A smart card is a pocket-sized card with embedded integrated circuits that can securely store and process information. Smart cards can function like magnetic stripe cards for applications such as banking, identification, and ticketing while offering enhanced security features like the ability to encrypt data, perform calculations, and require PIN codes to access information. Common uses of smart cards include SIM cards in mobile phones, secure login credentials, and health records storage. While more secure than magnetic stripe cards, smart cards still have limitations such as requiring readers and potential loss or theft.
Smart cards are credit card sized devices with embedded integrated circuits that can store and process data. They can be used for identification, authentication, data storage and more. The document outlines the history of smart cards from their invention in 1968 to modern applications. Key benefits include security, portability and ease of use. Examples of smart card applications provided are banking, healthcare, access control and telecommunications. Advantages include flexibility and security while disadvantages include potential fees and data access if lost or stolen.
Smart cards are small electronic devices about the size of a credit card that contain memory and an integrated circuit chip. They provide identification, authentication, and data storage capabilities. Smart cards were invented in 1968 and come in various types including embossed, magnetic stripe, memory, optical, microprocessor, and contactless cards. They have wide-ranging applications including use in payphones, banking, retail, electronic purse, health care, ID verification, and access control. Advantages of smart cards include flexibility, security, data integrity, and ease of use while disadvantages include fees, liability if stolen or lost, limited data capacity, and lack of universal technology support.
This document provides an overview of smart cards, including their history and uses. It discusses how smart cards ease logistical issues for wireless carriers by storing subscription information externally on the card rather than internally on the device. This allows users to easily personalize and depersonalize devices and supports a global distribution network. Smart cards also provide opportunities for value-added services, enhancing security and creating switching costs for users. Various industries and applications are exploring uses of smart cards, with financial services being an early adopter. Overall smart cards provide secure authentication and a platform for new services in wireless and other industries.
This document summarizes a seminar presentation on smart cards. It defines a smart card as a credit card-sized plastic card that contains an embedded microchip that provides storage, processing capabilities, and security features. The document outlines the basic components of a smart card, including its microchip, memory, and operating system. It also describes how smart cards work, their various applications like payment and identification, and advantages like security and portability.
Smart dust is a network of tiny sensor-enabled devices called motes that can monitor environmental conditions. Each mote contains sensors, computing power, wireless communication, and an autonomous power supply within a volume of a few millimeters. They communicate with each other and a base station using radio frequency or optical transmission. Major challenges in developing smart dust include fitting all components into a small size while minimizing energy usage. Potential applications include environmental monitoring, healthcare, security, and traffic monitoring.
The document discusses the Smart Quill, a pen invented by Microsoft Research that can write on any surface and digitize handwritten notes. It contains sensors that record pen movements to recognize handwriting and transform it into text. The Smart Quill is slightly larger than a normal pen and allows the user to train it to recognize their handwriting. It can store notes locally and upload them when docked. While convenient, it has some disadvantages like size, memory issues, and cost.
A smart card is a pocket-sized card with embedded integrated circuits that can securely store and process information. Smart cards can function like magnetic stripe cards for applications such as banking, identification, and ticketing while offering enhanced security features like the ability to encrypt data, perform calculations, and require PIN codes to access information. Common uses of smart cards include SIM cards in mobile phones, secure login credentials, and health records storage. While more secure than magnetic stripe cards, smart cards still have limitations such as requiring readers and potential loss or theft.
Smart cards are credit card sized devices with embedded integrated circuits that can store and process data. They can be used for identification, authentication, data storage and more. The document outlines the history of smart cards from their invention in 1968 to modern applications. Key benefits include security, portability and ease of use. Examples of smart card applications provided are banking, healthcare, access control and telecommunications. Advantages include flexibility and security while disadvantages include potential fees and data access if lost or stolen.
Smart cards are small electronic devices about the size of a credit card that contain memory and an integrated circuit chip. They provide identification, authentication, and data storage capabilities. Smart cards were invented in 1968 and come in various types including embossed, magnetic stripe, memory, optical, microprocessor, and contactless cards. They have wide-ranging applications including use in payphones, banking, retail, electronic purse, health care, ID verification, and access control. Advantages of smart cards include flexibility, security, data integrity, and ease of use while disadvantages include fees, liability if stolen or lost, limited data capacity, and lack of universal technology support.
This document provides an overview of smart cards, including their history and uses. It discusses how smart cards ease logistical issues for wireless carriers by storing subscription information externally on the card rather than internally on the device. This allows users to easily personalize and depersonalize devices and supports a global distribution network. Smart cards also provide opportunities for value-added services, enhancing security and creating switching costs for users. Various industries and applications are exploring uses of smart cards, with financial services being an early adopter. Overall smart cards provide secure authentication and a platform for new services in wireless and other industries.
This document summarizes a seminar presentation on smart cards. It defines a smart card as a credit card-sized plastic card that contains an embedded microchip that provides storage, processing capabilities, and security features. The document outlines the basic components of a smart card, including its microchip, memory, and operating system. It also describes how smart cards work, their various applications like payment and identification, and advantages like security and portability.
Smart dust is a network of tiny sensor-enabled devices called motes that can monitor environmental conditions. Each mote contains sensors, computing power, wireless communication, and an autonomous power supply within a volume of a few millimeters. They communicate with each other and a base station using radio frequency or optical transmission. Major challenges in developing smart dust include fitting all components into a small size while minimizing energy usage. Potential applications include environmental monitoring, healthcare, security, and traffic monitoring.
The document discusses the Smart Quill, a pen invented by Microsoft Research that can write on any surface and digitize handwritten notes. It contains sensors that record pen movements to recognize handwriting and transform it into text. The Smart Quill is slightly larger than a normal pen and allows the user to train it to recognize their handwriting. It can store notes locally and upload them when docked. While convenient, it has some disadvantages like size, memory issues, and cost.
Smart note taker is a pen that can write in air and store the information in an internal memory chip. It uses displacement sensors to sense the pen's movement and compare the handwriting to letters in its database to store what is written. Notes can then be uploaded and edited on a PC by docking the pen. The smart note taker allows paperless note taking anywhere and saves time over traditional notetaking. However, it has a very high cost which limits its accessibility. It finds applications in presentations, document editing and signatures.
Presentation on security feature of atm (2)Siya Agarwal
The document discusses the security features of ATM systems. It describes how ATMs work by having customers authenticate using cards and PINs. ATM security relies on crypto-processors, database security, and network security. It provides security through mechanisms like time-outs for invalid PIN entries and recognizing stolen cards. Additional security features include identity verification, data confidentiality, accountability, and audit capabilities. The document emphasizes the importance of keeping ATM cards and PINs secure and reporting any loss or theft.
The document discusses smart cards, which resemble credit cards but contain an embedded microprocessor chip. Smart cards can store data and applications, perform computations, and provide strong security features like cryptography. They work by communicating with an external smart card reader via contact or contactless transmission. The reader acts as an intermediary to transfer data between the card and other devices. Smart cards contain an operating system that controls access to data stored on the microchip and can run multiple applications simultaneously. They are commonly used for identity verification, payments, and health/banking applications due to their portability and security.
A smart card is a pocket-sized card with embedded integrated circuits that can provide identification, authentication, data storage, and application processing. There are two main types: contact smart cards, which have electrical contacts to connect to a reader, and contactless smart cards, which communicate wirelessly through induction technology. Smart cards offer security features like authentication, encryption, and secure data storage. They are used for applications like ID cards, payment systems, and building access control.
The document summarizes the history and development of smart cards from 1968 to 1999. Some key events include the first patent filings for microchip cards in 1968 and 1970, the original patent for an IC card in 1974, and the beginning of commercial smart card development in 1977. The document then defines smart cards and describes their various components and applications, including banking, identification, transportation, and telecommunications. The advantages of smart cards over magnetic stripe cards are also outlined, such as increased security, processing power, and storage capacity.
This document proposes an ATM system that uses facial recognition instead of cards and PINs for verification. It would work by having a camera installed on the ATM that takes a photo of the customer's face and compares it to an image stored in the bank's database associated with the account. This would provide increased security by matching a live photo to the stored image without needing a card or PIN. The document outlines the components, techniques, process and potential benefits of such a biometric-based ATM system for more reliable authentication.
This document summarizes a technical presentation on iTwin, a device that allows users to share files between computers without installing software or using USB drives or cables. iTwin uses AES 256-bit encryption and provides limitless secure storage that can be accessed from any computer. It has advantages over USB drives like remote disabling if lost and no temp files, and over cloud storage by allowing direct editing of remote files and having no storage limits or fees. The presentation provides details on iTwin's functions, technology, system requirements and comparisons with other technologies. It concludes that iTwin is a simple and inexpensive solution for remotely accessing and updating files between computers.
Smart cards can hold up to 32KB of data and have encryption capabilities. They provide security for banking, mobile payments, and ID verification. Smart cards use microprocessors and memory to store and process encrypted data for transactions and access control through card readers. They provide flexibility, security, portability and increasing storage capacity compared to magnetic stripe cards.
A seminar on Smart Cards, its history, applications, working principle, architecture, classification and future scopes. Prepared for 3rd year ECE technical seminar.
This document provides an overview of smart cards. It defines a smart card as a small plastic card with an embedded integrated circuit chip that can store and transact data. The document then discusses the history of smart cards, their design, types including contact, contactless and hybrid cards, applications such as financial, identification and access control, security features, benefits like convenience and enhanced security, and problems with malware and damage.
Smart cards are plastic cards with embedded microchips that can store and process data. They come in various types, including contact cards that must be inserted into a reader, contactless cards that communicate via radio frequency, and dual-interface cards that can be used either way. Smart cards provide secure storage of identification, banking, medical, and other important user information and enable faster transactions. They are defined by international standards for dimensions, communication protocols, and more. While offering benefits like security, portability, and flexibility, smart cards also have drawbacks including higher costs and limited reader compatibility compared to traditional cards.
Smart cards are plastic cards with embedded computer chips that store and transact data. They were first used in France in the 1980s for payment in pay phones. Contact smart cards have electrical contacts that connect to readers and transmit data via signals like power, reset, clock, and input/output. They are now used widely for banking, transportation, healthcare and more. Smart cards improve security over other machine-readable cards by providing secure authentication, encryption, passwords, biometrics and more. Standards like ISO 7816 and 14443 govern smart card interfaces and communication.
1. The document lists over 100 potential seminar topics in computer science and information technology, ranging from elastic quotas to 3D internet.
2. Some examples include extreme programming, face recognition technology, honeypots, IP spoofing, digital light processing, and cloud computing.
3. The topics cover a wide range of areas including networking, security, hardware, software, interfaces, and applications.
This document provides an overview of smart cards, including their evolution, technological features, classifications, contact interfaces, fabrication process, applications, advantages, and disadvantages. It also discusses the future of smart cards. Some key points:
- Smart cards evolved from credit cards in the 1950s and the first microchip-enabled smart card was invented in 1974. They typically contain microchips that can store information like ID photos, passwords, and bank account details.
- Smart cards are classified as memory cards or microprocessor cards. Memory cards only store data while microprocessor cards can add, delete, and manipulate information in their memory.
- Smart cards have a variety of applications including financial transactions, ID cards, healthcare records
Smart cards are plastic cards with embedded integrated circuits that can be used for secure identification and financial transactions. They store data in their microchips and communicate with card readers using established protocols. The main types are contact cards that must be inserted directly into readers, contactless cards that communicate via radio frequency, and dual-interface cards that support both contact and contactless. Smart cards rely on operating systems and encryption to securely store and manage access to user data for applications such as ID cards, payments, and access control.
This document describes the P-ISM (Pen-style Personal Networking Gadget Package), which was created in 2012. P-ISM allows users to use two pens to control a projected keyboard and monitor on any flat surface. It functions like a desktop computer through its CPU pen, communication pen, LED projector, virtual keyboard, digital camera, and battery. The document discusses P-ISM's history, components, functions, block diagram, working, merits such as portability, demertis like cost, and references.
Smart cards are plastic cards with embedded microchips that can store data and enable phone calls, payments, and other applications. The technology originated in the 1970s and has since been used for pay phones, debit/credit cards, SIM cards, transit cards, and more. There are several types of smart cards including contact cards that require insertion, contactless cards that use embedded antennas, and dual/hybrid cards with both contact and contactless capabilities. Smart cards are used across many industries like retail, transportation, healthcare, banking, and more. Future applications may incorporate biometrics and enable online purchases directly from smart cards.
The document describes a smart note taker product that allows users to take notes by writing in the air. The notes are sensed and stored digitally. Key features include allowing blind users to write freely, and enabling instructors to write notes during presentations that are broadcast to students. It works using sensors to detect 3D writing motions, which are processed, stored, and can be viewed on a display or sent to other devices. An applet program and database are used to recognize words written in the air and print them. The smart note taker offers advantages over digital pens like ease of use and time savings.
This document discusses smart cards, providing an overview of their evolution, technological features, classifications, interfaces, fabrication, applications, advantages, and future. Key points include:
- Smart cards evolved from credit cards and now contain embedded microchips, allowing them to store data and run programs.
- They are classified as memory cards or microprocessor cards depending on whether they only store data or can manipulate it.
- Major applications include financial, government, healthcare, campus, and communication/entertainment uses.
- Advantages are convenience, security, and multifunctionality while disadvantages include flexibility and lack of standardization.
- The future of smart cards is predicted to include more contactless capabilities and supporting multiple applications.
A smart card is a plastic card with an embedded microchip that can store data and be used for applications like phone calls, payments, and more. Smart cards were first developed in the 1970s and are now used widely for payment, transit cards, identification, and more. They provide security advantages over magnetic stripe cards and allow for multiple functions on a single card. Smart cards are expected to continue evolving to new form factors and applications in the future.
Smart note taker is a pen that can write in air and store the information in an internal memory chip. It uses displacement sensors to sense the pen's movement and compare the handwriting to letters in its database to store what is written. Notes can then be uploaded and edited on a PC by docking the pen. The smart note taker allows paperless note taking anywhere and saves time over traditional notetaking. However, it has a very high cost which limits its accessibility. It finds applications in presentations, document editing and signatures.
Presentation on security feature of atm (2)Siya Agarwal
The document discusses the security features of ATM systems. It describes how ATMs work by having customers authenticate using cards and PINs. ATM security relies on crypto-processors, database security, and network security. It provides security through mechanisms like time-outs for invalid PIN entries and recognizing stolen cards. Additional security features include identity verification, data confidentiality, accountability, and audit capabilities. The document emphasizes the importance of keeping ATM cards and PINs secure and reporting any loss or theft.
The document discusses smart cards, which resemble credit cards but contain an embedded microprocessor chip. Smart cards can store data and applications, perform computations, and provide strong security features like cryptography. They work by communicating with an external smart card reader via contact or contactless transmission. The reader acts as an intermediary to transfer data between the card and other devices. Smart cards contain an operating system that controls access to data stored on the microchip and can run multiple applications simultaneously. They are commonly used for identity verification, payments, and health/banking applications due to their portability and security.
A smart card is a pocket-sized card with embedded integrated circuits that can provide identification, authentication, data storage, and application processing. There are two main types: contact smart cards, which have electrical contacts to connect to a reader, and contactless smart cards, which communicate wirelessly through induction technology. Smart cards offer security features like authentication, encryption, and secure data storage. They are used for applications like ID cards, payment systems, and building access control.
The document summarizes the history and development of smart cards from 1968 to 1999. Some key events include the first patent filings for microchip cards in 1968 and 1970, the original patent for an IC card in 1974, and the beginning of commercial smart card development in 1977. The document then defines smart cards and describes their various components and applications, including banking, identification, transportation, and telecommunications. The advantages of smart cards over magnetic stripe cards are also outlined, such as increased security, processing power, and storage capacity.
This document proposes an ATM system that uses facial recognition instead of cards and PINs for verification. It would work by having a camera installed on the ATM that takes a photo of the customer's face and compares it to an image stored in the bank's database associated with the account. This would provide increased security by matching a live photo to the stored image without needing a card or PIN. The document outlines the components, techniques, process and potential benefits of such a biometric-based ATM system for more reliable authentication.
This document summarizes a technical presentation on iTwin, a device that allows users to share files between computers without installing software or using USB drives or cables. iTwin uses AES 256-bit encryption and provides limitless secure storage that can be accessed from any computer. It has advantages over USB drives like remote disabling if lost and no temp files, and over cloud storage by allowing direct editing of remote files and having no storage limits or fees. The presentation provides details on iTwin's functions, technology, system requirements and comparisons with other technologies. It concludes that iTwin is a simple and inexpensive solution for remotely accessing and updating files between computers.
Smart cards can hold up to 32KB of data and have encryption capabilities. They provide security for banking, mobile payments, and ID verification. Smart cards use microprocessors and memory to store and process encrypted data for transactions and access control through card readers. They provide flexibility, security, portability and increasing storage capacity compared to magnetic stripe cards.
A seminar on Smart Cards, its history, applications, working principle, architecture, classification and future scopes. Prepared for 3rd year ECE technical seminar.
This document provides an overview of smart cards. It defines a smart card as a small plastic card with an embedded integrated circuit chip that can store and transact data. The document then discusses the history of smart cards, their design, types including contact, contactless and hybrid cards, applications such as financial, identification and access control, security features, benefits like convenience and enhanced security, and problems with malware and damage.
Smart cards are plastic cards with embedded microchips that can store and process data. They come in various types, including contact cards that must be inserted into a reader, contactless cards that communicate via radio frequency, and dual-interface cards that can be used either way. Smart cards provide secure storage of identification, banking, medical, and other important user information and enable faster transactions. They are defined by international standards for dimensions, communication protocols, and more. While offering benefits like security, portability, and flexibility, smart cards also have drawbacks including higher costs and limited reader compatibility compared to traditional cards.
Smart cards are plastic cards with embedded computer chips that store and transact data. They were first used in France in the 1980s for payment in pay phones. Contact smart cards have electrical contacts that connect to readers and transmit data via signals like power, reset, clock, and input/output. They are now used widely for banking, transportation, healthcare and more. Smart cards improve security over other machine-readable cards by providing secure authentication, encryption, passwords, biometrics and more. Standards like ISO 7816 and 14443 govern smart card interfaces and communication.
1. The document lists over 100 potential seminar topics in computer science and information technology, ranging from elastic quotas to 3D internet.
2. Some examples include extreme programming, face recognition technology, honeypots, IP spoofing, digital light processing, and cloud computing.
3. The topics cover a wide range of areas including networking, security, hardware, software, interfaces, and applications.
This document provides an overview of smart cards, including their evolution, technological features, classifications, contact interfaces, fabrication process, applications, advantages, and disadvantages. It also discusses the future of smart cards. Some key points:
- Smart cards evolved from credit cards in the 1950s and the first microchip-enabled smart card was invented in 1974. They typically contain microchips that can store information like ID photos, passwords, and bank account details.
- Smart cards are classified as memory cards or microprocessor cards. Memory cards only store data while microprocessor cards can add, delete, and manipulate information in their memory.
- Smart cards have a variety of applications including financial transactions, ID cards, healthcare records
Smart cards are plastic cards with embedded integrated circuits that can be used for secure identification and financial transactions. They store data in their microchips and communicate with card readers using established protocols. The main types are contact cards that must be inserted directly into readers, contactless cards that communicate via radio frequency, and dual-interface cards that support both contact and contactless. Smart cards rely on operating systems and encryption to securely store and manage access to user data for applications such as ID cards, payments, and access control.
This document describes the P-ISM (Pen-style Personal Networking Gadget Package), which was created in 2012. P-ISM allows users to use two pens to control a projected keyboard and monitor on any flat surface. It functions like a desktop computer through its CPU pen, communication pen, LED projector, virtual keyboard, digital camera, and battery. The document discusses P-ISM's history, components, functions, block diagram, working, merits such as portability, demertis like cost, and references.
Smart cards are plastic cards with embedded microchips that can store data and enable phone calls, payments, and other applications. The technology originated in the 1970s and has since been used for pay phones, debit/credit cards, SIM cards, transit cards, and more. There are several types of smart cards including contact cards that require insertion, contactless cards that use embedded antennas, and dual/hybrid cards with both contact and contactless capabilities. Smart cards are used across many industries like retail, transportation, healthcare, banking, and more. Future applications may incorporate biometrics and enable online purchases directly from smart cards.
The document describes a smart note taker product that allows users to take notes by writing in the air. The notes are sensed and stored digitally. Key features include allowing blind users to write freely, and enabling instructors to write notes during presentations that are broadcast to students. It works using sensors to detect 3D writing motions, which are processed, stored, and can be viewed on a display or sent to other devices. An applet program and database are used to recognize words written in the air and print them. The smart note taker offers advantages over digital pens like ease of use and time savings.
This document discusses smart cards, providing an overview of their evolution, technological features, classifications, interfaces, fabrication, applications, advantages, and future. Key points include:
- Smart cards evolved from credit cards and now contain embedded microchips, allowing them to store data and run programs.
- They are classified as memory cards or microprocessor cards depending on whether they only store data or can manipulate it.
- Major applications include financial, government, healthcare, campus, and communication/entertainment uses.
- Advantages are convenience, security, and multifunctionality while disadvantages include flexibility and lack of standardization.
- The future of smart cards is predicted to include more contactless capabilities and supporting multiple applications.
A smart card is a plastic card with an embedded microchip that can store data and be used for applications like phone calls, payments, and more. Smart cards were first developed in the 1970s and are now used widely for payment, transit cards, identification, and more. They provide security advantages over magnetic stripe cards and allow for multiple functions on a single card. Smart cards are expected to continue evolving to new form factors and applications in the future.
This document analyzes security issues with smart cards and their standards and implementations. It discusses known techniques for attacking smart cards to access secure information stored on them. The document aims to summarize existing security risks rather than report new vulnerabilities, in order to suggest hardware and software methods to prevent security leaks in smart card systems.
This document summarizes a research paper on a smart card based robust security system that uses three factors for authentication - a smart card, password, and biometric identifier. The system is designed for high security areas like defense and nuclear facilities. It discusses how smart cards work and different types. It also explains how combining smart cards, passwords and biometrics like fingerprints provides benefits like enhanced privacy, security and system performance by allowing local authentication without remote database access. The system proposed uses a smart card to store the user's fingerprint template for verification during login.
Smart cards contain an embedded microchip that can store data and run programs. They are the size of credit cards and made of flexible plastic with the microchip embedded. Smart cards have contacts connected to the microchip that allow input, output, power supply and grounding. They are used for applications like banking, transportation, ID, and computer security. While smart cards provide security benefits, the chips can potentially be damaged from normal use and client-side cards may still be vulnerable to malware.
Smart cards are plastic cards with embedded microchips that can store large amounts of data securely. They provide stronger security than magnetic stripe cards by using encryption and requiring PINs for access. Common uses of smart cards include payment, identification, transportation cards, and SIM cards. They allow for multiple applications on a single card and can be updated remotely, making them a convenient technology for the future.
This document discusses smart cards, including their history, components, applications, and future uses. Smart cards contain embedded microchips that can store data and be used for various applications like payments, identification, and transportation ticketing. They provide security benefits over magnetic stripe cards. Some key uses mentioned include banking/finance, mobile phones, transportation, ID cards, and future growth areas like contactless services. By 2020, it is estimated there will be 20 billion smart secure devices in use globally across many industries.
The document discusses smart cards, including their history, components, types, applications and advantages/disadvantages. Smart cards were invented in 1968 and are credit card sized devices that contain memory and microprocessors. They have two main types - memory only and microprocessor chips. Common applications include banking, retail, mobile phones, electronic payment and healthcare. Smart cards provide benefits such as convenience, security and portability but also have disadvantages like potential fees and liability if lost or stolen.
This document discusses smart cards, which are credit card-sized cards with embedded integrated circuits that can store and process data. There are two main types: contact smart cards that connect to readers via contact points, and contactless cards that communicate via radio frequency. Smart cards have advantages over magnetic stripe cards by providing secure storage, processing capabilities, and supporting multiple applications like banking, ID, and transit payment. Some challenges are the risk of physical damage, loss, and potential security issues from malware, but overall smart cards improve transaction security and convenience.
The document discusses the history and development of smart cards from their invention in 1968 to modern applications. It describes how smart cards work, including their construction from a plastic card body with an embedded microchip. Examples are given of different types of smart cards and their uses in payment systems, identification, banking, transportation, and other areas. Advantages include security, portability, and cost effectiveness, while disadvantages relate to tampering risks and reader compatibility issues.
Smart cards are credit card sized plastic cards with embedded integrated circuit chips that can store and process data. They come in three main types: contact cards which require physical contact with readers, contactless cards which use embedded antennas, and dual interface cards which have both contact and contactless capabilities. Smart cards provide security, portability, and support multiple applications including payments, identification, financial transactions, networking, transportation, and health records. While smart cards offer benefits, disadvantages include potential security breaches, limited applicability in remote areas, slow adoption rates, and high installation costs.
A smart card is a plastic card that contains an embedded microchip which can store and process data. The microchip allows smart cards to carry out encryption and authentication functions. Smart cards come in contact and contactless varieties. They offer benefits like security, intelligence, and convenience. Smart cards are used in applications like mobile phones, healthcare, and transportation to store user data, enable authentication, and process transactions securely. Their use is expected to grow significantly in the future as more services migrate to using smart card technology.
Smart cards are credit card-sized cards that contain an embedded microchip that can store and process data. They provide more secure storage and processing capabilities than magnetic stripe cards. Smart cards are used for applications like payment cards, ID cards, transit cards, and storing medical records. They provide benefits like stronger security, ability to update data without reissuing cards, and ability to store more information. However, smart cards and readers can be more expensive than magnetic stripe technology. Compatibility between card types and readers is also an issue. Overall, smart cards allow for secure identification, payment processing and data storage in a portable format.
This document discusses smart cards, their history, and applications. It provides an overview of smart cards including their dimensions and components. Smart cards first emerged in the 1970s and are now used widely for applications such as payment, transportation ticketing, healthcare, and identification. The document outlines the growth of smart card usage and shipments between 2006-2016. It describes the two main types of smart card chips and discusses contact and contactless smart cards. Examples of smart card applications include banking, mobile phones, transportation, and loyalty programs. Advantages include flexibility, security, and portability, while disadvantages include potential security issues. The document predicts continued growth in smart card usage through 2020.
Smart card technology allows for pocket-sized cards with embedded integrated circuits that can store information and process data. Smart cards can store thousands of times more data than magnetic stripe cards. They have a variety of applications including identification cards, payment cards, SIM cards, and more. Smart cards provide security through authentication methods like passwords, biometrics, and encryption of stored data. The document discusses the history of smart cards and their components, construction, types, uses, and future applications.
This document discusses different types of electronic locking systems used in hotels, including keycard systems, biometric locks, RFID locks, and smart cards. It describes the security and operational advantages of electronic locking systems over traditional mechanical keys, such as improved security from unique keys that can be remotely deactivated if lost, the ability to trace access records, and lower costs of rekeying. The document also outlines various keycard types like memory cards, smart cards, and magnetic strip cards, as well as one-way and two-way communication systems between locks and a central database.
Case study on smart card tech. _Anuj PawarAnuj Pawar
Smart cards are plastic cards with embedded computer chips that store and process data. They provide secure storage of user identity and transaction data. Smart cards offer improved security over magnetic stripe cards and reduce the costs of password resets and system maintenance. They are used widely in applications like banking, transportation, and healthcare.
This document contains information about smart cards, including:
1. It defines a smart card as a pocket-sized card with embedded integrated circuits containing memory, microprocessors, and other components.
2. It discusses the history of smart cards, which were first patented in the late 1960s and early 1970s, with the first smart card microchip produced in 1977.
3. It provides details on the construction of smart cards, which are made of layers including a plastic substrate, printed layers, a microchip, and other components assembled in a multi-step manufacturing process.
Standard credit card-sized plastic cards contain an embedded silicon microchip, known as a smart card. There are two main types: memory-only chips and microprocessor chips. Smart cards can receive, process, and make decisions based on information. They can hold up to 32,000 bytes of data and include math co-processors to perform encryption routines quickly. Smart cards provide flexibility, security, portability and increasing data storage capacity for applications like banking, retail, mobile communications, electronic purses, ID verification, and access control. While advantageous, security remains a disadvantage that developers continue working to address for the future of uses in health, education, transportation, and telecommunications.
Smart cards are credit card-sized cards with embedded microchips that can store up to 32,000 bytes of data. They come in two types - memory-only chips and microprocessor chips. Smart cards provide flexibility, security, and portability for applications like banking, mobile payments, ID verification, and access control. While smart cards offer advantages like increasing data storage and reliability, security remains a key disadvantage to address.
How to Build a Module in Odoo 17 Using the Scaffold MethodCeline George
Odoo provides an option for creating a module by using a single line command. By using this command the user can make a whole structure of a module. It is very easy for a beginner to make a module. There is no need to make each file manually. This slide will show how to create a module using the scaffold method.
How to Add Chatter in the odoo 17 ERP ModuleCeline George
In Odoo, the chatter is like a chat tool that helps you work together on records. You can leave notes and track things, making it easier to talk with your team and partners. Inside chatter, all communication history, activity, and changes will be displayed.
Main Java[All of the Base Concepts}.docxadhitya5119
This is part 1 of my Java Learning Journey. This Contains Custom methods, classes, constructors, packages, multithreading , try- catch block, finally block and more.
This presentation was provided by Steph Pollock of The American Psychological Association’s Journals Program, and Damita Snow, of The American Society of Civil Engineers (ASCE), for the initial session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session One: 'Setting Expectations: a DEIA Primer,' was held June 6, 2024.
Introduction to AI for Nonprofits with Tapp NetworkTechSoup
Dive into the world of AI! Experts Jon Hill and Tareq Monaur will guide you through AI's role in enhancing nonprofit websites and basic marketing strategies, making it easy to understand and apply.
Exploiting Artificial Intelligence for Empowering Researchers and Faculty, In...Dr. Vinod Kumar Kanvaria
Exploiting Artificial Intelligence for Empowering Researchers and Faculty,
International FDP on Fundamentals of Research in Social Sciences
at Integral University, Lucknow, 06.06.2024
By Dr. Vinod Kumar Kanvaria
This slide is special for master students (MIBS & MIFB) in UUM. Also useful for readers who are interested in the topic of contemporary Islamic banking.
Thinking of getting a dog? Be aware that breeds like Pit Bulls, Rottweilers, and German Shepherds can be loyal and dangerous. Proper training and socialization are crucial to preventing aggressive behaviors. Ensure safety by understanding their needs and always supervising interactions. Stay safe, and enjoy your furry friends!
Assessment and Planning in Educational technology.pptxKavitha Krishnan
In an education system, it is understood that assessment is only for the students, but on the other hand, the Assessment of teachers is also an important aspect of the education system that ensures teachers are providing high-quality instruction to students. The assessment process can be used to provide feedback and support for professional development, to inform decisions about teacher retention or promotion, or to evaluate teacher effectiveness for accountability purposes.
3. AGANDA
INTRODUCTION
SMART CHIP DESIGN
CARD CONSTRUCTION
APPLICATIONS OF SMART CARDS
TYPES OF SMART CARD
BENEFITS
ACCESS & CONTROLS
SECURITY WITH SMART CARDS
CATEGORIES OF SMART CARDS
ADVANTAGES & DISADVANTAGES
4. WHAT IS SMART CARD?
Small plastic card embedded
with an IC chip.
Chip can be either a memory or
microprocessor type.
Useful for storing and
transacting data.
Data is associated with either
value, information, or both.
5. INTRODUCTION
70’s
Smart Card First Patent in Germany and
later in France and Japan.
80’s
Mass usage in Pay Phones and Debit Cards.
90’s
Smart Card based Mobiles Chips & Sim
Cards.
7. SMART CARD
These are basically used for telephone calling,
cash payments and other applications.
This card contain some encrypted key that is
compared to a secret key contained on the
user’s
processor.
Smart cards can hold up to 32,000 bytes.
Smart card is an E-Wallet.
10. WHAT’S IN A CARD?
Vcc
RSTCLK
RFU
GND
RFU
I/O
Vpp
11. TERMINOLOGIES
VCC : “Voltage common
connection” Power supply input
RST : “Reset signal”, used to reset the
card's communications.
CLK : Provides the card with a CLOCK
signal , from which data communications
timing is derived.
GND : “Ground”(reference voltage).
12. VPP : Programming voltage input - originally an
input for a higher voltage to program persistent
memory e.g. EEPROM
I/O :Input or Output for serial data (half-duplex)
to the integrated circuit inside the card.
RFU : Reserved for future use.
AUX2, optionally used for USB interfaces and other
uses.
13. TYPICAL CONFIGURATIONS
256 bytes to 4KB RAM.
8KB to 32KB ROM.
1KB to 32KB EEPROM.(Electrically
Erasable Programmable Read-
Only Memory)
8-bit to 16-bit CPU.
14. CARD CONSTRUCTION
Mostly all chip cards are
built from layers of different
materials, or substrates,
that when brought together
properly gives the card a
specific life and
functionality.
The typical card today is
made from PVC, Polyester
or Polycarbonate.
The 3 by 5 mm security
chip embedded in the card
15. APPLICATIONS OF SMART CARDS
Financial
As ATM cards, Fuel cards, SIMs.
As electronic wallet.
Educational Institutes.
Tracking Student attendance.
As an electronic purse to pay various bills.
Access control of some buildings.
Electronic Tolls
Information security
Banking
E-Governance
16. E-GOVERNANCE
As the amount of business and holiday travel
increases security continues to be a top
concern for governments worldwide.
When fully implemented smart passport
solutions help to reduce fraud and forgery of
travel documents.
Enhanced security for travelers
Philips launched such a project
with the US in 2004.
17. TYPES OF SMART CARD
Contactless smart cards ( e.g. Highway toll
Tags )
Relationship based smart credit cards
Contact smart card
(SIM Card, Driving license, Electronic
purses like debit card etc. )
19. BENEFITS
Easy to use.
Individuals gain increased
convenience.
Multiple tasks can be done by
a single card
An important key in E-
governance.
Enhanced security.
A handsome way to deal with
the things.
20. ACCESS & CONTROLS
Applications may specify the access controls
A password (PIN) on the MF(Master File)
selection
(For example SIM password in mobiles)
Multiple passwords can be used and levels of
security access may be given
Applications may also use cryptographic
authentication
21. SECURITY WITH SMART CARDS
The standard security goals like
Authentication
Integrity
Non-repudiation
can easily be provided by using smart
cards..
22. KEY ATTRIBUTES
Security
To make the Digital Life safe and enjoyable
Ease of Use
To enable all of us to access to the Digital
World
Privacy
To respect each individual’s freedom
23. CATEGORIES OF SMART (SIM)CARDS
Based on the type of IC
chip
embedded on the Smart
Card.
They are categorized into
three types :-
IC Micro Processor Cards
IC Memory Cards
Optical Memory Cards
24. ADVANTAGES
Faster and smarter
Portability
Flexibility (no need to carry separate ATM,
Debit, credit card or pan card etc)
Highly security (deactivates on illegal use).