mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising; a plurality of first sources ; a front float coupled to the plurality of first sources , the front float comprising: a plurality of winches configured to adjust positions of the plurality of first sources ; and a control unit configured to control functions associated with the front float ; a streamer connected to a lead-in at a first connection point on a spreader line ; a first cable coupled between the front float and the connection point ; a second source ; a second cable coupled between the first connection point and the second source ; and a plurality of third cables each coupled to the front float and to a respective source of the plurality of first sources and configured to accommodate transfer of electrical energy between the front float and the respective source . a plurality of first sources ; a front float coupled to the plurality of first sources , the front float comprising: a plurality of winches configured to adjust positions of the plurality of first sources ; and a control unit configured to control functions associated with the front float ; a plurality of winches configured to adjust positions of the plurality of first sources ; and a control unit configured to control functions associated with the front float ; a streamer connected to a lead-in at a first connection point on a spreader line ; a first cable coupled between the front float and the connection point ; a second source ; a second cable coupled between the first connection point and the second source ; and a plurality of third cables each coupled to the front float and to a respective source of the plurality of first sources and configured to accommodate transfer of electrical energy between the front float and the respective source .
A pouch for collecting biological fluids comprising: a body side wall and a distal side wall defining a collection chamber therebetween; an inlet opening provided in the body side wall; an insert mounted to the body side wall, the insert having an insert opening overlying the inlet opening; and an anti-reflux device disposed in the collection chamber, the anti-reflux device having a plurality of openings therein to provide flow communication from an interior of the anti-reflux device to the collection chamber; characterized in that the anti-reflux device is a tube, a first end of the anti reflux device mounted to the insert and overlying the insert opening, a second end of the anti-reflux device mounted to the distal side wall. a body side wall and a distal side wall defining a collection chamber therebetween; an inlet opening provided in the body side wall; an insert mounted to the body side wall, the insert having an insert opening overlying the inlet opening; and an anti-reflux device disposed in the collection chamber, the anti-reflux device having a plurality of openings therein to provide flow communication from an interior of the anti-reflux device to the collection chamber;
A communication method, comprising: receiving (S201), by a reception point , first indication information, wherein the first indication information is used to indicate a time-frequency resource location of a first demodulation reference signal of first data; receiving (S202), by the reception point , second indication information, wherein the second indication information is used to indicate a time-frequency resource location of a second demodulation reference signal; and determining (S204), by the reception point , a time-frequency resource location of the first data based on the time-frequency resource location of the second demodulation reference signal, and demodulating (S205) the first data based on the first demodulation reference signal, characterized in that if the reception point determines that the time-frequency resource location of the second demodulation reference signal carries data which belong to the first data, the reception point requests a transmission point (101-A, 101-B, 101-C, 101-D) to perform retransmission, or requests the transmission point (101-A, 101-B, 101-C, 101-D) to map the data on the time-frequency resource location to another time-frequency resource location. receiving (S201), by a reception point , first indication information, wherein the first indication information is used to indicate a time-frequency resource location of a first demodulation reference signal of first data; receiving (S202), by the reception point , second indication information, wherein the second indication information is used to indicate a time-frequency resource location of a second demodulation reference signal; and determining (S204), by the reception point , a time-frequency resource location of the first data based on the time-frequency resource location of the second demodulation reference signal, and demodulating (S205) the first data based on the first demodulation reference signal, characterized in that if the reception point determines that the time-frequency resource location of the second demodulation reference signal carries data which belong to the first data, the reception point requests a transmission point (101-A, 101-B, 101-C, 101-D) to perform retransmission, or requests the transmission point (101-A, 101-B, 101-C, 101-D) to map the data on the time-frequency resource location to another time-frequency resource location.
Method for operation of an industrial plant comprising - an energy accumulator unit for production of synthetic natural gas, - a power plant unit for production of electricity, - a oxygen tank , a carbon dioxide tank and a water tank , wherein - in a first operation mode the energy accumulator unit is supplied with excessed electricity from the public grid in order to produce synthetic natural gas, wherein the produced synthetic natural gas is discharged in a gas network , while oxygen and water which are produced together with the synthetic natural gas are stored in the oxygen tank and the water tank correspondingly, - in a second operation mode gas from the gas network together with oxygen from the oxygen tank and water from the water tank are used in the power plant unit to produce electricity, which is supplied to the public grid - wherein in the second operation mode the gas supplied from the gas network is burned together with oxygen from the oxygen tank in a combustor and the combustion mixture is used to drive a turbine - wherein water from the water tank is used to regulate the temperature in the combustor . - an energy accumulator unit for production of synthetic natural gas, - a power plant unit for production of electricity, - a oxygen tank , a carbon dioxide tank and a water tank , - in a first operation mode the energy accumulator unit is supplied with excessed electricity from the public grid in order to produce synthetic natural gas, wherein the produced synthetic natural gas is discharged in a gas network , while oxygen and water which are produced together with the synthetic natural gas are stored in the oxygen tank and the water tank correspondingly, - in a second operation mode gas from the gas network together with oxygen from the oxygen tank and water from the water tank are used in the power plant unit to produce electricity, which is supplied to the public grid - wherein in the second operation mode the gas supplied from the gas network is burned together with oxygen from the oxygen tank in a combustor and the combustion mixture is used to drive a turbine - wherein water from the water tank is used to regulate the temperature in the combustor .
A machine for roll-forming sheet metal, comprising: a motor ; a bench ; and a shaft coupled with the motor ; characterized in that the machine further comprises: first and second gears coupled with the shaft ; the bench comprises a first carriage and a second carriage , each of the first and the second carriages (110-113) being configured to support attaching and detaching at least one framework for roll-forming sheet metal, and the bench being configured to adjust a separation between the first carriage and the second carriage ; and the shaft is configured to actuate rollers of the at least one framework when the at least one framework is attached to at least one of the first and the second carriages (110-113). a motor ; a bench ; and a shaft coupled with the motor ; characterized in that the machine further comprises: first and second gears coupled with the shaft ; the bench comprises a first carriage and a second carriage , each of the first and the second carriages (110-113) being configured to support attaching and detaching at least one framework for roll-forming sheet metal, and the bench being configured to adjust a separation between the first carriage and the second carriage ; and the shaft is configured to actuate rollers of the at least one framework when the at least one framework is attached to at least one of the first and the second carriages (110-113). first and second gears coupled with the shaft ; the bench comprises a first carriage and a second carriage , each of the first and the second carriages (110-113) being configured to support attaching and detaching at least one framework for roll-forming sheet metal, and the bench being configured to adjust a separation between the first carriage and the second carriage ; and the shaft is configured to actuate rollers of the at least one framework when the at least one framework is attached to at least one of the first and the second carriages (110-113).
A shoe derailment device for use in derailing a conductor shoe assembly of a bridge crane from a conductor rail assembly , the shoe derailment device comprising a wedge head provided at a longitudinal end of a body made of an electrically insulating material, the shoe derailment device being securable to the conductor rail assembly in a derailment position in which the shoe derailment device is positioned outside an operating zone of the bridge crane , in longitudinal alignment with the conductor rail assembly , in a movement path of the conductor shoe assembly , with the wedge head facing the operating zone in a manner that if the conductor shoe assembly is moved outside the operating zone , into the area occupied by the shoe derailment device , the conductor shoe assembly is derailed from the conductor rail assembly as the conductor shoe assembly engages the wedge head and is maintained in a derailed state by the electrically insulating material when the conductor shoe assembly is engaged with the body .
Double head drilling device comprising a drill rod having an outer pipe and an inner rod running at least in sections inside the outer pipe, with - a first drive unit for driving the inner rod in a rotating manner and - a second drive unit for driving the outer pipe in a rotating manner, characterized in that - for the releasable clamping of the inner rod a first clamping head and a second clamping head are provided, - in that the two clamping heads are supported in an axially displaceable manner with respect to each other. - in that the first clamping head is firmly arranged on the first drive unit and - in that the second clamping head is supported in an axially displaceable manner with respect to the first drive unit . - a first drive unit for driving the inner rod in a rotating manner and - a second drive unit for driving the outer pipe in a rotating manner, - for the releasable clamping of the inner rod a first clamping head and a second clamping head are provided, - in that the two clamping heads are supported in an axially displaceable manner with respect to each other. - in that the first clamping head is firmly arranged on the first drive unit and - in that the second clamping head is supported in an axially displaceable manner with respect to the first drive unit .
A method of inserting a UAV, unmanned aerial vehicle, battery pack into a UAV , comprising: a mechanical mechanism moving along an X-axis and Y-axis to a selected UAV battery pack disposed in a selected battery-slot , wherein the mechanical mechanism includes a battery-carriage configured to translate linearly along a Z-axis, a base-cart configured to translate linearly along an X-axis on at least one base-rail and an elevator carriage configured to translate linearly along a Y-axis on at least one elevator-rail that extends from the base-cart ; the mechanical mechanism extending the battery-carriage along the Z-axis to have the battery-carriage grasp the selected UAV battery pack ; the mechanical mechanism retracting the battery-carriage along the Z-axis to remove the UAV battery pack from the battery-slot ; and the mechanical mechanism moving the removed UAV battery pack proximate to a UAV , the battery-carriage inserting the UAV battery pack into a UAV battery-slot disposed on the UAV , and the mechanical mechanism decoupling from the UAV battery pack . a mechanical mechanism moving along an X-axis and Y-axis to a selected UAV battery pack disposed in a selected battery-slot , wherein the mechanical mechanism includes a battery-carriage configured to translate linearly along a Z-axis, a base-cart configured to translate linearly along an X-axis on at least one base-rail and an elevator carriage configured to translate linearly along a Y-axis on at least one elevator-rail that extends from the base-cart ; the mechanical mechanism extending the battery-carriage along the Z-axis to have the battery-carriage grasp the selected UAV battery pack ; the mechanical mechanism retracting the battery-carriage along the Z-axis to remove the UAV battery pack from the battery-slot ; and the mechanical mechanism moving the removed UAV battery pack proximate to a UAV , the battery-carriage inserting the UAV battery pack into a UAV battery-slot disposed on the UAV , and the mechanical mechanism decoupling from the UAV battery pack .
A refrigeration apparatus comprising: a heat source unit including a compressor having a variable capacity and configured to compress a refrigerant, a first heat exchanger configured to cause heat exchange between the refrigerant and liquid fluid, a second heat exchanger configured to cause heat exchange between the refrigerant and air, a casing accommodating the compressor, the first heat exchanger, and the second heat exchanger, and a valve configured to switch to supply or not to supply the second heat exchanger with the refrigerant; a utilization unit including a utilization heat exchanger , the utilization unit and the heat source unit constituting a refrigerant circuit ; and a controller configured to control to operate the compressor and open or close the valve, characterized in that the controller is configured during the cooling operation in which the first heat exchanger functions as a radiator to open the valve to supply the second heat exchanger with the refrigerant to cause the second heat exchanger to function as a heat absorber when assessing that the refrigerant sent to the utilization unit needs to be further decreased in quantity after the capacity of the compressor is decreased to predetermined capacity. a heat source unit including a compressor having a variable capacity and configured to compress a refrigerant, a first heat exchanger configured to cause heat exchange between the refrigerant and liquid fluid, a second heat exchanger configured to cause heat exchange between the refrigerant and air, a casing accommodating the compressor, the first heat exchanger, and the second heat exchanger, and a valve configured to switch to supply or not to supply the second heat exchanger with the refrigerant; a utilization unit including a utilization heat exchanger , the utilization unit and the heat source unit constituting a refrigerant circuit ; and a controller configured to control to operate the compressor and open or close the valve, characterized in that the controller is configured during the cooling operation in which the first heat exchanger functions as a radiator to open the valve to supply the second heat exchanger with the refrigerant to cause the second heat exchanger to function as a heat absorber when assessing that the refrigerant sent to the utilization unit needs to be further decreased in quantity after the capacity of the compressor is decreased to predetermined capacity.
A control method for a paraffin dispenser in an embedder , comprising: collecting information of a current mold so as to acquire an identification of the current mold (S1); determining whether the identification of the current mold is correct (S2); and controlling the paraffin dispenser to pour paraffin into the current mold, when it is determined that the identification of the current mold is correct (S3), characterized in that it is determined whether the identification of the current mold is correct by determining whether the identification of the current mold matches with a predetermined identification of a corresponding mold, in which the corresponding mold is intended to be provided with paraffin, wherein the predetermined identification is pre-stored in a control module of the paraffin dispenser, wherein the paraffin dispenser is controlled to pour the paraffin into the current mold by opening a flow valve in the paraffin dispenser , and wherein the flow valve is controlled to be closed, when it is determined that the identification of the current mold is wrong, such that the paraffin dispenser cannot pour paraffin into the current mold. collecting information of a current mold so as to acquire an identification of the current mold (S1); determining whether the identification of the current mold is correct (S2); and controlling the paraffin dispenser to pour paraffin into the current mold, when it is determined that the identification of the current mold is correct (S3), characterized in that it is determined whether the identification of the current mold is correct by determining whether the identification of the current mold matches with a predetermined identification of a corresponding mold, in which the corresponding mold is intended to be provided with paraffin, wherein the predetermined identification is pre-stored in a control module of the paraffin dispenser, wherein the paraffin dispenser is controlled to pour the paraffin into the current mold by opening a flow valve in the paraffin dispenser , and wherein the flow valve is controlled to be closed, when it is determined that the identification of the current mold is wrong, such that the paraffin dispenser cannot pour paraffin into the current mold.
A bottle warmer, comprising: a vessel for receiving a bottle to be warmed and for receiving water to surround and heat the bottle; a heater for heating the water and thereby the bottle; a thermostat for switching at a set temperature thereby for controlling the heater in dependence on the thermostat; an adjustment element for displacement from a start position to a desired heating setting input, based at least on volume information in respect of the bottle contents, wherein the adjustment element is coupled to the thermostat for setting the thermostat set temperature, wherein the bottle warmer further comprises: a mechanical timer having a timing value set by the position of the adjustment element; and an alarm for providing an output when the timing value has elapsed. a vessel for receiving a bottle to be warmed and for receiving water to surround and heat the bottle; a heater for heating the water and thereby the bottle; a thermostat for switching at a set temperature thereby for controlling the heater in dependence on the thermostat; an adjustment element for displacement from a start position to a desired heating setting input, based at least on volume information in respect of the bottle contents, wherein the adjustment element is coupled to the thermostat for setting the thermostat set temperature, wherein the bottle warmer further comprises: a mechanical timer having a timing value set by the position of the adjustment element; and an alarm for providing an output when the timing value has elapsed. a mechanical timer having a timing value set by the position of the adjustment element; and an alarm for providing an output when the timing value has elapsed.
Position determination system for determining a car position of an elevator car which can be moved in an elevator shaft , comprising - a code tape that can be applied in parallel with a movement direction next to the elevator car , comprising a code mark pattern constructed from individual code marks , - a detection device which can be attached to the elevator car for detecting code marks of the code mark pattern of the code tape , and - an evaluation unit for determining the car position on the basis of the code marks detected by the detection device , n consecutive code marks of the code mark pattern forming a position mark , the position marks being unambiguously arranged in an n-digit pseudo-random sequence of different position marks , the position marks forming a single-track code mark pattern and it being possible for each position mark to be assigned a discrete car position, characterized in that a detection region of the detection device has a detection length (L E ) in the movement direction, which is smaller than a position mark length (L P ) of a position mark in the movement direction , and the detection device has at least four, in particular six sensors (A0.0, A0.1; A1.0, A1.1; A2.0; A2.1) arranged one behind the other in the movement direction . - a code tape that can be applied in parallel with a movement direction next to the elevator car , comprising a code mark pattern constructed from individual code marks , - a detection device which can be attached to the elevator car for detecting code marks of the code mark pattern of the code tape , and - an evaluation unit for determining the car position on the basis of the code marks detected by the detection device , n consecutive code marks of the code mark pattern forming a position mark , the position marks being unambiguously arranged in an n-digit pseudo-random sequence of different position marks , the position marks forming a single-track code mark pattern and it being possible for each position mark to be assigned a discrete car position, a detection region of the detection device has a detection length (L E ) in the movement direction, which is smaller than a position mark length (L P ) of a position mark in the movement direction , and the detection device has at least four, in particular six sensors (A0.0, A0.1; A1.0, A1.1; A2.0; A2.1) arranged one behind the other in the movement direction .