mhurhangee/ep-ind-claims huggingface dataset:
A method of making disposable, flexible containers for fluent products, the method comprising: forming one or more vent openings through a first flexible material; forming one or more vent stand-offs on a portion of a second flexible material, wherein the one or more vent stand-offs are formed by embossing; combining the first flexible material with the second flexible material, such that the flexible materials are in direct, face-to-face contact; and aligning the first flexible material with the second flexible material, such that the vent stand-offs and the one or more vent openings are aligned with each other in fixed relation; and after the combining and the aligning, sealing, folding, and cutting the combined flexible materials, while aligned, to form the flexible containers, each of which includes a product space and a vent passage, wherein: the vent stand-offs are disposed within the vent passage; and the vent passage is in fluid communication with the product space through the one or more vent openings. forming one or more vent openings through a first flexible material; forming one or more vent stand-offs on a portion of a second flexible material, wherein the one or more vent stand-offs are formed by embossing; combining the first flexible material with the second flexible material, such that the flexible materials are in direct, face-to-face contact; and aligning the first flexible material with the second flexible material, such that the vent stand-offs and the one or more vent openings are aligned with each other in fixed relation; and after the combining and the aligning, sealing, folding, and cutting the combined flexible materials, while aligned, to form the flexible containers, each of which includes a product space and a vent passage, wherein: the vent stand-offs are disposed within the vent passage; and the vent passage is in fluid communication with the product space through the one or more vent openings. the vent stand-offs are disposed within the vent passage; and the vent passage is in fluid communication with the product space through the one or more vent openings.
An apparatus for use in a user equipment configured for blind decoding downlink control information from an enhanced physical downlink control channel (EPDCCH), the apparatus comprising circuitry configured to: receive, from a base station, the EPDCCH that includes the DCI; and attempt one or more times to decode the DCI from enhanced control channel elements (ECCE) of the EPDCCH from physical resource block region candidates in a PRB set using a selected set of enhanced resource element group (EREG) index maps for the ECCE until the DCI is successfully decoded, wherein the resource elements (REs) of a PRB pair include a block of symbols mapped in sequence to resource elements on an associated port when the REs are part of the EREGs assigned for the EPDCCH transmission. receive, from a base station, the EPDCCH that includes the DCI; and attempt one or more times to decode the DCI from enhanced control channel elements (ECCE) of the EPDCCH from physical resource block region candidates in a PRB set using a selected set of enhanced resource element group (EREG) index maps for the ECCE until the DCI is successfully decoded, wherein the resource elements (REs) of a PRB pair include a block of symbols mapped in sequence to resource elements on an associated port when the REs are part of the EREGs assigned for the EPDCCH transmission.
A main bearing housing for a wind turbine comprising: a bearing arrangement (24,26), an oil sump (42,44;110) located in a floor region of the main bearing housing, the oil sump (42,44;110) comprising a floor pan (61;112) surrounded by a side wall (63;114), and including an overflow arrangement (74, 120) configured to permit oil to spill from the oil sump (42,44;110), wherein the overflow arrangement (74;120) comprises a spill passage (76;122) configured with a spill inlet (78;130) at or near the floor pan (61,112) of the oil sump (42,44;110) and a spill outlet (80;128) located in a position that is between and spaced apart from, in the direction of gravity, each of the spill inlet (78;130) and an upper edge of the sump side wall, wherein the oil sump (42,44; 110) includes a drain passage. a bearing arrangement (24,26), an oil sump (42,44;110) located in a floor region of the main bearing housing, the oil sump (42,44;110) comprising a floor pan (61;112) surrounded by a side wall (63;114), and including an overflow arrangement (74, 120) configured to permit oil to spill from the oil sump (42,44;110), wherein the overflow arrangement (74;120) comprises a spill passage (76;122) configured with a spill inlet (78;130) at or near the floor pan (61,112) of the oil sump (42,44;110) and a spill outlet (80;128) located in a position that is between and spaced apart from, in the direction of gravity, each of the spill inlet (78;130) and an upper edge of the sump side wall, wherein the oil sump (42,44; 110) includes a drain passage.
An air conditioner, comprising: a plurality of compressors (10, 11); a determining unit configured to determine whether a starting load of the air conditioner is smaller than a reference load; and a control unit, in a case when an operating of the plurality of compressors is needed, configured to simultaneously start the plurality of compressors if the starting load of the air conditioner is smaller than the reference load as a result of the determination of the determining unit, and configured to sequentially start the plurality of compressors if the starting load of the air conditioner is larger than the reference load. a plurality of compressors (10, 11); a determining unit configured to determine whether a starting load of the air conditioner is smaller than a reference load; and a control unit, in a case when an operating of the plurality of compressors is needed, configured to simultaneously start the plurality of compressors if the starting load of the air conditioner is smaller than the reference load as a result of the determination of the determining unit, and configured to sequentially start the plurality of compressors if the starting load of the air conditioner is larger than the reference load.
A combination of an engine-driven vehicle and an electromotive drive device, • the vehicle comprising an engine and a transmission for driving wheels of the vehicle at a first conversion ratio, • the electromotive drive device comprising: a motor for driving the vehicle; a battery storing electrical energy to rotate the motor; an inverter transforming power output from the battery into alternating current to supply the alternating current to the motor, and also transforming power regenerated by the motor into direct current to supply the direct current back to the battery; a control unit controlling an operation of the inverter; and a converting mechanism transmitting rotation of the motor to a drive shaft (2; 6) of the vehicle at a second conversion ratio, independent of the first conversion ratio of the transmission of the engine, characterized in that: the control unit is configured to set, at any vehicle speed where the motor is allowed to operate in powering and in regeneration, a maximum driving force of the motor during regeneration to be higher than a maximum driving force of the motor during powering. • the vehicle comprising an engine and a transmission for driving wheels of the vehicle at a first conversion ratio, • the electromotive drive device comprising: a motor for driving the vehicle; a battery storing electrical energy to rotate the motor; an inverter transforming power output from the battery into alternating current to supply the alternating current to the motor, and also transforming power regenerated by the motor into direct current to supply the direct current back to the battery; a control unit controlling an operation of the inverter; and a converting mechanism transmitting rotation of the motor to a drive shaft (2; 6) of the vehicle at a second conversion ratio, independent of the first conversion ratio of the transmission of the engine, characterized in that: the control unit is configured to set, at any vehicle speed where the motor is allowed to operate in powering and in regeneration, a maximum driving force of the motor during regeneration to be higher than a maximum driving force of the motor during powering. a motor for driving the vehicle; a battery storing electrical energy to rotate the motor; an inverter transforming power output from the battery into alternating current to supply the alternating current to the motor, and also transforming power regenerated by the motor into direct current to supply the direct current back to the battery; a control unit controlling an operation of the inverter; and a converting mechanism transmitting rotation of the motor to a drive shaft (2; 6) of the vehicle at a second conversion ratio, independent of the first conversion ratio of the transmission of the engine,
A method for communication, comprising: coupling one or more peering routers in an area of a network to receive communication traffic from outside the area, the traffic comprising packets destined for a target address; forwarding the packets to the target address over one or more first routes via one or more internal routers (76, 77) within the area of the network; establishing one or more tunnels through the network from the peering routers to a diverting router within the area of the network, the one or more tunnels being established from the peering routers to one or more first ports of the diverting router, wherein the diverting router forwards packets received through the one or more tunnels to a second port without making any routing decision;coupling a traffic processor to the second port of the diverting router; in response to a characteristic of the traffic, the traffic processor instructing the one or more peering routers to forward the packets that are destined for the target address through the one or more tunnels instead of over the first routes; receiving, at the traffic processor, the packets that were forwarded through the tunnels via the diverting router; processing, at the traffic processor, the received packets; and at the traffic processor, conveying at least some of the processed packets from the traffic processor to the target address. coupling one or more peering routers in an area of a network to receive communication traffic from outside the area, the traffic comprising packets destined for a target address; forwarding the packets to the target address over one or more first routes via one or more internal routers (76, 77) within the area of the network; establishing one or more tunnels through the network from the peering routers to a diverting router within the area of the network, the one or more tunnels being established from the peering routers to one or more first ports of the diverting router, wherein the diverting router forwards packets received through the one or more tunnels to a second port without making any routing decision;coupling a traffic processor to the second port of the diverting router; in response to a characteristic of the traffic, the traffic processor instructing the one or more peering routers to forward the packets that are destined for the target address through the one or more tunnels instead of over the first routes; receiving, at the traffic processor, the packets that were forwarded through the tunnels via the diverting router; processing, at the traffic processor, the received packets; and at the traffic processor, conveying at least some of the processed packets from the traffic processor to the target address.
A method of performing fault management in electronic medical imaging apparatus, which method comprises the steps of - transferring machine data of electronic medical imaging apparatus to a remote support centre during normal operation of the electronic medical imaging apparatus, wherein machine data comprises information generated by electronic medical imaging apparatus in the course of normal operation and comprises any of: machine parameters for an imaging task, statements summarizing the steps of an imaging procedure, sensor output values, parameters set by a user, parameters set by the device, images generated during an imaging task; - applying artificial intelligence in the form of a neural network to analyse machine data of electronic medical imaging apparatus in the remote support centre, wherein the neural network has learned to identify expected content in machine data and to recognise any departure from such expected content; - providing a diagnostic and/or corrective workflow in response to an anomaly detected in machine data of an electronic medical imaging apparatus; - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow, wherein machine data of the diagnostic and/or corrective workflow is analysed in the remote support centre in real time. - transferring machine data of electronic medical imaging apparatus to a remote support centre during normal operation of the electronic medical imaging apparatus, wherein machine data comprises information generated by electronic medical imaging apparatus in the course of normal operation and comprises any of: machine parameters for an imaging task, statements summarizing the steps of an imaging procedure, sensor output values, parameters set by a user, parameters set by the device, images generated during an imaging task; - applying artificial intelligence in the form of a neural network to analyse machine data of electronic medical imaging apparatus in the remote support centre, wherein the neural network has learned to identify expected content in machine data and to recognise any departure from such expected content; - providing a diagnostic and/or corrective workflow in response to an anomaly detected in machine data of an electronic medical imaging apparatus; - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow, wherein machine data of the diagnostic and/or corrective workflow is analysed in the remote support centre in real time. - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow, wherein machine data of the diagnostic and/or corrective workflow is analysed in the remote support centre in real time.
Fuel cell stack formed by a stack of electrochemical cells each having an anode and a cathode on either side of a polymeric ion-exchange membrane, a fuel gas supply system on the anode side of the electrochemical cells and an oxidant gas supply system on the cathode side of the electrochemical cells, the fuel gas supply system comprising: • a cut-off valve for connection to a fuel gas storage tank and a pressure regulating valve for said fuel gas; • a supply channel to the anodes; • a fuel gas recycling loop terminating in the supply channel downstream of the pressure regulating valve for said fuel gas; • a supply channel for supplying the cathodes with oxidant gas; • an oxidant gas recycling loop; • a device for filling with pressurized atmospheric air; and • means of isolation from the atmospheric air, enabling the supply channel to the cathodes and said recycling loop to be isolated from the atmospheric air, characterized in that the oxidant gas supply system includes an additional fuel gas accumulation chamber for accumulating said fuel gas, which is connected to the network of fuel gas supply channels, downstream of the cut-off valve and upstream of the pressure regulating valve, and in that it includes a hydrogen concentration sensor in the fuel gas supply system on the anode side. • a cut-off valve for connection to a fuel gas storage tank and a pressure regulating valve for said fuel gas; • a supply channel to the anodes; • a fuel gas recycling loop terminating in the supply channel downstream of the pressure regulating valve for said fuel gas; • a supply channel for supplying the cathodes with oxidant gas; • an oxidant gas recycling loop; • a device for filling with pressurized atmospheric air; and • means of isolation from the atmospheric air, enabling the supply channel to the cathodes and said recycling loop to be isolated from the atmospheric air,
A negative pressure wound therapy, NPWT, system comprising: an instillation system configured to provide instillation fluid to a wound site, wherein the wound site comprises a wound and a wound dressing; a controller configured to: provide a first quantity of instillation fluid for a first instillation cycle; determine a second quantity of instillation fluid for a second instillation cycle based on the first quantity and a reduction factor, wherein the second quantity of instillation fluid is less than the first quantity of instillation fluid; and adjust an operation of the instillation system to provide the second quantity of instillation fluid to the wound site, characterized in that the reduction factor is determined based on a negative pressure of a negative pressure cycle and a time duration of the negative pressure cycle. an instillation system configured to provide instillation fluid to a wound site, wherein the wound site comprises a wound and a wound dressing; a controller configured to: provide a first quantity of instillation fluid for a first instillation cycle; determine a second quantity of instillation fluid for a second instillation cycle based on the first quantity and a reduction factor, wherein the second quantity of instillation fluid is less than the first quantity of instillation fluid; and adjust an operation of the instillation system to provide the second quantity of instillation fluid to the wound site, characterized in that the reduction factor is determined based on a negative pressure of a negative pressure cycle and a time duration of the negative pressure cycle. provide a first quantity of instillation fluid for a first instillation cycle; determine a second quantity of instillation fluid for a second instillation cycle based on the first quantity and a reduction factor, wherein the second quantity of instillation fluid is less than the first quantity of instillation fluid; and adjust an operation of the instillation system to provide the second quantity of instillation fluid to the wound site, characterized in that the reduction factor is determined based on a negative pressure of a negative pressure cycle and a time duration of the negative pressure cycle.
An apparatus for the determination and regulation of the concentration of at least one dissolved substance in a fluid circuit, wherein the fluid circuit comprises an extracorporeal blood circuit and a dialysate circuit having at least one filter which separates the partial circuits (12a, 14) in a semipermeable manner, wherein the apparatus has a detection unit having at least one means with which the concentration difference of at least one first dissolved substance can be determined indirectly and/or directly by the detection unit before and after the filter in the dialysate circuit; and wherein the apparatus has a regulation unit for regulating the concentration of the at least one dissolved substance in the fluid circuit, characterized in that the apparatus further has a determination unit which determines the influence of at least one second dissolved substance which is not identical to the at least one first dissolved substance on the determination of the concentration difference made by the means of the detection unit while using a model and calculates the concentration difference of the at least one first dissolved substance before and after the filter in the dialysate circuit.
An apparatus for wireless communications, comprising: at least one processor coupled with a memory and comprising at least one encoder circuit configured to: obtain bits of information to be transmitted; perform cyclic redundancy check, CRC, outer encoding of the bits of information using an even-weighted generator polynomial to produce CRC encoded bits; perform polar inner encoding of the CRC encoded bits to generate a codeword; and discard the first code bit at a beginning of the codeword to produce a shortened codeword; and a transmitter configured to transmit the shortened codeword in accordance with a wireless technology across a channel via one or more antenna elements situated proximate the transmitter. at least one processor coupled with a memory and comprising at least one encoder circuit configured to: obtain bits of information to be transmitted; perform cyclic redundancy check, CRC, outer encoding of the bits of information using an even-weighted generator polynomial to produce CRC encoded bits; perform polar inner encoding of the CRC encoded bits to generate a codeword; and discard the first code bit at a beginning of the codeword to produce a shortened codeword; and obtain bits of information to be transmitted; perform cyclic redundancy check, CRC, outer encoding of the bits of information using an even-weighted generator polynomial to produce CRC encoded bits; perform polar inner encoding of the CRC encoded bits to generate a codeword; and discard the first code bit at a beginning of the codeword to produce a shortened codeword; and a transmitter configured to transmit the shortened codeword in accordance with a wireless technology across a channel via one or more antenna elements situated proximate the transmitter.
Soil treatment device for treating a contaminated soil and/or groundwater contained therein, comprising measuring means for measuring contamination of the soil, injecting means for injecting soil decontamination agents in the soil and a longitudinal soil penetration rod provided with a rod tip at an end of the soil penetration rod for moving the soil penetration rod into the soil, the outer surface of the soil penetration rod comprising a measuring section comprising at least one sensor of the measuring means for measuring contamination of the soil adjacent to the measuring section when moved into the soil and an injection section comprising at least one injection nozzle of the injecting means for injecting decontamination agent in the soil adjacent to the injection section, wherein the measuring section and the injection section are provided at longitudinally distinct locations of the soil penetration rod and the measuring section is closer to the rod tip than the injection section, characterized in that the distance between the injection section and the measuring section is at least 0.5m; wherein the soil penetration rod further comprises an injection chamber at the injection section of the soil penetration rod, the at least one nozzle interconnecting the injection chamber to the outside of the soil penetration rod, the injecting means comprising at least one injection line for conducting decontamination agent from at least one fluid reservoir of the injecting means containing decontamination agent to the injection chamber.
A BRAF inhibitor of Formula II for use in the treatment of a proliferative disease, wherein the BRAF inhibitor is administered on an intermittent dosing schedule comprising administration of the BRAF inhibitor for a period of time, followed by a period of time wherein the treatment with the BRAF kinase inhibitor is withheld for inducing regression of a tumor that is resistant to treatment with the BRAF inhibitor.