mhurhangee/ep-ind-claims huggingface dataset:
A system for transcutaneous energy transfer, comprising: an implantable medical device having componentry for providing a therapeutic output, said implantable medical device having an internal power source and a secondary coil operatively coupled to said internal power source, said implantable medical device adapted to be implanted in a patient; and an external power source having a primary coil, said external power source providing energy to said implantable medical device when said primary coil of said external power source is placed in proximity of said secondary coil of said implantable medical device and thereby generating a current in said internal power source; and an alignment indicator, operatively coupled to said internal power source, reporting an alignment as a function of said current generated in said internal power source compared with a predetermined value associated with an expected alignment between said primary coil and said secondary coil, wherein said external power source varies its power output based on the current generated in said internal power source in order to generate a predetermined current in said internal power source; and wherein said internal power source has an internal impedance characterised in that said predetermined value is adjusted as a function of the internal impedance. an implantable medical device having componentry for providing a therapeutic output, said implantable medical device having an internal power source and a secondary coil operatively coupled to said internal power source, said implantable medical device adapted to be implanted in a patient; and an external power source having a primary coil, said external power source providing energy to said implantable medical device when said primary coil of said external power source is placed in proximity of said secondary coil of said implantable medical device and thereby generating a current in said internal power source; and an alignment indicator, operatively coupled to said internal power source, reporting an alignment as a function of said current generated in said internal power source compared with a predetermined value associated with an expected alignment between said primary coil and said secondary coil, wherein said external power source varies its power output based on the current generated in said internal power source in order to generate a predetermined current in said internal power source; and wherein said internal power source has an internal impedance characterised in that said predetermined value is adjusted as a function of the internal impedance.
A method for imparting hand-tearability to an organic polymeric film, the method comprising: impinging a multiplicity of ceramic microblades on a major surface of the organic polymeric film so that at least some of the ceramic microblades penetrate partially through a thickness of the organic polymeric film to generate microfractures therein; and, separating the organic polymeric film from the multiplicity of ceramic microblades. impinging a multiplicity of ceramic microblades on a major surface of the organic polymeric film so that at least some of the ceramic microblades penetrate partially through a thickness of the organic polymeric film to generate microfractures therein; and, separating the organic polymeric film from the multiplicity of ceramic microblades.
A method for updating an existing mixing plant comprising: - a collection device provided with a load cell for measuring a quantity of material introduced on or into said collection device; - a plurality of hoppers (T1, T2, T3, T4) or silos configured to release a quantity of material on or into said collection device; said method comprising a phase of installing an updating system in the mixing plant so as to be able to effectively monitor the preparation of the mixture by identifying the amount of material released by each hopper (T1, T2, T3, T4), the updating system comprising: - a reading device connectable to said load cell and configured to read a measurement of said load cell and generate a load signal (S_C); - a DIO converter connectable to each hopper (T1, T2, T3, T4) or silo and configured to read an open or closed state of each hopper (T1, T2, T3, T4) and generate an open (S_A) or closed (S_CL) signal of each hopper (T1, T2, T3, T4) or silo; - a datalogger configured to receive, process and store said load signals (S_C) and said open (S_A) or closed (S_CL) signals of each hopper (T1, T2, T3, T4); and - a communication system configured to send said signals (S_C, S_A, S_CL) processed and stored by the datalogger to a server. - a collection device provided with a load cell for measuring a quantity of material introduced on or into said collection device; - a plurality of hoppers (T1, T2, T3, T4) or silos configured to release a quantity of material on or into said collection device; said method comprising a phase of installing an updating system in the mixing plant so as to be able to effectively monitor the preparation of the mixture by identifying the amount of material released by each hopper (T1, T2, T3, T4), the updating system comprising: - a reading device connectable to said load cell and configured to read a measurement of said load cell and generate a load signal (S_C); - a DIO converter connectable to each hopper (T1, T2, T3, T4) or silo and configured to read an open or closed state of each hopper (T1, T2, T3, T4) and generate an open (S_A) or closed (S_CL) signal of each hopper (T1, T2, T3, T4) or silo; - a datalogger configured to receive, process and store said load signals (S_C) and said open (S_A) or closed (S_CL) signals of each hopper (T1, T2, T3, T4); and - a communication system configured to send said signals (S_C, S_A, S_CL) processed and stored by the datalogger to a server. - a reading device connectable to said load cell and configured to read a measurement of said load cell and generate a load signal (S_C); - a DIO converter connectable to each hopper (T1, T2, T3, T4) or silo and configured to read an open or closed state of each hopper (T1, T2, T3, T4) and generate an open (S_A) or closed (S_CL) signal of each hopper (T1, T2, T3, T4) or silo; - a datalogger configured to receive, process and store said load signals (S_C) and said open (S_A) or closed (S_CL) signals of each hopper (T1, T2, T3, T4); and - a communication system configured to send said signals (S_C, S_A, S_CL) processed and stored by the datalogger to a server.
A heat control device which controls heating temperature of plurality of heat generating glasses (24, 25, 26), comprising: a phase detection part which detects a zero point of a sine wave signal; a heat control part which generates a control signal for controlling supply of the sine wave signal using the zero point of the sine wave signal detected by the phase detection part, so that the sine wave is input to the heat generating glasses at a point of time when current of the sine wave signal is zero and also the supplying of the sine wave signal is also stopped at the point of time when the current of the sine wave signal is zero; and a driver circuit (19, 20, 21) which supplies the sine wave signal to the heat generating glasses at a point of time designated by the control signal using the control signal transferred from the heat control part and the sine wave signal input from a power source part wherein the heat control part supplies the sine wave signal so as to measure indoor temperature and humidity using a temperature and humidity sensor, find a temperature of the heat generating glasses that dew condensation does not occur, based on the measured temperature and humidity, and automatically maintain the temperature that the dew condensation does not occur, thereby preventing occurrence of the dew condensation. a phase detection part which detects a zero point of a sine wave signal; a heat control part which generates a control signal for controlling supply of the sine wave signal using the zero point of the sine wave signal detected by the phase detection part, so that the sine wave is input to the heat generating glasses at a point of time when current of the sine wave signal is zero and also the supplying of the sine wave signal is also stopped at the point of time when the current of the sine wave signal is zero; and a driver circuit (19, 20, 21) which supplies the sine wave signal to the heat generating glasses at a point of time designated by the control signal using the control signal transferred from the heat control part and the sine wave signal input from a power source part wherein the heat control part supplies the sine wave signal so as to measure indoor temperature and humidity using a temperature and humidity sensor, find a temperature of the heat generating glasses that dew condensation does not occur, based on the measured temperature and humidity, and automatically maintain the temperature that the dew condensation does not occur, thereby preventing occurrence of the dew condensation.
A process for synthesizing an azo compound, comprising the successive steps consisting in: a) reacting hydrogen peroxide with an aqueous solution of a hydrazo compound containing at least one organic or inorganic acid, at least one alkali metal bromide or hydrogen and at least one water-soluble compound chosen from salts and acids based on a catalytic metal chosen from molybdenum and tungsten, so as to form a solution containing an azo compound, b) adding the solution obtained in step (a) to at least one reducing agent chosen from hydrazine, sodium sulfite and sodium bisulfite, and mixtures thereof, c) recovering all or part of the reaction mixture thus obtained, the reaction mixture not recovered being able to be recycled into step (a), d) separating the recovered reaction mixture into a fraction containing the azo compound and a mother liquor fraction, and e) optionally, washing the fraction containing the azo compound to isolate it. a) reacting hydrogen peroxide with an aqueous solution of a hydrazo compound containing at least one organic or inorganic acid, at least one alkali metal bromide or hydrogen and at least one water-soluble compound chosen from salts and acids based on a catalytic metal chosen from molybdenum and tungsten, so as to form a solution containing an azo compound, b) adding the solution obtained in step (a) to at least one reducing agent chosen from hydrazine, sodium sulfite and sodium bisulfite, and mixtures thereof, c) recovering all or part of the reaction mixture thus obtained, the reaction mixture not recovered being able to be recycled into step (a), d) separating the recovered reaction mixture into a fraction containing the azo compound and a mother liquor fraction, and e) optionally, washing the fraction containing the azo compound to isolate it.
A pivot (58, 64) for a sliding bearing of an epicyclic train, comprising an annular wall defining an axial passage and comprising a first and a second annular groove opening axially in opposite directions (L1, L2) and each defined by two coaxial inner (52a, 54a) and outer (52b, 54b) annular branches formed at the axial ends of the annular wall, characterized in that recesses (60, 66) are formed in at least one bottom wall (52d, 54d) of one of the annular grooves (52c, 54c).
Vehicle for passenger transportation comprising at least one fire extinguishing system, the system comprising: - at least one distribution pipe extending along a coach of the vehicle, the distribution pipe being configured to transport an extinguishing agent able to extinguish a fire; - a plurality of sprinklers arranged and spaced apart from each other along the distribution pipe, wherein each sprinkler comprises a single nozzle configured to disperse the extinguishing agent in form of a mist for extinguishing a fire in a compartment of the vehicle, each nozzle being configured to disperse the extinguishing agent within a single cone defined by each nozzle and a predefined aperture angle (α). - at least one distribution pipe extending along a coach of the vehicle, the distribution pipe being configured to transport an extinguishing agent able to extinguish a fire; - a plurality of sprinklers arranged and spaced apart from each other along the distribution pipe, wherein each sprinkler comprises a single nozzle configured to disperse the extinguishing agent in form of a mist for extinguishing a fire in a compartment of the vehicle,
A system comprising: a set of client devices providing switching functionality; and an aggregation device configured to communicate with an orchestrator of a wide area network, WAN, wherein the aggregation device serves as a master switch and is coupled to the set of client devices via a set of cascade ports, which are physical interfaces on the aggregation device and provide connectivity to the set of client devices, and wherein the aggregation device is configured to: detect, using a port extension service virtual network function, VNF, executing on the aggregation device, each client device of the set of client devices coupled to the aggregation device, wherein the port extension service is a port extension bridge function; send, to the orchestrator, data indicating the client devices as respective sub-systems within a logical switch comprising the aggregation device and the set of client devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, by the port extension service based on the configuration information, the client device of the set of client devices corresponding to the at least one sub-system. a set of client devices providing switching functionality; and an aggregation device configured to communicate with an orchestrator of a wide area network, WAN, wherein the aggregation device serves as a master switch and is coupled to the set of client devices via a set of cascade ports, which are physical interfaces on the aggregation device and provide connectivity to the set of client devices, and wherein the aggregation device is configured to: detect, using a port extension service virtual network function, VNF, executing on the aggregation device, each client device of the set of client devices coupled to the aggregation device, wherein the port extension service is a port extension bridge function; send, to the orchestrator, data indicating the client devices as respective sub-systems within a logical switch comprising the aggregation device and the set of client devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, by the port extension service based on the configuration information, the client device of the set of client devices corresponding to the at least one sub-system. detect, using a port extension service virtual network function, VNF, executing on the aggregation device, each client device of the set of client devices coupled to the aggregation device, wherein the port extension service is a port extension bridge function; send, to the orchestrator, data indicating the client devices as respective sub-systems within a logical switch comprising the aggregation device and the set of client devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, by the port extension service based on the configuration information, the client device of the set of client devices corresponding to the at least one sub-system.
Air spring unit, in particular for an air spring system of a vehicle, including an air spring, which has a bellows closed by a cover, and including a switch valve having a piston adjustable between a closure position and at least one open position, which is fluidically connected to an air spring connection of the air spring via at least one switch valve connection, wherein the switch valve is at least indirectly arranged externally of the cover of the air spring, and wherein the switch valve connection and the air spring connection provided in the cover of the air spring are arranged at least substantially overlapping with each other, characterized in that the piston of the switch valve is pressure-relieved via a pressure equalization line.
Edge strip for pieces of furniture, comprising a main body with an underside, which can be placed against a piece of furniture, and with an upper side (3, 4), which faces away from the underside, the upper side (3, 4) having at least one transitional portion, which slopes down towards a periphery (UR, OR) of the main body, the transitional portion having a decoration over at least part thereof, characterized in that the decoration is printed on the main body of the edge strip.
Suction device for separating particles from a suction flow, comprising a suction motor for generating the suction flow and a suction device housing having a control wall for operating the suction device, wherein at least one module receptacle is located on the control wall for accommodating at least one function module (50a-50d) providing an electric and/or optical and/or acoustic function, wherein an electric connecting arrangement for an electric connection of the at least one function module (50a-50d) to the suction device is located on the module receptacle, wherein the at least one function module (50a-50d) is releasably connectable to the suction device by means of connecting means, and wherein the electric connecting arrangement has supply contacts for the electric energy supply of an electric load, in particular a power tool, connectable to the suction device, characterised in that the electric connecting arrangement comprises suction device signal contacts and/or a wireless internal interface for communicating data signals, in particular bus data signals, and/or control signals to the at least one function module (50a-50d) or from the at least one function module (50a-50d).
Evaporation boat for evaporation of metals, wherein the evaporation boat is made from a material comprising titanium diboride and boron nitride, and wherein the evaporation boat has an upper side, an underside, two lateral surfaces and two clamping surfaces, and wherein metal is evaporated from the upper side, and wherein the two clamping surfaces are parallel to each other, and wherein at least one part of the evaporation boat has a cross-sectional area with a trapezoidal shape in a direction parallel to the clamping surfaces, and wherein the upper side of the evaporation boat is parallel to the underside of the evaporation boat, characterized in that each of the two lateral surfaces of the evaporation boat is inclined at an angle of from 30 to 42 degrees against the upper side of the evaporation boat in the at least one part of the evaporation boat having a cross-sectional area with a trapezoidal shape.
A method for wireless communication, comprising: receiving, from a wireless device, a packet comprising a set of code block groups CBGs, each CBG comprising one or more MAC sub-protocol data units, subPDUs, and each subPDU including a MAC-service data unit, MAC SDU, or a MAC-control element, MAC-CE, padding, or combinations thereof; characterised by: determining, for the set of CBGs, a decoding configuration that indicates a subset of CBGs including one or more MAC-CEs; identifying the subset of CBGs based at least in part on the determined decoding configuration; and decoding content of the one or more MAC subPDUs based at least in part on identifying the subset of CBGs, wherein; decoding the content of the one or more MAC subPDUs comprises decoding one or more MAC-control elements, CEs, carried by respective MAC subPDUs of the one or more MAC subPDUs, and; wherein the decoding configuration indicates a threshold number of MAC-CEs within the packet, or a threshold MAC-CE size within the packet, or a combination thereof. receiving, from a wireless device, a packet comprising a set of code block groups CBGs, each CBG comprising one or more MAC sub-protocol data units, subPDUs, and each subPDU including a MAC-service data unit, MAC SDU, or a MAC-control element, MAC-CE, padding, or combinations thereof; characterised by: determining, for the set of CBGs, a decoding configuration that indicates a subset of CBGs including one or more MAC-CEs; identifying the subset of CBGs based at least in part on the determined decoding configuration; and decoding content of the one or more MAC subPDUs based at least in part on identifying the subset of CBGs, wherein; decoding the content of the one or more MAC subPDUs comprises decoding one or more MAC-control elements, CEs, carried by respective MAC subPDUs of the one or more MAC subPDUs, and; wherein the decoding configuration indicates a threshold number of MAC-CEs within the packet, or a threshold MAC-CE size within the packet, or a combination thereof.
A glass frit, comprising: 10 to 20 wt% of phosphorus pentoxide (P 2 O 5); 50 to 70 wt% of vanadium pentoxide (V 2 O 5); 5 to 20 wt% of tellurium dioxide (TeO 2); 1 to 5 wt% of copper oxide (CuO); 1 to 20 wt% of one or more of barium oxide (BaO) and zinc oxide (ZnO); and 1 to 30 wt% of one or more of bismuth oxide (Bi 2 O 3) and silver oxide (Ag 2 O), wherein the glass frit includes no inorganic filler. 10 to 20 wt% of phosphorus pentoxide (P 2 O 5); 50 to 70 wt% of vanadium pentoxide (V 2 O 5); 5 to 20 wt% of tellurium dioxide (TeO 2); 1 to 5 wt% of copper oxide (CuO); 1 to 20 wt% of one or more of barium oxide (BaO) and zinc oxide (ZnO); and 1 to 30 wt% of one or more of bismuth oxide (Bi 2 O 3) and silver oxide (Ag 2 O), wherein the glass frit includes no inorganic filler.
Connection arrangement (6, 6'), especially for a household appliance, having a seal, a first component (4, 5), which has a U-shaped duct, and a second component, which has a U-shaped contour, which is spread in a first direction into the U-shaped duct of the first component (4, 5) and in a second direction at right angles to the first direction the seal presses against the U-shaped duct of the first component (4, 5) for a fluidic sealing between the first component (4, 5) and the second component, wherein the U-shaped contour of the second component has a first, second and third section (11, 12, 13), and wherein the third section of the U-shaped contour of the second component forms a free end of the second component, characterised in that the second section of the U-shaped contour of the second component is angled in each case compared with the first and the third section (11, 13) of the U-shaped contour of the second component such that the first section of the U-shaped contour of the second component has a receptacle, in which the seal is partially received, and that the U-shaped duct of the first component (4, 5) has a retaining means, which blocks a movement of the third section of the U-shaped contour of the second component counter to the first direction.