1,721,180 research outputs found
Cost-effective Single-Layer Metallic Lens Antenna with High Aperture Efficiency
Get PDF[EN] This paper presents a novel millimeter-wave high-gain single-layer lens antenna design that
features a metallic ring as its foundational element. Leveraging characteristic modes analysis, the shape
of the structure is systematically optimized. The resulting planar antenna exhibits outstanding radiation
performance alongside its simplicity, achieving a gain exceeding 20 dBi at 20.50 GHz, and an aperture
efficiency of 63 %). These exceptional performance characteristics make it ideal for applications in 5G
and 6G systems. Additionally, the use of a cost-effective manufacturing process increases its potential for
widespread adoption in future communication technologies.This work was supported in part by the Spanish Ministry of Science and Innovation (Ministerio de Ciencia e Innovacion) under Project
PID2022-136869NB-C33, in part by the Generalitat Valenciana under Project MFA/2022/056, and in part by the Project Comparative
Analysis of the Radiation Characteristics of Metallic Lenses and Reconfigurable Intelligent Surfaces (RIS) for Wireless Networks in the
Microwave and Millimeter Wave Bands funded by the National University of Chimborazo.Santillán-Haro, DA.;Antonino Daviu, Eva;Vico Bondía, Felipe;Ferrando Bataller, Miguel (2025). Cost-effective Single-Layer Metallic Lens Antenna with High Aperture Efficiency. IEEE Access. 13. https://doi.org/10.1109/ACCESS.2025.3536083S1
On-Ground Small LTCC Chip Antenna and its Placement on IoT Devices
No full text[EN] A low-profile on-ground chip antenna is presented to
be installed in size-limited devices for 868 MHz Internet of Things
applications. The antenna presents a size of 0.064 × 0.045 ×
0.007¿3
0, has been fabricated in low-temperature cofired ceramic
technology, and is meant to be placed on a ground plane without a
clearance area required. A study regarding matching and total efficiency is performed by analyzing the antenna in different positions
of a variable-size ground plane with the use of characteristic modes
analysis and the correlation between modal and total radiated
fields. The analysis demonstrates through the correlation which are
the excited modes of the ground plane and, consequently, which is
the best position for the antenna. Results show frequency stability
and a total efficiency difference of up to 8.8 dB between different
positions.This work
was supported by the Spanish Ministry of Science and Innovation (Ministerio
Ciencia e Innovación) under project PID2019-107885GB-C32. (Corresponding
author: Jaime Molins-Benlliure.)Molins-Benlliure, J.;Antonino Daviu, Eva;Cabedo Fabres, Marta;Ferrando Bataller, Miguel (2023). On-ground Small LTCC Chip Antenna and its Placement on IoT Devices. IEEE Antennas and Wireless Propagation Letters. 22(9):2065-2069. https://doi.org/10.1109/LAWP.2023.3255163S2065206922
Distribución triangular
No full textObjetivos
Analizar distintos tipos de distribuciones
Obtener los polinomios de las distribuciones triangulares
Conocer los efectos de la distribución en los parámetros del FA
Contenidos
Polinomios de la agrupación
Ceros de las agrupaciones
Factor de la Agrupaciónhttps://polimedia.upv.es/visor/?id=fd41f630-f724-11e5-bcbc-a56427119c19Ferrando Bataller, M. (2016). Distribución triangular. https://riunet.upv.es/handle/10251/66777DE
Introducción a la agrupación de Antenas
No full textSe presentan distintos ejemplos reales de agrupaciones de antenas en distintas bandas de frecuencia.https://polimedia.upv.es/visor/?id=e01a3de7-d3a4-274b-bdec-1d1f11a70d7bFerrando Bataller, M. (2008). Introducción a la agrupación de Antenas. https://riunet.upv.es/handle/10251/136
Cálculo de la transformada de Fourier de funciones simples
No full textEl laboratorio virtual permite calcular la transformada de Fourier de funciones uniformes, triangulares o coseno.https://laboratoriosvirtuales.upv.es/eslabon/tf_funcionesFerrando Bataller, M. (2008). Cálculo de la transformada de Fourier de funciones simples. https://riunet.upv.es/handle/10251/203
Análisis de agrupaciones. Método Gráfico
No full texthttps://polimedia.upv.es/visor/?id=5f47b202-9ed4-cd4a-ac22-dc2454b8d396Ferrando Bataller, M. (2008). Análisis de agrupaciones. Método Gráfico. https://riunet.upv.es/handle/10251/135
Diagramas de radiación
No full textEl objetivo es la definición y tipos de diagramas de radiación de antenashttps://polimedia.upv.es/visor/?id=0c710040-d0ad-11e5-ace0-e9c555cc61a1Ferrando Bataller, M. (2016). Diagramas de radiación. https://riunet.upv.es/handle/10251/63563DE
Parámetros de antenas
No full textSe presentan los parámetros de antenas transmisoras y receptoras como área efectiva, longitud efectiva, campos radiados.https://polimedia.upv.es/visor/?id=9882f620-d0ac-11e5-89b4-3729167221f1Ferrando Bataller, M. (2016). Parámetros de antenas. https://riunet.upv.es/handle/10251/63554DE
Antenas de apertura
No full textIntroducción a las antenas de apertura, reflectores, bocinas y lentes. Parámetros básicos de este tipo de antenas.https://media.upv.es/player/?id=bf812d5a-b09c-7e49-ab3f-be86e370afedFerrando Bataller, M. (2015). Antenas de apertura. https://riunet.upv.es/handle/10251/5247
Antenas multireflectoras
No full textObjetivos
Conocer las propiedades de las curvas hiperbólicas y elípticas
Aplicar los propiedades al diseño de antenas reflectoras
Contenidos
Curvas y superficies parabólicas
Curvas y superficies hiperbólicas
Curvas y superficies elípticas
Diseño de antenas multireflectorashttps://polimedia.upv.es/visor/?id=9690df50-d62c-11e5-991d-29cd73738a01Ferrando Bataller, M. (2016). Antenas multireflectoras. https://riunet.upv.es/handle/10251/67021DE
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