45results about How to "Smooth temperature" patented technology

Integrated glass ceramic spacecraft include a plurality of glass ceramic components including molded, tempered, annealed, and patterned glass ceramic components coupled together for forming a support structure or frame or housing through which is communicated optical signals through an optical communications grid and electrical signals through an electrical communications grid, with the optical communications grid and electrical communication grid forming a composite electrooptical communications grid for spacecraft wide intercommunications. The support structure multifunctions as a frame, a housing, a support, a thermal control system, and as part of an electrooptical communications grid while encapsulating a plurality of optical, electronic, electrical, and MEMS devices between which is communicated the electrical and optical signals over the electrooptical communication grid.

The invention is a drinking vessel that keeps coffee or other hot beverages hot, yet readily drinkable. The basic design of the invention is an inner beverage vessel and an outer beverage chamber with an insulator chamber of air between them. There is a small hole in the bottom of the inner beverage vessel which allows the contents to flow into the outer beverage chamber. When the drinker tips the cup to drink, beverage flows from the inner beverage vessel to the outer beverage surrounding the cup and pours out of a mouthpiece. The amount of liquid that fills the outer beverage chamber quickly cools enough to drink, but still remains warm. The insulator chamber keeps the beverage in the inner beverage vessel hot for a longer period of time. The lid for the cup is sealed to keep the contents warm but has a small pinhole to eliminate the build-up of a vacuum.

This invention relates to the vapor-phase oxidation of hydrocarbons by passing a gaseous mixture comprising of a molecular oxygen-containing gas and hydrocarbons which may contain substituents to a fixed bed of catalyst and provides a process for vapor-phase oxidation to be effected by passing a gaseous mixture of raw materials to a fixed bed of catalyst in which the void ratio of the catalyst layers increases by stages in one step or more from upstream downward in the flow of the gaseous mixture of raw materials. For example, the process can oxidize in vapor phase such hydrocarbons as naphthalene, xylene, benzene, toluene, durene, butene, acenaphthene, anthracene, indene and their derivatives in high yields with high productivity. Moreover, the process can prepare phthalic anhydride in high yields with high productivity by the vapor-phase oxidation of naphthalene or ortho-xylene.

An objective of the present invention is to provide a ceramic heater making it possible to heat an object to be heated, such as a silicon wafer, evenly. The ceramic heater of the present invention is a ceramic heater having and a resistance heating element formed on the surface of the ceramic substrate or inside the ceramic substrate, wherein: said ceramic heater is equipped with: a temperature-measuring means measuring the temperature of said ceramic substrate and an object to be heated; a control unit supplying electric power to said heating element; a memory unit memorizing the temperature data measured by said temperature-measuring means; and an operation unit calculating electric power required for said heating element from said temperature, said ceramic heater being constituted such that said heating element is divided into at least 2 or more circuits and different electric power is supplied to each of the circuits of said resistance heating element.

Methods of dehydrogenating hydrocarbons to yield unsaturated compounds are described. Reactor configurations useful for dehydrogenation are also described. Hydrocarbons can dehydrogenationed, for relatively long periods of time-on-stream, in a reaction chamber having a dimension of 2 mm or less to produce H2 and an olefin. Techniques have been developed that reduce coke and allow stable, relatively long-term operation in small reactors.

A polymer film having an initial thickness of 20 to 200 microns. A two-level micro pattern formed on at least one side of the film so that the polymer film has a base thickness less than the initial thickness of the film following the addition of the two-level micro pattern. A plurality of microfeatures defining the micro pattern wherein a height of the microfeatures on the film is in a range from about 0.3 to about 4 times the initial film thickness while maintaining the structural stability of the microfeatures to resist bending and provide increased grip against biological tissue and simultaneously providing reduced friction against dry hard plastic and metal surfaces.

A heat shield for a transition of a turbine engine for coupling a transition component of a turbine engine to a turbine vane assembly to direct combustor exhaust gases from the transition into the turbine vane assembly. The heat shield may be capable of reducing the temperature differential across a transition bracket extending from a transition component, thereby reducing the likelihood of premature failure of the bracket or the transition, or both. The heat shield may reduce the temperature differential by insulating the transition bracket and transition bracket rib from cooling gases. The heat shield may be formed from a tubular elongated body having first and second end attachments configured to attach the elongated heat shield body to the transition.

A shed type clothes dryer, especially a shed type clothes dryer with safety ventilating member is disclosed. The shed type clothes dryer with safety ventilating member includes a heat blower, air outlet shed with plural air outlets which are set on the heat blower, umbrella shape support frame with center supporting stand which is set on the air outlet shed, clothes drying chamber formed from outer cover around the support frame. The safety ventilating member is set on the air outlet shed. A hot air relaxation chamber is formed between said safety ventilating member and the air outlet shed. The shed type clothes dryer with safety ventilating member has the following advantages: 1. mounted safety ventilating member preventing the clothes from falling on hot air port to make consumer securely use it, 2. automatically stopping after the clothes been dried by humiture probe controlling the humiture to ensure the clothes not over drying and energy saving, 3. the temperature of the hot air current let in the clothes drying chamber being uniform at each position, and the air current being mild, thus obtaining excellent clothes drying effect.

Dual chambered container with partition space between the walls of the two chambers to prevent contents from reaching a uniform temperature; three interchangeable lids with flip up spouts: to pour or sip contents separately when spout is lifted up, to pour or sip contents mixed together when spout is lifted up, pour or sip from one chamber when flip up spout is lifted up and pick out snacks, chips etc from the other chamber; gasket between lid and bottle body to seal bottle and prevent leakage; stainless steel insert between the two content chambers so contents will reach uniform temperature or stainless steel clip sleeve to allow direct thermal contact between content of each chamber.

The present invention is related to an optimization method to internal combustion engines that reduces the fuel consumption and the exhaust emissions and particulated material. The operation principle is based in the introduction of small quantities of hydrogen in the air intake duct of the engine with the objective of optimizing the combustion of the traditional fuels, improving the parameters of the combustion reaction. This optimized combustion will increase the efficiency of the engine and reduce its environmental impact. The hydrogen is produced by an electrolysis reaction inside an electrochemical closed cell with non-circulating electrolyte.

The invention discloses a low-temperature vacuum drying box which comprises a box body, a working chamber disposed inside the box body and a box door disposed outside the box body. The low-temperature vacuum drying box is characterized in that the working chamber comprises a drying plate, a first-kind drying frame for placing the drying plate, a retaining plate disposed below the top of the working chamber, a radiating coil disposed below the first-kind drying frame, a water retaining strip disposed at the bottom, close to the box door, of the working chamber, and a second-kind drying frame located below the first-kind drying frame. The low-temperature vacuum drying box has the advantages that the inner top of the working chamber is semi-elliptical, the structure with four arc corners allows temperature in the box body to be smooth and even during heating, in the meantime, steam drops generated by drying can flow from two sides into the central bottom of the box body and be pumped out by a vacuum pump via a bottom draining hole and a vacuum connecting pipe, and dryness in the box is kept all the time.

An object of the present invention is to provide a ceramic heater for a semiconductor producing / examining device which is capable of accurately measuring the temperature of an object to be heated and evenly heating the whole body of a silicon wafer by adjusting the heating state of a heating element based on the temperature measurement result, and the ceramic heater for a semiconductor producing / examining device of the present invention is a ceramic heater including a ceramic substrate and a heating element formed on the surface or the inside of the ceramic substrate, wherein a temperature measurement element is formed while being brought into contact with the ceramic substrate and the surface roughness of the ceramic substrate brought into contact with the temperature measurement element is Ra≦5 μm.

A garment including a one-way inlet line including a desiccant to remove moisture from the user's breath, the inlet line being connected to a chamber formed by at least a portion of the front and back of the garment. The line extends through a portion of the garment to a designated location where warm air from the user's breath is distributed in the chamber. There is a second valve that the user operates to release the contained air, such as when one goes inside or when one wants to replenish the warm air after a period of time has passed.

The heart of the “New Home Cooling Cycle” is a concrete heat exchanger located under the home. The heat exchanger is constructed of concrete and PVC piping. There are two flow passes. Each is ninety degrees from the other. On a hot sunny day, heat absorbed by air inside the home is routed through one pass of the heat exchanger where the heat is removed by absorption into the concrete, thus removing heat from the home. Air is circulated using a small electric blower. Air leaving the heat exchanger is cool and is returned to the home ready to absorb heat again. The recycled air absorbs additional heat and the cycle is repeated through the heat exchanger. Regeneration of the heat exchanger is accomplished at night. Cool night air is blown, using a small electric blower, through the heat exchanger second pass, ninety degrees to the absorbing pass. This cooling air absorbs heat from the heat exchanger and exhausts it back to the night air. The two heat exchanger passes are totally isolated to prevent moisture from entering the house circuit. This same cycle is used during winter. On a sunny winter day, solar heat and heat from a wood burning fireplace is absorbed by air inside the home and is routed through the heat exchanger as in the summer cooling cycle. Heat is removed and stored in the heat exchanger and cooled air is returned to the home where the cycle repeats. At night, heat stored in the heat exchanger is routed into the home. During winter, there is no regeneration required for the heat exchanger. Usage of refrigerated air conditioning is radically reduced. In some United States climates, it may be possible to eliminate refrigerated air conditioning.

An exhaust gas denitrizer removes nitrogen oxides from rejoined exhaust gas using a denitrification reactor after supplying ammonia gas to the rejoined exhaust gas made up of main exhaust gas cooled by a fuel economizer by flowing through a main duct and bypass exhaust gas maintained at high temperature by flowing through a bypass duct adapted to bypass the fuel economizer. At a meeting place between the main exhaust gas and bypass exhaust gas in the main duct, three partition plates are installed with plate surfaces turned to an inflow direction of the bypass exhaust gas, partitioning a main exhaust gas channel into a plurality of subchannels. Upstream-side ends of the partition plates face the incoming bypass exhaust gas by being shifted from one another toward an upstream side of the main exhaust gas starting from an inflow side of the bypass exhaust gas.

Non-aqueous electrolyte secondary battery cell having safety and increased energy density, and battery using same. The cell is shaped as a rounded square tube. A core material for preventing electrolyte permeation is at the cell center, the core member being a hollow cylindrical insulator of square cross-section. A cell monitoring system such as a temperature sensor is provided in the hollow part of the core material. A cell base member including positive electrode member, separator, and negative electrode member of a non-aqueous electrolyte secondary battery is wound around the core material. Terminals made of electroconductive metal electrically connected to the collector of the positive electrode member or the collector of the negative electrode member are exposed to the cell exterior. The temperature sensor is attached to the center part of the hollow part of the core material in close contact with the core material.

A reactor including a bundle of catalyst tubes through which a reaction mixture is passed, and wherein a heat exchange medium is passed through a space surrounding the catalyst tubes and including ring lines at both reactor ends with jacket orifices for feeding in and removing the heat exchange medium by at least one pump. The heat exchange medium is fed to the upper ring line and is sucked in via the lower ring line by the at least one pump having at least one vertical pump shaft mounted and operated at its upper end. The at least one pump includes a diagonal rotor and a restrictor gap in the longitudinal direction of the at least one pump shaft, within the heat exchange medium, on the pressure side of the at least one pump for sealing and mounting the at least one pump shaft and reducing axial shear of the diagonal rotor.

The dual-chambered liquid container canteen of the present invention includes a dual-chambered container with a vertical partition separating each chamber, the dual-chambered liquid container of the present invention includes a dual-chambered container with a vertical partition separating each chamber, three interchangeable lids with two separate non-removable inner wall compartments that fits inside each chamber of the container and securely separate the liquids while ensuring proper positioning of the lid over each compartment. A gasket molded into the rim of the container and vertical partition of the container to ensure a liquid airtight seal between each chamber and the lid, a gasket molded into the rim of the container and vertical partition of the container to ensure a liquid tight seal between each chamber and the lid, each lid has release holes for venting the container chambers to atmosphere as liquids are dispersed from the container.