38 results about "Contact phase" patented technology

A method of fabricating a phase-change memory cell is described. The cross-sectional area of a contact with a phase-change memory element within the cell is controlled by a first dimension of a bottom electrode and a second dimension controlled by an etch process. The contact area is a product of the first dimension and the second dimension. The method allows the formation of very small phase-change memory cells.

A method of fabricating a phase-change memory cell is described. The cross-sectional area of a contact with a phase-change memory element within the cell is controlled by a first dimension of a bottom electrode and a second dimension controlled by an etch process. The contact area is a product of the first dimension and the second dimension. The method allows the formation of very small phase-change memory cells.

A soil compaction device has a vibrated contact element that makes contact with the soil during a contact phase and that is exposed to a contact force exerted by the soil and travels over a contact distance. A dynamic stiffness of the soil is formed from the gradient of the contact force and from the contact distance. Furthermore, a contact surface parameter to take account of the actual contact surface of the contact element with the soil is determined. The dynamic deformation modulus is then the product of the contact surface parameter and the dynamic stiffness. The method allows the determination of the dynamic deformation modulus, and hence of the soil stiffness, during the compaction operation.

The invention relates to a direct contact phase-changing heat storage device. The direct contact phase-changing heat storage device comprises a heat transfer fluid inlet (1), heat transfer fluid runners (2), phase-changing heat storage materials (3), phase-changing heat storage material fixing frames (4), a heat storage device container shell (5) and a heat transfer fluid outlet (7), wherein the multiple phase-changing heat storage material fixing frames (4) are mounted in the heat storage device container shell (5); gaps between the adjacent phase-changing heat storage material fixing frames (4) as well as between the phase-changing heat storage material fixing frames (4) and the heat storage device container shell (5) are the heat transfer fluid runners (2); the phase-changing heat storage materials (3) are placed in the phase-changing heat storage material fixing frames (4); the heat transfer fluid inlet (1) is formed in one end of the heat storage device container shell (5), and the heat transfer fluid outlet (7) is formed in the other end of the heat storage device container shell (5); and the heat transfer fluid inlet (1) and the heat transfer fluid outlet (7) are used for allowing heat transfer fluid to flow in and flow out respectively. The direct contact phase-changing heat storage device is large in heat storage density, simple in structure, good in heat exchange effect, wide in application range, reliable in performance and low in manufacturing cost.

A liquid crystal display (LCD) apparatus is provided. The LCD apparatus includes a first substrate and a second substrate, each including a display area and a non-display area, a sealant disposed between the non-display area of the first substrate and the non-display area of the second substrate, and a first contact area and a light shielding pattern that are disposed in the non-display area of the first substrate. The light shielding pattern is disposed on one outermost side of the first substrate, the first contact area is disposed between the light shielding pattern and the display area, and the sealant contacts the first substrate in the first contact area.

The invention discloses a method used for online measuring the stress gradient of MEMS film, comprising the steps as follows: a round film with center fixed is prepared on a structure layer film; after the round film is released, the round film generates deformation under the stress gradient inside the round film; the displacement of the edge of the round film in the vertical direction is measured by a non-contact phase-shifting typed Mirau interferometer, thus calculating the curvature radius of the round film; and the stress gradient of the film can be calculated by the young modulus and Poisson ratio of the film and the curvature radius of the round film. The measurement method is characterized in that a centrosymmetric round film with the center fixed is used as a testing structure and a choring area is fixedly clamped closely to an ideal state, thus improving the precision of the model; the non-contact optical interference method is used for measurement, thus not affecting testing structure and having good repeatability; the method is suitable for measuring the stress gradient of conductive material and non-conductive material simultaneously; and furthermore, the measurement method has the advantages of simple and convenient operation, high measurement precision, small chip occupying area and the like.

The invention relates to a non-contact phase-difference type torque sensor which comprises an input sleeve, an output sleeve, a Hall sensor, a first involute gear and a second involute gear, wherein the input sleeve is connected with the output sleeve through a torsion bar, a hub bore of the first involute gear is in interference fit with the output sleeve, a hub bore of the second involute gear is in interference fit with the input sleeve, third sections of shaft segments of the input sleeve and the output sleeve are respectively matched with an inner ring of a corresponding bearing, an outer ring of the bearing is respectively matched with two groups of sensor shells which are arranged at two sides of the torsion bar, a magnetic circuit support is respectively fixed on the inner surfaceof each sensor shell, a magnetic circuit assembly and a circuit board are fixed on each magnetic circuit support, the Hall sensor is welded on the circuit board, and a detection surface of the Hall sensor is arranged in an air gap where the end surface of magnetic-conducting soft iron a just faces to a top addendum circle of the involute gear. The invention has the advantages of simple structure,accurate test, good stability, comparatively lower cost, and the like.

The invention relates to a new measuring method for single-plate surface roughness and compressibility, belonging to the technology field of artificial plate, material processing and automation so on. According to relative theory of primary progressive contacting stage ignored in conventional method in radial compressing test of single plate, the invention provides the new method. When progressive contacting stage ends or linear elastic stage starts corresponding load is threshold load. The displacement under threshold load surface even roughness of single plate can be reflected well. So by measuring the displacement under threshold load surface roughness of single plate can be evaluated. When single plate is compressed in radius and load achieve threshold load, contacting area achieves 80% or more; here the influence of surface roughness can be eliminated basically and corresponding displacement can be used as the minimum compression amount needed by single plate. The invention can be used for measuring single-plate roughness and compressibility quickly and determine the minimum compression amount of single plate and glue consumption under special conditions. Single plate outturn rate and plate bonding quality are improved and it lays a foundation for realizing on-line intelligent decision.