mhurhangee/ep-ind-claims huggingface dataset:
A charging method for a data service, comprising: receiving, by a gateway device, a Deep Packet Inspection, DPI, identification rule identifier and a corresponding charging control policy from a policy and charging rules function entity, wherein the charging control policy comprises a rate group (1001, 1003); identifying, by the gateway device, by using the DPI identification rule identifier, a DPI identification rule configured in the gateway device; parsing, by the gateway device, information of a service data stream by using the DPI identification rule; executing, by the gateway device, the charging control policy according to a parsed result; determining (SI01, S301), by the gateway device, whether the rate group (1001, 1003) of the service data stream changes; and if the rate group (1001, 1003) of the service data stream changes, reporting (S102, S302), by the gateway device, charging data to a charging system, wherein the charging data comprises service usage information. receiving, by a gateway device, a Deep Packet Inspection, DPI, identification rule identifier and a corresponding charging control policy from a policy and charging rules function entity, wherein the charging control policy comprises a rate group (1001, 1003); identifying, by the gateway device, by using the DPI identification rule identifier, a DPI identification rule configured in the gateway device; parsing, by the gateway device, information of a service data stream by using the DPI identification rule; executing, by the gateway device, the charging control policy according to a parsed result; determining (SI01, S301), by the gateway device, whether the rate group (1001, 1003) of the service data stream changes; and if the rate group (1001, 1003) of the service data stream changes, reporting (S102, S302), by the gateway device, charging data to a charging system, wherein the charging data comprises service usage information.
A cooling system for cooling a laser system, comprising: a first heat spreader configured to thermally contact the laser system, the first heat spreader configured to spread heat in at least two dimensions; a thermoelectric cooler having a cool side in thermal contact with the first heat spreader; a second heat spreader in thermal contact with a hot side of the thermoelectric cooler, the second heat spreader configured to spread heat in at least two dimensions; characterized in that the cooling system comprises: a support stand having a pedestal leg; and an air duct within the pedestal leg. a first heat spreader configured to thermally contact the laser system, the first heat spreader configured to spread heat in at least two dimensions; a thermoelectric cooler having a cool side in thermal contact with the first heat spreader; a second heat spreader in thermal contact with a hot side of the thermoelectric cooler, the second heat spreader configured to spread heat in at least two dimensions; characterized in that the cooling system comprises: a support stand having a pedestal leg; and an air duct within the pedestal leg.
Vibration damper for a coupling joint of a depth vibrator for compacting a soil, the coupling joint being designed so it can be arranged radially between a radially internal lower end of a coupling ram of the depth vibrator and a radially external coupling housing of the depth vibrator, comprising a first fastening element, a second fastening element and a spring element, which is arranged, at least in portions, radially between the first fastening element and the second fastening element, characterized in that at least one fastening element (51, 52) comprises at least one radial projection (54, 55, 56), which extends radially, at least in part, toward the other fastening element (51, 52) and against which the spring element can be pressed, at least in part, in the direction of the longitudinal axis, the radial projections (54, 55, 56) overlapping radially, in part.
Round plug connector unit (6, 6') for shielded electrical cables, with an insulating body, around which a shielding sleeve engages and in which a plurality of electrical socket- and/or pin-like plug contacts (5, 5') are arranged in receiving chambers, wherein the shielding sleeve latches to the insulating body and is latchable to a receiving housing part of a plug connector housing (4, 4'), wherein the plug-side end of the shielding sleeve has an even number of axially extending sleeve segments (14, 14', 14") separated by longitudinal slots, and wherein the sleeve segments (14, 14', 14") which follow one another in the circumferential direction of the shielding sleeve each have a uniform radial offset in an alternating direction to one another, and the sleeve segments (14, 14', 14") of two identically designed shielding sleeves are pluggable into one another in the event of a rotational offset in the circumferential direction of the shielding sleeves, wherein the rotational offset arises from 360° divided by the number of sleeve segments (14, 14', 14"), characterized in that, when the insulating body is accommodated in the shielding sleeve, the centre axis of the insulating body in each case coincides with the centre axis (17, 17') of the shielding sleeve and forms a longitudinal axis of the round plug connector unit (6, 6'), in that the even number of the sleeve segments (14, 14', 14") is at least four, and in that, when the shielding sleeves are plugged in one another, the longitudinal axes of the two round plug connector units (6, 6') are not offset radially with respect to each other because of the uniform radial offset of the sleeve segments (14, 14', 14").
A package for a surgical mesh comprising a receiving member configured and dimensioned to receive a flat surgical mesh, comprising a series of resting ribs protruding form an inner panel and dividing the inner panel into diffusing compartments, and a covering member comprising a series of resting ribs protruding from an inner panel and dividing the inner panel into diffusing compartments configured and dimensioned to cover the said surgical mesh maintaining with the receiving member the said surgical mesh in a substantially flat position between the resting ribs of the receiving member and the resting ribs of the covering member, and a gas channelling network interposed between the said receiving member and the said covering member configured to channel a sterilization gas within the surgical mesh, the gas channelling network being connected to the diffusing compartments.. a receiving member configured and dimensioned to receive a flat surgical mesh, comprising a series of resting ribs protruding form an inner panel and dividing the inner panel into diffusing compartments, and a covering member comprising a series of resting ribs protruding from an inner panel and dividing the inner panel into diffusing compartments configured and dimensioned to cover the said surgical mesh maintaining with the receiving member the said surgical mesh in a substantially flat position between the resting ribs of the receiving member and the resting ribs of the covering member, and a gas channelling network interposed between the said receiving member and the said covering member configured to channel a sterilization gas within the surgical mesh, the gas channelling network being connected to the diffusing compartments..
A continuous refrigeration system for kidney transplantation surgery, for refrigerating the kidney from the beginning of the kidney transplantation surgery to the opening of the renal arteries and veins, comprising: a kidney bag, an extracorporeal ring and an intracorporal ring, wherein one end of the kidney bag is provided with a bag mouth that allows the kidney and crushed ice to enter the interior of the kidney bag, the bottom of the kidney bag being a closed end; wherein the extracorporeal ring and the intracorporal ring are spaced on the kidney bag to support a partial length of the kidney bag to form a through circulation passage; and wherein a lead-out end is provided both outside and inside the bottom of the kidney bag to pull the kidney bag into and out of the patient's body during the operation. wherein one end of the kidney bag is provided with a bag mouth that allows the kidney and crushed ice to enter the interior of the kidney bag, the bottom of the kidney bag being a closed end; wherein the extracorporeal ring and the intracorporal ring are spaced on the kidney bag to support a partial length of the kidney bag to form a through circulation passage; and wherein a lead-out end is provided both outside and inside the bottom of the kidney bag to pull the kidney bag into and out of the patient's body during the operation.
A total heat exchange element-purpose flow channel plate formed from a resin composition having heat conductivity and moisture permeability, the resin composition comprising: at least one base material; and a moisture permeable material being a block copolymer based on a polyethylene glycol as a raw material, wherein the resin composition is molded to form a sheet, and the sheet is shaped into a corrugated form, the base material has a content ranging from 10% by weight to 85% by weight relative to a total weight of the base material and the moisture permeable material, the base material is a polypropylene with addition of a low-density polyethylene having a branched structure, and the base material contains the low-density polyethylene having a branched structure in a content greater than 0% and less than or equal to 40% by weight relative to the polypropylene with addition of a low-density polyethylene having a branched structure. at least one base material; and a moisture permeable material being a block copolymer based on a polyethylene glycol as a raw material, wherein the resin composition is molded to form a sheet, and the sheet is shaped into a corrugated form, the base material has a content ranging from 10% by weight to 85% by weight relative to a total weight of the base material and the moisture permeable material, the base material is a polypropylene with addition of a low-density polyethylene having a branched structure, and the base material contains the low-density polyethylene having a branched structure in a content greater than 0% and less than or equal to 40% by weight relative to the polypropylene with addition of a low-density polyethylene having a branched structure.
A computer-implemented method for generating a final image of a subsurface of the earth, the method comprising: receiving measured seismic data d of the subsurface; selecting an objective function E that is function of an initial reflectivity of the subsurface, wherein the objective function E includes a term that cross-correlates the measured seismic data d and simulated data d̃ at zero lag; calculating a calculated reflectivity r based on the measured seismic data d, objective function E, and simulated data d̃; and generating the final image based on said calculated reflectivity r, wherein the simulated data d̃ is calculated by applying a modeling operator M from a reverse time demigration process on said initial reflectivity. receiving measured seismic data d of the subsurface; selecting an objective function E that is function of an initial reflectivity of the subsurface, wherein the objective function E includes a term that cross-correlates the measured seismic data d and simulated data d̃ at zero lag; calculating a calculated reflectivity r based on the measured seismic data d, objective function E, and simulated data d̃; and generating the final image based on said calculated reflectivity r, wherein the simulated data d̃ is calculated by applying a modeling operator M from a reverse time demigration process on said initial reflectivity.
A lift control apparatus for lifting a ground work apparatus to be coupled to a traveling work vehicle, comprising: a height sensor configured to generate a height detection signal indicative of a height position of the ground work apparatus; an input operation device configured to accept an input of an upper limit setting from an operator; and characterized by an upper limit manager configured to set an upper limit position of the ground work apparatus based on an operation input signal from the input operation device; and a setting prohibitor configured to set an upper limit position as the actual height of the ground work apparatus under a certain condition, wherein the setting prohibitor is further configured to determine that the certain condition occurs when the upper limit position being set based on the operation input signal is lower than the detected height position of the ground work apparatus. a height sensor configured to generate a height detection signal indicative of a height position of the ground work apparatus; an input operation device configured to accept an input of an upper limit setting from an operator; and characterized by an upper limit manager configured to set an upper limit position of the ground work apparatus based on an operation input signal from the input operation device; and a setting prohibitor configured to set an upper limit position as the actual height of the ground work apparatus under a certain condition, wherein the setting prohibitor is further configured to determine that the certain condition occurs when the upper limit position being set based on the operation input signal is lower than the detected height position of the ground work apparatus.
Salient pole machine comprising a rotor and a plurality of salient poles, said rotor configured to rotate about a machine axis and having at its circumference a rotor rim with a predetermined outer radius, whereby said plurality of salient poles, each extending in a radial direction, is attached to said rotor at said rotor rim at a respective pole-rim interface, wherein at said pole-rim interface a plurality of axial rib-like rim extensions project radially from said rotor rim with a predetermined circumferential distance between neighboring axial rib-like rim extensions, wherein each salient pole has a plurality of axial pole grooves matching and receiving said axial rib-like rim extensions at the respective pole-rim interface, wherein said axial rib-like rim extensions and said axial pole grooves have adjacent sidewalls, wherein fixing elements are arranged outside said rotor rim, being provided to fix said axial rib-like rim extensions in said axial pole grooves, extending and being applied in axial direction, and being arranged in respective interface holes between said axial pole grooves and said axial rib-like rim extensions at the sidewalls thereof, characterized in that said adjacent sidewalls are in contact with each other.
A rechargeable battery comprising: a housing, an electrode assembly including a first electrode and a second electrode and situated within the housing; a first electrode terminal; and a first current collecting member; wherein the first current collecting member comprises a terminal connection portion that is electrically connected to the first electrode terminal and extends substantially parallel to a top surface of the battery, a side plate formed to be bent from the terminal connection portion and a current collecting piece (513, 515) that is electrically connected to the first electrode and extends substantially parallel to a side surface of the battery; characterised in that the first current collecting member comprises a fuse (517, 518) located between the side plate and the current collecting piece (513, 515) and connecting the side plate to the current collecting piece (513, 515), wherein the fuse is adapted to melt and cut off the electrical connection between the current collecting piece and the side plate when an overcurrent flows through the current collecting member; wherein the or each fuse comprises a blocking member for resisting contact between portions of the current collecting member that are located on opposite sides of the fuse following activation of the fuse, and the blocking member is made of the electrically insulating material and is insertingly installed on the fuse. a housing, an electrode assembly including a first electrode and a second electrode and situated within the housing; a first electrode terminal; and a first current collecting member; wherein the first current collecting member comprises a terminal connection portion that is electrically connected to the first electrode terminal and extends substantially parallel to a top surface of the battery, a side plate formed to be bent from the terminal connection portion and a current collecting piece (513, 515) that is electrically connected to the first electrode and extends substantially parallel to a side surface of the battery; characterised in that the first current collecting member comprises a fuse (517, 518) located between the side plate and the current collecting piece (513, 515) and connecting the side plate to the current collecting piece (513, 515), wherein the fuse is adapted to melt and cut off the electrical connection between the current collecting piece and the side plate when an overcurrent flows through the current collecting member; wherein the or each fuse comprises a blocking member for resisting contact between portions of the current collecting member that are located on opposite sides of the fuse following activation of the fuse, and the blocking member is made of the electrically insulating material and is insertingly installed on the fuse.
An Internet of Things ecosystem for building or home automation, comprising: at least one Cloud Device implementing lightweight functionality provided by a physical device, said Cloud Device residing in a IOT Hub and representing a local compute component; a backend Cloud implementing heavy-duty computing functionality; a first software program residing on the Cloud Device and communicating with the backend Cloud using a context switching event-based low latency connection; and a second software program residing on the backend Cloud and implementing heavy-duty computing functionality; wherein the ecosystem partitions full-functional specifications of the Cloud Device to two process spaces such that the Cloud Device implements the lightweight functionality and the backend Cloud implements the heaving-duty functionality; wherein the Cloud Device is a fully functional standalone software service application programing interface and works as a counterpart of the backend Cloud; wherein the Cloud Device is powered by the compute and storage power of the backend Cloud to service the network-connected Cloud-enabled system with minimal to no manual intervention; wherein data generated by the backend Cloud is accessed by the Cloud Device via a low latency Cloud Client Access application programming interface, CAPI; and wherein the IOT Hub allows the Cloud Device to act as an end point for issuing commands if the connection to the backend Cloud is lost. at least one Cloud Device implementing lightweight functionality provided by a physical device, said Cloud Device residing in a IOT Hub and representing a local compute component; a backend Cloud implementing heavy-duty computing functionality; a first software program residing on the Cloud Device and communicating with the backend Cloud using a context switching event-based low latency connection; and a second software program residing on the backend Cloud and implementing heavy-duty computing functionality; wherein the ecosystem partitions full-functional specifications of the Cloud Device to two process spaces such that the Cloud Device implements the lightweight functionality and the backend Cloud implements the heaving-duty functionality; wherein the Cloud Device is a fully functional standalone software service application programing interface and works as a counterpart of the backend Cloud; wherein the Cloud Device is powered by the compute and storage power of the backend Cloud to service the network-connected Cloud-enabled system with minimal to no manual intervention; wherein data generated by the backend Cloud is accessed by the Cloud Device via a low latency Cloud Client Access application programming interface, CAPI; and wherein the IOT Hub allows the Cloud Device to act as an end point for issuing commands if the connection to the backend Cloud is lost.
An electromagnetically-coupled state detection circuit comprising: a detection unit that measures a primary side Q value of a circuit containing a primary side coil electromagnetically coupled with a secondary side coil and power transmission efficiency to the secondary side coil, characterised in that said detection unit corrects the power transmission efficiency based on the Q value of the primary side coil, and detects a state of electromagnetic coupling with the secondary side coil based on an obtained corrected value of the power transmission efficiency. a detection unit that measures a primary side Q value of a circuit containing a primary side coil electromagnetically coupled with a secondary side coil and power transmission efficiency to the secondary side coil, characterised in that said detection unit corrects the power transmission efficiency based on the Q value of the primary side coil, and detects a state of electromagnetic coupling with the secondary side coil based on an obtained corrected value of the power transmission efficiency.
A lifting device for a submarine, wherein the lifting device comprises a lifting element and a receptacle for providing stowage, wherein the receptacle by means of the lifting element is reversibly displaceable along a lifting direction between a stowage position and a loading position, wherein the receptacle in the stowage position is at least partially disposed along a direction which runs perpendicularly to the lifting direction, so as to be adjacent to the lifting element, wherein the lifting element comprises an operating cylinder, a first longitudinal stay, a second longitudinal stay, a lifting support and a load support, wherein the first longitudinal stay, the second longitudinal stay, the lifting support and the load support are assembled to form a lifting scissors structure, wherein a spacing between the first longitudinal stay and the second longitudinal stay is capable of being established by means of the operating cylinder, wherein the operating cylinder is articulated on the first longitudinal stay and at a force-engaging point on the lifting support, wherein the load support and the lifting support are interconnected at a scissors rotation center, wherein a lever-arm length is established by the spacing between a lifting-support articulation point and the force-engaging point, wherein the ratio of the lever-arm length to a total length of the lifting support has a value between 0.2 and 0.5.