mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a cell unit including a plurality of battery cells arranged in a first direction; a first end plate located on one side of the cell unit in the first direction; and a plurality of binding bands extending in the first direction and coupled with the first end plate so as to bind the first end plate and the cell unit, wherein the first end plate is provided with an external terminal surface which is directed to an opposite side with respect to the cell unit in the first direction and to which an external terminal is connected, wherein the binding band is located on a side surface of the cell unit and is coupled with the external terminal surface of the first end plate, and wherein the coupled portions of the plurality of the binding bands coupled with the first end plate are located at corners of the first end plate. a cell unit including a plurality of battery cells arranged in a first direction; a first end plate located on one side of the cell unit in the first direction; and a plurality of binding bands extending in the first direction and coupled with the first end plate so as to bind the first end plate and the cell unit, wherein the first end plate is provided with an external terminal surface which is directed to an opposite side with respect to the cell unit in the first direction and to which an external terminal is connected, wherein the binding band is located on a side surface of the cell unit and is coupled with the external terminal surface of the first end plate, and wherein the coupled portions of the plurality of the binding bands coupled with the first end plate are located at corners of the first end plate.
A method of production of recombinant hCG (rhCG) including α2,3- and α2,6-sialylation comprising a step of producing or expressing the rhCG in a Per.C6 cell line, wherein the Per.C6 cell line has been modified to over express α2,3sialyltransferase.
A flashing cover with at least one internal corner, apt to seal constructions installed within a roof of a building, in a form of a thin substantially flat sheet of metal provided at its periphery with at least one polygonal cutout wherein at least two side walls of this cutout are one-sidedly slanted forming the side walls of the cover that are integrated forming a uniform flange of this cutout which is integrated with a main part of the cover, characterized in that, among the two adjacent walls (11, 21, 51) of the flange of said at least one polygonal cutout, at least one non-perpendicular wall (13, 23, 53) is so shaped that the plane crossing the line of connection of this wall with the main part (12, 22, 52) of the cover and the edge of this wall is arranged at an obtuse angle (α) with respect to the main part of the cover, wherein at the internal corner of the walls of the flange of the polygonal cutout, at the connection of the edges of these walls, the radius (R k) of the curvature of the edges of this flange is substantially smaller than the radius (Rp) of the curvature of the base of this flange, wherein the base is the line of connection of the walls of the polygonal cutout with the main part of the cover.
A pulsed optical source comprising: a semiconductor diode configured to emit light; and a driving circuit having only one transistor coupled to a terminal of the semiconductor diode, and wherein the driving circuit is configured to receive a unipolar pulse and apply a bipolar electrical pulse to the semiconductor diode responsive to receiving the unipolar pulse. a semiconductor diode configured to emit light; and a driving circuit having only one transistor coupled to a terminal of the semiconductor diode, and wherein the driving circuit is configured to receive a unipolar pulse and apply a bipolar electrical pulse to the semiconductor diode responsive to receiving the unipolar pulse.
A backpack power apparatus (10, 10A) comprising: a back carrier frame (11, 11 a, 11 b) for being piggybacked by a user; a blower unit including a fan driven by a drive motor for sucking in or blowing out air through an airflow duct (24, 25), the blower unit being mounted on the back carrier frame (11, 11 a, 11 b) via a vibration isolating means; and an airflow tube (30, 30A, 31, 32, 33) fluidically communicating with the airflow duct (24, 25) of the blower unit for sucking in or blowing out air through the airflow tube (30, 30A, 31, 32, 33), the airflow tube (30, 30A, 31, 32, 33) being adapted for being held and operated by the user when in use, wherein the airflow duct (24,25) has a distal end and the airflow tube (30, 30A, 31, 32, 33) has a proximal end, the distal end of the airflow duct (24,25) being fluidically coupled to the proximal end of the airflow tube (30, 30A, 31, 32, characterized in that it comprises a supporting arm supporting a proximal end portion of the airflow tube (30, 30A, 31, 32, 33) on the back carrier frame (11, 11 a, 11 b), the proximal end of the airflow tube (30, 30A, 31, 32, 33) being floatingly coupled to the distal end of the airflow duct (24, 25). a back carrier frame (11, 11 a, 11 b) for being piggybacked by a user; a blower unit including a fan driven by a drive motor for sucking in or blowing out air through an airflow duct (24, 25), the blower unit being mounted on the back carrier frame (11, 11 a, 11 b) via a vibration isolating means; and an airflow tube (30, 30A, 31, 32, 33) fluidically communicating with the airflow duct (24, 25) of the blower unit for sucking in or blowing out air through the airflow tube (30, 30A, 31, 32, 33), the airflow tube (30, 30A, 31, 32, 33) being adapted for being held and operated by the user when in use, wherein the airflow duct (24,25) has a distal end and the airflow tube (30, 30A, 31, 32, 33) has a proximal end, the distal end of the airflow duct (24,25) being fluidically coupled to the proximal end of the airflow tube (30, 30A, 31, 32, characterized in that it comprises a supporting arm supporting a proximal end portion of the airflow tube (30, 30A, 31, 32, 33) on the back carrier frame (11, 11 a, 11 b), the proximal end of the airflow tube (30, 30A, 31, 32, 33) being floatingly coupled to the distal end of the airflow duct (24, 25).
A method for producing a laminate for making closing elements for containers or receptacles comprising at least one first layer or welding layer adapted to be welded to a free edge of the container and at least one second layer or front layer for example adapted to define an external surface of said container, said method comprising: - providing said welding layer and said front layer by continuously making said welding layer and said front layer advance along respective longitudinal directions; - coupling said welding layer to said front layer to form a continuous laminate extending along its own longitudinal direction through an intermediate layer of removable self-adhesive spread at at least one adhesion portion of mutually coupled surfaces of said welding layer and of said front layer; - making a plurality of incisions in at least one stretch of the thickness of the welding layer along a plurality of opening lines along said longitudinal direction each adapted to define an access window of a closing element, wherein said incision divides the welding layer between a welding portion adapted to be welded to the container and an opening portion corresponding to said access window, with reference to an assembled configuration on the container, said incision being made so as to allow the detachment of said opening portion from said welding portion while said closing element is opened wherein said intermediate layer of removable self-adhesive is spread onto said adhesion portion leaving at least one portion free from removable self-adhesive and wherein the portion free from removable self-adhesive is arranged at one side of the laminate and extends continuously along the longitudinal direction and/or a plurality of portions free from removable self-adhesive are arranged transversally to the longitudinal direction of the laminate alternating along the longitudinal direction of the laminate with adhesion portions, characterized in that it comprises the step of making a further incision in at least one stretch of the thickness of the welding layer along at least one separation line, wherein said welding portion adapted to be welded to the container is arranged between at least one portion of said opening line and said separation line, wherein said separation line extends between said portion free from removable self-adhesive and said adhesion portion. - providing said welding layer and said front layer by continuously making said welding layer and said front layer advance along respective longitudinal directions; - coupling said welding layer to said front layer to form a continuous laminate extending along its own longitudinal direction through an intermediate layer of removable self-adhesive spread at at least one adhesion portion of mutually coupled surfaces of said welding layer and of said front layer; - making a plurality of incisions in at least one stretch of the thickness of the welding layer along a plurality of opening lines along said longitudinal direction each adapted to define an access window of a closing element,
A sampling circuit for a single cell in a series battery pack, comprising: a controller, an analog-to-digital converter, ADC, a bleeder circuit, a battery pack including n single cells connected in series, and n isolation sampling switches, wherein one end of each of the n isolation sampling switches is connected to a first input end of the bleeder circuit, the other ends of the n isolation sampling switches are respectively connected to positive electrodes of the n single cells, and the isolation sampling switches are in a one-to-one correspondence with the single cells; a negative electrode of a first single cell in the n single cells is connected to a second input end of the bleeder circuit, and is grounded; an output end of the bleeder circuit is connected to a second input end of the ADC, a first input end of the ADC is grounded, and an output end of the ADC is connected to an input end of the controller; a first output group of the controller is separately connected to control ends of the n isolation sampling switches to control the n isolation sampling switches to be open or closed; and the controller sequentially controls the n isolation sampling switches to be closed, and sends voltages to earth of the positive electrodes of the n single cells corresponding to the n isolation sampling switches to the ADC for conversion after the voltages to earth are attenuated by the bleeder circuit, the ADC transmits converted sampling voltage values to the controller, and the controller subtracts two adjacent sampling voltage values to obtain a voltage value of a corresponding single cell cell, characterized in that the sampling circuit further comprises an auxiliary driving power supply, wherein each of the n isolation sampling switches comprises a first transistor, a second transistor, and an opto-isolator; a first port of the first transistor is connected to a first port of the second transistor, a second port of the first transistor is connected to a first port of the opto-isolator, and a third port of the first transistor is connected to a positive electrode of a single cell corresponding to the first transistor; a second port of the second transistor is connected to the first port of the opto-isolator, and a third port of the second transistor is connected to the first input end of the bleeder circuit; a second port of the opto-isolator and the controller are common-grounded, a third port of the opto-isolator is connected to the first output group of the controller, and a fourth port of the opto-isolator is connected to a positive electrode of the auxiliary driving power supply; and a negative electrode of the auxiliary driving power supply is connected to the first input end of the bleeder circuit.
A method for storing data, comprising: receiving a request to write a first datum to persistent storage, wherein the first datum is defined using a first logical address; determining a first physical address in persistent storage, wherein the first physical address comprises a first block ID and a first page ID; writing a first frag comprising a copy of the first datum to the first physical address; generating a first table of contents entry comprising the first logical address and the first page ID, wherein the first TE is not stored in a page identified by the first page ID; receiving a request to write a second datum to the persistent storage, wherein the second datum is defined using a second logical address; determining a second physical address in the persistent storage, wherein the second physical address comprises the first block ID and a second page ID; writing a second frag comprising a copy of the second datum to the second physical address; generating a second TE comprising the second logical address and the second page ID, wherein the second TE is not stored in a page identified by the second page ID; generating a table of contents page, wherein the TOC page comprises the first TE and the second TE, and wherein the TOC page does not include the first datum and the second datum; and writing the TOC page to a third physical address in the persistent storage, wherein the third physical address comprises the first block ID and a third page ID. receiving a request to write a first datum to persistent storage, wherein the first datum is defined using a first logical address; determining a first physical address in persistent storage, wherein the first physical address comprises a first block ID and a first page ID; writing a first frag comprising a copy of the first datum to the first physical address; generating a first table of contents entry comprising the first logical address and the first page ID, wherein the first TE is not stored in a page identified by the first page ID; receiving a request to write a second datum to the persistent storage, wherein the second datum is defined using a second logical address; determining a second physical address in the persistent storage, wherein the second physical address comprises the first block ID and a second page ID; writing a second frag comprising a copy of the second datum to the second physical address; generating a second TE comprising the second logical address and the second page ID, wherein the second TE is not stored in a page identified by the second page ID; generating a table of contents page, wherein the TOC page comprises the first TE and the second TE, and wherein the TOC page does not include the first datum and the second datum; and writing the TOC page to a third physical address in the persistent storage, wherein the third physical address comprises the first block ID and a third page ID.
Use of a coating for improving ultrasound visibility of a medical device, wherein the coating comprises radiopaque materials dispersed within a polymer matrix, and wherein the radiopaque materials are selected from the group consisting of bismuth subcarbonate, bismuth oxide, bismuth oxychloride and barium sulfate.
A freestanding clothes rail kit, configured for assembly into a freestanding clothes rail (300; 50; 80) comprising: a first rail portion (320; 81), a second rail portion (330; 82), a first side member (340; 83), a second side member (350; 84), a base connector and optionally a rail; wherein once assembled: the first rail portion (320; 81) is attached to first side member (340; 83), the second rail portion (330; 82) is attached to the second side member (350; 84), the first rail portion (320; 81) and the second rail portion (330; 82) extend towards one another attached with one another or attached with opposing ends of the rail; and characterised in that first and second ends of the base connector are bent at slightly less than 90° relative to the rest of the base connector so that the base connector constrains the first side member (340; 83) and the second side member (350; 84) relative to one another so that once assembled the first side member is biased towards the second side member so that the first rail portion (320; 81) and the second rail portion (330; 82) are held in compression between the first (340; 83) and second (350; 84) side members. a first rail portion (320; 81), a second rail portion (330; 82), a first side member (340; 83), a second side member (350; 84), a base connector and optionally a rail; wherein once assembled: the first rail portion (320; 81) is attached to first side member (340; 83), the second rail portion (330; 82) is attached to the second side member (350; 84), the first rail portion (320; 81) and the second rail portion (330; 82) extend towards one another attached with one another or attached with opposing ends of the rail; and characterised in that first and second ends of the base connector are bent at slightly less than 90° relative to the rest of the base connector so that the base connector constrains the first side member (340; 83) and the second side member (350; 84) relative to one another so that once assembled the first side member is biased towards the second side member so that the first rail portion (320; 81) and the second rail portion (330; 82) are held in compression between the first (340; 83) and second (350; 84) side members. the first rail portion (320; 81) is attached to first side member (340; 83), the second rail portion (330; 82) is attached to the second side member (350; 84), the first rail portion (320; 81) and the second rail portion (330; 82) extend towards one another attached with one another or attached with opposing ends of the rail; and characterised in that first and second ends of the base connector are bent at slightly less than 90° relative to the rest of the base connector so that the base connector constrains the first side member (340; 83) and the second side member (350; 84) relative to one another so that once assembled the first side member is biased towards the second side member so that the first rail portion (320; 81) and the second rail portion (330; 82) are held in compression between the first (340; 83) and second (350; 84) side members.
Monitoring system for an assembly that is subjected to vibrations, comprising a first device for monitoring frequencies and comprising at least one sensor device, which detects one or more measured values, characterized by a measured value converter with an input for the one or more measured values, which converts the latter into a combined, time-variable analog signal and delivers it to the first device, in which at least one frequency component represents a measured value, wherein the sensor device has a digital signal output for the measured value(s) detected.
A leak-proof ball, comprising a sheath layer, an intermediate body layer, a winding yarn layer, an inner body layer, and a protective layer, wherein the intermediate body layer, the winding yarn layer, the inner body layer and the protective layer are tightly set successively within the sheath layer and wherein the protective layer is made of air-sealed bromobutyl mucilage.
A process of producing n-butanol which comprises dimerizing ethanol in an environment having a partial hydrogen pressure of 0.1 MPa or higher, wherein the dimerization is conducted in the presence of a complex comprising one or more transition metals of Group 8 to Group 10 and of a base, and wherein the complex has a ligand derived from a phosphine compound.
Apparatus for processing an audio signal to obtain a processed audio signal, comprising: a phase calculator for calculating phase values for spectral values of a sequence of frequency-domain frames representing overlapping frames of the audio signal, characterised in that the phase calculator is configured to calculate the phase values based on information on a target time-domain envelope related to the processed audio signal, so that the processed audio signal has at least in an approximation the target time-domain envelope and a spectral envelope determined by the sequence of frequency-domain frames. a phase calculator for calculating phase values for spectral values of a sequence of frequency-domain frames representing overlapping frames of the audio signal, characterised in that the phase calculator is configured to calculate the phase values based on information on a target time-domain envelope related to the processed audio signal, so that the processed audio signal has at least in an approximation the target time-domain envelope and a spectral envelope determined by the sequence of frequency-domain frames.
A compound of formula, or a pharmaceutically acceptable salt thereof, for use in a method of treating metastatic castration-resistant prostate cancer, non-metastatic castration-resistant prostate cancer, metastatic castration-sensitive prostate cancer, non-metastatic castration-sensitive prostate cancer or high-risk localized prostate cancer in a male human patient, comprising orally administering the compound of Formula, or a pharmaceutically acceptable salt thereof, to a human male patient in need of such treatment at a dose of about 30 mg per day to about 480 mg per day, in combination with abiraterone acetate and prednisone.
A method for use in a wireless transmit receive unit, WTRU, (102a, 102b, 102c, 102d; 220, 230, 240, 250; 401-407), the method comprising: receiving, from a base station (114a, 114b; 210; 410) associated with WTRU to WTRU direct communication, power control parameters comprising information for power control of an uplink channel from the WTRU to the base station, for power control of a data channel for WTRU to WTRU direct communication and for power control of a control channel for WTRU to WTRU direct communication; transmitting over the uplink channel to the base station at a transmit power level which is based on the information for power control and a downlink pathloss estimate associated with the WTRU; transmitting over the data channel at a transmit power level which is based on the information for power control, interference measurements on the WTRU to WTRU direct communication link and the downlink pathloss estimate associated with the WTRU; and transmitting over the control channel at a transmit power level which is based on the information for power control and the downlink pathloss estimate associated with the WTRU. receiving, from a base station (114a, 114b; 210; 410) associated with WTRU to WTRU direct communication, power control parameters comprising information for power control of an uplink channel from the WTRU to the base station, for power control of a data channel for WTRU to WTRU direct communication and for power control of a control channel for WTRU to WTRU direct communication; transmitting over the uplink channel to the base station at a transmit power level which is based on the information for power control and a downlink pathloss estimate associated with the WTRU; transmitting over the data channel at a transmit power level which is based on the information for power control, interference measurements on the WTRU to WTRU direct communication link and the downlink pathloss estimate associated with the WTRU; and transmitting over the control channel at a transmit power level which is based on the information for power control and the downlink pathloss estimate associated with the WTRU.