mhurhangee/ep-ind-claims huggingface dataset:
An environmental control unit for use with a transport container, the environmental control unit being configured to be removably connected to the transport container, and comprising: a thermoelectric device; a fan configured to blow air across the thermoelectric device; a cooling module configured to receive the air blown across the thermoelectric device and convey the air to a compartment of the transport container when the transport container is removably connected to the environmental control unit; a controller in electronic communication with the thermoelectric device and the fan; and a communication module in electronic communication with the controller, wherein the communication module is configured to transmit parameters of the environmental control unit to a computing device through wireless communication; wherein the controller is configured to: determine a present location of the transport container; determine a destination of the transport container; and evaluate an internal temperature of the transport container; characterized in that the controller is further configured to: control an on or off condition of the thermoelectric device based on the present location, the destination, and the internal temperature of the transport container. a thermoelectric device; a fan configured to blow air across the thermoelectric device; a cooling module configured to receive the air blown across the thermoelectric device and convey the air to a compartment of the transport container when the transport container is removably connected to the environmental control unit; a controller in electronic communication with the thermoelectric device and the fan; and a communication module in electronic communication with the controller, wherein the communication module is configured to transmit parameters of the environmental control unit to a computing device through wireless communication; wherein the controller is configured to: determine a present location of the transport container; determine a destination of the transport container; and evaluate an internal temperature of the transport container; characterized in that the controller is further configured to: control an on or off condition of the thermoelectric device based on the present location, the destination, and the internal temperature of the transport container. determine a present location of the transport container; determine a destination of the transport container; and evaluate an internal temperature of the transport container; characterized in that the controller is further configured to: control an on or off condition of the thermoelectric device based on the present location, the destination, and the internal temperature of the transport container.
A housing for a fuel system component, comprising: a body defining an interior and having an inlet leading into the interior and an outlet leading from the interior, wherein at least one of the inlet and the outlet is defined by a port (22, 24) through a wall of the body and a fitting (40, 42) defining a passage (48, 50) open to the port (22, 24), the fitting (40, 42) have a portion extending from the port (22, 24) that is not circular in cross-section; wherein the fitting (40, 42) has a proximal end extending from a root at the body, a distal end spaced from the body and a bend between the proximal end and the distal end; wherein the port (22, 24) and at least a portion of the passage (48, 50) in the fitting (40, 42) are ovals comprising a minor dimension that extends generally radially relative to an axis of the housing. a body defining an interior and having an inlet leading into the interior and an outlet leading from the interior, wherein at least one of the inlet and the outlet is defined by a port (22, 24) through a wall of the body and a fitting (40, 42) defining a passage (48, 50) open to the port (22, 24), the fitting (40, 42) have a portion extending from the port (22, 24) that is not circular in cross-section; wherein the fitting (40, 42) has a proximal end extending from a root at the body, a distal end spaced from the body and a bend between the proximal end and the distal end; wherein the port (22, 24) and at least a portion of the passage (48, 50) in the fitting (40, 42) are ovals comprising a minor dimension that extends generally radially relative to an axis of the housing.
A method for wireless communication, performed by a terminal device, and comprising: for a same slice, a same frequency point and different cells, when frequency point priorities of the frequency point for the different cells are different, determining a first frequency point priority of the frequency point according to a first rule, wherein the first frequency point priority is used by the terminal device to perform cell reselection, and wherein the first rule comprises: determining the first frequency point priority according to channel qualities of the different cells and the frequency point priorities of the frequency point for the different cells, comprising: selecting a cell with the highest channel quality among the different cells, and determining the frequency point priority of the frequency point for the cell with the highest channel quality as the first frequency point priority. for a same slice, a same frequency point and different cells, when frequency point priorities of the frequency point for the different cells are different, determining a first frequency point priority of the frequency point according to a first rule, wherein the first frequency point priority is used by the terminal device to perform cell reselection, and wherein the first rule comprises: determining the first frequency point priority according to channel qualities of the different cells and the frequency point priorities of the frequency point for the different cells, comprising: selecting a cell with the highest channel quality among the different cells, and determining the frequency point priority of the frequency point for the cell with the highest channel quality as the first frequency point priority.
A method for use in an IEEE 802.11 relay access point, R-AP, for reporting an association of an end-station, end-STA, with the R-AP in a relay transmission, the method comprising: assigning, by the R-AP, a first identifier to the associated end-STA; transmitting the assignment of the first identifier to the associated end-STA; wherein traffic indication map, TIM, indications for the associated end-STA in a beacon from the R-AP follows the transmission of the first ID assignment; transmitting a message to a root access point, AP, of the relay transmission that enables the root AP to associate the associated end-STA with the R-AP, the message including: an indication of a number of information fields in the message; and a number of information fields identified by the indication, each information field including a unique identifier associated with a respective indicated end-STA associated with the R-AP. assigning, by the R-AP, a first identifier to the associated end-STA; transmitting the assignment of the first identifier to the associated end-STA; wherein traffic indication map, TIM, indications for the associated end-STA in a beacon from the R-AP follows the transmission of the first ID assignment; transmitting a message to a root access point, AP, of the relay transmission that enables the root AP to associate the associated end-STA with the R-AP, the message including: an indication of a number of information fields in the message; and a number of information fields identified by the indication, each information field including a unique identifier associated with a respective indicated end-STA associated with the R-AP. an indication of a number of information fields in the message; and a number of information fields identified by the indication, each information field including a unique identifier associated with a respective indicated end-STA associated with the R-AP.
An electric pickup device for a bagpipe stock, the electric pickup device comprising a stock; a sensor adhered or embedded within an indented groove in an inner wall of the stock, said indented groove having a hole extending between said inner wall of said stock and an outer wall of said stock; and a wire extending from said sensor to a jack house mounted on the outer wall of said stock. a stock; a sensor adhered or embedded within an indented groove in an inner wall of the stock, said indented groove having a hole extending between said inner wall of said stock and an outer wall of said stock; and a wire extending from said sensor to a jack house mounted on the outer wall of said stock.
A method for operating a clothes treating apparatus having a dry function for drying the clothes by supplying heated air into the interior of a tub, the method comprising: - a temperature increasing step of increasing temperature of a dry target; - a maintaining step of maintaining temperature of the dry target at a certain level; and - a cooling step of lowering temperature of the dry target, - wherein in the temperature increasing step and the maintaining step, a rotation speed of the tub in one rotation direction is periodically changed from a first speed to a second speed; characterized in that - the first speed is a speed at which the dry target is tightly attached to the tub by centrifugal force so as to be rotated together with the tub when the tub is rotated, and the second speed is a speed at which the dry target is separated from the tub by self-weight when the tub is rotated; - in the maintaining step, the amount of supplied heat by a heater is periodically changed according to a periodical change in the rotation speed of the tub; and - the amount of supplied heat by the heater is reduced at the first speed and the amount of supplied heat by the heater is increased at the second speed. - a temperature increasing step of increasing temperature of a dry target; - a maintaining step of maintaining temperature of the dry target at a certain level; and - a cooling step of lowering temperature of the dry target, - wherein in the temperature increasing step and the maintaining step, a rotation speed of the tub in one rotation direction is periodically changed from a first speed to a second speed; characterized in that - the first speed is a speed at which the dry target is tightly attached to the tub by centrifugal force so as to be rotated together with the tub when the tub is rotated, and the second speed is a speed at which the dry target is separated from the tub by self-weight when the tub is rotated; - in the maintaining step, the amount of supplied heat by a heater is periodically changed according to a periodical change in the rotation speed of the tub; and - the amount of supplied heat by the heater is reduced at the first speed and the amount of supplied heat by the heater is increased at the second speed.
A method carried out by a user equipment of acquiring system information or a synchronization signal, the method comprising: receiving, from a network node, a plurality of sub frames, wherein each subframe of the plurality of subframes includes a repetition of either system information or a synchronization signal, the repetition of the system information or synchronization signal is divided into a number N of transmission blocks in a frequency domain of a first bandwidth, wherein N is an integer greater than one; and combining N transmission blocks from one or more repetitions of the respective received plurality of subframes to decode the system information or synchronization signal; wherein the user equipment comprises a narrowband wireless device operable to receive a bandwidth less than the first bandwidth, and combining N transmission blocks to decode the system information or synchronization signal comprises combining at least one transmission block from two or more repetitions of two or more respective subframes of the plurality of subframes, and wherein repetitions of the system information or synchronization signal include the N transmission blocks in a different order within the frequency domain, and combining at least one transmission block from two or more repetitions of two or more respective subframes of the plurality of subframes comprises combining transmission blocks at a same frequency for each subframe of the plurality of subframes until the user equipment receives all N of the transmission blocks in the frequency domain. receiving, from a network node, a plurality of sub frames, wherein each subframe of the plurality of subframes includes a repetition of either system information or a synchronization signal, the repetition of the system information or synchronization signal is divided into a number N of transmission blocks in a frequency domain of a first bandwidth, wherein N is an integer greater than one; and combining N transmission blocks from one or more repetitions of the respective received plurality of subframes to decode the system information or synchronization signal; wherein the user equipment comprises a narrowband wireless device operable to receive a bandwidth less than the first bandwidth, and combining N transmission blocks to decode the system information or synchronization signal comprises combining at least one transmission block from two or more repetitions of two or more respective subframes of the plurality of subframes, and wherein repetitions of the system information or synchronization signal include the N transmission blocks in a different order within the frequency domain, and combining at least one transmission block from two or more repetitions of two or more respective subframes of the plurality of subframes comprises combining transmission blocks at a same frequency for each subframe of the plurality of subframes until the user equipment receives all N of the transmission blocks in the frequency domain.
A process comprising: shearing a first nanogas solution into an oil-in-water micro emulsion; breaking the oil-in-water micro emulsion and forming a water-in-oil macro emulsion, a water phase, and a solids phase, where the water-in-oil macro emulsion is carried on the water phase; and collecting oil from the water-in-oil macro emulsion; wherein the first nanogas solution consists essentially of a homogeneous mixture of nanobubbles and water. shearing a first nanogas solution into an oil-in-water micro emulsion; breaking the oil-in-water micro emulsion and forming a water-in-oil macro emulsion, a water phase, and a solids phase, where the water-in-oil macro emulsion is carried on the water phase; and collecting oil from the water-in-oil macro emulsion; wherein the first nanogas solution consists essentially of a homogeneous mixture of nanobubbles and water.
An epoxy resin curing agent characterized by being a reaction product of the following and only: metaxylylenediamine or paraxylylenediamine; an unsaturated carboxylic acid represented by the following formula and/or derivatives thereof: wherein R 1 represents an alkyl group having 1 to 8 carbon atoms, an aralkyl group having 1 to 8 carbon atoms or an aryl group. metaxylylenediamine or paraxylylenediamine; an unsaturated carboxylic acid represented by the following formula and/or derivatives thereof: wherein R 1 represents an alkyl group having 1 to 8 carbon atoms, an aralkyl group having 1 to 8 carbon atoms or an aryl group.
A lead correction method comprising: an imaging step of imaging a lead (P1, P2) of a component with leads (P1, P2) to be mounted on a printed circuit board; a determination step of determining whether or not a position of the lead (P1, P2) imaged in the imaging step is within an allowable tolerance; and a correction step of correcting the position of the lead (P1, P2) when it is determined that the position is outside the allowable tolerance in the determination step, wherein the imaging step and the determination step are performed again after the correction operation in the correction step, and when the lead (P1, P2) position is not corrected so as to be within the allowable tolerance, the imaging step, the determination step, and the correction step are repeated, characterized in that the component is configured such that the lead (P1, P2) is inserted into a lead insertion hole in the printed circuit board when the component is mounted on the printed circuit board, the allowable tolerance is for inserting the lead (P1, P2) into the lead insertion hole, and the imaging step, the determination step, and the correction step are repeated up to a maximum number of allowable times of a correction operation which is set in advance. an imaging step of imaging a lead (P1, P2) of a component with leads (P1, P2) to be mounted on a printed circuit board; a determination step of determining whether or not a position of the lead (P1, P2) imaged in the imaging step is within an allowable tolerance; and a correction step of correcting the position of the lead (P1, P2) when it is determined that the position is outside the allowable tolerance in the determination step, wherein the imaging step and the determination step are performed again after the correction operation in the correction step, and when the lead (P1, P2) position is not corrected so as to be within the allowable tolerance, the imaging step, the determination step, and the correction step are repeated, characterized in that the component is configured such that the lead (P1, P2) is inserted into a lead insertion hole in the printed circuit board when the component is mounted on the printed circuit board, the allowable tolerance is for inserting the lead (P1, P2) into the lead insertion hole, and the imaging step, the determination step, and the correction step are repeated up to a maximum number of allowable times of a correction operation which is set in advance.
Seat for a public transport vehicle, said seat having a seat part and being provided with a luggage storage device beneath said seat, said device having: - a first support surface, - a second support surface, characterized in that said device also has a base defining a reference surface, and in that each of said support surfaces (3', 4') is substantially flat and inclined with respect to said reference surface, the two support surfaces (3', 4') converging towards said reference surface and defining a storage space that is able to contain an item of luggage. - a first support surface, - a second support surface,
A soap bar composition comprising: a) a fatty acid soap blend in an amount of 30 to 90% by wt. of the soap bar comprising: (i) caprylic, pelargonic and capric acids, their salts or their mixtures thereof in an amount of 0.1 to 40 wt. % of the fatty acid soap blend; (ii) myristic acid in amount not higher than 8wt. % of the fatty acid soap blend; b) co-adjuvants selected from polyols, polymers, organic and inorganic adjuvants, electrolytes, benefit agents and other minor ingredients in an amount from 0.1 to 50% by weight of the soap composition; c) the remainder of water. wherein the fatty acid blend comprises a ratio of the sum of caprylic, perlagonic and capric acids to lauric acid, (ΣC 8-10 /C 12), of 0.5 to 2.5, wherein the fatty acid blend comprises at least 3% of capric and lauric acids and wherein the composition comprises from 25 to 55% of unsaturated long chain fatty acidst C 18:1 and C 18:2. a) a fatty acid soap blend in an amount of 30 to 90% by wt. of the soap bar comprising: (i) caprylic, pelargonic and capric acids, their salts or their mixtures thereof in an amount of 0.1 to 40 wt. % of the fatty acid soap blend; (ii) myristic acid in amount not higher than 8wt. % of the fatty acid soap blend; (i) caprylic, pelargonic and capric acids, their salts or their mixtures thereof in an amount of 0.1 to 40 wt. % of the fatty acid soap blend; (ii) myristic acid in amount not higher than 8wt. % of the fatty acid soap blend; b) co-adjuvants selected from polyols, polymers, organic and inorganic adjuvants, electrolytes, benefit agents and other minor ingredients in an amount from 0.1 to 50% by weight of the soap composition; c) the remainder of water.
A system comprising: - an installation to be cleaned connected at the inlet to a fluid feed pipe fed with fluid and at the outlet to a fluid evacuation pipe, - a device for cleaning the installation that is adapted to cause to flow in the installation cleaning bodies conveyed by the flowing fluid, the cleaning device including on the inlet pipe filter means for filtering the fluid and on the evacuation pipe separator means for collecting the cleaning bodies, characterized in that the separator means (17, 30) and the filter means are static and comprise separate filters, the separator means including a filter member, the cleaning device including a circuit for recovering cleaning bodies circulating in the evacuation pipe and a circuit for reinjecting recovered cleaning bodies into the inlet pipe, the two circuits having in common the filter member and being used alternately by actuating a set of controlled valves (V2, V3) present in the portions of the circuits that do not convey the cleaning bodies in order to cause the fluid to flow either in the recovery circuit to collect in the filter member cleaning bodies coming from the pipe or in the reinjection circuit to drive the cleaning bodies collected in the filter member toward the pipe. - an installation to be cleaned connected at the inlet to a fluid feed pipe fed with fluid and at the outlet to a fluid evacuation pipe, - a device for cleaning the installation that is adapted to cause to flow in the installation cleaning bodies conveyed by the flowing fluid, the cleaning device including on the inlet pipe filter means for filtering the fluid and on the evacuation pipe separator means for collecting the cleaning bodies, characterized in that the separator means (17, 30) and the filter means are static and comprise separate filters, the separator means including a filter member, the cleaning device including a circuit for recovering cleaning bodies circulating in the evacuation pipe and a circuit for reinjecting recovered cleaning bodies into the inlet pipe, the two circuits having in common the filter member and being used alternately by actuating a set of controlled valves (V2, V3) present in the portions of the circuits that do not convey the cleaning bodies in order to cause the fluid to flow either in the recovery circuit to collect in the filter member cleaning bodies coming from the pipe or in the reinjection circuit to drive the cleaning bodies collected in the filter member toward the pipe.
A robot cleaner comprising a suction motor that is installed within a main body and configured to generate a suction force, the robot cleaner comprising: at least two conductive plates (111, 112) that are spaced apart from each other to form a flowing path for external air introduced by the suction force; and a calculator that is configured to measure a capacitance value between the at least two conductive plates (111, 112); characterized by a porous structure (210; 350) that is provided with at least one through hole through which external air introduced by the suction force flows; a filter (33, 34; 310, 320, 330) that is disposed on a flowing path of the air and configured to filter dust contained in the air; and a power supply unit that is configured to apply alternating current power to at least a partial surface of the porous structure (210; 350). at least two conductive plates (111, 112) that are spaced apart from each other to form a flowing path for external air introduced by the suction force; and a calculator that is configured to measure a capacitance value between the at least two conductive plates (111, 112); characterized by a porous structure (210; 350) that is provided with at least one through hole through which external air introduced by the suction force flows; a filter (33, 34; 310, 320, 330) that is disposed on a flowing path of the air and configured to filter dust contained in the air; and a power supply unit that is configured to apply alternating current power to at least a partial surface of the porous structure (210; 350).