Touchscreen PPT.pdf
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Touch screen technology allows users to directly interact with displays using only finger touches. The first touch screen was invented in 1965 as a capacitive touch screen for air traffic control. Touch screens are now widely used in devices like smartphones, tablets, video games and public information displays. They provide an intuitive interface but can be expensive and surfaces can get dirty. The global touch screen market is large and growing, projected to triple in revenue to $42 billion by 2022.
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Touch Screen Technology PRESENTATION
The document discusses touch screen technology. It provides an overview of the group members working on the project, objectives of the document, introduction to touch screens including their history and applications. The key technologies used in touch screens are described along with advantages like intuitive interfaces and disadvantages like fingerprints. Examples of popular touch screen devices are given and the large and growing touch screen market is highlighted. The document concludes by noting how touch screens are becoming more widely used and replacing other input devices.
manikanta
This document summarizes a presentation on touch screen technology. It discusses the history of touch screens beginning in 1965, provides examples of touch screen applications in devices like smartphones, tablets and video games. It outlines the main technologies used in touch screens today including resistive, capacitive, surface acoustic wave and infrared LED. The presentation notes that the touch screen market is growing significantly and expected to triple in revenue over the next decade as the technology becomes more widely used in consumer electronics. It concludes that touch screens have been widely accepted due to being easy, fast and intuitive to use.
Touch Screen Technology
Touch screen technology allows users to interact directly with what is displayed on the screen, such as through gestures or writing, rather than using indirect input devices such as a mouse. It emerged from research labs in the 1970s and the first touch sensor was developed in 1971. There are two main types: capacitive, which supports multi-touch and works through conductive materials on fingers, and resistive, which requires pressing more firmly but works with styli. Touch screens are now widely used in devices like phones, tablets, and ATMs due to their user-friendly interface, but they can be expensive and screens may get dirty. The market for touchscreen devices is large and growing rapidly.
Touchscreen technology report
The document provides an overview of resistive touchscreen technology. It describes how resistive touchscreens work using two electrically resistive layers separated by a small gap. When the layers are pressed together at a point, this allows the location to be detected. It discusses the different types of resistive technologies including analog 4-wire, 5-wire, 8-wire and digital matrix. The key features of resistive touchscreens are also summarized such as low cost, ability to work with any input material, and improved durability and visibility compared to earlier versions.
Touchscreen
touch screen technology their types and working technology.
by -
DILIP KUMAR
NIT CALICUT
Touch Screen Technology
The document discusses touchscreen technology. It begins by defining a touchscreen as a display that can detect touch input, allowing users to interact directly on the screen. It then covers the history and evolution of touchscreen development from the 1960s to modern smartphones and tablets. The key components of a touchscreen like the touch sensor, controller, and software driver are explained. Different types of touchscreen technologies such as resistive, capacitive, infrared and surface acoustic wave are described along with their advantages and applications. The document concludes by discussing future trends towards replacing mice and keyboards with touch interfaces.
Touch Screen - by Suma
Touch screens work by detecting input from a finger or pen on a glass overlay on top of a display screen. A touch sensor registers the input and sends it to a controller which processes it and sends the touch location data to software drivers and the operating system. Common types of touchscreen technologies include resistive, surface acoustic wave, capacitive, and dispersive signal technologies. Touchscreens are used in many applications including public displays, self-service kiosks, and consumer electronics due to being direct, fast, and not requiring keyboards.
Touch screen
This document discusses different types of touch screens and multi-touch technology. It describes resistive and capacitive touch screens, explaining that resistive screens are most common in mobile devices while capacitive screens are used in devices like smartphones and tablets. It also discusses multi-touch technology, how modern operating systems support multiple simultaneous touch points, and new tactile touch screen technologies like Tactus that add haptic feedback.
Recommended
Touch Screen Technology PRESENTATION
The document discusses touch screen technology. It provides an overview of the group members working on the project, objectives of the document, introduction to touch screens including their history and applications. The key technologies used in touch screens are described along with advantages like intuitive interfaces and disadvantages like fingerprints. Examples of popular touch screen devices are given and the large and growing touch screen market is highlighted. The document concludes by noting how touch screens are becoming more widely used and replacing other input devices.
manikanta
This document summarizes a presentation on touch screen technology. It discusses the history of touch screens beginning in 1965, provides examples of touch screen applications in devices like smartphones, tablets and video games. It outlines the main technologies used in touch screens today including resistive, capacitive, surface acoustic wave and infrared LED. The presentation notes that the touch screen market is growing significantly and expected to triple in revenue over the next decade as the technology becomes more widely used in consumer electronics. It concludes that touch screens have been widely accepted due to being easy, fast and intuitive to use.
Touch Screen Technology
Touch screen technology allows users to interact directly with what is displayed on the screen, such as through gestures or writing, rather than using indirect input devices such as a mouse. It emerged from research labs in the 1970s and the first touch sensor was developed in 1971. There are two main types: capacitive, which supports multi-touch and works through conductive materials on fingers, and resistive, which requires pressing more firmly but works with styli. Touch screens are now widely used in devices like phones, tablets, and ATMs due to their user-friendly interface, but they can be expensive and screens may get dirty. The market for touchscreen devices is large and growing rapidly.
Touchscreen technology report
The document provides an overview of resistive touchscreen technology. It describes how resistive touchscreens work using two electrically resistive layers separated by a small gap. When the layers are pressed together at a point, this allows the location to be detected. It discusses the different types of resistive technologies including analog 4-wire, 5-wire, 8-wire and digital matrix. The key features of resistive touchscreens are also summarized such as low cost, ability to work with any input material, and improved durability and visibility compared to earlier versions.
Touchscreen
touch screen technology their types and working technology.
by -
DILIP KUMAR
NIT CALICUT
Touch Screen Technology
The document discusses touchscreen technology. It begins by defining a touchscreen as a display that can detect touch input, allowing users to interact directly on the screen. It then covers the history and evolution of touchscreen development from the 1960s to modern smartphones and tablets. The key components of a touchscreen like the touch sensor, controller, and software driver are explained. Different types of touchscreen technologies such as resistive, capacitive, infrared and surface acoustic wave are described along with their advantages and applications. The document concludes by discussing future trends towards replacing mice and keyboards with touch interfaces.
Touch Screen - by Suma
Touch screens work by detecting input from a finger or pen on a glass overlay on top of a display screen. A touch sensor registers the input and sends it to a controller which processes it and sends the touch location data to software drivers and the operating system. Common types of touchscreen technologies include resistive, surface acoustic wave, capacitive, and dispersive signal technologies. Touchscreens are used in many applications including public displays, self-service kiosks, and consumer electronics due to being direct, fast, and not requiring keyboards.
Touch screen
This document discusses different types of touch screens and multi-touch technology. It describes resistive and capacitive touch screens, explaining that resistive screens are most common in mobile devices while capacitive screens are used in devices like smartphones and tablets. It also discusses multi-touch technology, how modern operating systems support multiple simultaneous touch points, and new tactile touch screen technologies like Tactus that add haptic feedback.
Report on touch screen
This document discusses touch screen technology. It provides a brief history, describing the development of early touch sensors in the 1970s and the growing popularity and use of touch screens. It then describes the main touch screen technologies - resistive, capacitive, and interruptive - and explains the basic components of a touch screen system, including the touch sensor, controller, and software driver. Finally, it outlines some key advantages of touch screen technology, such as its usefulness for public displays, retail/restaurant systems, customer self-service, control systems, computer-based training, and assistive technology applications.
zForce Touch Screen Technology
Touch screens use pressure sensitivity to detect touch locations on a display. Neonode developed zForce touch technology using infrared light beams to detect touches without needing glass overlays. zForce can recognize touches from fingers, gloves, and styluses. The main touch screen technologies are resistive, capacitive, projected capacitance, infrared, and Neonode's zForce technology. zForce is a lower-cost alternative to capacitive screens that can also recognize multi-touch inputs.
A touchscreen
A touchscreen is an electronic display that can detect touches within the display area using technologies like resistive, surface acoustic wave, and capacitive. Touchscreens allow direct interaction with the display without intermediate devices like mice or keyboards. They are common in devices like computers, tablets, phones, and GPS devices.
Touchscreen technology
All about Touchscreen Technology has been mentioned with special intention to meet seminar presentation.
IRJET - Touchless Technology
This document discusses the history and development of touchscreen technology. It describes early touchscreen devices from the 1980s that used infrared sensors to detect touch input. It then covers the development of multi-touch screens in the 2000s and 2010s, including innovations like Frustrated Total Internal Reflection that enabled intuitive multi-touch interfaces. The document also provides details on the working of different types of touchscreen sensors and controllers. Finally, it introduces touchless touchscreen technology developed by Elliptic Labs that allows control of devices through hand gestures without physical contact.
Z force touch screen technology
This document discusses the history and types of touch screens. It describes some of the early touch screen technologies developed in the 1960s and 1970s. It then covers the main types of modern touch screens: resistive, capacitive, and infrared. The document focuses on infrared touch screens, explaining their working principle using infrared LEDs and photo transistors. It notes the advantages of infrared screens like lower cost and long battery life compared to other technologies. It also discusses a company called Neonode that develops infrared touch screen technology.
Ppts on touch technology
Touch screen technology has evolved significantly since its inception in the 1970s. It began with Dr. Samuel Hurst developing the first touch sensor called "Elograph" in 1971. The first touch screen phone was the Apple phone in 1983. There are four main types of touch screen technologies - resistive, surface acoustic wave, capacitive, and infrared - each with their own advantages and disadvantages for applications like phones, tablets, kiosks and more. Touch screens continue to become more common and advanced, expected to account for over half of mobile phone sales by 2013.
20895A0420 SEMINAR PPT.pptx
Touch screen technology allows users to interact directly with what is displayed on the screen using only a touch. There are several types of touch screen technologies that use different methods to detect touch such as resistive, capacitive, surface wave, and infrared. Touch screens are used in devices such as public information displays, self-service kiosks, and computers. They provide intuitive interfaces with fewer buttons but can lead to lower battery life in devices. Future developments may include holographic touch screens and touch-sensitive wood tables.
Touch Technology....ppt
The document discusses the history and development of touch screen technology from its inception in 1971 to current applications, providing details on the different types of touch screen technologies including resistive, surface acoustic wave, capacitive, and infrared as well as describing the key components and manufacturers in the industry.
Touchscreen technology
The document discusses touch screen technology. It describes how touch screens work by detecting touch input on a display, outlines different types of touch screen technologies including resistive, surface acoustic wave, infrared, and capacitive, and discusses some applications and advantages/disadvantages of touch screens. Future touch screen technologies aim to provide minimal power requirements, high accuracy, zero-pressure touch capability, and 100% display clarity. Touch screens are used widely in public, business, entertainment, and government applications and may replace mouse/keyboard inputs in the future.
TouchScreen Technology
This document provides an overview of touchscreen technology. It begins with definitions of touchscreens and their ability to detect touch locations. Next, it discusses the history of touchscreen development from 1971-1983. Benefits of touchscreens are then outlined, such as intuitive use without training. The document proceeds to describe four main touchscreen technologies: resistive, capacitive, infrared, and surface acoustic wave. It explains the construction of a basic touchscreen including the touch sensor, controller, and software driver. Applications are listed in various industries. Disadvantages involve screen size and dirt. The conclusion discusses the growing adoption of touchscreens in devices and their potential to replace mice and keyboards.
Touchscreen working and Types... (y)
The document discusses different aspects of touchscreen technology. It begins with an introduction and overview of how a touchscreen works, including that it uses a touch-sensitive clear glass panel and controller to determine inputs. It then describes four main types of touchscreen technologies - resistive, capacitive, surface acoustic wave, and infrared. Applications of touchscreens are discussed such as displays, self-service kiosks, gaming, and mobile phones. Both advantages like ease of use and disadvantages like low battery life are outlined. The document concludes by stating that though touchscreens have limitations, the technology is widely accepted and being improved.
Presentation on touchscreen
A touch screen is an electronic display that can detect touch input. It allows direct interaction with what is displayed without needing an intermediate pointing device. The first touch screen was developed in the 1960s for air traffic control. Touch screens work by using touch sensors and controllers to detect touch locations and relay that information to software. Common touch screen technologies include resistive, surface acoustic wave, capacitive, infrared, and optical imaging. Touch screens are now widely used in devices like phones, tablets, and public information kiosks.
Touchscreen technology
That is touch screen technology as everything (laptop,desktop,mobiles,ATM machine) each and everything can be used by touch.so how it works.Take a tour of uploaded ppt.
Report on Touch Screens
Touchscreen technology has evolved significantly over the past few decades and become widespread. There are several main touchscreen technologies including resistive, surface acoustic wave, infrared, and capacitive. Each technology has advantages and disadvantages related to durability, transparency, response time, and sensitivity to environmental factors. Touchscreens are now commonly used in applications such as public kiosks, point-of-sale systems, mobile devices, and more to provide an intuitive user interface.
29866031 touch-screen-technology-by-pavan-kumar-m-t-140824023627-phpapp02
Touchscreen technology has evolved significantly over the past few decades and become widespread. There are several main touchscreen technologies including resistive, surface acoustic wave, infrared, and capacitive. Each technology has advantages and disadvantages related to durability, transparency, response time, and sensitivity to environmental factors. Touchscreens are now commonly used in applications such as public kiosks, point-of-sale systems, mobile devices, and more to provide an intuitive user interface.
TOUCH SCREEN TECHNOLOGY GIRISH HARMUKH
Touch screen technology allows users to interact directly with digital devices by touching images or words on a display screen. There are several types of touch screen technologies including resistive, capacitive, surface acoustic wave, and infrared. Touch screens are now widely used in devices like smartphones, tablets, public kiosks and point-of-sale systems due to their simplicity and intuitiveness compared to traditional input methods like keyboards and mice.
Phonegap ppt
The document discusses touch screen technology. It defines touch screens as display screens that can be controlled through touch gestures on the screen instead of using a mouse or other pointing device. It describes the main components of a touch screen as the touch sensor, controller, and software driver. It then covers various types of touch screen technologies including resistive, capacitive, surface acoustic wave, and infrared. It discusses applications of touch screens and their advantages such as being more reliable, portable, and resistant to contamination.
Introduction
A touchscreen is a display screen that allows users to operate a device by touching the screen directly with their finger or a stylus. Touchscreens are commonly found on phones and larger displays. They provide an intuitive interface for users but can be tiring and inaccurate for small targets. Touchscreens work by detecting voltage changes when the screen is touched, allowing the device to determine the touch location.
multitouch screen
This document discusses multi-touch technology. It provides an overview of the history of multi-touch from 1982 onwards. It describes different types of multi-touch technologies including capacitive, resistive, optical and infrared. It outlines common multi-touch gestures and applications. It then focuses on frustrated total internal reflection (FTIR) as a new approach, describing how it works and its advantages over other methods like high resolution, low cost and scalability. It concludes that touch screens are the interface for the 21st century and FTIR provides a simple method for multi-touch displays.
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Similar to Touchscreen PPT.pdf
Report on touch screen
This document discusses touch screen technology. It provides a brief history, describing the development of early touch sensors in the 1970s and the growing popularity and use of touch screens. It then describes the main touch screen technologies - resistive, capacitive, and interruptive - and explains the basic components of a touch screen system, including the touch sensor, controller, and software driver. Finally, it outlines some key advantages of touch screen technology, such as its usefulness for public displays, retail/restaurant systems, customer self-service, control systems, computer-based training, and assistive technology applications.
zForce Touch Screen Technology
Touch screens use pressure sensitivity to detect touch locations on a display. Neonode developed zForce touch technology using infrared light beams to detect touches without needing glass overlays. zForce can recognize touches from fingers, gloves, and styluses. The main touch screen technologies are resistive, capacitive, projected capacitance, infrared, and Neonode's zForce technology. zForce is a lower-cost alternative to capacitive screens that can also recognize multi-touch inputs.
A touchscreen
A touchscreen is an electronic display that can detect touches within the display area using technologies like resistive, surface acoustic wave, and capacitive. Touchscreens allow direct interaction with the display without intermediate devices like mice or keyboards. They are common in devices like computers, tablets, phones, and GPS devices.
Touchscreen technology
All about Touchscreen Technology has been mentioned with special intention to meet seminar presentation.
IRJET - Touchless Technology
This document discusses the history and development of touchscreen technology. It describes early touchscreen devices from the 1980s that used infrared sensors to detect touch input. It then covers the development of multi-touch screens in the 2000s and 2010s, including innovations like Frustrated Total Internal Reflection that enabled intuitive multi-touch interfaces. The document also provides details on the working of different types of touchscreen sensors and controllers. Finally, it introduces touchless touchscreen technology developed by Elliptic Labs that allows control of devices through hand gestures without physical contact.
Z force touch screen technology
This document discusses the history and types of touch screens. It describes some of the early touch screen technologies developed in the 1960s and 1970s. It then covers the main types of modern touch screens: resistive, capacitive, and infrared. The document focuses on infrared touch screens, explaining their working principle using infrared LEDs and photo transistors. It notes the advantages of infrared screens like lower cost and long battery life compared to other technologies. It also discusses a company called Neonode that develops infrared touch screen technology.
Ppts on touch technology
Touch screen technology has evolved significantly since its inception in the 1970s. It began with Dr. Samuel Hurst developing the first touch sensor called "Elograph" in 1971. The first touch screen phone was the Apple phone in 1983. There are four main types of touch screen technologies - resistive, surface acoustic wave, capacitive, and infrared - each with their own advantages and disadvantages for applications like phones, tablets, kiosks and more. Touch screens continue to become more common and advanced, expected to account for over half of mobile phone sales by 2013.
20895A0420 SEMINAR PPT.pptx
Touch screen technology allows users to interact directly with what is displayed on the screen using only a touch. There are several types of touch screen technologies that use different methods to detect touch such as resistive, capacitive, surface wave, and infrared. Touch screens are used in devices such as public information displays, self-service kiosks, and computers. They provide intuitive interfaces with fewer buttons but can lead to lower battery life in devices. Future developments may include holographic touch screens and touch-sensitive wood tables.
Touch Technology....ppt
The document discusses the history and development of touch screen technology from its inception in 1971 to current applications, providing details on the different types of touch screen technologies including resistive, surface acoustic wave, capacitive, and infrared as well as describing the key components and manufacturers in the industry.
Touchscreen technology
The document discusses touch screen technology. It describes how touch screens work by detecting touch input on a display, outlines different types of touch screen technologies including resistive, surface acoustic wave, infrared, and capacitive, and discusses some applications and advantages/disadvantages of touch screens. Future touch screen technologies aim to provide minimal power requirements, high accuracy, zero-pressure touch capability, and 100% display clarity. Touch screens are used widely in public, business, entertainment, and government applications and may replace mouse/keyboard inputs in the future.
TouchScreen Technology
This document provides an overview of touchscreen technology. It begins with definitions of touchscreens and their ability to detect touch locations. Next, it discusses the history of touchscreen development from 1971-1983. Benefits of touchscreens are then outlined, such as intuitive use without training. The document proceeds to describe four main touchscreen technologies: resistive, capacitive, infrared, and surface acoustic wave. It explains the construction of a basic touchscreen including the touch sensor, controller, and software driver. Applications are listed in various industries. Disadvantages involve screen size and dirt. The conclusion discusses the growing adoption of touchscreens in devices and their potential to replace mice and keyboards.
Touchscreen working and Types... (y)
The document discusses different aspects of touchscreen technology. It begins with an introduction and overview of how a touchscreen works, including that it uses a touch-sensitive clear glass panel and controller to determine inputs. It then describes four main types of touchscreen technologies - resistive, capacitive, surface acoustic wave, and infrared. Applications of touchscreens are discussed such as displays, self-service kiosks, gaming, and mobile phones. Both advantages like ease of use and disadvantages like low battery life are outlined. The document concludes by stating that though touchscreens have limitations, the technology is widely accepted and being improved.
Presentation on touchscreen
A touch screen is an electronic display that can detect touch input. It allows direct interaction with what is displayed without needing an intermediate pointing device. The first touch screen was developed in the 1960s for air traffic control. Touch screens work by using touch sensors and controllers to detect touch locations and relay that information to software. Common touch screen technologies include resistive, surface acoustic wave, capacitive, infrared, and optical imaging. Touch screens are now widely used in devices like phones, tablets, and public information kiosks.
Touchscreen technology
That is touch screen technology as everything (laptop,desktop,mobiles,ATM machine) each and everything can be used by touch.so how it works.Take a tour of uploaded ppt.
Report on Touch Screens
Touchscreen technology has evolved significantly over the past few decades and become widespread. There are several main touchscreen technologies including resistive, surface acoustic wave, infrared, and capacitive. Each technology has advantages and disadvantages related to durability, transparency, response time, and sensitivity to environmental factors. Touchscreens are now commonly used in applications such as public kiosks, point-of-sale systems, mobile devices, and more to provide an intuitive user interface.
29866031 touch-screen-technology-by-pavan-kumar-m-t-140824023627-phpapp02
Touchscreen technology has evolved significantly over the past few decades and become widespread. There are several main touchscreen technologies including resistive, surface acoustic wave, infrared, and capacitive. Each technology has advantages and disadvantages related to durability, transparency, response time, and sensitivity to environmental factors. Touchscreens are now commonly used in applications such as public kiosks, point-of-sale systems, mobile devices, and more to provide an intuitive user interface.
TOUCH SCREEN TECHNOLOGY GIRISH HARMUKH
Touch screen technology allows users to interact directly with digital devices by touching images or words on a display screen. There are several types of touch screen technologies including resistive, capacitive, surface acoustic wave, and infrared. Touch screens are now widely used in devices like smartphones, tablets, public kiosks and point-of-sale systems due to their simplicity and intuitiveness compared to traditional input methods like keyboards and mice.
Phonegap ppt
The document discusses touch screen technology. It defines touch screens as display screens that can be controlled through touch gestures on the screen instead of using a mouse or other pointing device. It describes the main components of a touch screen as the touch sensor, controller, and software driver. It then covers various types of touch screen technologies including resistive, capacitive, surface acoustic wave, and infrared. It discusses applications of touch screens and their advantages such as being more reliable, portable, and resistant to contamination.
Introduction
A touchscreen is a display screen that allows users to operate a device by touching the screen directly with their finger or a stylus. Touchscreens are commonly found on phones and larger displays. They provide an intuitive interface for users but can be tiring and inaccurate for small targets. Touchscreens work by detecting voltage changes when the screen is touched, allowing the device to determine the touch location.
multitouch screen
This document discusses multi-touch technology. It provides an overview of the history of multi-touch from 1982 onwards. It describes different types of multi-touch technologies including capacitive, resistive, optical and infrared. It outlines common multi-touch gestures and applications. It then focuses on frustrated total internal reflection (FTIR) as a new approach, describing how it works and its advantages over other methods like high resolution, low cost and scalability. It concludes that touch screens are the interface for the 21st century and FTIR provides a simple method for multi-touch displays.
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Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapte...
Touchscreen PPT.pdf
- 2. OBJECTIVES ► INTRODUCTION ► HISTORY ► WHEN IT IS APPLICABLE? ► ADVANTAGES/DISADVANTAGES ► EXAMPLES ► TOUCH SCREEN MARKET ► TECHNOLOGIES ► CONCUSION
- 3. INTRODUCTION ► A touch screen is on Input device That Allows Users To Operate a PC By Simply touct1ing the screen. ► The Display Screen Hos A Sensitive Glass Placed on ii And We Could the Desired Input By Touching It. ► A touch Screen is based on CRT (Cathode Ray Tube) Technology. That accepts direct on screen input
- 4. HISTORY ► Historians consider the first touch screen to be a capacitive touch screen invented by E.A. Johnson in the UK around 1965. The inventor initially developed this technology for air traffic control ► 2002 Microsoft's Windows XP Tablet
- 5. WHEN IT IS APPLICABLE ? ► It allows users to interact directly with what is being displayed. rather than indirec11 y using a mouse or keyboard ► Can be used without any intermediate device ► Found in modern smartphones. video games. pc tablets. navigation systems. etc..
- 6. ADVANTAGES ► Touchscreens provide end users an opportunity to interact with the computer. improving the human-computer interface and improving the user's experience. ► Touchscreens provide an easy to understand. intuitive interface for the human brain. ► Fumbling with a mouse and keyboard isn't always the easiest thing to do and touchscreen technology can help. It Saves Time
- 7. DISADVANTAGES ► Some disadvantages ore that the user must be within arms reach of the display. it would be difficult to select small items ► They cost more than oltema ► The screen gets dirty from finger prints.
- 8. EXAMPLES ➔ These Are The Most Popular T ouch Screen Devices 1. Nokia Lumia 2. iPhone 3. Samsung S3
- 9. PAD · 1. iPad 2. Samsung Tab 10.1 3. Sony Voio Duo 11 - Ullrobook EARS: I. Nintendo 3DS 2. PS Vito 3. Nintendo Wii U
- 10. This technology is used at different places like, ► Gos & Fuel Stotions ► At Cinemas. Restaurants. Airports. ► In Cars ► Super Markets
- 11. TOUCH SCREEN MARKET ► Touch screen interfaces are becoming increasingly common in mobile consumer devices. such as mobile phones. tablets and e- books. IDTechEx forecasts revenue of the touct1 screen market to be US$l 4bn in 2012 and to triple in the next decode.
- 12. Conculsion:- it is very friendly,fast and fun to operate. It has been widely accepted