mhurhangee/patent-ind-claim-en huggingface dataset:
A drying apparatus comprising: a body ; a controller ; a thermal sensor to sense an ambient temperature; a humidity sensor to sense an ambient humidity; a first air outlet to vent an airflow; a flow generator to generate the airflow within the body ; a thermoelectric device comprising an inward surface and an outward surface , wherein the inward surface is configured to heat and cool the airflow generated by the flow generator ; and wherein the controller is configured to: control a temperature of the inward surface of the thermoelectric device based on the ambient temperature and the ambient humidity; determine a temperature-humidity index (THI) based on the ambient temperature and the ambient humidity; and activate the thermoelectric device and the flow generator when the THI is greater than a predetermined target. a body ; a controller ; a thermal sensor to sense an ambient temperature; a humidity sensor to sense an ambient humidity; a first air outlet to vent an airflow; a flow generator to generate the airflow within the body ; a thermoelectric device comprising an inward surface and an outward surface , wherein the inward surface is configured to heat and cool the airflow generated by the flow generator ; and wherein the controller is configured to: control a temperature of the inward surface of the thermoelectric device based on the ambient temperature and the ambient humidity; determine a temperature-humidity index (THI) based on the ambient temperature and the ambient humidity; and activate the thermoelectric device and the flow generator when the THI is greater than a predetermined target. control a temperature of the inward surface of the thermoelectric device based on the ambient temperature and the ambient humidity; determine a temperature-humidity index (THI) based on the ambient temperature and the ambient humidity; and activate the thermoelectric device and the flow generator when the THI is greater than a predetermined target.
A method for subscribing to a radio link failure, RLF, report, comprising: configuring , by an integration reference point agent, IRPAgent, a subscription condition for an RLF report subscribed to by an integration reference point manager, IRPManager; obtaining , by the IRPAgent according to the subscription condition, an RLF report that satisfies the subscription condition; and sending , by the IRPAgent, the RLF report that satisfies the subscription condition to the IRPManager. configuring , by an integration reference point agent, IRPAgent, a subscription condition for an RLF report subscribed to by an integration reference point manager, IRPManager; obtaining , by the IRPAgent according to the subscription condition, an RLF report that satisfies the subscription condition; and sending , by the IRPAgent, the RLF report that satisfies the subscription condition to the IRPManager.
Agricultural machine, having a frame which is supported on the ground by means of a chassis comprising impellers and is connected to the chassis via connecting components , wherein the chassis comprises a single suspension of the impellers, and comprises a hydraulic system having a central hydraulic distributor , characterized in that the chassis has a central, immovable chassis region fixedly connected to the frame, and the central hydraulic distributor is arranged in the central, immovable chassis region , that the central, immovable chassis region connects the front - in the direction of travel (F) - chassis region to the rear - in the direction of travel - chassis region .
Cutting device for a wire processing machine for the cutting of wire, comprising a movable blade (15.1) for the cutting of the wire, a cutting bush (6.1) with a first opening (7.1) for guidance of the wire that is to be cut, wherein the first opening has a first internal dimension, and with a second opening having a second internal dimension that differs from the first internal dimension, wherein the first or the second opening can be located in a machining position in which the wire can be sheared by the blade (15.1), characterised in that , the cutting device has an adjustment mechanism for adjusting the cutting bush (6.1) in order to selectively bring the first opening or the second opening of the cutting bush (6.1) into the machining position. the first or the second opening can be located in a machining position in which the wire can be sheared by the blade (15.1), characterised in that , the cutting device has an adjustment mechanism for adjusting the cutting bush (6.1) in order to selectively bring the first opening or the second opening of the cutting bush (6.1) into the machining position.
A process for producing a polylactide, comprising: a) forming a low molecular weight poly(lactic acid); b) depolymerizing the low molecular weight poly(lactic acid) to form a crude lactide that includes meso-lactide, S,S-lactide and R,R-lactide, wherein either S,S-lactide or R,R-lactide is the non-predominant lactide, and the crude lactide further includes intermediate-boiling impurities; c) separating meso-lactide from the crude lactide in one or more steps such that 1) a meso-lactide-enriched stream is formed in which the mole fraction of meso-lactide is at least 0.8 and which in which the intermediate-boiling impurities are concentrated; and 2) a purified S,S- and R,R-lactide stream is formed; d) purifying the meso-lactide-enriched stream by melt crystallization to separate meso-lactide from intermediate-boiling impurities and form a purified meso-lactide stream; e) recombining at least a portion of the purified meso-lactide stream with at least a portion of the purified S,S- and R,R-lactide stream to form a recombined stream containing 4 to 25% by weight of the purified meso-lactide stream based on the combined weight of the purified meso-lactide stream and the purified S,S- and R,R-lactide stream, and polymerizing the recombined stream. a) forming a low molecular weight poly(lactic acid); b) depolymerizing the low molecular weight poly(lactic acid) to form a crude lactide that includes meso-lactide, S,S-lactide and R,R-lactide, wherein either S,S-lactide or R,R-lactide is the non-predominant lactide, and the crude lactide further includes intermediate-boiling impurities; c) separating meso-lactide from the crude lactide in one or more steps such that 1) a meso-lactide-enriched stream is formed in which the mole fraction of meso-lactide is at least 0.8 and which in which the intermediate-boiling impurities are concentrated; and 2) a purified S,S- and R,R-lactide stream is formed; 1) a meso-lactide-enriched stream is formed in which the mole fraction of meso-lactide is at least 0.8 and which in which the intermediate-boiling impurities are concentrated; and 2) a purified S,S- and R,R-lactide stream is formed; d) purifying the meso-lactide-enriched stream by melt crystallization to separate meso-lactide from intermediate-boiling impurities and form a purified meso-lactide stream; e) recombining at least a portion of the purified meso-lactide stream with at least a portion of the purified S,S- and R,R-lactide stream to form a recombined stream containing 4 to 25% by weight of the purified meso-lactide stream based on the combined weight of the purified meso-lactide stream and the purified S,S- and R,R-lactide stream, and polymerizing the recombined stream.
Method for mounting a heat exchanger device of a refrigeration unit , wherein the heat exchanger device comprises the following components; a housing with at least one cover and a tubular casing , a heat exchanger coil and a refrigerant collecting vessel , wherein - the heat exchanger coil is pushed over the refrigerant collecting vessel and is connected fluidically to the at least one cover , - the tubular casing is pushed over the heat exchanger coil , characterised in that - the tubular casing is deformed radially inwards. - the heat exchanger coil is pushed over the refrigerant collecting vessel and is connected fluidically to the at least one cover , - the tubular casing is pushed over the heat exchanger coil , characterised in that - the tubular casing is deformed radially inwards.
A boiler including a heat generation body and a container having the heat generation body therein and configured fillable with gas with higher specific heat than that of air, the boiler heating water by means of heat generated by the heat generation body , comprising: a controller configured to control a heat generation amount of the heat generation body under a situation where the gas is supplied into the container , wherein steam generated by heating of the water is supplied to the outside, the boiler being characterized in that the controller is configured to control the heat generation amount based on a pressure of the steam supplied to the outside. a heat generation body and a container having the heat generation body therein and configured fillable with gas with higher specific heat than that of air, the boiler heating water by means of heat generated by the heat generation body , comprising: a controller configured to control a heat generation amount of the heat generation body under a situation where the gas is supplied into the container , wherein steam generated by heating of the water is supplied to the outside, the boiler being characterized in that the controller is configured to control the heat generation amount based on a pressure of the steam supplied to the outside. a controller configured to control a heat generation amount of the heat generation body under a situation where the gas is supplied into the container , wherein steam generated by heating of the water is supplied to the outside, the boiler being characterized in that the controller is configured to control the heat generation amount based on a pressure of the steam supplied to the outside.
A gas turbine engine system (100; 200) comprising a hydrogen-burning gas turbine engine and a fuel system which comprises: (i) a fuel line (114; 214) arranged to receive gaseous hydrogen at an input (115; 215) thereof and provide the gaseous hydrogen to combustion apparatus (106; 206) of the hydrogen-burning gas turbine engine; (ii) a vent line (116; 216) including a vent valve (104; 204) and having a first end coupled to the fuel line and a second end disposed remotely from the hydrogen-burning gas turbine engine, coupled to the exhaust of the hydrogen-burning gas turbine engine; and (iii) a controller (112; 212) arranged to open the vent valve in response to detection of a shaft-break of the hydrogen-burning gas turbine engine. (i) a fuel line (114; 214) arranged to receive gaseous hydrogen at an input (115; 215) thereof and provide the gaseous hydrogen to combustion apparatus (106; 206) of the hydrogen-burning gas turbine engine; (ii) a vent line (116; 216) including a vent valve (104; 204) and having a first end coupled to the fuel line and a second end disposed remotely from the hydrogen-burning gas turbine engine, coupled to the exhaust of the hydrogen-burning gas turbine engine; and (iii) a controller (112; 212) arranged to open the vent valve in response to detection of a shaft-break of the hydrogen-burning gas turbine engine.
A sample measuring method of optically measuring a sample housed in a container in a sample measurement device , the method comprising: loading (S1) the container such that the container is shielded from light; starting (S2) to read information regarding a measurement to be performed on the sample from the container in response to the loading the container ; determining (S37) whether there is an error of reading the information; and when it is determined that there is the error, notifying (S35) the error, and when it is determined that there is not the error, measuring (S3) the sample in response to reading the information based on the read information. loading (S1) the container such that the container is shielded from light; starting (S2) to read information regarding a measurement to be performed on the sample from the container in response to the loading the container ; determining (S37) whether there is an error of reading the information; and when it is determined that there is the error, notifying (S35) the error, and when it is determined that there is not the error, measuring (S3) the sample in response to reading the information based on the read information.
Electronic power module comprising at least one semiconductor connected to connection conductors , characterized in that it comprises a dielectric support on the one hand exhibiting a fixed layer on which at least one of said connection conductors is mounted and on the other hand exhibiting a movable layer , the fixed layer and the movable layer being superposed along at least one surface facing the at least one connection conductor , the difference between the dielectric permittivity of the movable layer and the dielectric permittivity of the fixed layer being less than 50% of the dielectric permittivity of the fixed layer .
A method for introducing electric conductors into an overmolding of a steering wheel skeleton , the electric conductors being used in particular for heating, shielding purposes and for sensing contact on a steering wheel, comprising the following steps: - introducing at least one cut into the overmolding using a cutting tool in a first method step, characterized in that - simultaneous introduction of both a first layer of an electric conductor and a second layer of an electric conductor into the cut that has been created occurs in a second method step. - introducing at least one cut into the overmolding using a cutting tool in a first method step, characterized in that - simultaneous introduction of both a first layer of an electric conductor and a second layer of an electric conductor into the cut that has been created occurs in a second method step.
Comer-cleaning module , which has: a suction opening for vacuuming a suction region, a blower unit , which is designed to generate a suction air flow, wherein the flow path for the suction air flow extends to the suction opening , and a mechanical interface, with which a detachable mechanical connection is able to be formed between the comer-cleaning module and a robot unit , wherein the suction opening is arranged on the comer-cleaning module such that when coupling the comer-cleaning module to the robot unit the suction opening protrudes so far out over an outer contour of the robot unit that a suction region outside the outer contour of the robot unit is able to be vacuumed by the suction opening , wherein the suction region of the suction opening is situated outside the outer contour of the robot unit , wherein, when coupling the comer-cleaning module to the robot unit , the corner-cleaning module protrudes to the side over the outer contour of the robot unit , when viewed in the forward travel direction of the robot unit , and the suction opening is arranged to the side of the robot unit , when viewed in the forward travel direction of the robot unit , characterised in that the comer-cleaning module has an energy interface, via which the comer-cleaning module is able to be supplied with energy from the robot unit . a suction opening for vacuuming a suction region, a blower unit , which is designed to generate a suction air flow, wherein the flow path for the suction air flow extends to the suction opening , and a mechanical interface, with which a detachable mechanical connection is able to be formed between the comer-cleaning module and a robot unit , wherein the suction opening is arranged on the comer-cleaning module such that when coupling the comer-cleaning module to the robot unit the suction opening protrudes so far out over an outer contour of the robot unit that a suction region outside the outer contour of the robot unit is able to be vacuumed by the suction opening , wherein the suction region of the suction opening is situated outside the outer contour of the robot unit , wherein, when coupling the comer-cleaning module to the robot unit , the corner-cleaning module protrudes to the side over the outer contour of the robot unit , when viewed in the forward travel direction of the robot unit , and the suction opening is arranged to the side of the robot unit , when viewed in the forward travel direction of the robot unit , characterised in that the comer-cleaning module has an energy interface, via which the comer-cleaning module is able to be supplied with energy from the robot unit .
Method for boosting an input signal in a hearing apparatus by - prescribing one channel-specific compression characteristic each in multiple spectrally separate processing channels of the hearing apparatus, which defines a relationship between an input level (L E ) and an output level (L A ) in the respective processing channel of the hearing apparatus, - boosting a respective input signal component of the hearing apparatus in each processing channel on the basis of a channel-specific operating compression characteristic , - prescribing a channel-specific input level threshold (L S ) for each processing channel, - stipulating the respective channel-specific operating compression characteristic according to the prescribed channel-specific compression characteristic below the channel-specific input level threshold (L S ), and - stipulating a respective profile of the channel-specific operating compression characteristic with a compression ratio of greater than 8 above the channel-specific input level threshold (L S ), characterized - in that a frequency-independent overall level of the input signal comprising all the input signal components is measured, a time at which the measured overall level reaches a prescribed overall level threshold value is ascertained, the respective channel-specific input level threshold (L S ) is stipulated for the time in each processing channel according to the present level of the respective input signal component, and the channel-specific operating compression characteristics are stipulated in all the processing channels accordingly. - prescribing one channel-specific compression characteristic each in multiple spectrally separate processing channels of the hearing apparatus, which defines a relationship between an input level (L E ) and an output level (L A ) in the respective processing channel of the hearing apparatus, - boosting a respective input signal component of the hearing apparatus in each processing channel on the basis of a channel-specific operating compression characteristic , - prescribing a channel-specific input level threshold (L S ) for each processing channel, - stipulating the respective channel-specific operating compression characteristic according to the prescribed channel-specific compression characteristic below the channel-specific input level threshold (L S ), and - stipulating a respective profile of the channel-specific operating compression characteristic with a compression ratio of greater than 8 above the channel-specific input level threshold (L S ), characterized - in that a frequency-independent overall level of the input signal comprising all the input signal components is measured, a time at which the measured overall level reaches a prescribed overall level threshold value is ascertained, the respective channel-specific input level threshold (L S ) is stipulated for the time in each processing channel according to the present level of the respective input signal component, and the channel-specific operating compression characteristics are stipulated in all the processing channels accordingly.
Electrofusion tape for welding together with plastics pipes in particular for use in a fixed-point fastening, consisting of a jacket element preferably of an electrically insulating plastics material, at least one heating element of electrically conductive plastics material and at least two contact elements for supplying electricity to the heating element , wherein the jacket element and the heating element take the form of tapes, wherein the jacket element surrounds the heating element at least in part, wherein the contact elements are arranged in the mutually opposing marginal regions of the heating element and extend parallel to one another along the heating element , characterized in that the heating element is displaceable neither sideways nor transversely to the longitudinal direction of the tape, the heating element being arranged so as to be displaceable in the jacket element solely in the longitudinal direction of the tape.
Brush for a vehicle washing system, comprising: - at least one brush body comprising multiple receiving spaces ; - multiple brush elements ; and - at least one cover element ; wherein at least part of at least one brush element , and preferably of each brush element , is received within part of a receiving space and wherein at least a further part of said brush element extends with respect to the brush body ; and wherein the cover element is attached to the brush body such that said cover element covers at least part of the receiving spaces , wherein at least part of the brush body and at least part of at least one cover element are made of a polymer material and wherein the brush body and the cover element are connected via plastic welding. - at least one brush body comprising multiple receiving spaces ; - multiple brush elements ; and - at least one cover element ;
A branch cutting saw comprising a saw body including at least a saw blade section and a grip section , and a sheath body operative to hold the saw body in a freely retractable manner and including a hook section for hooking onto a branch (T), the saw being configured such that the sheath body is manipulated to hook the hook section onto a branch (T) and, while urging the hooked branch (T) toward the saw blade section of the saw body , the saw blade section of the saw body is advanced and retreated to cut the branch (T), wherein the hook section of the sheath body is pivotally supported at a leading end of the sheath body and is under spring bias to have a steady-state position in a longitudinal region of the sheath body , and is configured to be rotationally displaced from the steady-state position of the hook section when a load equivalent to or greater than the spring bias is applied against the spring bias, and the saw blade section of the saw body is under spring bias to have a steady-state position at a position where a tip end of the saw blade section is retreated from the hook section and is configured to be advanced from the steady-state position of the saw blade section when the grip section of the saw body is manipulated against the spring bias. the hook section of the sheath body is pivotally supported at a leading end of the sheath body and is under spring bias to have a steady-state position in a longitudinal region of the sheath body , and is configured to be rotationally displaced from the steady-state position of the hook section when a load equivalent to or greater than the spring bias is applied against the spring bias, and the saw blade section of the saw body is under spring bias to have a steady-state position at a position where a tip end of the saw blade section is retreated from the hook section and is configured to be advanced from the steady-state position of the saw blade section when the grip section of the saw body is manipulated against the spring bias.