840 results about "Process complexity" patented technology

A high performance capability assessment model helps an automotive industry business meet the challenges of the global marketplace. As a result, the automotive industry business can achieve the clarity, consistency, and well-defined execution of core processes that reduce inefficiencies and waste that result from unnecessary process complexity and exceptions. In addition, the high performance capability assessment model helps the automotive industry business to identify specific areas in which improvements may be made and understand how to make the improvements, and establishes levels of capability along the way to reaching an ultimate capability goal.

By forming metallization structures on the basis of an imprint technique, in which via openings and trenches may be commonly formed, a significant reduction of process complexity may be achieved due to the omission of at least one further alignment process as required in conventional process techniques. Furthermore, the flexibility and efficiency of imprint lithography may be increased by providing appropriately designed imprint molds in order to provide via openings and trenches exhibiting an increased fill capability, thereby also improving the performance of the finally obtained metallization structures with respect to reliability, resistance against electromigration and the like.

The amount of melting of the bonding wire is closely regulated, and reduction of size and improvement of uniformity of the free air ball is obtained for ball bonding at pitches of less than ninety mils even when bonding wire of reduced diameter is employed. Quenching of the bonding wire adjacent to the free air ball also limits the temperature rise in the bonding wire and the extent of a heat affected zone having less tensile strength and stiffness to less than one micron and with reduced grain enlargement. The present invention provides such a bond for electronic packaging of increased reliability, potential functionality, increased manufacturing yield and reduced process complexity.

A high performance capability assessment model helps a postal industry business meet the challenges of the global marketplace. As a result, the postal industry business can achieve the clarity, consistency, and well-defined execution of core processes that reduce inefficiencies and waste that result from unnecessary process complexity and exceptions. In addition, the high performance capability assessment model helps the postal industry business to identify specific areas in which improvements may be made and understand how to make the improvements, and establishes levels of capability along the way to reaching an ultimate capability goal.

A silicon/germanium material and a silicon/carbon material may be provided in transistors of different conductivity type on the basis of an appropriate manufacturing regime without unduly contributing to overall process complexity. Furthermore, appropriate implantation species may be provided through exposed surface areas of the cavities prior to forming the corresponding strained semiconductor alloy, thereby additionally contributing to enhanced overall transistor performance. In other embodiments a silicon/carbon material may be formed in a P-channel transistor and an N-channel transistor, while the corresponding tensile strain component may be overcompensated for by means of a stress memorization technique in the P-channel transistor. Thus, the advantageous effects of the carbon species, such as enhancing overall dopant profile of P-channel transistors, may be combined with an efficient strain component while enhanced overall process uniformity may also be accomplished.

During the formation of a transistor element, sidewalls spacers are removed or at least partially etched back after ion implantation and silicidation, thereby rendering the mechanical coupling of a contact etch stop layer to the underlying drain and source regions more effective. Hence, the mechanical stress may be substantially induced by the contact etch step layer rather than by a combination of the spacer elements and the etch stop layer, thereby significantly facilitating the stress engineering in the channel region. By additionally performing a plasma treatment, different amounts of stress may be created in different transistor devices without unduly contributing to process complexity.

The present disclosure relates to calibration target devices, assemblies and methods for use with imaging systems, such as a stereoscopic endoscope. A calibration assembly includes: a target surface extends in three dimensions with calibration markers and a body with an interface that engages an endoscope so the markers are within the field of view. A first calibration marker extends along a first plane of the target surface and a second marker extends along a second plane of the target surface. The planes are different and asymmetric relative to the field of view as seen through the endoscope. Three-dimensional targets, in particular, enable endoscopic calibration using a single image (or pair of images for a stereoscopic endoscope) to reduce the calibration process complexity, calibration time and chance of error as well as allow the efficient calibration of cameras at different focus positions.

The invention discloses an array substrate, a touch display panel and a touch display device. According to one embodiment, the array substrate comprises a substrate body, a plurality of metal layers, a touch control electrode layer and a plurality of touch control signal lines, wherein the substrate body has a display area and a non-display area, the metal layers are perpendicular to the substrate body and include the first metal layers and the second metal layers, the first metal layers are used for forming scanning lines of the array substrate, and the second metal layers are used for forming data lines of the array substrate; a plurality of pixel units are arranged in the display area and distributed into an array, the line direction of the pixel units is the extending direction of the scanning lines, and the row direction of the pixel units is the extending direction of the data lines; the touch control electrode layer comprises a plurality of touch control electrodes, the touch control signal lines are electrically connected with one touch control electrode and used for transmitting touch control signals to the touch control electrode, and the touch control signal lines and at least one metal layer are located on the same layer. In this way, the complexity of the manufacturing process of the array substrate can be reduced.

The invention discloses a brain-computer interface system based on an atom magnetometer, and a use method thereof. The invention combines the work characteristics of the atom magnetometer to design abrain magnetic cap and a magnetic shielding device with practicality; a scheme of separating an atom magnetometer probe from a light source is adopted to improve a system integration level; system probability is intensified; a brain magnetic signal processing process capable of greatly improving operation speed and reducing processing process complexity; and for scenes which may be applied by thesystem, a feasible commutation and peripheral support system is given. By use of the brain-computer interface system provided by the invention, the control of a local and remote application system isfinished conveniently through the brain magnetic signal, and the system owns practicality and good expansion performance.

The invention provides a display panel with a fingerprint identification function, a preparation method and a display device for achieving an OLED display with the fingerprint identification function, reducing the process complexity and saving the cost. The display panel with the fingerprint identification function provided by the invention comprises an array substrate, an anode layer, a pixel definition region, a plurality of organic light-emitting units, an isolating column, a reuse electrode layer, a second electrode layer and a cover plate, wherein the anode layer is located on the array substrate; the plurality of organic light-emitting units are surrounded by the pixel definition region; the pixel definition region and the organic light-emitting units are located on the anode layer; the isolating column is located on the pixel definition region; the reuse electrode layer is located on the isolating column and the organic light-emitting units; the reuse electrode layer comprises a cathode layer and a first electrode layer; the reuse electrode layer covering the isolating column is taken as a first electrode layer; the reuse electrode layer surrounded by the first electrode layer is taken as the cathode layer; the first electrode layer and the cathode layer are arranged on the same layer and are not connected with each other; the second electrode layer is located on the reuse electrode layer; and the cover plate is located on the second electrode layer.

The disclosure provides a flexible display substrate, a manufacturing method thereof and a flexible display device, aiming to reduce the technical difficulty and process complexity of preparing a stretchable display and reduce the cost. The manufacturing method includes the following steps: manufacturing multiple protrusions on a substrate; manufacturing a base film on one side of each of the multiple protrusions facing away from the substrate; manufacturing a display structure on the surface of the base film facing away from the substrate; peeling off the base film and the display structure from the substrate, and maintaining the multiple protrusions on the substrate after peeling off; and attaching the surface of the base film facing away from the display structure to an elastic base material, and stretching the elastic base material to ensure that the base film is broken at multiple recessed locations. The manufacturing method is applied to the manufacturing of stretchable display devices, and can promote the mass production of the stretchable display devices.

An array structure of single-level poly NMOS EEPROM memory cells and method of operating the array is discussed implemented in a higher density embedded EEPROM layout that eliminates the use of high voltage transistors from the array core region. If they are utilized, the high voltage transistors are moved to row and column drivers in the periphery region to increase array density with little or no added process complexity to allow economic implementation of larger embedded SLP EEPROM arrays. During program or erase operations of the array, the method provides a programming voltage for the selected memory cells of the array, and a half-write (e.g., mid-level) voltage to the remaining unselected memory cells to avoid disturbing the unselected memory cells of the array.

A high performance capability assessment model helps a revenue industry agency meet the challenges of the global marketplace. As a result, the revenue industry can achieve the clarity, consistency, and well-defined execution of core processes that reduce inefficiencies and waste that result from unnecessary process complexity and exceptions. In addition, the high performance capability assessment model helps the revenue industry agency to identify specific areas in which improvements may be made and understand how to make the improvements, and establishes levels of capability along the way to reaching an ultimate capability goal.

The invention provides a nano composite phase change material and a method for preparing the same, and belongs to the field of material application. The nano composite phase change material comprises the following components in weight portion: 10 to 15 portions of phase change material, 5 to 60 portions of layer-shaped silicate powder, and 20 to 70 portions of deionized water; the phase change point of the phase change material is between 20 and 80 DEG C; the phase change material is heated up to be completely melted; the layer-shaped silicate powder is dispersed in water by a high shear mixed emulsion machine to prepare layer-shaped silicate gel state aqueous dispersion; and the melted phase change material is added to the layer-shaped silicate gel state aqueous dispersion and stirred at high speed by the high shear mixed emulsion machine to obtain the nano composite phase change material with oil-in-water structure. The nano composite phase change material can be directly added to building base materials such as concrete, gypsum, thereby greatly reducing process complexity and preparation cost; moreover, the composite phase change material also has the advantages of simple preparation, large heat storage, and better application prospect.

The invention discloses a colorful transparent polished-glazed brick and a production method thereof. The production method for the colorful transparent polished-glazed brick comprises the following steps: enameling a dried ceramic blank, spreading one or more glazes in different colors and with different burning temperature and different refractive indexes on the brick blank, and performing calcining and profiling soft polishing treatment to obtain the brick. According to the colorful transparent polished-glazed brick and the production method thereof, the layering effects and transition of the surface of the colorful transparent polished-glazed brick are closer to those of a natural stone, and the grade of the product is improved to a certain extent; original color effects can be achieved without adding a coloring material, so that process complexity is reduced, the labor intensity of a worker is reduced, and the production efficiency is favorably improved, and the colorful transparent polished-glazed brick and the production method thereof are suitable for popularization and application.

An optimized trench capacitor structure which is useful as a decoupling capacitor or a storage capacitor can be manufactured without added process complexity. As an on-chip decoupling trench capacitor structure, the structure reduces the series resistance to outer and inner plates and results in an acceptable RC delay, while maintaining a high capacitance per unit area. As a storage capacitor with a buried shield, the trench capacitor structure exhibits high immunity to alpha particle and cosmic radiation induced failures. The trench capacitor structure which includes a buried n-well in a silicon substrate. A trench is formed in the substrate and extends through the buried n-well. A dielectric film is formed on an inner surface of the trench, and an inner plate formed as a polysilicon fill within the trench is connected to a surface n+ film formed during definition of peripheral source/drain contacts of the integrated circuit. An outer plate of the capacitor in the form of an out diffusion from the trench provides a low resistance electrical contact with the substrate. A number of these capacitors can be combined in a very efficient X-Y array of decoupling capacitors.

Semiconductor device structures that integrate field effect transistors and bipolar junction transistors on a single substrate, such as a semiconductor-on-insulator substrate, and methods for fabricating such hybrid semiconductor device structures. The field effect and bipolar junction transistors are fabricated using adjacent electrically-isolated semiconductor bodies. During fabrication of the device structures, certain fabrication stages strategically rely on block masks for process isolation. Other fabrication stages are shared during the fabrication process for seamless integration that reduces process complexity.

The present invention relates to a method to fabricate a flip chip substrate structure, which comprises: providing a carrier; forming a patterned resist layer on the surface of the carrier; forming sequentially a first metal layer, an etching-stop layer, and a second metal layer; removing the resist layer, forming a patterned first solder mask, and then forming at least one first circuit build up structure thereon; forming additionally a patterned second solder mask on the circuit build up structure; respectively removing the carrier, the first metal layer, and the etching-stop layer; and forming solder bumps on both sides of the circuit build up structure. The method increases integration and achieves the purpose of miniaturization. The method solves the problem of circuit layer multiplicity and process complexity.

Non-planar transistors, such as FINFETs, may be formed on the basis of a globally strained semiconductor material, thereby preserving a high uniaxial strain component in the resulting semiconductor fins. In this manner, a significant performance enhancement may be achieved without adding process complexity when implementing FINFET transistors.

The present disclosure provides a flexible display panel and a method of manufacturing the same, and a flexible display apparatus. The flexible display panel includes a flexible substrate, a display device, a driver chip and a connector, the connector is configured to electrically connect the flexible display panel to a system circuit board, the display device, the driver chip and the connector are all provided on the flexible substrate. In the flexible display panel, the flexible substrate is used in place of a conventional COF or FPC, such that physical and electrical connections between the flexible display panel and the system circuit board are achieved directly through the flexible substrate, thereby eliminating steps of manufacturing and bonding the FPC, improving system integration, while reducing process complexity of manufacturing the flexible display panel.

A high-performance capability assessment model helps a Medicaid program meet the challenges of the health market. As a result, the Medicaid program can achieve the clarity, consistency, and well-defined execution of core processes that reduce inefficiencies and waste that result from unnecessary process complexity and exceptions. In addition, the high-performance capability assessment model helps the Medicaid program to identify specific areas in which improvements may be made, to understand how to make said improvements, and to establish levels of capability along the way to reaching an ultimate capability goal.

By patterning a spacer layer stack and etching a cavity in an in situ etch process, the process complexity, as well as the uniformity, during the formation of embedded strained semiconductor layers may be significantly enhanced. In an initial phase, the spacer layer stack may be patterned on the basis of an anisotropic etch step with a high degree of uniformity, since a selectivity between individual stack layers may not be necessary. Thereafter, a cleaning process may be performed followed by a cavity etch process, wherein a reduced over-etch time during the spacer patterning process significantly contributes to the uniformity of the finally obtained cavities, while the in situ nature of the process also provides a reduced overall process time.