mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a plurality of battery cells stacked side by side; a module case configured to accommodate the plurality of battery cells; a heatsink mounted to an outer side of the module case to cool the plurality of battery cells; and characterized by at least one heat transfer pad disposed in contact with the heatsink and the plurality of battery cells and penetrating the module case at least partially. a plurality of battery cells stacked side by side; a module case configured to accommodate the plurality of battery cells; a heatsink mounted to an outer side of the module case to cool the plurality of battery cells; and characterized by at least one heat transfer pad disposed in contact with the heatsink and the plurality of battery cells and penetrating the module case at least partially.
A modular support profile consisting of at least two basic profile segments for the attachment of rods in the basic profile segments at an essentially normal angle to the longitudinal direction of the basic profile segments , the basic profile segments being strung together in the longitudinal direction and clamped together at their mutually facing end faces by at least one clamping device, wherein the at least one clamping device is formed from at least one locking element and at least two clamping elements , which are connected to the at least one locking element by screw connections, the at least two clamping elements being connected to the two exposed end faces of the at least two basic profile segments , characterized in that the basic profile segments comprise seats which receive the at least one locking element in a rotationally fixed manner.
Method for welding rotors for power generation, which comprise a plurality of rotor discs arranged along a rotor axis , said method comprising the steps of: providing said discs with a weld seam preparation, said weld seam preparation comprising a root , a first, gap-like welding section adjoining said root in radial direction, and a second, gap-like welding section adjoining said first welding section in radial direction; melting the root by means of a first welding process; making a weld in said first welding section by means of a second welding process; and filling up said second welding section by means of a third welding process; characterized in that said first welding process is Laser Welding (LW); said second welding process Laser Welding (LW); and said third welding process is Cold Metal Transfer welding providing said discs with a weld seam preparation, said weld seam preparation comprising a root , a first, gap-like welding section adjoining said root in radial direction, and a second, gap-like welding section adjoining said first welding section in radial direction; melting the root by means of a first welding process; making a weld in said first welding section by means of a second welding process; and filling up said second welding section by means of a third welding process; said first welding process is Laser Welding (LW); said second welding process Laser Welding (LW); and
A method for providing service continuity for Multicast and Broadcast Service, MBS, which is carried out by a User Equipment, UE, that is receiving MBS data while in a RRC_INACTIVE state, the method characterized in comprising: determining whether data loss occurs in MBS data previously transmitted to the UE from a first Radio Access Network, RAN, node; and if the data loss occurs, requesting , in a request to resume a Radio Resource Control, RRC, connection, the first RAN node or a second RAN node to retransmit one or more missing Packet Data Units, PDUs, from the MBS data, wherein the first RAN node is one that previously transmitted the MBS data to the UE, and the second RAN node is one that the UE is able to resume the RRC connection to. determining whether data loss occurs in MBS data previously transmitted to the UE from a first Radio Access Network, RAN, node; and if the data loss occurs, requesting , in a request to resume a Radio Resource Control, RRC, connection, the first RAN node or a second RAN node to retransmit one or more missing Packet Data Units, PDUs, from the MBS data, wherein the first RAN node is one that previously transmitted the MBS data to the UE, and the second RAN node is one that the UE is able to resume the RRC connection to.
An organopolysiloxane containing at least a sulfide-containing organic group, an alkyl group, and a hydrolyzable group, represented by the average compositional formula : (A) a (B) b (C) c (D) d (R 1 ) e SiO (4-2a-b-c-d-e)/2 wherein A is a sulfide-containing divalent organic group, B is an alkyl group of 5 to 10 carbon atoms, C is a hydrolyzable group and/or hydroxyl group, D is a mercapto-containing organic group, R 1 is an alkyl group of 1 to 4 carbon atoms, or an aryl group of 6 to 10 carbon atoms, a, b, c, d and e are numbers in the range: 0 < 2a < 1, 0 < b < 1, 0 < c < 3, 0 ≤ d < 1, 0 ≤ e < 2, and 0 < 2a+b+c+d+e < 4.
A method for adjusting a time advance TA, comprising: receiving, by a terminal, a random access resource allocation message sent by a primary base station, wherein the random access resource allocation message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code (S1101); sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code (S1102); receiving, by the terminal, a random access response message sent by the primary base station, wherein the random access response message comprises a time advance command TAC that is sent by the secondary base station to the primary base station and is determined by the secondary base station according to the random access request message (S1103); and adjusting, by the terminal according to the TAC, time advance TA of the terminal on a secondary serving cell corresponding to the secondary base station (S1104). receiving, by a terminal, a random access resource allocation message sent by a primary base station, wherein the random access resource allocation message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code (S1101); sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code (S1102); receiving, by the terminal, a random access response message sent by the primary base station, wherein the random access response message comprises a time advance command TAC that is sent by the secondary base station to the primary base station and is determined by the secondary base station according to the random access request message (S1103); and adjusting, by the terminal according to the TAC, time advance TA of the terminal on a secondary serving cell corresponding to the secondary base station (S1104).
A process cartridge (PY, PM, PC, PK) comprising: a first unit including an image bearing member ; a second unit including a developer carrying member , the second unit being rotatably connected with the first unit so as to be movable between a contact position in which the developer carrying member contacts the image bearing member and a spaced position in which the developer carrying member is spaced from the image bearing member; and a projected portion provided at an end portion of the process cartridge with respect to an axial direction of the developer carrying member, the projected portion projected in a direction crossing with the axial direction away from the developer carrying member, the projected portion being provided on the second unit, wherein the image bearing member and the projected portion are located on a downward side of the process cartridge, the process cartridge being characterized in that the projected portion is provided with a recess or an opening , a force receiving portion is provided in the recess or the opening for receiving a force for moving the second unit from the contact position to the spaced position, and, as seen along the axial direction of the developer carrying member, the force receiving portion faces upwardly toward a side where the developer carrying member and a rotational axis of the second unit are provided with respect to a tangential line (Q) to the force receiving portion. a first unit including an image bearing member ; a second unit including a developer carrying member , the second unit being rotatably connected with the first unit so as to be movable between a contact position in which the developer carrying member contacts the image bearing member and a spaced position in which the developer carrying member is spaced from the image bearing member; and a projected portion provided at an end portion of the process cartridge with respect to an axial direction of the developer carrying member, the projected portion projected in a direction crossing with the axial direction away from the developer carrying member, the projected portion being provided on the second unit, wherein the image bearing member and the projected portion are located on a downward side of the process cartridge, the process cartridge being characterized in that the projected portion is provided with a recess or an opening , a force receiving portion is provided in the recess or the opening for receiving a force for moving the second unit from the contact position to the spaced position, and, as seen along the axial direction of the developer carrying member, the force receiving portion faces upwardly toward a side where the developer carrying member and a rotational axis of the second unit are provided with respect to a tangential line (Q) to the force receiving portion.
A method for blending coals for coke production, the coals being prepared by blending two or more coal brands, the method comprising: assuming the two or more coal brands and the blending ratio of the coals in advance; preparing surface tension distributions of the assumed two or more coal brands by subjecting said coal brands to heating to a temperature in the range of 350°C to 800°C and then cooling; calculating a standard deviation (σ1) as a control index of a distribution obtained by the weighted average of the prepared surface tension distributions, using the assumed blending ratio of the coals as a weighting factor; and determining coal brands and blending ratio of the coal brands by using the standard deviation (σ1) as the control index. assuming the two or more coal brands and the blending ratio of the coals in advance; preparing surface tension distributions of the assumed two or more coal brands by subjecting said coal brands to heating to a temperature in the range of 350°C to 800°C and then cooling; calculating a standard deviation (σ1) as a control index of a distribution obtained by the weighted average of the prepared surface tension distributions, using the assumed blending ratio of the coals as a weighting factor; and determining coal brands and blending ratio of the coal brands by using the standard deviation (σ1) as the control index.
An intraluminal ultrasound imaging system , comprising: a processor circuit configured for communication with an intraluminal ultrasound imaging catheter , wherein the processor circuit is configured to: receive a plurality of intraluminal ultrasound images obtained by the intraluminal ultrasound imaging catheter while the intraluminal ultrasound imaging catheter is moved through a body lumen of a patient; determine a longitudinal translation speed of the intraluminal ultrasound imaging catheter based on the plurality of intraluminal ultrasound images and a known time interval between each of plurality of intraluminal ultrasound images; and characterized in that the processor circuit is further configured to output, to a display in communication with the processor circuit, a screen display including a speed indicator based on the longitudinal translation speed, wherein the speed indicator comprises: a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed. receive a plurality of intraluminal ultrasound images obtained by the intraluminal ultrasound imaging catheter while the intraluminal ultrasound imaging catheter is moved through a body lumen of a patient; determine a longitudinal translation speed of the intraluminal ultrasound imaging catheter based on the plurality of intraluminal ultrasound images and a known time interval between each of plurality of intraluminal ultrasound images; and characterized in that the processor circuit is further configured to output, to a display in communication with the processor circuit, a screen display including a speed indicator based on the longitudinal translation speed, wherein the speed indicator comprises: a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed. a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed.
A valve assembly , comprising a housing , the housing being formed by a first housing part and an opposite second housing part , the housing defining a first opening , a second opening , and a third opening , a first flow path (V) being defined between the first opening and the second opening , and a second flow path (F) being defined between the first opening and the third opening , wherein the first housing part comprises an inner face with a first groove , and the second housing part comprises an inner face with a second groove , said second groove being opposite said first groove , a first seal comprising a first elongated member connected to a second elongated member , and a second seal comprising a first elongated member connected to a second elongated member , the first and second seal being fitted into the first and second grooves respectively, the valve assembly further comprising a valve element , configured to abut in a first position the first elongated member of the first seal and the first elongated member of the second seal , thereby closing off the first flow path (V), and allowing flow through said second flow path (F), and configured to abut in a second position the second elongated member of the first seal and the second elongated member of the second seal , thereby closing off said second flow path (F), and allowing flow through said first flow path (V), characterized in that the first seal and the second seal are separate components of the valve assembly . the housing defining a first opening , a second opening , and a third opening , a first flow path (V) being defined between the first opening and the second opening , and a second flow path (F) being defined between the first opening and the third opening , wherein the first housing part comprises an inner face with a first groove , and the second housing part comprises an inner face with a second groove , said second groove being opposite said first groove , a first seal comprising a first elongated member connected to a second elongated member , and a second seal comprising a first elongated member connected to a second elongated member , the first and second seal being fitted into the first and second grooves respectively, the valve assembly further comprising a valve element , configured to abut in a first position the first elongated member of the first seal and the first elongated member of the second seal , thereby closing off the first flow path (V), and allowing flow through said second flow path (F), and configured to abut in a second position the second elongated member of the first seal and the second elongated member of the second seal , thereby closing off said second flow path (F), and allowing flow through said first flow path (V), characterized in that the first seal and the second seal are separate components of the valve assembly .
A method for communicating between a managed device and a device manager, the method comprising the steps of: sending the managed device a message over a first communications channel; and initiating communication between the managed device and the device manager over a second communications channel in response to the message, wherein the first communications channel and the second communications channel are of different types, wherein communications between the managed device and the device manager over the second communications channel are suspended until the message is received, wherein receipt of the message at the managed device additionally causes communications between the managed device and the device manager over a third communications channel to cease and switch to the second communications channel, wherein the third communications channel is different to the second communications channel, and wherein the first communications channel is a cellular channel and the second communications channel is non-cellular channel. sending the managed device a message over a first communications channel; and initiating communication between the managed device and the device manager over a second communications channel in response to the message, wherein the first communications channel and the second communications channel are of different types, wherein communications between the managed device and the device manager over the second communications channel are suspended until the message is received, wherein receipt of the message at the managed device additionally causes communications between the managed device and the device manager over a third communications channel to cease and switch to the second communications channel, wherein the third communications channel is different to the second communications channel, and wherein the first communications channel is a cellular channel and the second communications channel is non-cellular channel.
A control system for controlling requests to contact an end point of an Internet Protocol Multimedia Subsystem network comprising: receiving means being configured to receive requests from a sender via the network to contact an end point ; control means being configured to limit a number of requests to contact the end point according to initial filter criteria, iFC, defining a predetermined number of allowed requests in a predetermined period of time T1, and transmitting means being configured to transmit a request to an application server if the request fulfills the iFC, wherein the application server is configured to host at least one connection to the at least one end point , characterized in that the control means is configured to limit a number of requests to contact the end point according to the iFC comprising at least one parameter specifying application server destination addresses that are resolved via a Domain Name System, and thereby considering alternative application server addresses altogether and limiting an invocation rate for all of them in total. receiving means being configured to receive requests from a sender via the network to contact an end point ; control means being configured to limit a number of requests to contact the end point according to initial filter criteria, iFC, defining a predetermined number of allowed requests in a predetermined period of time T1, and transmitting means being configured to transmit a request to an application server if the request fulfills the iFC, wherein the application server is configured to host at least one connection to the at least one end point ,
A variable valve device capable of changing valve operations of an intake valve and an exhaust valve in a cylinder head, the variable valve device comprising: a pair of cam housings separated in a predetermined direction in the cylinder head; a rocker shaft supported by opposing portions of the pair of cam housings; a plurality of rocker arms swingably supported by the rocker shaft; a connecting pin disposed in a pin hole of a rocker arm closer to one side in a predetermined direction; a return pin disposed in a pin hole of a rocker arm closer to the other side in the predetermined direction; a pressing member configured to cause the connecting pin to push the return pin to the other side; a repulsive member configured to cause the return pin to push back the connecting pin to one side; and an upper housing supported at both ends by upper surfaces of the pair of cam housings, wherein the upper housing is formed with a first accommodation hole in which the pressing member is disposed on one side with respect to the rocker arm closer to one side and a second accommodation hole in which the repulsive member is disposed on the other side with respect to the rocker arm closer to the other side. a pair of cam housings separated in a predetermined direction in the cylinder head; a rocker shaft supported by opposing portions of the pair of cam housings; a plurality of rocker arms swingably supported by the rocker shaft; a connecting pin disposed in a pin hole of a rocker arm closer to one side in a predetermined direction; a return pin disposed in a pin hole of a rocker arm closer to the other side in the predetermined direction; a pressing member configured to cause the connecting pin to push the return pin to the other side; a repulsive member configured to cause the return pin to push back the connecting pin to one side; and an upper housing supported at both ends by upper surfaces of the pair of cam housings, wherein the upper housing is formed with a first accommodation hole in which the pressing member is disposed on one side with respect to the rocker arm closer to one side and a second accommodation hole in which the repulsive member is disposed on the other side with respect to the rocker arm closer to the other side.
Polymer composition comprising: - ≥ 20.0 and ≤ 77.5 wt% of polycarbonate; - ≥ 20.0 and ≤ 77.5 wt% of (meth)acrylic polymer; and - ≥ 2.5 and ≤ 10.0 wt% polyalkylene glycol with regard to the total weight of the polymer composition; wherein the (meth)acrylic polymer is polymethylmethacrylate, and the polyalkylene glycol is polyethyleneglycol. - ≥ 20.0 and ≤ 77.5 wt% of polycarbonate; - ≥ 20.0 and ≤ 77.5 wt% of (meth)acrylic polymer; and - ≥ 2.5 and ≤ 10.0 wt% polyalkylene glycol with regard to the total weight of the polymer composition; wherein the (meth)acrylic polymer is polymethylmethacrylate, and the polyalkylene glycol is polyethyleneglycol.
Method for producing a substrate adapter according to claim 9 used in particular for contacting semiconductor elements , comprising the steps: - structuring of an electrically conducting metal element , - encasing the structured metal material , at least in sections, with an electrically insulating material , more particularly plastic, and - applying a contacting material on a first side of the metal element characterised by joining the structured metal element to a carrier and the contacting material . - structuring of an electrically conducting metal element , - encasing the structured metal material , at least in sections, with an electrically insulating material , more particularly plastic, and - applying a contacting material on a first side of the metal element