Superar el límite de la pantalla:el futuro integrado del diseño industrial e innovación de la interfaz

Tesis inédita de la Universidad Complutense de Madrid, Facultad de Bellas Artes, leída el 27-11-2019The goals of this thesis are to streamline the design process of CDDs for both theirhardware and software, simplify the process of their conception, creation andproduction, motivate the design and interactive innovations for the next generationof CDDs.Starting with the process of investigating the design history of CDDs, we noticed theincreasing bi-directional influence between the graphical interface design and theindustrial design of these products. We started to work on the hypothesis:“A connection point between classical industrial design theories and moderninnovations in the world of interface design can be found, and the future of CDDrequires a universal design system for both its hardware and software.”In order to put our hypothesis into practice, it is important to clarify the generic andspecific objectives...El fin de esta tesis es mejorar el proceso de diseño de DDC tanto para su hardware como para su software, simplificar el proceso de concepción, creación y producción,así como motivar el diseño y las innovaciones interactivas para la próxima generación de DDC. Comenzando con un proceso de investigación que respete la historia del diseño de los DDC, notamos un incremento en la influencia bidireccional entre el diseño de interfaz gráfica y el diseño industrial de estos productos. Trabajamos sobre esta hipótesis: “Se puede encontrar un punto de conexión entre las teorías clásicas de diseño industrial y las innovaciones modernas en el mundo del diseño de interfaz. El futuro de los DDC requiere un sistema de diseño unificado para ambos: hardware y software.”Para poner nuestra hipótesis en práctica, es importante aclarar los objetivos genéricos y específicos...Fac. de Bellas ArtesTRUEunpu

BAC Libraries from Wheat Chromosome 7D: Efficient Tool for Positional Cloning of Aphid Resistance Genes

Positional cloning in bread wheat is a tedious task due to its huge genome size and hexaploid character. BAC libraries represent an essential tool for positional cloning. However, wheat BAC libraries comprise more than million clones, which makes their screening very laborious. Here, we present a targeted approach based on chromosome-specific BAC libraries. Such libraries were constructed from flow-sorted arms of wheat chromosome 7D. A library from the short arm (7DS) consisting of 49,152 clones with 113 kb insert size represented 12.1 arm equivalents whereas a library from the long arm (7DL) comprised 50,304 clones of 116 kb providing 14.9x arm coverage. The 7DS library was PCR screened with markers linked to Russian wheat aphid resistance gene DnCI2401, the 7DL library was screened by hybridization with a probe linked to greenbug resistance gene Gb3. The small number of clones combined with high coverage made the screening highly efficient and cost effective

BAC Libraries from Wheat Chromosome 7D: Efficient Tool for Positional Cloning of Aphid Resistance Genes

Positional cloning in bread wheat is a tedious task due to its huge genome size and hexaploid character. BAC libraries represent an essential tool for positional cloning. However, wheat BAC libraries comprise more than million clones, which makes their screening very laborious. Here, we present a targeted approach based on chromosome-specific BAC libraries. Such libraries were constructed from flow-sorted arms of wheat chromosome 7D. A library from the short arm (7DS) consisting of 49,152 clones with 113 kb insert size represented 12.1 arm equivalents whereas a library from the long arm (7DL) comprised 50,304 clones of 116 kb providing 14.9x arm coverage. The 7DS library was PCR screened with markers linked to Russian wheat aphid resistance gene DnCI2401, the 7DL library was screened by hybridization with a probe linked to greenbug resistance gene Gb3. The small number of clones combined with high coverage made the screening highly efficient and cost effective