This document summarizes a presentation on rehabilitation engineering in clinical practice. It introduces rehabilitation engineering and assistive technology, provides an overview of rehabilitation engineering history and the roles of rehabilitation engineers. It also presents case studies of rehabilitation engineering work at the Richmond VA Medical Center and research, development and innovation at The Ohio State University. Key points covered include the definition of rehabilitation engineering, assistive technology models, certification, professional organizations, and roles in clinical practice, research and academia.
The document discusses hybrid assistive systems (HAS), which combine functional electrical stimulation (FES) and an externally powered brace to help paralyzed muscles contract and allow for functional movement. FES uses small electrical currents to stimulate nerves connected to paralyzed muscles, causing contraction. HAS works through a bio-cybernic control that uses FES and an external brace together to improve mobility for those with disabilities.
Assistive Technology Principles and Practicekeyaunam
This document discusses assistive technology (AT), including definitions of AT, different types of AT, and levels of AT. It aims to define AT, explore student perspectives on AT, and examine legal definitions. Some key points covered include that AT can range from low-tech aids that require no power to high-tech computerized devices, and that AT is designed specifically for people with disabilities, whereas universal design aims to benefit all people. The document also lists different types of AT and presents models to illustrate the range and levels of AT.
This presentation aims at providing information about the various concepts involved in bestowing rehabilitation to the individuals having sensory disabilities.
The document summarizes important parameters that influence electrical susceptibility in the human body:
1. Threshold and let-go variability depends on factors like gender, with women having lower thresholds on average. Skin impedance also influences thresholds.
2. Let-go current is minimized at power-line frequencies of 50-60 Hz.
3. Longer shock durations require lower stimulating currents to cause ventricular fibrillation, according to the strength-duration relationship. Body weight also correlates with higher fibrillation currents.
This document discusses ergonomics and ergonomic injury prevention. It defines ergonomics as the study of work performance with an emphasis on worker safety and productivity. It identifies potential ergonomic risk factors like force, awkward postures, vibration, repetition, duration, pressure, and temperature. It also describes types of ergonomic injuries and how to design an effective ergonomic program in the workplace through elements like training, participation, and management commitment. The goal is to design jobs to fit workers and prevent musculoskeletal disorders and other injuries.
The document discusses hybrid assistive systems (HAS), which combine functional electrical stimulation (FES) and an externally powered brace to help paralyzed muscles contract and allow for functional movement. FES uses small electrical currents to stimulate nerves connected to paralyzed muscles, causing contraction. HAS works through a bio-cybernic control that uses FES and an external brace together to improve mobility for those with disabilities.
Assistive Technology Principles and Practicekeyaunam
This document discusses assistive technology (AT), including definitions of AT, different types of AT, and levels of AT. It aims to define AT, explore student perspectives on AT, and examine legal definitions. Some key points covered include that AT can range from low-tech aids that require no power to high-tech computerized devices, and that AT is designed specifically for people with disabilities, whereas universal design aims to benefit all people. The document also lists different types of AT and presents models to illustrate the range and levels of AT.
This presentation aims at providing information about the various concepts involved in bestowing rehabilitation to the individuals having sensory disabilities.
The document summarizes important parameters that influence electrical susceptibility in the human body:
1. Threshold and let-go variability depends on factors like gender, with women having lower thresholds on average. Skin impedance also influences thresholds.
2. Let-go current is minimized at power-line frequencies of 50-60 Hz.
3. Longer shock durations require lower stimulating currents to cause ventricular fibrillation, according to the strength-duration relationship. Body weight also correlates with higher fibrillation currents.
This document discusses ergonomics and ergonomic injury prevention. It defines ergonomics as the study of work performance with an emphasis on worker safety and productivity. It identifies potential ergonomic risk factors like force, awkward postures, vibration, repetition, duration, pressure, and temperature. It also describes types of ergonomic injuries and how to design an effective ergonomic program in the workplace through elements like training, participation, and management commitment. The goal is to design jobs to fit workers and prevent musculoskeletal disorders and other injuries.
Robot-assisted therapy is an effective adjunct to conventional upper limb rehabilitation after stroke. Robotic devices can provide intensive, repetitive, interactive therapy and allow accurate assessment of motor control and strength. Well-designed robots optimize rehabilitation by addressing complex sensory and motor requirements through varied, motivating activities and feedback. When combined with therapists, robots may improve outcomes, increase therapy intensity and efficiency, and help address workforce shortages in rehabilitation clinics.
Bioengineering plays a role in rehabilitation by developing technologies to assist those with disabilities and help regain lost functions. Bioengineers work with medical professionals to design devices that aid mobility, communication, hearing, vision and cognition. This includes rehabilitation robotics, virtual rehabilitation simulations, prosthetics and brain-computer interfaces. The goal is to help people return to daily activities and increase independence through technological solutions.
Ultrasonic diathermy uses high frequency sound waves generated by a piezoelectric transducer to create heat deep in tissues through vibration, promoting blood flow to treat diseases of the peripheral nervous system, muscles, and skin ulcers. The heat effect is similar to a deep tissue massage without pain. Ultrasonic waves can be delivered continuously or in pulses at frequencies between 800 kHz to 1 MHz for localized treatment of conditions like muscle sprains, strains, and adhesions.
Isolation amplifiers provide electrical isolation and safety barriers between input and output stages. They use transformer, optical, or capacitive isolation methods and isolated power supplies to break continuity while amplifying low-level signals. Common applications include medical equipment, industrial processes, and data acquisition where electrical isolation is needed to protect patients or eliminate noise.
Functional Electrical Stimulation in Spinal Cord Injury rehabilitationAsir John Samuel
The document summarizes recent advances in functional electrical stimulation (FES) for rehabilitation. It discusses uses of FES for ventilatory support, prevention of deep vein thrombosis and cardiovascular disease, reducing muscle tone, treating orthostatic hypotension, bladder training, improving trunk stability, and aiding gait training. Studies show FES can effectively support ventilation, improve hemostatic profiles, decrease spasticity, attenuate drops in blood pressure, suppress bladder reflexes, enhance spinal alignment, and improve gait performance. FES has benefits when used for gait training, as an orthosis, and for exercise to reduce diabetes risk factors in spinal cord injury patients.
This document discusses biosignal processing and covers the following key points in 3 sentences:
It provides an overview of biosignal processing techniques including filtering to remove artifacts, event detection, and compression. It defines biosignals and gives examples like ECG and EMG. The document outlines topics like characterizing biosignals in the time and frequency domains, and techniques for time-frequency analysis like short-time Fourier transform and wavelet transform.
Electronic Hand Glove for Speed Impaired and Paralyzed PatientsIEEEP Karachi
This document describes an electronic hand glove designed to help people with speech impairments or paralysis communicate through gestures. It contains flex sensors that detect finger movements and a microcontroller that interprets the gestures using a lookup table to display letters on an LCD screen. The flex sensors are an economical and robust option that converts finger bends into electrical resistance. The glove allows people with signing abilities to communicate without others understanding sign language. It has applications for home devices, security, industries, biomedicine, and virtual reality. The gesture-based control provides an alternative to keyboards/mice and does not require the user or others to understand sign language.
The document discusses ECG signal analysis and abnormality detection using artificial neural networks. It defines normal and abnormal ECG signals, describing abnormalities like bradycardia and tachycardia. Two algorithms are described for detecting abnormalities: one analyzes heart rate and the other detects general heart diseases. An ANN system is used for ECG analysis and classification, taking spectral entropy, Poincare plot geometry, and largest Lyapunov exponent as inputs to classify eight cardiac conditions.
1. Biological amplifiers, also known as bio-amplifiers, are specifically designed to process low-amplitude bioelectric signals and increase their power.
2. An ideal bio-amplifier must have high input impedance, isolation and protection circuits, high common mode rejection ratio, and maintain a constant gain across its bandwidth.
3. Bio-amplifiers are used to amplify biological signals measured from electrodes placed on the human body, such as electrocardiograms and electromyograms, before further analysis.
This document discusses electrical safety in medical environments. It outlines several hazards posed by electricity in these settings, including fire, hazardous substances, waste products, sound, electricity, and disasters. It then examines the physiological effects of electric current on the human body, such as stimulation of nerves and muscles, heating of tissues, and electrochemical burns. Threshold currents for perception, involuntary muscle contractions, respiratory paralysis and ventricular fibrillation are provided. The document also discusses electric power distribution, isolation systems, emergency power systems, electric faults in equipment, microshocks, and conductive paths to the heart in clinical devices.
Wireless medical telemetry uses radio frequencies to monitor patient physiological parameters from a transmitter worn by the patient to a central monitoring station, allowing freedom of movement. It has advantages like faster diagnosis and reduced hospital visits. However, signal interference from other wireless devices can be an issue. Standards like WMTS and protocols like Bluetooth address this by establishing exclusive frequency bands for medical use and incorporating security features. New wireless technologies continue to enhance patient mobility and provider access to information.
introduction to biomedical engineering, Applications of biomedical engineeringJayachandran T
Bio-medical engineering applies engineering principles and design concepts to medicine and biology. It combines engineering and medical sciences to advance healthcare, including through developing diagnostic and therapeutic medical equipment, devices, and technologies. Some examples include designing artificial organs and prosthetics, maintaining medical equipment, and researching the engineering of biological systems. Bio-medical engineers also evaluate medical technology, train clinicians on equipment use, and publish research findings.
Rheology is the study of the flow of matter, primarily in a liquid state, but also as "soft solids" or solids under conditions in which they respond with the plastic flow rather than deforming elastically in response to an applied force. Rheology is the science of deformation and flows within a material.
The document discusses the design of an electronic travel aid (ETA) to help blind individuals navigate safely. It describes some challenges with existing ETAs, such as unreliable detection of obstacles and confusing sensory feedback. The document then covers spatial sensing techniques, parameters for displaying spatial information through sound and touch, and limitations of conventional ETAs and mobile robot guides. Finally, it introduces the NavBelt system which provides either an audio spatial image or single guidance signal to direct travel.
EMG biofeedback is a therapeutic technique that uses electronic instruments to measure and provide visual or auditory feedback on muscle electrical activity. This feedback allows patients to develop voluntary control over muscles. Biofeedback is used to help retrain and relax muscles, reduce pain, and regain neuromuscular control following injuries. It works by measuring a patient's muscle electrical signals, amplifying and processing the data, and providing feedback the patient can use to modify their muscle activity.
Modern electronic medical equipment is used for experimental, preventive and clinical research and treatment. Medical diagnostics utilizes laboratory tests, ultrasound exams, functional assessments, and computer tomography to examine internal organs, processes, and detect dysfunctions. Key electronic devices and instruments receive, record, transmit biomedical information or dispense physical treatments like microwave therapy or electrosurgery.
Graphic record heart sound - Phonogram.
Recording the sounds connected with the pumping action of heart.
Sound from heart – phonocardiogram
Instrument to measure this – phonocardiograph
Basic function – to pick up the different heart sound,filter the required and display.
The document outlines the standards of practice for assistive technology providers as established by the Rehabilitation Engineering and Assistive Technology Society of North America (RESNA). The standards address issues such as prioritizing consumer welfare, practicing only within one's competence, avoiding conflicts of interest, maintaining consumer privacy, and providing non-discriminatory services. Adherence to the 22 standards is intended to promote the ethical provision of assistive technology.
6th International Conference on Biotechnology, Bio Informatics, Bio Medical S...Global R & D Services
Conference Name: 6th International Conference on Biotechnology, Bio Informatics, Bio Medical Sciences and Stem Cell Applications (B3SC), 21-22 Oct 2016, Hong Kong
Conference Dates: 21-22 Oct, 2016
Conference Venue: Regal Oriental Hotel, 30-38 Sa Po Road, Kowloon City, Hong Kong
Deadline for Abstract/Paper Submissions: Oct 19, 2016
Contact E-Mail ID: info@iaphlsr.org
Conference Convener: Dr. Pallavi R
Languages: English, Chinese, Arabic, Thai, Persian
http://iaphlsr.org/6th-international-conference-on-biotechnology-bio-informatics-bio-medical-sciences-and-stem-cell-applications-b3sc-21-22-oct-2016-hong-kong-about-9
Robot-assisted therapy is an effective adjunct to conventional upper limb rehabilitation after stroke. Robotic devices can provide intensive, repetitive, interactive therapy and allow accurate assessment of motor control and strength. Well-designed robots optimize rehabilitation by addressing complex sensory and motor requirements through varied, motivating activities and feedback. When combined with therapists, robots may improve outcomes, increase therapy intensity and efficiency, and help address workforce shortages in rehabilitation clinics.
Bioengineering plays a role in rehabilitation by developing technologies to assist those with disabilities and help regain lost functions. Bioengineers work with medical professionals to design devices that aid mobility, communication, hearing, vision and cognition. This includes rehabilitation robotics, virtual rehabilitation simulations, prosthetics and brain-computer interfaces. The goal is to help people return to daily activities and increase independence through technological solutions.
Ultrasonic diathermy uses high frequency sound waves generated by a piezoelectric transducer to create heat deep in tissues through vibration, promoting blood flow to treat diseases of the peripheral nervous system, muscles, and skin ulcers. The heat effect is similar to a deep tissue massage without pain. Ultrasonic waves can be delivered continuously or in pulses at frequencies between 800 kHz to 1 MHz for localized treatment of conditions like muscle sprains, strains, and adhesions.
Isolation amplifiers provide electrical isolation and safety barriers between input and output stages. They use transformer, optical, or capacitive isolation methods and isolated power supplies to break continuity while amplifying low-level signals. Common applications include medical equipment, industrial processes, and data acquisition where electrical isolation is needed to protect patients or eliminate noise.
Functional Electrical Stimulation in Spinal Cord Injury rehabilitationAsir John Samuel
The document summarizes recent advances in functional electrical stimulation (FES) for rehabilitation. It discusses uses of FES for ventilatory support, prevention of deep vein thrombosis and cardiovascular disease, reducing muscle tone, treating orthostatic hypotension, bladder training, improving trunk stability, and aiding gait training. Studies show FES can effectively support ventilation, improve hemostatic profiles, decrease spasticity, attenuate drops in blood pressure, suppress bladder reflexes, enhance spinal alignment, and improve gait performance. FES has benefits when used for gait training, as an orthosis, and for exercise to reduce diabetes risk factors in spinal cord injury patients.
This document discusses biosignal processing and covers the following key points in 3 sentences:
It provides an overview of biosignal processing techniques including filtering to remove artifacts, event detection, and compression. It defines biosignals and gives examples like ECG and EMG. The document outlines topics like characterizing biosignals in the time and frequency domains, and techniques for time-frequency analysis like short-time Fourier transform and wavelet transform.
Electronic Hand Glove for Speed Impaired and Paralyzed PatientsIEEEP Karachi
This document describes an electronic hand glove designed to help people with speech impairments or paralysis communicate through gestures. It contains flex sensors that detect finger movements and a microcontroller that interprets the gestures using a lookup table to display letters on an LCD screen. The flex sensors are an economical and robust option that converts finger bends into electrical resistance. The glove allows people with signing abilities to communicate without others understanding sign language. It has applications for home devices, security, industries, biomedicine, and virtual reality. The gesture-based control provides an alternative to keyboards/mice and does not require the user or others to understand sign language.
The document discusses ECG signal analysis and abnormality detection using artificial neural networks. It defines normal and abnormal ECG signals, describing abnormalities like bradycardia and tachycardia. Two algorithms are described for detecting abnormalities: one analyzes heart rate and the other detects general heart diseases. An ANN system is used for ECG analysis and classification, taking spectral entropy, Poincare plot geometry, and largest Lyapunov exponent as inputs to classify eight cardiac conditions.
1. Biological amplifiers, also known as bio-amplifiers, are specifically designed to process low-amplitude bioelectric signals and increase their power.
2. An ideal bio-amplifier must have high input impedance, isolation and protection circuits, high common mode rejection ratio, and maintain a constant gain across its bandwidth.
3. Bio-amplifiers are used to amplify biological signals measured from electrodes placed on the human body, such as electrocardiograms and electromyograms, before further analysis.
This document discusses electrical safety in medical environments. It outlines several hazards posed by electricity in these settings, including fire, hazardous substances, waste products, sound, electricity, and disasters. It then examines the physiological effects of electric current on the human body, such as stimulation of nerves and muscles, heating of tissues, and electrochemical burns. Threshold currents for perception, involuntary muscle contractions, respiratory paralysis and ventricular fibrillation are provided. The document also discusses electric power distribution, isolation systems, emergency power systems, electric faults in equipment, microshocks, and conductive paths to the heart in clinical devices.
Wireless medical telemetry uses radio frequencies to monitor patient physiological parameters from a transmitter worn by the patient to a central monitoring station, allowing freedom of movement. It has advantages like faster diagnosis and reduced hospital visits. However, signal interference from other wireless devices can be an issue. Standards like WMTS and protocols like Bluetooth address this by establishing exclusive frequency bands for medical use and incorporating security features. New wireless technologies continue to enhance patient mobility and provider access to information.
introduction to biomedical engineering, Applications of biomedical engineeringJayachandran T
Bio-medical engineering applies engineering principles and design concepts to medicine and biology. It combines engineering and medical sciences to advance healthcare, including through developing diagnostic and therapeutic medical equipment, devices, and technologies. Some examples include designing artificial organs and prosthetics, maintaining medical equipment, and researching the engineering of biological systems. Bio-medical engineers also evaluate medical technology, train clinicians on equipment use, and publish research findings.
Rheology is the study of the flow of matter, primarily in a liquid state, but also as "soft solids" or solids under conditions in which they respond with the plastic flow rather than deforming elastically in response to an applied force. Rheology is the science of deformation and flows within a material.
The document discusses the design of an electronic travel aid (ETA) to help blind individuals navigate safely. It describes some challenges with existing ETAs, such as unreliable detection of obstacles and confusing sensory feedback. The document then covers spatial sensing techniques, parameters for displaying spatial information through sound and touch, and limitations of conventional ETAs and mobile robot guides. Finally, it introduces the NavBelt system which provides either an audio spatial image or single guidance signal to direct travel.
EMG biofeedback is a therapeutic technique that uses electronic instruments to measure and provide visual or auditory feedback on muscle electrical activity. This feedback allows patients to develop voluntary control over muscles. Biofeedback is used to help retrain and relax muscles, reduce pain, and regain neuromuscular control following injuries. It works by measuring a patient's muscle electrical signals, amplifying and processing the data, and providing feedback the patient can use to modify their muscle activity.
Modern electronic medical equipment is used for experimental, preventive and clinical research and treatment. Medical diagnostics utilizes laboratory tests, ultrasound exams, functional assessments, and computer tomography to examine internal organs, processes, and detect dysfunctions. Key electronic devices and instruments receive, record, transmit biomedical information or dispense physical treatments like microwave therapy or electrosurgery.
Graphic record heart sound - Phonogram.
Recording the sounds connected with the pumping action of heart.
Sound from heart – phonocardiogram
Instrument to measure this – phonocardiograph
Basic function – to pick up the different heart sound,filter the required and display.
The document outlines the standards of practice for assistive technology providers as established by the Rehabilitation Engineering and Assistive Technology Society of North America (RESNA). The standards address issues such as prioritizing consumer welfare, practicing only within one's competence, avoiding conflicts of interest, maintaining consumer privacy, and providing non-discriminatory services. Adherence to the 22 standards is intended to promote the ethical provision of assistive technology.
6th International Conference on Biotechnology, Bio Informatics, Bio Medical S...Global R & D Services
Conference Name: 6th International Conference on Biotechnology, Bio Informatics, Bio Medical Sciences and Stem Cell Applications (B3SC), 21-22 Oct 2016, Hong Kong
Conference Dates: 21-22 Oct, 2016
Conference Venue: Regal Oriental Hotel, 30-38 Sa Po Road, Kowloon City, Hong Kong
Deadline for Abstract/Paper Submissions: Oct 19, 2016
Contact E-Mail ID: info@iaphlsr.org
Conference Convener: Dr. Pallavi R
Languages: English, Chinese, Arabic, Thai, Persian
http://iaphlsr.org/6th-international-conference-on-biotechnology-bio-informatics-bio-medical-sciences-and-stem-cell-applications-b3sc-21-22-oct-2016-hong-kong-about-9
Using the HAAT model to select an appropriate ECU for your clientDani Werner
A short presentation on applying the HAAT model to ECU selection with a case study client with a C5 spinal cord injury. This was done as a final presentation as part of my BSc in Occupational Therapy.
Virtual reality uses technology to create simulated environments that users can interact with through headsets, gloves and other devices. It has applications in fields like medicine for surgical simulation and rehabilitation. After starting in the 1960s, VR has advanced with improvements in tracking, displays and immersion. The future holds potential for VR to replace computers and websites through fully immersive virtual worlds.
To design and calibrate a fiber-coupic laser interferometer to be used with an adaptive optics ophthalmoscope at the University of Rochester for vision research applications. The interferometer avoids blur from diffraction and aberrations by generating interference fringes on the retina. It will allow measuring neural visual performance and imaging retinal structures with resolution exceeding the diffraction limit. The design uses a fiber-coupled laser split into two beams that pass through acousto-optic modulators before being recombined onto the retina to generate adjustable-contrast interference fringes for calibration and applications. Preliminary results showed low-contrast fringes but technical issues prevented further testing.
This document provides the course structure and syllabus for the M.Tech program in Embedded Systems & VLSI Design/VLSI and Embedded Systems (R13 Regulations) at Jawaharlal Nehru Technological University Hyderabad. It lists the various subjects to be covered in each semester of the 2-year program, along with their credit hours. In the first year, subjects include Microcontrollers for Embedded System Design, VLSI Technology and Design, CMOS Analog Integrated Circuit Design, CPLD and FPGA Architectures and Applications. Electives offered are Hardware Software Co-Design, Digital System Design, and Soft Computing Techniques. The second year involves a comprehensive viva, project work and seminar
The document summarizes key characteristics and applications of lasers. It describes the properties of coherence, high intensity, high directionality, and monochromaticity that distinguish lasers from other light sources. It also discusses the processes of induced absorption, spontaneous emission, and stimulated emission that enable laser action. Common laser systems like Nd:YAG are described along with their components and working. Finally, the document outlines several industrial, medical, military, scientific, and engineering applications of lasers such as welding, cutting, surgery, communication, and chemical reactions.
The document discusses lasers, including their characteristics and operation. It describes how lasers work via stimulated emission and population inversion. Nd:YAG lasers are discussed as a common solid-state laser type. Applications of lasers mentioned include medicine, manufacturing, communications, and more.
This document discusses assistive technology (AT), including its definition, history, types of devices, funding sources, role of ethics, and how it should be incorporated to benefit students with disabilities. AT is defined as any item or piece of equipment used to increase the functional abilities of individuals with disabilities. The evolution of AT is described, from informal use in the 1970s to its formal definition and legislation in the 1980s and 1990s mandating its consideration in education. The assistive technology continuum categorizes devices as no-tech, light-tech, or high-tech. School districts are primarily responsible for AT funding, while other sources include Medicaid, private insurance, and charitable organizations. Ethics standards set by organizations like RESNA
The document discusses the HAAT model for understanding assistive technology. The model has four components: the human, the activity, the assistive technology, and the context. It describes each component in detail. As an example, it discusses the case of Marion, a teenage girl with cerebral palsy who uses a communication board and voice output device to communicate in different contexts.
Rehabilitation is defined as restoring an individual to their fullest physical, mental, social, and economic capacity. It focuses on improving quality of life rather than just maintaining life. Rehabilitation is an interdisciplinary process that begins at the onset of injury or illness and addresses all aspects of a person's needs. The goal is to help individuals adapt to an altered lifestyle and regain independence through a team approach.
There are many types of rehabilitation designed to help patients recover from various disabilities and injuries. Rehabilitation involves ongoing processes and treatment programs to ensure full recovery and prevent issues from reoccurring. The main types discussed are physical, medical, cardiac, drug and alcohol, and vocational rehabilitation. The goal is to help patients become self-sufficient and live improved, independent lives physically, emotionally, and socially.
What is Virtual Reality?
Why we need Virtual Reality?
Virtual reality systems
Virtual Reality hardware
Virtual Reality developing tools
The Future of Virtual Reality
Virtual reality is a user interface that involves real-time simulation and interactions through sensory channels to immerse users in virtual environments. It has its origins in flight simulators from the 1950s and early prototypes in the 1960s, with commercial development beginning in the late 1980s. Current applications of VR include movies, video games, and education/training. Emerging technologies like Project Natal, CAVE systems, and the Nintendo Wii are pushing the boundaries of VR by enabling more natural physical interaction. While the future is uncertain, VR is expected to continue evolving entertainment and other industries through immersive experiences.
This document discusses optical fibers and fiber optic communication. It begins by explaining how total internal reflection allows optical fibers to guide light along their length. It then describes the principles and components of multimode and singlemode fibers. The document outlines the manufacturing process for optical fibers and their various applications, including telecommunications, sensing, and illumination. It concludes by noting how fiber optics transmits light and how new techniques continue to expand the capabilities of fiber optic systems.
This document discusses progress and directions in service science research. It outlines several "mega-topics" for IT-enabled service research including super-colleague applications, intelligent home health systems, manufacturing/agriculture service systems, and crowd-sourced city service systems. It also discusses holistic service systems research focusing on smart cities with universities at their core. The document provides an overview of IBM's university programs and outlines a framework for advancing service science through interdisciplinary research.
This document is Anthony Vessicchio's resume. It summarizes his education, including a PhD in Biomedical Engineering from UConn expected in 2020. It also outlines his professional work experience, including positions as a graduate assistant in UConn's Human Performance Lab, a teaching assistant at UConn, a contract engineer at Medtronic, and an intern at Covidien. It lists relevant skills, coursework, and references.
This document provides information about various resources from a National Center for ME, including ways they can partner with organizations, classroom resources, curriculum development, and grant assistance. It also lists websites for related organizations such as CareerME, METEC, and a College of Technology that offers seamless credit transfers. Additional resources noted include a Life Support and Sustainable Living project, and information on engineering and advanced manufacturing in Connecticut. Websites are provided for a School of Science, Engineering and Technology's engineering systems management program, and an organization called MATEC that supports faculty and curriculum development.
The document discusses plans for a proposed 360-bed hospital to be built by the Mata Amritanandamayee Math charitable trust in Durgapur, West Bengal, India. It outlines the need for the hospital, provides department-wise area allocations and space requirements, and discusses the importance of functional and operational planning preceding architectural planning to ensure an efficient hospital design. The project is expected to take 3-4 years to complete once planning is finished.
The document summarizes a workshop on envisioning the future of career/vocational education spaces. The workshop consisted of introductory presentations on trends in career/vocational education, followed by two group exercises. The first exercise involved reverse brainstorming ways to prepare students for future careers. The second exercise explored the spatial and design implications of the ideas generated in the first exercise. Groups then presented their concepts, which envisioned career/vocational programs cultivating lifelong learning and key future skills through reimagined instructional approaches and learning environments.
In a workshop at the annual Council of Educational Facility Planners International (CEFPI) conference, participants considered the future of career-technical education (CTE). D/P/S principals Julie Walleisa and Benjamin Gardner first described how CTE has changed over the past 100 years, noting the transition from preparing students for particular jobs and apprenticeships to teaching transferable skills that open opportunities for a variety of careers, industry certifications, or post-secondary education.
Find more information and video clips from the workshop at https://www.dpsdesign.org/blog/future-of-cte.
The document describes a startup called Mindset Technologies that is developing a wearable device and analytics platform to monitor and provide biofeedback on human attention and mental load. The system uses augmented reality glasses to capture eye-related data which is analyzed using algorithms to predict attention levels and fatigue. This information is provided back to users in high-demand industries like esports, aviation and automotive to help improve performance and safety by managing cognitive load and avoiding distractions. The founders have neuroscience and technical backgrounds and partnerships with hardware companies and esports teams. The goal is to help various industries and applications that require sustained focus.
The document discusses the Intelligent Maintenance Systems Center (IMS Center), which is an Industry/University Cooperative Research Center focused on prognostics and health management. The IMS Center has over 80 member companies from 10 countries and has conducted over 100 projects. It develops technologies like the Watchdog Agent software for equipment monitoring and mobile health monitoring applications.
IEEEPES_Presentation_2019society power pointHarinathC5
Dr. C. Harinatha Reddy discusses the value of IEEE PES membership. He outlines that PES is the second largest technical society in IEEE with over 38,500 members in 150 countries. PES provides technical publications and conferences, standards development, education and certification opportunities, and engages members through local chapters globally.
Build conversational agents and chatbots using natural language
processing techniques to provide automated assistance to users.
Recommendation engines: Develop recommendation systems that analyze user
preferences and behavior to provide personalized product or content
recommendations.
Predictive maintenance: Use sensor data from industrial equipment to predict
failures and schedule maintenance, reducing downtime.
Sentiment analysis: Analyze text data such as customer reviews and social media
posts to understand public sentiment towards brands, products, or issues.
Fraud detection: Build predictive models using transaction data to identify
fraudulent activities like credit card fraud, insurance fraud, etc. in real-time.
Market segmentation: Group customers into meaningful segments based on their
characteristics and
Jonathan Whittle is seeking graduate opportunities in the healthcare sector to gain engineering experience and develop skills. He has a MEng in Mechanical Engineering from Loughborough University and relevant industry experience at Covidien USA and Siemens. His experience includes designing medical devices, manufacturing prototypes, and improving healthcare engineering processes. He aims to use his engineering abilities to improve healthcare quality and help push the boundaries of the field.
Merga Gelgelo has over 10 years of experience in biomedical engineering. She holds a Bachelor of Science degree in Biomedical Engineering from Jimma University and a Biomedical Engineering Training Certificate from District of Columbia University. Her experience includes internships maintaining and installing medical equipment at Kuyera Referral Hospital in Ethiopia and volunteer work at Medstar Georgetown University Hospital. She is skilled in areas such as medical devices, customer service, effective communication, and computer/information technology.
Merga Gelgelo has over 10 years of experience in biomedical engineering. She holds a Bachelor of Science degree in Biomedical Engineering from Jimma University and has received additional training in biomedical equipment from Jimma University Institute of Technology in collaboration with Rice University and Texas Children's Hospital. She has worked as an intern at Kuyera Referral Hospital in Ethiopia maintaining and installing medical equipment. Her areas of expertise include medical devices, customer service, effective communication, and computer/information technology skills.
This document provides an overview of engineering as a field of study and career path. It discusses the many opportunities and challenges facing engineers in areas like energy, infrastructure, clean water, and more. The document outlines various engineering disciplines like chemical, civil, computer, electrical, and mechanical engineering. It provides advice on choosing a major, selecting a university, and keys to success in college and life, emphasizing hard work, perseverance, and not giving up when faced with challenges.
This document provides a biography for Stephanie Guerlain, Ph.D., a research associate professor at the University of Virginia. It outlines her education, employment history, research interests in areas like human-computer interaction and medical informatics, honors and awards, grants and contracts received, publications, and professional service. She has over 25 years of experience in fields related to human factors, cognitive systems engineering, and medical informatics.
The document summarizes a presentation about careers in biotechnical engineering. It discusses trends in the field like tissue engineering and targeted drug delivery. It provides an overview of the biotech industry and common career paths, including research and development roles. Education requirements are also summarized, with examples of typical coursework for a biomedical engineering degree.
The document provides an overview of the field of engineering. It describes engineers as originators and facilitators who use their skills to transform concepts into structures, factories, systems and manufactured products. Their activities span most areas of the Australian economy and they are responsible for the safe and efficient construction and operation of industries and infrastructure. The document then discusses various engineering disciplines and the role engineers play in society.
HUB:BLE-3 - Session 1 Business and TechnologySpace IDEAS Hub
The document summarizes Dr. Andy Harland's presentation on measuring body shape changes during sports movements. Some key points:
1) Dr. Harland directs the Sports Technology Institute which conducts research on measuring kinematics and shape change during human movement to better understand sports and develop tailored equipment.
2) The Institute uses motion capture and digital image correlation to track relative motion of body parts and measure strain on garments during movement.
3) This research helps optimize sports bras, footwear, and other products through computer simulations validated with experimental data.
The document describes the Arizona State University Harrington Bioengineering Program. It outlines the program's goals of training students in medical device product design and development using industry best practices. It aims to produce highly qualified graduates through hands-on capstone projects involving the design of medical devices to address real world healthcare needs, both for profit and non-profit. It also discusses the program's vision of empowering people in Africa with disabilities through the design of low-cost assistive technologies.
Similar to Rehabilitation Engineering in Clinical Practice Ground Rounds_2015 (20)
3. Contact Information
Brian Burkhardt, MS ATP
◦ Rehabilitation Engineer – Assistive Technology Lab
◦ RichmondVeterans Hospital - Department ofVeteran Affairs
◦ brian.burkhardt@va.gov - 804-675-5000 ext 2176
Ben Salatin, MS
◦ Rehabilitation Engineer – Assistive Technology Lab
◦ RichmondVeterans Hospital - Department ofVeteran Affairs
◦ benjamin.salatin@va.gov - 804-675-5000 ext 4897
Carmen P. DiGiovine, PhD ATP/SMS RET
◦ Program Director – Assistive Technology Center – The Ohio State
UniversityWexner Medical Center
◦ Associate Professor – Clinical – The Ohio State University
◦ carmen.digiovine@osumc.edu - 614.293.7876
3
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Recorded
Webinar
4. Outline
Rehabilitation Engineering and
AssistiveTechnology
Rehabilitation Engineering History
Rehabilitation Engineering at Richmond
◦ Case Studies
Rehabilitation Engineering at OSU
◦ Research, Development, and Innovation
◦ Academics
4
View RecordedWebinar
5. What is Assistive Technology?
Services, devices, strategies and practices
that are conceived and applied to increase,
maintain or improve functional capabilities
of individuals with disabilities.
Service Device
Strategy Practice
AT
Cook and
Polgar
(2008)
7. Human Activity Assistive Technology
(HAAT) Model
Cook and
Polgar
(2008)
Context
Activity
Human
Assistive
Technology
8. Design and
Fabricate AT
Customized AT
Modified AT
Assistive Technology
Off-the-shelf consumer products
Assistive
Technology:
The
Continuum
9. Rehabilitation
Technology
Services, Devices,
Strategies and
Practices associated
with the assessment,
implementation,
training, and follow-up
process.
Identification of peak pressure
Documentation of patient history
Quantification of
Pressure
11. Engineering
Research / Design
Testing
Fabrication
Integration
Customer Support
Education
Process Optimization
What is Rehabilitation Engineering?
Rehabilitation
Evaluation
Treatment
Re-evaluation
Implementation
Education
Training /Trialing
Research
Outcome Measurements
Rehabilitation
Engineering
12. Rehabilitation Engineering and Assistive Technology
Society of North America (RESNA)
◦ www.resna.org
◦ Mission: To improve the health and well-being of people with
disabilities through technology.
Certification
◦ http://www.resna.org/certification/
◦ Assistive Technology Professional (ATP)
◦ Seating and Mobility Specialist (SMS)
◦ Rehabilitation Engineering Technologist (RET)
13. Professional Organizations
IEEE - Engineering in Medicine and Biology
◦ www.embs.org
◦ www.embs.org/docs/careerguide.pdf
Biomedical Engineering Society
◦ www.bmes.org
14. History of Rehabilitation Engineering
Pole as a walking aid – Egyptian stele circa 1500 BC
Medieval armorers we the first rehabilitation engineers
and prosthetists
Modern era began in 1960s and 1970s
◦ Creation of 3 research centers in Canada as a result of
“Thalidomide tragedy” – 1960s
◦ Program for “Rehabilitation Engineering Centers of Excellence”
– 1970s
◦ Rehabilitation act of 1973
◦ Department ofVeteran Affairs
Cooper, Ohnabe and Hobson (2007)
15. History of Rehabilitation Engineering
1980’s and 1990’s
◦ RESNA formation
◦ Increased role for Rehabilitation Engineering in service delivery
2000s
◦ Transition of service delivery role from design and fabrication
to integration, customization, performance analysis and
outcome measures
◦ Continue design and fabrication role in research and
development sector which includes manufacturing and research
Cooper, Ohnabe and Hobson (2007)
16. Rehabilitation Engineering Summit
2011
The Role of the Rehabilitation Engineer
The Title of the Rehabilitation Engineer
The Education/Certification of the Rehabilitation
Engineer
Resources for the Rehabilitation Engineer
Career Opportunities for the Rehabilitation Engineer
19. What makes the CRE Unique?
Design and Fabrication
Customization
Technology Integration
Performance Analysis
Outcome Measures
Key to future
success!
20. Key to Success – Consumer Centered
“The Ultimate Trans-disciplinary Team”
Occupational
Therapist
Physical
Therapist
Speech and
Language
Pathologist
Rehabilitation
Counselor
Case
Manager
Physician
Educator
Manufacturer
Rehabilitation
Engineer
Rehabilitation
Technology Supplier
Recreational
Therapist
Kinesiotherapist
Consumer /
Patient / Student /
Family
28. Telehealth
Assist clinicians and patients with research and
technical questions
Problem solving technology application and
integration
Education through in services and one on one
training
Telehealth vs E-Consult
29. Role of Rehab Engineers at Richmond
• Assist the Clinician in….
• Choosing Technology
• Integrating Technology
Between Clinicians
• Setup & Configuration
• Training
• Troubleshooting
• Outcome Measures
• And also….
• Find new technologies
• Adapt/Modify off-the-shelf
technologies
• Provide in-services to staff
on technology
• Create clinical infrastructure
for use by therapists
• Create new technologies
30. Rehab Engineering Consults
Program power wheelchairs
Assemble manual wheelchair for evaluation and training
Install and/or program AAC
Install software on patient’s personal laptop
Mount devices on wheelchair
EADLS set-up for evaluation/trail
Install and/or program software on electronic cognitive
devices
Follow-up device training
40. Case Study - Russ
History
◦ 37 year old male veteran
◦ C4 AISA C
◦ Dysarthria, Decreased
inspiratory and
expiratory
strength/volume
◦ Uses chin control on
Permobil C500
wheelchair
Consult
Independent computer
access, environmental
control, AAC
42. Case Study – Environment
Before: InpatientVet with SCI
using 3 sip & puffs to control:
◦ Nurse call,TV, and telephone
After: Use Primo ECU
mounted on TV arm to control:
◦ Nurse call,TV, and telephone
◦ Light and fan
43. Case Study – Wheelchair Computer
Vet with SCI using sip & puff on
power wheelchair to control:
◦ Wheelchair
Driving
Seat Functions
◦ iPad
Dual switch scanning via Bluetooth
◦ Desktop Computer
Left & Right clicking via Bluetooth
(Head Mouse for cursor control)
iPhone
◦ With Siri & Bluetooth
Speakerphone
44. Case Study – 3D Printing
Mounting Accessory
Reason for Printing: Item Did Not Exist
Ball Attachment
Not Compatible
Solution:
3D Printed Backshell
Non Flexible
Cell Phone Mount
45. Case Study – 3D Printing Hygiene Mirror
Reason for Printing: Item Did Not Exist
Purchased Device 3D Printed Design Adding
Hinge for Easy Insertion & Light
Larger Design Created by
Occupational Therapist
from Moldable Thermoplastic
46. Improving the AT Service Delivery Process
Organize and track
wheelchair library
Setup and track AT
device library
Setup and manage 3
AT computer labs
Educate about AT
services & devices
Advocate for
improved AT
processes throughout
VA
47. The Ohio State University
Rehabilitation Engineering at OSU
◦ Research, Development and Innovation
◦ Academic
53. Research, Development and Innovation
Use Need to Knowledge framework developed by the Center
on Knowledge Translation for Technology Transfer (KT4TT)
◦ Focus on Invention Phase
Patient-reported outcome measures in assistive technology
Industry Collaboration
◦ Dynamic Controls
◦ Invacare
Local Seed Funding
◦ School of Rehabilitation Science and Technology
Best Practices in Assistive Technology Service Delivery
◦ Department ofVeterans Affairs
53
54. Need to
Knowledge
Center on Knowledge
Translation for
Technology Transfer
(KT4TT)
http://kt4tt.buffalo.edu
http://kt4tt.buffalo.edu/k
nowledgebase/gamebo
ard.php
Flagg, J. L., Lane, J. P., & Lockett, M. M.
(2013). Need to Knowledge (NtK) Model:
an evidence-based framework for
generating technological innovations with
socio-economic impacts. Implementation
Science: IS, 8, 21.