58results about How to "Improve material efficiency" patented technology

At least one or more of a conductive layer which forms a wiring or an electrode and a pattern necessary for manufacturing a display panel such as a mask for forming a predetermined pattern is formed by a method capable of selectively forming a pattern to manufacture a liquid crystal display device. A droplet discharge method capable of forming a predetermined pattern by selectively discharging a droplet of a composition in accordance with a particular object is used as a method capable of selectively forming a pattern in forming a conductive layer, an insulating layer, or the like.

This approach generally pertains to a miniature receptacle terminal with a connection section and a mating section. The mating section has a dual primary contact beam component that includes contact springs having resilient contact beams and a secondary beam. Each contact beam has a contact point opposing the opposing wall of the receptacle terminal, which can include a contact bump. A distributed and balanced contact force is exerted on a male terminal pin that is inserted between the primary contact beams and the contact bumps. Overstress protection of the contact spring is provided and the terminal is economical to produce.

A conventionally followed technique of manufacturing a liquid crystal display device is a method for forming various types of coatings over an entire surface of a substrate and for removing the coatings with a small region left by etching, which requires wasting a material cost and treating a large quantity of waste. A liquid crystal display device is manufactured by forming at least one or more of patterns necessary for manufacturing a liquid crystal display device by a method capable of selectively forming a pattern. A droplet discharge method capable of forming a predetermined pattern by selectively discharging a droplet of a composition prepared for a specific purpose is employed as the method capable of selectively forming a pattern.

The present invention provides an improvement in the process of producing energy from fuel cells. A cyclic reforming process, referred to as temperature swing reforming, provides an efficient means for producing a hydrogen containing synthesis gas for use in proton conducting solid oxide fuel cell applications. In one embodiment, at least some synthesis gas which is first produced in the temperature swing reforming process is combusted with air to provide the heat for the regeneration step of the temperature swing reforming process. The syngas produced in TSR is particularly well suited for use in proton conducting solid oxide fuel cell applications.

According to one aspect of the present invention, at least one or more of patterns required for manufacturing a display device, such as a conductive layer which forms a wiring or an electrode and a mask, is formed by a droplet discharging method. At that time, a portion of the gate insulating film where is not located under the semiconductor layer is removed during manufacturing steps of the present invention.

The invention discloses an automatic pushing platform for woodworking. The automatic pushing platform for woodworking is characterized by comprising a rack, first guide rails arranged on the rack, a pushing platform body matched with the first guide rails in a sliding mode, a power device which is connected with the pushing platform body and drives the pushing platform body to slide along the first guide rails, a wood positioning mechanism arranged on the pushing platform body, and a master controller which is connected with the power device and the wood positioning mechanism and used for controlling the power device and the wood positioning mechanism. The power device comprises a first pressure cylinder arranged on the rack, and a pressure rod of the first pressure cylinder is connected to one end of the pushing platform body. Manpower can be saved by half compared with the prior art; production efficiency is high; the possibility of occupational injuries is reduced, and safety performance is greatly improved.

The present invention provides an application method for cold field plasma discharge assisted high energy ball milled powder and a plasma assisted high energy ball milling device using the method for cold field plasma high energy ball milled powder. The present invention generates plasma by using dielectric barrier discharge and introducing a dielectric barrier discharge electrode bar into a high-speed vibrating ball milling tank, which requires that, on one hand, a solid insulation medium on the outer layer of the electrode bar can simultaneously bear high-voltage discharge and mechanical shock failure of the grinding ball, and on the other hand, the high-speed vibrating ball milling device can uniformly process the powder. Based on the ordinary ball milling technology, the discharge space pressure is set to a non-thermal equilibrium discharge state with a pressure of about 10² to 10⁶ Pa, discharge plasmas are introduced to input another kind of effective energy to the processed powder, so as to accelerate refinement of the powder to be processed and promote the alloying process under the combined action of the mechanical stress effect and the thermal effect of the external electric field, thereby greatly improving the processing efficiency and the effect of the ball mill.

This approach generally pertains to a miniature terminal receptacle (10) with a connection section (12) and a mating section (14). The mating section has a pseudo- two-beam component that includes a contact spring (20) having a stationary beam, a resilient contact beam (24) and a beam overlapping section (26). The resilient contact beam has a contact bump (40) and a stiffening section (30) with a pivotal point (38). The shape of the contact spring increases the contact engagement or holding force on a male pin during mating. Overstress protection of the contact spring is provided and the terminal is economical to produce.

The present invention belongs to the technical field of high throughput preparation and hot working of materials, and in particular to a high throughput micro-synthesis method of multi-component materials based on the temperature gradient field controlled by microwave energy. This invention, characterized by flexible material selection, quick temperature rising and high-efficient heating, uses microwave heating both to achieve quick preparation of small block combinatorial materials under the same temperature field in one time and to realize micro-synthesis under the different temperature gradient fields in one time including high-throughput sintering-melting and heat treatment of materials. This invention successfully overcomes drawbacks of current material preparation, such as unitary combination of components, low-efficient external heating, unique control temperature, huge material consumption and high cost during material preparation and heat treatment.

A method of manufacturing a ferroelectric thin film on a lower electrode by electrostatically spraying a ferroelectric thin film-forming sol-gel solution from a spout of a capillary toward the lower electrode of a substrate having the lower electrode so as to coat the sol-gel solution on the lower electrode and form a coated film, drying, calcining, and then firing the coated film so as to crystallize the coated film, in which a distance between the spout of the capillary and the lower electrode and an applied voltage during electrostatic spray are set so that a refractive index during drying and calcination of the coated film becomes 2 or more, and a film thickness sets in a range of 150 nm or less when the sol-gel solution is coated in a single spray process, calcined, and then fired so as to be crystallized.

A method for manufacturing a silicon carbide single crystal includes the steps of: setting a substrate as a seed crystal in a reactive chamber; introducing a raw material gas into the reactive chamber; growing a silicon carbide single crystal from the substrate; heating the gas at an upstream side from the substrate in a gas flow path; keeping a temperature of the substrate at a predetermined temperature lower than the gas so that the single crystal is grown from the substrate; heating a part of the gas, which is a non-reacted raw material gas and does not contribute to crystal growth, after passing through the substrate; and absorbing a non-reacted raw material gas component in the non-reacted raw material gas with an absorber.

Disclosed is a touch window. The touch window includes a substrate, a sensing electrode on the substrate, and a wire to electrically connect the sensing electrode, and a dummy part is provided in the wire. The touch window includes a substrate, a sensing electrode on the substrate, and a wire to electrically connect the sensing electrode. The wire includes a first wire part and a second wire part adjacent to the first wire part, and the first wire part has a directionality different from a directionality of the second wire part.

The present invention provides a three-degree-of-freedom hybrid vibratory screening mechanism, a control method thereof, and a harvester. The three-degree-of-freedom hybrid vibratory screening mechanism comprises a frame, a vibrating screen, a first driving mechanism, a second driving mechanism, sensors and a controller; parallel drive of hydraulic motors are used for achieving two-degree-of-freedom rotational adjustment of the horizontal attitude angle and inclination angle of the screen surface of the vibrating screen, and the first driving mechanism drives the vibrating screen to reciprocate in one degree of freedom, so as to realize three-degree-of-freedom vibration adjustment of the screen surface; a vibration parameter control model is established by means of theoretical analysis in combination with experiment. In the operating process, the sensors installed at the tail part of the vibrating screen monitor the loss rate and distribution of the grains in real time, and the horizontal attitude angle of the screen surface, inclination angle of the screen surface and vibration frequency are self-adaptively optimized and adjusted to promote uniform and discrete distribution of the material on the screen surface, so that the screening efficiency of the material under a condition of non-uniform material feeding is effectively improved and the loss rate of the grains is decreased.

A method and an apparatus for coating a substrate (7), in which a coating agent (9) is applied onto the substrate (7) in order to form a printing surface, and in which the coating agent (9) is brought into contact with the substrate (7) with a solids content above 80%, and the coating agent (9) is fixed to the substrate (7), the coating being performed during a printing process in a printing machine (10), between the input of the substrate (10) and the output of the printed matter (1), before the actual information (2, 3, 4) is printed.

The invention relates to a method for forming a crystallised silicon layer (2) having a crystallite size higher than or equal to 100 µm, by means of epitaxial growth in a vapour phase, on the surface of at least one silicon substrate (1), comprising at least the steps consisting in: (i) providing a silicon substrate (1) having a particle size higher than or equal to 100 µm and comprising a metal impurities content of between 0 ppb and 1 ppm by weight; and (ii) forming said silicon layer on the surface of said substrate heated to a temperature of between 1000 and 1300 °C, by decomposition of at least one silicon precursor by means of an inductive plasma torch (4), the surface (11) of said substrate for supporting the silicon layer (2) being positioned close to the outlet of the plasma torch in step (ii).

The invention relates to a carbon-coated TiO2 material and a preparation method therefor. The preparation method for the carbon-coated TiO2 material comprises the steps of providing a TiO2 precursor with a carbon source, roasting the TiO2 precursor with the carbon source by adopting a plasma process so as to deposit graphite carbon on the surface of TiO2 in situ and obtain the carbon-coated TiO2 material. The particle size of the carbon-coated TiO2 material is 8nm to 15nm, carbon coating the TiO2 is of a graphite carbon structure, and the mass of the carbon accounts for 20% to 75.5% the total mass of the carbon-coated TiO2 material. The preparation method for the carbon-coated TiO2 material is simple in process and short in preparation cycle, the efficiency of depositing the carbon on the surface of the TiO2 in situ can be increased, and the catalytic activity of the carbon-coated TiO2 material can be improved remarkably.

An efficient blue-green to orange-red thermally activated delayed fluorescence material, a manufacture method, and an application thereof are provided. This disclosure solves the technical problems in the art by cleverly synthesizing a series of thermally activated delayed fluorescence materials, which have lower singlet-triplet energy difference, high luminous efficiency, and fast reverse intersystem crossing constant, and simultaneously fine-tuning the structure to cover the spectrum from blue-green light to orange-red light. Further, their structures are confirmed by nuclear magnetic resonance and mass spectroscopy, and their photophysical properties are also determined. Therefore, these luminescent thermally activated delayed fluorescence (TADF) materials are applied to light-emitting layer for manufacturing a series of organic light-emitting diodes (OLEDs) having high performance, which have great application prospects and economic value.