numerical analysis software (ANSYS inc)
90
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ANSYS inc
numerical analysis software
Numerical Analysis Software, supplied by ANSYS inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/numerical+analysis+software/numerical+analysis+software/pm40328865-212-31-33
Average 90 stars, based on 1 article reviews
Numerical Analysis Software, supplied by ANSYS inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/numerical+analysis+software/numerical+analysis+software/pm40328865-212-31-33
Average 90 stars, based on 1 article reviews
numerical analysis software - by Bioz Stars,
2026-10
90/100 stars
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Software:Article Title: Mechanical characteristics analysis of coal around borehole based on three-stage constitutive model and its numerical validation. Article Snippet: .. In order to validate the rationality of this present analytical method, a two-dimensional finite element analysis of the coal around borehole under different stress conditions is conducted by using the numerical Article Title: Measurement of cell traction force with a thin film PDMS cantilever. Article Snippet: Adherent cells produce cellular traction force (CTF) on a substrate to maintain their physical morphologies, sense external environment, and perform essential cellular functions.. Precise characterization of the CTF can expand our knowledge of various cellular processes as well as lead to the development of novel mechanical biomarkers.. However, current methods that measure CTF require special substrates and fluorescent microscopy, rendering them less suitable in a clinical setting. Article Title: Method of three-dimensional optimization design for asymmetric cusp magnetic field in MCZ single crystal furnace Article Snippet: The optimization algorithms at steps a to c in Step 1 can be realized by virtue of the ANSYS numerical analysis software so as to optimize the specification parameters of the coils in the magnetic field. .. The optimization algorithms at steps a to c in Step 1 can be realized by virtue of the Article Title: Method of three-dimensional optimization design for asymmetric cusp magnetic field in MCZ single crystal furnace Article Snippet: By means of the ANSYS numerical analysis software, an optimization algorithms is programmed with an objective function of w1, a design variable of length of sides of the cross-section of cooling water pipes, and a status variable of temperature of the copper pipe walls so that the temperature of the copper pipe walls is lower than 40 while defining the pressure of the water pipes within 0.2 MPa (at this time, the head loss is correspondingly 20 m). .. By means of the Article Title: Method of three-dimensional optimization design for asymmetric cusp magnetic field in MCZ single crystal furnace Article Snippet: Establishing a three-dimensional magnetic model by using ANSYS numerical analysis software in the step 1 of the optimization design for structural parameters of the magnetic field, which is particularly implemented according to the following steps: defining relevant parameters of a magnetic field at first; allocating unit property and material property of a model, in which air of thin layer inside the magnetic field and magnetic shield are divided by using an entity unit SOLID98, far-field air outside the magnetic field is divided by using INFIN47, and the coils are modeled by using a micro-unit SOURCE36; establishing mesh for each region in an order of shield-air layer-far field, wherein establishing mesh for the shield and the far field by using mapping, and establishing mesh for the air layer by using free mapping; and finally analyzing the solution of the model by applying boundary conditions to the model using a differential scalar potential method among scalar potential methods. .. Establishing a three-dimensional magnetic model by using other:Article Title: Strengthening of Fire-Damaged Reinforced Concrete Short Columns Using GFPPECC Composites Article Snippet: The study investigated the strengthening effect of glass fiber and polypropylene fiber-based engineered cementitious composites (GFPPECC) on fire-damaged reinforced concrete short exterior columns.. Both moderate (500 °C) and high (900 °C) intensities of fire load corresponding to the ISO834 fire curve were adopted.. A total of 15 columns (150 mm × 150 mm × 1000 mm) were cast. Article Title: Method of three-dimensional optimization design for asymmetric cusp magnetic field in MCZ single crystal furnace Article Snippet: The optimization design for specification parameters of the coils is implemented according to the following steps: in step i, establishing a mathematic expression of heat and cross-section area of the coils as follows, w 1 = I 2 l s ρ 0 ( 1 + at ) , in the above expression, I refers to a current of the coils powered-on, l refers to a total length of the coils, s refers to a cross-section area of the coils, ρ0 refers to a resistivity at 0° C., a refers to a temperature coefficient of resistivity, and t refers to an actual temperature of copper pipe walls of the coils, establishing a mathematic expression of heat transfer w2 of the coils at the copper pipe walls and a characteristic size de, an average flow velocity V of fluid, and a temperature difference Δt between the copper pipe walls and cooling water as follows, w 2 = 0.023 λ A de ( Vde v ) 0.8 Pr 0.4 Δ t , in the above expression, λ refers to a heat conductivity of water, de refers to a characteristic size, A refers to a total heat transferring area of the copper pipe walls, V refers to an average flow velocity of fluid, v refers to a kinematic viscosity of the fluid, Pr refers to Prandtl number, Δt refers to temperature difference between the copper pipe walls and the cooling water; and establishing a mathematical expression among the amount of heat absorbed by the cooling water w3 and the number of branches of cooling water paths n, a flow amount of the cooling water qm, a specific heat capacity of water c, an outlet water temperature t2, and an inlet water temperature t1 as follows: w3=qmc(t2−t1)·n, in the above expression, qm refers to the flow amount of cooling water, c refers to the specific heat capacity of water, t2 refers to the water temperature at in outlet, t1 refers to the water temperature at an inlet, and n refers to the number of branches of cooling water paths; and in step ii, establishing an optimization model of a system when w1=w2=w3 as follows: objective function : min ( w 1 ) = I 2 l s ρ 0 ( 1 + at ) , with constraint conditions of Δt+t2 <40 and hf<20, wherein Δt+t2 is the temperature of the copper pipe walls, and hf refers to the liner loss along the coils, and wherein the cross-section area of the coils s, the characteristic size de, the average flow velocity cross-section area of the coil of the fluid V, the temperature difference At between the copper pipe walls and the cooling water, the number of branches of cooling water paths n, the flow amount of the cooling water qm, the specific heat capacity of water c, the outlet water temperature t2, and the inlet water temperature t1are obtained by optimizing the specification parameters of the coils in the magnetic field using the Article Title: Numerical investigation of heat transfer and flow characteristics of MHD nano-fluid forced convection in a pipe Article Snippet: In this study, the behavior of Cu–water nano-fluid in a pipe has been investigated numerically.. The pipe is under the external magnetic field, and the magnetic field is applied perpendicularly to the pipe.. The temperature of pipe is higher than the temperature of fluid. Produced:Article Title: Measurement of cell traction force with a thin film PDMS cantilever. Article Snippet: Adherent cells produce cellular traction force (CTF) on a substrate to maintain their physical morphologies, sense external environment, and perform essential cellular functions.. Precise characterization of the CTF can expand our knowledge of various cellular processes as well as lead to the development of novel mechanical biomarkers.. However, current methods that measure CTF require special substrates and fluorescent microscopy, rendering them less suitable in a clinical setting. |