mhurhangee/patent-ind-claim-en huggingface dataset:
Tool device with a tool , a drive for driving the tool , a device housing , a structural unit additional to the device housing and integral with the housing, a shaft connected with the drive and mounted in the structural unit that is integral with the housing, a brake designed as a friction brake with a friction element that is integral with the housing for braking the tool , a mechanical control unit for controlling the brake that uses the drive torque as input variable and that is prepared to mechanically convert the drive torque into a force releasing the brake and a spring means that is prepared to push the brake into a braking condition when the drive torque drops under a brake threshold value, wherein the brake threshold value exists for a positive driving torque and the friction element is mounted on the structural unit that is integral with the housing as well as on the shaft .
A method for video decoding, comprising: determining whether one or more of the reference pictures associated with an inter-mode coded block involved in an operation of an inter-mode coding tool are long-term reference pictures; and constraining the operation of an inter-mode coding tool on the inter-mode coded block based on the determination, wherein in the case that the inter-mode coding tool comprises Bi-Directional Optical Flow, BDOF, and the inter-mode coded block is a bi-directional prediction block, constraining the operation of the inter-mode coding tool on the inter-mode coded block based on the determination comprises: prohibiting the performance of the BDOF when determining that one reference picture of the bi-directional prediction block is a long-term reference picture and the other reference picture of the bi-directional prediction block is not a long-term reference picture. determining whether one or more of the reference pictures associated with an inter-mode coded block involved in an operation of an inter-mode coding tool are long-term reference pictures; and constraining the operation of an inter-mode coding tool on the inter-mode coded block based on the determination, wherein in the case that the inter-mode coding tool comprises Bi-Directional Optical Flow, BDOF, and the inter-mode coded block is a bi-directional prediction block, constraining the operation of the inter-mode coding tool on the inter-mode coded block based on the determination comprises: prohibiting the performance of the BDOF when determining that one reference picture of the bi-directional prediction block is a long-term reference picture and the other reference picture of the bi-directional prediction block is not a long-term reference picture.
A battery pack, characterized in comprising: a mounting beam fixed in a case of the battery pack; and a battery module connected to the mounting beam , wherein the mounting beam is provided with a limiting protrusion and a limiting recess , and a limiting space is formed between the limiting protrusion and the mounting beam , the limiting protrusion protrudes upward from a surface of the mounting beam , and the battery module is provided with a limiting sheet and an engaging assembly , at least a portion of the limiting sheet is inserted into the limiting space , and the engaging assembly is engaged with the limiting recess . a mounting beam fixed in a case of the battery pack; and a battery module connected to the mounting beam , wherein the mounting beam is provided with a limiting protrusion and a limiting recess , and a limiting space is formed between the limiting protrusion and the mounting beam , the limiting protrusion protrudes upward from a surface of the mounting beam , and the battery module is provided with a limiting sheet and an engaging assembly , at least a portion of the limiting sheet is inserted into the limiting space , and the engaging assembly is engaged with the limiting recess .
A heat exchanger module comprising: • a housing adapted to receive therein at least one heat exchanger core ; • an air inlet duct configured over said housing and adapted to cover at least a portion of a surface of said at least one heat exchanger core and configure an opening ; • at least one fan device received within said housing and adapted to generate pressure difference across said at least one heat exchanger core for facilitating flow of fluid there through, characterised by • a grid adapted to be mounted over said opening of said air inlet duct , wherein said grid is spaced from said at least one heat exchanger core and it is at an inclination with respect to at least one heat exchanger core , said grid comprising an array of beams adapted to configure restricted passages , said beams are so configured, spaced and oriented with respect to each other that said beams are adapted to direct and distribute fluid impinging on said grid over said surface of said at least one heat exchanger core covered by said air inlet duct , wherein orientation of said beams configuring said grid vary from one section to another section of said grid . • a housing adapted to receive therein at least one heat exchanger core ; • an air inlet duct configured over said housing and adapted to cover at least a portion of a surface of said at least one heat exchanger core and configure an opening ; • at least one fan device received within said housing and adapted to generate pressure difference across said at least one heat exchanger core for facilitating flow of fluid there through, characterised by • a grid adapted to be mounted over said opening of said air inlet duct ,
A tracking system comprising: a computer ; and an endoscope comprising: a body having a distal end and at least one channel formed therein, the body being adapted for insertion through bronchi to reach a target area ; an accelerometer connected to the body and positioned in proximity to the distal end; an imaging device operably coupled with the body; and a light source operably coupled with the body, wherein the accelerometer is in communication with the computer for transmitting acceleration data thereto, and the imaging device is in communication with the computer for transmitting real-time images thereto, characterized in that an orientation of the endoscope with respect to the bronchi is determined by the computer based on the acceleration data, and that a bifurcation of the bronchi is detected in the real-time images, such that the combined information of the determined orientation of the endoscope and the detection of the bifurcation facilitates, at the bifurcation, navigation to the target region. a computer ; and an endoscope comprising: a body having a distal end and at least one channel formed therein, the body being adapted for insertion through bronchi to reach a target area ; an accelerometer connected to the body and positioned in proximity to the distal end; an imaging device operably coupled with the body; and a light source operably coupled with the body, wherein a body having a distal end and at least one channel formed therein, the body being adapted for insertion through bronchi to reach a target area ; an accelerometer connected to the body and positioned in proximity to the distal end; an imaging device operably coupled with the body; and a light source operably coupled with the body, the accelerometer is in communication with the computer for transmitting acceleration data thereto, and the imaging device is in communication with the computer for transmitting real-time images thereto, characterized in that an orientation of the endoscope with respect to the bronchi is determined by the computer based on the acceleration data, and that a bifurcation of the bronchi is detected in the real-time images, such that the combined information of the determined orientation of the endoscope and the detection of the bifurcation facilitates, at the bifurcation, navigation to the target region.
An orthodontic appliance comprising: a base having a bonding surface , a body extending outwardly from the base, the body including a mesial-distally extending archwire slot having a bottom wall and a channel in the body oriented generally perpendicular to the slot and having a bottom wall , a deflectable beam extending in a mesial-distal direction across the channel, and a door slidably coupled to the body, the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot, wherein a lingual surface of the door includes a leading edge region extending substantially the full mesial-distal length of the archwire slot, having a contact surface substantially parallel to the bottom wall of the archwire slot in the closed state and a strut slidably received in the channel and extending towards the bottom wall of the channel from a mesial-distal center of the lingual surface of the door, the strut including a protrusion that extends outwardly from a lingual portion of the strut in a generally lingual direction, whereby the protrusion deflects the beam toward the bottom wall of the channel as the door is urged in a gingival direction to transition from the open state to the closed state. a base having a bonding surface , a body extending outwardly from the base, the body including a mesial-distally extending archwire slot having a bottom wall and a channel in the body oriented generally perpendicular to the slot and having a bottom wall , a deflectable beam extending in a mesial-distal direction across the channel, and a door slidably coupled to the body, the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot, wherein a lingual surface of the door includes a leading edge region extending substantially the full mesial-distal length of the archwire slot, having a contact surface substantially parallel to the bottom wall of the archwire slot in the closed state and a strut slidably received in the channel and extending towards the bottom wall of the channel from a mesial-distal center of the lingual surface of the door, the strut including a protrusion that extends outwardly from a lingual portion of the strut in a generally lingual direction, whereby the protrusion deflects the beam toward the bottom wall of the channel as the door is urged in a gingival direction to transition from the open state to the closed state.
A therapeutic or prophylactic drug for use in a method for treating a disease, disorder or condition associated with TGF-β induced endoplasmic reticulum (ER) stress in a corneal endothelium, comprising a TGF-β signal inhibitor, wherein the disease, disorder or condition is related to Fuchs' endothelial corneal dystrophy.
A method for manufacturing an organic electronic element that includes, on a substrate, a first electrode and a second electrode facing each other, with at least one organic functional layer being interposed therebetween, and has a sealing layer provided directly along the top surface and the lateral surface of the organic electronic element , the method comprising steps to described below: an organic electronic element forming step of forming an organic electronic element by sequentially laminating a first electrode , an organic functional layer , and a second electrode , on the substrate; a film forming step of directly applying a coating liquid containing a silicon compound, which is at least one selected from the group consisting of a polysilazane compound, a polyorganosiloxane compound, a polysilane compound, and a polycarbosilane compound, as a main component along the top surface and the lateral surface of the organic electronic element , and thereby forming a coating film ; and an ion implantation step of implanting plasma ions into the coating film by generating plasma in an atmosphere containing a plasma generating gas, applying a plasma implantation pressure adjusted to a value within the range of 0.01 Pa to 1 Pa and a negative high voltage pulse with an applied voltage adjusted to a value within the range of -1 kV to -50 kV, and thereby forming a sealing layer , characterized in that the coating film formed in step is formed by directly applying a coating liquid containing a polysilazane compound as a main component, and the refractive index of the coating film is adjusted to a value within the range of 1.48 to 1.63 before the ion implantation step of step , wherein a seasoning treatment is provided in step and is performed at a temperature of 15°C to 35°C for 24 hours to 480 hours to adjust the refractive index of the coating film . an organic electronic element forming step of forming an organic electronic element by sequentially laminating a first electrode , an organic functional layer , and a second electrode , on the substrate; a film forming step of directly applying a coating liquid containing a silicon compound, which is at least one selected from the group consisting of a polysilazane compound, a polyorganosiloxane compound, a polysilane compound, and a polycarbosilane compound, as a main component along the top surface and the lateral surface of the organic electronic element , and thereby forming a coating film ; and an ion implantation step of implanting plasma ions into the coating film by generating plasma in an atmosphere containing a plasma generating gas, applying a plasma implantation pressure adjusted to a value within the range of 0.01 Pa to 1 Pa and a negative high voltage pulse with an applied voltage adjusted to a value within the range of -1 kV to -50 kV, and thereby forming a sealing layer ,
A system, comprising: a plurality of tubes , wherein each of the plurality of tubes comprise a first end and a second end; a light detector positioned at the second end of each of the plurality of tubes, the light detector configured to: detect an incoming light; and determine light intensity information of the incoming light; material coupled to the first end of each of the plurality of tubes, the material configured to change in transparency; a processor coupled to the light detector and the material, and configured to: receive the light intensity information from the light detector; determine that an intensity of the incoming light is above a threshold; and in response to determining that the intensity is above the threshold, cause a change in transparency of the material of at least one of the plurality of tubes. a plurality of tubes , wherein each of the plurality of tubes comprise a first end and a second end; a light detector positioned at the second end of each of the plurality of tubes, the light detector configured to: detect an incoming light; and determine light intensity information of the incoming light; material coupled to the first end of each of the plurality of tubes, the material configured to change in transparency; a processor coupled to the light detector and the material, and configured to: receive the light intensity information from the light detector; determine that an intensity of the incoming light is above a threshold; and in response to determining that the intensity is above the threshold, cause a change in transparency of the material of at least one of the plurality of tubes. detect an incoming light; and determine light intensity information of the incoming light; material coupled to the first end of each of the plurality of tubes, the material configured to change in transparency; a processor coupled to the light detector and the material, and configured to: receive the light intensity information from the light detector; determine that an intensity of the incoming light is above a threshold; and in response to determining that the intensity is above the threshold, cause a change in transparency of the material of at least one of the plurality of tubes. receive the light intensity information from the light detector; determine that an intensity of the incoming light is above a threshold; and in response to determining that the intensity is above the threshold, cause a change in transparency of the material of at least one of the plurality of tubes.
A production method of a polyurethane porous membrane to be used for at least one of applications of cell culture and cancer cell growth inhibition, the production method of the polyurethane porous membrane comprising: a first step of forming a layer of a polyurethane material which is uncured, on a substrate, the polyurethane material including a polyol, an isocyanate and a diluting solvent; and a second step of supplying water vapor to an exposed surface of the layer of the polyurethane material formed on the substrate, which is away from the substrate, so as to cure the polyurethane material and provide the layer of the polyurethane material with a porous structure having a plurality of irregularities on the exposed surface, wherein the porous structure of the polyurethane porous membrane provided at the second step is comprised of a plurality of pores open to the exposed surface, the curing temperature is not lower than 40°C, and the polyurethane porous membrane has a thickness of 0.1 to 100 μm. a first step of forming a layer of a polyurethane material which is uncured, on a substrate, the polyurethane material including a polyol, an isocyanate and a diluting solvent; and a second step of supplying water vapor to an exposed surface of the layer of the polyurethane material formed on the substrate, which is away from the substrate, so as to cure the polyurethane material and provide the layer of the polyurethane material with a porous structure having a plurality of irregularities on the exposed surface, wherein the porous structure of the polyurethane porous membrane provided at the second step is comprised of a plurality of pores open to the exposed surface, the curing temperature is not lower than 40°C, and the polyurethane porous membrane has a thickness of 0.1 to 100 μm.
A transmission control device comprising: a communication control unit configured to: control multicasting of a plurality of pieces of data being grouped into a plurality of multicast flows, add a sequence number to each of the pieces of data and, control transmission of each of the pieces of data with the added sequence numbers by multicast communication; and a data generation unit configured to: generate number information for each of the multicast flows indicating which of the sequence numbers of the transmitted pieces of data should be processed in a reception device as belonging to a specific multicast flow, wherein the communication control unit is further configured to control transmission of the number information by multicast communication to the reception device for each of the multicast flows. a communication control unit configured to: control multicasting of a plurality of pieces of data being grouped into a plurality of multicast flows, add a sequence number to each of the pieces of data and, control transmission of each of the pieces of data with the added sequence numbers by multicast communication; and control multicasting of a plurality of pieces of data being grouped into a plurality of multicast flows, add a sequence number to each of the pieces of data and, control transmission of each of the pieces of data with the added sequence numbers by multicast communication; and a data generation unit configured to: generate number information for each of the multicast flows indicating which of the sequence numbers of the transmitted pieces of data should be processed in a reception device as belonging to a specific multicast flow, wherein the communication control unit is further configured to control transmission of the number information by multicast communication to the reception device for each of the multicast flows.
A method for reporting radio link failure, RLF, information, the method comprising: a user equipment, UE detecting (s402) an RLF with respect to a master cell group, MCG; in response to detecting the RLF with respect to the MCG, the UE storing (s404) RLF information; the UE sending (s406) a first message comprising MCG failure information and starting a timer; after sending the first message and starting the timer, the UE receiving (s408) a second message ; the UE, in response to receiving the second message , determining (s410) that the timer is still running; and as a result of determining that the that the timer is still running, the UE deleting (s412) the RLF information; characterized in that the second message is one of: an RRC message containing a reconfiguration with synchronization indicator; a MobilityFromEUTRA message; a MobilityFromNR message; and an RRCConnectionReconfigurationMessage with mobilityControlInfo. a user equipment, UE detecting (s402) an RLF with respect to a master cell group, MCG; in response to detecting the RLF with respect to the MCG, the UE storing (s404) RLF information; the UE sending (s406) a first message comprising MCG failure information and starting a timer; after sending the first message and starting the timer, the UE receiving (s408) a second message ; the UE, in response to receiving the second message , determining (s410) that the timer is still running; and as a result of determining that the that the timer is still running, the UE deleting (s412) the RLF information; characterized in that the second message is one of: an RRC message containing a reconfiguration with synchronization indicator; a MobilityFromEUTRA message; a MobilityFromNR message; and an RRCConnectionReconfigurationMessage with mobilityControlInfo. an RRC message containing a reconfiguration with synchronization indicator; a MobilityFromEUTRA message; a MobilityFromNR message; and an RRCConnectionReconfigurationMessage with mobilityControlInfo.