Zobrazeno 1 - 5
of 5
pro vyhledávání: '"Jared W. Jordan"'
Autor:
Rafael Rincon, Paul Racette, Will Stacey, Jared W. Jordan, Jinzheng Peng, Jeffrey R. Piepmeier, Ali Mahnad, Thomas R. H. Holmes, Giovanni DeAmici
Publikováno v:
IGARSS
Modern multi-band radiometer imagers are designed trading spatial resolution, spectral coverage, and surface sampling characteristics to optimize science return. In this process, trades must be made to usually under-sample the Earth scene. Care is ta
Autor:
Jinzheng Peng, Ken Vanhille, Ali Mahnad, Jared W. Jordan, Thomas R. H. Holmes, Giovanni De Amici, Jeffrey R. Piepmeier, Paul Racette
Publikováno v:
IGARSS
Multiband passive microwave imagery in X to W Bands has a nearly 40-year history of utilization for measurement of multiple geophysical parameters (e.g., precipitation rate, ocean surface wind speed, sea ice concentration, and land surface temperatur
Autor:
Neal Erickson, Seth Lynch, Michael Clark, Maurizio Moretto, Luis A. Adames, Jared W. Jordan, Darel Wrenn, Kimberly M. P. Jackson, Pierre Lopez, Darryl Brown, Justin Clough, P. Boutet, Jean-Marc Rollin, Benjamin L. Cannon
Publikováno v:
2019 IEEE MTT-S International Microwave Symposium (IMS).
We present a monolithically fabricated PolyStrata®based 64x64 array composed of 4096 tightly coupled dipole Dband elements connected by a 4096-way reactive corporate feed network, operating over the 130-175 GHz frequency range. Measured farfield pat
Autor:
Jackson Ng, Jared W. Jordan, Benjamin L. Cannon, Justin Clough, Will Stacy, Aaron C. Caba, Paul Racette, Kenneth Vanhille, Brandon Stant
Publikováno v:
2018 IEEE International Symposium on Antennas and Propagation & USNC/URSI National Radio Science Meeting.
A broadband, dual-polarized array that supports both electronic scanning and fixed-beam applications in a modular, scalable architecture is presented. A tightly-coupled dipole array is designed to cover 9.5-37 GHz. Six different instrument bands, bot
Autor:
Alan J. Fenn, Jared W. Jordan
Publikováno v:
2016 IEEE International Symposium on Phased Array Systems and Technology (PAST).
An axisymmetric phased array fed confocal parabolic Gregorian reflector system is explored. The antenna utilizes a planar phased array located near the vertex of the primary reflector. Numerical electromagnetic simulations based on the multilevel fas