mhurhangee/ep-ind-claims huggingface dataset:
A blue-phase liquid crystal panel, comprising: a first substrate; a second substrate; a blue-phase liquid crystal layer between the first substrate and the second substrate, the first substrate being disposed opposite to the second substrate; a first electrode located on one surface of the first substrate facing the blue-phase liquid crystal layer; a first polarizer and a first substrate coupling film located on another surface of the first substrate, the first polarizer being located between the first substrate and the first substrate coupling film; a second electrode located on one surface of the second substrate facing the blue-phase liquid crystal layer; a second polarizer located on another surface of the second substrate, the first electrode and the second electrode being used for forming a vertical electric field; wherein a plurality of first microprisms are formed on the first substrate coupling film, a cross section of a first microprism having a profile in a triangle shape, the first microprism having a first prismatic face and a second prismatic face,; and one of the first electrode and the second electrode is a common electrode, while the other one comprises a plurality of pixel electrodes, characterized in that incident light perpendicular to the first substrate is totally reflected at the first prismatic face and is not totally reflected at the second prismatic face. a first substrate; a second substrate; a blue-phase liquid crystal layer between the first substrate and the second substrate, the first substrate being disposed opposite to the second substrate; a first electrode located on one surface of the first substrate facing the blue-phase liquid crystal layer; a first polarizer and a first substrate coupling film located on another surface of the first substrate, the first polarizer being located between the first substrate and the first substrate coupling film; a second electrode located on one surface of the second substrate facing the blue-phase liquid crystal layer; a second polarizer located on another surface of the second substrate, the first electrode and the second electrode being used for forming a vertical electric field; wherein a plurality of first microprisms are formed on the first substrate coupling film, a cross section of a first microprism having a profile in a triangle shape, the first microprism having a first prismatic face and a second prismatic face,; and one of the first electrode and the second electrode is a common electrode, while the other one comprises a plurality of pixel electrodes, characterized in that incident light perpendicular to the first substrate is totally reflected at the first prismatic face and is not totally reflected at the second prismatic face.
A constant velocity coupling comprising: a first central shaft and a plurality of first pivot arms pivotally connected to the first central shaft; a second central shaft and a plurality of second pivot arms pivotally connected the second central shaft; a first outer housing having a plurality of lugs, the first outer housing being connected to the first central shaft; a second outer housing having a plurality of lugs, the second outer housing being connected to the second central shaft; and an interconnecting bearing element coupling each of the first and second pivot arms together such that torque and rotary motion are transmitted through a joint angle; wherein the plurality of lugs of the first and second outer housings are in alignment with bores in the first and second central shafts respectively. a first central shaft and a plurality of first pivot arms pivotally connected to the first central shaft; a second central shaft and a plurality of second pivot arms pivotally connected the second central shaft; a first outer housing having a plurality of lugs, the first outer housing being connected to the first central shaft; a second outer housing having a plurality of lugs, the second outer housing being connected to the second central shaft; and an interconnecting bearing element coupling each of the first and second pivot arms together such that torque and rotary motion are transmitted through a joint angle; wherein the plurality of lugs of the first and second outer housings are in alignment with bores in the first and second central shafts respectively.
A method of controlling a programmable ophthalmic lens device comprising a programmable ophthalmic lens and an optical function controller, the programmable ophthalmic lens having an optical function and extending between at least one eye of the wearer and the real world scene when the device is used by the wearer, and the optical function controller being arranged to control the optical function of the programmable ophthalmic lens, the method comprising: - an activity data receiving step during which activity data relating to the activity of the wearer are received by the optical function controller and stored over time, the activity data being determined using sensors on the programmable lens device, - an optical function data determining step during which optical function data are determined based on the evolution over time of the activity data, the optical function data comprising at least dioptric function data relating to a dioptric function based at least on the ophthalmic correction adapted to the wearer, the dioptric function relating to the progressive multifocal optical design most adapted for the wearer, - an optical function data receiving step during which optical function data relating to the optical function of the programmable ophthalmic lens is received by the optical function controller, - an optical function modifying step during which the optical function of the programmable electronic ophthalmic lens device is modified by the optical function controller based on the optical function data. - an activity data receiving step during which activity data relating to the activity of the wearer are received by the optical function controller and stored over time, the activity data being determined using sensors on the programmable lens device, - an optical function data determining step during which optical function data are determined based on the evolution over time of the activity data, the optical function data comprising at least dioptric function data relating to a dioptric function based at least on the ophthalmic correction adapted to the wearer, the dioptric function relating to the progressive multifocal optical design most adapted for the wearer, - an optical function data receiving step during which optical function data relating to the optical function of the programmable ophthalmic lens is received by the optical function controller, - an optical function modifying step during which the optical function of the programmable electronic ophthalmic lens device is modified by the optical function controller based on the optical function data.
A blood pressure measuring apparatus configured to measure blood pressure of a subject by use of a cuff, comprising: a connecting section to which a tube communicating with the cuff s connected; a pressurizing/depressurizing section configured to increase or decrease an internal pressure of the cuff; a first controlling section configured to control an operation of the pressurizing/depressurizing section so as to cause the internal pressure to transit from a pressure transient state to a pressure steady state or from the pressure steady state to the pressure transient state; a detecting section configured to detect the internal pressure; a storage section storing a plurality of different control modes for increasing/decreasing the internal pressure; a determining section configured to determine a type of the cuff i n accordance with whether the internal pressure detected by the detecting section as reached the pressure steady state within a predetermined time period since start of the pressure transient state, wherein the pressure transient state is started by increasing the internal pressure of the cuff with the pressurizing/depressurizing section; and a second controlling section configured to select one of the control modes in accordance with the type of the cuff determined by the determining section, and to control the operation of the pressurizing/depressurizing section n accordance with the selected one of the control modes. a connecting section to which a tube communicating with the cuff s connected; a pressurizing/depressurizing section configured to increase or decrease an internal pressure of the cuff; a first controlling section configured to control an operation of the pressurizing/depressurizing section so as to cause the internal pressure to transit from a pressure transient state to a pressure steady state or from the pressure steady state to the pressure transient state; a detecting section configured to detect the internal pressure; a storage section storing a plurality of different control modes for increasing/decreasing the internal pressure; a determining section configured to determine a type of the cuff i n accordance with whether the internal pressure detected by the detecting section as reached the pressure steady state within a predetermined time period since start of the pressure transient state, wherein the pressure transient state is started by increasing the internal pressure of the cuff with the pressurizing/depressurizing section; and a second controlling section configured to select one of the control modes in accordance with the type of the cuff determined by the determining section, and to control the operation of the pressurizing/depressurizing section n accordance with the selected one of the control modes.
A housing assembly for a cooker hood, the housing assembly comprising: a housing and a fume inlet portion, wherein the fume inlet portion comprises an air inlet and a guiding plate; the fume inlet portion is adapted to be switched between a first position and a second position; the fume inlet portion at least partially extends out of the housing when the fume inlet portion is switched from the first position to the second position; wherein when being switched from the first position to the second position, the fume inlet portion rotates around a rotating shaft at the bottom of the fume inlet portion; characterized in that the guiding plate is adapted to be switched between a third position and a fourth position; the guiding plate seals the air inlet when the guiding plate is located at the third position; and when the guiding plate is located at the fourth position, the air inlet is open, and the guiding plate is adapted to guide an airflow to flow into the air inlet wherein when being switched from the third position to the fourth position, the guiding plate rotates around a rotating shaft at the top of the guiding plate. a housing and a fume inlet portion, wherein the fume inlet portion comprises an air inlet and a guiding plate; the fume inlet portion is adapted to be switched between a first position and a second position; the fume inlet portion at least partially extends out of the housing when the fume inlet portion is switched from the first position to the second position; wherein when being switched from the first position to the second position, the fume inlet portion rotates around a rotating shaft at the bottom of the fume inlet portion; characterized in that the guiding plate is adapted to be switched between a third position and a fourth position; the guiding plate seals the air inlet when the guiding plate is located at the third position; and when the guiding plate is located at the fourth position, the air inlet is open, and the guiding plate is adapted to guide an airflow to flow into the air inlet wherein when being switched from the third position to the fourth position, the guiding plate rotates around a rotating shaft at the top of the guiding plate.
A method performed by a 5G core network, 5GC, node to provide dual connectivity in a new radio telecommunications system, the method comprising: allocating two sets of tunnel endpoint identifiers, TEIDs; sending the allocated TEIDs to a master NG-RAN, M-NG-RAN, node for transporting a Protocol Data Unit, PDU, session that can be split; and receiving, from the M-NG-RAN node, feedback on the PDU session splitting information and transport layer information for the M-NG-RAN node and a secondary NG-RAN, S-NG-RAN, node. allocating two sets of tunnel endpoint identifiers, TEIDs; sending the allocated TEIDs to a master NG-RAN, M-NG-RAN, node for transporting a Protocol Data Unit, PDU, session that can be split; and receiving, from the M-NG-RAN node, feedback on the PDU session splitting information and transport layer information for the M-NG-RAN node and a secondary NG-RAN, S-NG-RAN, node.
A well tool comprising: a plurality of tubular members (112, 304) arranged in an array and configured to be positioned in a flow line (150, 302) positioned downhole within a wellbore, each of the plurality of tubular members configured to receive a respective portion of a well fluid flowed through the flow line; and an electromagnetic, i.e., EM heating assembly (110, 300) configured to be positioned around the plurality of tubular members, the EM heating assembly configured to generate EM radiation and transmit it to the plurality of tubular members such that the plurality of tubular members are heated by the transmitted EM radiation, wherein plurality of heated tubular members are configured to heat the respective portions of the well fluid flowed through the plurality of tubular members. a plurality of tubular members (112, 304) arranged in an array and configured to be positioned in a flow line (150, 302) positioned downhole within a wellbore, each of the plurality of tubular members configured to receive a respective portion of a well fluid flowed through the flow line; and an electromagnetic, i.e., EM heating assembly (110, 300) configured to be positioned around the plurality of tubular members, the EM heating assembly configured to generate EM radiation and transmit it to the plurality of tubular members such that the plurality of tubular members are heated by the transmitted EM radiation, wherein plurality of heated tubular members are configured to heat the respective portions of the well fluid flowed through the plurality of tubular members.
A method by a terminal in a mobile communication system, the method comprising: generating an extended power headroom report, PHR, including power headrooms, PHs, and an indicator indicating whether the PH is based on a real transmission on an uplink data channel; and transmitting the extended PHR to a base station, characterized in that the extended PHR comprises, if the PH is based on the real transmission on the uplink data channel, a maximum transmission power used for calculation of the PH, and if the PH is not based on the real transmission on the uplink data channel, the maximum transmission power is omitted in the extended PHR. generating an extended power headroom report, PHR, including power headrooms, PHs, and an indicator indicating whether the PH is based on a real transmission on an uplink data channel; and transmitting the extended PHR to a base station, characterized in that the extended PHR comprises, if the PH is based on the real transmission on the uplink data channel, a maximum transmission power used for calculation of the PH, and if the PH is not based on the real transmission on the uplink data channel, the maximum transmission power is omitted in the extended PHR.
A workpiece holding device including a plurality of holding claws configured to hold a workpiece, the workpiece holding device comprising: a plurality of claw opening/closing members provided for the holding claws, respectively, and configured to displace the holding claws in a direction closer to or away from the workpiece; a holding member configured to hold each of the claw opening/closing members in a movable manner individually; and a displacing member configured to displace the holding members together with the holding claws; and a guide member configured to guide the claw opening/closing member when the claw opening/closing member is displaced, characterized in that inner and outer arc slits (40, 42) are formed in the holding member in a concentric manner, the claw opening/closing members are configured to be moved together with the holding claws along one of the arc slits (40, 42), while the claw opening/closing members are positioned within the arc slit, the guide member is configured to be displaced along another one of the two arc slits (40, 42). a plurality of claw opening/closing members provided for the holding claws, respectively, and configured to displace the holding claws in a direction closer to or away from the workpiece; a holding member configured to hold each of the claw opening/closing members in a movable manner individually; and a displacing member configured to displace the holding members together with the holding claws; and a guide member configured to guide the claw opening/closing member when the claw opening/closing member is displaced, characterized in that inner and outer arc slits (40, 42) are formed in the holding member in a concentric manner, the claw opening/closing members are configured to be moved together with the holding claws along one of the arc slits (40, 42), while the claw opening/closing members are positioned within the arc slit, the guide member is configured to be displaced along another one of the two arc slits (40, 42).
A surface roughness analysis system comprising: an ultrasonic analysis system configured to: receive material mechanical parameters for a workpiece; determine incident surface wave signal parameters for a source signal to be sent by a number of wave generators using the material mechanical parameters; determine a cut-off wavelength using the material mechanical parameters, wherein the cut-off wavelength is a ratio of surface wavelength over incident wavelength; and determine a designated distance for a number of wave sensors from the number of wave generators based on the cut-off wavelength such that the number of wave sensors receiving a surface wave of a threshold value indicates a surface roughness within a roughness threshold; wherein the number of wave generators are configured to send the source signal having the signal parameters into the workpiece; and the number of wave sensors are positioned at least the designated distance from the number of wave generators; the system further comprising a roughness evaluator configured to determine if the surface roughness of the workpiece is below the roughness threshold based on the surface wave sensed by the number of wave sensors. an ultrasonic analysis system configured to: receive material mechanical parameters for a workpiece; determine incident surface wave signal parameters for a source signal to be sent by a number of wave generators using the material mechanical parameters; determine a cut-off wavelength using the material mechanical parameters, wherein the cut-off wavelength is a ratio of surface wavelength over incident wavelength; and determine a designated distance for a number of wave sensors from the number of wave generators based on the cut-off wavelength such that the number of wave sensors receiving a surface wave of a threshold value indicates a surface roughness within a roughness threshold; receive material mechanical parameters for a workpiece; determine incident surface wave signal parameters for a source signal to be sent by a number of wave generators using the material mechanical parameters; determine a cut-off wavelength using the material mechanical parameters, wherein the cut-off wavelength is a ratio of surface wavelength over incident wavelength; and determine a designated distance for a number of wave sensors from the number of wave generators based on the cut-off wavelength such that the number of wave sensors receiving a surface wave of a threshold value indicates a surface roughness within a roughness threshold; wherein the number of wave generators are configured to send the source signal having the signal parameters into the workpiece; and the number of wave sensors are positioned at least the designated distance from the number of wave generators; the system further comprising a roughness evaluator configured to determine if the surface roughness of the workpiece is below the roughness threshold based on the surface wave sensed by the number of wave sensors.
An ablation device for treating body tissue, comprising: an elongate shaft having a proximal section, a distal section, and at least one fluid lumen configured to receive an electrically conductive fluid; an inflatable balloon coupled to the distal section of the shaft and including an interior section in fluid communication with the at least one fluid lumen for actuating the balloon between a collapsed state and an expanded state, at least one electrode located within the interior space of the balloon and characterised in that the balloon comprises a composite structure having a proximal balloon section including a first polymeric material and a distal balloon section including a second polymeric material different from the first material and the first polymeric material is a hydrophobic polymer and the second polymeric material is a hydrophilic polymer. an elongate shaft having a proximal section, a distal section, and at least one fluid lumen configured to receive an electrically conductive fluid; an inflatable balloon coupled to the distal section of the shaft and including an interior section in fluid communication with the at least one fluid lumen for actuating the balloon between a collapsed state and an expanded state, at least one electrode located within the interior space of the balloon and characterised in that the balloon comprises a composite structure having a proximal balloon section including a first polymeric material and a distal balloon section including a second polymeric material different from the first material and the first polymeric material is a hydrophobic polymer and the second polymeric material is a hydrophilic polymer.
An aerial distribution system for deploying items, comprising: a box open at the top; a lid detachably coupled to the box and configured to cover the open top of the box; a flexible liner inserted into the box for containing a plurality of items to be deployed; and at least one strap coupling the lid to the flexible liner; wherein, in use, air drag removes the lid from the box and inverts the flexible liner to eject the items through the open top of the box. a box open at the top; a lid detachably coupled to the box and configured to cover the open top of the box; a flexible liner inserted into the box for containing a plurality of items to be deployed; and at least one strap coupling the lid to the flexible liner; wherein, in use, air drag removes the lid from the box and inverts the flexible liner to eject the items through the open top of the box.