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This abilitymay leadto novel , 3D space - filling antennas that better optimize antenna size , efficiency , and bandwidth by utilizing a greater amount of the available package volume
the ground plateinfluencesthe antenna performance , including return loss , bandwidth and radiation gain of operating frequencies [ 7
surface wavesleadsto higher antenna bandwidth ... improve return loss and reduce antenna size significantly
Due to surface wave radiation excitation losses occurwill causedecrease in the antenna efficiency , gain and bandwidth because the surface wave occurs
Chip antennas are also very precise in their frequency tuningresultingin a narrow bandwidth which also assists in the antenna 's efficiency
wave radiation excitation losseswill causedecrease in the antenna efficiency , gain and bandwidth because the surface wave occurs
By improving the impedance match between the antenna and the system , power transfer can be improvedresultingin more efficient system performance and higher effective antenna gain
a four - element synchronous subarrayresultingin improvement in antenna performance in terms of impedance bandwidth , gain and axial ratio
you enjoy a higher degree of design flexibilityresultingin a better trade - off between antenna performance and size
A wide range of COTS and customdesigned, standard gain and high gain wide - band horn antennas
Mutual coupling between close antennas and important ' ground ' imaging effectsleadto the design of antenna arrays to increase gain and directivity
surehave designedan efficient antenna tuning unit which can maximize the bandwidth
This methodcontributesto a wide operating bandwidth and a high antenna gain
surface wave radiation excitation losseswill causedecrease in the antenna efficiency , gain and bandwidth
wave radiation excitation losseswill causedecrease in the antenna efficiency , gain and bandwidth
higher gain applicationsresultingin higher gain bandwidth and slew rate
to mount on the exterior of homes , offices , buildings , and warehouses(passive) are designedHigh - gain Yagi and Wide Band directional antennas
the presence and optimisation of the magnetic modesleadsto an improved combination of bandwidth , efficiency and size
new methodto designPIFA antenna for multiband function and improve the bandwidth
Therefore , method of moments based ADS software is usedto designa Microstrip Patch Antenna with enhanced gain and bandwidth
the lensleadsto maximizing the gain and power delivered by the antenna
height Hwill ... causethe bandwidth and gain of antenna 54 to be reduced
The simulationsresultedin reduced antenna height and increased efficiency
reducing heightwill ... causethe bandwidth and gain of antenna 54 to be reduced
in this project(passive) was specifically designedA broad bandwidth and high gain rectangular patch antenna
specifically(passive) was ... designedA broad bandwidth and high gain rectangular patch antenna
The objective of the work of this thesis isto design, fabricate , and characterise high performance micromachined antennas with fixed and reconfigurable bandwidth
Many factorsinfluencean amplifier 's bandwidth and efficiency
Suppression of higher order modesleadingto increased bandwidth bandwidth antenna - array
Optimization of this prefixcould resultin increased throughput and bandwidth efficiency
substrate material(passive) are largely influenced byDetermination of an antenna size and its bandwidth
high electron mobility transistordesignedspecifically for high efficiency , high gain and wide bandwidth capabilities
many other elementscontributingto higher throughput and bandwidth efficiency
Simulationresultson bandwidth efficiency and channel capacity
GaN ) high electron mobility transistordesignedspecifically for high efficiency , high gain and wide bandwidth capabilities
techniquesresultsthe improvement in antenna bandwidth
GaN ) high electron mobility transistor ( HEMTdesignedspecifically for high efficiency , high gain and wide bandwidth capabilities
A gallium nitride high electron mobility transistordesignedspecifically for high efficiency , high - gain and wide - bandwidth capabilities
a gallium - nitride ( GaN ) high - electron - mobility transistor ( HEMTdesignedspecifically with high efficiency , high gain and wide bandwidth capabilities,
an unmatched , gallium - nitride ( GaN ) high - electron - mobility transistor ( HEMTdesignedspecifically for high - efficiency , high - gain and wide - bandwidth capabilities
The GV - POE1611(passive) is designedThe GV - POE1611
by scan lossinfluencedby scan loss
The laser diodes(passive) are designedThe laser diodes
the , therefore the antenna has a wave lengthinfluencesthe , therefore the antenna has a wave length
The microstrip patch antenna array(passive) was designedThe microstrip patch antenna array
in a stable connectionresultsin a stable connection
the problems(passive) caused bythe problems
a number of parameters(passive) can be designeda number of parameters
Package antenna 30(passive) is designedPackage antenna 30
The laser diodes(passive) are designedThe laser diodes
to shorter battery life , poorer connectivity and lower data ratesleadsto shorter battery life , poorer connectivity and lower data rates
signals to be often blocked by objects standing in their path and have smaller coveragecausessignals to be often blocked by objects standing in their path and have smaller coverage
signals to be often blocked by _ objects standing in their path and have smaller coveragecausessignals to be often blocked by _ objects standing in their path and have smaller coverage
signals to be often blocked by objects standing in their path and have narrower coveragecausessignals to be often blocked by objects standing in their path and have narrower coverage
for the 2.4 GHz banddesignedfor the 2.4 GHz band
for the 2designedfor the 2
An op - amp(passive) is designedAn op - amp
to increase in the lossleadingto increase in the loss
at values of 1.5 gigahertz and 476 terahertzsetat values of 1.5 gigahertz and 476 terahertz
for vehicle communications and counter - RCIED applications in the 790 - 2700 MHz frequency range at up to 175W totaldesignedfor vehicle communications and counter - RCIED applications in the 790 - 2700 MHz frequency range at up to 175W total
in a step - change in resolutionresultingin a step - change in resolution
up in a Very Long Baseline ( VBL ) configurationsetup in a Very Long Baseline ( VBL ) configuration
for vehicle communications and counter - RCIED applications in the 790 - 2700 MHz frequency range at up to 85W totaldesignedfor vehicle communications and counter - RCIED applications in the 790 - 2700 MHz frequency range at up to 85W total
for performanceare designedfor performance
as an effectivediscoveredas an effective
with two or more half - wave dipoles placed end to end and seated on a common line or axis making them parallel or collineardesignedwith two or more half - wave dipoles placed end to end and seated on a common line or axis making them parallel or collinear
This path(passive) is designedThis path