mhurhangee/ep-ind-claims huggingface dataset:
A cooperative control method for user equipment, applied to a host, wherein the host is interconnected to first user equipment and second user equipment by using a network, the host runs a first application and a second application, a first area of a screen of the host displays a graphical interface of the first application, a second area of the screen of the host displays a graphical interface of the second application, and the first area and the second area are independent of each other; a graphical interface displayed on the first user equipment and the graphical interface displayed in the first area have consistent content, and a graphical interface displayed on the second user equipment and the graphical interface displayed in the second area have consistent content; and the method comprises: receiving, by the host, first operation data sent by the first user equipment, wherein the first operation data is generated according to an operation performed by a user on the graphical interface displayed on the first user equipment; processing, by the host, the first operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the first application in the first area according to the first operation data; synchronizing, by the host, an updated graphical interface of the first application to the first user equipment; receiving, by the host, second operation data sent by the second user equipment, wherein the second operation data is generated according to an operation performed by a user on the second user equipment; processing, by the host, the second operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the second application in the second area according to the second operation data; and synchronizing, by the host, an updated graphical interface of the second application to the second user equipment. receiving, by the host, first operation data sent by the first user equipment, wherein the first operation data is generated according to an operation performed by a user on the graphical interface displayed on the first user equipment; processing, by the host, the first operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the first application in the first area according to the first operation data; synchronizing, by the host, an updated graphical interface of the first application to the first user equipment; receiving, by the host, second operation data sent by the second user equipment, wherein the second operation data is generated according to an operation performed by a user on the second user equipment; processing, by the host, the second operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the second application in the second area according to the second operation data; and synchronizing, by the host, an updated graphical interface of the second application to the second user equipment.
A post mounting footing comprising: a lower part; an upper part, hinge mounted with respect to the lower part; wherein the upper and lower parts are configured to be re-orientatable between a first position in which hinge operation is inhibited; and a second position in which clearance between the upper and lower parts is enabled so as to permit hinging; wherein a hinge formation is fixed to one of the upper and lower parts and is received in a slot provided in a tongue portion in the other of the upper and lower parts, the hinge formation being movable along the slot when the upper and lower parts are re-orientated between the first and second position; wherein the slot runs in an upward and downward direction and extends completely across the width of the tongue portion; characterized in that a locking element is received in a bore, the bore extending completely through the tongue portion in a direction transverse to, and intersecting with, the slot, such that the locking element is positionable immediately below the hinge formation to inhibit movement of the hinge formation along the slot, thereby locking the upper and lower parts to prevent the upper and lower parts being re-orientated between the first and second position. a lower part; an upper part, hinge mounted with respect to the lower part; wherein the upper and lower parts are configured to be re-orientatable between a first position in which hinge operation is inhibited; and a second position in which clearance between the upper and lower parts is enabled so as to permit hinging; wherein a hinge formation is fixed to one of the upper and lower parts and is received in a slot provided in a tongue portion in the other of the upper and lower parts, the hinge formation being movable along the slot when the upper and lower parts are re-orientated between the first and second position; wherein the slot runs in an upward and downward direction and extends completely across the width of the tongue portion; characterized in that a locking element is received in a bore, the bore extending completely through the tongue portion in a direction transverse to, and intersecting with, the slot, such that the locking element is positionable immediately below the hinge formation to inhibit movement of the hinge formation along the slot, thereby locking the upper and lower parts to prevent the upper and lower parts being re-orientated between the first and second position.
An isolated population of human A2B5 + /PSA-NCAM - oligodendrocyte progenitor cells, for use in the treatment of a condition requiring remyelination of axons.
A method of manufacturing an optoelectronic device comprising forming first and second active regions (26A, 26B; 56A, 56B) capable of emitting or receiving an electromagnetic radiation made of at least one first semiconductor material mainly comprising a first compound selected from III-V compounds, II-VI compounds, and mixtures thereof, the first active regions (26A; 56A) having a first polarity and the second active regions (26B; 56B) having a second polarity different from the first polarity, wherein the method comprises the steps of: forming, on a substrate, third portions of a third semiconductor material and having a third polarity and fourth portions of the third semiconductor material and having a fourth polarity different from the third polarity, the third material being a nitride, a carbide, or a boride of a transition metal of column IV, V, or VI, or a combination of these compounds; forming on the third portions, first semiconductor portions (24A; 46A, 48A) of a second semiconductor material mainly comprising the first compound and having the first polarity and, on the fourth portions, second semiconductor portions (24B; 46B, 48B) of the second semiconductor material and having the second polarity; and growing by simultaneous epitaxy the first active regions (26A; 56A) in contact with the first semiconductor portions (24A; 46A, 48A) and the second active regions (26B; 56B) in contact with the second semiconductor portions (24B; 46B, 48B). forming, on a substrate, third portions of a third semiconductor material and having a third polarity and fourth portions of the third semiconductor material and having a fourth polarity different from the third polarity, the third material being a nitride, a carbide, or a boride of a transition metal of column IV, V, or VI, or a combination of these compounds; forming on the third portions, first semiconductor portions (24A; 46A, 48A) of a second semiconductor material mainly comprising the first compound and having the first polarity and, on the fourth portions, second semiconductor portions (24B; 46B, 48B) of the second semiconductor material and having the second polarity; and growing by simultaneous epitaxy the first active regions (26A; 56A) in contact with the first semiconductor portions (24A; 46A, 48A) and the second active regions (26B; 56B) in contact with the second semiconductor portions (24B; 46B, 48B).
A method for network facilitating wireless inter-cell interference cancellation at a served UE, comprising: transmitting from a serving base station eNB B a first link encoded with a first identifier to a served user equipment UE that also receives an interfering second link from an interfering base station eNB A encoded with a second identifier; the method characterized in comprising: performing cancellation of the second link, when received at a SINR higher than the SINR of the first link, by decoding the second link with the second identifier, re-encoding the second link with the second identifier, canceling the second link from the received signal, and decoding the first link from the received signal by channel estimation receiving at the serving base station eNB B feedback from the served UE indicative of ability to cancel the second link from the received signal at the served UE; and causing, responsive to the feedback, an adjustment in transmission at either or both of the serving base station eNB B and the interfering base station eNB A to provide a relative change in signal to interfering noise ratio SINR of the first and second links. transmitting from a serving base station eNB B a first link encoded with a first identifier to a served user equipment UE that also receives an interfering second link from an interfering base station eNB A encoded with a second identifier; the method characterized in comprising: performing cancellation of the second link, when received at a SINR higher than the SINR of the first link, by decoding the second link with the second identifier, re-encoding the second link with the second identifier, canceling the second link from the received signal, and decoding the first link from the received signal by channel estimation receiving at the serving base station eNB B feedback from the served UE indicative of ability to cancel the second link from the received signal at the served UE; and causing, responsive to the feedback, an adjustment in transmission at either or both of the serving base station eNB B and the interfering base station eNB A to provide a relative change in signal to interfering noise ratio SINR of the first and second links. performing cancellation of the second link, when received at a SINR higher than the SINR of the first link, by decoding the second link with the second identifier, re-encoding the second link with the second identifier, canceling the second link from the received signal, and decoding the first link from the received signal by channel estimation receiving at the serving base station eNB B feedback from the served UE indicative of ability to cancel the second link from the received signal at the served UE; and causing, responsive to the feedback, an adjustment in transmission at either or both of the serving base station eNB B and the interfering base station eNB A to provide a relative change in signal to interfering noise ratio SINR of the first and second links.
A vehicle headlamp system configured to be used with a vehicle control unit, the vehicle control unit being configured to switch from an automatic driving mode to a manual driving mode based on external information of a vehicle, the vehicle headlamp system comprising: a headlamp mounted on a vehicle; and a lamp control unit configured to control the headlamp, wherein the lamp control unit is configured to control the headlamp to form a first light distribution pattern while the vehicle control unit is executing the automatic driving mode, control the headlamp to form a second light distribution pattern while the vehicle control unit is executing the manual driving mode, and control the headlamp to form a third light distribution pattern that illuminates at an illuminance higher than an illuminance of the first light distribution pattern and/or illuminates an area larger than an illumination area of the first light distribution pattern when transitioning from the automatic driving mode to the manual driving mode, characterized in that the third light distribution pattern is brighter than an illuminance of the second light distribution pattern and/or is illuminated in an area larger than an illumination area of the second light distribution pattern. a headlamp mounted on a vehicle; and a lamp control unit configured to control the headlamp, wherein the lamp control unit is configured to control the headlamp to form a first light distribution pattern while the vehicle control unit is executing the automatic driving mode, control the headlamp to form a second light distribution pattern while the vehicle control unit is executing the manual driving mode, and control the headlamp to form a third light distribution pattern that illuminates at an illuminance higher than an illuminance of the first light distribution pattern and/or illuminates an area larger than an illumination area of the first light distribution pattern when transitioning from the automatic driving mode to the manual driving mode, characterized in that the third light distribution pattern is brighter than an illuminance of the second light distribution pattern and/or is illuminated in an area larger than an illumination area of the second light distribution pattern.
A sleep disordered breathing therapy implant unit configured for implantation proximal to a tongue of a subject, the implant unit comprising: an antenna configured to receive a signal; a flexible carrier including a flexible, biocompatible material or a biocompatible polymer, wherein the biocompatible polymer includes at least one of silicone, phenyltrimethoxysilane (PTMS), polymethyl methacrylate (PMMA), parylene C, polyimide, liquid polyimide, laminated polyimide, black epoxy, polyether ether ketone (PEEK), liquid crystal polymer, Kapton, or combinations thereof; and at least one pair of modulation electrodes (158a, 158b) configured to be implanted proximal to the tongue of the subject in the vicinity of a hypoglossal nerve, wherein the flexible carrier is associated with the at least one pair of electrodes (158a, 158b); wherein the implant unit is configured for location on a surface of a genioglossus muscle; wherein the at least one pair of modulation electrodes (158a, 158b) is configured to receive an applied electric signal in response to the signal received by the antenna and generate an electrical field to modulate the hypoglossal nerve from a position where the at least one pair of modulation electrodes (158a, 158b) are spaced apart from the hypoglossal nerve, wherein the at least one pair of modulation electrodes (158a, 158b) is configured such that the generated electric field provides an energy density sufficient to modulate the terminal fibers of the medial branch of the hypoglossal nerve without contacting the terminal fibers of the medial branch of the hypoglossal nerve. an antenna configured to receive a signal; a flexible carrier including a flexible, biocompatible material or a biocompatible polymer, wherein the biocompatible polymer includes at least one of silicone, phenyltrimethoxysilane (PTMS), polymethyl methacrylate (PMMA), parylene C, polyimide, liquid polyimide, laminated polyimide, black epoxy, polyether ether ketone (PEEK), liquid crystal polymer, Kapton, or combinations thereof; and at least one pair of modulation electrodes (158a, 158b) configured to be implanted proximal to the tongue of the subject in the vicinity of a hypoglossal nerve,
A bilayer graphene tunnelling field effect transistor comprising: a. a bilayer graphene having a bottom surface and a top surface, b. a bottom gate electrode capacitively coupled to the bottom surface of the bilayer graphene, c. a first top gate electrode (131, 133) capacitively coupled to the top surface of the graphene bilayer, and optionally d. a second top gate electrode capacitively coupled to the top surface of the bilayer graphene, spaced apart along the top surface from the first top gate electrode whereby in absence of the second top gate electrode, the bottom gate electrode partially overlaps the first top gate electrode thereby defining a channel region capacitively coupled to the bottom gate electrode and the first top gate electrode (131, 133), a source region only capacitively coupled to the top gate electrode, and a drain region only capacitively coupled to the bottom gate electrode, whereby in presence of the second top gate electrode, the bottom gate electrode fully overlaps the first top gate electrode and the second top gate electrode, thereby defining a channel region capacitively coupled to the bottom gate electrode and the first top gate electrode, a source region capacitively coupled to the second top gate electrode and the bottom gate electrode, a barrier region only capacitively coupled to the bottom gate electrode, and a drain region only capacitively coupled to the bottom gate electrode. a. a bilayer graphene having a bottom surface and a top surface, b. a bottom gate electrode capacitively coupled to the bottom surface of the bilayer graphene, c. a first top gate electrode (131, 133) capacitively coupled to the top surface of the graphene bilayer, and optionally d. a second top gate electrode capacitively coupled to the top surface of the bilayer graphene, spaced apart along the top surface from the first top gate electrode
An unmanned aerial vehicle, comprising: a fuselage having a battery accommodation cavity; the battery accommodation cavity comprises at least two openings, the unmanned aerial vehicle further comprising: a battery pack comprising at least four battery blocks and configured to be detachably connected inside the battery accommodation cavity; a battery circuit board electrically connected to the battery blocks in the battery pack; and a functional module electrically connected to the battery circuit board; wherein the battery blocks in the battery pack supply power to the functional module at the same time via the battery circuit board; and characterized in that at least two battery blocks are disposed at one of the openings. a fuselage having a battery accommodation cavity; the battery accommodation cavity comprises at least two openings, the unmanned aerial vehicle further comprising: a battery pack comprising at least four battery blocks and configured to be detachably connected inside the battery accommodation cavity; a battery circuit board electrically connected to the battery blocks in the battery pack; and a functional module electrically connected to the battery circuit board; a battery pack comprising at least four battery blocks and configured to be detachably connected inside the battery accommodation cavity; a battery circuit board electrically connected to the battery blocks in the battery pack; and a functional module electrically connected to the battery circuit board; wherein the battery blocks in the battery pack supply power to the functional module at the same time via the battery circuit board; and characterized in that at least two battery blocks are disposed at one of the openings.
A kit for use in measuring the amount of an active form of GLP-1 or the amount of AVP in a biological sample, comprising a cell expressing a Gs-coupled GPCR being a GLP-1 receptor or V2R, a cAMP dependent calcium channel and a calcium sensitive protein
A solid state alkali metal based secondary cell, comprising: an anolyte compartment (15, 115) comprising a negative electrode (20, 120), wherein the negative electrode consists of a carbon-based first alkali metal intercalation material; a catholyte compartment (25, 125) comprising a positive electrode (30, 130), wherein the positive electrode consists of a second alkali metal intercalation material that is different than the first alkali metal intercalation material; and a solid alkali metal ion conductive ceramic electrolyte membrane (35, 135) that separates the negative electrode from the positive electrode, wherein the negative electrode is in direct contact with a first side of the electrolyte membrane, wherein the positive electrode is in direct contact with a second side of the electrolyte membrane that is substantially opposite to the first side, and wherein the electrolyte membrane is selected from the group consisting of a sodium ion conductive ceramic NaSICON-type material and a lithium ion ceramic LiSICON-type material. an anolyte compartment (15, 115) comprising a negative electrode (20, 120), wherein the negative electrode consists of a carbon-based first alkali metal intercalation material; a catholyte compartment (25, 125) comprising a positive electrode (30, 130), wherein the positive electrode consists of a second alkali metal intercalation material that is different than the first alkali metal intercalation material; and a solid alkali metal ion conductive ceramic electrolyte membrane (35, 135) that separates the negative electrode from the positive electrode, wherein the negative electrode is in direct contact with a first side of the electrolyte membrane, wherein the positive electrode is in direct contact with a second side of the electrolyte membrane that is substantially opposite to the first side, and wherein the electrolyte membrane is selected from the group consisting of a sodium ion conductive ceramic NaSICON-type material and a lithium ion ceramic LiSICON-type material.
Electrical crimp terminal for connection with a conductor of an electrical cable having an insulation surrounding the conductor, the electrical crimp terminal comprising a conductor connection portion, wherein the conductor connection portion comprises conductor crimp wings (12, 14) for being crimped onto the conductor of the electrical cable; wherein each of the conductor crimp wings (12, 14) in the non-crimped state has at least one progressive portion having a progressively increasing height (h) in a longitudinal direction to a tip of the conductor to be crimped characterized in that the progressive portion extends along the complete length (l) of each conductor crimp wing (12, 14).
A blending appliance, comprising: A housing having an upper housing spaced vertically from a support base to define a jar receiving area therebetween; a blender jar configured for lateral reception in the jar receiving area, the blender jar including a receptacle portion and an open top; and a feed chute assembly removeably received through the upper housing at a housing aperture, the feed chute assembly aligned with the receptacle portion of the blender jar when the blender jar is received in the jar receiving area, wherein the feed chute assembly includes a funnel member having a cup assembly removeably received therein, wherein the cup assembly is configured to engage the upper housing to selectively retain the funnel member and cup assembly within the upper housing, wherein the cup assembly further includes a cap to close the housing aperture, wherein said cup assembly includes a body portion having at least one channel that substantially runs a length of the body portion, said blending appliance being characterized in that said funnel member includes a body portion, and in that the channels disposed on the body portion of the cup assembly, of the cup assembly define a vent between the cup assembly and the body portion of the funnel member. A housing having an upper housing spaced vertically from a support base to define a jar receiving area therebetween; a blender jar configured for lateral reception in the jar receiving area, the blender jar including a receptacle portion and an open top; and a feed chute assembly removeably received through the upper housing at a housing aperture, the feed chute assembly aligned with the receptacle portion of the blender jar when the blender jar is received in the jar receiving area, wherein the feed chute assembly includes a funnel member having a cup assembly removeably received therein, wherein the cup assembly is configured to engage the upper housing to selectively retain the funnel member and cup assembly within the upper housing, wherein the cup assembly further includes a cap to close the housing aperture,