Table of Contents
Overview
Definition and Importance
Spinal Cord Injury (SCI) is defined as a sudden disruption to the neuronal tissue within the spinal canal, resulting in damage to the spinal cord. This injury can occur due to various causes, including trauma, disease, or degeneration, and is characterized by its complexity, as each case presents unique challenges and effects on the body.[1.1] Globally, over 15 million people are living with SCI, with most cases resulting from preventable traumatic events such as falls, road traffic injuries, or violence.[2.1] The impact of SCI extends beyond the individual, posing significant socioeconomic challenges for affected individuals and the healthcare system.[3.1] In North America alone, there are approximately 12,500 new cases of SCI each year, highlighting the ongoing prevalence of this debilitating condition.[3.1] The socioeconomic impact of SCI is significant, affecting not only the individuals who sustain these injuries but also the healthcare systems that manage their care. In North America alone, approximately 12,500 new cases of SCI are reported each year, highlighting the ongoing prevalence of this condition.[3.1] The nature of SCI as a multidimensional disorder means that it can arise from both acute trauma, such as motor vehicle crashes, and chronic conditions, including malignancies and infections.[5.1] Understanding the definition and importance of spinal cord injury (SCI) is essential, as it affects a significant number of individuals worldwide. Globally, over 15 million people are living with SCI, with most cases resulting from preventable trauma, such as falls, road traffic injuries, or violence.[2.1] The extent of impairment associated with SCI varies based on the severity and location of the injury within the spinal cord.[2.1] This variability underscores the need for effective prevention strategies and rehabilitation approaches tailored to the specific circumstances of each injury.Impact on Body Functions
Spinal cord injury (SCI) disrupts the communication between the brain and spinal cord, resulting in the loss of motor function below the injury site.[24.1] The acute phase of SCI is characterized by a cascade of pathophysiological changes, including the initiation of inflammation, disruption of the blood-spinal cord barrier, hemorrhage, ischemia, demyelination, and activation of resident microglia to a pro-inflammatory phenotype.[23.1] These changes lead to the production of nitric oxide and glutamate excitotoxicity, which can exacerbate neuronal damage and hinder recovery.[23.1] However, despite these detrimental effects, spontaneous structural and functional plasticity occurs in neural circuits after SCI, allowing unaffected synaptic inputs to form new connections and detour pathways that support recovery.[24.1] The impact of spinal cord injury (SCI) extends beyond immediate physical impairments, influencing various aspects of an individual's life. Research indicates that comprehensive rehabilitation strategies are essential for individuals with SCI, as these approaches can significantly enhance their quality of life, allowing them to lead happy and fulfilling lives despite the irreversible nature of spinal cord damage.[16.1] Effective rehabilitation techniques are particularly crucial for those who have experienced both brain and spinal cord injuries, as the limitations from one condition can affect the management and recovery from the other.[16.1] Rehabilitation following a spinal cord injury (SCI) is essential for addressing the multifaceted needs of individuals affected by this condition. A comprehensive, multidisciplinary approach is required to ensure that all aspects of an individual's rehabilitation are effectively managed.[13.1] Physical therapy serves as a cornerstone of this process, focusing on enhancing mobility, strength, and overall function.[13.1] Additionally, occupational therapy plays a critical role, particularly when initiated early in the rehabilitation process, as it aids in the management of daily living skills and overall functionality.[15.1] The integration of advanced technologies, such as robotic devices, has been shown to be a well-tolerated and effective adjunct to traditional therapies, providing safe, intensive, and task-oriented rehabilitation for individuals with motor impairments resulting from SCI.[14.1] Research indicates that a comprehensive rehabilitation strategy can significantly contribute to helping individuals with SCI lead fulfilling lives, despite the inability of neurorehabilitation to reverse spinal cord damage.[16.1] The biological mechanisms involved in recovery from spinal cord injury (SCI) are intricate and multifaceted. Following SCI, inhibitory molecules serve as significant barriers to regeneration, categorized into two main classes: inhibitory molecules of the extracellular matrix, such as chondroitin sulfate proteoglycans (CSPGs), and inhibitory proteins associated with adult myelin.[22.1] Research has indicated that strategies aimed at blocking these inhibitory factors, such as Nogo-A, can enhance axonal regeneration and functional recovery in animal models.[21.1] Additionally, the presence of a glial scar, while initially protective, can evolve into a potent inhibitor of spinal cord repair and regeneration during the sub-acute and chronic stages of injury.[25.1] Understanding these biological mechanisms is crucial for developing effective therapeutic strategies that aim to enhance recovery and restore body functions following SCI.History
Evolution of Treatment Approaches
The treatment approaches for spinal cord injury (SCI) have undergone significant evolution, reflecting advancements in medical understanding and technology. Historically, ancient civilizations recognized the debilitating effects of SCI, with classical texts like the Iliad noting the relationship between nerve damage and paralysis.[58.1] Early treatment methods included surgical interventions and the use of medications, but these often showed limited efficacy.[50.1] In recent years, innovations in tissue engineering and regenerative medicine have led to the development of advanced strategies for SCI repair. These include nanoparticle-based delivery systems, scaffolds, and functional recovery methods utilizing biomaterials, bioengineering, stem cells, and growth factors, as well as three-dimensional bioprinting.[44.1] Early surgical decompression has also been recognized as a significant advancement, improving patient outcomes compared to older methods.[45.1] This evolution reflects a deeper understanding of SCI pathophysiology and the need for more effective therapeutic strategies.[50.1] Emerging therapies, currently explored in clinical trials, include stem cell therapy, which leverages the regenerative capabilities of stem cells to replace lost neurons and promote recovery.[49.1] Other promising strategies involve genetically modified human neural stem cells[48.1] and various nanotechnology applications, such as nanoparticle-based delivery systems and three-dimensional bioprinting.[44.1] Non-invasive techniques like transcranial direct current stimulation and transcranial magnetic stimulation have shown potential in enhancing neuronal plasticity and improving functional outcomes in patients with motor complete SCI.[46.1] These methods represent a shift from traditional approaches, focusing on augmenting the brain-spinal cord connection to facilitate recovery. Recent technological advancements have significantly influenced rehabilitation practices for individuals with SCI. The integration of tools such as virtual reality (VR) and robotics has been shown to aid in restoring movement and enhancing physical capabilities.[54.1] VR technology increases motivation and engagement among patients, allowing for diverse tasks and exercises in rehabilitation programs.[56.1] Furthermore, scientists at Neurorestore have developed an innovative approach combining rehabilitation robotics with spinal cord stimulation, demonstrating potential to restore movement and improve rehabilitation outcomes, enabling activities like cycling and walking outdoors.[51.1] These advancements highlight the ongoing evolution of treatment approaches in SCI rehabilitation, paving the way for future therapies that may further facilitate recovery.Milestones in Spinal Cord Injury Research
The history of spinal cord injury (SCI) research extends from ancient times to the present, providing an optimistic overview of significant advancements in understanding and treatment options.[40.1] Over the last century, there have been notable improvements in the care of patients with traumatic spinal cord injuries, which have positively influenced their quality of life.[43.1] However, despite these advancements, the reversal of neurological injury remains an ongoing challenge.[43.1] This review highlights the promising clinical trials and avenues of basic research that continue to emerge, offering hope for future developments in SCI treatment.[40.1] The history of spinal cord injury (SCI) is long and fascinating, with perceptions evolving significantly from Ancient Egypt to the present day. Initially, SCI was often viewed through a limited lens, primarily associated with severe consequences. Over time, the understanding of SCI has gradually shifted, reflecting advancements in medical knowledge and a deeper comprehension of its implications.[41.1] A spinal cord injury is defined as damage to the spinal cord that causes temporary or permanent changes in its function. It is recognized as a destructive neurological and pathological state that results in major motor, sensory, and autonomic dysfunctions.[40.1] The 20th century heralded significant advancements in the care of patients with SCI. Research during this time concentrated on improving the quality of life for individuals affected by these injuries. Innovations in medical practices, rehabilitation techniques, and assistive technologies have contributed to better outcomes for patients, although the complete reversal of neurological damage remains elusive.[43.1] Over the years, societal attitudes towards individuals with spinal cord injuries (SCI) have shown a tendency to reflect traditional views, particularly in Iranian society, where both common and educated classes exhibit similarly suppressing attitudes towards SCI victims. This indicates that traditional attitudes often overshadow academic and scientific knowledge.[70.1] Despite some progress, hostile attitudes towards disability persist, as evidenced by events such as Spinal Cord Injury Awareness Week in Australia, which aims to address these negative perceptions.[71.1] Understanding these attitudes is crucial, as they significantly impact the quality of life for individuals with spinal cord injuries and their ability to participate in the workforce.[72.1] Therefore, fostering a more inclusive environment is essential for improving care and support for those affected by SCI.Symptoms
Physical Symptoms
The symptoms of spinal cord injuries (SCI) are highly variable and depend on both the severity and the location of the damage within the spinal cord. Common physical symptoms include loss of movement or paralysis in any part of the body, as well as loss of sensation, which may manifest as an inability to feel heat, cold, or pain. Additionally, individuals may experience spasms or exaggerated reflex activities.[79.1] In cases of cervical spinal cord injury, symptoms can be particularly severe, often resulting in loss of sensation or feeling in the arms, hands, chest, or legs, depending on the injury's level. This type of injury can lead to paralysis in varying degrees, including tetraplegia (quadriplegia), which affects the arms, legs, and torso.[80.1] The acute phase of spinal cord injury is characterized by symptoms such as weakness, paralysis, and loss of feeling, which are contingent upon the extent of damage to the spinal cord and its location.[81.1] Moreover, spinal cord injuries can also affect the cauda equina, which consists of nerves at the end of the spinal cord. This disruption in the spinal cord's ability to send and receive signals between the brain and the rest of the body often results in permanent changes in strength, sensation, and other bodily functions below the injury site.[82.1] As a result, individuals with spinal cord injuries may face significant challenges in their daily lives, necessitating comprehensive rehabilitation and support strategies to manage these physical symptoms effectively.Mental and Emotional Effects
Individuals with spinal cord injuries (SCI) often experience significant mental and emotional effects that can complicate their rehabilitation process. Following an SCI, patients may undergo a period of adjustment characterized by feelings of sadness, anxiety, and in some cases, clinical depression. Psychological support can be beneficial during this transition, with some individuals requiring medical treatment from a psychiatrist or the use of antidepressants to manage their symptoms effectively.[100.1] The psychological impact of SCI extends beyond the initial injury, as individuals may face ongoing challenges such as changes in motivation, personality, and energy levels. These psychological changes can hinder rehabilitation efforts and negatively affect recovery outcomes if not properly managed.[99.1] As time progresses, patients may encounter new psychological hurdles, necessitating family therapy and relationship counseling to support both the individual and their loved ones.[101.1] Behavioral health factors, including pain, dysregulated sleep, substance use, and nutrition, can further exacerbate psychological distress and reduce the quality of life for those with SCI. Psychologists integrated into rehabilitation teams play a crucial role in addressing these factors, helping patients adapt to their new circumstances and manage mental health symptoms that could impede rehabilitation gains.[114.1] The bio-psychosocial model emphasizes the importance of psychosocial care alongside physical rehabilitation, advocating for the provision of mental health support during the early stages of inpatient rehabilitation.[115.1] Therapeutic techniques such as mindfulness and relaxation have shown promise in managing stress, pain, and anxiety associated with SCI, contributing to improved emotional adjustment and overall well-being.[116.1] Ultimately, addressing the mental and emotional effects of spinal cord injuries is essential for enhancing patient engagement in rehabilitation and improving long-term health outcomes.[113.1]Diagnosis
Diagnostic Techniques
Diagnostic techniques for spinal cord injury (SCI) primarily utilize the American Spinal Injury Association (ASIA) method, which classifies injuries based on neurologic levels. This classification system is essential for diagnosing the extent of the injury and informing treatment options.[119.1] Since 2005, the leading causes of SCI have been identified as motor vehicle accidents (40.4%) and falls (27.9%), with falls being most prevalent among individuals aged 45 years or older.[119.1] Additionally, employment outcomes vary by ASIA classification; patients classified as ASIA level D are more likely to be employed compared to those with ASIA levels A, B, and C.[119.1] It is also noteworthy that patients with a complete spinal cord injury have a less than 5% chance of recovery.[119.1] Clinical evaluation typically begins with a thorough medical history and physical examination to assess the patient's neurological function. This includes determining the level of injury and the completeness of the injury, which is crucial for prognosis and rehabilitation planning. For instance, patients classified as ASIA level D, indicating some preserved motor function, have better employment prospects compared to those with more severe classifications (ASIA levels A, B, and C).[119.1] Imaging techniques play a crucial role in diagnosing spinal cord injuries (SCI), which are defined as damage to the spinal cord, a bundle of nerves and nerve fibers responsible for transmitting signals between the brain and the body.[120.1] Each year, an estimated 17,000 new SCIs occur in the United States, primarily due to trauma to the vertebral column, which affects the spinal cord's ability to send and receive messages that control sensory, motor, and autonomic functions below the level of injury.[122.1] The National Institute of Neurological Disorders and Stroke (NINDS) is a leading federal funder of research on spinal cord injuries, supporting innovative research aimed at better understanding, diagnosing, and treating these injuries.[120.1] Research efforts, supported by organizations such as the National Institute of Neurological Disorders and Stroke (NINDS), focus on innovative diagnostic methods and rehabilitation strategies. These include studies on spinal cord stimulation techniques aimed at enhancing the function of spared neural pathways below the injury site.[120.1] Overall, the integration of clinical assessments and advanced imaging technologies is essential for accurate diagnosis and effective management of spinal cord injuries.Classification of Spinal Cord Injuries
Spinal cord injuries (SCIs) are classified using various systems that assess the severity and characteristics of the injury, which significantly influence treatment options and rehabilitation strategies. One of the most widely utilized classification systems is the American Spinal Injury Association Impairment Scale (ASIA), which was developed in 2006 and revised in 2011. This scale categorizes SCIs based on motor and sensory evaluations, providing a standardized method for healthcare providers to communicate about the injury and guide rehabilitation efforts.[137.1] The ASIA Impairment Scale categorizes spinal cord injuries based on motor and sensory evaluations, ensuring consistent communication among healthcare providers and guiding rehabilitation strategies.[140.1] This classification begins by determining whether an injury is complete or incomplete, which significantly influences prognosis and treatment.[140.1] The scale consists of five grades, ranging from complete loss of function, designated as AIS Grade A, to normal neurological status.[137.1] AIS Grade A indicates a complete spinal cord injury, characterized by a total loss of sensory and motor function below the injury, including the sacral segments S4-S5.[137.1] In contrast, AIS Grade B represents an incomplete spinal cord injury where sensory function is preserved below the injury level, but no motor function is present, also including the sacral segments S4-S5.[137.1] Spinal cord injuries (SCIs) are classified by type and severity, with the American Spinal Injury Association (ASIA) Impairment Scale serving as a key diagnostic tool utilized by healthcare providers to categorize these injuries.[136.1] SCIs can be categorized based on their location, which includes cervical, thoracic, lumbar, and sacral regions, as well as the cause of the injury and the extent of damage to the spinal cord.[135.1] A critical aspect of this classification is the distinction between complete and incomplete injuries, which is determined by the presence of motor and/or sensory functions in and around the anus. This distinction reflects whether motor and sensory messages can travel to the lowest level of the spinal cord.[134.1] The ASIA Impairment Scale not only categorizes SCIs based on these evaluations but also ensures consistent communication among healthcare providers and guides rehabilitation strategies, influencing prognosis and treatment options.[140.1] Furthermore, imaging techniques, such as magnetic resonance imaging (MRI), and neurologic assessments, including the ASIA scale, are essential in guiding the management plan for SCIs. Early surgical intervention, particularly within 24 hours for patients with spinal instability or cord compression, is supported by evidence suggesting it can improve neurological recovery and reduce complications.[147.1] The classification of the injury plays a vital role in determining the appropriate surgical approach and rehabilitation strategies, as different classifications present unique challenges during recovery.[140.1]In this section:
Treatment Options
Immediate Care and Emergency Response
Immediate care for spinal cord injury (SCI), particularly acute spinal cord injury (ASCI), is crucial due to its potential to cause severe motor, sensory, and autonomic dysfunctions, impacting the patient's quality of life. The primary focus in the acute phase is on timely surgical intervention, with early decompression being a critical treatment option. This procedure is recommended within 24 hours of injury, especially for adults with traumatic central cord syndrome, although the supporting evidence is limited.[181.1] The timing of surgical decompression remains a debated topic, with no established consensus on the optimal intervention window. Key considerations include the physiological stability of the spinal cord and specific surgical indications, which are vital in managing ASCI patients.[182.1] Preclinical studies suggest that early decompression can mitigate secondary injury, protect neural tissue, and enhance functional recovery, highlighting the importance of prompt action.[183.1] Intra-operative spinal cord injury (ISCI) poses an additional risk during spinal surgeries. Despite this, there is a lack of systematic reviews or clinical practice guidelines for managing spinal cord injuries sustained during operations.[180.1] This gap underscores the need for further research and the development of comprehensive guidelines to improve surgical practices and patient outcomes in the context of spinal cord injuries.Long-term Rehabilitation Strategies
Long-term rehabilitation strategies for individuals with spinal cord injuries (SCI) are multifaceted and focus on enhancing functional independence and quality of life. A comprehensive assessment of the individual’s needs is crucial in developing an effective rehabilitation plan. This assessment should encompass a thorough evaluation of the patient’s neurological function, including motor and sensory examinations, as well as an understanding of their pre-injury capabilities. Such evaluations guide the setting of realistic and appropriate rehabilitation goals, which are essential for maintaining patient motivation throughout the recovery process.[166.1] Goal setting is a vital component of rehabilitation, yet there is limited literature exploring patients' perceptions of their roles in this process. Research indicates that patients often have valuable insights into their rehabilitation goals, which can enhance their engagement and commitment to the rehabilitation program.[163.1] The Needs Assessment Checklist (NAC) has been proposed as a clinically appropriate tool to assess and organize rehabilitation according to client needs rather than being solely therapist-led. This approach encourages patient involvement and addresses a wide range of rehabilitation needs, from physical care to psychological support.[165.1] Integration of mental health support within rehabilitation programs is also critical. Behavioral health factors, such as pain management, sleep regulation, and motivation, can significantly impact a patient’s engagement in rehabilitation therapies. Psychologists embedded in rehabilitation teams can assist patients in adapting to their new circumstances and addressing mental health symptoms that may hinder rehabilitation progress.[171.1] Recent innovations in adaptive technology, such as exoskeletons and advanced mobility aids, have significantly improved outcomes for spinal injury victims by enhancing their independence and mobility. For instance, studies show that individuals using powered exoskeletons can regain the ability to stand and walk, which has been linked to better overall health outcomes.[177.1] Additionally, adaptive technologies, including mind-controlled devices and eye-tracking technology, are revolutionizing the lives of those affected by spinal cord injuries by providing new ways to interact with the world.[178.1] These advancements are crucial in the rehabilitation process, as they not only facilitate physical recovery but also enhance the quality of life for individuals with spinal cord injuries.Recent Advancements
Stem Cell Therapies and Neuromodulation
Recent advancements in stem cell therapies and neuromodulation have shown promising potential in the treatment of spinal cord injuries (SCI). Human umbilical cord mesenchymal stem cells (hucMSCs) are particularly noteworthy due to their advantages such as low cost, minimal invasiveness, and high gene transfection efficiency, making them a viable option for tissue injury repair.[204.1] These cells can differentiate into various germ layers, accumulate in damaged tissues, and modulate immune responses, which are critical for promoting tissue repair.[205.1] Research has demonstrated that the transplantation of hucMSCs, when combined with collagen scaffolds, can lead to improved sensory and motor functions in patients with acute complete cervical cord injuries, as evidenced by increased scores on the American Spinal Injury Association assessments during follow-up.[196.1] Additionally, studies have indicated that the combination of stem cell therapies with biomaterials and biomolecules can enhance the regeneration of injured spinal cords, suggesting a shift towards more integrated treatment approaches.[198.1] In the realm of neuromodulation, techniques such as transcranial direct current stimulation (tDCS) and transcranial magnetic stimulation (TMS) are being explored to augment neuronal plasticity between the spinal cord and the brain. tDCS, a noninvasive method that delivers direct current via scalp electrodes, has shown improvements in functional outcomes for patients with motor complete SCI.[197.1] Similarly, TMS, which uses magnetic waves to stimulate the brain, has demonstrated enhancements in hand function among individuals with tetraplegia.[197.1] Recent advancements in tissue engineering and regenerative medicine have led to the exploration of innovative approaches for treating spinal cord injuries (SCI). Traditional methods for spinal cord injury repair include surgery, oral or intravenous medications, and the administration of neurotrophic factors; however, the efficacy of these approaches remains inconclusive, and serious adverse reactions continue to be a concern.[202.1] Emerging therapies, such as stem cell therapies and neuromodulation techniques, are being investigated to address these limitations and improve recovery outcomes for individuals affected by SCI.[202.1]In this section:
Rehabilitation
Multidisciplinary Approach
A multidisciplinary approach is essential in the rehabilitation of spinal cord injury (SCI) patients, as it integrates various healthcare professionals to address the complex needs of individuals recovering from such injuries. The Needs Assessment Checklist (NAC), developed at the National Spinal Injuries Centre in the UK, exemplifies this approach by evaluating rehabilitation needs within a biopsychosocial framework. This framework considers not only physical rehabilitation but also psychological issues, skin care, bowel management, and discharge coordination, thereby promoting patient engagement in their rehabilitation process.[244.1] The initial assessment of an individual with a spinal cord injury is a critical step in physiotherapy management. It involves a comprehensive evaluation of the patient's neurological function through motor and sensory examinations, which helps in setting realistic goals and maintaining motivation throughout the rehabilitation journey.[245.1] This assessment also includes identifying impairments such as weakness, sensation, tone, and range of movement, as well as understanding how these impairments affect the patient's daily activities and participation.[245.1] Patient participation is highlighted as a key factor in successful rehabilitation. Engaging patients in their care allows for a collaborative process where their feedback can inform and tailor rehabilitation plans to better meet their specific needs.[249.1] Qualitative studies have shown that patients with SCI value their active role in rehabilitation, which can enhance their overall experience and outcomes.[250.1] Recent advancements in rehabilitation technologies are significantly enhancing the multidisciplinary approach to spinal cord injury recovery. Innovations such as functional electrical stimulation, epidural stimulation, and robotic-assisted gait training are opening new avenues for prolonged recovery after spinal cord injuries, representing a promising area for future potential and innovation.[260.1] Additionally, adaptive technologies, including mobility aids like wheelchairs and scooters, as well as communication devices, are crucial in helping individuals regain independence by improving accessibility.[263.1] For instance, the FitMi home exercise system encourages high-repetition exercises that motivate users to engage in physical activity, facilitating adaptive changes in the spinal cord and promoting better movement in their hands and arms for patients with incomplete quadriplegia.[262.1] Furthermore, support networks, including rehabilitation programs and occupational therapy, play a vital role in assisting individuals in managing their conditions and adjusting to life after injury, thereby enhancing their overall independence.[263.1]Importance of Early Rehabilitation
Early rehabilitation following a spinal cord injury (SCI) is crucial for optimizing recovery and enhancing the quality of life for affected individuals. The primary goal of rehabilitation is to help individuals regain as much independence as possible, manage symptoms, and adjust to life after the injury.[236.1] This process is vital as it enables patients to relearn how to control their bodies, take care of themselves, and return to daily activities.[237.1] The development of spinal cord injury (SCI) medicine can be traced back to the aftermath of World War II, when mass casualties necessitated the establishment of specialized treatment centers for injured soldiers.[235.1] However, the foundational principles of this approach to rehabilitation were first introduced during World War I by pioneers such as R. Tait McKenzie and George Deaver. They demonstrated that soldiers affected by paralysis could successfully reintegrate into society through structured programs focused on fitness, mobility, and recreational activities.[235.1] This historical context highlights the critical role of early rehabilitation in facilitating the recovery and social reintegration of individuals with spinal cord injuries. The Mayo Clinic Spinal Cord Injury Rehabilitation Program, located on the Minnesota campus, has been instrumental in aiding thousands of individuals in their recovery from spinal cord injuries and disorders (SCI/Ds) for over 40 years.[238.1] This program provides comprehensive initial and lifelong rehabilitation services, ensuring that patients receive coordinated care as they transition from one level of care to another, adapting to their improving conditions.[238.1]Challenges And Future Directions
Barriers to Effective Treatment
Barriers to effective treatment for individuals with spinal cord injuries (SCI) include a variety of physical, systemic, and psychological challenges that significantly impede recovery and rehabilitation. A major obstacle is the presence of inhibitory molecules in the central nervous system (CNS), which create an environment that obstructs axonal regeneration following spinal cord injuries. These inhibitory molecules, such as myelin-associated inhibitors and chondroitin sulfate proteoglycans, accumulate at the injury site and form a highly inhibitory environment for axonal growth.[284.1] Extensive literature indicates that targeting these various inhibitory molecules may improve functional recovery in models of spinal cord injury, as first demonstrated with the IN-1 antibody and later with chondroitinase.[283.1] Research has shown that blocking specific molecules like Nogo-A can enhance axonal regeneration and functional recovery in animal models of spinal cord injury.[281.1] Thus, addressing these inhibitory factors is crucial for advancing treatment strategies aimed at improving recovery outcomes for individuals with SCI. Individuals with spinal cord injury (SCI) face significant barriers to accessing primary care, which can be categorized into physical, attitudinal, knowledge-based, and systemic issues. Physical barriers extend beyond basic accessibility features, such as ramps, and include the overall infrastructure of healthcare facilities that often fails to meet the needs of SCI patients.[286.1] Attitudinal barriers stem from the attitudes, knowledge, and expertise of primary care providers, which can hinder the delivery of quality care.[285.1] These barriers are not merely individual challenges; they are framed as social justice issues, underscoring the inequality in primary care access for individuals living with SCI.[287.1] To combat these disparities, it is crucial to advocate for public policies that ensure equal rights and opportunities for people with SCI and wheelchair users, focusing on advancing social equity and disability rights.[289.1] By acknowledging and addressing these barriers, primary care providers can fulfill their obligation to provide equal and accessible care to all patients.[287.1] Individuals with spinal cord injuries (SCI) often face significant psychological challenges, including heightened levels of anxiety, depression, and post-traumatic stress disorder, which can impair their psychological and social integration following the injury.[313.1] These mental health issues can negatively affect engagement and motivation in rehabilitation therapies, ultimately increasing the risk of psychological distress and reducing quality of life.[314.1] To address these complex needs, the dynamics of an interdisciplinary team are essential, as effective collaboration among healthcare professionals leads to a comprehensive approach that supports both the physical and psychological aspects of recovery.[315.1] Comprehensive care for individuals with SCI requires coordinated, interdisciplinary efforts, ensuring that the care provided by nurses, therapists, physicians, and ancillary personnel is organized and integrated in a holistic manner to achieve optimal rehabilitation outcomes.[316.1]Future Research and Innovations
The future of spinal cord injury (SCI) rehabilitation is poised for significant advancements, driven by emerging technologies and innovative therapeutic strategies. One of the most promising areas of research involves the integration of brain-machine interfaces (BMIs) and functional electrical stimulation (FES). These technologies have the potential to enhance rehabilitation outcomes by facilitating neurorehabilitation and restoring motor functions. For instance, a brain-machine-spinal-cord interface (BMSCI) can create a spinal bridge that allows motor intent to bypass the injury site, thereby restoring lower-limb motor function when combined with robotic exoskeletons for support during rehabilitation.[292.1] Moreover, recent studies have highlighted the effectiveness of various forms of electrical stimulation, including epidural and peripheral nerve stimulation, which have shown promising improvements in motor function for individuals with SCI.[294.1] These advancements suggest that electrical stimulation, when paired with voluntary motor training, can significantly enhance neurorehabilitation efforts.[295.1] In addition to technological innovations, there is a growing recognition of the importance of addressing mental health in the rehabilitation process. Anxiety and depression are common among individuals with SCI, and these mental health challenges can arise at various stages, including immediately following the injury and during rehabilitation.[297.1] Future research should focus on developing robust psychosocial interventions tailored to the diverse needs of SCI patients, particularly in the early stages of rehabilitation.[298.1] Furthermore, behavioral health factors such as pain, sleep disturbances, and motivation play a critical role in rehabilitation engagement and outcomes. Psychologists embedded within rehabilitation teams can provide essential support by helping patients adapt to their new circumstances and addressing mental health symptoms that may hinder rehabilitation progress.[299.1]In this section:
References
[1] Overview of Spinal Cord Injuries - Physiopedia — What is a Spinal Cord Injury [edit | edit source]. Spinal Cord Injury (SCI) is a sudden onset disruption to the neuronal tissue within the spinal canal resulting in spinal cord damage, which occurs as a result of trauma, disease or degeneration. Any damage to the spinal cord is a very complex injury. Each injury is different and can affect the body in many different ways. It can present as
[2] Spinal cord injury - World Health Organization (WHO) — Select language Donate Donate Home Health Topics All topics A B C D E F G H I J K L M N O P Q R S T U V W X Y Z Resources Fact sheets Facts in pictures Multimedia Podcasts Publications Questions and answers Tools and toolkits Popular Dengue Endometriosis Excessive heat Herpes Mental disorders Mpox Countries All countries A B C D E F G H I J K L M N O P Q R S T U V W X Y Z Regions Africa Americas Europe Eastern Mediterranean South-East Asia Western Pacific WHO in countries Data by country Country presence Country strengthening Country cooperation strategies Newsroom All news News releases Statements Campaigns Events Feature stories Press conferences Speeches Commentaries Photo library Headlines Emergencies Focus on Cholera Coronavirus disease (COVID-19) Greater Horn of Africa Israel and occupied Palestinian territory Mpox Sudan Ukraine Latest Disease Outbreak News Situation reports Weekly Epidemiological Record WHO in emergencies Surveillance Operations Research Funding Partners Health emergency appeal International Health Regulations Independent Oversight and Advisory Committee Data Data at WHO Data hub Global Health Estimates Mortality Health inequality Dashboards Triple Billion Progress Health Inequality Monitor Delivery for impact COVID-19 dashboard Data collection Classifications SCORE Surveys Civil registration and vital statistics Routine health information systems Harmonized health facility assessment GIS centre for health Reports World Health Statistics UHC global monitoring report About WHO About WHO Partnerships Committees and advisory groups Collaborating centres Technical teams Organizational structure Who we are Our work Activities Initiatives General Programme of Work WHO Academy Funding Investment in WHO WHO Foundation Accountability External audit Financial statements Internal audit and investigations Programme Budget Results reports Governance Governing bodies World Health Assembly Executive Board Member States Portal Home/ Newsroom/ Fact sheets/ Detail/ Spinal cord injury Spinal cord injury 16 April 2024 Spinal cord injury Key facts Globally, over 15 million people are living with spinal cord injury (SCI). Most SCI cases are due to trauma, including falls, road traffic injuries or violence, and are thus preventable. Overview The term spinal cord injury (SCI) refers to damage to the spinal cord resulting from trauma (e.g. The extent of SCI related impairment depends on injury severity and location in the spinal cord.
[3] Traumatic Spinal Cord Injury: An Overview of Pathophysiology, Models ... — Spinal cord injury (SCI) is a debilitating neurological condition with tremendous socioeconomic impact on affected individuals and the health care system. According to the National Spinal Cord Injury Statistical Center, there are 12,500 new cases of SCI each year in North America .
[5] Spinal Cord Injuries - StatPearls - NCBI Bookshelf — Spinal cord injury (SCI) is a multidimensional disorder arising from direct or indirect spinal cord damage. The most common SCI cause is acute trauma from motor vehicular crashes (MVCs), although the condition may also arise from insidious etiologies such as malignancies and chronic tuberculous infection. Spinal cord lesions may lead to permanent disability, significant morbidity, and even
[13] Optimizing Our Healing Journey: Strategies for Spinal Cord Injury ... — Effective spinal cord injury rehabilitation requires a comprehensive, multidisciplinary approach to ensure that all aspects of an individual's needs are addressed. ... Physical therapy is a cornerstone in spinal cord injury rehabilitation, focusing on improving mobility, strength, and overall function. We work on: Strength Training: Improving
[14] Therapeutic Interventions for Spinal Cord Injury - Physiopedia — Rehabilitation using robotics is generally well-tolerated, and has been found to be an effective adjunct to therapy in individuals with motor impairments as a result of a spinal cord injury. Robotic devices provide safe, intensive and task-oriented rehabilitation allowing;
[15] Rehabilitation in spinal cord injury - Wikipedia — The rehabilitation process following a spinal cord injury typically begins in the acute care setting. Occupational therapy plays an important role in the management of SCI. Recent studies emphasize the importance of early occupational therapy, started immediately after the client is stable.
[16] Rehabilitation Treatments for Spinal Cord Injury — Conclusion. Research indicates that spinal cord injury rehabilitation can help people with SCI lead happy, fulfilling lives, even though neurorehabilitation can't reverse spinal cord damage. A comprehensive rehabilitation strategy is essential, particularly for individuals who have suffered both brain and spinal cord injuries, since the limitations resulting from one disorder may affect how
[21] Spinal Cord Regeneration: Progress in Post-Injury Recovery — For instance, research published in Nature Neuroscience has demonstrated that blocking Nogo-A can enhance axonal regeneration and functional recovery in animal models of spinal cord injury. This approach, along with the use of growth-promoting factors like brain-derived neurotrophic factor (BDNF) and nerve growth factor (NGF), has shown promise
[22] Molecular and Cellular Mechanisms of Axonal Regeneration After Spinal ... — Following spinal cord injury (SCI), inhibitory molecules act as barriers of regeneration. These inhibitors fall into two broad classes: inhibitory molecules of the extracellular matrix such as the chondroitin sulfate proteoglycans (CSPGs); and inhibitory proteins associated with adult myelin.
[23] Neuroplasticity and regeneration after spinal cord injury — Timeline of pathophysiological changes following spinal cord injury. (A) The acute phase of injury involves the initiation of inflammation, along with disruption of the blood-spinal cord barrier, hemorrhage and ischemia, demyelination, and activation of resident microglia to a pro-inflammatory phenotype (M1), resulting in nitric oxide production and glutamate excitotoxicity.
[24] Harnessing spinal circuit reorganization for targeted functional ... — Spinal cord injury (SCI) disrupts the communication between the brain and spinal cord, resulting in the loss of motor function below the injury site. However, spontaneous structural and functional plasticity occurs in neural circuits after SCI, with unaffected synaptic inputs forming new connections and detour pathways to support recovery.
[25] Traumatic Spinal Cord Injury: An Overview of Pathophysiology, Models ... — Keywords: spinal cord injury, secondary injury mechanisms, clinical classifications and demography, animal models, glial and immune response, glial scar, chondroitin sulfate proteoglycans (CSPGs), cell death Cell Death in Spinal Cord Injury Despite the protective role of the astrocytic glial scar in acute SCI, its evolution and persistence in the sub-acute and chronic stages of injury has been considered as a potent inhibitor for spinal cord repair and regeneration (267, 287). Cell death in models of spinal cord injury. Apoptosis as a mechanism of neuronal cell death following acute experimental spinal cord injury. Differences in the phagocytic response of microglia and peripheral macrophages after spinal cord injury and its effects on cell death.
[40] Spinal Cord Injury—Past, Present, and Future - PMC — This special report traces the path of spinal cord injury (SCI) from ancient times through the present and provides an optimistic overview of promising clinical trials and avenues of basic research. The spinal cord injuries of Lord Admiral Sir
[41] History The historical evolution of the management of spinal cord injury — The history of spinal cord injury (SCI) is long and fascinating. From Ancient Egypt to the current day, SCI has gradually shifted from being seen as a…
[43] The past, present, and future of traumatic spinal cord injury therapies ... — This review provides a concise outline of the advances made in the care of patients and to the quality of life after a traumatic spinal cord injury (SCI) over the last century. Despite these improvements reversal of the neurological injury is not
[44] Biomaterial-based strategies: a new era in spinal cord injury ... - PubMed — With advancements in tissue engineering and regenerative medicine, emerging strategies for spinal cord injury repair now involve nanoparticle-based nanodelivery systems, scaffolds, and functional recovery techniques that incorporate biomaterials, bioengineering, stem cell, and growth factors as well as three-dimensional bioprinting.
[45] Advances and Challenges in Spinal Cord Injury Treatments - MDPI — Spinal cord injury (SCI) is a debilitating condition that is associated with long-term physical and functional disability. Our understanding of the pathogenesis of SCI has evolved significantly over the past three decades. In parallel, significant advances have been made in optimizing the management of patients with SCI. Early surgical decompression, adequate bony decompression and expansile
[46] Current advancements in the management of spinal cord injury: A ... — Transcranial direct current stimulation and transcranial magnetic stimulation are two main approaches that are being used to augment the neuronal plasticity between the spinal cord and the brain in individuals with SCI. Several studies have already demonstrated to improve functional outcomes from using transcranial direct current stimulation in patients with motor complete SCI. Transcranial direct current stimulation is a noninvasive method to deliver direct current with the use of scalp electrodes. Transcranial magnetic stimulation is another noninvasive approach that delivers magnetic waves to the brain and has shown improvements in hand function in studies on patients with tetraplegia.
[48] New orally available drug for spinal cord injury found to be safe and ... — Aug. 16, 2023 — A research team has recently made a significant advancement in spinal cord injury treatment by using genetically modified human neural stem cells (hNSCs). They found that
[49] Advancing Spinal Cord Injury Treatment through Stem Cell Therapy: A ... — Stem cell therapy offers hope for patients suffering from SCI by harnessing the unique regenerative capabilities of stem cells [].These cells have the potential to differentiate into various cell types [], thereby replacing lost neurons, promoting axonal growth, remyelinating damaged axons, modulating immune response, and creating a permissive environment for functional recovery .
[50] Biomaterial-based strategies: a new era in spinal cord injury treatment ... — This complexity has prompted researchers to elucidate the underlying pathophysiological mechanisms and changes and to identify effective treatment strategies. Traditional approaches for spinal cord injury repair include surgery, oral or intravenous medications, and administration of neurotrophic factors; however, the efficacy of these
[51] Robotics and spinal stimulation restore movement in paralysis — Scientists at .Neurorestore (EPFL/CHUV/UNIL) have developed an approach that combines rehabilitation robotics with spinal cord stimulation to restore movement in people with spinal cord injuries. The technology enhances rehabilitation and enables activities like cycling and walking outdoors.
[54] Virtual Analysis for Spinal Cord Injury Rehabilitation — Recent advancements in technology have introduced new tools for SCI rehabilitation, such as virtual reality and robotics, which aid in restoring movement and enhancing physical capabilities. Additionally, ongoing research is exploring innovative treatments like stem cell therapy and nerve-stimulating techniques to further facilitate the
[56] Efficacy of Virtual Reality Rehabilitation after Spinal Cord Injury: A ... — Background: Spinal cord injury (SCI) is often associated with long-term impairments related to functional limitations in the sensorimotor system. The use of virtual reality (VR) technology may lead to increased motivation and engagement, besides allowing a wide range of possible tasks/exercises to be implemented in rehabilitation programs.
[58] History of Neurotrauma in Ancient Greece - PMC — Hippocratic writers later understood that injury to the spinal cord could cause paralysis. There are even passages in the Iliad that suggest a possible relationship between spinal cord injury and paralysis, as well as an understanding of the role of the brachial plexus, illustrated by descriptive passages "The nerves broke, and the hand became
[70] What are the people's attitudes toward spinal cord injury victims (from ... — The results showed that both groups of common, and educated and elite classes of Iranian society have identically suppressing attitudes and interactions toward spinal cord injury victims. It seems that traditional attitudes yet preponderate academic and scientific knowledge in Iranian society.
[71] History of disability - How people with a disability were treated by ... — Australia is celebrating the Spinal Cord Injury Awareness Week during September 4 - 10 2017. ... out of bad.I wondered about the history of disability and the question "How were people with disabilities treated by society in the past?" ... one legacy remained; hostile attitudes towards disability. The extra money and effort needed to
[72] PDF — light on attitudes towards persons with spinal cord injuries. The background literature related to incidences, the definition of spinal cord injury, and vocational opportunities are valuable areas to review as obtaining a better quality of life can allow the individual with spinal cord injuries to be a part of the workforce. This, in essence, will
[79] Spinal Cord Injury: Causes, Symptoms, and Treatment Options — The symptoms of spinal cord injuries depend on the severity and location of the damage. Common symptoms include: Loss of movement or paralysis in any part of the body. Loss of sensation, including the inability to feel heat, cold, or pain. Spasms or exaggerated reflex activities.
[80] Types & Levels of Spinal Cord Injuries | Shepherd Center — Common symptoms of cervical spinal cord injury include: Loss of sensation or feeling in the arms, hands, chest, or legs, depending on the level of injury Paralysis in varying degrees, such as tetraplegia (quadriplegia), which affects the arms, legs, and torso.
[81] Acute Spinal Cord Injury - Johns Hopkins Medicine — Acute Spinal Cord Injury | Johns Hopkins Medicine Acute Spinal Cord Injury What is an acute spinal cord injury? Acute spinal cord injury (SCI) is a traumatic injury that bruises, partially, or completely tears the spinal cord. Your spine may be in shock right after a spinal cord injury. Generally, the higher up the level of the injury is to the spinal cord, the more severe the symptoms. These are the most common symptoms of acute spinal cord injuries: Sometimes, surgery is needed to stabilize the spinal cord after acute SCI. The severity of symptoms (such as weakness, paralysis, and loss of feeling) depends on how badly the spinal cord is damaged and where on the cord the injury occurs.
[82] Spinal cord injury - Symptoms and causes - Mayo Clinic — It also can include damage to nerves at the end of the spinal cord, known as the cauda equina. The spinal cord sends and receives signals between the brain and the rest of the body. A spinal cord injury often causes permanent changes in strength, feeling and other body functions below the site of the injury. Many scientists are optimistic that advances in research will someday make repair of spinal cord injuries possible.
[99] Psychological Effects of Spinal Cord Injury & How to Manage Them — While a spinal cord injury directly affects motor control and sensation, individuals may also experience secondary psychological effects. Psychological changes after spinal cord injury can affect a person's motivation, personality, and energy levels. Without proper management, these changes can hinder one's ability to pursue rehabilitation and negatively impact recovery outcomes. To help
[100] Psychosocial Issues of Spinal Cord Injury - UPMC — There is often a period of adjustment after a spinal cord injury. Sometimes feelings of sadness or anxiety may develop. In some cases, clinical depression may develop. Some people may benefit from psychological support after SCI. In many cases, medical treatment from a psychiatrist or use of anti-depressants may be indicated.
[101] Spinal Cord Injury: Navigating Mental Health Challenges — The Long Haul: Psychological Effects That Linger. As time passes and the initial shock subsides, individuals with spinal cord injuries often face a new set of psychological challenges. ... Family therapy and relationship counseling are often vital components of the recovery process. A spinal cord injury affects not just the individual but their
[113] Mental Health and Spinal Cord Injury: Clinical Considerations for ... — Purpose of review: Assessing and addressing the mental and behavioral health concerns of individuals with SCI during rehabilitation is crucial, as untreated mental health distress can lead to reduced gains in rehabilitation and poor overall health. This review provides an overview of the latest research on prevalence rates of common mental and behavioral health concerns in the SCI population
[114] Mental Health and Spinal Cord Injury: Clinical Considerations for ... — Many behavioral health factors, such as pain, dysregulated sleep, substance use, exercise, and nutrition, can negatively affect engagement and motivation in rehabilitation therapies, which can ultimately increase risk for psychological distress and reduced QOL following SCI . As there can be a multitude of changes and challenges following an SCI and throughout initial rehabilitation, psychologists embedded in rehabilitation teams are able to assist patients in normative adaptation to a new injury, assess and treat mental health symptoms, and address factors that could negatively impact rehabilitation gains if left untreated (e.g., pain, poor sleep, low motivation, cognitive deficits).
[115] Systematic Review of Psychosocial Interventions for People With Spinal ... — Background: The bio-psychosocial model of spinal cord injury (SCI) highlights that psychosocial care is of equal importance as physical rehabilitation, and should be offered in the earlier stages of inpatient rehabilitation. Aim: This systematic review aimed to identify interventional research regarding psychosocial care for people with SCI during inpatient rehabilitation and synthesize the
[116] Spinal Cord Injury: Navigating Mental Health Challenges — Mindfulness and relaxation techniques have shown promising results in managing stress, pain, and anxiety associated with spinal cord injuries. ... The impact of coping on emotional adjustment to spinal cord injury (SCI): review of the literature and application of a stress appraisal and coping formulation. ... C. M. (2012). Psychosocial issues
[119] Spinal Cord Injuries: Practice Essentials, Background, Anatomy - Medscape — American Spinal Injury Association (ASIA) method for classifying spinal cord injury (SCI) by neurologic level. Since 2005, the most common causes of spinal cord injury (SCI) remain: (1) motor vehicle accidents (40.4%); (2) falls (27.9%), most common in those aged 45 years or older. Marital, educational, and employment status of patients with spinal cord injuries are discussed below. Patients with SCI classified as American Spinal Injury Association (ASIA) level D are more likely to be employed than individuals with ASIA levels A, B, and C (see Neurologic level and extent of injury under Clinical). Patients with a complete spinal cord injury (SCI) have a less than 5% chance of recovery. American Spinal Injury Association (ASIA) method for classifying spinal cord injury (SCI) by neurologic level.
[120] Spinal Cord Injury - National Institute of Neurological Disorders and ... — A spinal cord injury (SCI) is damage to the spinal cord—the bundle of nerves and nerve fibers that sends and receives signals from the brain. The National Institute of Neurological Disorders and Stroke (NINDS), a part of the National Institutes of Health (NIH), is the leading federal funder of research on the brain and nervous system, including research on spinal cord injuries. NINDS supports new and innovative research to better understand, diagnose, and treat spinal cord injuries. Other research involves stimulating the spinal cord below the level of injury to help spared cells and fibers function. Spinal cord injury and rehabilitation research centers maintain registries of people interested in participating in ongoing or future clinical studies.
[122] Spinal Cord Injury - AANS - American Association of Neurological Surgeons — Spinal Cord Injury - AANS Every year, an estimated 17,000 new SCIs occur in the U.S. Most of these are caused by trauma to the vertebral column, thereby affecting the spinal cord’s ability to send and receive messages from the brain to the body’s systems that control sensory, motor and autonomic function below the level of injury. ASIA A: injury is complete spinal cord injury with no sensory or motor function preserved. A New Spinal Cord Injury Treatment is Getting Patients Back on Their Feet. | VISITOR_PRIVACY_METADATA | 6 months | YouTube sets this cookie to store the user's cookie consent state for the current domain.
[134] PDF — The difference in definition of a clinically complete or incomplete injury is based on the presence of muscle and/or sensory functions in and around the anus. This reflects whether motor and/or sensory messages are able to travel to the lowest level of your spinal cord. An injury is classified as 'complete' (ASIA Impairment Scale grade A) when there is no muscle movement or feeling in or
[135] Types of Spinal Cord Injuries and Levels of Severity - Ability KC — This article covers some common classification systems your care providers may use to talk about your SCI. How are spinal cord injuries classified? Spinal cord injuries may be categorized by the location of the injury, the cause and the extent of damage to the spinal cord. Injuries can occur in the cervical, thoracic, lumbar and sacral regions.
[136] Spinal Cord Injury Classification and Syndromes - HealthCentral — Spinal cord injury is classified by type and severity. The American Spinal Injury Association or ASIA impairment grading system is a diagnostic tool doctors utilize to classify SCI.
[137] ASIA Scale: A Modern Overview of Spinal Cord Classification — The ASIA Impairment Scale categorizes spinal cord injuries based on motor and sensory evaluations, ensuring consistent communication among healthcare providers and guiding rehabilitation strategies. A complete spinal cord injury, designated as AIS Grade A, involves a total loss of sensory and motor function below the injury, including the sacral segments S4-S5. The ASIA Impairment Scale categorizes spinal cord injuries into five grades, ranging from complete loss of function to normal neurological status. AIS Grade A represents a complete spinal cord injury, with total loss of motor and sensory function below the injury, including the sacral segments S4-S5. AIS Grade B is an incomplete spinal cord injury where sensory function is preserved below the injury, including the sacral segments S4-S5, but no motor function is present.
[140] ASIA Scale: A Modern Overview of Spinal Cord Classification — The ASIA Impairment Scale categorizes spinal cord injuries based on motor and sensory evaluations, ensuring consistent communication among healthcare providers and guiding rehabilitation strategies. Classification begins by determining whether an injury is complete or incomplete, which influences prognosis and treatment.
[147] Surgical and Neurointensive Management for Acute Spinal Cord Injury: A ... — Imaging and neurologic assessments, including the ASIA scale, guide the management plan. Early decompressive surgery within 24 hours is widely supported for patients with spinal instability or cord compression. Pharmacologic strategies aim to reduce secondary injury, though standardization remains limited.
[163] Patients' perceptions of their roles in goal setting in a spinal cord ... — Goal setting is a common practice in rehabilitation, yet there is a paucity of literature exploring patients' perceptions of their roles in this process. This study was conducted using a qualitative descriptive methodology to explore patients' perceptions of their roles in setting goals in a spinal cord injury regional rehabilitation program.
[165] Planning and Structuring Spinal Cord Injury Rehabilitation — Planning and Structuring Spinal Cord Injury Rehabilitation: The Needs Assessment Checklist - PMC The study aimed to evaluate the Needs Assessment Checklist (NAC) as a clinically appropriate assessment tool for use during spinal cord injury (SCI) rehabilitation. It is argued that rehabilitation should be assessed and organized according to client need rather than being therapist led as this encourages engagement in rehabilitation.1 The Needs Assessment Checklist (NAC2) and goal planning approach was developed at the National Spinal Injuries Centre (NSIC), UK, and addresses the rehabilitation needs of patients within a biopsychosocial framework, taking into consideration everything from skin care and bowel management through to psychological issues and discharge coordination.
[166] Assessment of Spinal Cord Injury - Physiopedia — The assessment of an individual with a spinal cord injury is an important initial step in physiotherapy management. Understanding what the individual was able to do pre spinal cord injury is vital in order to guide your objective assessment, set appropriate, realistic goals to guide treatment and maintain motivation.; The comprehensive clinical assessment of the individual with a spinal cord injury should both accurately describe the individual’s neurological function (motor and sensory examinations) and generally predict the future relative abilities and/or impairment given the neurological status. Objectively it is essential to first assess impairments including weakness, sensation, tone, range of movement and then the impact that these impairments have at the activity and participation level for the individual with a spinal cord injury.
[171] Mental Health and Spinal Cord Injury: Clinical Considerations for ... — Many behavioral health factors, such as pain, dysregulated sleep, substance use, exercise, and nutrition, can negatively affect engagement and motivation in rehabilitation therapies, which can ultimately increase risk for psychological distress and reduced QOL following SCI . As there can be a multitude of changes and challenges following an SCI and throughout initial rehabilitation, psychologists embedded in rehabilitation teams are able to assist patients in normative adaptation to a new injury, assess and treat mental health symptoms, and address factors that could negatively impact rehabilitation gains if left untreated (e.g., pain, poor sleep, low motivation, cognitive deficits).
[177] Living with a Spinal Cord Injury: Adaptive Technologies and Support — Recent innovations in adaptive technology, such as exoskeletons and advanced mobility aids, have significantly improved outcomes for spinal injury victims by enhancing independence and mobility. For instance, studies show that individuals using powered exoskeletons can regain the ability to stand and walk, which has been linked to better
[178] Top 10 Adaptive Technologies That Are Changing Lives After Spinal Cord ... — Let's explore the top 10 adaptive technologies that are making a difference for those affected by spinal cord injuries. Key Takeaways. Adaptive technologies are revolutionizing the lives of those with spinal cord injuries. Mind-controlled devices and eye-tracking technology offer new ways to interact with the world.
[180] New clinical practice guidelines for acute spinal cord injury — Intra-operative spinal cord injury. To date, no systematic reviews or clinical practice guidelines have been available that discuss the management of patients who sustain a spinal cord injury during an operation. This is in spite of the fact that intra-operative SCI (ISCI) is an intrinsic risk to any spinal surgery.
[181] Spinal Cord Injury Clinical Guidelines - Physiopedia — Spinal Cord Injury Clinical Guidelines ... Early decompression surgery, ≤ 24 hours after injury, should be considered as a treatment option in adults with traumatic central cord syndrome, and be offered as an option regardless of level for other spinal cord injuries but the evidence is of low quality.
[182] Spinal cord injury—The role of surgical treatment for neurological ... — Acute spinal cord injury (ASCI) is common and no consensuses have been reached regarding timing of surgical decompression. This article highlights the main issues regarding surgical management of ASCI patients. ... The importance of timing of surgery along with physiological stability of the cord, and indications for surgery has been discussed
[183] An Update of a Clinical Practice Guideline for the Management of ... — Study design: Clinical practice guideline development. Objectives: Acute spinal cord injury (SCI) can result in devastating motor, sensory, and autonomic impairment; loss of independence; and reduced quality of life. Preclinical evidence suggests that early decompression of the spinal cord may help to limit secondary injury, reduce damage to the neural tissue, and improve functional outcomes.
[196] Delving into the recent advancements of spinal cord injury treatment: a ... — In SCI, transplantation of stem cells alone is not enough to promote regeneration of injured nerves due to the hostile environment at the injured site of the spinal cord (Silvestro et al., 2020). Transplantation of collagen scaffold modified with N-cadherin (Liu et al., 2020b), mixture of primary NSCs and matrigel (Wang et al., 2020), collagen/silk fibroin 3D-scaffold along with NSCs (Jiang et al., 2020) into complete transected rat spinal cord showed comparable outcomes following SCI in rodents. In a phase I clinical trial conducted by the same group, transplantation of human umbilical cord mesenchymal stem cells and collagen scaffold in patients with acute complete cervical cord injuries showed increased sensory and motor functions measured by the American Spinal Injury Association scores and the activities of daily life scores during 12 months follow up (Deng et al., 2020).
[197] Current advancements in the management of spinal cord injury: A ... — Transcranial direct current stimulation and transcranial magnetic stimulation are two main approaches that are being used to augment the neuronal plasticity between the spinal cord and the brain in individuals with SCI. Several studies have already demonstrated to improve functional outcomes from using transcranial direct current stimulation in patients with motor complete SCI. Transcranial direct current stimulation is a noninvasive method to deliver direct current with the use of scalp electrodes. Transcranial magnetic stimulation is another noninvasive approach that delivers magnetic waves to the brain and has shown improvements in hand function in studies on patients with tetraplegia.
[198] Current treatments after spinal cord injury: Cell engineering, tissue ... — Key points Recent advances have been made in bioengineering fields that therapies based on cells, biomaterials, and biomolecules have proved effective in the regeneration of the injured spinal cord. This study aims to provide an insight into the most forefront neuroprotective and neuroregenerative strategies in order to predict where the field of spinal cord injury (SCI) treatments is going in
[202] Biomaterial-based strategies: a new era in spinal cord injury ... - PubMed — Traditional approaches for spinal cord injury repair include surgery, oral or intravenous medications, and administration of neurotrophic factors; however, the efficacy of these approaches remains inconclusive, and serious adverse reactions continue to be a concern. ... With advancements in tissue engineering and regenerative medicine, emerging
[204] Human umbilical cord mesenchymal stem cells and exosomes: bioactive ... — Compared with other MSCs, human umbilical cord mesenchymal stem cells (hucMSCs) are of interest for tissue injury repair because of low cost, minimal invasiveness, convenient isolation, large cell content, high gene transfection efficiency and low immunogenicity . On account of their bioactive advantages, hucMSCs are likely to become a
[205] Umbilical cord-derived mesenchymal stem cells: Their advantages and ... — Abstract. Human umbilical cord (UC) is a promising source of mesenchymal stem cells (MSCs). Apart from their prominent advantages, such as a painless collection procedure and faster self-renewal, UC-MSCs have shown the ability to differentiate into three germ layers, to accumulate in damaged tissue or inflamed regions, to promote tissue repair, and to modulate immune response.
[235] Linking spinal cord injury rehabilitation between the World ... - PubMed — Spinal cord injury (SCI) medicine emerged after World War II due to mass casualties, which required specialized treatment centers. This approach to categorical care, however, was first developed during World War I, led by pioneers R. Tait McKenzie and George Deaver, who demonstrated that soldiers disabled by paralysis could return to society through fitness/mobility, recreational and
[236] Spinal Cord Injury Rehabilitation: In-Home vs. Facility-Based Care ... — Spinal cord injury (SCI) rehabilitation is a vital step in the recovery process after an accident or injury that affects the spinal cord. Rehabilitation's primary goal is to help individuals regain as much independence as possible, manage symptoms, and adjust to life after the injury. Deciding between in-home rehabilitation and rehabilitation at a specialized facility is a complex decision
[237] Rehabilitation After a Spinal Cord injury | UMass Memorial Health — Rehabilitation is an important part of your recovery after a spinal cord injury. Rehab can help you relearn how to control your body, take care of yourself, and get back to doing as many activities of daily living as possible.
[238] Spinal Cord Injury Rehabilitation Program - Mayo Clinic — The Mayo Clinic Spinal Cord Injury Rehabilitation Program on Mayo Clinic's Minnesota campus has helped thousands of people recover from spinal cord injuries and disorders (SCI/Ds) for more than 40 years. The program team provides comprehensive initial and lifelong spinal cord injury rehabilitation, coordinating your transitions from one level of care to another as your condition improves. We
[244] Planning and Structuring Spinal Cord Injury Rehabilitation: The Needs ... — Planning and Structuring Spinal Cord Injury Rehabilitation: The Needs Assessment Checklist - PMC The study aimed to evaluate the Needs Assessment Checklist (NAC) as a clinically appropriate assessment tool for use during spinal cord injury (SCI) rehabilitation. It is argued that rehabilitation should be assessed and organized according to client need rather than being therapist led as this encourages engagement in rehabilitation.1 The Needs Assessment Checklist (NAC2) and goal planning approach was developed at the National Spinal Injuries Centre (NSIC), UK, and addresses the rehabilitation needs of patients within a biopsychosocial framework, taking into consideration everything from skin care and bowel management through to psychological issues and discharge coordination.
[245] Assessment of Spinal Cord Injury - Physiopedia — The assessment of an individual with a spinal cord injury is an important initial step in physiotherapy management. Understanding what the individual was able to do pre spinal cord injury is vital in order to guide your objective assessment, set appropriate, realistic goals to guide treatment and maintain motivation.; The comprehensive clinical assessment of the individual with a spinal cord injury should both accurately describe the individual’s neurological function (motor and sensory examinations) and generally predict the future relative abilities and/or impairment given the neurological status. Objectively it is essential to first assess impairments including weakness, sensation, tone, range of movement and then the impact that these impairments have at the activity and participation level for the individual with a spinal cord injury.
[249] Nursing staff facilitate patient participation by championing the ... — In spinal cord injury (SCI) rehabilitation, patient participation is highlighted as a key to successful rehabilitation. 9, 10, ... the co‐researchers were informed of their active role. The topic of patient participation was provided in advance, but the content, actions and knowledge evolved during the collaborative processes.
[250] Patient participation in care and rehabilitation from the perspective ... — Study design: Qualitative method, semi-structured interviews. Objectives: The aim of the study was to explore the meaning of patient participation in care and rehabilitation from the perspective of patients with spinal cord injury (SCI). Setting: Post discharge community setting. Methods: Semi-structured interviews were performed with 10 persons with SCI representing different ages, gender and
[260] Advances in cervical spinal cord injury rehabilitation — Conclusion There are newer technologies and modalities in spinal cord rehabilitation, including but not limited to functional electrical stimulation, epidural stimulation, and robot-assist gait training that are opening up the prospect of prolonged recovery after spinal cord injury and are an area of future potential and innovation.
[262] Adaptive Equipment for Spinal Cord Injury: 9 Tools for Quadriplegics — Home » Neurological Recovery Blog » Spinal Cord Injury » Adaptive Equipment for Spinal Cord Injury: 9 Assistive Devices for Individuals with Quadriplegia or Paralysis Adaptive Equipment for Spinal Cord Injury: 9 Assistive Devices for Individuals with Quadriplegia or Paralysis Adaptive equipment helps individuals regain a sense of independence after spinal cord injury. Flint Rehab offers a neurorehab device for spinal cord injury called the FitMi. It’s a home exercise system that encourages adaptive changes in the spinal cord by motivating users to exercise with high repetition. By tapping, moving, and squeezing the sensorized pucks, spinal cord injury patients with incomplete quadriplegia can work their way towards better movement in their hands and arms, and eventually progress onto core and leg exercises, depending on their recovery process.
[263] Living with a Spinal Cord Injury: Adaptive Technologies and Support — Adaptive technologies for spinal injury victims include mobility aids such as wheelchairs and scooters, communication devices, and home modifications that enhance accessibility, allowing individuals to regain independence. Additionally, support networks such as rehabilitation programs, occupational therapy, and community resources play a crucial role in helping victims manage their condition
[281] Spinal Cord Regeneration: Progress in Post-Injury Recovery — Spinal Cord Regeneration: Progress in Post-Injury Recovery - BiologyInsights Explore advancements in spinal cord regeneration, focusing on cellular biology, molecular signals, and synaptic plasticity for improved recovery. For instance, research published in Nature Neuroscience has demonstrated that blocking Nogo-A can enhance axonal regeneration and functional recovery in animal models of spinal cord injury. The orchestration of axon extension following spinal cord injury involves a symphony of molecular signals that guide the regrowth and reconnection of neuronal pathways. Synaptic plasticity plays a significant role in the recovery process following spinal cord injuries, as it pertains to the brain and spinal cord’s ability to reorganize and form new neural connections.
[283] Extrinsic inhibitors in axon sprouting and functional recovery after ... — Meanwhile, extensive literature indicates that targeting various inhibitory molecules present in the CNS environment such as myelin-associated inhibitors and chondroitin sulfate proteoglycans may improve functional recovery in models of spinal cord injury, first shown with the IN-1 antibody (Bregman et al., 1995) and later with chondroitinase
[284] Axonal growth inhibitors and their receptors in spinal cord injury ... — These molecules accumulate at the injury site and form a highly inhibitory environment for axonal regeneration. Among these inhibitory molecules, myelin- … Axonal growth inhibitors are released during traumatic injuries to the adult mammalian central nervous system, including after spinal cord injury.
[285] Primary Care Articles and Takeaways - American Spinal Injury Association — 1. Improving Access to Primary Care After Spinal Cord Injury Three broad themes have been identified that limit PCPs in providing good quality care: physical barriers; attitudes, knowledge, and expertise; and systemic barriers. Making significant physical alterations in every primary care clinic is not realistic, but solutions such as seeking out community partnerships that offer accessibility
[286] Improving Access to Primary Care after SCI - American Spinal Injury ... — Providing accessible healthcare is not just addressing ramps and steps. Learn more on how to address physical, attitudinal, knowledge and systemic barriers to accessibility in your practice to improve quality of life and health outcomes for individuals with SCI. This is one of 19 open access articles of the TSCIR special edition dedicated SCI health care resources for the primary care provider
[287] A Primary Care Provider's Guide to Social Justice, the Right to Care ... — Abstract People living with spinal cord injury (SCI) face numerous barriers to primary care. This article identifies these barriers as social justice issues to emphasize their significance and the inequality of primary care received by people with SCI. Primary care providers have a responsibility to provide equal and accessible care to all patients and to remediate any obstacles to care
[289] Policy Spotlight - United Spinal Association — Policy Spotlight: We advocate for public policies that ensure equal rights and opportunities for people living with spinal cord injury or disease and wheelchair users. United Spinal Association's policy priorities focus resources and expertise on advancing opportunities, social equity, and disability rights for all people living with a spinal cord injury or disease (SCI/D) and […]
[292] Brain-machine interface facilitated neurorehabilitation via spinal ... — A brain-machine-spinal-cord interface (BMSCI) chip can create a spinal bridge that allows motor intent to bypass the lesion of injury to restore lower-limb motor function. In this figure, the neuroprosthesis is assisted with a robotic exoskeleton to provide extra support for standing and walking during spinal cord stimulation caudal to the
[294] Electrical stimulation for the treatment of spinal cord injuries: A ... — Spinal cord injury (SCI) is a devastating condition that causes severe loss of motor, sensory and autonomic functions. ... Epidural electrical stimulation, peripheral nerve stimulation, and functional electrical stimulation have shown promising improvements for individuals with SCI, ranging from complete weight-bearing locomotion to the
[295] The role of electrical stimulation for rehabilitation and regeneration ... — Electrical stimulation is used to elicit muscle contraction and can be utilized for neurorehabilitation following spinal cord injury when paired with voluntary motor training. This technology is now an important therapeutic intervention that results in improvement in motor function in patients with spinal cord injuries. The purpose of this review is to summarize the various forms of electrical
[297] Spinal cord injury & mental health - SANE — The most common mental health problems for people with a SCI are anxiety and depression, and these can occur immediately following the injury, during rehabilitation or later as a result of changes in physical condition or personal circumstances.
[298] Systematic Review of Psychosocial Interventions for People With Spinal ... — Therefore, future research should adopt more robust study designs to test psychosocial interventions for SCI patients with different socio-cultural backgrounds and psychological adjustment conditions in the early stages of rehabilitation. Keywords: inpatient rehabilitation; intervention; psychosocial; spinal cord injury.
[299] Mental Health and Spinal Cord Injury: Clinical Considerations for ... — Many behavioral health factors, such as pain, dysregulated sleep, substance use, exercise, and nutrition, can negatively affect engagement and motivation in rehabilitation therapies, which can ultimately increase risk for psychological distress and reduced QOL following SCI . As there can be a multitude of changes and challenges following an SCI and throughout initial rehabilitation, psychologists embedded in rehabilitation teams are able to assist patients in normative adaptation to a new injury, assess and treat mental health symptoms, and address factors that could negatively impact rehabilitation gains if left untreated (e.g., pain, poor sleep, low motivation, cognitive deficits).
[313] Psychosocial Considerations in Spinal Cord Injury - Physiopedia — Research has shown that many with sudden onset of spinal cord injury will exhibit extreme negative emotions which can impair psychological as well as social integration after an injury. Also, mental health problems such as anxiety, depression, post-traumatic stress disorder among others may be at an elevated level for people with spinal cord
[314] Mental Health and Spinal Cord Injury: Clinical Considerations for ... — Many behavioral health factors, such as pain, dysregulated sleep, substance use, exercise, and nutrition, can negatively affect engagement and motivation in rehabilitation therapies, which can ultimately increase risk for psychological distress and reduced QOL following SCI . As there can be a multitude of changes and challenges following an SCI and throughout initial rehabilitation, psychologists embedded in rehabilitation teams are able to assist patients in normative adaptation to a new injury, assess and treat mental health symptoms, and address factors that could negatively impact rehabilitation gains if left untreated (e.g., pain, poor sleep, low motivation, cognitive deficits).
[315] Comprehensive Guidelines for SCI Rehabilitation — The dynamics of an interdisciplinary team are essential in the comprehensive rehabilitation of spinal cord injury patients. Effective collaboration among professionals results in a well-rounded approach that addresses the complex needs of individuals recovering from such injuries.
[316] Nursing case management: enhancing interdisciplinary care of the spinal ... — Abstract Comprehensive care of the person with a spinal cord injury (SCI) requires collaborative, coordinated, interdisciplinary care. It is imperative that the care provided by nurses, therapists, physicians, and ancillary personnel is organized and integrated in a holistic manner if optimal outcomes of rehabilitation are to be achieved.