341 results about "Partial heating" patented technology

A semiconductor wafer is processed while being supported without mechanical contact. Instead, the wafer is supported by gas streams emanating from a large number of passages in side sections positioned very close to the upper and lower surface of the wafer. The gas heated by the side sections and the heated side sections themselves quickly heat the wafer to a desired temperature. Process gas directed to the “device side” of the wafer can be kept at a temperature that will not cause deposition on that side section, but yet the desired wafer temperature can be obtained by heating non-process gas from the other side section to the desired temperature. A plurality of passages around the periphery of the wafer on the non-processed side can be employed to provide purge gas flow that prevents process gas from reaching the non-processed side of the wafer and the adjacent area of that side section.

The present invention is: a package main body section having a hollow section; and an electronic device provided in the hollow section in the package main body section, in the package main body section, there being formed a through hole, through which the hollow section communicates with outside of the package main body section, and in the through hole, there being provided a sealing section in which a vicinity of the through hole is partly heated and a constituent material of the package main body section is melted to thereby block the through hole.

A battery holding device is configured to hold a capacitor including at least one storage cell and includes a cell holder and a heater wire. The cell holder is provided at a side surface of at least one storage cell and has a concave-convex surface facing the at least one storage cell. The concave-convex surface has a protrusion contacting the at least one storage cell. At least a portion of the heater wire is embedded in the cell holder.

As part of a system for processing a workpiece by applying a controlled heat to the workpiece, a heating arrangement includes an array of spaced apart heating elements for use in a confronting relationship with the workpiece to subject the workpiece to a direct radiation that is produced. A radiation shield includes a plurality of members supported for movement between (i) retracted positions, which allow the direct radiation to reach the workpiece, and (ii) extended positions, in which the plurality of members cooperate in way which serves to at least partially block the direct radiation from reaching the workpiece and to absorb radiation emitted and reflected by the workpiece and thereby achieve greater control of the time-temperature profile than previously obtainable. At least certain ones of the members move between adjacent ones of the heating elements in moving those certain members between the retracted and extended positions. Tubular, curved and plate-like member configurations can be used.

A solar co-generator for producing both heat energy and electricity is disclosed. A solar concentrator directs sunlight into a container lined with solar cells and filled with a thermal transfer fluid. The fluid is transparent with respect to certain wavelengths of light that may be converted to electricity by the solar cell, but is opaque with respect to longer wavelengths, particular the infrared band. The infrared portion of the sunlight heats the thermal transfer fluid, which then transfer that heat through a storage facility using a heat exchange mechanism. The thermal transfer fluid increases the efficiency of photovoltaic generation by preventing heating of the solar cells due to infrared radiation. The thermal transfer fluid may be a mixture containing barium sulfate and a suspension of zinc sulfide phosphors. A fluorescing anti-reflective coating may be applied to the solar cells to further increase efficiency.

Disclosed herein are a fiber-reinforced heating unit (100) and a mattress comprising the fiber-reinforced heating unit (100) installed therein. The heating unit (100) comprises flexible filaments (11) woven vertically and horizontally in a net, a stiff synthetic resin filament (12) alternately woven with the flexible filament (11) in either a vertical direction or a horizontal direction, and copper wires (32) woven together with the flexible filaments (11) on the longitudinal edges at both sides and the center and the woven material is dipped in liquid carbon, followed by drying. The copper wires (32) on the both longitudinal edges are connected to positive (+) terminal (31, 51) and the copper wires at the center are connected to a negative (−) terminal (41). The carbon-coated woven material has coating layers (90) formed by compression or impregnation with a gel type flexible synthetic resin at the top and the bottom. The heating unit (100) can maintain an original net structure by the stiff synthetic resin filament (12) while maintaining flexibility. The heating unit (100) has excellent durability since the flexible filament (11) is not disconnected even when heating unit is bent or folded. Also, the heating unit (100) can provide partial heating by selectively applying electricity to the positive (+) terminals (31, 51) at the both edges.

A medical, electrically powered thermal cover for fitting predominantly the trunk and head of a person experiencing or potentially experiencing traumatic or cold-exposure hypothermia. The thermal cover encases all of the torso and neck, and portions of other body areas. Heating may be distinctly non-uniform, being applied to the body surface only in special regions where the body's capacity for heat uptake may be relatively high. In sum, the system may monitor deep body core temperature, direct heat to the body core where it may be most needed, and controls therapy over time to restore normothermia.

Embodiments of apparatuses and methods for controlling heat for rapid thermal processing of carbonaceous material are provided herein. The apparatus comprises a reactor, a reheater for forming a fluidized bubbling bed comprising an oxygen-containing gas, inorganic heat carrier particles, and char and for burning the char into ash to form heated inorganic particles. An inorganic particle cooler is in fluid communication with the reheater. The inorganic particle cooler comprises a shell portion and a tube portion. The inorganic particle cooler is configured such that the shell portion receives a portion of the heated inorganic particles and the tube portion receives a cooling medium for indirect heat exchange with the portion of the heated inorganic particles to form partially-cooled heated inorganic particles.

Provided is a shockless separation device for a space application configured to fix a deployment part to a satellite while launching the satellite, and shocklessly separate the deployment part from the satellite when the satellite enters its orbit in space. The shockless separation device includes a fastening projection, a fastening recess part and a heating part. The fastening projection part is provided in the deployment part. The fastening recess part is provided in the satellite, and formed of a shape-memory alloy such that the fastening projection part is inserted into the fastening recess part to be fixed before heating, and when the fastening recess part is heated to a transformation temperature or more, the inside of the fastening recess part is recovered to be expanded to separate the fastening projection. The heating part is controlled to heat the fastening recess part when the satellite enters its orbit in space.

Systems and methods for treating a subsurface formation are described herein. Some method include providing heat to a section of the formation from a plurality of heaters located in the formation, allowing the heat to transfer from the heaters to heat a portion of the section to a selected temperature to generate an in situ deasphalting fluid in the section, contacting at least a portion of the in situ deasphalting fluid with hydrocarbons in the section to remove at least some asphaltenes from the hydrocarbons in the section, and producing at least a portion of the deasphalted hydrocarbons from the formation. The in situ deasphalting fluid may include hydrocarbons having a boiling range distribution between 35° C. and 260° C. at 0.101 MPa. A majority of the hydrocarbons in the section may have a boiling point greater than 260° C. at 0.101 MPa.

Methods and apparatus are disclosed for reducing the degradation of heat sensitive components contained in a medical substance during heat sterilization of a heat sterilizable container including a first chamber including a first amount of a first medical substance and a second chamber including a second amount of a second medical substance, the first amount being greater than the second amount. The method includes heating the heat sterilizable container to a first predetermined temperature for sterilizing the first and second medical substances, thermally insulating the second chamber during at least a portion of the heating of the heat sterilizable container to the first predetermined temperature, holding the heat sterilizable container at the first predetermined temperature for a first predetermined time period, and cooling the heat sterilizable container thereafter.

The present invention relates to a device for treating the eye, including a body portion configured to be positioned adjacent the exterior surface of the cornea and a heating means for heating the body portion to a predetermined temperature to affect at least one of the following: facilitation of the escape of aqueous humor from the eye and substantially preventing coagulation of the corneal tissue, while substantially destroying tumor cells.

An inkjet recording device includes an image forming drum, a recording medium supplying section, a recording head which ejects ink onto a recording medium, a first heating unit which heats the recording medium held on the drum before image recording, a second heating unit which heats the drum downstream of the position at which the recording medium is outputted after image recording and upstream of the supplying section, a heating-unit temperature detector, a drum temperature detector, and a heating control section. The heating control section performs heat control of the first heating unit such that the temperature detected by the heating-unit temperature detector falls within a predetermined set temperature range, and performs heat control of the second heating unit such that the temperature detected by the drum temperature detector falls within a predetermined set temperature range.

A heat pump system for cooling (refrigeration) or heating is provided by employing a combination of natural media such as ammonia and CO2. The heat pump system (1) combines an ammonia cycle (2) and a CO2 cycle (3), and the CO2 medium in the CO2 cycle (3) is circulated, by natural circulation due to a difference of fluid heads of the CO2 medium in the cycle without the necessity of incorporating a compressor, and by partial heating or cooling of the cycle. The structural elements of the ammonia cycle (2) are located away from the devices for the desired refrigeration and heating.

An electronic cigarette includes an atomizer (26) having a coil-less heating element (4). The coil-less heating element (4) may include a heating section (6), two leads (3,3′) electrically connected to the heating section (6), and a liquid guiding structure. The liquid guiding structure includes two pads (13,13′), a first pad (13) and a second pad (13′) sandwiching at least a portion of the heating section (6). Optionally, the electronic cigarette further includes a gasket (21) which is placed between a liquid supply (34) and the first pad (13) such that liquid is conducted from the liquid supply to the first pad (13).

A welding equipment for metallic materials capable of performing heat treatment such as tempering based on partial heating in spot welding is provided. The welding equipment 1 sandwiches metallic materials 9 with a pair of electrodes 4, 4, and heats different regions of the metallic materials 9 by energization, with the pair of electrodes 4, 4 maintained at the same position with respect to the metallic materials 9. The welding equipment includes a first heating means 6 connected to the pair of electrodes 4, 4 for heating and welding the internal region of the circle defined by projecting the cross-sectional area of the axis of the electrodes on the metallic materials by applying power having a low first frequency, a second heating means 8 for heating a ring-shaped region along the circle by applying power having a second frequency that is higher than the first frequency, and an energization control unit 10 for independently controlling the first and the second heating means 6, 8.

A method for manufacturing a nonlinear superelastic file comprising the steps of: providing a superelastic file having a shaft and a file axis; providing a fixture including a file groove being defined by one or more displacement members, the file groove configured for receiving the shaft; inserting at least a portion of the shaft into the fixture along the file groove, the portion of the shaft including a first portion of the shaft; contacting the first portion of the shaft with a first displacement member of the one or more displacement members such that the first portion of the shaft is displaced from the file axis thereby forming a first offset portion of the shaft; heating the portion of the shaft while inserted in the fixture to a temperature of at least about 300° C. for a time period of at least about 1 minute to shape-set the portion of the shaft thereby forming a shape-set nonlinear file.

The embodiment of the invention provides a mobile terminal and a photographing device thereof. The photographing device comprises a camera module interface circuit. The camera module interface circuit is arranged on a mainboard and comprises a baseband circuit and an optical anti-shake drive module. The optical anti-shake drive module is connected with the baseband circuit. The photographing device also comprises an optical anti-shake camera module. The optical anti-shake camera module comprises an anti-shake motor module, a focus motor module, a Hall module and a camera module circuit board. The anti-shake motor module, the focus motor module and the Hall module are connected with the optical anti-shake drive module. The camera module circuit board comprises at least one image sensor module and a first gyroscope module. Each image sensor module is connected with the baseband circuit. The first gyroscope module is connected with the baseband circuit and the optical anti-shake drive module. According to embodiment of the terminal and the device, the partial heating problem and the inter-module interference problem of the optical anti-shake drive module can be effectively solved, the anti-shake performance of the camera is improved, the layout space is reduced, and the reliability and user experience are improved.

The injection stretch blow molding device includes an injection molding section that produces N (N is an integer equal to or larger 2) preforms by injection molding, a cooling section that subjects the N preforms transferred from the injection molding section to forced cooling, a heating section that continuously transfers and heats the N cooled preforms, and a blow molding section that subjects the N heated preforms to stretch blow molding in n (n is an integer equal to or larger than 2) operations, the blow molding section simultaneously stretch blow molding M (M=N/n, M is a natural number) preforms among the N preforms into M containers.