The phrase "artificial shock" is correct and usable in written English.
It can be used in contexts related to technology, medicine, or psychology, often referring to a simulated or induced response.
Example: "The researchers applied an artificial shock to the system to test its resilience under extreme conditions."
Alternatives: "simulated shock" or "induced shock".
Additionally, on a deep penetration problem we demonstrate that the TPN closure does not suffer from the artificial shocks that can arise in the MN entropy-based closure.
Modelling a binary in a vacuum is easily handled in SPH, without the need for (low density) background fields in grid codes, which can exhibit artificial shocks from motions of other bodies within this background.
The HSE promoter therefore represents a new artificial heat shock promoter with superior properties, making possible transient experiments with inducible misexpression at various stages of development.
Thus, although the current study uses an artificial electrical shock as the aversive stimulus, this type of conditioning is consistent with aversive experiences in nature.
We physiologically reproduced similar phenotypes by an artificial cold-shock treatment of a normal southern population, and furthermore, we genetically reproduced a similar phenotype after selective breeding of a normal population for ten generations, demonstrating that the cold-shock-induced phenotype was heritable and partially assimilated genetically in the breeding line.
The following complications were noted: requirement for artificial ventilation, septic shock, acute renal failure, requirement for percutaneous tracheostomy and mortality.
The artificial viscosity broadens shocks to steep gradients at some characteristic length scale, but should not cause too large smearing.
To prevent the formation of spurious oscillations around shocks, artificial nonlinear viscosity [A.W. Cook, W.H. Cabot, A high-wavenumber viscosity for high resolution numerical method, J. Comput. Phys. 195 (2004) 594 601] based on high-order derivative of the strain rate tensor is used.
We investigate the efficacy of artificial thermal conductivity for shock capturing.
