13416 results about "Chiller" patented technology

A cleaning apparatus (30) is connected to a treating chamber (12) of a CVD apparatus (10) for forming a silicon film. The cleaning apparatus (30) has a first, a second, and a third gas sources (32, 34, 36) and a chlorine gas, a fluorine gas, and an inert gas are introduced from the gas sources through FMC (38a, 38b, 38c), respectively, with flow rates controlled independently from one another. Those gases are gathered at a pipe (42) and mixed into a mixed gas. The mixed gas is passed through a heated reactor (44) such as a heat exchanger to thereby react the chlorine gas with the fluorine gas and form a formed gas containing fluorinated chlorine gas such as CIF3. The formed gas is supplied to the treating chamber (12) through a cooler (46), an analyzer (48) and a buffer (54).

An integrated system for baking and chilling wafers includes a heater for heating a wafer to an elevated temperature, a chiller for cooling the wafer, and a shuttle operatively connected to the heater and the chiller for transferring the wafer between the heater and the chiller. The chiller further includes a low thermal mass wafer support for providing support to a bottom surface of a wafer and a chill plate coupled to the low thermal mass wafer support for cooling the wafer. The low thermal mass wafer support has a higher thermal conductivity in the plane parallel to the bottom surface of the wafer than in the direction perpendicular to the bottom surface of the wafer. The low thermal mass wafer support can further include a plurality of proximity pins for supporting the wafer.

What has been created is a plurality and a variety of processes and a variety of devices correspondingly supportive to each process, wherein, a new partnership between; (1) a heat absorbing radiator compressed air pipes / tubes and (2) a gas turbine engine or a reciprocating piston engine,—is used to recapture and reconvert the, otherwise wasted, heat energies expelled by engines, by factories, by smelting plants, by distillation plants, by chillers / coolers / freezers, by cooking ovens, by lamps / stoves, by trash burners, and the heat energies created by the solar heat on the desert / ocean water,—into electric power and finally into hydrogen-deuterium fuel,—by having the engine's tailpipes submerged in cold compressed air inside the heat absorbing radiator pipes in reverse air flow, to further drive and re-drive the same engine; wherein, in order to capture fusion heat energy the hydrogen bomb is detonated in the deep ocean to catch the flames by the water and the hot water is used to energize the compressed air inside the heat absorbing radiator pipes; wherein, in order to produce fusion energy, an abundant electric arc is passed across liquid deuterium or across gaseous deuterium by the electro-plasma torch and sparkplug in the internal combustion engine, and by detonating a dynamite inside a liquid deuterium; wherein diamond is produced by placing carbon inside the hydrogen bomb; and wherein, deuterium fusion flame is used first in smelting glass to large sizes before running an engine.

A system is described for removing heat from a subject's subcutaneous lipid-rich regions, such as tissues, organs, cells, and so forth. In various embodiments, the system includes a controller, a computing device, a data acquisition device, a chiller, and one or more applicators. The system can employ these components to receive a selection of a treatment profile and apply the selected treatment using an applicator. The system provides various user interfaces.

A compound cycle engine system has a rotary engine, which rotary engine generates exhaust gas. The system further has a compressor for increasing the pressure of inlet air to be supplied to the engine to a pressure in the range of from 3.0 to 5.0 atmospheres and an intercooler for providing the inlet air to the engine at a temperature in the range of from 150 to 250 degrees Fahrenheit. The system further has one or more turbines for extracting energy from the exhaust gas. The Miller Cycle is implemented in the rotary engine, enabling the compression ratio to be lower than the expansion ratio, allowing the overall cycle to be optimized for lowest weight and specific fuel consumption.

A portable cooler having one or more ice sheets including built-in refrigerant cubes. The cooler comprises an outer fabric shell and one or more sets of spaced apart refrigerant cubes encapsulated in plastic to form ice sheets that are attached to the interior walls of the cooler. The walls of the cooler may also include one or more layers of thermal insulation. The ice sheets provide a visually pleasing appearance to the inside of the cooler suggestive of cooling effects. The ice sheets may be retained along the walls of the cooler by seams sewn along the lanes passing between the refrigerant cubes, by being retained in pockets formed by sidewall liners or by being secured into chambers defined by the cooler's outer walls and a plastic insert fitted into the cooler. The cooler may include a hinged top and bottom that can be folded flat for allowing the cooler to assume a compact configuration during storage or freezing of the refrigerant cubes.

Methods and apparatuses for temperature modification of a patient, or selected regions thereof, including an induced state of hypothermia. The temperature modification is accomplished using an in-dwelling heat exchange catheter within which a fluid heat exchange medium circulates. A heat exchange cassette is attached to the circulatory conduits of the catheter, the heat exchange cassette being sized to engage a cavity within a control unit. The control unit includes a heater / cooler device for providing heated or cooled fluid to a heat exchanger in thermal communication with the fluid heat exchange medium circulating to the heat exchange catheter, a user input device, and a processor connected to receive input from various sensors around the body and the system. A temperature control scheme for ramping the body temperature up or down without overshoot is provided.

Air conditioning chiller operating efficiency is evaluated in response to chiller operating parameters input to a computing device which calculates separately the efficiencies of the condenser and evaporator components of the chiller. Additional efficiency calculations are performed to identify specific causes of inefficiency in the condenser and evaporator. The computing device also adjusts the efficiency calculations as appropriate to account for actual compressor current load conditions. The device determines whether chiller efficiency is being compromised by poor performance of one or more chiller components, calculates inefficiency values, estimates the cost of the inefficiency, identifies specific causes of the inefficiency, and suggests appropriate remedial actions to restore maximum efficiency of the chiller.

A refrigerator includes a first compartment, a second compartment and a multi-functional compartment that is disposed between the first compartment and the second compartment and is adjustable between temperature modes selected from the group consisting of a fresh food temperature mode, a soft freeze mode, a freezer mode and a chiller temperature mode.

A portable cooler is provided for heat exchange catheters that is powered by one or more batteries. The cooler can include Rankine cycle compressor components or thermoelectric cooler (TEC) components. The cooler can be carried in an ambulance and used to support coolant to an indwelling heat exchange catheter that is placed in the patient's venous system to prevent fever and / or induce therapeutic moderate hypothermia in, e.g., stroke victims, heart attack victims, and cardiac arrest victims.

A cooling system for providing conditioned air to a facility includes a chiller or other cooling subsystem, a cooling tower subsystem and one or more air handling units or process cooling units. The cooling subsystem may advantageously include one or more chillers (e.g., variable speed chillers, constant speed chillers, absorption chillers, etc.) and chilled fluid pumps. The cooling tower subsystem includes one or more cooling tower units and condenser fluid pumps. In some implementations, the air handling unit has a cooling coil and a variable volume fan. In some implementations, direct expansion (DX) cooling systems comprise compressors, evaporators and air-cooled, water-cooled or evaporatively-cooled condensing systems. Such systems can be controlled to reduce energy waste, improve occupant comfort and / or improve the thermal characteristics of the process cooling unit. The cooling system further comprises a control system which is configured to evaluate a cooling load value at the air handling unit and use the cooling load value to calculate at least one operational setpoint. The operational setpoint may advantageously be selected to improve the energy efficiency of the overall cooling system.

An integrated heat exchange system on a microfluidic card. According to one aspect of the invention, the portable microfluidic card has a heating, cooling and heat cycling system on-board such that the card can be used portably. The microfluidic card includes one or more reservoirs containing exothermic or endothermic material. Once the chemical process of the reservoir material is activated, the reservoir provides heat or cooling to specific locations of the microfluidic card. Multiple reservoirs may be included on a single card to provide varying temperatures. The assay chemicals can be moved to the various reservoirs to create a thermal cycle useful in many biological reactions, for example, Polymerase Chain Reaction (PCR) or rtPCR. According to another aspect of the invention, the integrated heat exchanger is an adjacent microfluidic circuit containing fluid that is either independently heated or cooled, or is an exothermic or endothermic material, such that the fluid in the adjacent circuit imparts a change in temperature to the assay fluid in an independent circuit. According to yet another aspect of the invention, a thermal electric cooler (TEC) is used for thermocycling the amplification chamber of a disposable microfluidic card.

Thermal energy derived from a low temperature heat source is stored in one reservoir above ambient temperature and in another reservoir below ambient temperature for use in driving an organic Rankine cycle engine to produce electricity. The organic Rankine cycle engine may utilize an organic working fluid that boils below or near ambient temperature. Solar energy may be used to power a heat pump or chiller that provides the hot and cold storage fluids stored in hot and cold reservoirs for use in the organic Rankine cycle engine.

A cooler is provided which has various improvements. The cooler may be a passive cooler or may be actively cooled for providing desirable cooling effects. The cooler may include an accessory system, for example, with bottle or can holders or a post holder which utilizes the weight of the cooler to support a sunshade. The accessory system may be positioned in various locations of the cooler, one location being in a recess which is utilized to open the cooler lid. The smart cooler may also comprise a cushion assembly which may be placed on an upper surface of the lid and may have straps to retain the cushion on the lid. The lid may be formed to accept and retain a cushion retaining feature so that the cushion does not excessively move from the top surface of the lid.

A portable temperature changing apparatus for containers includes a cylindrical annular moisture-proof pouch divided into a first compartment filled with a liquid and a second separate compartment holding a solid material capable of producing an endothermic or exothermic reaction upon mixing with the liquid. The seal separating the two separate compartments can be ruptured partially, when desired, enabling communication of the liquid with the solid to activate the temperature altering reaction. A flexible foam insulating layer surrounds the exterior of the annular cylindrical pouch providing insulation, damage protection, and labeling.

A module for cooling a heat generating element comprising a heat receiving plate thermally connected to at least one heat generating element; a heat transfer device one end portion of which is thermally connected to the heat receiving plate and other end portion of which is thermally connected to a heat dissipating plate; a thermoelectric cooler one face of which is thermally connected to one face of the heat dissipating plate; a first heat sink thermally connected to other face of the heat dissipating plate; and a second heat sink thermally connected to other face of said thermoelectric cooler.

An insulated beverage holder formed from neoprene and including a seal located at the upper opening of the housing. The seal can extend above the housing and can include an upper insertion portion and a lower sealing portion. The insertion portion helps ease the insertion of a beverage container into the holder and the sealing portion produces a watertight seal of the holder to the beverage container. An ice and water mixture can be placed into the holder prior to inserting the beverage container to provide cooling of the beverage while it is being consumed.

Stowable Cooler with insulated walls, resealable mechanical devices, a stowing medium, and an access lid. A preferred embodiment includes the insulated walls having a soft or semi-rigid construction. The lower edges of the insulated walls are permanently secured to the stowing medium forming a flexible bond. The side edges of the insulated walls each feature at least one half of at least one resealable mechanical device. The lower edges of each resealable mechanical device are secured to the stowing medium. The stowable cooler has a stowing mode and a usage mode. The stowing mode is true when the sealable mechanical devices are unsealed, and the usage mode is true when the sealable mechanical devices are sealed. The stowing medium is of sufficient volume to house the insulated walls while in stowing mode in a plurality of overlapping flats.

A system for remotely monitoring operations of an HVAC system such as a chiller system having a control center, or a rooftop unit. The system utilizes a remote monitoring unit (RMU) located on-site. The RMU is in one-way communication with the component of the air conditioning system and receives data indicative of the operation of the component and determines whether the component is operating outside the normal operating parameters. When the RMU determines, from the data, that there is a problem that is within a critical parameter range, then a critical alarm is generated and the RMU opens a line of communication with a remote monitoring diagnostics device (RMD) located at the facility of the HVAC or refrigeration manufacturer and downloads the information to the RMD which determines whether remedial action is required and initiates remedial action if required.

An illuminating beverage container cooler. The sleeve of the cooler is made of a flexible thermally insulating material, such as neoprene, and the base of the cooler is made of a rigid material with lights and necessary batteries installed within a containment compartment in said base. The lights, when turned on, result in the portion of the bottle above the insulating cylindrical sleeve sidewalls being illuminated. The illuminating cooler also functions as a flashlight when the beverage container is removed.

A HVAC and battery thermal system and method for a vehicle having a passenger cabin and a battery pack is disclosed. The system may comprise a refrigerant loop and a coolant loop. The refrigerant loop includes a first leg and a second leg, the first leg including an expansion device and an evaporator, and the second leg including an expansion device and a chiller. The coolant loop directs coolant through the battery pack and includes a controllable coolant routing valve, a bypass branch and a chiller branch, with the chiller in the chiller branch. The coolant routing valve has a bypass outlet that directs the coolant into the bypass branch and a chiller outlet that directs the coolant into the chiller branch. The coolant loop may also include a radiator branch and battery radiator, with the coolant routing valve including a radiator outlet that directs the coolant into the radiator branch.

An insulated container, such as a cooler or ice chest, with a hardside interior and a softside exterior is disclosed that has the benefits of softside coolers, such as the ability to include pockets and pouches, as well as the benefits of hardside coolers (e.g. protection to the contents inside and rigid attachment of wheels, handles, etc.) The softside exterior may be directly connected to the hardside interior, for example by sewing. The cooler may have a lid hingedly attached to the liner, and the lid may be hard plastic including a softside exterior on the top of the lid. The cooler may have wheels and an extendable handle attached to the hardside interior to aid in transportation of the cooler in some embodiments.

The icemaker presented here may use a microcontroller, and solid state refrigeration and heat transfer elements to create ice cube qualities ranging from “clear ice” to “fast ice” in a smooth, user selectable continuum. In one embodiment, this may be accomplished by fitting a standard, high production volume icemaker mold with (1) thermoelectric coolers operated in a controlled fashion to heat or cool the mold, (2) a mold temperature sensor (such as a thermistor), and (3) a microcontroller to monitor the process and to adjust the growth rate of ice forming in the mold by adjusting heat transfer rates to optimize particular cooling phases.

The technology described herein provides a combination beverage cooler and car seat cooler for simultaneously cooling food, beverages, and the like and cooling an unoccupied car seat. The combined cooler includes an insulated container having a back panel and a front panel opposite one another, a left side panel and a right side panel opposite one another and extended between the back and front panels, the back, front, left, and right panels integrally formed with a bottom panel, thereby defining an interior cavity for receipt of an at least one item to cool, and a sealable lid being sealable with the back, front, left, and right panels and hingedly connected to the rear panel and an insulated cover for thermally protecting an unoccupied car seat, the cover having a flexible thermal barrier and being foldably attached to the insulated container to provide a combined beverage cooler and car seat cooler.

A soft thermally insulated padded shell housing a rigid infrastructure with a series of horizontal shelves forming compartments which are vertically aligned, and includes a pair of opposing vertical and vented walls with shelve support brackets. The pair of vertical and vented walls has a paired series of mating horizontal tracks to receive horizontal slide-in shelves in a spaced vertical array. Each of the pair of tracks are horizontally aligned to form complementary ledges that receive and support the outer edges of the slide-in shelves. The shelves may be releasably attached within tracks of the side walls of the compartment, having snapping receptacles to ensure a snug fit. When the shelves are not in use as being placed within the receiving tracks, the space within the infrastructure is substantially unobstructed and can be used to store various items. Also, the infrastructure and insertable shelves are easily and conveniently removable so that the bag may be folded for storage. Narrow side compartments, immediately adjacent to the vertical, vented walls, house coolant containers. Further, the top section of the infrastructure has segmented compartments arrayed in a horizontal fashion to accommodate a variety of food supplements in pill and powder form. Separate from the rigid infrastructure, but adjoined to the soft thermal insulated padded shell, are other soft compartment housing beverage containers, fruit, silverware, and bulk protein powder storage.

A cooler for holding two cans, particular beverage cans containing beer, soft drinks or the like, in a stacked or tandem arrangement. The cooler holds the cans snuggly, keeping them safe from bumps and the like, and also insulates the cans to preserve cold or hot temperature of can contents as long as practicable. The cooler has a cylindrical configuration including a body with an open top, a closed bottom, and an interior space. The body has a cylindrical sleeve and a bottom, which is either in the form of a separate panel or unitary with the sleeve. The bottom has an aperture for preventing or reducing vacuum on the inside of the cooler.

Various systems and methods are described for a charge air cooler coupled to an engine. One example method comprises collecting condensate discharged from the cooler in a condensation trap coupled to an outside surface of a bend in an outlet duct of the cooler; during a first condition, temporarily storing the condensate in a reservoir of the condensation trap; and, during first and second conditions, releasing the condensate to the outlet duct in a direction of airflow via a tube.

A portable cooler stacking system is provided, where portable coolers of different shapes and sizes can be optimally and stably stacked. The cooler system can include a first cooler having a first size and a second cooler having a second size, where the first and second sizes are different. A pair of second coolers can be stacked on the first cooler, where the second coolers are positioned widthwise along the length of the lid of the first cooler. In this manner, an inner length of the top surface of the lid of the first cooler is slightly greater then the width of a lower portion the second coolers and the inner width of the top surface of the lid of the first cooler is greater then two times the width of the lower portion of the second coolers. As such, two second cooler can be positioned widthwise along the length of the lid of the first cooler. The adjacent position of the second coolers and the interlocking surfaces substantially limit the horizontal movement of the pair of second coolers on the lid of the first cooler.