Mejorar el desarrollo de la comprensión lectora de los estudiantes de la I.E. Juan Pablo II

Trabajo academicoLa naturaleza del proyecto de innovación educativa es pedagógica, porque la superación del problema educativo detectado conlleva la imperiosa necesidad de, implementar talleres de estrategias metodológicas a cargo de un experto, para que los docentes puedan aplicarlas en las sesiones de aprendizaje , de modo que los niños puedan adquirir esta fundamental habilidad, y es también de formación docente, porque hoy por hoy un paradigma actual es la disposición positiva que debe tener todo docente para seguir aprendiendo y reaprendiendo de modo continuo y permanente, donde los procesos de asimilación, reflexión e interiorización sean frecuentes y nos permitan desarrollar actitudes de crítica y toma de decisiones en un ambiente de aprendizaje significativo. Ontoria (1945) Las dimensiones de la gestión, que se abordarán con el proyecto son: la dimensión Institucional que deberá incluirse como política institucional la mejora gradual y permanente de la comprensión lectora de los estudiantes de la I.E. a mediano plazo, involucrando a toda la Comunidad educativa en el reto, de igual modo la dimensión Pedagógica acogerá la ejecución del proyecto ya que una buena planificación es la base de un aprendizaje significativo para nuestros alumnos, por lo que es imprescindible preparar con anticipación nuestras sesiones tomando en cuenta las necesidades, intereses y potencialidades de los alumno

Test results and prospects for RD53A, a large scale 65 nm CMOS chip for pixel readout at the HL-LHC

The CERN RD53 collaboration was founded to tackle the extraordinary challenges associated with the design of pixel readout chips for the innermost layers of particle trackers at future high energy physics experiments. Around 20 institutions are involved in the collaboration, which has the support of both ATLAS and CMS experiments. The goals of the collaboration include the comprehensive understanding of radiation effects in the 65 nm technology, the development of tools and methodology to efficiently design large complex mixed signal chips and, ultimately, the development of a full size readout chip featuring a 400 7 400 pixel array with 50\u3bcm pitch. In August 2017, the collaboration submitted the large scale chip RD53A, integrating a matrix of 400 7 192 pixels and embodying three different analog front-end designs. This work discusses the characteristic of the RD53A chip, with some emphasis on the analog processors, and presents the first test results on the pixel array

RD53 analog front-end processors for the ATLAS and CMS experiments at the High-Luminosity LHC

This work discusses the design and the main results relevant to the characterization of analog front-end processors in view of their operation in the pixel detector readout chips of ATLAS and CMS at the High-Luminosity LHC. The front-end channels presented in this paper are part of RD53A, a large scale demonstrator designed in a 65 nm CMOS technology by the RD53 collaboration.The collaboration is now developing the full-sized readout chips for the actual experiments. Some details on the improvements implemented in the analog front-ends are provided in the paper

RD53 analog front-end processors for the ATLAS and CMS experiments at the high-luminosity LHC

This work discusses the design and the main results relevant to the characterization of analog front-end processors in view of their operation in the pixel detector readout chips of ATLAS and CMS at the High-Luminosity LHC. The front-end channels presented in this paper are part of RD53A, a large scale demonstrator designed in a 65 nm CMOS technology by the RD53 collaboration. The collaboration is now developing the full-sized readout chips for the actual experiments. Some details on the improvements implemented in the analog front-ends are provided in the paper

RD53 analog front-end processors for the ATLAS and CMS experiments at the high-luminosity LHC

This work discusses the design and the main results relevant to the characterization of analog front-end processors in view of their operation in the pixel detector readout chips of ATLAS and CMS at the High-Luminosity LHC. The front-end channels presented in this paper are part of RD53A, a large scale demonstrator designed in a 65 nm CMOS technology by the RD53 collaboration. The collaboration is now developing the full-sized readout chips for the actual experiments. Some details on the improvements implemented in the analog front-ends are provided in the paper

RD53 analog front-end processors for the ATLAS and CMS experiments at the High-Luminosity LHC

International audienceThis work discusses the design and the main results relevant to the characterization of analogfront-end processors in view of their operation in the pixel detector readout chips of ATLAS andCMS at the High-Luminosity LHC. The front-end channels presented in this paper are part ofRD53A, a large scale demonstrator designed in a 65 nm CMOS technology by the RD53 collaboration. The collaboration is now developing the full-sized readout chips for the actual experiments. Some details on the improvements implemented in the analog front-ends are provided inthe paper

Design implementation and test results of the RD53A, a 65 nm large scale chip for next generation pixel detectors at the HL-LHC

International audienceThe RD53A large scale pixel demonstrator chip has been developed in 65 nm CMOS technology by the RD53 collaboration, in order to face the unprecedented design requirements of the pixel 2 phase upgrades of the CMS and ATLAS experiments at CERN. This prototype chip is designed to demonstrate that a set of challenging specifications can be met, such as: high granularity (small pixels of 50×50 or 25× 100 µm2) and large pixel chip size (~2x2 cm2), high hit rate (3 GHz/cm2), high readout speed, very high radiation levels (500 Mrad - 1 Grad) and operation with serial powering. Furthermore, coping with the long latency of the trigger signal (~12.5 µs), used to select only events of interest in order to achieve sustainable output data rates, requires increased buffering resources in the limited pixel area. The RD53A chip has been fabricated in an engineer run. It integrates a matrix of 400×192 pixels and features various design variations in the analog and digital pixel matrix for testing purposes. This paper presents an overview of the chip architecture and of the methodologies used for efficient design of large complex mixed signal chips for harsh radiation environments. Experimental results obtained from the characterization of the RD53A chip are reported to demonstrate that design objectives have been achieved. Moreover, design improvements and new features being developed in the RD53B framework for final ATLAS and CMS production chips are discusse

Test results and prospects for RD53A, a large scale 65 nm CMOS chip for pixel readout at the HL-LHC

The CERN RD53 collaboration was founded to tackle the extraordinary challenges associated with the design of pixel readout chips for the innermost layers of particle trackers at future high energy physics experiments. Around 20 institutions are involved in the collaboration, which has the support of both ATLAS and CMS experiments. The goals of the collaboration include the comprehensive understanding of radiation effects in the 65 nm technology, the development of tools and methodology to efficiently design large complex mixed signal chips and, ultimately, the development of a full size readout chip featuring a 400 × 400 pixel array with 50μm pitch. In August 2017, the collaboration submitted the large scale chip RD53A, integrating a matrix of 400 × 192 pixels and embodying three different analog front-end designs. This work discusses the characteristic of the RD53A chip, with some emphasis on the analog processors, and presents the first test results on the pixel array