mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a base station of a wireless network, for supporting radio communication between wireless devices and the base station , wherein the base station employs carrier aggregation with multiple carriers serving a primary cell, PCell, and at least one secondary cell, SCell, wherein the base station serves the PCell on licensed frequency spectrum and serves the at least one SCell on unlicensed frequency spectrum, the method comprising: - signalling (3:3) an SCell status to the wireless devices , the SCell status indicating whether the at least one SCell will be in active state where the base station transmits downlink signals on a carrier serving the at least one SCell, or in inactive state where the base station does not transmit downlink signals on the carrier serving the at least one SCell, wherein when the base station detects that the unlicensed frequency spectrum is idle and available for radio communication, the signalled SCell status indicates that the at least one SCell will be in the active state and the signalled SCell status comprises an activity value indicating a number of subframes in which the at least one SCell will be in active state. - signalling (3:3) an SCell status to the wireless devices , the SCell status indicating whether the at least one SCell will be in active state where the base station transmits downlink signals on a carrier serving the at least one SCell, or in inactive state where the base station does not transmit downlink signals on the carrier serving the at least one SCell, wherein when the base station detects that the unlicensed frequency spectrum is idle and available for radio communication, the signalled SCell status indicates that the at least one SCell will be in the active state and the signalled SCell status comprises an activity value indicating a number of subframes in which the at least one SCell will be in active state.
A method for processing raw liquid manure, characterized by the following steps: i) provision of raw liquid manure ; ii) treatment of the raw liquid manure in a first treatment stage with formation of a first solid phase and a first treated liquid phase ; wherein the treatment of the raw liquid manure in the first treatment stage in step ii) is carried out by a first centrifuge . iii) precondition of the first treated liquid phase ; wherein said preconditioning is performed by adding a flocculant and by shifting the pH, wherein said shifting of the pH into the acidic range is performed to a pH value of ≤ 5.8 and iv) treatment of the first treated and preconditioned liquid phase in a second treatment stage with formation of a second solid phase and a second, further treated liquid phase or clarified phase, wherein after clarification of the first clarified and preconditioned liquid phase in the second treatment stage , according to step iv), the second, further clarified liquid phase is adjusted to a pH value of ≥ 6.5 wherein the treatment of the first treated liquid phase in the second treatment stage is effected by a second centrifuge as solid bowl scroll centrifuge. i) provision of raw liquid manure ; ii) treatment of the raw liquid manure in a first treatment stage with formation of a first solid phase and a first treated liquid phase ; wherein the treatment of the raw liquid manure in the first treatment stage in step ii) is carried out by a first centrifuge . iii) precondition of the first treated liquid phase ; wherein said preconditioning is performed by adding a flocculant and by shifting the pH, wherein said shifting of the pH into the acidic range is performed to a pH value of ≤ 5.8 and iv) treatment of the first treated and preconditioned liquid phase in a second treatment stage with formation of a second solid phase and a second, further treated liquid phase or clarified phase, wherein after clarification of the first clarified and preconditioned liquid phase in the second treatment stage , according to step iv), the second, further clarified liquid phase is adjusted to a pH value of ≥ 6.5
A surgical tool and control device comprising: a surgical power tool ; a control device coupled to the surgical power tool, the control device including: a housing including arms for coupling the control device to the power tool, the arms extending from the housing and engaging at least a portion of the outer perimeter of a handpiece of the power tool; a pressure responsive touch pad located on a first surface of the control device for receiving a user input; a control unit for sending user input information received at the touch pad to the power tool for directing a speed of the power tool; wherein the control unit is movable along the handpiece of the surgical power tool. a surgical power tool ; a control device coupled to the surgical power tool, the control device including: a housing including arms for coupling the control device to the power tool, the arms extending from the housing and engaging at least a portion of the outer perimeter of a handpiece of the power tool; a pressure responsive touch pad located on a first surface of the control device for receiving a user input; a control unit for sending user input information received at the touch pad to the power tool for directing a speed of the power tool; wherein the control unit is movable along the handpiece of the surgical power tool. a housing including arms for coupling the control device to the power tool, the arms extending from the housing and engaging at least a portion of the outer perimeter of a handpiece of the power tool; a pressure responsive touch pad located on a first surface of the control device for receiving a user input; a control unit for sending user input information received at the touch pad to the power tool for directing a speed of the power tool; wherein the control unit is movable along the handpiece of the surgical power tool.
A power supply unit comprising a) an AC line filter at the input of the power supply unit, b) and a first bridge rectifier (BR1) which rectifies an AC line voltage into a bulk capacitor (C bk ) directly connected to a first port of a two position switch (S), c) and a second bridge rectifier (BR2) which rectifies parallel to the first bridge rectifier (BR1) the AC line voltage directly into a second port of the two position switch (S) and d) a DC-DC stage having a first input port which is connected to a common primary ground and a second input port which is connected to the output port of the two position switch (S), while a DC-DC stage output is connected to the output of the power supply unit e) wherein V br is a rectified voltage delivered by the second bridge rectifier (BR2), and V inMIN is a minimum input voltage of the DC-DC stage f) and a control means wherein a control algorithm of the two position switch (S) implemented, the control algorithm being designed to minimize the voltage ripple on said bulk capacitor (C bk ) by switching the two position switch (S) to connect the first port if V br < V inMIN and to connect the second port if V br ≥ V inMIN , g) such that the bulk capacitor voltage (V bk ) s always smaller or equal to the maximum of the rectified voltage V br delivered by the second rectifier bridge (BR2). a) an AC line filter at the input of the power supply unit, b) and a first bridge rectifier (BR1) which rectifies an AC line voltage into a bulk capacitor (C bk ) directly connected to a first port of a two position switch (S), c) and a second bridge rectifier (BR2) which rectifies parallel to the first bridge rectifier (BR1) the AC line voltage directly into a second port of the two position switch (S) and d) a DC-DC stage having a first input port which is connected to a common primary ground and a second input port which is connected to the output port of the two position switch (S), while a DC-DC stage output is connected to the output of the power supply unit e) wherein V br is a rectified voltage delivered by the second bridge rectifier (BR2), and V inMIN is a minimum input voltage of the DC-DC stage f) and a control means wherein a control algorithm of the two position switch (S) implemented, the control algorithm being designed to minimize the voltage ripple on said bulk capacitor (C bk ) by switching the two position switch (S) to connect the first port if V br < V inMIN and to connect the second port if V br ≥ V inMIN , g) such that the bulk capacitor voltage (V bk ) s always smaller or equal to the maximum of the rectified voltage V br delivered by the second rectifier bridge (BR2).
A method of controlling power transmission in a power transmitter, the method comprising the steps of: receiving, from at least one power receiver, a minimum voltage, a maximum voltage, a reference voltage that is between the minimum voltage and the maximum voltage, and a demanded voltage required by the at least one power receiver, wherein the minimum voltage and the maximum voltage are receivable at the at least one power receiver; receiving, from the at least one power receiver, a report about a power reception condition, wherein the report includes a measured output voltage of the at least one power receiver during power transmission from the power transmitter; determining whether the measured voltage is between the minimum voltage and the reference voltage; and adjusting and supplying transmission power based on whether the measured voltage is between the minimum voltage and the reference voltage. receiving, from at least one power receiver, a minimum voltage, a maximum voltage, a reference voltage that is between the minimum voltage and the maximum voltage, and a demanded voltage required by the at least one power receiver, wherein the minimum voltage and the maximum voltage are receivable at the at least one power receiver; receiving, from the at least one power receiver, a report about a power reception condition, wherein the report includes a measured output voltage of the at least one power receiver during power transmission from the power transmitter; determining whether the measured voltage is between the minimum voltage and the reference voltage; and adjusting and supplying transmission power based on whether the measured voltage is between the minimum voltage and the reference voltage.
A cardiac stimulation device, comprising: an cylindrical body comprising a distal end ; a fixation member extending distally from the distal end of the cylindrical body and being configured to pierce into a septal wall of a patient's heart and to secure the device to the septal wall; a first cathode electrode formed on the fixation member; a second cathode electrode formed on the distal end of the cylindrical body, wherein an entirety of the second cathode electrode extends within an inner perimeter of the fixation member, or the entirety of second cathode electrode extends around an outer perimeter of the fixation member; and a pulse generator coupled to the first and second cathode electrodes and configured to deliver cardiac pacing pulses thereto; the device further comprising: an elongate lead body comprising a distal end, a proximal terminal connector and an assembly of insulated conductors (22; 24) extending therebetween, wherein the fixation member extends distally from the distal end of the lead body; the device further comprising: a third cathode electrode mounted around the lead body and an anode electrode mounted around the lead body and being located proximal to the first, second and third cathode electrodes. an cylindrical body comprising a distal end ; a fixation member extending distally from the distal end of the cylindrical body and being configured to pierce into a septal wall of a patient's heart and to secure the device to the septal wall; a first cathode electrode formed on the fixation member; a second cathode electrode formed on the distal end of the cylindrical body, wherein an entirety of the second cathode electrode extends within an inner perimeter of the fixation member, or the entirety of second cathode electrode extends around an outer perimeter of the fixation member; and a pulse generator coupled to the first and second cathode electrodes and configured to deliver cardiac pacing pulses thereto; the device further comprising: an elongate lead body comprising a distal end, a proximal terminal connector and an assembly of insulated conductors (22; 24) extending therebetween, wherein the fixation member extends distally from the distal end of the lead body; the device further comprising: a third cathode electrode mounted around the lead body and an anode electrode mounted around the lead body and being located proximal to the first, second and third cathode electrodes.
Chain hoist for lifting, lowering and pulling loads, comprising a housing in which a chain wheel embraced by a load chain equipped with a draw hook under form closure at its end and a shaft driving the chain wheel , preferably via a gearbox , are rotatably mounted; a threaded washer , which is in screwed connection with an external thread of the shaft with its internally arranged thread and is equipped with bevel gears for engaging a manually or motor-driven force element ; a brake disc rotatable in relation to the shaft and the threaded washer , with a first braking surface directed against a drive surface that is torque-proof in relation to the shaft , and a second braking surface directed against the rotation disc , and with locking gears arranged on the brake disc for the unilateral blocking engagement of a ratchet mounted on the housing ; an idling means , designed for enlarging the axial distance between the threaded washer and the drive surface , characterised in that at least one centrifugal element that is torque-proof in relation to the threaded washer is arranged on the same, which is equipped with a friction surface on the outside, and in that the centrifugal element can be widened outwards against the force of a spring until it makes contact with the friction surface with a braking surface formed on the housing .
An electrochemical sensor for determining the presence or quantity of an oxidant of interest in an aqueous solution comprising: an elongate substrate layer having a first end opposite to a second end ; first, second and third conductive tracks deposited axially onto the substrate layer in a parallel mutually spaced apart relationship, wherein the first conductive track constitutes a reference electrode , wherein on the second conductive track near to the second end of the substrate layer is a carbon deposit whereby to constitute a counter electrode and on the third conductive track near to the second end of the substrate layer is a carbon deposit whereby to constitute a working electrode , wherein each of the first, second and third conductive tracks terminates near to the first end of the substrate layer in an electrical contact ; a non-conductive layer deposited on the first, second and third conductive tracks , wherein the non-conductive layer is fabricated to fully expose each electrical contact near to the first end of the substrate layer , to fully expose the carbon deposit on the second conductive track near to the second end of the substrate layer , to fully expose the first conductive track near to the second end of the substrate layer and to partially expose discrete working regions of the carbon deposit of the third conductive track through an array of apertures ; a reagent formulation deposited on or near to the surface of the working electrode , wherein the reagent formulation includes a reductant; and a deposit of a supporting electrolyte deposited on the non-conductive layer . an elongate substrate layer having a first end opposite to a second end ; first, second and third conductive tracks deposited axially onto the substrate layer in a parallel mutually spaced apart relationship, wherein the first conductive track constitutes a reference electrode , wherein on the second conductive track near to the second end of the substrate layer is a carbon deposit whereby to constitute a counter electrode and on the third conductive track near to the second end of the substrate layer is a carbon deposit whereby to constitute a working electrode , wherein each of the first, second and third conductive tracks terminates near to the first end of the substrate layer in an electrical contact ; a non-conductive layer deposited on the first, second and third conductive tracks , wherein the non-conductive layer is fabricated to fully expose each electrical contact near to the first end of the substrate layer , to fully expose the carbon deposit on the second conductive track near to the second end of the substrate layer , to fully expose the first conductive track near to the second end of the substrate layer and to partially expose discrete working regions of the carbon deposit of the third conductive track through an array of apertures ; a reagent formulation deposited on or near to the surface of the working electrode , wherein the reagent formulation includes a reductant; and a deposit of a supporting electrolyte deposited on the non-conductive layer .
A crystalline salt of naltrexone selected from the group consisting of: a naltrexone succinate characterized by an XRPD pattern as shown in Fig. 9.; and a methanol solvate of naltrexone succinate characterized by an XRPD pattern as shown in Fig. 5, a single crystal structure as shown in Fig. 6 where the methanol is not shown, or a TG/DTA trace as shown in Fig. 8. a naltrexone succinate characterized by an XRPD pattern as shown in Fig. 9.; and a methanol solvate of naltrexone succinate characterized by an XRPD pattern as shown in Fig. 5, a single crystal structure as shown in Fig. 6 where the methanol is not shown, or a TG/DTA trace as shown in Fig. 8.
A stack of several electrochemical cells , the electrochemical cells being stacked on top of one another in a stacking direction (D), the stack comprising at least: - a first electrochemical cell , - a second electrochemical cell , and - an intercalary plate , each cell including an upper frame housing a first electrode and a lower frame housing a second electrode , the first electrode and the second electrode being separated from one another by a membrane , the first electrode being in contact with the membrane by its lower face and the second electrode being in contact with the membrane by its upper face , the second electrode of the first electrochemical cell and the first electrode of the second electrochemical cell being separated by the intercalary plate , characterized in that the stack includes an intercalary frame arranged on the periphery of the intercalary plate , the lower frame of the first electrochemical cell and the upper frame of the second electrochemical cell being separated at least in part by the intercalary frame , the lower frame of the first electrochemical cell facing the intercalary frame by its lower face and the upper frame of the second electrochemical cell facing the intercalary frame by its upper face, and in that the upper frame and the lower frame of each electrochemical cell are separated from one another by the membrane , each upper or lower frame comprising a proximal portion close to the membrane and a distal portion distant from the membrane , each upper or lower frame comprising a supply channel for supplying an electrochemical fluid and an inlet channel for a fluid supplying a lateral face of the electrode , the inlet channel comprising an outlet orifice in the proximal portion opening onto a lateral face of the electrode , each upper or lower frame comprising a discharge channel for an electrochemical fluid and an outlet channel for the fluid via a lateral face of the electrode, the outlet channel comprising an inlet orifice in the proximal portion opening onto a lateral face of the electrode , at least one, and preferably all, from among the inlet channel and the outlet channel comprising an inlet , respectively outlet orifice, opening onto the supply , respectively discharge channel, respectively, in the distal portion of the upper or lower frame. - a first electrochemical cell , - a second electrochemical cell , and - an intercalary plate ,
A method by a terminal in a wireless communication system, comprising: receiving , from a first base station controlling a first cell group, a control message for adding a second cell group controlled by a second base station , wherein the control message includes first information on a bearer type; identifying whether the bearer type is a first bearer type based on the first information, wherein a bearer is associated with both the first base station and the second base station in the first bearer type; if the bearer type is the first bearer type, obtaining second information in the control message, wherein the second information indicates whether uplink transmission is performed via the second cell group for the first bearer type; if the second information indicates that the uplink transmission is performed via the second cell group for the first bearer type, transmitting uplink data via the second cell group; and transmitting uplink data via the second cell group if the bearer type is a second bearer type, wherein a bearer is related to the second cell group in the second bearer type. receiving , from a first base station controlling a first cell group, a control message for adding a second cell group controlled by a second base station , wherein the control message includes first information on a bearer type; identifying whether the bearer type is a first bearer type based on the first information, wherein a bearer is associated with both the first base station and the second base station in the first bearer type; if the bearer type is the first bearer type, obtaining second information in the control message, wherein the second information indicates whether uplink transmission is performed via the second cell group for the first bearer type; if the second information indicates that the uplink transmission is performed via the second cell group for the first bearer type, transmitting uplink data via the second cell group; and transmitting uplink data via the second cell group if the bearer type is a second bearer type, wherein a bearer is related to the second cell group in the second bearer type.