Stiffening progressive

Partial or focal seizures arise from a localized area in the brain and cause specific symptoms. A partial seizure can spread to the entire brain and cause a generalized seizure. Fhrtial seizures include simple seizures in which consciousness is not impaired, jack-sonian seizures (a focal seizure that begins with an uncontrolled stiffening or jerking in one part of the body such as finger, mouth, hand, or foot that may progress to a generalized seizure), and psycho motor seizures. 

Pulmonary interstitial fibrosis associated with deposition of collagen, progressive lung stiffening and impaired gas exchange, disability, and death occurred in many asbestos workers. 

After the mix has set, the hydration of the less reactive fractions of the lime continues (as does the slower hydration of cement). This results in a progressive stiffening of the mix as well as a progressive rise in temperature. The latter increases the water vapour pressure within the hydrogen bubbles and if that pressure exceeds a critical level, it causes cracking within the cake, and loss of strength. 

Ambur, D.R., Jaunky, N., and Hilburger, M.W. (2004) Progressive failure studies of stiffened panels subjected to shear loading. Composite Structures, 65, 129-142. 

Trial 3 Move saddles near heads (A = R/2) and return d to 120°. This will take advantage of stiffness provided by the heads and will also induce additional stresses in the heads. Compute stresses S4, Sg, and S9 or Siq. A wear plate may be used to reduce the stresses at the horn or saddle when the saddles are near the heads (A < R/2) and the wear plate extends R/10 above the horn of the saddle. Trial 4 Increase the saddle angle to 150° and recheck stresses S4, Sg, and S9 or Siq. Increase the saddle angle progressively to a maximum of 168° to reduce stresses. Trial 5 Move saddles to A = 0.2L and d= 120° and design ring stiffeners in the plane of the saddles using the equations for S13 and S14 (see Note 7). 

Rods and Helices.—Because of the considerable advances being made in biopolymer characterization, theories and experimental methods particularly applied to stiffened chains and wormlike models, as well as to polyelectrolytes, have continued to proliferate. At the same time work has continued to progress in the synthesis and description of novel synthetic rod-like polymers, many of which have interesting liquid crystalline properties. The publication of the proceedings of a recent conference devoted to the latter materials provides a state of the art description of work in this field. 

The c/ dependence indicates that the chains become progressively harder to stretch. As seen in Figure 13.28, this simple model based on (infinitely extensible) Gaussian chains fails to explain the extreme stiffening behavior at very high strains near the maximum possible chain extension. 

The scissors closed onto the cross logs and bound the joints tighter. The assembly progressively stiffens up. 

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