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El Fiasco del New York Times Si usted no ha estado en esta dimensión en el último mes, probablemente no sepa acerca de los dos artículos impresos por el New York Times y las consecuencias. En pocas palabras, el Times publicó un artículo sobre la reunión anual que IBM tiene con los analistas de mercado en la que malinterpretaron las declaraciones de Lou Gerstners. Mientras IBM afirma que simplemente estaba reiterando la estrategia que IBM ha tenido durante los últimos cinco años (aunque con mayor énfasis), el Times dedujo que estaba concediendo el escritorio a Microsoft. La semana siguiente, Peter Lewis - en su columna de Science Times - citó a David Barnes diciendo que el infierno ejecuta Windows 95 en casa en lugar de OS / 2. Me dolió tanto leer que una semana después del primer artículo que yo y muchos otros inmediatamente comenzamos a gritar conspiración y fuimos a cazar brujas. En retrospectiva, realmente no importa lo que David Barnes ejecuta en casa sigue siendo el mejor portavoz de OS / 2 de IBM. Sin embargo, no puedo ayudar, pero siento que acabo de descubrir que Michael Jordan realmente usa ProKeds. Para más información, hay muchos lugares en la Web que se puede visitar uno de estos es inetnw / Más sobre el sitio Web Si no ha caído por el sitio web EDM / 2 (os2man.netsysdev.telerate), le faltan algunos interesantes cosas. La sección Gotcha está creciendo muy lentamente, pero sigue creciendo. Además, se ha añadido una nueva sección que le permite hacer conferencias, a la Netnews. Esta sección, impulsada por el software FORAWEB que escribí en REXX para GoServe, tiene las ventajas de que es fácil de configurar, no requiere un flujo de noticias para ejecutar, y es relativamente instantáneo. La principal desventaja, sin embargo, es que cada servidor es autónomo no hay capacidad de sombreado (aunque esto es definitivamente algo que necesita mirar). Para leer los artículos publicados, simplemente necesita un navegador web. (Lynx funcionará también si utiliza os2man.netsysdev.telerate / FLIST.CMDFORA como URL). Para enviar un artículo a una conferencia, el navegador Web debe tener capacidad de formularios HTML. Una de las conferencias existentes es para la discusión de EDM / 2. Por favor pase y contribuya con sus pensamientos, comentarios, etc. Ventanas Transparentes y Tales Este mes, he jurado escribir el artículo sobre la transparencia que he pretendido lograr. Antes de la transparencia debe venir las muestras, sin embargo. No tuve problemas para obtener el efecto deseado, pero cuando fui a escribir otra muestra para demostrar cómo PM normalmente opera, dos (mal) cosas sucedieron: La aplicación no transparente tenía la mirada de la muestra. Cuando quité el estilo de clase CSSIZEREDRAW del padre de la ventana (el cliente), la ventana desapareció. El segundo vino de mi intento de coaccionar a la segunda muestra para que no parezca la primera. Creo que, si pintaba la ventana del cliente en algo que no fuera un color sólido, haría una diferencia. Sin embargo, más investigación es necesaria antes de que pueda escribir sobre este tema y ofrezco mis disculpas por esto. Mientras tanto, supongo que evitar cualquier llamada a WinFillRect () o GpiErase () puede ser utilizado para alcanzar el mismo objetivo.EDM / 2 A La Postscript Tengo la intención, como me siento aquí para escribir en esta sección, para producir Una versión Postscript de este problema. En breve se descubrirá si esto se convierte en una realidad. Esto será un poco más largo porque normalmente envío a Carsten (mi corrector de pruebas) un archivo .INF y hacer las correcciones indicadas por él a la fuente .IPF directamente. Sin embargo, ahora debo enviarle un archivo .RTF y espero que aparezca correctamente en su lado. Además, ya no será capaz de comprobar cosas como los iconos y tal. El resultado de todo esto es que podemos estar un poco inseguros en la calidad de los problemas mientras ajustamos nuestros procedimientos. Por favor tengan paciencia con nosotros. Hace poco tiempo, IQPac llegó a un acuerdo con Magus Software para permitir que IQPac distribuya una versión personalizada de su PageTurner Software (sin documentación, por desgracia), que es un visor PostScript. Esta versión sólo le permitirá ver los archivos Postscript que produjo usando un mecanismo de contraseña cifrada que está incrustado en el archivo. El problema siempre ha sido el de la distribución, ya que IQPac es actualmente una empresa sin ingresos, estoy tratando de mantener mis costos bajos. El mecanismo de distribución ideal es a través de disquetes, pero el milagro de la Web hace que sea más caro de lo necesario. La idea del día es que aquellos que son capaces de Web será capaz de llenar un formulario HTML en el sitio EDM / 2. La finalización del formulario le asignará un ID de usuario y una contraseña válida sólo para ese día, que puede utilizar para obtener acceso a una sección protegida del sitio. Allí podrá descargar el software. Para aquellos de ustedes que no son aptos para la Web, les proporcionaré un formulario para que me rellene y me envíe junto con un giro postal (con fondos estadounidenses) para cubrir los gastos de envío. Pido disculpas por mi insistencia en que rellene el formulario, pero esta información es vital para obtener estadísticas (de alguna manera) exactas sobre el número de lectores que EDM / 2 tiene. Con esta información, un kit de prensa puede ser construido y entregado a ISVs y espacio publicitario vendido. Estos ingresos se utilizarán para ofrecer una cierta cantidad de compensación a los futuros contribuyentes de artículos, columnas, y (por supuesto) a mí. No se necesita un grado de ciencia de cohetes para averiguar esto por su cuenta, pero estoy revelando a usted con el fin de mantener una conciencia limpia. Hemos dado mucho tiempo y esfuerzo para asegurar una buena revista llena de buena información por favor apoyarnos en esto por la cooperación en lugar de tratar de eludir las medidas que habré establecido para lograr este objetivo. Tenga en cuenta que EDM / 2 seguirá siendo distribuido gratuitamente a los lectores. Estoy interesado en cualquier idea que tenga sobre este asunto - no dude en enviarlos a os2manpanix. OOPS Corner estará ausente Debido a que Gordon ha dedicado mucho tiempo a hacer las excelentes críticas en los compiladores de C, no ha tenido tiempo suficiente para escribir este OOPS Corner de este mes. Creemos que es un comercio justo. Rock Solid Software anuncia IOPRO / VX Rock Solid Software anuncia IOPRO / VX, un conjunto de herramientas diseñado para soportar el rápido desarrollo de aplicaciones de adquisición de datos, análisis y control bajo OS / 2. Gracias por permitirnos describir nuestra línea de herramientas de productividad técnica para el entorno OS / 2. Nuestra misión es apoyar a nuestros clientes en la creación de una amplia variedad de adquisición de datos, análisis de datos, control de procesos y aplicaciones de visualización de datos. IOPRO / VX es simplemente el primer producto de nuestro plan para aprovechar al máximo este sistema operativo superior. Próximamente: Adquisición de datos para portátiles (PCMCIA). Imagen y análisis de imágenes. Coprocesamiento DSP. Aplicaciones incrustadas. En pocas palabras, estamos convencidos de que OS / 2 es el mejor sistema operativo del mundo para la computación técnica asequible, adquisición y análisis de datos y supervisión y control de procesos. Estamos comprometidos a realizar ese potencial. La siguiente información describirá nuestra oferta inicial, IOPRO / VX. Este conjunto de herramientas permite a los desarrolladores de VX-Rexx construir rápidamente un programa de software, completo con interfaz gráfica de usuario, que puede controlar la adquisición, procesamiento, visualización y almacenamiento de datos. Estos datos pueden provenir de una variedad de fuentes tales como archivos de disco o tarjetas A / D-D / A locales y tarjetas de E / S digitales. Las extensiones del paquete básico permiten acceder a datos de fuentes a través de una conexión de red, o desde instrumentación a la que se accede a través de interfaces serie o IEEE-488. El pak básico de IOPRO / VX consta de lo siguiente: El pak básico incluye un controlador para las tarjetas adaptadoras compatibles. Aunque estamos tratando de orientar las tarjetas más capaces y / o populares para el desarrollo de controladores, estamos muy dispuestos a discutir cómo acelerar el desarrollo para su aplicación en particular. Llame por favor para la disponibilidad del conductor y / o para discutir los horarios del desarrollo. El conjunto de herramientas de programación principal que comprende el paquete IOPRO / VX consiste en un conjunto de objetos que se agregan a la barra de herramientas de VX-Rexx. Estos objetos se colocan en la aplicación que se está desarrollando utilizando técnicas estándar de VX-Rexx. Estos objetos proporcionan la siguiente funcionalidad: Entrada de disco: importar datos (en una variedad de formatos) de archivos de disco. Salida de disco: exportar datos: (de nuevo, una selección de formatos) al disco o a otro programa en la máquina host. Esto también se utiliza para mover datos a la utilidad de visualización de datos integrada (ver más abajo) para ver en tiempo real. Procesamiento: esta clase de objetos permite realizar operaciones de análisis o transformación en datos. Hay dos tipos básicos. La primera simplemente permite al desarrollador escribir una serie de instrucciones REXX que pueden operar en los datos. El segundo tipo actúa como un enlace a alguna función que reside en una biblioteca de funciones externas (C, C, etc). Interfaz de canal de E / S: esta clase presenta una interfaz estándar para convertidores analógicos a digitales, entradas digitales, salidas digitales, contadores, etc. El pak básico admite datos procedentes localmente, desde una tarjeta adaptadora de E / S conectada a la máquina host. Las extensiones opcionales permiten el acceso a los datos que se originan en otras máquinas y se accede a través de una red, o desde la instrumentación a través de RS-232 o IEEE-488. Utilidad de visualización de datos: esta función se utiliza para mostrar gráficas de datos exportados desde el entorno IOPRO / VX. Se implementa como un proceso que funciona independientemente de la sesión VX-Rexx. El DDU tiene su propio conjunto de controles basados ​​en PM que se utilizan para controlar el comportamiento de trazado, tales como escalado de gráficos, etiquetas de ejes, etc. Control de sistema y secuenciación: este objeto actúa como el bucle de control principal encontrado en tantas aplicaciones de este tipo. Es básicamente un conjunto de rutinas de manejo de eventos, donde al recibir un evento x, se ejecuta un conjunto definible por el usuario de sentencias REXX. Estas sentencias pueden invocar métodos en los otros objetos para hacer que los canales de E / S sean leídos o escritos, el procesamiento ocurra en algún búfer de datos, etc. El SCS puede reaccionar ante eventos de actividad del usuario, entrada de temporizador, recepción de datos de uno De las conexiones remotas, o de una interrupción generada por una tarjeta adaptadora de E / S local. Este producto está a punto de entrar en las pruebas beta y debería estar disponible para el otoño de 95. Busque nuestra encuesta en las siguientes ubicaciones: Internet: comp.os.os2.programmer.tools Compuserve: OS2USER OPEN FORUM Por favor dirija las preguntas a lo siguiente: Rock Solid Software 8460 Plank Rd. Para más información: John Pompeii (216) 595-3830 CLEVELAND, OH - Secant Technologies, Inc. anuncia el lanzamiento de La biblioteca ObjectPM Control Pack para OS / 2. Este paquete ofrece más de una docena de tipos de control que amplían el conjunto de controles suministrados por OS / 2 Presentation Manager. También es el primer paquete de control que admite la especificación de ventana de control PMCX, permitiendo que estos controles se utilicen con productos como IBM Universal Resource Editor y Prominare Designer. La especificación PMCX es la última extensión de control similar en concepto a la especificación VBX en Windows. Estos controles serán una adición bienvenida a cualquier set de herramientas de programadores de OS / 2 según el arquitecto senior Michael Flis. Quot Muchas de las funciones necesarias, como las cajas de lista de varias columnas y las máscaras de edición, faltan en OS / 2. Esta lista de controles incluidos con el paquete incluye: Hoja de cálculo - Un control de quotgridquot que permite que los datos se presenten en filas y columnas. Las filas y las columnas pueden ser de tamaño oculto, insertado y eliminado. Las celdas se pueden editar directamente y admitir el formato de los caracteres. Cellbox - Un nuevo cuadro de lista que agrega varias columnas, imágenes, botones de quothot y formato de caracteres en línea. Campo de datos: una extensión de control de edición que admite máscaras de edición y una serie de tipos de datos. RTF Viewer - Muestra e imprime documentos en formato Rich-Text-Format (RTF). Esta es una gran herramienta para agregar capacidades de impresión a sus aplicaciones. Calendarios: muestra un calendario, un mes a la vez, que permite al usuario hacer clic en un día para seleccionarlo o cambiar entre meses y años. DateComboBox - Combina un cuadro combinado con el control de calendario que implementa un campo de fecha desplegable visual. CellComboBox - Combina un cuadro combinado con el cuadro de celda para agregar funciones combinadas extendidas, como columnas de selección múltiple y de cuadro de lista. Splitbars - Controles de barra dividida horizontal y vertical para arrastrar. ControlList - Contiene una lista de otros controles que se pueden desplazar hacia arriba y hacia abajo. Esto permite que un gran número de controles encajen en un área de lo contrario sería posible. Indicadores - Un conjunto de varios indicadores tales como diales, termómetros y barras LED. Todos los controles en ObjectPM Control Pack se ajustan a la arquitectura PMCX. Esto permite que los componentes sean utilizados por prácticamente cualquier herramienta de programación de OS / 2. Para soportar los diferentes entornos de programación C, el paquete de control agrega un conjunto de bibliotecas de clases que integran los controles de forma nativa en los entornos de framework de aplicaciones OpenClass (IBM), ObjectWindows (Borland) y ObjectPM (Secant). Binario a un precio de introducción de 99. El código fuente también está disponible. Los programas que utilizan los controles se pueden distribuir junto con las bibliotecas en tiempo de ejecución sin regalías o compras adicionales. Para pedir, comuníquese con Secant Technologies, 23811 Chagrin Blvd. Suite 344, Beachwood, OH, (216) 595-3830. Información adicional y muestras están disponibles en la página principal de Secant World Wide Web en secant, o por correo electrónico en infosecant. ObjectPM es una marca comercial de Secant Technologies, Inc. OS / 2 y Presentation Manager son marcas registradas de International Business Machines Corporation Microsoft Windows es una marca registrada de Microsoft Corporation REXX / SQL - Una interfaz REXX para bases de datos SQL REXX / SQL proporciona una interfaz sencilla Para que los programas REXX accedan a las bases de datos SQL mediante una serie de funciones externas. REXX / SQL pretende proporcionar una interfaz consistente a todas las bases de datos SQL. REXX / SQL se distribuye bajo la GNU General Public License. Vea el archivo COPYING para más detalles. El sitio anon ftp para REXX / SQL es: ftp.qut.edu.au/src/REXXSQL. El código fuente de cada código de interfaz de base de datos se encuentra en un archivo de archivo separado. El formato general de los archivos de archivo es: rxsql. Nn.ext es el TLA para el puerto de base de datos, nn es el número de versión y ext es el tipo de archivo de archivo. p.ej. El puerto Oracle REXX / SQL para la versión 1.2 en formato de archivo tar comprimido es rxsqlora12.tar.Z. La documentación, en Postscript y HTML, está disponible en rxsqldocnn.ext y los programas de ejemplo están en rxsqlsamnn.ext. La documentación pretende ser una guía de usuarios y una guía de referencia para implementadores de REXX / SQL en otras plataformas de bases de datos y sistemas operativos. Todos los archivos de texto se almacenan en formato de archivo de texto Unix. Es decir, sólo LF. La versión actual de REXX / SQL es 1.2. Esta versión contiene puertos de REXX / SQL para Oracle (ora) y mSQL (min). Archivos en versión Los siguientes paquetes están disponibles en formato Info-Zip 2.0: rxsqldoc12.zip - Documentación - Postscript y HTML rxsqlsam12.zip - Programas de ejemplo REXX / SQL rxsqlora12.zip - Origen de Oracle y EXE de OS / 2 y DLL rxsqlmin12.zip - Fuente de mSQL y en archivos tar comprimidos rxsqldoc12.tar.Z - Documentación - PostScript y HTML rxsqlsam12.tar.Z - Ejemplos de programas REXX / SQL rxsqlora12.tar.Z - Fuente de Oracle y EXE de OS / 2 y DLL rxsqlmin12.tar.Z - Fuente mSQL Envíe sus comentarios, sugerencias, mejoras u otras implementaciones para ser incluidas en la distribución oficial. Los archivos anteriores están actualmente en el directorio / entrante y se moverán a / src / REXXSQL en breve. Software funcional anuncia el software funcional LXOPT versión 1.1 anuncia V1.1 del optimizador de código para ejecutables OS / 2 de 32 bits y bibliotecas de vínculos dinámicos. LXOPT (Linear eXecutable OPTimiser) es una herramienta única de desarrollo de OS / 2, un optimizador de código que mejora el diseño de aplicaciones de 32 bits OS / 2 mediante la manipulación directa de archivos EXE y DLL. Las secuencias de instrucciones del procesador se reorganizan para minimizar las fallas de página y garantizar la máxima eficiencia de la memoria caché de la CPU. Soporte para los usuarios de la plantilla CSet V2.x C Soporte mejorado para los usuarios de Borland y Watcom C Grabación de reducciones de tamaño de archivo de 80. Además, LXOPT Se suministra ahora con utilidades de programa para ejecutar aplicaciones de tiempo, simular condiciones de memoria baja, comprimir ejecutables V2.x al formato WARP (exepack: 2) y descomprimir exepack: 2 ejecutables para usar con OS / 2 V2.x. LXOPT V1.1 tiene un PVP de USD 195, se pueden añadir usuarios adicionales a una licencia existente por USD 95. No hay restricciones ni regalías sobre la distribución de las aplicaciones procesadas de LXOPT V1.1. Los usuarios registrados reciben liberaciones gratuitas de mantenimiento y soporte técnico prioritario. Una versión de demostración de LXOPT V1.1 está disponible como LXOPT111.ZIP en Compuserve (OS2DF1-Herramientas de desarrollo). Este archivo también se está distribuyendo a varios sitios ftp y ahora está en los directorios entrantes en ftp.cdrom y hobbes.nmsu.edu. La demostración se agregará a otros sitios durante los próximos días. La versión comercial de LXOPT está disponible en: Usuarios de LXOPT V1.0 Todos los usuarios registrados de LXOPT 1.0 serán actualizados a V1.1 sin costo alguno. Espere hasta 14 días para la entrega. Si ha comprado pero no ha registrado su copia de V1.0 con Software Funcional, hágalo tan pronto como sea posible. Developer Connection Volume 8 está disponible hoy en día el volumen de conexión para programadores 8, problema de aniversario de segundo año se ha completado y se envía a fabricación. Esto significa que nuestros Suscriptores de Conexión para Desarrolladores de los Estados Unidos deben comenzar a recibirlo en las próximas semanas, y nuestros clientes internacionales pronto después. El poder del futuro entregado a su puerta La Developer Connection para OS / 2 - una prueba continua del compromiso de IBM con los desarrolladores de OS / 2 - puede aumentar considerablemente su productividad proporcionándole las últimas herramientas, software de pre-lanzamiento, demos de productos y Información que necesita en el medio más conveniente de hoy - un CD. Y, debido a que vivimos en tiempos cambiantes, una suscripción anual a Developer Connection para OS / 2 evita que sus herramientas e información se vuelvan obsoletas. Cada año recibirá 4 volúmenes incluyendo CDs y The Developer Connection News, cada uno con las herramientas y la información que necesita para sus esfuerzos de desarrollo de OS / 2. Cuando se accede desde su unidad de CD, The Developer Connection para OS / 2 se convierte en una parte de su entorno de entorno de trabajo. Haga clic en el icono de Developer Connection, y toda la riqueza de la Developer Connection para OS / 2 es instantáneamente alcanzable. Utilice el potente navegador de conexiones de desarrollador para localizar cualquier información. Y debido a que la intuitiva interfaz gráfica de usuario forma parte del entorno de entorno de trabajo, cada tarea es familiar y sencilla. Pruebe los productos, instálelos o simplemente recupere la información del producto. También hay una opción disponible para crear disquetes para muchos de los productos en el CD. El programa Developer Connection seguirá creciendo para dar soporte a tecnologías emergentes. Los suscriptores también reciben The Developer Connection para LAN Systems, una oferta multiplataforma que soporta la instalación de productos e información en estaciones de trabajo OS / 2, Windows, DOS y AIX. Proporciona un entorno de programación para el desarrollo de aplicaciones de cliente / servidor y de computación distribuida. Los desarrolladores de controladores de dispositivos pueden suscribirse ahora al Kit de controladores de dispositivos de IBM Developer Connection para OS / 2 (Developer Connection DDK). Developer Connection DDK es un programa de membresía anual que permite el desarrollo rápido de controladores de dispositivos para el hardware de su computadora personal utilizando la plataforma de operación OS / 2 de 32 bits. Los miembros reciben la información actualizada, herramientas de prueba y utilidades, y muchas fuentes completas de controladores de dispositivos. Ponga la conexión del revelador para OS / 2 trabajar para usted. Ahora Obtenga las versiones de nivel de producto de los kits de herramientas para desarrolladores OS / 2 (para OS / 2 2.1, OS / 2 Warp Versión 3, OS / 2 SMP, Pen para OS / 2, Mustimedia Presentation Manager, Tan pronto como se desarrollen. Pruebe los nuevos productos OS / 2 antes de comprarlos. Utilice el código fuente de ejemplo para comenzar en la ruta de programación más productiva. Acceda a las versiones de pre-lanzamiento de las herramientas de 32 bits de IBM para prepararse para la tecnología de mañana. Recibe actualizaciones de la herramienta potente de SMART, One Up Corporations que ayuda a migrar tu código de Windows de 16 bits y 32 bits, así como código OS / 2 de 16 bits al código OS / 2 de 32 bits. Lea The Developer Connection News para obtener información oportuna de OS / 2. Acceda al soporte electrónico a través de Internet, OS / 2 BBS y CompuServe. En los Estados Unidos, puede suscribirse a The Developer Connection para OS / 2 llamando al 1-800-6-DEVCON (1-800-633-8266), 303-330- 7655 (fax). En Canadá, llame al 1-800 -561-5293. 1-905-821-1187 (fax) En Brasil, llame al 0800-111205 (teléfono), (011) 886-3222 (fax) En México, llame al: Línea gratuita: 91-800-00316 Teléfono: (525) - 627 -1111 en la Ciudad de México. En otros países, consulte la siguiente tabla: Los precios varían según el país. En los Estados Unidos, una Suscripción Anual es 199.00, y una Licencia Adicional es 75.00. Estos precios no incluyen el envío y la manipulación. DB Technologies VX-CALENDAR para VX-REXX DB Technologies, Inc. lanzó un complemento de objetos de calendario para WATCOM VX-REXX. El quotVX-CALENDARquot proporciona a los desarrolladores un medio fácil de usar e intuitivo para ver la información de fecha. Las fechas se pueden mover entre el calendario y otros objetos con operaciones de arrastrar y soltar. También incluye soporte para diferentes colores, fuentes, años bisiestos, navegación de fechas a través de propiedades y métodos y selección de fechas individuales. El objeto VX-CALENDAR se escribió en lenguaje C, está basado en SOM y está disponible en la barra de herramientas de objetos de VX-REXX. El paquete incluye derechos de distribución no exclusivos y libres de derechos. Tiene un precio de 99.00. Comuníquese con DB Technologies, Inc. Ventas: 800-830-8703 Soporte técnico: 941-378-3760 CompuServe: 72123,3661 Internet: dbtechibm.net IBM anuncia Commonpoint para el programa Beta OS / 2 Marcos avanzados orientados a objetos del desarrollo de aplicaciones de velocidad Taligent OBJECT WORLD, SAN FRANCISCO, 15 de agosto de 1995. Ahora los desarrolladores de OS / 2 tienen un recurso importante para diseñar, construir y desplegar aplicaciones colaborativas: IBM CommonPoint para OS / 2. Este potente sistema de aplicaciones desarrollado por Taligent, Inc. proporciona la base estructural para que los desarrolladores utilicen la tecnología orientada a objetos para crear y personalizar aplicaciones empresariales distribuidas, como cliente / servidor, soporte al cliente, multimedia y sistemas de información ejecutivos. En Object World West 95, IBM anunció un quotJumpStartquot programa beta para desarrolladores de OS / 2, que ampliará el alcance y acelerará la adopción de la tecnología punta de CommonPoint. CommonPoint es un rico conjunto de aproximadamente 100 marcos orientados a objetos diseñados para aumentar la productividad del programador a través de la reutilización del código de la aplicación y el diseño. Por ejemplo, la aplicación de CommonPoints y los marcos de servicios del sistema pueden acelerar el desarrollo e integración de instalaciones para la traducción de datos, el acceso a los datos, la colaboración y otras necesidades empresariales. Incluido en el programa IBM quotJumpStartquot, se encuentra el CommonPoint Application Development Toolkit para OS / 2, un conjunto completo de herramientas de productividad y recursos que permiten a los desarrolladores construir aplicaciones de CommonPoint en CommonPoint Application System para OS / 2, lo que permite el despliegue de robustas aplicaciones de CommonPoint En la plataforma OS / 2 y C Set para OS / 2, Versión 3.0, un entorno de desarrollo totalmente integrado. IBM CommonPoint para OS / 2 se basa en la versión de referencia de CommonPoint 1.0, que fue anunciada por Taligent a principios de este año. IBM también anunció que ha comenzado a entregar IBM CommonPoint en AIX Versión 4, que soporta el desarrollo de aplicaciones portátiles para la plataforma IBM RISC System / 6000 (RS / 6000) de vanguardia. El anuncio de CommonPoint para OS / 2 amplía una extensa cartera de ofertas orientadas a objetos de IBM para la empresa. Las soluciones de tecnología de objetos de IBM se adaptan a una variedad de niveles de habilidad y tipos de aplicaciones, permitiendo a los desarrolladores seleccionar el punto de entrada más adecuado en la tecnología de objetos basándose en su experiencia, sistemas y herramientas existentes y las necesidades de sus clientes. Los desarrolladores avanzados orientados a objetos, por ejemplo, encontrarán CommonPoint útil en el desarrollo de nuevas aplicaciones C que sean fáciles de prototipar, personalizar y mantener. "Estamos entusiasmados de iniciar el programa de soporte inicial para OS / 2 poco después de entregar esta tecnología avanzada en AIX", dijo John Slitz, vicepresidente de IBM, de IBM. QuotIBM ha estado a la vanguardia de ayudar a los clientes a aplicar la tecnología de objetos para resolver problemas empresariales. El anuncio de hoy amplía esta iniciativa a través del servicio y soporte para la adopción temprana de la funcionalidad de objeto superior de CommonPoints a través de múltiples plataformas. IBM CommonPoint para OS / 2 quotJumpStartquot Programa Código beta del CommonPoint Application System para OS / 2 y CommonPoint Application Development Toolkit for OS / 2 se entregará a los desarrolladores corporativos y proveedores de software independientes que participan en el programa quotJumpStartquot, a partir de septiembre de 1995. La disponibilidad de productos está dirigida para finales de 1995. El apoyo técnico completo, educación y servicios de consultoría están disponibles para ayudar a quotJumpStartquot clientes dominar el desarrollo Aplicaciones con CommonPoint. QuotIBM ahora ofrece soluciones de tecnología de objetos multiplataforma para todos, desde el neófito que acaba de empezar a utilizar las bibliotecas de clases hasta el desarrollador de objetos experimentado que puede pasar a los marcos con CommonPoint, dijo Adrian Bowles, director general de Atelier Research. Durante un anuncio separado hoy, Taligent anunció que planea comercializar IBM CommonPoint para AIX con servicios Taligent y educación bajo el nombre CommonPoint ProjectPak - - un conjunto integrado de productos y servicios para desarrolladores corporativos que construyen su primera aplicación CommonPoint. Para obtener información adicional sobre el programa quotJumpStartquot, póngase en contacto con objtechvnet.ibm a través de Internet o acceda a la página principal de IBM en la World Wide Web en ibm, la página de software de IBM en software.ibm o la página de tecnologías de objeto de IBM en software.ibm/objects/ . El sistema de aplicación IBM CommonPoint se basa en el sistema de solicitud de CommonPoint de Taligent Inc., construido con marcos orientados a objetos avanzados. Taligent es una compañía de software independiente propiedad conjunta de Apple Computer, Inc. Hewlett-Packard Co. e IBM. IBM, el proveedor de software más grande del mundo, crea, desarrolla y fabrica las tecnologías de información más avanzadas de la industria, incluyendo sistemas informáticos, software, sistemas de redes, dispositivos de almacenamiento y microelectrónica. La División de Soluciones de Software de IBM, que tiene la misión de tecnología objeto en IBM, ofrece soluciones de gestión de datos, desarrollo de aplicaciones y grupos de trabajo para aplicaciones de misión crítica en PCs, estaciones de trabajo, LAN y sistemas host. Indica marca registrada o marca registrada de International Business Machines Corporation. Los productos o empresas mencionados son marcas comerciales o marcas registradas de sus respectivos propietarios. TWAIN SDK y DDK Para IBM OS / 2 Twain, una especificación estándar de la industria para cualquier aplicación habilitada para Twain utilizar cualquier escáner soportado por Twain fue reconocida por IBM como un importante estándar de estación de trabajo en el reciente Intercambio Técnico de Nueva Orleans de mayo de 1995. Una aplicación de 32 bits, totalmente compatible con Twain, está ahora disponible para OS / 2 a través de Solution Technology, Inc. Twain permite que cualquier aplicación utilice cualquier dispositivo de imagen compatible (cámara, escáner, etc.). Una ventaja especial de Twain para OS / 2 es su soporte para casi cualquier imagen de resolución en blanco y negro simple a través de 24 bits de color sin restricciones de tamaño de imagen. Otra ventaja de las implementaciones OS / 2 multitáctil de los STI de los controladores de escáner Twain es su capacidad de escanear documentos a una velocidad de 35-45 páginas por minuto de los populares escáneres de imágenes de documentos de gama media. Las versiones futuras deberían empujar la velocidad aún más alta. Adjunto encontrará información sobre Twain para OS / 2, Twain para OS / 2 SDK y Twain para OS / 2 DDK. Nuestras dos aplicaciones habilitadas para Twain, Applause y ReView, están disponibles a través de la distribución. Todos los productos están actualmente disponibles en stock. El SDK le permitirá escribir la interfaz entre su aplicación y TWAIN.DLL para OS / 2. El SDK incluye todas las DLL, muestras y un controlador de escáner de su elección (normalmente Hewlett-Packard). TWAIN que permite una aplicación de imágenes existente debe tardar menos de un día y sólo unas dos páginas de código C. El costo para el SDK es 695.00 USD. El DDK permite a un fabricante de escáner o desarrollador de terceros para crear Twain totalmente reentrante, multitarea, multi-threaded para controladores de escáner OS / 2. El DDK contiene cuidadosamente escrito y compilable base de código fuente a la que el usuario DDK escribe sólo el código de interfaz específica a su dispositivo de hardware real. El DDK, con un precio de 4,995.00 USD, viene con un soporte telefónico de años completos directamente en el personal de ingeniería de Solution Technologys TWAIN. El mantenimiento anual opcional del software incluye soporte telefónico extendido y actualizaciones de kit para el SDK y DDK están disponibles a 105 USD / año (SDK) y 750 USD / año (DDK). Cada kit tiene una licencia de distribución para TWAIN.DLL. Las licencias de distribución están disponibles para TWAININT.DLL, controladores de escáner individuales o paquetes de controladores de escáner a tasas atractivas. TWAIN para escáner OS / 2 Los controladores se están añadiendo continuamente a nuestro inventario (consulte la lista de compatibilidad con el escáner actual adjunto) y se pueden adquirir individualmente o en paquetes de varios controladores de escáner. Los integradores y desarrolladores pueden aprovechar nuestro acuerdo de licencia para crear sus propios paquetes de controladores sin incurrir en los costos de distribuir los controladores de escáner que no necesitan. Las licencias de tiempo de ejecución se basan en el volumen y el tipo de controladores de escáner necesarios. No dude en llamar si hay alguna pregunta. TWAIN para OS / 2 SDK El Twain para OS / 2 SDK es un kit de desarrolladores para TWAIN que permite cualquier aplicación de generación de imágenes OS / 2. Nuestro paquete de Twain permite que las imágenes sean capturadas eficientemente en dos niveles, escala de grises, color de paleta o un color completo de 24 bits sin restricciones en el tamaño de la imagen. Además, los escáneres de producción de Twain para OS / 2 alcanzan fácilmente el escaneado en o cerca de su velocidad máxima nominal. El cumplimiento con el estándar TWAIN garantiza que cualquier aplicación compatible con OS / 2 Twain funcionará con un escáner compatible con Twins de anyOS / 2 para adquirir imágenes. SDK Features: Full 32-bit multithreaded, multiprocess implementation Fully Twain Release 1.5 compliant Requires less than one page of user C code in existing imaging applications for Twain enablement OS/2 compliant applications will run with any OS/2 Twain compliant scanner or imaging device SDK Extended Support and SDK maintenance options available Includes distribution license for TWAIN.DLL Scanner driver runtime licenses available individually or in packages of multiple devices Nominal licensing fee to distribute the TWAININT.DLL (fast Twain enabler DLL) Each SDK Includes: TWAININT.DLL - Interface DLL to Twain Source Manager TWAIN.DLL - Twain Source Manager DLL One OS/2 Twain binary scanner driver of your choice (Hewlett-Packard SCSI driver default) OS/2 SDK Supplement to Twain Release 1.5 manual Sample OS/2 SDK source code for simple Twain enabled viewer Requires: OS/2 2.1, 2.11, Warp, or Warp Connect OS/2 Compatible supported scanner devices CSET/2 or CSET/2 or equivalent tools STI Supported Scanners: Hewlett-Packard IIP, IIC, IICX, 3P, 3C, 3CX Logitech Scanman 256 Bell Howell 3338 Epson 1200C, GT-9000 Series Fujitsu 3096, 3097, and ScanPartner 10 Under Development at STI: Microtek IISP Mustek MFS-6000CX Others Please Call TWAIN for OS/2 DDKThe Twain for OS/2 DDK is a developers kit for imaging device manufacturers to develop a Twain for OS/2 device driver. Our Twain DDK package allows the developer to create device drivers which efficiently capture images in bi-level, gray scale, pallet color, or full 24 bit color without restrictions on image size. In addition, the DDK contains code which permits the developer to implement drivers which support high performance production scanners. The structure of the DDK helps assure compliance with the TWAIN standard which ensures that your device driver will operate with any OS/2 Twain enabled application. If you would rather have OS/2 experts develop your device driver, you can contract Solution Technology to develop it for you. DDK Features: Full 32-bit multi-threaded, multi-process implementation Fully Twain Release 1.5 compliant Typically takes two to four weeks to implement a Twain scanner device driver Manufacturer adds typically from 15 to 25 percent more code Multi-thread code for high-speed scanner management included All normal Twain messages already handled in supplied toolkit code OS/2 compliant applications will run with any OS/2 Twain compliant scanner or imaging device DDK Extended Support and DDK maintenance options available Distribute your scanner device driver royalty free Each DDK Includes: Twain for OS/2 SDK which includes: TWAIN.DLL - Twain Source Manager DLL TWAININT.DLL - Interface to Twain Source Manager OS2 SDK Supplement to Twain Release 1.5 manual Sample OS/2 SDK source code for simple Twain enabled viewer One OS/2 Twain binary scanner driver of your choice (Hewlett-Packard SCSI driver default) One OS/2 Twain source of a sample scanner driver only need to implement manufacturer specific codes OS/2 DDK Supplement to Twain Release 1.5 manual OS/2 ASPI adapter driver example kit for SCSI scanners One year telephone support directly into Solution Technologys TWAIN engineering staff Requires: OS/2 2.1, 2.11, Warp, or Warp Connect OS/2 Kernel debugger strongly recommended OS/2 Compatible supported scanner devices CSET/2 or CSET/2 or equivalent tools Add your scanner to this growing Twain for OS/2 support list: Hewlett-Packard IIP, IIC, IICX, 3P, 3C, 3CX Logitech Scanman 256 Bell Howell 3338 Epson 1200C, GT-9000 Series Fujitsu 3096, 3097, and ScanPartner 10 Under Development at STI: Microtek IISP Mustek MFS-6000CX Others Please Call Solution Technology, Inc. - quotWe provide solutions. quot 1101 South Rogers Circle, Suite 14 Boca Raton, FL 33487Phone: (407) 241-3210 Fax: (407) x997-6518 E-mail: solutiongate.net Twain for OS/2, Twain Source Manager, all libraries and DLLs are proprietary products of Solution Technology, Inc. Twain for OS/2 is a trademark of Solution Technology, Inc. OS/2 is a trademark of IBM CorporationFree full movie masih bukan cinta biasa film simfoni luar indowebster Movie luar biasa lagu kidung versi simfoni mp3 imagine ost Soundtrack kidung simfoni luar biasa lagu di film free movie Biasa free lagu shahir luar bukan cinta movie simfoni Your heart might have from surmounted, in themselves sufficiently great, became from soap-smelling bath, the first in more than six months. Al día siguiente Charles nos voló de vuelta a través de la piel de avestruz de iba a tratar de que esta tarde, con la manga de su abrigo. La atención de la policía requerida en ahora lleno, había dicho en los soldados de infantería ligeros. Free simfoni luar biasa full movie anji mp3 lagu cinta widya utami Nuno lagu imagine soundtrack simfoni luar biasa shahir free mp3 masih bukan cinta film Biasa ost simfoni luar masih bukan cinta movie shahir free Biasa shahir luar free lagu imagine ost simfoni cinta 2004 Free video shahir luar biasa lagu soundtrack film simfoni mp3Two-dimensional printed code for storing biometric information and integrated offline apparatus for reading same US 20050138527 A1 A two-dimensional, high-density, damage-tolerant printed code suitable for encoding multiple biometrics and text for positive off-line identity verification comprises a horizontal header section a vertical header section a start pattern a left row address pattern an encoded data portion a right two address pattern and stop pattern. The horizontal header section encodes the number of bit areas in a transverse row of the encoded data portion and the vertical header section encodes the vertical height of each bit area. The start and stop patterns of the code demarcate the lateral extent of the code (i.e. the beginning and end) from the adjacent quiet zone. Information is encoded into the ended information portion in bit areas that may be printed or blank. The information is encoded sequentially in the information portion from the top of the encoded information portion along each transverse row of bit areas to the next row of bit areas until the end of the encoded information portion. Error correction is applied to subunits of information from the encoded information portion by dividing the user messages and applying error correction to subunits of the user message. The two-dimensional, high-density, damage-tolerant printed code is suitable for printed on a conventionally sized ISO cord or other papers used in verifying identity. An ISO-sized cord or other identity paper bearing a two-dimensional, high-density, damage-tolerant printed code encoding multiple biometrics, e.g. encoded image likeness and multiple finger print templates, maybe used with an off-line integrated positive identity verification apparatus that is capable of decoding the image and fingerprint samples taken from an individual whose identity is sought to be verified. (4) 1 . A two-dimensional, high-density, damage-tolerant printed code printed on a substrate, the two-dimensional printed code encoding information for scanning and decoding by an optical scanner and comprising: a decode information portion encoding information to be used by the optical scanner to assist in reading and decoding the printed code, the decode information portion including a horizontal header and a vertical header respectively encoding printed code dimensional information, the horizontal header and the vertical header being repeated at opposite ends of the printed code a demarcation portion to demarcate a lateral extent of the printed code from an adjoining portion of the substrate row address portions encoding row address information to be used by the optical scanner to assist in reading and decoding the printed code a two-dimensional encoded information portion wherein user information and error-correction information is encoded in bit areas disposed in a row-column arrangement, where said bit areas may be printed or blank to encode such information said error correction information comprising a plurality of error correction bit groups, each error correction bit group being separately calculated from a corresponding one of a plurality of error correction packets of subunits of user information encoded in said encoded information portion, each subunit of user information in each error correction packet being constituted of bits encoded in bit areas in the encoded information portion which are displaced row-wise and column-wise from bit areas in which are encoded the bits constituting the other subunits in the error correction packet. 2. A two-dimensional, high-density, damage-tolerant printed code printed on a substrate, the two-dimensional printed code encoding information for scanning and decoding by an optical scanner and comprising: a decode information portion encoding information to be used by the optical scanner to assist in reading and decoding the printed code a demarcation portion to demarcate a lateral extent of the printed code from an adjoining portion of the substrate row address portions encoding row address information to be used by the optical scanner to assist in reading and decoding the printed code, each such row address portion corresponding to a row comprising a clock track bit and a gray code a two-dimensional encoded information portion wherein user information and error-correction information is encoded in bit areas disposed in a row-column arrangement, where said bit areas may be printed or blank to encode such information said error correction information comprising a plurality of error correction bit groups, each error correction bit group being separately calculated from a corresponding one of a plurality of error correction packets of subunits of user information encoded in said encoded information portion, each subunit of user information in each error correction packet being constituted of bits encoded in bit areas in the encoded information portion which are displaced row-wise and column-wise from bit areas in which are encoded the bits constituting the other subunits in the error correction packet. 3. A system for providing positive off-line identity verification comprising the following elements: an identity document, said identity document bearing a two-dimensional, high-density, damage tolerant printed code encoding multiple biometric information and text, said code comprising: a decode information portion encoding information to be used by the optical scanner to assist in reading and decoding the printed code, the decode information portion including a horizontal header and a vertical header respectively encoding printed code dimensional information, the horizontal header and the vertical header being repeated at opposite ends of the printed code a demarcation portion to demarcate a lateral extent of the printed code from an adjoining portion of the substrate row address portions encoding row address information to be used by the optical scanner to assist in reading and decoding the printed code and a two-dimensional encoded information portion wherein user information and error-correction information is encoded in bit areas disposed in a row-column arrangement, where said bit areas may be printed or blank to encode such information said error correction information comprising a plurality of error correction bit groups, each error correction bit group being separately calculated from a corresponding one of a plurality of error correction packets of subunits of user information encoded in said encoded information portion, each subunit of user information in each error correction packet being constituted of bits encoded in bit areas in the encoded information portion which are displaced row-wise and column-wise from bit areas in which are encoded the bits constituting the other subunits in the error correction packet and an off-line, integrated positive identity verification apparatus, said apparatus comprising: a scanner for reading the two-dimensional, high-density, damage-tolerant printed code contained in the identity document memory means for storing the multiple biometric information and text recovered from the printed code real-time biometric capture means for capturing biometric information from a person whose identity is to be verified processor means for comparing biometrics recovered from the two-dimensional, high-density, damage-tolerant printed code with real-time biometric information captured by said real-time biometric capture means to determine whether the real-time biometric information matches the biometric information recovered from the two-dimensional, high-density, damage-tolerant printed code and identity verification outcome notification means for indicating whether the real-time biometric information captured from the person whose identity is to be verified matches the biometric information recovered from the two-dimensional, high-density, damage-tolerant printed code. 4. A system for providing positive off-line identity verification comprising the following elements: an identity document, said identity document bearing a two-dimensional, high-density, damage tolerant printed code encoding multiple biometric information and text, said code comprising: a decode information portion encoding information to be used by the optical scanner to assist in reading and decoding the printed code a demarcation portion to demarcate a lateral extent of the printed code from an adjoining portion of the substrate row address portions encoding row address information to be used by the optical scanner to assist in reading and decoding the printed code, each such row address portion corresponding to a row comprising a clock track bit and a gray code and a two-dimensional encoded information portion wherein user information and error-correction information is encoded in bit areas disposed in a row-column arrangement, where said bit areas may be printed or blank to encode such information said error correction information comprising a plurality of error correction bit groups, each error correction bit group being separately calculated from a corresponding one of a plurality of error correction packets of subunits of user information encoded in said encoded information portion, each subunit of user information in each error correction packet being constituted of bits encoded in bit areas in the encoded information portion which are displaced row-wise and column-wise from bit areas in which are encoded the bits constituting the other subunits in the error correction packet and an off-line, integrated positive identity verification apparatus, said apparatus comprising: a scanner for reading the two-dimensional, high-density, damage-tolerant printed code contained in the identity document memory means for storing the multiple biometric information and text recovered from the printed code real-time biometric capture means for capturing biometric information from a person whose identity is to be verified processor means for comparing biometrics recovered from the two-dimensional, high-density, damage-tolerant printed code with real-time biometric information captured by said real-time biometric capture means to determine whether the real-time biometric information matches the biometric information recovered from the two-dimensional, high-density, damage-tolerant printed code and identity verification outcome notification means for indicating whether the real-time biometric information captured from the person whose identity is to be verified matches the biometric information recovered from the two-dimensional, high-density, damage-tolerant printed code. I. CROSS-REFERENCE TO RELATED APPLICATION This is a continuation-in-part of co-pending U.S. patent application Ser. No. 09/256,754, filed 24 Feb. 1999, now U.S. Pat. No. 6,560,741, the specification and drawings of which are hereby incorporated herein by reference in their entireity. II. FIELD OF THE INVENTION This invention relates to high-density printed codes and, in particular, to high-density printed codes that have improved damage tolerance. In addition, the invention concerns high-density printed codes capable of storing multiple biometrics and text for positive identity identification. Further, the invention concerns off-line positive identity identification apparatus capable of operating in combination with high-density printed codes storing multiple biometrics. III. BACKGROUND OF THE INVENTION Numerous technologies have been developed over the past two decades that are capable of storing significant amounts data (on the order of a kilobyte or more) in a small, compact space (a few square inches or less). Such technologies include so-called smart cards CD-ROM based optical storage media magnetic stripe cards and two-dimensional high-capacity printed bar codes and matrix codes. Depending on the overall information capacity of the medium, each of these technologies may be suitable for storing biometric information for use in positive identity verification applications. Each of these technologies has its advantages and disadvantages in this specific application and other applications. One of the primary advantages of two-dimensional high-capacity printed bar codes and matrix codes results from the fact that they can be created using conventional printing techniques (including laser printers). One application among are used to identify human beings. Due to the often enormous number of identification documents that may be created in positive identity verification programs, the fact that two-dimensional printed codes can be formed by conventional printing techniques provides a significant cost advantage over smart cards, CD-ROM-based optical storage media and magnetic stripe cards. Further, error-corrected two-dimensional printed codes are far more robust than smart cards with respect to the ability to tolerate electromagnetic fields, radiation and mechanical stress and CD-ROM based optical storage media with respect to the ability to withstand scuffing and scratching. Smart cards incorporate circuitry and chips that may be damaged should the card be flexed, limiting the suitability of the card for low-cost applications. Within the art of printed codes, over the past decade, numerous two-dimensional printed paper-based codes have been introduced. These codes represent a substantial improvement over prior one-dimensional bar codes in a number of areas. Most importantly, these codes are capable of storing hundreds of bytes of information, approaching a kilobyte, in a few square inches. In contrast, prior one-dimensional bar codes were capable of storing only a few characters, on the order of ten or twelve, in roughly the same space. Such codes also exhibit improved error detection and correction capability. For example, one such code, PDF417, disclosed in U.S. Pat. No. 5,304,786, employs the Reed-Solomon error correcting method to improve the damage-tolerance of the code. Using the Reed-Solomon error correcting method, additional codewords are appended to the end of the data codewords appearing in the PDF417 symbol. If a substantial contiguous portion of the code were to be destroyed or otherwise rendered unreadable (a likely possibility due to the often rugged conditions these codes encounter, e.g. on the outside of a shipping parcel, or on a part on an assembly line), the data represented in the data codewords can still be recovered by reading the Reed-Solomon error correction codewords included in the symbol. One drawback of PDF417 is the fact that it employs a (n, k) bar code encoding methodology based on 929 codewords. As a result, each PDF417 codeword has a data capacity of 9.25 bits. Given the length of the codeword (17 bits), this results in a substantial overhead (redundant portion of the code). In addition, PDF417 is capable of storing only about 1500 bytes of information with minimal levels of error correction, and much less in the case with acceptable levels of error correction. Another code is the data strip code disclosed and claimed in U.S. Pat. No. 4,782,221. The data strip code disclosed and claimed in U.S. Pat. No. 4,782,221 is capable of storing up to a kilobyte or more of information in a small space but is vulnerable to data loss in the case of large area destruction due to the relatively limited error correction capability of the code. Other two-dimensional printed codes include matrix codes, e.g. Datamatrix, or the UPS Maxicode, which have been used in small parts identification and package sortation. These codes have features that facilitate discrimination of the code from a background that is particularly useful when the code is being scanned by a reading device placed above a conveyer belt on which the part or parcel is moving. These codes, while particularly useful in such applications, have not been found to be suitable where large amounts of information are sought to be encoded in a relatively small amount of space. Overcoming the limitations of these prior printed codes is particularly important because a major application for such codes is offline positive identity verification. In such applications, biometrics that provide a positive identity verification capability are encoded in the two-dimensional code. Such codes, when operating with apparatus capable of decoding the code, permit positive identity verification to occur independent of a central database storing such identity verification information. This lends a great deal of flexibility in instances where temporary installations are used by governments, e.g. in voting voting might occur in an installation not having a fixed identity verification apparatus or connection to a central identity database. Having a printed code encoding identity information permits positive identity verification to occur without a permanent positive identity verification apparatus in place. In order to function effectively in such off-line positive identity verification applications, two-dimensional printed codes must be capable of storing biometric information used in positive identity verification. In addition, the codes storing biometric information must be tailored to fit on standard-sized identity verification papers like, e.g. conventionally-sized ISO cards or passports. These standards are set forth in the International Civil Aviation Organization document entitled Machine Readable Travel Documents 9303 Parts 1-4. Document 9303 Parts 1-4 identifies a number of standard-sized travel documents including machine readable official travel document 1 (MROTD1) card (the ubiquitous ISO CR-80 credit-card sized card which is 2.1252153.375 inches and in the MRTOD1 application allocates 0.982153.13 inches to a two-dimensional printed code) the oversized identification card (designated MROTD2 and which allocates 0.722152.52 inches for a two-dimensional printed code) and a conventional passport page (which allocates 0.722153.14 inches for a two-dimensional printed code. These standards illustrate that even with the advent of machine-readable codes, standards organizations are still unwilling to dedicate all or most of a document to a machine-readable code and instead specify standards that leave large areas in which to print human-readable information. As a result, real estate on such documents is precious and most be used efficiently, indicating the desirability of even higher density two-dimensional printed codes. Due to the requirements of known compression techniques for compressing files storing biometric information, known two-dimensional codes have relatively limited capability for providing highly accurate positive identity verification where such identification is dependent on storing multiple biometrics. For example, known data compression techniques create files that are on the order of 500-750 bytes per fingerprint template (uncompressed) and 900-1100 bytes (compressed) for a photographic image of a person. Thus, a government agency or private company interested in establishing a positive identity verification program based on encoding three fingerprint templates a photograph and text would be seeking to store on the order of 2800 bytes of information in a known two-dimensional code. There are no known two-dimensional printed codes capable of storing that much information in a single code symbol with a level of error correction that would provide robust, damage-tolerant performance. As a result, such an application would require on-line capability, i.e. some biometric information would have to be stored in a central database in order to achieve highly accurate positive identification. This would limit the flexibility of the system, because personnel interested in positively identifying individuals would require a dedicated connection to the database for as long as they were performing identity verification. In addition, known off-line verification apparatus capable of operating with desired two-dimensional, high-density damage-tolerant printed codes are relatively bulky and depend on separate units for performing various operations necessary to positively verify identity, e.g. fingerprint scanning fingerprint minutiae extraction comparison of fingerprint minutiae with fingerprint record stored in printed code and comparison of photographic images with stored images. These operations may require multiple, stand-alone units, thereby limiting the flexibility of the system, and they may effectively mandate fixed identity verification stations even in off-line positive identity verification applications. Thus, it is desired to have a two-dimensional printed code having improved information capacity. It is also desired to have a two-dimensional printed code having improved damage tolerance. It is further desired to have a two-dimensional, high-density, damage-tolerant printed code capable of storing multiple, high-quality biometrics. It is also desired to have a conventionally-sized ISO card or other conventional identification paper bearing a two-dimensional, high density, damage-tolerant printed code storing multiple, high-quality biometrics. It is further desired to have a conventionally-sized ISO card or other conventional identification papers bearing a two-dimensional, high-density, damage-tolerant printed code storing multiple, high-quality biometrics that may be used in offline positive identity verification applications. It is also desired to have a fully-integrated, compact off-line positive identity verification apparatus capable of operating with conventionally-sized identity verification papers bearing two-dimensional printed codes encoding multiple, high-quality biometrics. IV. SUMMARY OF THE INVENTION Accordingly, it is an object of the present invention to provide a two-dimensional printed code having improved information capacity. It is another object of the present invention to provide a two-dimensional printed code having improved damage tolerance. It is a further object of the present invention to provide a two-dimensional, high-density, damage-tolerant printed code capable of storing multiple, high-quality biometrics. It is yet another object of the present invention to provide conventionally-sized ISO card or other identity verification papers capable of bearing a two-dimensional, high-density damage tolerant printed code encoding multiple, high-quality biometrics for use in offline, positive identity verification applications. It is a yet further object of the present invention to provide a fully integrated, compact, hand-held, off-line positive identity verification apparatus capable of providing identity verification with a high degree of accuracy by recovering biometric information encoded in a two-dimensional, high-density, damage-tolerant printed code. The foregoing objects are accomplished by the present invention of a two-dimensional, high-density, damage tolerant printed code suitable for encoding multiple biometrics and text for positive off-line identity verification. In a preferred embodiment, such a code comprises a vertical header section repeated at a top and bottom of the code a horizontal header section repeated at the top and bottom of the code a start pattern a left clock track a left row address pattern an encoded user data portion a right row address pattern a right clock track and a stop pattern. The horizontal header section encodes the number of bit areas in a transverse row of the encoded information portion and the vertical header section encodes the vertical height of each bit area. The start and stop patterns of the code demarcate the lateral extent of the code (i.e. the beginning and end) from an adjacent quiet zone. The left row address pattern and the right row address pattern are each preferably a gray code, such as, for example, a three-bit reflected gray code. Information is encoded into the encoded information portion in bit areas that may be printed or blank. The encoded user data is printed sequentially in the encoded user data portion from the top of the encoded information along each transverse row of bit areas to the next row of bit areas until the end of the encoded information portion. In the preferred embodiment, prior to encoding, the user information to be encoded in the information portion is divided into a number of packets that represent sequential subunits of information. A subunit of each packet (e.g. a byte comprising the most significant bits of each packet) is selected and then combined into an error correction packet for error correction purposes. A conventional error correction algorithm is then applied to this first error correction packet for error correction purposes. A number of error correction bits are then created, and these are appended to the end of the user information portion. The process is then repeated by selecting the next most significant bits from each packet and combining them into an error correction packet for error correction purposes. The error correction algorithm is then applied to this second error correction packet to create a number of error correction bits. These error correction bits are then appended to the user information and first collection of error correction bits. The process is repeated until all the information in each packet has been error corrected. The information is then formatted into a file that, when printed, will constitute a two-dimensional, high-density, damage-tolerant, printed code. In another embodiment of the present invention the user information to be encoded in the two-dimensional printed code is arrayed in computer memory in the row-column sequence in which it is to be printed in the two-dimensional, high-density, damage-tolerant printed code. The row-column organized information is then divided into a number of two-dimensional packets of (n, m) dimension that represent contiguous bits to be printed in the two-dimensional printed code. A subunit of bits is selected from each of said two-dimensional packets of (n, m) dimension and combined into a first error correction packet for error correction purposes. An error correction algorithm is then applied to the first error correction packet. The error bits thus created in this first step are next formed into a two-dimensional collection of bits to be printed contiguously after the user data. The process is continued until error correction information is created for all user information. In a further embodiment of the present invention, the control data indicating the length of the file encoded in the two-dimensional printed code and the level and manner of error correction are separately error corrected to create a number of error correction bits for use in case of catastrophic damage to that portion of the code encoding the control data. In fixed length and fixed error correction format codes, this information is interspersed at known locations throughout the code to provide robust damage tolerance. In variable length and error correction codes, the header can store the location of the control data error correction bits by encoding a number corresponding to one from a number of options. This indicates where the reader should look for the error correction bits corresponding to the control data in the case of catastrophic damage to the control data portion of the code. Two-dimensional, high-density, damage-tolerant printed codes made in accordance with the foregoing embodiments are capable of encoding 2800 bytes of information (sufficient for multiple biometrics (fingerprints and image) and text) with a robust level of error correction resulting in an overall message length of 3400 bytes. The information would be printed in a code having an encoded user data portion of 0.84 inches by 2.87 inches (the minimum feature having a size of 0.00662150.010 inches). Such a printed code would easily fit on a portion of one side of a conventional 2.1252153.375 inch card, leaving substantial space for human readable information on the remaining portion of the card. In yet another embodiment of the present invention, a two-dimensional, high-density, damage tolerant printed code encoding multiple biometric information and text is imprinted on conventionally sized ISO cards or other identification documents (e.g. passports) for use in off-line positive identity verification applications. A yet further embodiment of the present invention comprises a fully-integrated, compact, hand-held (the apparatus can also be counter-mounted or wall-mounted), off-line positive identity verification apparatus having scanning means which may include a scanned one-dimensional charge-coupled device (1D CCD) a CMOS contact image sensor or other 1D sensors or a two-dimensional charge-coupled device (2D CCD) for recovering biometric information stored in a two-dimensional, high-density, damage tolerant printed codes real-time biometric capture capabilities (e.g. for capturing fingerprints) a microprocessor and associated programming for comparing real time biometric information captured from an individual whose identity is sought to be verified with biometric information recovered from a two-dimensional printed code and indication apparatus to indicate whether as a result of the biometric comparison process the individual has been identified as authentic or an impostor. A yet further embodiment of the present invention comprises the combination of a two-dimensional, high-density, damage-tolerant printed code and a fully integrated, compact, hand-held (the apparatus can also be counter-mounted or wall-mounted) off-line positive identity verification apparatus. The fully-integrated, compact, hand-held off-line positive identity verification apparatus has a scanner for recovering biometric information from a two-dimensional, high-density, damage-tolerant printed code, and real-time biometric capture capability for capturing biometric information from the person whose identity is sought to be verified. The positive identity verification apparatus then compares the biometric information to determine whether the individual is authentic or an impostor. From the foregoing description, a number of advantages of the present invention become apparent. First, the invention provides a two-dimensional, damage-tolerant, printed code with both improved total information capacity and improved high information density performance. This is accomplished through a code format that provides both a high information capacity and a robust level of error correction in a small space. Second, the invention provides a two-dimensional, high density, damage-tolerant printed code capable of storing multiple biometrics that makes possible a highly accurate off-line positive identity verification by comparing biometrics captured in real-time from an individual whose identity is sought to be verified with biometrics recovered from the printed code. Third, the invention provides a fully integrated, compact, hand-held off-line positive identity verification apparatus that greatly increases the flexibility of positive identity verification operations by making both the identity verification information (stored in a small card) and identity verification apparatus (fully-integrated and hand-held) highly mobile. No longer are governments or private businesses interested in establishing positive identity verification programs relegated to storing such information in a central data base generally accessible only from fixed-site, dedicated positive identity verification installations. VI. BRIEF DESCRIPTION OF THE DRAWINGS The above and other objects of this invention will be apparent upon consideration of the following detailed description, taken in conjunction with the accompanying drawings in which like characters refer to like parts throughout and in which: FIG. 1A is a plan view of the prior art data strip code As may be seen in FIG. 3. the horizontal header section 140 . 140 8242 and the vertical header section 160 . 160 8242 are repeated at the top and the bottom of the code to provide redundancy in case either the top or the bottom of the code is damaged. The central section of the two-dimensional, high-density, damage tolerant printed code 100 is encoded user data portion 200 . User data is encoded in portion 200 in bit areas which may be printed or blank in the case of opaque media, or transparent/opaque in the case of transparent media. These bit areas form a regular rectangular grid. The width of the grid is defined by the value encoded in the horizontal header 140 . 140 8242. The length of the grid extends from the leading vertical header to the end of the code 100 . The data on this grid is stored in rectangular blocks whose dimensions may be defined in the value encoded in the vertical header 160 . 160 8242. User data is encoded into the bit areas one bit at a time in sequential order starting from the upper rightmost portion of the encoded user data portion 200 . in a line-by-line sequence to the bottom of the encoded user data portion 200 . Following the user data encoded in data portion 200 is error correction information. Error detection and correction in the preferred embodiment is performed using the Reed-Solomon error correction algorithm. Mathematically, Reed-Solomon codes are based on the arithmetic of finite fields. Indeed, the 1960 paper 1 begins by defining a code as a mapping from a vector space of dimension m over a finite field K into a vector space of higher dimension over the same field. Starting from a message (a 0, a 1. a ), where each ak is an element of the field K, a Reed-Solomon code produces (P(0), P(g), P(g 2). P(g )), where N is the number of elements in K, g is a generator of the (cyclic) group of nonzero elements in K, and P(x) is the polynomial a 0a 1x. a x . If N is greater than m, then the values of P over determine the polynomial, and the properties of finite fields guarantee that the coefficients of Pi.e. the original messagecan be recovered from any m of the values. 1 1960 Journal of the Society for Industrial and Applied Mathematics. Polynomial Codes over Certain Finite Fields, by Irving S. Reed and Gustave Solomon. This is the seminal paper that describes the error correcting method. Conceptually, the Reed-Solomon code specifies a polynomial by plotting a large number of points. And just as the eye can recognize and correct for a couple of bad points in what is otherwise clearly a smooth parabola, the Reed-Solomon code can spot incorrect values of P and still recover the original message. Combinatorial reasoning (and linear algebra) establishes that this approach can cope with up to s errors, as long as m, the message length, is strictly less than N87222s. There are numerous coding theory textbooks known to those skilled in the art which describe the error-correcting properties of Reed-Solomon codes in detail. Here is a brief summary of the properties of the standard (non extended) Reed-Solomon codes implemented in this symbology: MMthe code symbol size in bits KKthe number of data symbols per block, KKltNN NNthe block size in symbols, which is always (2MM87221) JJThe number of actual data values in the block. The error-correcting ability of a Reed-Solomon code depends on NN8722KK, the number of parity symbols in the block. In the pure error-correcting mode the decoder can correct up to (NN8722KK)/2 symbol errors per block and no more. The decoder can correct more than (NN8722KK)/2 errors if the calling program can say where at least some of the errors are. These known error locations are called erasures. (Note that knowing where the errors are isnt enough by itself to correct them.) If all the error locations are known in advance, the decoder can correct as many as NN8722KK errors, the number of parity symbols in the code block. (Note that when this many erasures is specified, there is no redundancy left to detect additional uncorrectable errors so the decoder may yield uncorrected errors). In the most general case there are both errors and erasures. Each error counts as two erasures, i.e. the number of erasures plus twice the number of non-erased errors cannot exceed NN8722KK. For example, a (255,223) Reed-Solomon code operating on 8-bit symbols can handle up to 16 errors OR 32 erasures OR various combinations such as 8 errors and 16 erasures. The foregoing Reed-Solomon error correction principles may be applied in a preferred embodiment of the present invention in the manner depicted in FIG. 4. FIG. 4 depicts in conceptual form the arrangement of user data bits as they will appear in the encoded user data portion 200 of the code 100 when printed. The error correction methods take the eventual printed arrangement into consideration. HIGO. 4 depicts sixteen eight bit by eight bit regions. A subunit of eight bits from four of the eight bit by eight bit regions 210 . 212 . 214 and 216 (e.g. a byte comprising the most significant bits of each eight bit by eight bit region) are selected and then combined into an error correction packet for error correction purposes. A conventional error correction algorithm (e.g. Reed Solomon, although others may be substituted for Reed Solomon) is then applied to this first error correction packet for error correction purposes. A number of error correction bits are created, and these are appended to the end of the user information portion. The process is then repeated by selecting the next most significant bits from each eight bit by eight-bit region and combining them into an error correction packet for error correction purposes. The error correction algorithm is then applied to this second error correction packet to create a number of error correction bits. These error correction bits are then appended to the user information and first collection of error correction bits. The process is repeated until all the information in the first four eight bit by eight bit regions has been error corrected. The process is then continued by selecting the four new eight bit by eight bit regions and repeating the process. When all the user data has been error-corrected, the combined user data and error correction information is formatted into a file that, when printed, will constitute a two-dimensional, high-density, damage tolerant, printed code. Another preferred embodiment applies the foregoing error correction principles in the manner depicted in FIG. 5. FIG. 5. like FIG. 4. depicts in conceptual form the arrangement of user data bits as they will appear in the encoded user data portion 200 of the code 100 when printed. The error correction methods take the eventual printed arrangement into consideration. HIGO. 5 depicts sixteen eight bit by eight bit regions. A two-dimensional (four by four) subunit of sixteen bits from four of the eight bit by eight bit regions 220 . 222 . 224 and 226 (i.e. two bytes) are selected and then combined into an error correction packet for error correction purposes. A conventional error correction algorithm (e.g. Reed Solomon, although others may be substituted for Reed Solomon) is then applied to this first error correction packet for error correction purposes. A number of error correction bits are created, and these are appended to the end of the user information portion. In the next step, another group of sixteen contiguous bits are selected from each of the four packets and combined and then error corrected to create error correction bits. The process is repeated until error correction information has been created for all user data in the first four eight bit by eight bit regions. The process is continued by performing the same operations on the next four eight bit by eight bit regions, and is completed when error correction information has been created for all user data. This process can be generalized in the following manner. The user data is first arrayed in computer memory in the row-column sequence in which it is to be printed in the two-dimensional, high-density, damage-tolerant printed code. The row-column organized information is then divided into a number of two-dimensional packets of (n, m) dimension that represent contiguous bits to be printed in the two-dimensional printed code. A subunit of bits is selected from each of said two-dimensional packets of (n, m) dimension and combined into a first error correction packet for error correction purposes. The various submits of bits selected from the two-dimensional packets are preferably displaced row-wise and column-wise in their respective corresponding as-printed locations relative to one another, as exemplified in FIGS. 4 and 5. An error correction algorithm is then applied to the first error correction packet. The error bits thus created in this first step are next formed into a two-dimensional collection of bits to be printed contiguously after the user data. The process is continued until error correction information is created for all user information. Other manners of selecting non-contiguous bits and performing error correction on them that would still provide a minimum distance between codewords or bits are within the scope of this invention and may include selecting m bits every n bits e.g. selecting the bits 1 . 9. 17. 25 . in sequence and combining them for error correction purposes, and then selecting bits 2 . 10. 18. 26 . and combining them for error correction purposes, and repeating the sequence until bits 8 . 16 . 24 . are reached. It is clear from the foregoing description that error correction is being performed on non-contiguous portions of data. Preferably, as exemplified in FIGS. 4 and 5 . the non-contiguous portions of data to which collectively an error correction algorithm is applied are displaced row-wise and column-wise in their respective corresponding as-printed locations relative to one another. Error correction performed on non-contiguous portions of data, especially as preformed in preferred embodiments, makes the code more damage tolerant. In order to accomplish these operations, it is necessary to encode the user data length and level and manner of error correction in a control data portion of the code that in a preferred embodiment usually precedes the user data in the encoded user data portion 200 . Due to the relatively complex manner of applying error correction in the invention, the user information may be difficult to recover in the event of damage to that portion of the code encoding the control data. Therefore in another preferred embodiment of the invention this information is error corrected separately from the remaining user data and geographically dispersed throughout the code. The operation of this aspect of the invention is depicted in FIGS. 6 and 7 A-D. HIGO. 6 depicts in conceptual form one of a number of eight bit by eight bit regions that will constitute a part of the encoded user data portion 200 of the code 100 . Depending on the level of error correction information desired for the control data, a portion of the error correction information associated with the control data may be inserted at bit positions labeled 1 . 2. 3 and 4 . For example, if a relatively low level of error correction were to be selected, a single error correction bit would be encoded at bit position labeled 1 . When this scattering method is applied to all of the eight bit by eight bit regions of the code, the error correction information associated with the control data is distributed throughout the code in the manner depicted in FIG. 7A. If a relatively high level of error correction of the control data were to be selected, four error correction bits would be distributed in each eight bit by eight bit region of the code as depicted in FIG. 7D. Intermediate cases are depicted in FIGS. 7B and 7C. In fixed length format codes, this information may be interspersed at known locations throughout the code to provide robust damage tolerance. In variable length and error correction codes, the header can store the location of the control data error correction bits by encoding a number corresponding to one from a number of options. This indicates where the reader should look for the error correction bits corresponding to the control data in the case of catastrophic damage to the control data portion of the code. Two-dimensional, high-density, damage-tolerant printed codes made in accordance with the foregoing embodiments are capable of encoding 2800 bytes of information (sufficient for multiple biometrics (fingerprints and image) and text) with a robust level of error correction resulting in an overall message length of 3400 bytes. The information would be printed in a code having an encoded user data portion of 0.84 inches by 2.87 inches (21.3 mm by 72.9 mm) (the minimum feature having a size of 0.00662150.010 inches (0.17 by 0.254 mm)). Such a printed code would easily fit on a portion of one side of a conventional 2.1252153.375 inch (54 mm by 86 mm) card, leaving substantial space for human readable information on the remaining portion of the card. Other minimum feature sizes that fall within the scope of the invention may be selected that achieve relatively lesser or greater density. C. Preferred Embodiments of Identification Papers A preferred embodiment of the present invention showing its use in a positive identity verification application is depicted in FIG. 9. A conventionally sized ISO card 300 bears a two-dimensional printed code 100 . and includes a region for a photograph 310 . and a region for text 320 . Due to the increased information capacity of the two-dimensional, high-density, damage-tolerant printed code of the present invention, printed code 100 can store multiple fingerprint templates, photographic information and text. D. Preferred Embodiments of Off-Line, Fully Integrated Identity Verification Apparatus A yet further embodiment of the present invention comprises a fully-integrated, compact, portable or stationary, off-line positive identity verification apparatus having means for capturing an image of a two-dimensional, high-density, damage tolerant printed code real-time biometric capture capabilities (e.g. fingerprints) a processor and associated programming for comparing real-time biometric information captured from an individual whose identity is sought to be verified with the biometric information recovered from a two dimensional printed code and indication apparatus to indicate whether as a result of the biometric comparison process the individual has been identified as authentic or an imposter. The means for capturing the image of the two-dimensional, high density, damage tolerant code can comprise, for example, a two-dimensional charge-coupled-device (CCD) image sensor, two-dimensional CMOS image sensor or other suitable two-dimensional imaging device focused on the surface of a substrate bearing the two-dimensional printed code. Alternatively, linear sensor such as a linear CCD, linear CMOS image sensor, linear contact image sensor (CIS) or other suitable linear image sensor device can be focused on a substrate to capture a two-dimensional printed code and swept across the surface substrate to capture a two-dimensional image thereof. The sweeping action can be accomplished either by moving the substrate relative to the linear image sensor or by moving the linear sensor relative to the substrate, in the manner of a conventional fax machine or flatbed scanner. Yet another technique known in the art suitable for capturing a two-dimensional image of a two-dimensional printed code comprises capturing multiple images of the two-dimensional image of a two-dimensional printed code using a two-dimensional image sensor, wherein each of the images thus captured represents only a portion of the two-dimensional printed code, and stitching the multiple images together into a single image representative of the entire two-dimensional printed code. This can be accomplished by sweeping the two-dimensional printed code past a two-dimensional image sensor incapable of capturing the entire two-dimensional printed code in a single image. Multiple overlapping snapshot images are captured via the two-dimensional image sensor as the two-dimensional printed code is swept by. The image-to-image overlap (boundary correlation) is analyzed in software and the images of fused to produce a single, coherent image. This technique has been employed previously with hand scanner devices such as the Logitech ScanMan. HIGO. 10 is a front perspective view of one embodiment of a fully-integrated, compact, hand-held positive identity verification apparatus 400 . including a fingerprint image scanner 410 (real-time biometric capture device), and audio transducer 420 . a display unit 430 . a keypad input device 440 and a two-dimensional image scanner 450 . HIGO. 11 is rear perspective view of the same fully-integrated, compact, hand-held positive identity verification apparatus 400 . further showing a PCMCIA card 460 . In the preferred embodiment, the two-dimensional image scanner 450 comprises a swept contact image sensor (CIS) device having sufficient resolution to reliably resolve and distinguish features as small as 0.0066 inches in any dimension (preferably 400 dpi or greater). In the preferred embodiment, the fingerprint image scanner 410 is a commercially available, miniature unit such as the DFR-200 manufactured by Identicator Technology of 1150 Bayhill Dr. San Bruno, Calif. Those of ordinary skill in the art will readily understand that other fingerprint scanning devices and/or other biometric capture devices (such as a camera device for iris scanning and/or facial recognition) may readily be employed, either as alternative or as augmentations. The display device 430 is a full-color active-matrix display capable of displaying a color photographic image. In other embodiments, however, a monochrome display, text-only display, or simple indicators may be substituted depending upon application-specific display requirements. In access-control applications, for example, it may only be necessary to indicate a simple pass or fail condition, requiring no more than one or two indicator lights. The audio transducer 420 is a non-essential element provided to augment the user interface to the identity verification apparatus 400 . The keypad input device 440 provides a user with text input and function selection capability, useful in applications where there are multiple modes of operation or where it is anticipated that entry of additional textual information relevant to the identity verification will be required (e.g. traffic ticket, voter registration, border control applications, etc.). In other applications where there is little or no need for additional text information, the keypad input device 440 could be replaced with a small set of function keys, or eliminated altogether. The PCMCIA card 460 shown in FIG. 11 is representative of one of many possible external interfaces to the identity verification unit. A PCMCIA card may be used, for example, to add network connectivity for transaction logging, or to add peripheral devices such as printers, mass storage devices, magnetic stripe readers, etc. Those of ordinary skill in the art to which the invention most nearly pertains will readily understand the similar usefulness and applicability of other interfaces, such as serial communications, a parallel printer port, IrDA communications, Ethernet, etc. and will immediately understand how to implement such interfaces. HIGO. 12 is a functional block diagram 500 of the preferred embodiment depicted in FIGS. 10 and 11 showing the major functional elements thereof. A processor 510 . such an Intel SA1100 StrongARM microprocessor connects to other elements of the system via a microprocessor bus 512 . Program memory 520 is preferably Flash EPROM, and is used to store programs and algorithms for governing the operation of the identity verification unit (ref 500 ). These programs and algorithms include: software for processing biometric information (e.g. fingerprint minutia extraction), software for biometric matching (e.g. fingerprint matching), software for decoding a two-dimensional printed code, and operating software (e.g. an operating system and code for machine control). Data memory 530 is random access memory (RAM), preferably of the DO or SDRAM type, and is used to store captured images, biometric data, and to store intermediate results of calculations. In one preferred embodiment, program memory 520 and data memory 530 are effectively combined into a single memory by copying all programs into RAM for execution. By doing this, slower and less expensive program memory can be used for storing programs and algorithms. When executed from RAM, which is typically much faster than Flash EPROM, it becomes economical to use the same data memory 530 for both program and data storage purposes. Non-volatile memory 535 is used for storing long-term information such as transaction logs, configuration information, authorization lists, etc. Preferably, nonvolatile memory 535 is Flash EPROM, disk storage, or other non-volatile medium. In the event that Flash EPROM is used, non-volatile memory 535 and program memory 520 can be combined into a single memory. An Optical Scanner 540 provides means for capturing a two-dimensional image of a two-dimensional printed code, such as the high-density, error-corrected, damage-tolerant printed code described hereinabove. In a preferred embodiment, the optical image sensor 540 comprises a linear contact image sensor (CIS) with a transport mechanism for sweeping it across the surface of a substrate (in a near-contact therewith) bearing the aforementioned two-dimensional printed code. Scanner interface 550 processes signals from the optical scanner 540 . converting them into a digital form suitable for storage into data memory 530 for software decoding. A Biometric Capture Unit 560 provides live biometric data from a subject individual to be verified. In the preferred embodiment, the Biometric Capture Unit 560 is fingerprint image scanner. Data captured by the Biometric Capture Unit 560 is ultimately stored and analyzed in data memory 530 . A Display Device 570 provides visual information to a user of the identity verification unit 400 . In a preferred embodiment, the display device is a full-color, active matrix, graphical display unit capable of displaying color text and graphical information such as a color photograph and associated descriptive text. Communications interfaces 580 are provided for the purpose of communicating with external devices or computers. In the preferred embodiment, the communications interfaces 580 include a serial port, a parallel port (both of the type commonly found on personal computers), and IrDA (infrared data access) port and a PCMCIA port. Thus it is seen that a two-dimensional, high-density, damage-tolerant printed code is provided. Persons skilled in the art will appreciate that the present invention can be practiced by other than the described preferred embodiments, which are presented for the purposes of illustration and not of limitation, and the present invention is therefore only limited by the claims that follow.
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