mhurhangee/ep-ind-claims huggingface dataset:
A data storage system comprising: a memory circuit having a plurality of blocks of flash memory, each block configurable into a first memory area and a second memory area, each of the first and the second memory areas having storage locations for data, and each of the storage locations being once writable unless subsequently erased, wherein each of the blocks is further configurable such that each storage location of the block has a status of one of active, dead, or free, wherein a block is a minimum erasable amount of memory, and each storage location of the block has a status of free after the block is erased, characterised in that: when all of the storage locations of the first memory area of the block are either active or dead, and data is written to a free storage location in the second memory area of the block, the memory module is configured to move data from at least one other active storage location of the first memory area to a free storage location not in the first memory area and to change the state of the active storage location from which the data has been moved to dead. a memory circuit having a plurality of blocks of flash memory, each block configurable into a first memory area and a second memory area, each of the first and the second memory areas having storage locations for data, and each of the storage locations being once writable unless subsequently erased, wherein each of the blocks is further configurable such that each storage location of the block has a status of one of active, dead, or free, wherein a block is a minimum erasable amount of memory, and each storage location of the block has a status of free after the block is erased, characterised in that: when all of the storage locations of the first memory area of the block are either active or dead, and data is written to a free storage location in the second memory area of the block, the memory module is configured to move data from at least one other active storage location of the first memory area to a free storage location not in the first memory area and to change the state of the active storage location from which the data has been moved to dead.
A cloth handling device comprising a cloth clamping chuck, the cloth clamping chuck comprising a pair of chuck jaws (143A, 143B) and a driving means that changes an opening degree of the pair of chuck jaws (143A, 143B) by rotating at least one of the pair of chuck jaws (143A, 143B) around an open-close axis (x), and the cloth handling device further comprising a moving means for conducting a pulling operation of the cloth clamping chuck to pull the cloth in a pulling direction after the pair of chuck jaws (143A, 143B) are closed to clamp cloth, wherein the pulling direction extends in a direction from a top of the chuck jaws (143A, 143B) toward a base end thereof, and characterized in that the cloth clamping chuck is provided with a support plate extending from one of the chuck jaws through a stepwise part facing outward, in parallel to and in a downward and obliquely-forwarded direction, wherein a catching portion is disposed on a front-end portion of the support plate and vertically thereto, and is arranged in a position out of an extension line of the chuck jaw, and in associated with the pulling operation, is configured to be caught in a portion of the cloth other than the portion clamped by the pair of chuck jaws (143A, 143B) to deflect a force applied to the clamped portion of the cloth toward a side along the open-close axis (x). a pair of chuck jaws (143A, 143B) and a driving means that changes an opening degree of the pair of chuck jaws (143A, 143B) by rotating at least one of the pair of chuck jaws (143A, 143B) around an open-close axis (x), and the cloth handling device further comprising a moving means for conducting a pulling operation of the cloth clamping chuck to pull the cloth in a pulling direction after the pair of chuck jaws (143A, 143B) are closed to clamp cloth, wherein the pulling direction extends in a direction from a top of the chuck jaws (143A, 143B) toward a base end thereof, and characterized in that the cloth clamping chuck is provided with a support plate extending from one of the chuck jaws through a stepwise part facing outward, in parallel to and in a downward and obliquely-forwarded direction, wherein a catching portion is disposed on a front-end portion of the support plate and vertically thereto, and is arranged in a position out of an extension line of the chuck jaw, and in associated with the pulling operation, is configured to be caught in a portion of the cloth other than the portion clamped by the pair of chuck jaws (143A, 143B) to deflect a force applied to the clamped portion of the cloth toward a side along the open-close axis (x).
Electric direct current motor, in particular of small dimensions, having a shaft, a winding support, a collector, and an air-cored outer rotor winding with several winding terminations, wherein the outer rotor winding is at one end connected to the shaft via the winding support in a torque-proof manner, the winding support represents a bearing component, and the outer rotor winding is electrically connected to the collector, wherein the collector comprises several collector wires, wherein the winding support is a metallic plate comprising a central bore for the connection with the shaft, wherein an insulation ring (14; 16) of plastics or ceramics is provided at the outer periphery of the metallic plate for electric insulation from the outer rotor winding, wherein the metallic plate is connected to the shaft by frictional and material bonding connections, wherein the metal plate is pressed onto the shaft and is welded to the shaft.
A homogenizer for liquid food, comprising: - a homogenization device having a gap formed between a seat and a forcer, - a pump configured to provide a pressure for forcing the liquid food through the gap and thereby homogenize the liquid food, the homogenizer being characterized by: - an accumulator, wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator, - a cylinder arrangement, connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap, and - a valve arranged to release pressure accumulated in the accumulator, such that the released pressure actuates the piston to push the volume of the liquid food through the gap. - a homogenization device having a gap formed between a seat and a forcer, - a pump configured to provide a pressure for forcing the liquid food through the gap and thereby homogenize the liquid food, the homogenizer being characterized by: - an accumulator, wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator, - a cylinder arrangement, connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap, and - a valve arranged to release pressure accumulated in the accumulator, such that the released pressure actuates the piston to push the volume of the liquid food through the gap. - an accumulator, wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator, - a cylinder arrangement, connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap, and - a valve arranged to release pressure accumulated in the accumulator, such that the released pressure actuates the piston to push the volume of the liquid food through the gap.
A transport refrigeration system, comprising: a compressor, a condenser and an evaporator configured to circulate a refrigerant; a motor configured to drive the compressor; a battery and power electronics configured to power the motor; an ambient air temperature sensor configured to monitor ambient air at the battery; a cooling unit configured to cool the power electronics; a controller, wherein the controller is configured to: receive an ambient air temperature of a compartment housing the battery; compare the ambient air temperature to a temperature threshold; and based at least in part on comparing the ambient air temperature to the temperature threshold, performing at least one of (i) modifying a cooling rate of the cooling unit and (ii) modifying an operating parameter of the power electronics; wherein modifying the operating parameter of the power electronics includes increasing heat generated by the power electronics. a compressor, a condenser and an evaporator configured to circulate a refrigerant; a motor configured to drive the compressor; a battery and power electronics configured to power the motor; an ambient air temperature sensor configured to monitor ambient air at the battery; a cooling unit configured to cool the power electronics; a controller, wherein the controller is configured to: receive an ambient air temperature of a compartment housing the battery; compare the ambient air temperature to a temperature threshold; and based at least in part on comparing the ambient air temperature to the temperature threshold, performing at least one of (i) modifying a cooling rate of the cooling unit and (ii) modifying an operating parameter of the power electronics; wherein modifying the operating parameter of the power electronics includes increasing heat generated by the power electronics. receive an ambient air temperature of a compartment housing the battery; compare the ambient air temperature to a temperature threshold; and based at least in part on comparing the ambient air temperature to the temperature threshold, performing at least one of (i) modifying a cooling rate of the cooling unit and (ii) modifying an operating parameter of the power electronics; wherein modifying the operating parameter of the power electronics includes increasing heat generated by the power electronics.
A gas generator, in particular for a safety device in vehicles, comprising a pressure chamber which is filled with compressed gas and which is closed off an environment of the gas generator via a membrane, the compressed gas containing a gaseous oxidant which is predominantly composed of oxygen; a solid fuel received in the pressure chamber, wherein the compressed gas is in direct contact with the fuel before the gas generator is activated; and an igniter separated pressure-tightly from the pressure chamber by which, when the gas generator is activated, a conversion of the gaseous oxidant with the solid fuel can be triggered with heat being generated; wherein the fuel is provided in the form of a gas-permeable fuel body and the molar fraction of the gaseous oxidant in the compressed gas is at least 1.1 times the amount of oxidant required for a stoichiometric conversion of the gas-permeable fuel body, characterized in that the fuel is in the form of of a gas-permeable fuel body which is composed of one or more threads, wherein the gas-permeable fuel body is made from a textile material in which the one or more fibers are contained, and wherein the textile material is selected from the group consisting of a fabric, a knitted fabric, a knit, a non-woven, a felt, a laid fabric or a wadding, or a combination thereof, and wherein the one or more fibers are natural fibers and/or synthetic fibers, wherein the natural fibers are plant or animal originating fibers, and wherein the synthetic fibers are from spinnable resin. a pressure chamber which is filled with compressed gas and which is closed off an environment of the gas generator via a membrane, the compressed gas containing a gaseous oxidant which is predominantly composed of oxygen; a solid fuel received in the pressure chamber, wherein the compressed gas is in direct contact with the fuel before the gas generator is activated; and an igniter separated pressure-tightly from the pressure chamber by which, when the gas generator is activated, a conversion of the gaseous oxidant with the solid fuel can be triggered with heat being generated; wherein the fuel is provided in the form of a gas-permeable fuel body and the molar fraction of the gaseous oxidant in the compressed gas is at least 1.1 times the amount of oxidant required for a stoichiometric conversion of the gas-permeable fuel body, characterized in that the fuel is in the form of of a gas-permeable fuel body which is composed of one or more threads, wherein the gas-permeable fuel body is made from a textile material in which the one or more fibers are contained, and wherein the textile material is selected from the group consisting of a fabric, a knitted fabric, a knit, a non-woven, a felt, a laid fabric or a wadding, or a combination thereof, and wherein the one or more fibers are natural fibers and/or synthetic fibers, wherein the natural fibers are plant or animal originating fibers, and wherein the synthetic fibers are from spinnable resin.
A method for producing a heat sink having a substrate and a heat radiating film formed on a surface of the substrate, comprising: a first step of casting a substrate by injecting molten metal into a cavity of molding dies; and a second step of applying a heat radiating coating to the substrate through spraying or dropping in a period from when the molding dies are opened after the casting until when a temperature of the substrate that has been cast becomes lower than a deposition temperature that is a temperature necessary to deposit the heat radiating coating on the substrate in a state in which the substrate is left in a part of the molding dies and the coated surface of the substrate is exposed, characterized in that the temperature of the substrate when the heat radiating coating is applied thereto in the second step is in a range of greater than or equal to the deposition temperature of the heat radiating coating and less than a preset temperature that is higher than the deposition temperature by a predetermined temperature, the substrate molded through the casting in the first step has a fin structure having a plurality of projections that are arranged at intervals therebetween on its surface, and in the second step, the heat radiating coating is applied to the fin structure of the substrate through spraying or dropping. a first step of casting a substrate by injecting molten metal into a cavity of molding dies; and a second step of applying a heat radiating coating to the substrate through spraying or dropping in a period from when the molding dies are opened after the casting until when a temperature of the substrate that has been cast becomes lower than a deposition temperature that is a temperature necessary to deposit the heat radiating coating on the substrate in a state in which the substrate is left in a part of the molding dies and the coated surface of the substrate is exposed, characterized in that the temperature of the substrate when the heat radiating coating is applied thereto in the second step is in a range of greater than or equal to the deposition temperature of the heat radiating coating and less than a preset temperature that is higher than the deposition temperature by a predetermined temperature, the substrate molded through the casting in the first step has a fin structure having a plurality of projections that are arranged at intervals therebetween on its surface, and in the second step, the heat radiating coating is applied to the fin structure of the substrate through spraying or dropping.
A binding machine comprising: a wire feeding unit configured to feed a wire; a curl forming unit configured to form a path along which the wire fed by the wire feeding unit is to be wound around a to-be-bound object; a cutting unit configured to cut the wire wound on the to-be-bound object; and a binding unit configured to twist the wire wound on the to-be-bound object and cut by the cutting unit, wherein the wire feeding unit comprises a pair of feeding members configured to sandwich the wire and to feed the wire by a rotating operation, the feeding members having a part that is in contact with the wire and configured to feed the wire with being displaced along a feeding direction of the wire, characterized in that the binding machine comprises a feeding path for the wire that is fed by the wire feeding unit, the feeding path is bent along one of the feeding members on a downstream side of a portion where the pair of feeding members face each other with respect to a feeding direction of the wire in the one direction, so that an amount of contact between the one of the feeding members and the wire is switched in accordance with the feeding direction of the wire, wherein, as compared to the amount of contact between the feeding member and the wire in an operation of feeding the wire in one direction and winding the wire around the to-be-bound object, the amount of contact between the one of the feeding members and the wire in an operation of feeding the wire in another direction, which is opposite to the one direction, and winding the wire on the to-be-bound object is made larger,. a wire feeding unit configured to feed a wire; a curl forming unit configured to form a path along which the wire fed by the wire feeding unit is to be wound around a to-be-bound object; a cutting unit configured to cut the wire wound on the to-be-bound object; and a binding unit configured to twist the wire wound on the to-be-bound object and cut by the cutting unit, wherein the wire feeding unit comprises a pair of feeding members configured to sandwich the wire and to feed the wire by a rotating operation, the feeding members having a part that is in contact with the wire and configured to feed the wire with being displaced along a feeding direction of the wire, characterized in that the binding machine comprises a feeding path for the wire that is fed by the wire feeding unit, the feeding path is bent along one of the feeding members on a downstream side of a portion where the pair of feeding members face each other with respect to a feeding direction of the wire in the one direction, so that an amount of contact between the one of the feeding members and the wire is switched in accordance with the feeding direction of the wire, wherein, as compared to the amount of contact between the feeding member and the wire in an operation of feeding the wire in one direction and winding the wire around the to-be-bound object, the amount of contact between the one of the feeding members and the wire in an operation of feeding the wire in another direction, which is opposite to the one direction, and winding the wire on the to-be-bound object is made larger,.
Ground drilling system with a drill mast, a top drive in the drill mast which is movable along the vertical axis of the drill mast and a crown piece at the upper end of the drill mast, whereby the crown piece is movable using a positioner and whereby the top drive in the drill mast is vertically movable along a guide in or on the drill mast, whereby the guide specifies a dimension, characterized in that the top drive is movable using a spreading device in at least one dimension as well as in a sec-ond dimension parallel to the dimension defined by the guide, that the spreading device engages the guide either directly or indirectly and the top drive is situated at the opposite side of the spreading device and that the spreading device with the top drive in the drill mast is vertically movable along the guide. a drill mast, a top drive in the drill mast which is movable along the vertical axis of the drill mast and a crown piece at the upper end of the drill mast, whereby the crown piece is movable using a positioner and whereby the top drive in the drill mast is vertically movable along a guide in or on the drill mast, whereby the guide specifies a dimension, characterized in that the top drive is movable using a spreading device in at least one dimension as well as in a sec-ond dimension parallel to the dimension defined by the guide, that the spreading device engages the guide either directly or indirectly and the top drive is situated at the opposite side of the spreading device and that the spreading device with the top drive in the drill mast is vertically movable along the guide.
An electronic device comprising: a first structure; a second structure coupled to the first structure so as to be slidable with respect to the first structure in a first direction or a second direction opposite to the first direction; a display, at least part of which is disposed on the second structure, wherein in accordance with a sliding of the display and the second structure relative to the first structure, an area of the display exposed on a front side of the electronic device is changed from a first state having a first size to a second state having a second size; a driving unit configured to provide an elastic force to change the electronic device to the first state or the second state through the sliding of the second structure; a battery disposed, in the first structure, to face the driving unit; a first circuit board; and a second circuit board electrically connected to the first circuit board via a connecting circuit board; wherein the first structure includes a bracket configured to support the battery and a part of the bracket is disposed between the driving unit and the battery; wherein the driving unit is disposed between the second structure and the bracket and includes a first support portion coupled to the bracket, a second support portion coupled to the second structure, and an elastic portion configured to connect the first support portion and the second support portion, and wherein the connecting circuit board is disposed to cross part of the battery in a direction perpendicular to the first direction or the second direction. a first structure; a second structure coupled to the first structure so as to be slidable with respect to the first structure in a first direction or a second direction opposite to the first direction; a display, at least part of which is disposed on the second structure, wherein in accordance with a sliding of the display and the second structure relative to the first structure, an area of the display exposed on a front side of the electronic device is changed from a first state having a first size to a second state having a second size; a driving unit configured to provide an elastic force to change the electronic device to the first state or the second state through the sliding of the second structure; a battery disposed, in the first structure, to face the driving unit; a first circuit board; and a second circuit board electrically connected to the first circuit board via a connecting circuit board; wherein the first structure includes a bracket configured to support the battery and a part of the bracket is disposed between the driving unit and the battery; wherein the driving unit is disposed between the second structure and the bracket and includes a first support portion coupled to the bracket, a second support portion coupled to the second structure, and an elastic portion configured to connect the first support portion and the second support portion, and wherein the connecting circuit board is disposed to cross part of the battery in a direction perpendicular to the first direction or the second direction.
A method of mapping a transmit power control, TPC, command in a time slot of a radio frame to be transmitted to at least one wireless device on a downlink, the method comprising: transmitting a TPC command in one of a first and second slot within a slot cycle of the radio frame, the one of the first and the second slot being based on a configured slot format, wherein the one of the first and the second slot a fractional dedicated physical channel, F-DPCH, slot and the configured slot formats are one of slot formats #0, #1, #2, #3, #4, #5, #6, #7, #8 and #9, and wherein the TPC command is transmitted within the second slot if the configured slot format is #0 or #9, and otherwise within the first slot