Electronic skin
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Electronic skin is a material that mimics human skin and can measure vital signs like heart rate and brain waves. It is made of flexible silicon sensors laminated onto skin like a temporary tattoo. The sensors form a spider web-like circuit that detects pressure, temperature and other bodily functions and transmits the signals to monitoring devices. Electronic skin has applications in healthcare for wound monitoring and in robotics for making machines more human-like. While promising, challenges remain in reducing the cost and enabling reuse of electronic skin technologies.
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Electronic skin
This document discusses the development of electronic skin (e-skin). It provides an overview and introduction to e-skin, which aims to mimic human skin. The objective is to develop flexible, compliant sensors. Key developments include attaching nanowire transistors to flexible substrates in 2010, creating stretchable solar cells to power e-skin in 2011, and developing a self-healing e-skin made of plastic and nickel in 2012. E-skin can measure vital signs, map pressure spatially, and be used in applications like robotics, health monitoring, and interactive devices. Future areas of development include using e-skin in vehicles and to predict medical issues in advance.
Electronic skin
The document summarizes electronic skin (e-skin), which aims to mimic human skin. E-skin can be made from biocompatible silicon rubber with pressure sensors and can measure vital signs like heart activity and brain waves. It attaches directly to skin like a temporary tattoo through weak interactions. Future developments include stretchable solar cells to power e-skin and self-healing capabilities. E-skin has applications in health monitoring, robotics, and smart devices. While costly now, e-skin has potential uses and a bright future, especially if made more compact and affordable.
Flexible electronic skin
This document discusses electronic skin (e-skin), which is a thin, flexible material designed to mimic properties of human skin like sensitivity to pressure and temperature. It provides an overview of e-skin, including its development over time from 2010 to 2013, features like sensing pressure and vital signs, structure with sensors and displays, applications in devices, and future potential uses in areas like healthcare monitoring. The conclusion notes that e-skin allows for more compact and functional electronic devices that emulate human touch.
Artificial e skin
This document discusses artificial electronic skin (e-skin) that aims to mimic the sensing abilities of human skin. It describes the different types of receptors in human skin that sense pressure, temperature, and other stimuli. It then discusses several approaches to building artificial skin, including using piezoresistivity, capacitance, and piezoelectricity as transduction mechanisms to convert mechanical forces into electrical signals. Flexibility and large-scale integration are also addressed as important considerations for artificial skin. Challenges and applications of artificial e-skin are briefly mentioned.
E skin.pptx
This document discusses electronic skin (e-skin), which aims to mimic human skin. It provides a brief history of e-skin development from 2010-2013. E-skin features are described, including its ability to sense pressure, temperature, and stretch. The document explains how e-skin achieves a visual response through the use of OLED and AMOLED displays. Pixels contain nanotube thin film transistors, pressure sensors, and OLED arrays. Applications include use in robotics, health monitoring, and smart wallpapers. Future improvements could allow e-skin to monitor vital signs and control devices.
FLEXIBLE ELECTRONIC SKIN
It is ultrathin electronics device attaches to the skin
like a sick on a tattoo which can measure electrical
the activity of heart, brain waves & other vital signals. There are various names of artificial skin in the biomedical field it is called as artificial skin, in our electronics field it is called as electronic skin, some scientist it called as sensitive skin, in other way it also called as synthetic skin, some people says that it is fake skin.
It is skin replacement for people who have suffered skin trauma, such as severe burns or skin diseases or Robotic application and so on.
Electronic' skin monitors heart, brain function
The document discusses electronic skin, a new ultra-thin electronic device that can attach to the skin like a temporary tattoo. It can measure vital signs like electrical heart activity and brain waves. Researchers developed it to reduce wires and make medical monitoring more compact. Electronic skin uses tiny sensors and a "spider web" circuitry design made of silicon filaments. It transmits the recorded body signals to a receiver. Researchers believe it could one day control virtual screens to monitor health and even stimulate skin for smart bandages.
Flexible e skin
This document discusses flexible e-skin technology, which can mimic human skin and measure vital signs like ECG and EEG readings. It has applications in robotics, medicine, and flexible electronics. The architecture of e-skin includes sensors, a wireless antenna, and power coil on an ultrathin film. It can be fabricated using materials like zinc oxide nanowires, gallium indium, and organic transistors and LEDs. E-skin is lightweight, compact, easy to attach and detach, and can replace current ECG and EEG systems. It has future applications in bendable displays, health monitoring, interactive surfaces, and smart devices.
Recommended
Electronic skin
This document discusses the development of electronic skin (e-skin). It provides an overview and introduction to e-skin, which aims to mimic human skin. The objective is to develop flexible, compliant sensors. Key developments include attaching nanowire transistors to flexible substrates in 2010, creating stretchable solar cells to power e-skin in 2011, and developing a self-healing e-skin made of plastic and nickel in 2012. E-skin can measure vital signs, map pressure spatially, and be used in applications like robotics, health monitoring, and interactive devices. Future areas of development include using e-skin in vehicles and to predict medical issues in advance.
Electronic skin
The document summarizes electronic skin (e-skin), which aims to mimic human skin. E-skin can be made from biocompatible silicon rubber with pressure sensors and can measure vital signs like heart activity and brain waves. It attaches directly to skin like a temporary tattoo through weak interactions. Future developments include stretchable solar cells to power e-skin and self-healing capabilities. E-skin has applications in health monitoring, robotics, and smart devices. While costly now, e-skin has potential uses and a bright future, especially if made more compact and affordable.
Flexible electronic skin
This document discusses electronic skin (e-skin), which is a thin, flexible material designed to mimic properties of human skin like sensitivity to pressure and temperature. It provides an overview of e-skin, including its development over time from 2010 to 2013, features like sensing pressure and vital signs, structure with sensors and displays, applications in devices, and future potential uses in areas like healthcare monitoring. The conclusion notes that e-skin allows for more compact and functional electronic devices that emulate human touch.
Artificial e skin
This document discusses artificial electronic skin (e-skin) that aims to mimic the sensing abilities of human skin. It describes the different types of receptors in human skin that sense pressure, temperature, and other stimuli. It then discusses several approaches to building artificial skin, including using piezoresistivity, capacitance, and piezoelectricity as transduction mechanisms to convert mechanical forces into electrical signals. Flexibility and large-scale integration are also addressed as important considerations for artificial skin. Challenges and applications of artificial e-skin are briefly mentioned.
E skin.pptx
This document discusses electronic skin (e-skin), which aims to mimic human skin. It provides a brief history of e-skin development from 2010-2013. E-skin features are described, including its ability to sense pressure, temperature, and stretch. The document explains how e-skin achieves a visual response through the use of OLED and AMOLED displays. Pixels contain nanotube thin film transistors, pressure sensors, and OLED arrays. Applications include use in robotics, health monitoring, and smart wallpapers. Future improvements could allow e-skin to monitor vital signs and control devices.
FLEXIBLE ELECTRONIC SKIN
It is ultrathin electronics device attaches to the skin
like a sick on a tattoo which can measure electrical
the activity of heart, brain waves & other vital signals. There are various names of artificial skin in the biomedical field it is called as artificial skin, in our electronics field it is called as electronic skin, some scientist it called as sensitive skin, in other way it also called as synthetic skin, some people says that it is fake skin.
It is skin replacement for people who have suffered skin trauma, such as severe burns or skin diseases or Robotic application and so on.
Electronic' skin monitors heart, brain function
The document discusses electronic skin, a new ultra-thin electronic device that can attach to the skin like a temporary tattoo. It can measure vital signs like electrical heart activity and brain waves. Researchers developed it to reduce wires and make medical monitoring more compact. Electronic skin uses tiny sensors and a "spider web" circuitry design made of silicon filaments. It transmits the recorded body signals to a receiver. Researchers believe it could one day control virtual screens to monitor health and even stimulate skin for smart bandages.
Flexible e skin
This document discusses flexible e-skin technology, which can mimic human skin and measure vital signs like ECG and EEG readings. It has applications in robotics, medicine, and flexible electronics. The architecture of e-skin includes sensors, a wireless antenna, and power coil on an ultrathin film. It can be fabricated using materials like zinc oxide nanowires, gallium indium, and organic transistors and LEDs. E-skin is lightweight, compact, easy to attach and detach, and can replace current ECG and EEG systems. It has future applications in bendable displays, health monitoring, interactive surfaces, and smart devices.
E skin presentation
Electronic skin, or e-skin, is a thin flexible material designed to mimic the properties of human skin, especially sensitivity to pressure and temperature. E-skin uses sensors and electronics to sense touch and stimuli like human skin. Researchers are developing e-skin using materials like graphene, polymers, carbon nanotubes, and nanowires embedded in flexible substrates. E-skin can sense pressure and vibrations similar to human skin. Researchers are also working on developing self-healing capabilities in e-skin through use of microcapsules containing healing agents or dynamic reversible bonds in materials. E-skin has applications in robotics, displays, healthcare for prosthetics and monitoring. The latest development is an e-skin capable of
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This document discusses e-paper technology, including its history, construction, properties, applications, and future potential. E-paper was first developed in 1974 and resembles ordinary paper but can hold text and images like an electronic display. It uses microcapsules containing charged white and black particles to switch between pixels and is flexible, low-power, and readable outdoors like paper. The document compares e-paper to LCD displays and outlines e-paper's advantages for uses in electronic books, newspapers, and mobile displays.
17G05A0403
This document summarizes a seminar presentation on flexible electronic skin (e-skin). It discusses the history of e-skin development, how e-skin is constructed using circuits made of silicon with a filamentary serpentine shape. It describes how e-skin works using antennas, strain gauges and temperature sensors. Methods for fabricating e-skin are outlined using zinc oxide nanowires, gallium indium, organic transistors and OLEDs. Applications of e-skin include use in medical monitoring devices, robotics and interactive input devices. Future developments may include using e-skin to predict health issues in advance and integrating virtual screens.
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Skinput is an input technology that uses bio-acoustic sensing to localize finger taps on the skin. An armband equipped with acoustic detectors and a pico-projector can project a graphical interface onto the skin and detect taps to provide touch input without direct instrumentation of the skin. Potential applications include controlling mobile devices, gaming, education and accessibility for disabled users. While promising direct manipulation, challenges include cost, health effects, and size of current armband prototypes. Future research aims to improve accuracy, expand capabilities and miniaturize components.
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This document summarizes a seminar presentation on silent sound technology for voice conversion. It introduces the technology as a way for those who have lost their voice to still communicate by phone by transmitting information without using vocal cords. It discusses two main methods - electromyography and image processing. Electromyography detects electrical signals from muscle movement and converts them to speech, while image processing uses ultrasound to view tongue movement. Some advantages are helping those who lost their voice and enabling silent calls. Disadvantages include unnatural speech and high cost. Future applications could include incorporating the sensors into phones for more natural use.
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SEMINAR PPT.pptx
This document summarizes a technical seminar on electronic skin presented by M.S. Laishwarya. Electronic skin, or e-skin, is an ultrathin electronic device that can attach to skin like a temporary tattoo to measure vital signals such as electrical heart activity and brain waves. E-skin is made of biocompatible silicon rubber with pressure-sensitive sensors. Developments in e-skin include attaching nanowire transistors to sticky substrates in 2010 and using stretchable solar cells to power e-skin in 2011. E-skin has applications in health monitoring, localized stimulation, and controlling devices with muscle contractions. While expensive currently, e-skin has potential future uses in robotics, smart surfaces
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E skin presentation
Electronic skin, or e-skin, is a thin flexible material designed to mimic the properties of human skin, especially sensitivity to pressure and temperature. E-skin uses sensors and electronics to sense touch and stimuli like human skin. Researchers are developing e-skin using materials like graphene, polymers, carbon nanotubes, and nanowires embedded in flexible substrates. E-skin can sense pressure and vibrations similar to human skin. Researchers are also working on developing self-healing capabilities in e-skin through use of microcapsules containing healing agents or dynamic reversible bonds in materials. E-skin has applications in robotics, displays, healthcare for prosthetics and monitoring. The latest development is an e-skin capable of
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Smart dust is a network of tiny sensor-enabled devices called motes that can monitor environmental conditions. Each mote contains sensors, computing power, wireless communication, and an autonomous power supply within a volume of a few millimeters. They communicate with each other and a base station using radio frequency or optical transmission. Major challenges in developing smart dust include fitting all components into a small size while minimizing energy usage. Potential applications include environmental monitoring, healthcare, security, and traffic monitoring.
E-PAPER TECHNOLOGY
This document discusses e-paper technology, including its history, construction, properties, applications, and future potential. E-paper was first developed in 1974 and resembles ordinary paper but can hold text and images like an electronic display. It uses microcapsules containing charged white and black particles to switch between pixels and is flexible, low-power, and readable outdoors like paper. The document compares e-paper to LCD displays and outlines e-paper's advantages for uses in electronic books, newspapers, and mobile displays.
17G05A0403
This document summarizes a seminar presentation on flexible electronic skin (e-skin). It discusses the history of e-skin development, how e-skin is constructed using circuits made of silicon with a filamentary serpentine shape. It describes how e-skin works using antennas, strain gauges and temperature sensors. Methods for fabricating e-skin are outlined using zinc oxide nanowires, gallium indium, organic transistors and OLEDs. Applications of e-skin include use in medical monitoring devices, robotics and interactive input devices. Future developments may include using e-skin to predict health issues in advance and integrating virtual screens.
SMART NOTE TAKER
Smart note taker is a pen that can write in air and store the information in an internal memory chip. It uses displacement sensors to sense the pen's movement and compare the handwriting to letters in its database to store what is written. Notes can then be uploaded and edited on a PC by docking the pen. The smart note taker allows paperless note taking anywhere and saves time over traditional notetaking. However, it has a very high cost which limits its accessibility. It finds applications in presentations, document editing and signatures.
Touchless touch screen
All About of TouchLess TouchScreen.
Know eveyry thing about touchscreen and touchless touchscreen.
Seminar report Of Touchless Touchscreen
This document provides information about touchscreens and touchless touchscreen technology. It discusses the history and development of touchscreen technology. It describes how traditional touchscreens work using touch sensors, controllers, and drivers. It then introduces touchless touchscreen technology, which allows interaction through hand gestures in front of the screen rather than physical touch. Examples of touchless touchscreen products include touchless monitors, touch walls that can turn entire walls into touch interfaces using projected screens, and gesture-based user interfaces. The document explores several companies developing touchless technology solutions.
Electronic Paper Technology Report
The document discusses electronic paper (e-paper) technology. It provides an overview of e-paper, including its history from development in the 1970s at Xerox PARC to current applications in e-readers, digital signs, and more. The document also describes several different technologies used to produce e-paper displays, such as Gyricon, electrophoretic, electrowetting, and others. It covers advantages like high contrast and low power consumption, as well as challenges like limited color reproduction.
Smart eye
Smart Eye's objective is to be the leading provider of eye tracking systems for vehicles and research. It aims to understand, assist with, and predict human intentions through eye tracking technology. Eye tracking is useful for research into visual attention and consumer purchasing behavior since most information processing and purchases are visually driven. Smart Eye was founded in 1999 and has since released several eye tracking products, becoming a leader in the automotive industry. Advantages include speed, ease of use, and ability to determine areas of interest, while disadvantages include cost and difficulty tracking some users.
Brain chips ppt
Brain chips are implantable computer chips that can be placed in the brain. They consist of both biological and electronic components and can enhance memory, help paralyzed patients control devices, and potentially be used for military purposes. A key technology is Braingate, which uses a tiny chip with 100 hair-thin electrodes implanted on the motor cortex to detect brain signals and allow severely disabled people to control external devices like computers. The brain signals are transmitted to software that analyzes and translates them so patients can perform tasks like moving a cursor or prosthetic limb with their thoughts. While promising, brain chip technology is still in early stages with challenges around refining the interface between biological and artificial systems.
skinput technology
Skinput is an input technology that uses bio-acoustic sensing to localize finger taps on the skin. An armband equipped with acoustic detectors and a pico-projector can project a graphical interface onto the skin and detect taps to provide touch input without direct instrumentation of the skin. Potential applications include controlling mobile devices, gaming, education and accessibility for disabled users. While promising direct manipulation, challenges include cost, health effects, and size of current armband prototypes. Future research aims to improve accuracy, expand capabilities and miniaturize components.
i-Mouse
This document outlines the key aspects of the i-Mouse project. It discusses: [1] What the i-Mouse is and its benefits; [2] The block diagram and literature survey of related concepts; [3] The existing and proposed systems including the architectural design and system requirements. The goal of the i-Mouse is to provide hands-free cursor control using eye tracking to help disabled users control a computer.
Brain Machine Interface
Brain machine interfaces allow communication between the human brain and external devices. BMI systems detect brain activity through electrodes on the scalp or implanted in the brain. The detected signals are processed and used to control outputs like prosthetic limbs or wheelchairs. Challenges include potential brain damage from implants and security issues like virus attacks. Future applications could see BMIs provide enhanced abilities by linking humans directly to computers and artificial intelligence. However, ethical concerns arise regarding the implications of merging humans with machines.
Eye directive wheel chair
The document describes an eye movement controlled powered wheelchair for people with physical disabilities. It uses an optical eye tracking system to detect eye movements and translate them to commands to control the wheelchair's movement and direction. Sensors are also included for obstacle detection. The system aims to provide an alternative mobility option for those unable to use traditional interfaces. It consists of a wireless camera, computer for processing eye images, microcontrollers to transmit commands and control motors, and motors attached to the wheelchair. Eye movements are detected using computer vision algorithms and translated to forward, left, or right motions. Additional safety features like obstacle detection and a manual joystick mode are included. The wheelchair aims to improve mobility for quadriplegics and others through a non-invasive
Touchscreen PPT
A touch screen consists of a clear glass panel with a touch-sensitive surface connected to a controller. The controller determines the type of interface needed and connects the touch screen to a PC. A driver software allows the touch screen and computer to communicate. There are different types of touch screen technologies including resistive, capacitive, surface acoustic wave, and infrared screens. Touch screens are used in public displays, customer self-service kiosks, and other applications where direct input is needed without keyboards or mice.
VOICE OPERATED WHEELCHAIR
This document describes a project to build a voice-operated wheelchair for physically disabled persons. The objective is to design hardware for voice recognition and corresponding wheelchair actions. Group members include Mandar Jadhav, Mayuresh Todkar and Dayanand Patil, guided by Dr. V. Jayashree. The system is aimed to help those paralyzed below the neck or with quadriplegia. It will allow independent wheelchair movement through voice commands without need for personal assistance. The design uses a microphone, voice recognition IC, microcontroller, motor drivers and batteries to power DC motors for forward, reverse, left and right wheelchair movement.
Seminar on paper battery
The document discusses paper batteries, which are flexible energy storage devices made of carbon nanotubes and paper. Paper batteries can be constructed in several ways and work similarly to conventional batteries by using chemical reactions to produce electrons that flow through an external circuit. They have applications in portable electronics due to their thinness and flexibility. While expensive to produce and low strength, paper batteries may advance capabilities for medical implantable devices and consumer electronics due to their paper-like qualities and potential for steady power production.
Silent sound-technology ppt final
This document summarizes a seminar presentation on silent sound technology for voice conversion. It introduces the technology as a way for those who have lost their voice to still communicate by phone by transmitting information without using vocal cords. It discusses two main methods - electromyography and image processing. Electromyography detects electrical signals from muscle movement and converts them to speech, while image processing uses ultrasound to view tongue movement. Some advantages are helping those who lost their voice and enabling silent calls. Disadvantages include unnatural speech and high cost. Future applications could include incorporating the sensors into phones for more natural use.
E paper Technology ppt
The document summarizes e-paper technology. It discusses that e-paper was first developed in 1974 and provides an overview of different types of e-paper technologies including gyricon, electrophoretic display, electrowetting, and interferometric modulator. It compares e-paper to LCD displays, highlighting advantages of e-paper like a wide viewing angle and ability to hold an image without power. Potential applications of e-paper include electronic books, newspapers, mobile displays, and computer monitors. The conclusion is that e-paper may replace paper in many uses within a few years.
E ball technology
The document describes the E-ball, a spherical computer created by Apostol Tnokovski. The E-ball has all the components of a traditional computer, such as a motherboard and hard drive, fitted inside a small 6-inch diameter sphere. It projects its display and uses an optical virtual keyboard. The E-ball allows for activities like presentations, media viewing, and internet access from its portable design. While innovative, it also has drawbacks like high cost and difficulty supporting standard operating systems.
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This document summarizes a technical seminar on electronic skin presented by M.S. Laishwarya. Electronic skin, or e-skin, is an ultrathin electronic device that can attach to skin like a temporary tattoo to measure vital signals such as electrical heart activity and brain waves. E-skin is made of biocompatible silicon rubber with pressure-sensitive sensors. Developments in e-skin include attaching nanowire transistors to sticky substrates in 2010 and using stretchable solar cells to power e-skin in 2011. E-skin has applications in health monitoring, localized stimulation, and controlling devices with muscle contractions. While expensive currently, e-skin has potential future uses in robotics, smart surfaces
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BCI or DNI is a direct communication pathway between an enhanced or wired brain and an external device. DNIs are often directed at researching, mapping, assisting, augmenting, or repairing human cognitive or sensory-motor functions.
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The document discusses bionics, which combines biology and electronics. It describes how bionic devices can replace organs like ears, arms, and eyes. Examples provided include a bionic arm that can rotate 360 degrees and artificial muscles made of materials that contract and expand like human muscles in response to electricity. The document also discusses developments in bionic eyes like an implantable artificial retina and bionic ears. It concludes by questioning whether future generations will be led by humans, robots, or bionic humans.
Poster
This document describes the design and implementation of a sensitive artificial prosthetic hand glove. The glove uses various sensors to provide feedback about texture, shape, size, temperature, and weight of objects. Pressure, temperature, and humidity sensors were selected and placed on flexible printed circuits attached to a glove. Testing showed the sensor placements allowed detection of pressure and temperature changes when manipulating different objects. The low-cost smart glove design has potential applications for prosthetic limbs if further developed.
Brain gate technology
Brain gate technology, that is boon to a paralyzed patient, it is detail about that technology, with images.
MONIKA S V.pptx skin put technology guidenc of
Skin-put technology allows a user's skin to act as an input surface for controlling devices. It uses sensors in an armband to detect vibrations on the skin caused by taps and gestures. This information is used to display a projected interface and allow interactions like making calls or controlling music without directly touching a device. Some potential applications include mobile computing, healthcare monitoring, gaming and education. While it provides accessibility benefits, skin-put also faces challenges like cost, health effects, and size of the required armband equipment. Researchers continue working to improve the technology.
Skinput technology
Skinput is a technology developed by Microsoft Research that allows a user's skin to act as an input surface. It uses arrays of highly tuned vibration sensors incorporated into an armband to detect acoustic waves generated by taps on the skin. The sensors are able to classify different inputs and locations of taps on the arm. While the prototype demonstrates the potential of the technology, its commercial viability will depend on Microsoft's commitment to further developing it.
Smart fabrics
Smart fabrics, also known as electronic textiles or smart clothing, are fabrics that have digital components like sensors, actuators and processors embedded in them. They are able to sense external conditions and respond accordingly. Smart fabrics have been in development since the 1990s and use materials like conductive threads, fibers and fabrics. They contain sensors to detect information and actuators to trigger responses. Processors then analyze the sensor data and control the actuators. Common applications of smart fabrics include uses in healthcare for monitoring health metrics, in military and safety gear for functions like GPS tracking, and in the fashion industry for customizable fabrics.
Peer Graded Mini Project- Nanosensors_rev3
This document discusses using wireless nano sensors for wildlife health monitoring. It proposes attaching small nano sensor nodes to animals to monitor their health and condition over long periods with low power consumption. The nano sensors would form a wireless network to send sensor data to a central node and server for analysis. This would help monitor animals without disturbing them and provide continuous health monitoring over large areas in a low-cost way. However, further research is still needed to develop more flexible nano sensors and methods for harvesting power from animal movements to minimize power needs and enable remote medical interventions if needed.
Brain Computer Interface by Vishal B U
This document provides an overview of brain-computer interfaces (BCI). It defines a BCI as a direct communication pathway between the brain and an external device. It discusses early BCI work with monkeys in the 1970s-1990s. It describes the basic mechanisms of how BCIs work, including different types (invasive, partially invasive, non-invasive) and applications. Examples discussed include controlling prosthetics and communication devices. Potential future applications are outlined, along with current limitations and ethical considerations of advancing BCI technology.
Skinput Technology
Skinput is an input technology that uses bio-acoustic sensing to localize finger taps on the skin. ... While other systems, like SixthSense have attempted this with computer vision, Skinput employs acoustics, which take advantage of the human body's natural sound conductive properties (e.g., bone conduction).
Prosthetic hand using Artificial Neural Network
Real Time Moving Prosthetic.
It's an innovative technology,improvising the prosthetic field with the application of Artificial Neural Network technology.Unlike anyother prosthetic hand, this has a Real Time data accquisition system which varies the data set according to the input signal.This is customisable to any amputee. The hardware was developed by simple and easily available materials.We have come up with a new technology in the prosthetic field.
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Electronic skin
- 1. Presented by Muhammad Azim
- 2. Introduction Electronic skin Idea Development of e-skin Working Application Advantage Disadvantage Uses Conclusion
- 3. Electronic plays a very important role in developing simple devices used for any purpose. Material which mimics the Human Skin in one or more ways The best achievement as well the future example of integrated electronics in the medical field is the electronic skin.
- 4. It made from biocompatible silicon rubber with pressure sensitive sensors. It can measure electrical activity of the heart, brain waves and other vital signs. Ultra thin skin turn on hand e-skin can be directly laminated on the surface of the skin, allowing us to electronically functionalize human skin. It attaches to the skin like a stick-on tattoo.
- 5. It borrowed directly kids temporary transfer tattoos. It attaches through the weak forces of van de wals interactions. Circuitry “spider web” of materials Narrow snake like silicon filaments that serve as wires connected to tiny the sensors designed to monitor particular bodily functions.
- 8. 2010: a) attaching nanowire transistor to sticky substrate, embedded in thin pressure sensitive rubber capable of sensing wide range of pressure (california university) b) First prototype for e-skin 2011: a) a) stretchable solar cell used to power the electronic skin (stanford). 2012: a) self healing capacity b) Made by nickel and plastic
- 9. Antenna is used to transmit the recorded electrical signals of skin to the receiver. Strain gauges are used for measuring the signals generated by the heart. Temperature sensors are used for measuring the temperature.
- 10. It takes the signals from the body and transfer them to the device. Localized electrical stimulation: “smart bandage”: temperature changes across the wound. Muscle contractions in the neck can control the mouse in computer game.
- 13. Stretchable sensor system able to measure pressure. Strain composed of buckled CNT-based electrodes. The right-most pane depicts the pressure distribution measured by pressing on the center pixel. Recent devices have already surpassed the capabilities of biological skin in terms of sensitivity, spatial resolution, and stretchability.
- 14. COST IS VERY HIGH SINGLE USE
- 15. ROBOTICS HEALTH APPLICATION SMART WALLPAPERS E-PAPERS
- 16. In future even virtual screens may be placed on the device for knowing our body function. It has bright future in robotics industries to make it sensible also.
- 17. The electronics skin is one such device that depicts the beauty of electronics and its uses in daily life. The electronic devices gain more demand in the market when they are in compact in size and best in functioning.