mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an electrode applicable to discharge surface treatment, comprising: kneading a composition consisting of an electrically conductive mixed matter, the matter being metal, or a metal and ceramic, the matter consisting of a first powder of spherical particles obtained by at least any process selected from the group consisting of an atomizing method, a reduction method, and a carbonyl method and a second powder obtained by a crushing method, and a binder, the electrically conductive mixed matter including the second powder at a ratio of 10-65 weight %; carrying out injection molding to inject the kneaded composition into a mold to produce a green body; degreasing the green body by heating the green body or by immersing the green body in a solvent; processing the degreased green body with isostatic pressure forming; and sintering the green body after the isostatic pressure forming. kneading a composition consisting of an electrically conductive mixed matter, the matter being metal, or a metal and ceramic, the matter consisting of a first powder of spherical particles obtained by at least any process selected from the group consisting of an atomizing method, a reduction method, and a carbonyl method and a second powder obtained by a crushing method, and a binder, the electrically conductive mixed matter including the second powder at a ratio of 10-65 weight %; carrying out injection molding to inject the kneaded composition into a mold to produce a green body; degreasing the green body by heating the green body or by immersing the green body in a solvent; processing the degreased green body with isostatic pressure forming; and sintering the green body after the isostatic pressure forming.
A polysulfone hollow fiber membrane for blood treatment, comprising a polysulfone resin, a hydrophilic polymer, and a fat-soluble vitamin, wherein: the fat-soluble vitamin is selected from the group consisting of vitamin A, vitamin D, vitamin E, vitamin K and ubiquinone; the amount of the fat-soluble vitamin present in the surface of the membrane is 10 to 300 mg per square meter; the content of the fat-soluble vitamin present in the surface of the membrane is 40 to 95% by mass when the content of the fat-soluble vitamin present in the entire membrane is assumed as 100% by mass; the clearance rate of β2 microglobulin (β2MG) converted to that for 1.5 m 2 for a blood purifier assembled using the membrane is 65 mL/min or more characterized in that the hollow fiber membrane contains 2 to 3000 μg of a ketone and/or an alcohol having 1 to 4 carbons per gram of the hollow fiber membrane, and wherein the content of the fat-soluble vitamin in the hollow fiber membrane surface and in the entire membrane as well as the clearance-rate of β2MG are measured by the method specified in the description. the fat-soluble vitamin is selected from the group consisting of vitamin A, vitamin D, vitamin E, vitamin K and ubiquinone; the amount of the fat-soluble vitamin present in the surface of the membrane is 10 to 300 mg per square meter; the content of the fat-soluble vitamin present in the surface of the membrane is 40 to 95% by mass when the content of the fat-soluble vitamin present in the entire membrane is assumed as 100% by mass; the clearance rate of β2 microglobulin (β2MG) converted to that for 1.5 m 2 for a blood purifier assembled using the membrane is 65 mL/min or more characterized in that the hollow fiber membrane contains 2 to 3000 μg of a ketone and/or an alcohol having 1 to 4 carbons per gram of the hollow fiber membrane, and wherein the content of the fat-soluble vitamin in the hollow fiber membrane surface and in the entire membrane as well as the clearance-rate of β2MG are measured by the method specified in the description.
An aqueous alkali metal glyphosate composition comprising: (a) an aqueous concentrate comprising at least 30 wt.% acid equivalents of an alkali metal glyphosate; (b) a surfactant blend comprising an etheramine component, wherein the etheramine component comprises poly oxyethylene isodecyloxypropylamine and/or poly oxyethylene isotridecyloxypropylamine; and (c) propylene glycol; wherein the pH of the aqueous concentrate is adjusted to be within the range of 4.0 to 4.5. (a) an aqueous concentrate comprising at least 30 wt.% acid equivalents of an alkali metal glyphosate; (b) a surfactant blend comprising an etheramine component, wherein the etheramine component comprises poly oxyethylene isodecyloxypropylamine and/or poly oxyethylene isotridecyloxypropylamine; and (c) propylene glycol;
A wheel type sexual massage device, including: a soft rubber leather sheath with a first end and a second end, a massaging head disposed on the first end of the soft rubber leather sheath, a shell body formed by attaching a first shell body member and a second shell body member; a vibration motor disposed in the shell body close to the first end; a mounting opening disposed close to the second end of the soft rubber leather sheath, wherein the shell body is disposed in the soft rubber leather sheath through the mounting opening; characterised in that a wheel mechanism is disposed in the shell body close to the second end and exposed to the mounting opening, the wheel mechanism including a roller, a circuit board provided with a switch, a wheel encoder and a rotating shaft disposed perpendicularly to the roller wherein the switch and the first end of the shaft are configured such that when the roller is pressed, the first end of the rotating shaft presses the switch of the circuit board, which in turn switches on/off the vibration motor and/or changes vibrating mode; and the vibration of the vibration motor is controlled and adjusted through the wheel encoder and the circuit board provided with the switch by rotating the roller. a soft rubber leather sheath with a first end and a second end, a massaging head disposed on the first end of the soft rubber leather sheath, a shell body formed by attaching a first shell body member and a second shell body member; a vibration motor disposed in the shell body close to the first end; a mounting opening disposed close to the second end of the soft rubber leather sheath, wherein the shell body is disposed in the soft rubber leather sheath through the mounting opening; characterised in that a wheel mechanism is disposed in the shell body close to the second end and exposed to the mounting opening, the wheel mechanism including a roller, a circuit board provided with a switch, a wheel encoder and a rotating shaft disposed perpendicularly to the roller wherein the switch and the first end of the shaft are configured such that when the roller is pressed, the first end of the rotating shaft presses the switch of the circuit board, which in turn switches on/off the vibration motor and/or changes vibrating mode; and the vibration of the vibration motor is controlled and adjusted through the wheel encoder and the circuit board provided with the switch by rotating the roller.
A pulse wave analyzer comprising: a pulse wave acquirer which is configured to acquire a pulse wave of a subject, said pulse wave being configured by a plurality of continuous unit pulse waves; an electrocardiogram acquirer which is configured to acquire an electrocardiogram of the subject; a respiration information acquirer which is configured to acquire respiration information of the subject; and an analyzing section which includes: a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, wherein the analyzing section is configured to calculate a respiratory variation from the unit pulse waves which are selected by the selection section, and the selection criterion is a threshold relating to an amplitude of the pulse wave. a pulse wave acquirer which is configured to acquire a pulse wave of a subject, said pulse wave being configured by a plurality of continuous unit pulse waves; an electrocardiogram acquirer which is configured to acquire an electrocardiogram of the subject; a respiration information acquirer which is configured to acquire respiration information of the subject; and an analyzing section which includes: a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, wherein the analyzing section is configured to calculate a respiratory variation from the unit pulse waves which are selected by the selection section, and the selection criterion is a threshold relating to an amplitude of the pulse wave.
Method for applying an edging strip section with predetermined length to the narrow side of a workpiece of wood or wood substitutes, wherein the edging strip is supplied to the workpiece via a feed unit with a feed section at a feed speed (vK) relative to the feed section, and changes into an adhesive state and is joined by means of an edging assembly to the workpiece and is connected to same by contact pressure by means of a contact pressure device, wherein the edging strip section is cut off by means of a separating device at a predetermined point during the edging process so that the edging strip section receives the predetermined length, characterised in that the separating device at least during the separating process is guided with the edging strip section along the feed section at an advancing speed (vS) relative to the feed section, wherein the advancing speed (vS) or at least components thereof parallel to the feed section corresponds substantially to or is the same as the feed speed (vk).
A heat exchanger comprising: a tank; at least two coils (232A, 232B, 232C) disposed in the tank wherein the at least two coils (232A, 232B, 232C) being coupled in series; at least one coil inlet (248A, 250A) configured to admit a first stream through at least one of the at least two coils(232A, 232B, 232C); a plurality of coil outlets (248B, 250B) configured to pass the first stream from the coils (232A, 232B, 232C); the heat exchanger characterized by at least two tank inlets (252A-252I) configured to flow a second stream (253, 255) through the tank, each of the at least two tank inlets (252A-252I) being positioned proximate a corresponding coil of the at least two coils (232A, 232B, 232C) to cause the second stream (253, 255) to flow over at least the coil with which the respective tank inlet is positioned proximately; and a tank outlet configured to remove the second stream (253, 255) from the tank and wherein the heat exchanger is configured such that the first stream may be selectively flowed in series though a desired number of the at least two coils (232A, 232B, 232C) and such that the second stream (253, 255) may be substantially simultaneously flowed over the same coils through which the first stream is selectively flowed. a tank; at least two coils (232A, 232B, 232C) disposed in the tank wherein the at least two coils (232A, 232B, 232C) being coupled in series; at least one coil inlet (248A, 250A) configured to admit a first stream through at least one of the at least two coils(232A, 232B, 232C); a plurality of coil outlets (248B, 250B) configured to pass the first stream from the coils (232A, 232B, 232C); the heat exchanger characterized by at least two tank inlets (252A-252I) configured to flow a second stream (253, 255) through the tank, each of the at least two tank inlets (252A-252I) being positioned proximate a corresponding coil of the at least two coils (232A, 232B, 232C) to cause the second stream (253, 255) to flow over at least the coil with which the respective tank inlet is positioned proximately; and a tank outlet configured to remove the second stream (253, 255) from the tank and wherein the heat exchanger is configured such that the first stream may be selectively flowed in series though a desired number of the at least two coils (232A, 232B, 232C) and such that the second stream (253, 255) may be substantially simultaneously flowed over the same coils through which the first stream is selectively flowed.
An apparatus comprising: a non-volatile memory organized as block storage; and logic coupled to the non-volatile memory, the logic to provide concurrent redundant paths to the non-volatile memory to one of at least two storage controllers (102-1, 102-2) coupled via a serial system bus to the logic, each of the storage controllers (102-1, 102-2) in a different host computer system, the storage controllers and logic to communicate via the serial system bus, wherein the system bus uses a Peripheral Component Interconnect Express, PCIe, bus protocol, characterized in that the logic includes two upstream PCI-to-PCI bridges (400-1, 400-2) and a downstream PCI-to-PCI bridge, the logic allows each of the storage controllers (102-1, 102-2) to discover the non-volatile memory accessible via a downstream port of the downstream PCI-to-PCI bridge. a non-volatile memory organized as block storage; and logic coupled to the non-volatile memory, the logic to provide concurrent redundant paths to the non-volatile memory to one of at least two storage controllers (102-1, 102-2) coupled via a serial system bus to the logic, each of the storage controllers (102-1, 102-2) in a different host computer system, the storage controllers and logic to communicate via the serial system bus, wherein the system bus uses a Peripheral Component Interconnect Express, PCIe, bus protocol, characterized in that the logic includes two upstream PCI-to-PCI bridges (400-1, 400-2) and a downstream PCI-to-PCI bridge, the logic allows each of the storage controllers (102-1, 102-2) to discover the non-volatile memory accessible via a downstream port of the downstream PCI-to-PCI bridge.
A network monitoring system, the system comprising: a processor; a memory coupled to the processor; a database including a plurality of key performance indicator, KPI, records for monitoring a wireless communication system; a rules engine configured and operable to store in the memory KPI rules associated with at least one rule set; and an analysis engine configured and operable to: identify, using the processor, one or more root causes of a failure for one or more transactions based on at least one KPI rule in the at least one rule set; generate a KPI score for each of the one or more identified root causes based on a number of detected failures exceeding a predefined threshold in the wireless communication system; and generate a probability score value for each of the one or more identified root causes based on the generated KPI score. a processor; a memory coupled to the processor; a database including a plurality of key performance indicator, KPI, records for monitoring a wireless communication system; a rules engine configured and operable to store in the memory KPI rules associated with at least one rule set; and an analysis engine configured and operable to: identify, using the processor, one or more root causes of a failure for one or more transactions based on at least one KPI rule in the at least one rule set; generate a KPI score for each of the one or more identified root causes based on a number of detected failures exceeding a predefined threshold in the wireless communication system; and generate a probability score value for each of the one or more identified root causes based on the generated KPI score. identify, using the processor, one or more root causes of a failure for one or more transactions based on at least one KPI rule in the at least one rule set; generate a KPI score for each of the one or more identified root causes based on a number of detected failures exceeding a predefined threshold in the wireless communication system; and generate a probability score value for each of the one or more identified root causes based on the generated KPI score.
A computer-implemented medical data processing method for planning a position of an electric stimulation device for neurostimulation of at least two target regions (TV1,..., TVN) disposed in an anatomical body part of a patient's body, the electric stimulation device comprising at least two electric contacts, the method comprising executing, on at least one processor of at least one computer, steps of: a) acquiring (S1.1), at the at least one processor, medical image data describing a digital image of the anatomical body part, wherein the anatomical body part contains at least two target regions (TV1,..., TVN); b) determining (S1.2), by the at least one processor and based on the medical image data, target position data describing a position of each target region (TV1,..., TVN) in the anatomical body part; c) acquiring (S1.3), at the at least one processor, electric stimulation device geometry data describing a distance between the at least two contacts of the electric stimulation device; d) determining (S1.4), by the at least one processor and based on the target position data, target distance data describing a distance between each pair of the at least two target regions (TV1,..., TVN); e) determining (S1.5), by the at least one processor and based on the target position data and the target distance data and the electric stimulation device geometry data, electric stimulation device position data describing a stimulation position which is a relative position between the at least two target regions (TV1,..., TVN) and the electric stimulation device which allows for stimulation of the at least two target regions (TV1,..., TVN) by the electric stimulation device. a) acquiring (S1.1), at the at least one processor, medical image data describing a digital image of the anatomical body part, wherein the anatomical body part contains at least two target regions (TV1,..., TVN); b) determining (S1.2), by the at least one processor and based on the medical image data, target position data describing a position of each target region (TV1,..., TVN) in the anatomical body part; c) acquiring (S1.3), at the at least one processor, electric stimulation device geometry data describing a distance between the at least two contacts of the electric stimulation device; d) determining (S1.4), by the at least one processor and based on the target position data, target distance data describing a distance between each pair of the at least two target regions (TV1,..., TVN); e) determining (S1.5), by the at least one processor and based on the target position data and the target distance data and the electric stimulation device geometry data, electric stimulation device position data describing a stimulation position which is a relative position between the at least two target regions (TV1,..., TVN) and the electric stimulation device which allows for stimulation of the at least two target regions (TV1,..., TVN) by the electric stimulation device.
Control system for a loader of a work vehicle, in which the loader comprises: a lifting mechanism and a bucket control mechanism, the lifting mechanism being controlled by a lifting valve, the bucket control mechanism being controlled by a bucket valve, wherein the control system further comprises a control valve configured to promote the connection of the lifting valves and the bucket valves in an arrangement in series or in parallel upon increase or decrease of the pressure required by the control system, the control system characterized in that the lifting valve and the bucket valve have, each one, a first a second and a third switching positions (A, B, C), the bucket valve having a first, a second and a third passageways (251, 252, 253), the control valve has a first and a second switching positions (D, E) wherein in its first switching position, the control valve is connected to the lifting valve and comprises an arrangement in series between the lifting valve and the bucket valve.
A method carried out by a low-cost, LC, user equipment, UE, in a wireless network, comprising: detecting a first extended paging occasion, PO, for a paging message; determining a frequency location to receive Paging downlink control information, DCI, and blind decode two different DCI sizes pertaining to SI-Paging DCI and Call-Paging-DCI, respectively; determining if the blind decoding is successful; if the blind decoding is successful with the SI-Paging-DCI size, obtaining SI-Paging message from decoded SI-Paging-DCI, otherwise receiving and decoding paging message within PDSCH according to obtained scheduling information from decoded Paging-DCI, wherein the Paging-DCI is control information carrying the SI-Paging message or scheduling information for the call-Paging message. detecting a first extended paging occasion, PO, for a paging message; determining a frequency location to receive Paging downlink control information, DCI, and blind decode two different DCI sizes pertaining to SI-Paging DCI and Call-Paging-DCI, respectively; determining if the blind decoding is successful; if the blind decoding is successful with the SI-Paging-DCI size, obtaining SI-Paging message from decoded SI-Paging-DCI, otherwise receiving and decoding paging message within PDSCH according to obtained scheduling information from decoded Paging-DCI, wherein the Paging-DCI is control information carrying the SI-Paging message or scheduling information for the call-Paging message.
Stable, hybrid cooperative L/H-HA complexes prepared by submitting to thermal treatment, at temperature comprised between 80° and 160°, solutions containing simultaneously L-HA hyaluronic acid or hyaluronans and H-HA hyaluronic acid or hyaluronans wherein the molecular weight of L-HA is comprised between 1•10 4 to 1•10 6 Da and that of H-HA is given by the formula MW H-HA ≥ MW L-HA /0.9 and wherein H-HA and L-HA are present in relative quantities comprised between 0.5 - 2.
A method for obtaining of low temperatures in a compression refrigerating unit operating on a mixture of refrigerants boiling at various temperatures by means of compression in a compressor by pressurizing with high pressure forward flow into a heat exchanger - condenser, pre-cooling the high pressure forward flow to the partial liquefaction in the heat exchanger - condenser, pressurizing with high pressure forward flow in a heat exchanger - recuperator, further cooling of low pressure return stream until complete liquefaction in the heat exchanger - recuperator, pressurizing with high pressure forward flow in a throttle device, throttling and pressurizing with high pressure forward flow in an evaporator, its extension to the partial evaporation with the extraction of heat and the preheating of the object to be cooled in the evaporator, suction of low pressure return stream in the heat exchanger - recuperator and its further heating with the high pressure forward flow to evaporate completely the refrigerants in the heat exchanger - recuperator and suction of low pressure return stream of refrigerants to the compressor for recompression, which is characterized in that as refrigerants boiling at various temperatures isobutane, ethylene, methane and nitrogen are used, complete liquefaction of the refrigerants in the heat exchanger - recuperator is carried out by splitting of high pressure forward flow, and simultaneously its additional cooling is performed with low pressure return stream and complete evaporation of the refrigerants in the heat exchanger - recuperator is carried by reducing the rate of rectilinear motion and splitting low pressure return stream and simultaneously its additional heating with the high pressure forward flow is performed.