Sentence examples for surface constraints from inspiring English sources

Also, we design a new sliding surface with an approach angle to solve the sliding surface constraints problem.

The sparse existing data have been carefully analyzed to design 3D surface seismic and VSP surveys that will fit within the surface constraints at the site and meet the greater objectives of the project.

Isodose surface constraints determine the search space and the needle constraint limits the number of needles.

"New techniques and technologies often aim to remove a surface constraint (objects, organizations, practices, institutions) without appreciating their submerged resourcefulness," Brown and Duguid sum up.

It is therefore believed that the flow pattern, the material surface constraint and the material deformation mode are critical in determination of material flow stress curve.

A method to calculate the cable network stretched on the LDA structure is developed, which combines the original force density method and the parabolic surface constraint.

Therefore, the designed constraint controller has a simpler structure than conventional transformed error constraint methods and the sliding surface constraint scheme can also indirectly guarantee the tracking error constraint while being more stable than the tracking error constraint control.

Two constraints are incorporated into the combined block adjustment including a local surface constraint and an orbit height constraint, which are specifically designed to remedy the large inconsistencies between the Chang'E-2 and LOLA data sets.

The results show that for any higher order assembly of the network, optimal internal radius ratio is always 21/2 for wetted surface constraint, and 23/7 for total duct volume constraint.

The emphasis is on the application of GISAS to elucidating the effects of geometrical surface constraint on self-assembled systems and the effect of modification of interfaces or molecular subassemblies to direct the formation of more complex structures.

The mechanical response of thin metallic films is simulated using a two-dimensional strain gradient plasticity finite-element model involving grain boundaries in order to investigate the effect of the thickness, grain shape and surface constraint on the strength, ductility and back-stress.