Java ring is a finger ring that contains a small microprocessor with built in capabilities for the user.Java ring is a sort of a smartcard that is wearable on a finger,a stainless-steel ring,16-millimeters (0.6 inches) in diameter.
The document discusses the history and features of the Java Ring, a wearable computer in the form of a finger ring. It describes how the Java Ring originated from Dallas Semiconductor's 1-Wire protocol and iButton technology. The Java Ring contains a small microprocessor, Java virtual machine, memory, and real-time clock, allowing it to store user credentials and authenticate the user. Information is transferred via a 1-Wire communication protocol through a Blue Dot Receptor. The key benefits of the Java Ring are that it is wearable, controlled by the user, and can enable rapid authentication and access to services.
The document discusses the Java Ring, a wearable computer in the form of a finger ring. It contains a small microprocessor, 6KB of RAM, and can run applets from the Java virtual machine. The ring uses 1-Wire communication protocol and can authenticate users to internet services with a touch. Potential applications include secure access, digital signatures, and storing user credentials. It provides advantages as a wearable computer that is always with the user.
The Java Ring is a tiny wearable computer encased in stainless steel that is worn like a ring. It contains a 1-million transistor processor, 134KB of RAM and 32KB of ROM memory, and a real-time clock powered by a lithium backup. It can store user credentials, credit card numbers, URLs and electronic cash. Using a Blue Dot receptor connected to a computer via serial port, the Java Ring can authenticate users and wirelessly transmit encrypted data for applications like e-banking, smart car components, and smart door locks. The Java Ring provides always-on computing capabilities and security features like rapid data erasure and an unalterable processor clock for authentication.
The document discusses Java Ring, a type of digital jewelry that functions similarly to a mobile phone. It contains components like RAM, ROM, and a Java Virtual Machine. The Java Ring is compact and can be used for security purposes like access control and e-cash transactions. It works by communicating with a reader when the ring is pushed onto the reader's blue dot receptor. The Java Ring has advantages like being durable and functioning in various environments, while storing multiple passwords and information. However, it also has limitations like limited processor power and memory.
Java rings are wearable finger rings with microprocessors that function similarly to smart cards. They originated from Dallas Semiconductor's "touch memory" devices called i-buttons in 1989. Java rings contain an i-button microchip with memory, real-time clock, and a Java Virtual Machine that can run customized applets. They allow secure storage and transmission of user data and preferences for remote transactions, access control, and other applications while being durable, wearable devices. Potential disadvantages include high costs and limited memory capacity.
A Java ring is a finger ring containing a microprocessor that allows the user to store and access personal information. It uses Java Card technology, including a Java virtual machine, memory, and applets. When snapped into a reader, it can perform tasks like accessing doors, making payments, and checking out books. While providing authentication and security, privacy and control are potential disadvantages.
Java Ring is a stainless-steel ring that houses a microprocessor called an iButton, which contains 134KB RAM, 32KB ROM, and a Java virtual machine. It was introduced in 1998 to enable personalized services using information stored on the ring. Examples included a robot making coffee based on a user's preferences. While Java Rings are not widely used, similar wearable devices could be used for applications like automatically adjusting vehicle settings based on the driver's stored preferences.
Java ring is a finger ring that contains a small microprocessor with built in capabilities for the user.Java ring is a sort of a smartcard that is wearable on a finger,a stainless-steel ring,16-millimeters (0.6 inches) in diameter.
The document discusses the history and features of the Java Ring, a wearable computer in the form of a finger ring. It describes how the Java Ring originated from Dallas Semiconductor's 1-Wire protocol and iButton technology. The Java Ring contains a small microprocessor, Java virtual machine, memory, and real-time clock, allowing it to store user credentials and authenticate the user. Information is transferred via a 1-Wire communication protocol through a Blue Dot Receptor. The key benefits of the Java Ring are that it is wearable, controlled by the user, and can enable rapid authentication and access to services.
The document discusses the Java Ring, a wearable computer in the form of a finger ring. It contains a small microprocessor, 6KB of RAM, and can run applets from the Java virtual machine. The ring uses 1-Wire communication protocol and can authenticate users to internet services with a touch. Potential applications include secure access, digital signatures, and storing user credentials. It provides advantages as a wearable computer that is always with the user.
The Java Ring is a tiny wearable computer encased in stainless steel that is worn like a ring. It contains a 1-million transistor processor, 134KB of RAM and 32KB of ROM memory, and a real-time clock powered by a lithium backup. It can store user credentials, credit card numbers, URLs and electronic cash. Using a Blue Dot receptor connected to a computer via serial port, the Java Ring can authenticate users and wirelessly transmit encrypted data for applications like e-banking, smart car components, and smart door locks. The Java Ring provides always-on computing capabilities and security features like rapid data erasure and an unalterable processor clock for authentication.
The document discusses Java Ring, a type of digital jewelry that functions similarly to a mobile phone. It contains components like RAM, ROM, and a Java Virtual Machine. The Java Ring is compact and can be used for security purposes like access control and e-cash transactions. It works by communicating with a reader when the ring is pushed onto the reader's blue dot receptor. The Java Ring has advantages like being durable and functioning in various environments, while storing multiple passwords and information. However, it also has limitations like limited processor power and memory.
Java rings are wearable finger rings with microprocessors that function similarly to smart cards. They originated from Dallas Semiconductor's "touch memory" devices called i-buttons in 1989. Java rings contain an i-button microchip with memory, real-time clock, and a Java Virtual Machine that can run customized applets. They allow secure storage and transmission of user data and preferences for remote transactions, access control, and other applications while being durable, wearable devices. Potential disadvantages include high costs and limited memory capacity.
A Java ring is a finger ring containing a microprocessor that allows the user to store and access personal information. It uses Java Card technology, including a Java virtual machine, memory, and applets. When snapped into a reader, it can perform tasks like accessing doors, making payments, and checking out books. While providing authentication and security, privacy and control are potential disadvantages.
Java Ring is a stainless-steel ring that houses a microprocessor called an iButton, which contains 134KB RAM, 32KB ROM, and a Java virtual machine. It was introduced in 1998 to enable personalized services using information stored on the ring. Examples included a robot making coffee based on a user's preferences. While Java Rings are not widely used, similar wearable devices could be used for applications like automatically adjusting vehicle settings based on the driver's stored preferences.
The document discusses Java Rings, which are finger rings containing microprocessors that run Java applications. It provides an overview of the history and components of Java Rings, how they work, examples of their applications, and security features. Some disadvantages are that implementation costs can be high, information storage is limited, and theft is a risk.
The Java Ring is a finger ring containing a small microprocessor that implements the Java Card 2.0 API. It stores information in NVRAM and runs applets. When snapped into a Blue Dot receptor connected to a computer, it allows personalized services and functions like storing cash, unlocking doors, and tracking attendance. Originally introduced in 1998, Java Rings have been tested for uses like cashless school lunches and checking out library books.
The Java Ring is a smart ring containing a small Java-powered microprocessor. It functions similarly to a smart card, storing user information on its NVRAM chip and running applets. By touching the ring to a reader, users can access personalized services. Originally introduced in 1998, the Java Ring uses an iButton component for communication and identification, enabling contactless data transfer between the ring and computer. It provides convenient authentication but also has limitations around cost, compatibility, and storage.
This document discusses the Java Ring, which is a finger ring containing a microprocessor, memory, and Java virtual machine. It can run applets to store user information and perform functions when touched to a receptor. The Java Ring is made of stainless steel and is more durable than smart cards. It has various applications including banking, security, login, and storage of usernames and passwords. The document provides an introduction, history, components, working, comparison to smart cards, applications, and conclusions about the Java Ring.
The document describes a Java ring, which is a finger ring containing a microprocessor and Java virtual machine. The ring can run applets to enable various functions like attendance tracking, door access, and car security. It contains RAM, ROM, a real-time clock, and an iButton - a stainless steel can housing a computer chip with a unique address. The iButton allows the ring to communicate with a reader and host system. The ring provides security through its stainless casing and ability to require a PIN. It has applications in access control and thermochron usage while being portable and rugged.
The document discusses the history and capabilities of Java Rings. Java Rings are small wearable computers in the form of rings that contain a microprocessor, memory, and Java virtual machine. They were introduced by Sun Microsystems in 1998 and can store user credentials, cash balances, and URLs. The rings use Dallas Semiconductor's iButton technology, which encases computer chips in stainless steel for durability. Information is transferred via a 1-wire communication protocol. Potential applications include secure authentication, digital signatures, and storing user profiles.
The document discusses Java rings, which are finger rings containing microprocessors that can store and run small Java programs. Specifically, it describes the I-button, a stainless steel ring developed by Dallas Semiconductor in 1989 containing a 1 million transistor chip with RAM, ROM, a Java Virtual Machine and other components. The document outlines the historical background of Java rings, their components, security features, applications like access control and comparisons to other technologies like credit cards. It concludes that Java rings offer a secure way to carry digital information and credentials and may see wider use in the future.
The document discusses the Java ring, which is a stainless steel ring containing a computer chip called an iButton that stores user information and runs Java applets. It was introduced in 1998 to provide personalized services. The ring communicates with readers through the iButton and 1-wire protocol with a touch. Applications include access control, time/attendance, e-cash, and more. It has advantages like convenience and security but also risks less parental control and privacy issues.
This document discusses digital jewelry, which embeds computing components like microphones, displays, and antennas into fashion accessories. It describes a prototype phone broken into pieces of digital jewelry that communicate wirelessly, including earrings with microphones, a ring with an LED display to indicate calls, and a wrist display. The Java Ring is highlighted as a programmable access device, containing a processor, memory, and software to interface with other devices. Potential applications include access control, authentication, passwords, and digital signatures. While the concept aims to make computers more wearable and convenient, challenges around charging and costs remain.
IBM has developed digital jewelry that incorporates microchips and transistors into items like rings and bracelets to add computing and communication capabilities. This digital jewelry can perform functions like receiving calls or messages and is enabled through technologies like Bluetooth. Challenges remain around issues like charging and cost, but digital jewelry aims to provide convenience through wearable, wireless devices while still being stylish pieces of jewelry.
The document discusses digital jewelry, which are fashionable pieces of jewelry that contain computer components and can function as wireless wearable computers. Some examples mentioned include a computerized ring, earrings, necklace, and bracelet that work together using Bluetooth technology. The pieces have small screens, sensors, microcontrollers, and other technical specifications that allow them to be used like a mobile phone or computer. While digital jewelry provides wireless convenience and fashionable interaction, there are also challenges to address like small displays, potential health risks, durability, waterproofing, and high costs.
This document discusses digital jewelry, which combines fashion jewelry with embedded computing technology. Digital jewelry devices could include earrings with speakers, a necklace with a microphone, a ring with LEDs to indicate calls, and a bracelet with a small display. The technology allows for a wireless wearable computer using Bluetooth. Issues include small displays, potential health risks from radiation, water damage risks, and high costs, but digital jewelry may eventually replace standalone computers by integrating all necessary functions into fashionable items that are easy to carry everywhere.
Digital jewelry embeds technology like microphones, displays, and wireless capabilities into jewelry items. An IBM prototype used several connected jewelry pieces like a necklace with a microphone and bracelet with a display to perform mobile phone functions. Digital jewelry can be used as smart watches with screens, ear rings that function as speakers, or rings with buttons. This bridges the physical and digital worlds and technology may become more integrated with the human body in the future. However, digital jewelry also has limitations like small displays, potential health risks from rays, expensive costs, and non-rechargeable batteries.
The document discusses digital jewelry, which uses microcomputer devices embedded in fashion jewelry to allow for mobile computing. Digital jewelry components like earrings, necklaces, rings, and bracelets can work together using Bluetooth to function like a cell phone. Prototypes have been developed like a trackpoint ring and Java ring. Digital jewelry provides wireless wearability and a fashionable interface, but current limitations include small displays, potential health risks from rays, lack of waterproofing, and high costs.
Digital jewelry is fashion jewelry with embedded intelligence and components like microphones, displays, and batteries that allow it to function like a computer. A prototype uses separate pieces connected wirelessly like earrings with speakers, a necklace microphone, and a ring display. The Java Ring in particular provides security by unlocking doors and computers without passwords and is a small stainless steel ring with a processor. Digital jewelry provides security without keys and allows computing without carrying devices. However, issues with charging and costs remain to be solved before widespread adoption.
The document discusses the concept of digital jewelry, which embeds computing capabilities into jewelry items like earrings, necklaces, bracelets, and rings. It describes prototypes created by IBM and other companies that could replace items like phones, keys, and ID cards. Functions like calls, data display, passwords, and wireless controls might be integrated. While the idea combines fashion and technology, challenges remain around technical specifications, powering and programming the devices, and commercializing the concept.
This document outlines a project to build an interactive personal assistant with a human-like structure. The assistant would use an ESP8266 WiFi chip, Arduino microcontroller, and Raspberry Pi along with speech APIs from Microsoft and Google to understand voice commands. It would have sensors to detect sound and distance and motors to allow movement. Future enhancements could include support for additional languages like Hindi, a battery power source, updated speech recognition, and a more human-like body structure and head. The goal is to create a smart, interactive machine to serve users for tasks like assistance, entertainment, and research.
Digital jewelry embeds the components of communication devices and computers into jewelry items like earrings, necklaces, rings, and bracelets. This allows users to stay fashionable while communicating wirelessly. Key components like microphones, receivers, touchpads, and displays can be broken down and hidden inside jewelry. While charging and costs are drawbacks, digital jewelry provides security by not needing to carry separate devices, and allows for easy, wireless communication on the go.
Digital Jewellery
This presentation helps to know about the various techno jewels in the technological era that people are wearing that will help to do their activities efficiently and conveniently.
Digital jewelry is fashion jewelry that contains embedded computer technology to provide wireless connectivity and computing capabilities. It consists of components found in mobile phones miniaturized and embedded in jewelry items like rings, bracelets, and necklaces. Examples presented include an IBM magic decoder ring that flashes lights to handle phone calls and emails, a bracelet with an LED or LCD display to view information, and a necklace prototype displaying the entire Roman alphabet. Digital jewelry provides advantages like convenience and security by unlocking doors or logging into computers like a Java ring. Challenges include battery life and cost, but digital jewelry is predicted to become a future trend as computers are worn instead of used on desktops.
1) Four survivors - Samuel, Misty, Marlton, and Russman - band together in post-apocalyptic Washington D.C. overrun by zombies to survive with help from a robotic bus driver.
2) They are contacted by Maxis and Richtofen, who are in conflict and want the survivors to power towers to aid their respective plans.
3) Depending on who the survivors aid, the endings differ - Richtofen gains power and condemns souls, while Maxis destroys Earth to reach Agartha.
4) Flashbacks reveal the origins of the outbreak in 1918 France during World War I from experiments of Group 935 led by Maxis and
The document discusses Java Rings, which are finger rings containing microprocessors that run Java applications. It provides an overview of the history and components of Java Rings, how they work, examples of their applications, and security features. Some disadvantages are that implementation costs can be high, information storage is limited, and theft is a risk.
The Java Ring is a finger ring containing a small microprocessor that implements the Java Card 2.0 API. It stores information in NVRAM and runs applets. When snapped into a Blue Dot receptor connected to a computer, it allows personalized services and functions like storing cash, unlocking doors, and tracking attendance. Originally introduced in 1998, Java Rings have been tested for uses like cashless school lunches and checking out library books.
The Java Ring is a smart ring containing a small Java-powered microprocessor. It functions similarly to a smart card, storing user information on its NVRAM chip and running applets. By touching the ring to a reader, users can access personalized services. Originally introduced in 1998, the Java Ring uses an iButton component for communication and identification, enabling contactless data transfer between the ring and computer. It provides convenient authentication but also has limitations around cost, compatibility, and storage.
This document discusses the Java Ring, which is a finger ring containing a microprocessor, memory, and Java virtual machine. It can run applets to store user information and perform functions when touched to a receptor. The Java Ring is made of stainless steel and is more durable than smart cards. It has various applications including banking, security, login, and storage of usernames and passwords. The document provides an introduction, history, components, working, comparison to smart cards, applications, and conclusions about the Java Ring.
The document describes a Java ring, which is a finger ring containing a microprocessor and Java virtual machine. The ring can run applets to enable various functions like attendance tracking, door access, and car security. It contains RAM, ROM, a real-time clock, and an iButton - a stainless steel can housing a computer chip with a unique address. The iButton allows the ring to communicate with a reader and host system. The ring provides security through its stainless casing and ability to require a PIN. It has applications in access control and thermochron usage while being portable and rugged.
The document discusses the history and capabilities of Java Rings. Java Rings are small wearable computers in the form of rings that contain a microprocessor, memory, and Java virtual machine. They were introduced by Sun Microsystems in 1998 and can store user credentials, cash balances, and URLs. The rings use Dallas Semiconductor's iButton technology, which encases computer chips in stainless steel for durability. Information is transferred via a 1-wire communication protocol. Potential applications include secure authentication, digital signatures, and storing user profiles.
The document discusses Java rings, which are finger rings containing microprocessors that can store and run small Java programs. Specifically, it describes the I-button, a stainless steel ring developed by Dallas Semiconductor in 1989 containing a 1 million transistor chip with RAM, ROM, a Java Virtual Machine and other components. The document outlines the historical background of Java rings, their components, security features, applications like access control and comparisons to other technologies like credit cards. It concludes that Java rings offer a secure way to carry digital information and credentials and may see wider use in the future.
The document discusses the Java ring, which is a stainless steel ring containing a computer chip called an iButton that stores user information and runs Java applets. It was introduced in 1998 to provide personalized services. The ring communicates with readers through the iButton and 1-wire protocol with a touch. Applications include access control, time/attendance, e-cash, and more. It has advantages like convenience and security but also risks less parental control and privacy issues.
This document discusses digital jewelry, which embeds computing components like microphones, displays, and antennas into fashion accessories. It describes a prototype phone broken into pieces of digital jewelry that communicate wirelessly, including earrings with microphones, a ring with an LED display to indicate calls, and a wrist display. The Java Ring is highlighted as a programmable access device, containing a processor, memory, and software to interface with other devices. Potential applications include access control, authentication, passwords, and digital signatures. While the concept aims to make computers more wearable and convenient, challenges around charging and costs remain.
IBM has developed digital jewelry that incorporates microchips and transistors into items like rings and bracelets to add computing and communication capabilities. This digital jewelry can perform functions like receiving calls or messages and is enabled through technologies like Bluetooth. Challenges remain around issues like charging and cost, but digital jewelry aims to provide convenience through wearable, wireless devices while still being stylish pieces of jewelry.
The document discusses digital jewelry, which are fashionable pieces of jewelry that contain computer components and can function as wireless wearable computers. Some examples mentioned include a computerized ring, earrings, necklace, and bracelet that work together using Bluetooth technology. The pieces have small screens, sensors, microcontrollers, and other technical specifications that allow them to be used like a mobile phone or computer. While digital jewelry provides wireless convenience and fashionable interaction, there are also challenges to address like small displays, potential health risks, durability, waterproofing, and high costs.
This document discusses digital jewelry, which combines fashion jewelry with embedded computing technology. Digital jewelry devices could include earrings with speakers, a necklace with a microphone, a ring with LEDs to indicate calls, and a bracelet with a small display. The technology allows for a wireless wearable computer using Bluetooth. Issues include small displays, potential health risks from radiation, water damage risks, and high costs, but digital jewelry may eventually replace standalone computers by integrating all necessary functions into fashionable items that are easy to carry everywhere.
Digital jewelry embeds technology like microphones, displays, and wireless capabilities into jewelry items. An IBM prototype used several connected jewelry pieces like a necklace with a microphone and bracelet with a display to perform mobile phone functions. Digital jewelry can be used as smart watches with screens, ear rings that function as speakers, or rings with buttons. This bridges the physical and digital worlds and technology may become more integrated with the human body in the future. However, digital jewelry also has limitations like small displays, potential health risks from rays, expensive costs, and non-rechargeable batteries.
The document discusses digital jewelry, which uses microcomputer devices embedded in fashion jewelry to allow for mobile computing. Digital jewelry components like earrings, necklaces, rings, and bracelets can work together using Bluetooth to function like a cell phone. Prototypes have been developed like a trackpoint ring and Java ring. Digital jewelry provides wireless wearability and a fashionable interface, but current limitations include small displays, potential health risks from rays, lack of waterproofing, and high costs.
Digital jewelry is fashion jewelry with embedded intelligence and components like microphones, displays, and batteries that allow it to function like a computer. A prototype uses separate pieces connected wirelessly like earrings with speakers, a necklace microphone, and a ring display. The Java Ring in particular provides security by unlocking doors and computers without passwords and is a small stainless steel ring with a processor. Digital jewelry provides security without keys and allows computing without carrying devices. However, issues with charging and costs remain to be solved before widespread adoption.
The document discusses the concept of digital jewelry, which embeds computing capabilities into jewelry items like earrings, necklaces, bracelets, and rings. It describes prototypes created by IBM and other companies that could replace items like phones, keys, and ID cards. Functions like calls, data display, passwords, and wireless controls might be integrated. While the idea combines fashion and technology, challenges remain around technical specifications, powering and programming the devices, and commercializing the concept.
This document outlines a project to build an interactive personal assistant with a human-like structure. The assistant would use an ESP8266 WiFi chip, Arduino microcontroller, and Raspberry Pi along with speech APIs from Microsoft and Google to understand voice commands. It would have sensors to detect sound and distance and motors to allow movement. Future enhancements could include support for additional languages like Hindi, a battery power source, updated speech recognition, and a more human-like body structure and head. The goal is to create a smart, interactive machine to serve users for tasks like assistance, entertainment, and research.
Digital jewelry embeds the components of communication devices and computers into jewelry items like earrings, necklaces, rings, and bracelets. This allows users to stay fashionable while communicating wirelessly. Key components like microphones, receivers, touchpads, and displays can be broken down and hidden inside jewelry. While charging and costs are drawbacks, digital jewelry provides security by not needing to carry separate devices, and allows for easy, wireless communication on the go.
Digital Jewellery
This presentation helps to know about the various techno jewels in the technological era that people are wearing that will help to do their activities efficiently and conveniently.
Digital jewelry is fashion jewelry that contains embedded computer technology to provide wireless connectivity and computing capabilities. It consists of components found in mobile phones miniaturized and embedded in jewelry items like rings, bracelets, and necklaces. Examples presented include an IBM magic decoder ring that flashes lights to handle phone calls and emails, a bracelet with an LED or LCD display to view information, and a necklace prototype displaying the entire Roman alphabet. Digital jewelry provides advantages like convenience and security by unlocking doors or logging into computers like a Java ring. Challenges include battery life and cost, but digital jewelry is predicted to become a future trend as computers are worn instead of used on desktops.
1) Four survivors - Samuel, Misty, Marlton, and Russman - band together in post-apocalyptic Washington D.C. overrun by zombies to survive with help from a robotic bus driver.
2) They are contacted by Maxis and Richtofen, who are in conflict and want the survivors to power towers to aid their respective plans.
3) Depending on who the survivors aid, the endings differ - Richtofen gains power and condemns souls, while Maxis destroys Earth to reach Agartha.
4) Flashbacks reveal the origins of the outbreak in 1918 France during World War I from experiments of Group 935 led by Maxis and
Step-by-step Development of an Application for the Java Card Connected PlatformEric Vétillard
A JavaOne presentation that describes the Java Card Connected development model, based on a practical example.
Beyond Java Card Connected, could be interesting for people who want to develop small embedded Web servers.
This document provides a technical overview of Java for smartcards. It discusses why Java is used for smartcards, the Java Card architecture including applets, runtime environment and global platform specifications. It also summarizes key aspects of the Java Card toolchain, development process and security features.
Brief history of Java Card
• Basics standards
• How is that works?
• Developer Tools
• Writing our first real life Java Card application
• NFC and Java Card
• jCardSim: real story of real open source project
Quite often "new" people are only "new" to Postgres. This is my summary of do's and don'ts when it comes to teaching Postgres, what to take note on, with emphasis on teaching
This document discusses making smartcards more useful for security applications by building a trust layer between blockchains and the physical world. It proposes using secure elements like smartcards combined with secure microcontrollers to create cryptographically authenticated hardware security tokens. These devices would allow installing applications securely, authenticating to blockchains, and improving on smartcard limitations regarding developers and auditing. Examples given include the Ledger Nano S hardware wallet and plans to implement bitcoin, ethereum, and other cryptocurrency applications as well as password management and OpenPGP.
Mike Hall discusses enabling connectivity for devices. By 2020, the number of connected devices is projected to greatly outnumber the world's population. Different environments like LAN, WiFi, and WAN pose different connectivity challenges. Developing WAN solutions today is costly, complex, and time-consuming for OEMs and developers. Emerging trends include multi-core processing, ubiquitous screens, natural user interfaces, and cloud-enabled digital content. Enabling good user experiences requires addressing issues like connectivity states, local vs cloud-powered apps, and how to take advantage of hardware and connectivity.
This document discusses KURA, an open source Java and OSGi-based application framework for M2M/IoT service gateways. KURA aims to simplify embedded application development and deployment by providing a cohesive environment, modular components, hardware abstraction, and tools for remote management. It allows developers to focus on their applications while handling common tasks like communication protocols and device management. KURA also aims to reduce the gap between embedded and enterprise software through standards, tools, and decoupling layers.
Tom Deryckere shared thoughts on mobile web development and how content management systems (CMS) like Drupal, Joomla, and WordPress can be used to build mobile sites. He discussed how the mobile web is different than the desktop web and outlined techniques like device detection, template switching, and content transcoding to optimize sites for multiple devices. Examples of CMS extensions and services that facilitate mobile development were provided. Attendees were encouraged to start building mobile versions of their sites.
Mobile Bootcamp Presentation: Mobile Application Development PlatformsWilfred Mutua Mworia
A broad presentation on the various mobile application development platforms that exist. From programming for low end devices, at the SMS and SIM card level to Smartphone platforms
The document is a Java Card FAQ that covers topics related to Java Card including: what Java Card is, how it differs from Java, Java Card applets, card management including Open Platform specifications, code optimization, communication, cryptography, development tools, documentation, and security. It provides concise definitions and explanations of key Java Card concepts and terms.
An opinionated investigation into the impact of the Internet of Thing on APIs. What will remain and what will change? How will the future API design, protocols and developer experience be impacted by the promises and limitations of IoT. If you are wondering if IoT is hype or reality and how you will integrate it with it from an API perspective this talk is for you. This presentation will get you an (admittedly) opinionated overview over the current state of the art and possible future direction of APIs in IoT.
As most people are aware, there has been an expansion in mobile banking applications in recent years. The Czech Republic is no exception to this, as nearly all banks have developed a mobile application for their modern mobile operating systems. Although different banks solve their security concepts in different ways, it is possible to discuss typical situations and problems that inevitably appear while designing mobile banking applications.
This document introduces SignalR, a library for building real-time web functionality. SignalR allows adding real-time web functionality to applications by abstracting away the transport layer and enabling features like server push notifications without polling. It works natively in .NET and supports cross-platform clients. Live demos are provided showing how SignalR allows seamless client-server communication without polling. SignalR is presented as a simpler alternative to existing technologies for real-time web applications.
Keynote | Middleware Everywhere - Ready for Mobile and Cloud | Dr. Mark LittleJAX London
2011-11-01 | 09:45 AM-10:30 AM
The traditional role of middleware in the data center has been challenged to expand and meet the ubiquitous computing demands becoming more prevalent. The way applications are built, deployed, integrated and managed must accommodate the rapidly evolving mobile and cloud paradigms, without sacrificing security or performance. Open Standards, and a more agile stewardship of the Java Community Process will enable developers, architects and IT executives increase return on their existing IT investment and spur innovation in next generation application environments. Please join Dr. Mark Little, Sr. Director Middleware Engineering, as he discusses Red Hat's vision for how JBoss Enterprise Middleware will drive social, mobile and cloud computing.
The document provides an overview of physical computing and the Internet of Things (IoT) and how they relate to hardware prototyping using Arduino. It discusses what physical computing is, how computers see humans, and examples of physical computing projects. It also covers the Arduino platform, including components, programming, and examples. Additionally, it discusses sensors, shields, and how NFC (Near Field Communication) can be used to identify and connect physical objects to digital systems and networks to enable the IoT.
The document discusses issues around the Internet of Things (IoT). It notes that while connecting "things" to the Internet is not new, IoT has become a hot topic today due to factors like low-cost high-capability silicon enabling widespread deployment of connected devices. However, the document expresses concerns about IoT security and privacy, noting many current IoT devices have vulnerabilities like unchangeable default passwords and open ports, and the market does not adequately incentivize more secure solutions. It concludes the problems posed by an insecure IoT are significant and difficult to address.
Mobile development isn't as simple as one may think... and the biggest problem isn't the technology... In this webinar we cover some of the big and important subjects of mobile development:
> Framing the mobile challenge
>> Mobile Glossary
>> What is a mobile device?
>> Just a small computer?
>> Mobile device characteristics
>> UX considerations
>> Choose the right architecture
> How OutSystems Platform helps?
> Leveraging Silk UI Framework
> Going further with OutSystems Now
This was an internal OutSystems training converted to a webinar format.
Will Hall discusses using Docker to help solve issues with IoT hardware development. Docker allows for scalable, easily distributable, and repeatable emulation of IoT networks locally or remotely, reducing barriers to entry and enabling development, testing, and demonstration. This helps address problems with supporting many devices, variants, and networks during development. Standards are also needed to allow industry collaboration in solving IoT challenges over the long product life cycles expected. While Docker at the edge is problematic, emulation with Docker can simulate large IoT networks.
Meego Italian Day 2011 – Andrea Grandi - Qt: l’infrastruttura di programmazione multipiattaforma.
Panoramica di Qt: libreria multipiattaforma per lo sviluppo di programmi con interfaccia grafica tramite l’uso di widget. Perchè usarla? Quali sono i vantaggi? Che linguaggio di programmazione utilizza? E sotto che licenza viene rilasciata? Insomma, tutto quello che abbiamo sempre voluto sapere su Qt, ma non abbiamo mai osato chiedere. Inoltre qualche nozione teorica su Qt Quick e QML.
Andrea Grandi è studente di Informatica presso l’Università di Firenze e ha lavorato per qualche anno come sviluppatore di software. Dal 2007 fa parte della community di Maemo, in cui si impegna attivamente per aiutare i nuovi utenti, organizzare eventi e sviluppare applicazioni; recentemente è stato eletto membro del Maemo Community Council. Ha iniziato da alcuni anni a lavorare con Qt/C++ per creare programmi destinati ai dispositivi Maemo sino ad accumulare un’esperienza tale da essere nominato Nokia Qt Ambassador. Inoltre è socio fondatore del Pistoia Linux User Group.
http://www.meegoit.com/2011
This document provides an overview of developing a mobile app for Android. It discusses how to write a mobile app, key differences from web development, constraints of mobile devices and benefits of developing for Android specifically. It also includes a live coding demo of building a simple app with a button that plays a sound when clicked.
This document discusses the potential for tablets in the aviation industry. It begins by outlining how tablets could be used for technical publications, data acquisition, utilities, charts and navigation, and eLearning. It then addresses barriers to tablet adoption such as a lack of revenue potential and difficulty changing platforms. It provides options for deploying apps through an app store or custom solutions. It concludes by envisioning further tablet uses and capabilities in the future, such as ruggedized devices, peripheral integration, and near field communication sensors.
This document discusses the challenges facing mobile app developers. It notes the fragmentation across mobile platforms, devices, and network APIs. Key considerations for developers include reach of potential users, pricing models, time to launch apps, revenue sharing structures, and geographic support. Developing rich features like call control and billing integration is difficult due to the lack of common APIs across carriers. The document calls for help in addressing these issues to simplify the developer experience.
Similar to Eric Vétillard's Cardis2010 Slides (20)
12. Impressive
• Open
• Interoperable
• Interoperable app
• Multi-application management
• High-level protocols • Multiple providers
• Standard protocols • Works on UICC
• Full IP support • Manages Web
servers
39. For more information
• Sources of inspiration
– Usual suspects: Bruce, Ross, and friends
– More industrial: Ajit Jaokar, Umair Haque
– Compiled: http://javacard.vetilles.com
• Image credits from Flickr
culdesac par Gabba Gabba Hey! iconwall by liquidx
appstoreiphone by Lee Bennett fuzzyball by andymangold
androidmarket by Fragments of Eternity
neons_night by an untrained eye mom_child_trust by Isobel T
neons_toss by Neato Coolville Lightbulb by jamie hladky