prescription for physical therapy.]]>
Pelvic floor disorders include a wide-ranging group of potentially disabling, embarrassing, and often painful conditions that can greatly affect a person’s quality of life. The pelvic floor consists of muscles, fascia, and ligaments that support the pelvic organs and help to provide control for bodily functions. Pathology within the musculoskeletal and neurologic structures of the deep pelvis can lead to the development of pelvic pain, dyspareunia, voiding dysfunction including urinary incontinence or urinary urgency, fecal incontinence (FI), constipation, and pelvic organ prolapse (POP) . Both women and men can develop pelvic floor disorders, although women are at increased risk compared with men because of their unique anatomy and biomechanics. The female pelvis is broader and shallower, requiring greater muscular and ligamentous stiffness to provide support and stability. Women are also more likely to incur injury to the pelvic floor as a result of pregnancy and childbirth. As a result, abnormal biomechanics of the pelvic floor muscles (PFMs) may lead to changes in contraction, relaxation, muscle strength, and myofascial pain. In a 2014 study, the prevalence of symptomatic pelvic floor disorders in the United States was estimated to be approximately 25%. It is important to note that this percentage does not consider women with pelvic pain due to high-tone pelvic floor dysfunction. People with pelvic floor disorders benefit from an interdisciplinary rehabilitation approach to improve function and reduce pain. Physiatrists with experience in acute and chronic pain, neurologic and musculoskeletal conditions, and neurogenic bowel/bladder management are well suited to direct such a patient’s care.In addition to diagnosing and managing the patient’s pelvic floor disorder medically, the physiatrist plays a key role in providing a detailed prescription for physical therapy.]]> Fri, 16 Jun 2023 01:33:47 GMT /slideshow/pelvic-floor-rehabilitation-258446003/258446003 JoeAntony14@slideshare.net(JoeAntony14) PELVIC FLOOR REHABILITATION JoeAntony14 Pelvic floor disorders include a wide-ranging group of potentially disabling, embarrassing, and often painful conditions that can greatly affect a person’s quality of life. The pelvic floor consists of muscles, fascia, and ligaments that support the pelvic organs and help to provide control for bodily functions. Pathology within the musculoskeletal and neurologic structures of the deep pelvis can lead to the development of pelvic pain, dyspareunia, voiding dysfunction including urinary incontinence or urinary urgency, fecal incontinence (FI), constipation, and pelvic organ prolapse (POP) . Both women and men can develop pelvic floor disorders, although women are at increased risk compared with men because of their unique anatomy and biomechanics. The female pelvis is broader and shallower, requiring greater muscular and ligamentous stiffness to provide support and stability. Women are also more likely to incur injury to the pelvic floor as a result of pregnancy and childbirth. As a result, abnormal biomechanics of the pelvic floor muscles (PFMs) may lead to changes in contraction, relaxation, muscle strength, and myofascial pain. In a 2014 study, the prevalence of symptomatic pelvic floor disorders in the United States was estimated to be approximately 25%. It is important to note that this percentage does not consider women with pelvic pain due to high-tone pelvic floor dysfunction. People with pelvic floor disorders benefit from an interdisciplinary rehabilitation approach to improve function and reduce pain. Physiatrists with experience in acute and chronic pain, neurologic and musculoskeletal conditions, and neurogenic bowel/bladder management are well suited to direct such a patient’s care.In addition to diagnosing and managing the patient’s pelvic floor disorder medically, the physiatrist plays a key role in providing a detailed prescription for physical therapy. <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/pelvicfloor-230616013347-62be25b4-thumbnail.jpg?width=120&height=120&fit=bounds" /> Pelvic floor disorders include a wide-ranging group of potentially disabling, embarrassing, and often painful conditions that can greatly affect a person’s quality of life. The pelvic floor consists of muscles, fascia, and ligaments that support the pelvic organs and help to provide control for bodily functions. Pathology within the musculoskeletal and neurologic structures of the deep pelvis can lead to the development of pelvic pain, dyspareunia, voiding dysfunction including urinary incontinence or urinary urgency, fecal incontinence (FI), constipation, and pelvic organ prolapse (POP) . Both women and men can develop pelvic floor disorders, although women are at increased risk compared with men because of their unique anatomy and biomechanics. The female pelvis is broader and shallower, requiring greater muscular and ligamentous stiffness to provide support and stability. Women are also more likely to incur injury to the pelvic floor as a result of pregnancy and childbirth. As a result, abnormal biomechanics of the pelvic floor muscles (PFMs) may lead to changes in contraction, relaxation, muscle strength, and myofascial pain. In a 2014 study, the prevalence of symptomatic pelvic floor disorders in the United States was estimated to be approximately 25%. It is important to note that this percentage does not consider women with pelvic pain due to high-tone pelvic floor dysfunction. People with pelvic floor disorders benefit from an interdisciplinary rehabilitation approach to improve function and reduce pain. Physiatrists with experience in acute and chronic pain, neurologic and musculoskeletal conditions, and neurogenic bowel/bladder management are well suited to direct such a patient’s care.In addition to diagnosing and managing the patient’s pelvic floor disorder medically, the physiatrist plays a key role in providing a detailed prescription for physical therapy.

PELVIC FLOOR REHABILITATION from Joe Antony

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0 Ergonomic modification for a person with a desk job /slideshow/ergonomic-modification-for-a-person-with-a-desk-job/258000194 ergonomicmodificationforapersonwithadesk-230524151159-a5d53b74
It was estimated that about 40.7 % of the global population was surfing the computers in the year 2012 as compared to 2006 of only 26.2%. [1] Marshall et al study reveal that on average, six out of 10 employees used a chair at work and the number was expected to grow.[2] Many researchers report that working 5.41 hours sitting at desk and 7 hour sleeping at night had a great impact on the physical and mental health.[2] Sitting on a chair is one of the most common positions adopted by humans. children and adults spend approx. 55% of their working hours or 7.7 hours/day in sitting postures.[2] The ergonomic fit workstations have become a standard practice in various developed countries ]]>
It was estimated that about 40.7 % of the global population was surfing the computers in the year 2012 as compared to 2006 of only 26.2%. [1] Marshall et al study reveal that on average, six out of 10 employees used a chair at work and the number was expected to grow.[2] Many researchers report that working 5.41 hours sitting at desk and 7 hour sleeping at night had a great impact on the physical and mental health.[2] Sitting on a chair is one of the most common positions adopted by humans. children and adults spend approx. 55% of their working hours or 7.7 hours/day in sitting postures.[2] The ergonomic fit workstations have become a standard practice in various developed countries ]]> Wed, 24 May 2023 15:11:58 GMT /slideshow/ergonomic-modification-for-a-person-with-a-desk-job/258000194 JoeAntony14@slideshare.net(JoeAntony14) Ergonomic modification for a person with a desk job JoeAntony14 It was estimated that about 40.7 % of the global population was surfing the computers in the year 2012 as compared to 2006 of only 26.2%. [1] Marshall et al study reveal that on average, six out of 10 employees used a chair at work and the number was expected to grow.[2] Many researchers report that working 5.41 hours sitting at desk and 7 hour sleeping at night had a great impact on the physical and mental health.[2] Sitting on a chair is one of the most common positions adopted by humans. children and adults spend approx. 55% of their working hours or 7.7 hours/day in sitting postures.[2] The ergonomic fit workstations have become a standard practice in various developed countries <img style="border:1px solid #C3E6D8;float:right;" alt="" src="https://cdn.slidesharecdn.com/ss_thumbnails/ergonomicmodificationforapersonwithadesk-230524151159-a5d53b74-thumbnail.jpg?width=120&height=120&fit=bounds" /> It was estimated that about 40.7 % of the global population was surfing the computers in the year 2012 as compared to 2006 of only 26.2%. [1] Marshall et al study reveal that on average, six out of 10 employees used a chair at work and the number was expected to grow.[2] Many researchers report that working 5.41 hours sitting at desk and 7 hour sleeping at night had a great impact on the physical and mental health.[2] Sitting on a chair is one of the most common positions adopted by humans. children and adults spend approx. 55% of their working hours or 7.7 hours/day in sitting postures.[2] The ergonomic fit workstations have become a standard practice in various developed countries

Ergonomic modification for a person with a desk job from Joe Antony

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0 https://public.slidesharecdn.com/v2/images/profile-picture.png https://cdn.slidesharecdn.com/ss_thumbnails/osseo-integratedprosthesisoip-241104131950-f715eb27-thumbnail.jpg?width=320&height=320&fit=bounds slideshow/osseo-integrated-prosthesis-for-amputation/273005663 Osseo-Integrated Prost... https://cdn.slidesharecdn.com/ss_thumbnails/rehabilitationofdisordersofconsciousness-241021134511-ba76bcb8-thumbnail.jpg?width=320&height=320&fit=bounds slideshow/rehabilitation-of-disorders-of-consciousness/272603955 Rehabilitation of diso... https://cdn.slidesharecdn.com/ss_thumbnails/totalhipreplacementrehabilitation-240801160254-6f03d32d-thumbnail.jpg?width=320&height=320&fit=bounds slideshow/total-hip-replacement-rehabilitation-thr/270670917 Total hip replacement ...