40 GHz
working stress: in this a structure is designed by considering the stresses in its working condition..Limit state: In this the structure is designed by considering the stresses at different limit states. there are two limit states. ultimate limit state (situation in which structure collapse) and servicability limit state (situation in which cracks etc appears.)
elastic limit
107
router
Base and limit registers are special hardware registers. When a process is run, the base register is loaded with the physical location where the process begins in memory. The limit register is loaded with the length of the process. In other words, they define the logical address space
1. Ther is no limit if we are using Optical Fiber DSL Connection 2. There is limit depend on number of nodes
The optical diffraction limit refers to the physical limit on the resolution of an optical system, defined by the diffraction of light as it passes through an aperture. It sets a boundary on the smallest resolvable features in an image produced by an optical system. Efforts to improve resolution beyond the diffraction limit have led to advancements in techniques such as super-resolution microscopy.
Every line has an upper limit and a lower limit on the frequency of signals it can carry. This limited range is called the bandwidth. The signals ranging within the upper limit & lower limit are called bandwidth signals.
There is no upper limit to how much energy (and frequency) an electromagnetic wave can have. The highest frequency waves are called gamma radiation.There is no upper limit to how much energy (and frequency) an electromagnetic wave can have. The highest frequency waves are called gamma radiation.There is no upper limit to how much energy (and frequency) an electromagnetic wave can have. The highest frequency waves are called gamma radiation.There is no upper limit to how much energy (and frequency) an electromagnetic wave can have. The highest frequency waves are called gamma radiation.
The diffraction limit in optics can be calculated using the formula: d 1.22 / NA, where d is the diffraction limit, is the wavelength of light, and NA is the numerical aperture of the optical system. This formula helps determine the smallest resolvable detail in an optical system.
Using a crossover, you can limit the frequency response of the signal sent to speakers.
20 GHz
The diffraction limit resolution is the smallest detail that can be resolved by an optical system due to the wave nature of light. It impacts the quality of images by setting a limit on how sharp and clear the details in the image can be. When the resolution limit is reached, the image may appear blurry or lack fine details.
I don't think there is a limit, as to how high the frequency can get. The EM waves of the highest energy (and frequency) are called "gamma rays".
Yes, Optical Transport Networks (OTN) can operate without Dense Wavelength Division Multiplexing (DWDM). OTN primarily focuses on the transport of digital signals over optical fiber, providing functionalities like error correction and data encapsulation. While DWDM enhances capacity by allowing multiple wavelengths to be sent simultaneously over a single fiber, OTN can still function using other transmission methods, such as Time Division Multiplexing (TDM) or at lower bandwidths without wavelength multiplexing. However, the absence of DWDM may limit the overall capacity and efficiency of the optical network.
Information transmitted by electromagnetic radiation travels at the speed of light. There is no limit on the quantity of bytes. (Information transmitted through a medium like microwaves in air, optical fiber, cable, wires, etc. are able to transport information and are electromagnetic but they travel at a speed somewhat less than the speed of light in a vacuum. The answer is however still the same. There is no limit.)
From Wikipedia, the free encyclopediaJump to: navigation, search For an optical fiber or waveguide, a radiation mode or unbound mode is a mode which is not confined by the fiber core. Such a mode has fields that are transversely oscillatory everywhere external to the waveguide, and exists even at the limit of zero wavelength.Specifically, a radiation mode is one for whichwhere β is the imaginary part of the axial propagation constant, integer l is the azimuthal index of the mode, n(r) is the refractive index at radius r, a is the core radius, and k is the free-space wave number, k = 2π/λ, where λ is the wavelength. Radiation modes correspond to refracted rays in the terminology of geometric optics.