Yes. The transverse strength of an aligned fiber composite is very low compared to the longitudinal strength. This can be understood easily by considering that a pull in the longitudinal direction will be resisted by the fiber, which is normally very much more strong than the surrounding matrix. (To consider an analogy, think of a number of strings of different strengths held parallel to each other - A pull on these will be shared by each string, the stronger ones taking up the larger part of the load). To understand how a pull in the transverse direction is supported, consider a chain consisting of a large number of links that is being pulled. The pull is tranferred from one link to the next and so on. If any one of the links in the chain is weak of damaged, that will be the first to fail and will hence determine the strength of the chain (A chain is as strong as its weakest link). In the same manner, a pull in the transverse direction of an aligned composite will be transmitted repeatedly between fiber width and matrix and the interface between them. Thus the strength in the transverse direction will depend on which of the three (fiber, matrix, interface) will fail first. Since the matrix strength is normally very small as compared to the fiber, the transverse strength of the unidirectional fiber composite is low compared to the longitudinal strength. By the way, if the fiber fraction is very very small, it is possible that the strength is nearly equal in both directions.
The strength of a wave is not determined by whether it is transverse or longitudinal, but rather by factors like amplitude and energy. Both types of waves can have varying strengths depending on the properties of the medium they are traveling through and the energy they carry.
Dino Angelakos has written: 'The influence of concrete strength and longitudinal reinforcement ratio on the shear strength of large-size reinforced concrete beams with, and without, transverse reinforcement'
Well the wavelength is the distance between succesive crests, or troughs on a transverse wave is the distance between consecutive compressions or rarefactions of a longitudinal wave. the frequency can is the time between consecutive crest on a transverse wave and the time between consecutive rarefactions or compressions on a longitudinal wave. the amplitude on a transverse wave is the distance between a crest and the zero value of the wave, not till the trough. on a longitudinal wave the amplitidue is measured by the strength of the rarefactions or compressions as compared to the natural state of the propagation medium. so for a longidudinal wave travelling throught the air; if the compression pressure is 4 bar the amplitude would be greater than if the compression pressure was 3 bar, because the air's natural pressure is 1 bar. in reality things like sound waves have much less compression pressure.
trs=1.5fl/bt2
the important is 5 ta kos
The important element in longitudinal strength is the structural integrity of the material being used, while the important element in bonds is the adhesive force holding materials together. Both elements are crucial for the overall stability and performance of a structure.
Composite doors are doors made from a combination of materials, typically including uPVC, wood, insulating foam, and glass-reinforced plastic (GRP). This blend of materials is designed to offer superior strength, durability, security, and energy efficiency compared to traditional single-material doors. ckwindow.co.uk
Dat Duthinh has written: 'Shear strength of high-strength concrete walls and deep beams' -- subject(s): Shear (Mechanics), High strength concrete, Concrete beams 'Tensile strength of an interlocking composite connection' -- subject(s): Testing, Strength of materials, Evaluation, Polymeric composites, Composite construction
The joist spacing required for composite decking will depend on: * the strength of the particular composite decking material chosen * the dimesions of the composite decking material
The transverse beam of a ship is a structural element that runs horizontally across the width of the vessel. It helps to provide stability and structural strength by distributing the load to the ship's hull and keel. Transverse beams are essential for maintaining the integrity of the ship's overall structure.
at start addition of fibre give strength upto 65%,but after 70% strength decreases due to dominant property of fibre
Boron has a tensile strength of approximately 310 MPa, making it a relatively strong material for its weight. It is commonly used in composite materials and coatings to enhance strength and hardness.