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This document provides an introduction and overview of wearable computers. It discusses the history of wearable computers beginning in the 1970s when Steve Mann invented the first wearable computer. It describes the key components of wearable computers including displays, keyboards, hard drives, batteries, and voltage regulators. The document outlines several applications of wearable computers such as augmented reality, health monitoring, smart eyewear, and military uses. Both advantages like portability and disadvantages like expense and potential health issues are noted.
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Wearable computers
This document discusses the history and features of wearable computers. It notes that wearable computers originated in the 1980s and have since evolved through 18 generations with research conducted at institutions like MIT. Key features include their ability to provide constant computational support without needing to be turned on or off, allowing users to multitask while their hands are occupied. Popular wearable computers include smart watches and augmented reality glasses. The document outlines the typical hardware and software components of wearable computers as well as their applications in fields like healthcare, gaming, navigation, and more.
Wearable Computer
Wearable computers are computers that can be worn on the body, ranging from small wrist-mounted devices to bulky head-mounted displays. They provide computational support to users even when hands or attention are engaged elsewhere. Wearable computers have evolved over decades of research and development at institutions like MIT and now support applications like augmented memory, visual filtering, and gaming through body sensors. While offering portability and hands-free use, wearable computers also face limitations such as weight, cost, discomfort, and potential health effects or data privacy issues if lost or stolen.
Wearable computers
The document discusses wearable computers and provides details about their history, features, types, uses, advantages, and disadvantages. It notes that wearable computers allow real-time access to critical information through body-borne devices. Examples provided include health and fitness monitors, personal digital assistants, and devices used in industry and military settings. Both the portability and hands-free nature are advantages, though equipment can be heavy, expensive, and cause side effects like headaches.
Wearable computers
Wearable computers are computers that are worn on the body and are useful for tasks that require hands-free computing. They have features like consistency and allowing for multitasking. Examples include early pocket watches, hidden computers used to predict roulette, and devices like eyeglasses and gloves that allow for computer control and display. Wearable computers have applications for jobs requiring mobility and notetaking and advantages like enhanced communication and assisting with daily tasks and jobs like surgery. However, wearable computers also have disadvantages like being heavy, expensive, and potentially causing side effects like headaches.
Wearable Computer
Wearable computers are computers that can be worn on the body and are useful for applications that require computational support while the user's hands or attention are engaged elsewhere. They are designed to mediate activities without interfering with tasks and come in various forms from wrist-mounted devices to head-mounted displays. Research into wearable computers continues to explore new interfaces and ways to integrate digital experiences into real-world interactions.
Wearable computer
The seminar discusses wearable computers, which are small portable computers designed to be worn on the body. Wearable computers are integrated into clothing or attached to the body. The document outlines the operational modes of wearable computers, provides examples of commercially available systems like Xybernaut, and discusses the networking capabilities and component pieces of wearable computers. Applications of wearable computers discussed include uses in military, healthcare, and for handicapped individuals. Future research opportunities are identified in areas like ergonomics and increasing data transfer speeds.
Wearable Computing
A wearable computer is a computer is a computing device small and light enough to be wom on one's body without causing discomfort
Wearable Computer
The document discusses the history and features of wearable computers. It describes how wearable computers evolved from analog computers in the 1960s to devices like smartwatches and augmented reality systems today. The key aspects are that wearable computers are always accessible, allow multitasking even during physical activities, and are designed to be worn comfortably while maintaining full computer functionality. Examples mentioned include early prototypes and current commercial devices like Motorola's wearable PC and Pranav Mistry's Sixth Sense system.
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Wearable computers
This document discusses the history and features of wearable computers. It notes that wearable computers originated in the 1980s and have since evolved through 18 generations with research conducted at institutions like MIT. Key features include their ability to provide constant computational support without needing to be turned on or off, allowing users to multitask while their hands are occupied. Popular wearable computers include smart watches and augmented reality glasses. The document outlines the typical hardware and software components of wearable computers as well as their applications in fields like healthcare, gaming, navigation, and more.
Wearable Computer
Wearable computers are computers that can be worn on the body, ranging from small wrist-mounted devices to bulky head-mounted displays. They provide computational support to users even when hands or attention are engaged elsewhere. Wearable computers have evolved over decades of research and development at institutions like MIT and now support applications like augmented memory, visual filtering, and gaming through body sensors. While offering portability and hands-free use, wearable computers also face limitations such as weight, cost, discomfort, and potential health effects or data privacy issues if lost or stolen.
Wearable computers
The document discusses wearable computers and provides details about their history, features, types, uses, advantages, and disadvantages. It notes that wearable computers allow real-time access to critical information through body-borne devices. Examples provided include health and fitness monitors, personal digital assistants, and devices used in industry and military settings. Both the portability and hands-free nature are advantages, though equipment can be heavy, expensive, and cause side effects like headaches.
Wearable computers
Wearable computers are computers that are worn on the body and are useful for tasks that require hands-free computing. They have features like consistency and allowing for multitasking. Examples include early pocket watches, hidden computers used to predict roulette, and devices like eyeglasses and gloves that allow for computer control and display. Wearable computers have applications for jobs requiring mobility and notetaking and advantages like enhanced communication and assisting with daily tasks and jobs like surgery. However, wearable computers also have disadvantages like being heavy, expensive, and potentially causing side effects like headaches.
Wearable Computer
Wearable computers are computers that can be worn on the body and are useful for applications that require computational support while the user's hands or attention are engaged elsewhere. They are designed to mediate activities without interfering with tasks and come in various forms from wrist-mounted devices to head-mounted displays. Research into wearable computers continues to explore new interfaces and ways to integrate digital experiences into real-world interactions.
Wearable computer
The seminar discusses wearable computers, which are small portable computers designed to be worn on the body. Wearable computers are integrated into clothing or attached to the body. The document outlines the operational modes of wearable computers, provides examples of commercially available systems like Xybernaut, and discusses the networking capabilities and component pieces of wearable computers. Applications of wearable computers discussed include uses in military, healthcare, and for handicapped individuals. Future research opportunities are identified in areas like ergonomics and increasing data transfer speeds.
Wearable Computing
A wearable computer is a computer is a computing device small and light enough to be wom on one's body without causing discomfort
Wearable Computer
The document discusses the history and features of wearable computers. It describes how wearable computers evolved from analog computers in the 1960s to devices like smartwatches and augmented reality systems today. The key aspects are that wearable computers are always accessible, allow multitasking even during physical activities, and are designed to be worn comfortably while maintaining full computer functionality. Examples mentioned include early prototypes and current commercial devices like Motorola's wearable PC and Pranav Mistry's Sixth Sense system.
Wearable computer
Wearable computers are small, portable computers that are designed to be worn on the body during use, such as in the form of glasses, watches, or clothing. They were invented in the 1970s and have various applications in fields like military, medicine, entertainment and more. Examples include smart glasses like Google Glass, smart shoes that track metrics, and smart clothing that monitors vital signs. Wearable computers provide benefits like increased mobility and connectivity but also have drawbacks like being expensive, uncomfortable, and having short battery life. Overall, they are positioned to simplify daily life tasks and represent the future of fashionable technology.
Wearable computers seminar
This document discusses wearable computers. It begins by defining wearable computers as small, portable computers designed to be worn on the body. The aim of wearable computers is to integrate advanced technology into devices that can be conveniently worn. The document then covers the history, implementation through input/output devices and software, examples like the Sixth Sense technology and Google Glass, applications in healthcare, military, industry and crime reduction, advantages like portability and extending human capabilities, disadvantages like potential heaviness and power/heat issues, and the future scope of wearables becoming more integrated into everyday items. It concludes by envisioning wearables as always-operational computers assisting users across a wide range of situations.
COMPUTER CLOTHING
The document discusses the history and types of computer clothing. Computer clothing, also known as wearable computers, are small portable computers designed to be worn on the body. They are integrated into ordinary clothing or accessories like watches. Some key points:
- Computer clothing has evolved from early devices in the 1500s and 1980s-1990s to today's more advanced models.
- There are several types including health/fitness monitors, personal use devices, industrial wearables, and devices for emergency workers.
- Computer clothing has applications in fields like healthcare, military, research, and emergency response to enhance communication, track data, and allow hands-free mobile computing.
- Advantages include flexibility, convenience,
New technology
The document discusses the history and evolution of wearable computing. It begins with Steve Mann inventing the concept of wearable computing in the 1970s and his development of one of the first wearable computers in 1995. It then covers the key aspects of wearable computing including operational modes, input/output devices, power sources, advantages like enhanced communication and flexibility, and disadvantages like equipment weight and security concerns. It concludes by discussing future applications in areas like healthcare and how wearable devices will continue to develop and integrate with other technologies.
COMPUTER CLOTHING IN MILITARY FIELD
The document discusses computer clothing being adopted by militaries. Computer clothing, also known as wearable computers, are small portable computers integrated into ordinary clothing. The U.S. Armed Forces are adopting wearable computers attached to or integrated into a soldier's clothing. These computerized uniforms allow soldiers to track enemy targets, monitor their health, translate languages, and enhance communication and navigation. While computer clothing provides advantages like improved communication and training, it also faces challenges like short battery life and integrating many components into a lightweight package.
Shradha maheshwari wearable computers 11-09-10
The document summarizes a seminar on wearable computing presented by Shradha Maheshwari. Some key points covered include:
- Wearable computers are small, portable computers designed to be worn on the body during use and are usually integrated into clothing or accessories like wristbands.
- They aim to adapt to the user's needs rather than requiring the user to adapt, allow for continual accessibility, and have "always on" capability.
- Components include human-computer interfaces, networks to connect parts and the external world, and display systems like head-mounted displays or earpieces.
- Challenges include limited power, networking and privacy constraints, as well as developing effective
Wearables ppt
Presentation on wearables and the technologies surrounding it. Presented at 4D Tech Fest, Sir M Visvesvaraya Institute of Technology, Bangalore.
Wearable technologies
Wearable computers are computers that can be worn on the body and come in various forms like wrist-worn devices, smart glasses, and head-mounted displays. They are integrated into everyday objects like watches and glasses. Key features include acting as an intelligent assistant, enabling users to multitask while their hands are occupied, and extending users' minds and bodies. Popular modern wearable devices include fitness trackers, smartwatches, smart glasses, and virtual/augmented reality displays. While wearables offer mobility, they also have limitations like added weight, potential eye and health issues, and privacy/security risks if lost or stolen.
Wearable computers
This document discusses wearable computers and their evolution. It describes how wearable computers started as simple calculator watches in the 1970s and have increasingly become integrated into articles of clothing and accessories. Examples mentioned include smart watches, headbands, and rings. The document outlines some applications of wearable computers in military and medical fields. It also discusses an implementation of a Bluetooth-enabled smart ring and smart shirts that can measure vital signs. Potential issues addressed include threats to security/privacy and devices being heavy or expensive. The conclusion is that wearable computers can improve quality of life.
Wearable computing devices & its appllcation
The document discusses wearable computing. It begins with an introduction and overview of wearable computers and then discusses their history, aims, features, implementation, applications, advantages, and disadvantages. Key points include that wearable computers are portable devices that can be worn and allow hands-free use. They are integrated into everyday objects like watches. The document discusses examples of early wearable devices and outlines common components of wearable computers like input and output devices. It provides examples of uses in military and healthcare applications. The conclusion discusses challenges to wider adoption of wearable computers.
Wearable computing
The lead section of this article may need to be rewritten. Please discuss this issue on the article's talk page. Use the lead layout guide to ensure the section follows Wikipedia's norms and to be inclusive of all essential details. (February 2015) (Learn how and when to remove this template message)
The Apple Watch, released in 2015
Wearable computers, also known as body-borne computers or wearables are miniature electronic devices that are worn under, with or on top of clothing.[1] This class of wearable technology has been developed for general or special purpose information technologies. It is also used in media development. Wearable computers are especially useful for applications that require more complex computational support, such as accelerometers or gyroscopes, than just hardware coded logic.
Wearable computing devices are variously defined. For example, consumers often refer to wearable computers as computers that can be easily carried on the body, or systems with a heads-up display or speech activated. This contrasts with academics that define wearables as a system that can perform a set of functions without being constrained by the physical hardware of the system.
Wearable Computing
Act of working with the computer powered devices or equipments that can be worn by a user.
Also called Body-borne computing.
WEARABLE COMPUTERS BY SAIKIRAN PANJALA
The document discusses wearable computers, which are portable computers that can be worn on the body and allow for hands-free use. It provides a brief history of wearable computers dating back to the 1500s and discusses their implementation, including input methods like speech recognition and output displays. Applications are also summarized, such as using wearable computers for augmented memory, navigation, and communication management. Both advantages like enhanced communication and flexibility, and disadvantages like potential heavy equipment and health issues are presented.
Wearable computer
A wearable computer is a small, lightweight computing device that can be worn on the body without discomfort. It was invented in the 1970s and is meant to be worn like glasses or watches, acting as an intelligent assistant. A wearable computer has six main characteristics - it is unmonopolizing, unrestrictive, observable, controllable, attentive, and communicative. It works through communication between the user and device using sensory inputs, allows multitasking, and enables the user to access and change information. Potential applications include military, medical, facial recognition, finger tracking, communication, entertainment, and games.
Cicret bracelet
The Cicret Bracelet projects a touch screen interface from a user's smartphone onto their arm using a pico projector and detects touch input using proximity sensors. It allows users to access apps, emails, games and more directly from their arm without needing to take out their phone. The bracelet connects to a user's phone via Bluetooth or WiFi and works with the Cicret app. It has the potential to make mobile device control more convenient by replacing the need to constantly hold and view a phone screen.
Simon Mercer, Microsoft, pour la journée e-health 2013
This document provides an overview of Microsoft Research and its work in several areas:
- Microsoft Research aims to advance the state of computing through innovative technologies and ensuring Microsoft products have a future. It has labs around the world.
- The document describes several prototype projects involving wearable and human-computer interface technologies, such as devices that are worn on the body or close to the body to enable new interaction methods.
- It also introduces the .NET Gadgeteer platform for prototyping modular electronic devices using .NET Micro Framework and describes its hardware and software components and tools.
- Finally, it mentions Microsoft Research's work in identifying genetic causes of disease through advanced statistical methods, open source genomic analysis tools, and medical
Cicret bracelet by M.Yaqoob
The Cicret Bracelet is a prototype wristband that uses a pico-projector to project a smartphone interface onto the user's arm, allowing them to interact with their phone without having to hold it. It connects to a phone via Bluetooth or WiFi and has proximity sensors that detect finger movements as touch inputs on the projected interface. The bracelet has advantages like allowing users to send emails, play games, browse the web, and more directly from their arm. However, it may face issues with low battery life and connectivity problems.
Wearable Devices Pir sarfraz RSDT larkana
The document discusses the history and latest developments of wearable devices. It describes how wearable computers were first introduced in the 1500s with pocket watches and have evolved to include recent innovations like Google Glass, smartwatches from LG, Motorola, Samsung and fitness trackers from Nike. The document also outlines some advantages of wearables like enhanced communication and convenience, as well as disadvantages such as potential heavy equipment, expense and privacy/security issues.
Leap Motion Capabilities Overview
The document discusses existing gesture control technologies and their limitations, such as relying on numerous cameras, being expensive, cumbersome, and not operating in real time. It also discusses how the interface between humans and machines has stagnated over the past two decades. Additionally, it proposes using Leap Motion technology to create more intuitive control of televisions by installing it on remote controls or TV bezels to allow gesture-based control that is more rapid and precise than traditional remote controls. Leap Motion could also continuously authenticate users for security without passwords.
iwatchjr | Advantages and Disadvantages of a smart watch
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Augmented places and_mixed_realities_au_121011
1. The document discusses using augmented reality and mobile media to communicate the history of Vejle, Denmark through an interactive game called "The 23 Sculls".
2. In the game, players take on the role of journalists investigating clues left behind by a missing museum inspector about a conspiracy throughout Vejle's history. Players uncover clues in both the physical city and online media to piece together the story.
3. By blending the physical spaces of Vejle with a narrative and online information layers, the game transforms the city into a "mixed reality" for players to investigate as an "augmented place". The physical architecture and infrastructure of the city communicate cultural meaning and stories that players can access through mobile devices
Recover Deleted Photos – Photo Recovery Software
Have you loss your personal data? looking for reliable software to recover them! By using Stellar Phoenix Photo Recovery Software you can recover all your deleted photos, audios and videos from various storage media.
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Wearable computer
Wearable computers are small, portable computers that are designed to be worn on the body during use, such as in the form of glasses, watches, or clothing. They were invented in the 1970s and have various applications in fields like military, medicine, entertainment and more. Examples include smart glasses like Google Glass, smart shoes that track metrics, and smart clothing that monitors vital signs. Wearable computers provide benefits like increased mobility and connectivity but also have drawbacks like being expensive, uncomfortable, and having short battery life. Overall, they are positioned to simplify daily life tasks and represent the future of fashionable technology.
Wearable computers seminar
This document discusses wearable computers. It begins by defining wearable computers as small, portable computers designed to be worn on the body. The aim of wearable computers is to integrate advanced technology into devices that can be conveniently worn. The document then covers the history, implementation through input/output devices and software, examples like the Sixth Sense technology and Google Glass, applications in healthcare, military, industry and crime reduction, advantages like portability and extending human capabilities, disadvantages like potential heaviness and power/heat issues, and the future scope of wearables becoming more integrated into everyday items. It concludes by envisioning wearables as always-operational computers assisting users across a wide range of situations.
COMPUTER CLOTHING
The document discusses the history and types of computer clothing. Computer clothing, also known as wearable computers, are small portable computers designed to be worn on the body. They are integrated into ordinary clothing or accessories like watches. Some key points:
- Computer clothing has evolved from early devices in the 1500s and 1980s-1990s to today's more advanced models.
- There are several types including health/fitness monitors, personal use devices, industrial wearables, and devices for emergency workers.
- Computer clothing has applications in fields like healthcare, military, research, and emergency response to enhance communication, track data, and allow hands-free mobile computing.
- Advantages include flexibility, convenience,
New technology
The document discusses the history and evolution of wearable computing. It begins with Steve Mann inventing the concept of wearable computing in the 1970s and his development of one of the first wearable computers in 1995. It then covers the key aspects of wearable computing including operational modes, input/output devices, power sources, advantages like enhanced communication and flexibility, and disadvantages like equipment weight and security concerns. It concludes by discussing future applications in areas like healthcare and how wearable devices will continue to develop and integrate with other technologies.
COMPUTER CLOTHING IN MILITARY FIELD
The document discusses computer clothing being adopted by militaries. Computer clothing, also known as wearable computers, are small portable computers integrated into ordinary clothing. The U.S. Armed Forces are adopting wearable computers attached to or integrated into a soldier's clothing. These computerized uniforms allow soldiers to track enemy targets, monitor their health, translate languages, and enhance communication and navigation. While computer clothing provides advantages like improved communication and training, it also faces challenges like short battery life and integrating many components into a lightweight package.
Shradha maheshwari wearable computers 11-09-10
The document summarizes a seminar on wearable computing presented by Shradha Maheshwari. Some key points covered include:
- Wearable computers are small, portable computers designed to be worn on the body during use and are usually integrated into clothing or accessories like wristbands.
- They aim to adapt to the user's needs rather than requiring the user to adapt, allow for continual accessibility, and have "always on" capability.
- Components include human-computer interfaces, networks to connect parts and the external world, and display systems like head-mounted displays or earpieces.
- Challenges include limited power, networking and privacy constraints, as well as developing effective
Wearables ppt
Presentation on wearables and the technologies surrounding it. Presented at 4D Tech Fest, Sir M Visvesvaraya Institute of Technology, Bangalore.
Wearable technologies
Wearable computers are computers that can be worn on the body and come in various forms like wrist-worn devices, smart glasses, and head-mounted displays. They are integrated into everyday objects like watches and glasses. Key features include acting as an intelligent assistant, enabling users to multitask while their hands are occupied, and extending users' minds and bodies. Popular modern wearable devices include fitness trackers, smartwatches, smart glasses, and virtual/augmented reality displays. While wearables offer mobility, they also have limitations like added weight, potential eye and health issues, and privacy/security risks if lost or stolen.
Wearable computers
This document discusses wearable computers and their evolution. It describes how wearable computers started as simple calculator watches in the 1970s and have increasingly become integrated into articles of clothing and accessories. Examples mentioned include smart watches, headbands, and rings. The document outlines some applications of wearable computers in military and medical fields. It also discusses an implementation of a Bluetooth-enabled smart ring and smart shirts that can measure vital signs. Potential issues addressed include threats to security/privacy and devices being heavy or expensive. The conclusion is that wearable computers can improve quality of life.
Wearable computing devices & its appllcation
The document discusses wearable computing. It begins with an introduction and overview of wearable computers and then discusses their history, aims, features, implementation, applications, advantages, and disadvantages. Key points include that wearable computers are portable devices that can be worn and allow hands-free use. They are integrated into everyday objects like watches. The document discusses examples of early wearable devices and outlines common components of wearable computers like input and output devices. It provides examples of uses in military and healthcare applications. The conclusion discusses challenges to wider adoption of wearable computers.
Wearable computing
The lead section of this article may need to be rewritten. Please discuss this issue on the article's talk page. Use the lead layout guide to ensure the section follows Wikipedia's norms and to be inclusive of all essential details. (February 2015) (Learn how and when to remove this template message)
The Apple Watch, released in 2015
Wearable computers, also known as body-borne computers or wearables are miniature electronic devices that are worn under, with or on top of clothing.[1] This class of wearable technology has been developed for general or special purpose information technologies. It is also used in media development. Wearable computers are especially useful for applications that require more complex computational support, such as accelerometers or gyroscopes, than just hardware coded logic.
Wearable computing devices are variously defined. For example, consumers often refer to wearable computers as computers that can be easily carried on the body, or systems with a heads-up display or speech activated. This contrasts with academics that define wearables as a system that can perform a set of functions without being constrained by the physical hardware of the system.
Wearable Computing
Act of working with the computer powered devices or equipments that can be worn by a user.
Also called Body-borne computing.
WEARABLE COMPUTERS BY SAIKIRAN PANJALA
The document discusses wearable computers, which are portable computers that can be worn on the body and allow for hands-free use. It provides a brief history of wearable computers dating back to the 1500s and discusses their implementation, including input methods like speech recognition and output displays. Applications are also summarized, such as using wearable computers for augmented memory, navigation, and communication management. Both advantages like enhanced communication and flexibility, and disadvantages like potential heavy equipment and health issues are presented.
Wearable computer
A wearable computer is a small, lightweight computing device that can be worn on the body without discomfort. It was invented in the 1970s and is meant to be worn like glasses or watches, acting as an intelligent assistant. A wearable computer has six main characteristics - it is unmonopolizing, unrestrictive, observable, controllable, attentive, and communicative. It works through communication between the user and device using sensory inputs, allows multitasking, and enables the user to access and change information. Potential applications include military, medical, facial recognition, finger tracking, communication, entertainment, and games.
Cicret bracelet
The Cicret Bracelet projects a touch screen interface from a user's smartphone onto their arm using a pico projector and detects touch input using proximity sensors. It allows users to access apps, emails, games and more directly from their arm without needing to take out their phone. The bracelet connects to a user's phone via Bluetooth or WiFi and works with the Cicret app. It has the potential to make mobile device control more convenient by replacing the need to constantly hold and view a phone screen.
Simon Mercer, Microsoft, pour la journée e-health 2013
This document provides an overview of Microsoft Research and its work in several areas:
- Microsoft Research aims to advance the state of computing through innovative technologies and ensuring Microsoft products have a future. It has labs around the world.
- The document describes several prototype projects involving wearable and human-computer interface technologies, such as devices that are worn on the body or close to the body to enable new interaction methods.
- It also introduces the .NET Gadgeteer platform for prototyping modular electronic devices using .NET Micro Framework and describes its hardware and software components and tools.
- Finally, it mentions Microsoft Research's work in identifying genetic causes of disease through advanced statistical methods, open source genomic analysis tools, and medical
Cicret bracelet by M.Yaqoob
The Cicret Bracelet is a prototype wristband that uses a pico-projector to project a smartphone interface onto the user's arm, allowing them to interact with their phone without having to hold it. It connects to a phone via Bluetooth or WiFi and has proximity sensors that detect finger movements as touch inputs on the projected interface. The bracelet has advantages like allowing users to send emails, play games, browse the web, and more directly from their arm. However, it may face issues with low battery life and connectivity problems.
Wearable Devices Pir sarfraz RSDT larkana
The document discusses the history and latest developments of wearable devices. It describes how wearable computers were first introduced in the 1500s with pocket watches and have evolved to include recent innovations like Google Glass, smartwatches from LG, Motorola, Samsung and fitness trackers from Nike. The document also outlines some advantages of wearables like enhanced communication and convenience, as well as disadvantages such as potential heavy equipment, expense and privacy/security issues.
Leap Motion Capabilities Overview
The document discusses existing gesture control technologies and their limitations, such as relying on numerous cameras, being expensive, cumbersome, and not operating in real time. It also discusses how the interface between humans and machines has stagnated over the past two decades. Additionally, it proposes using Leap Motion technology to create more intuitive control of televisions by installing it on remote controls or TV bezels to allow gesture-based control that is more rapid and precise than traditional remote controls. Leap Motion could also continuously authenticate users for security without passwords.
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Simon Mercer, Microsoft, pour la journée e-health 2013
Simon Mercer, Microsoft, pour la journée e-health 2013
iwatchjr | Advantages and Disadvantages of a smart watch
iwatchjr | Advantages and Disadvantages of a smart watch
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Augmented places and_mixed_realities_au_121011
1. The document discusses using augmented reality and mobile media to communicate the history of Vejle, Denmark through an interactive game called "The 23 Sculls".
2. In the game, players take on the role of journalists investigating clues left behind by a missing museum inspector about a conspiracy throughout Vejle's history. Players uncover clues in both the physical city and online media to piece together the story.
3. By blending the physical spaces of Vejle with a narrative and online information layers, the game transforms the city into a "mixed reality" for players to investigate as an "augmented place". The physical architecture and infrastructure of the city communicate cultural meaning and stories that players can access through mobile devices
Recover Deleted Photos – Photo Recovery Software
Have you loss your personal data? looking for reliable software to recover them! By using Stellar Phoenix Photo Recovery Software you can recover all your deleted photos, audios and videos from various storage media.
augmented-reality-mkt3730
Augmented reality (AR) combines real and virtual elements to enhance one's current perception of reality. AR apps allow users to access digital information about their real-world environment through mobile devices. Examples of popular AR apps described in the document include Wikitude World Browser, barcode scanners, and augmented reality catalogues. The document also discusses the history and development of AR technologies, potential future applications in areas like advertising and shopping, and both advantages like improved mobile search and interactions, as well as disadvantages regarding privacy controls and content filtering.
AugumentReality
This document discusses augmented reality (AR), its components, how it works, applications, and limitations. It defines AR as enhancing the real world with digital information. The key components of AR are head-mounted displays, tracking systems, and mobile computing power. AR works by tracking positions, computing, and displaying virtual objects in the real world. Applications discussed include using AR for color blindness assistance, medical procedures, education, and Google Glass. Limitations include accuracy of tracking, lack of computing power for 3D graphics, and size of AR systems.
Electromagnetic Waves !
The Physics of electromagnetic waves, a discourse to engineering 1st years.
"Lets discover what electromagnetic phenomena are entailed by the Maxwell’s equations.
Electromagnetic Waves are a set of phenomena broadly categorized as “Gamma rays, X-rays, Ultraviolet Rays, Visible light, Infra-red Rays, Microwaves and Radio waves.
We will discuss them from the perspective of Maxwell’s equations."
Electro Magnetic Wave Propagation
Electromagnetic waves have different wavelengths and frequencies depending on their position in the electromagnetic spectrum. They all travel at the same speed of 300 million meters per second in a vacuum. Waves with longer wavelengths have lower frequencies while those with shorter wavelengths have higher frequencies. The higher the frequency, the higher the energy carried by the electromagnetic wave.
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fog computing ppt
Fog computing, also known as fogging/edge computing, it is a model in which data, processing and applications are concentrated in devices at the network edge rather than existing almost entirely in the cloud.
The term "Fog Computing" was introduced by the Cisco Systems .
Its extended from cloud
Fog computing technology
Fog computing is a model that processes data closer to IoT devices rather than in the cloud. It addresses the limitations of cloud like high latency and bandwidth issues. Fog extends cloud services by providing computation, storage and applications at the edge of the network. Key applications of fog include connected vehicles, smart grids, smart buildings and healthcare. Fog computing supports mobility, location awareness, low latency and real-time interactions between heterogeneous edge devices and sensors.
FACE RECOGNITION TECHNOLOGY
INTRODUCTION
FACE RECOGNITION
CAPTURING OF IMAGE BY STANDARD VIDEO CAMERAS
COMPONENTS OF FACE RECOGNITION SYSTEMS
IMPLEMENTATION OF FACE RECOGNITION TECHNOLOGY
PERFORMANCE
SOFTWARE
ADVANTAGES AND DISADVANTAGES
APPLICATIONS
CONCLUSION
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Wearable computers - Types, Applications & Future?
This explains the history of wearable computers, the various types of wearable technology & also about the future world of wearable tech.
All about WEARABLE TECHNOLOGY...By..GEORGE KURIAN POTTACKAL
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WEARABLE COMPUTERS ARE TECHNOLOGY THAT USES IOT AND OTHER TECHNIQUES TO MONIT...
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WEARABLE COMPUTER.pptx
This document discusses wearable computers. It provides an introduction and overview of wearable computers, including their history starting in 1991 at MIT, operational details like typical software and hardware, how they work through inputs like gestures and outputs like displays, and applications like augmented memory and face recognition. The document also covers advantages like portability and hands-free use and disadvantages like potential heat and weight issues. It concludes that wearable computers can improve quality of life.
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Wearable computers - Types, Applications & Future?
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wearables
- 1. WELCOME
- 4. WEARABLE COMPUTERS • A wearable computer is a computing device small and light enough to be worn on ones bodywithout causing discomfort. • Invented by Steve Mann in the 1970s.
- 5. • Definition A small portable computer that is designed to be worn on the body during use. Wearable computers should be worn like glasses, watches, and clothing.
- 6. HISTORY •The concept of wearable computing was brought forward by Steve Mann,who with his invention of wear comp in 1979 created a poineerig effort in wearable computing. •After its invention wearables have gone through 18 generations of development
- 7. •Researches going on at prestigious institutions like MIT, Georgia Tech and Carnegie Mellon university.
- 8. OPERATIONAL MODES Constancy •The computer runs continuosly,and is always ready to interact with the user. •The signal flow human to computer, computer to human.
- 9. AUGUMENTATION •The assumption of wearable computing is that tne user will be doing something else at the same time as doing computing. •Thus the computer should serve to augment the intellect, or augment the senses.
- 10. mediation •The wearable computer can encapsulate us. •Two aspects: 1.Solitude It may simply allow us to alter our perception of reality in a very mild sort of way. 2.Privacy Mediation allows us to block or modify information leaving the encapsulated space. serve as an intermediary for interacting with untrusted systems
- 11. Wearable computer is defined by FOUR main characteristics. •Unrestrictive •Observable •Controllable •communicative
- 12. HOW DOES A WEARABLE COMPUTER LOOK? •A typical wearable computer will have a motherboard worn inside a fashion garment, connecting all the components of the system. • The components will be placed at different parts of the body as per the user convenience. • User input to the computer is either mostly voice driven or sensed from gestures or body motion.
- 13. •The display and audio output generated by the computer will be relevant to the context and environment
- 14. PROPERTIES The five properties of wearable computer are: 1.CONSTANT 2.PERSONAL 3.PROSTHETIC 4.PRIVATE 5.EXPRESSIVE
- 15. OPERATIONAL DETAILS Software •The commonly used Operating System on a wearable computer is the WOS (WearComp OS). •Redhatand GNU Linux can be run in close coordination as an Operating System too.
- 16. HARDWARE Prices of wearable computers tend to be in “thousands of dollars ” whether you buy old or new.
- 17. DISPLAY A major part of the total cost of the wearable computer system lies in its display unit. Mainly two types of display are used. i. Common Portable LCD display. ii.Head mounted display.
- 18. Common Portable LCD display. FEATURES •High resolution colour video image. •Image that appear in person’s line of sight. •Viewing angle comparable to viewing a 26” monitor from 2,meters (6.5feet)away . •Ultra light-weight,no major disturbance in the eyesight.
- 19. HEAD MOUNTED DISPLAY. FEATURES • A typical HMD has either one or two small displays with lenses and semitransparent mirrors embedded in a helmet, eye-glasses or visor
- 20. KEYBOARD •A combination keyboard and mouse fits in the palm of your hand. The Twiddler2 is an enabling technology of wearable computing.
- 21. HARD DRIVE •It is possible to carry enormous amount of hard drive space on your body. •Prof Martin has 36GB hard drive installed in his wear. •One of his waist bag systems contains 2GB of hard drive space and 512 MB of RAM.
- 22. BATTERIES OF WEAR COMP Low cost Batteries •Early versions of wear comp used lead acid batteries. •for constant application you will want to obtain at least Two 12 volt batteries High performance Batteries •Li-Ion camcorder batteries are commercially available. •A minimum of two batteries is required for constant running 12 volt batteries.
- 23. VOLTAGE REGULATOR •These are used in order to keep the voltage of Li-Ion batteries constant as output voltage drops significantly, with usage from a full charge. •Various components of wear comp require different voltage.
- 24. APPLICATIONS •Mediated augumented reality •MediWear •Smart eyeglasses •Smart shoes •Safety net •Military applications
- 25. 1.Mediated/augmented reality •It is the ability of the computer to offer enhanced presentations of reality to the user. •The application of augmented reality lies in adding to your perceptual field.
- 26. 2.MediWear •It closely monitors the wearer's body functions and the moment that any one of them becomes critical, the predefined medical unit is notified remotely. •It is expected that the transmitted signals are internal and they are relayed on to an external source.
- 28. 3.Smart eyeglasses It would not appreciably obstruct the wear's vision ,or otherwise be encumbering.
- 29. 4.SMART SHOES •The shoes records the amount of exercise a child does and converts it into television watching time •The shoe equipped with sensors.
- 30. 5.SAFETY NET •Use of biosensors where the quotient of heart rate divided by foot step rate. •Sensors ,which measure heart rate,respiration,footstep rate and carry the entire medical history.
- 31. Military Applications The smart shirt project at Georgia tech was originally financed by the navy, beginning in 1999.
- 32. MILITARY USE
- 33. ADVANTAGES 1.Portability 2.Hands free use 3.Comfortable 4.Always on for the task it is defined 5.Quick to access 6.Fashionable
- 35. •Equipment can be heavy. •Expensive . •Some wearable computers can consist of a lot of wiring Can cause irritation in heat. • Side-effect such as headaches . • Wearable computer can invade privacy DISADVANTAGES
- 36. CONCLUSION Wearable computer will provide safety, efficiency and comfort for users. True extension of mind and body. Enhance quality of life of the user at work place and in all parts of the daily life.
- 38. Questions ?
- 39. THANKS…..