Fundamentals of Passive Component Behavior at High Frequencies
... impedance by 10 percent, and shift the reactive part in the direction of capacitance. Characteristic impedances that have a greater difference from the system impedance will have a greater effect. At 100 MHz, 0.01 wavelength is more than an inch, so common SMT components are much less than this size ...
... impedance by 10 percent, and shift the reactive part in the direction of capacitance. Characteristic impedances that have a greater difference from the system impedance will have a greater effect. At 100 MHz, 0.01 wavelength is more than an inch, so common SMT components are much less than this size ...
Radio Wave Basics
... This sound can be speech, music, or simply noise. The media that water waves travel in is, not surprisingly, water. Mechanical waves can switch media that they are traveling in. For instance, when a wave crashes on the beach we can hear it or if music is played really, really loud it can vibrate wal ...
... This sound can be speech, music, or simply noise. The media that water waves travel in is, not surprisingly, water. Mechanical waves can switch media that they are traveling in. For instance, when a wave crashes on the beach we can hear it or if music is played really, really loud it can vibrate wal ...
Keysight Technologies Techniques for Advanced Cable Testing
... of contact between two different lines or damage along the line, these discontinuities may result in signal reflection and higher line attenuation. Characterizing and troubleshooting transmission lines and systems require measuring the performance in both the frequency domain and time domain. Freque ...
... of contact between two different lines or damage along the line, these discontinuities may result in signal reflection and higher line attenuation. Characterizing and troubleshooting transmission lines and systems require measuring the performance in both the frequency domain and time domain. Freque ...
longitudinal waves in slender moonpools
... some “pumping” modes, this apparent 2D flux becomes a real three-dimensional transfer of mass to infinity. In other “sloshing” modes there is still zero net 3D flux, but the conversion of changes in section area to longitudinal fluid motion occurs slowly, effectively allowing longitudinal waves to b ...
... some “pumping” modes, this apparent 2D flux becomes a real three-dimensional transfer of mass to infinity. In other “sloshing” modes there is still zero net 3D flux, but the conversion of changes in section area to longitudinal fluid motion occurs slowly, effectively allowing longitudinal waves to b ...
NOT
... The order of the modes is NOT important, as long as it is consistent with the matrix elements ...
... The order of the modes is NOT important, as long as it is consistent with the matrix elements ...
chapter 3 – the electromagnetic spectrum
... correspond to channels 2 through 13 on your TV set. UHF stands for Ultra High Frequency. Channels range from frequencies of 470 MHz to 806MHz and correspond to Channels 14 through 69. 14. How do cellular telephones transmit signals? Cellular telephones transmit and receive signals using high-frequen ...
... correspond to channels 2 through 13 on your TV set. UHF stands for Ultra High Frequency. Channels range from frequencies of 470 MHz to 806MHz and correspond to Channels 14 through 69. 14. How do cellular telephones transmit signals? Cellular telephones transmit and receive signals using high-frequen ...
electromagnetic waves
... (e) Which of the four equations shows that magnetic field lines cannot start from a point nor end at a point ? (f) Which of the four equations shows that electrostatic field lines cannot form closed loops ? (g) The equations listed above refer to integrals of E and B over loops /surfaces. Can we wri ...
... (e) Which of the four equations shows that magnetic field lines cannot start from a point nor end at a point ? (f) Which of the four equations shows that electrostatic field lines cannot form closed loops ? (g) The equations listed above refer to integrals of E and B over loops /surfaces. Can we wri ...
download
... spectrum of a given function: 1. A discrete frequency spectrum belongs to a signal that is periodic and can be represented by a Fourier series (either finite or infinite) 2. A continuous frequency spectrum mostly limited to a finite bandwidth is that of a general localized signal that does not neces ...
... spectrum of a given function: 1. A discrete frequency spectrum belongs to a signal that is periodic and can be represented by a Fourier series (either finite or infinite) 2. A continuous frequency spectrum mostly limited to a finite bandwidth is that of a general localized signal that does not neces ...
Amateur Extra Licensing Class
... A. Electric and magnetic fields become aligned as they travel B. The energy propagates through a medium with a high refractive index C. The waves are reflected by the ionosphere and return to their source D. Changing electric and magnetic fields propagate the energy ...
... A. Electric and magnetic fields become aligned as they travel B. The energy propagates through a medium with a high refractive index C. The waves are reflected by the ionosphere and return to their source D. Changing electric and magnetic fields propagate the energy ...
Contesting
... A. Electric and magnetic fields become aligned as they travel B. The energy propagates through a medium with a high refractive index C. The waves are reflected by the ionosphere and return to their source D. Changing electric and magnetic fields propagate the energy ...
... A. Electric and magnetic fields become aligned as they travel B. The energy propagates through a medium with a high refractive index C. The waves are reflected by the ionosphere and return to their source D. Changing electric and magnetic fields propagate the energy ...
Waveguide (electromagnetism)
In electromagnetics and communications engineering, the term waveguide may refer to any linear structure that conveys electromagnetic waves between its endpoints. However, the original and most common meaning is a hollow metal pipe used to carry radio waves. This type of waveguide is used as a transmission line mostly at microwave frequencies, for such purposes as connecting microwave transmitters and receivers to their antennas, in equipment such as microwave ovens, radar sets, satellite communications, and microwave radio links.A dielectric waveguide employs a solid dielectric rod rather than a hollow pipe. An optical fibre is a dielectric guide designed to work at optical frequencies. Transmission lines such as microstrip, coplanar waveguide, stripline or coaxial cable may also be considered to be waveguides.The electromagnetic waves in a (metal-pipe) waveguide may be imagined as travelling down the guide in a zig-zag path, being repeatedly reflected between opposite walls of the guide. For the particular case of rectangular waveguide, it is possible to base an exact analysis on this view. Propagation in a dielectric waveguide may be viewed in the same way, with the waves confined to the dielectric by total internal reflection at its surface. Some structures, such as non-radiative dielectric waveguides and the Goubau line, use both metal walls and dielectric surfaces to confine the wave.