mhurhangee/ep-ind-claims huggingface dataset:
A magnetic core for use in an integrated circuit, the magnetic core comprising: A substrate; A plurality of subsections (60, 110, 160), wherein each subsection comprises a plurality of layers of magnetically functional material (80, 82, 84, 86, 88) and a first insulating layer (70, 72, 74, 76, 78, 90) formed of a first insulating material between adjacent layers of the plurality of layers of magnetically functional material; and a second insulating layer (100, 150) formed of a second insulating material interposed between adjacent subsections (60, 110, 160) of the magnetic core, characterized in that the first insulating material is different from the second insulating material, and the permittivity of the second insulating material is less than the permittivity of the first insulating material. A substrate; A plurality of subsections (60, 110, 160), wherein each subsection comprises a plurality of layers of magnetically functional material (80, 82, 84, 86, 88) and a first insulating layer (70, 72, 74, 76, 78, 90) formed of a first insulating material between adjacent layers of the plurality of layers of magnetically functional material; and a second insulating layer (100, 150) formed of a second insulating material interposed between adjacent subsections (60, 110, 160) of the magnetic core, characterized in that the first insulating material is different from the second insulating material, and the permittivity of the second insulating material is less than the permittivity of the first insulating material.
A monoclonal antibody against HMGB1, the antibody having any one of the following features (a) and (b): (a) comprising a light chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 4 to 6, respectively, and a heavy chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 10 to 12, respectively; and (b) comprising a light chain variable region comprising an amino acid sequence of SEQ ID NO: 3 or the amino acid sequence of SEQ ID NO: 3 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted, and a heavy chain variable region comprising an amino acid sequence of SEQ ID NO: 9 or the amino acid sequence of SEQ ID NO: 9 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted. (a) comprising a light chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 4 to 6, respectively, and a heavy chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 10 to 12, respectively; and a light chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 4 to 6, respectively, and a heavy chain variable region comprising complementarity-determining regions 1-3 as defined by amino acid sequences of SEQ ID NOs: 10 to 12, respectively; and (b) comprising a light chain variable region comprising an amino acid sequence of SEQ ID NO: 3 or the amino acid sequence of SEQ ID NO: 3 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted, and a heavy chain variable region comprising an amino acid sequence of SEQ ID NO: 9 or the amino acid sequence of SEQ ID NO: 9 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted. a light chain variable region comprising an amino acid sequence of SEQ ID NO: 3 or the amino acid sequence of SEQ ID NO: 3 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted, and a heavy chain variable region comprising an amino acid sequence of SEQ ID NO: 9 or the amino acid sequence of SEQ ID NO: 9 in which 1 to 10 amino acids in the framework region are substituted, deleted, added, and/or inserted.
A display screen assembly, comprising: a display screen, comprising a first region and a second region, and light transmittance of the first region being less than light transmittance of the second region; a coupling grating, stacked on a side of the display screen, wherein the coupling grating is configured to couple and transmit an external light being incident toward the first region to the second region and pass through the second region; and an electrically-controlled light-passing device, stacked on a side of the coupling grating facing away from the display screen, wherein the electrically-controlled light-passing device faces to the first region, and is switchable between a light-shielding state and a light-transmitting state; when the electrically-controlled light-passing device is turned off, the electrically-controlled light-passing device is in the light-transmitting state and is configured to allow the external light to be incident toward the first region; and when the electrically-controlled light-passing device is turned on, the electrically-controlled light-passing device is in the light-shielding state and is configured to block the external light from being incident toward the first region. a display screen, comprising a first region and a second region, and light transmittance of the first region being less than light transmittance of the second region; a coupling grating, stacked on a side of the display screen, wherein the coupling grating is configured to couple and transmit an external light being incident toward the first region to the second region and pass through the second region; and an electrically-controlled light-passing device, stacked on a side of the coupling grating facing away from the display screen, wherein the electrically-controlled light-passing device faces to the first region, and is switchable between a light-shielding state and a light-transmitting state; when the electrically-controlled light-passing device is turned off, the electrically-controlled light-passing device is in the light-transmitting state and is configured to allow the external light to be incident toward the first region; and when the electrically-controlled light-passing device is turned on, the electrically-controlled light-passing device is in the light-shielding state and is configured to block the external light from being incident toward the first region.
A frangible guy wire of an airport mast, which breaks on impact without presenting a hazard or causing critical damage to an aircraft impacting with it, characterised in that the main part of the length of the guy wire (2, 3) consists of tubes made of composite material or tubular profiles made of composite material, and that the proportions of the dimensions and the materials of the tubes or tubular profiles have been selected in such a way that in the event of said impact, the tubes or tubular profiles will break by shattering, that is, by breaking into pieces.
A method, comprising: providing, by a buck-type switched-mode power supply, a supply voltage to a radio frequency power amplifier (4,5), characterized by configuring the buck-type switched-mode power supply to operate in one of at least two section modes, wherein the buck-type switched-mode power supply comprises sectioned transistor switches, wherein the sectioned transistor switches comprise at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2), wherein the at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2) are selectable such that the respective effective width of the sectioned transistor switches is different in a first section mode of the at least two section modes than in a second section mode of the at least two section modes. providing, by a buck-type switched-mode power supply, a supply voltage to a radio frequency power amplifier (4,5), characterized by configuring the buck-type switched-mode power supply to operate in one of at least two section modes, wherein the buck-type switched-mode power supply comprises sectioned transistor switches, wherein the sectioned transistor switches comprise at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2), wherein the at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2) are selectable such that the respective effective width of the sectioned transistor switches is different in a first section mode of the at least two section modes than in a second section mode of the at least two section modes.
A method for transmitting remote user equipment, UE, related information or relay UE related information in a wireless communication system including a base station, BS, a relay UE, and a remote UE, the method performed by the relay UE and comprising: receiving, from the remote UE, the remote UE related information via a sidelink communication; and transmitting, to the BS, the remote UE related information or the relay UE related information based on comparing a priority of the remote UE related information and a priority of the relay UE related information after receiving the remote UE related information, wherein the relay UE performs a transmission by applying different physical channel parameters based on the priority of the remote UE related information and the priority of the relay UE related information, and wherein, based on the remote UE related information being wide area network, WAN, communication related control information or WAN communication related feedback information and the relay UE related information being WAN communication related data information, the priority of the remote UE related information is higher than the priority of the relay UE related information and the relay UE transmits accordingly the WAN communication related control information of the remote UE or the WAN communication related feedback information of the remote UE to the BS. receiving, from the remote UE, the remote UE related information via a sidelink communication; and transmitting, to the BS, the remote UE related information or the relay UE related information based on comparing a priority of the remote UE related information and a priority of the relay UE related information after receiving the remote UE related information, wherein the relay UE performs a transmission by applying different physical channel parameters based on the priority of the remote UE related information and the priority of the relay UE related information, and wherein, based on the remote UE related information being wide area network, WAN, communication related control information or WAN communication related feedback information and the relay UE related information being WAN communication related data information, the priority of the remote UE related information is higher than the priority of the relay UE related information and the relay UE transmits accordingly the WAN communication related control information of the remote UE or the WAN communication related feedback information of the remote UE to the BS.
A scheduler apparatus comprising: a calculation unit configured to derive, for each second orbiting satellite candidate (400-2 to 400-M) of a plurality of second orbiting satellite candidates (400-2 to 400-M), a switching timing at which an earth station switches a directed satellite from a first orbiting satellite to the second orbiting satellite candidate (400-2 to 400-M) on a basis of a time required for switching from the first orbiting satellite to the second orbiting satellite candidate (400-2 to 400-M), a future expected throughput between the earth station and the first orbiting satellite, and a future expected throughput between the earth station and the second orbiting satellite candidate (400-2 to 400-M), and determine a second orbiting satellite on a basis of the switching timing and a maximum throughput between the earth station and each second orbiting satellite candidate (400-2 to 400-M), wherein the first orbiting satellite is an orbiting satellite to which the earth station is currently directed, and each second orbiting satellite candidate is an orbiting satellite which is a candidate for the second orbiting satellite that is an orbiting satellite to which an earth station is directed next; and an interface configured to transmit information on the second orbiting satellite determined by the calculation unit and the switching timing derived by the calculation unit corresponding to the second orbiting satellite to the earth station. a calculation unit configured to derive, for each second orbiting satellite candidate (400-2 to 400-M) of a plurality of second orbiting satellite candidates (400-2 to 400-M), a switching timing at which an earth station switches a directed satellite from a first orbiting satellite to the second orbiting satellite candidate (400-2 to 400-M) on a basis of a time required for switching from the first orbiting satellite to the second orbiting satellite candidate (400-2 to 400-M), a future expected throughput between the earth station and the first orbiting satellite, and a future expected throughput between the earth station and the second orbiting satellite candidate (400-2 to 400-M), and determine a second orbiting satellite on a basis of the switching timing and a maximum throughput between the earth station and each second orbiting satellite candidate (400-2 to 400-M), wherein the first orbiting satellite is an orbiting satellite to which the earth station is currently directed, and each second orbiting satellite candidate is an orbiting satellite which is a candidate for the second orbiting satellite that is an orbiting satellite to which an earth station is directed next; and an interface configured to transmit information on the second orbiting satellite determined by the calculation unit and the switching timing derived by the calculation unit corresponding to the second orbiting satellite to the earth station.
A system for controlling flow rate in an Ethernet Passive Optic Network, said system comprising: an optical line terminal, OLT,; at least one optical network unit, ONU, (400, 800) coupled to the OLT via a passive optical splitter, wherein the ONU (400, 800) comprises one or more queues (402, 812-822) corresponding to one or more classes of services, and wherein each ONU (400, 800) comprise one or more ports; a switch (216, 300, 406) coupled to a port located on the ONU (400, 800), wherein the switch (216, 300, 406) comprises a plurality of user-to-network interface, UNI, ports (218, 302, 318, 320, 802, 804), and wherein the switch (216, 300, 406) is configured to switch one or more upstream traffic flows belonging to the one or more classes of services from the plurality of UNI ports (218, 302, 318, 320, 802, 804); characterized by a flow control mechanism configured to monitor a queue status of each of the one or more queues (402, 812-822); wherein the flow control mechanism is further configured to set a flow rate of an upstream traffic flow originated from one of the plurality of the UNI ports (218, 302, 318, 320, 802, 804) on the switch (216, 300, 406), wherein the upstream traffic flow belongs to one of the one or more classes of services, and the flow rate is set based on the status of one of the one or more queues (402, 812-822) corresponding to the one of the one or more classes of services of the upstream traffic flow. an optical line terminal, OLT,; at least one optical network unit, ONU, (400, 800) coupled to the OLT via a passive optical splitter, wherein the ONU (400, 800) comprises one or more queues (402, 812-822) corresponding to one or more classes of services, and wherein each ONU (400, 800) comprise one or more ports; a switch (216, 300, 406) coupled to a port located on the ONU (400, 800), wherein the switch (216, 300, 406) comprises a plurality of user-to-network interface, UNI, ports (218, 302, 318, 320, 802, 804), and wherein the switch (216, 300, 406) is configured to switch one or more upstream traffic flows belonging to the one or more classes of services from the plurality of UNI ports (218, 302, 318, 320, 802, 804); characterized by a flow control mechanism configured to monitor a queue status of each of the one or more queues (402, 812-822); wherein the flow control mechanism is further configured to set a flow rate of an upstream traffic flow originated from one of the plurality of the UNI ports (218, 302, 318, 320, 802, 804) on the switch (216, 300, 406), wherein the upstream traffic flow belongs to one of the one or more classes of services, and the flow rate is set based on the status of one of the one or more queues (402, 812-822) corresponding to the one of the one or more classes of services of the upstream traffic flow.
A computer-implemented method comprising receiving, by one or more computing devices (12, 14, 16), a plurality of media items from a communication system, the plurality of media items including at least audio media items corresponding to respective audio transmissions by one or more users (32, 34, 36) associated with a channel of the communication system and visual media items; providing, by a communication process executed by the one or more computing devices, a user interface including an audio track display comprising a time-wise sequence display of the audio media items including individual audio segments arranged based upon a time each audio segment was created, and a visual track display comprising a time-wise sequence display of the visual media items including individual visual media items arranged based upon a time each visual media item was created; a user traversing the audio track display to access, by the one or more computing devices, audio segments that occurred later in time and/or earlier in time with respect to one or more currently displayed audio segments, wherein in response the communication process sequences the display of the visual media items based on the display of the audio segments to display a visual media item having a creation time at least generally corresponding to a creation time of the accessed audio segment; and the user traversing the visual track display to access, by the one or more computing devices, visual media items that occurred later in time and/or earlier in time with respect to one or more currently displayed visual media items, wherein in response the communication process sequences the display of the visual media items independently of the display of audio segments without correspondingly sequencing the display of audio segments within the user interface.
A glare shield adapted to be mounted in a cockpit, the glare shield being equipped with an emergency vision apparatus and comprising: a) a compartment recessed into the glare shield; b) a blower within the compartment; c) an inflatable first enclosure made of airtight material and having an expanded form when deployed and a deflated form when not in use; d) first and second clear members (12, 14) disposed at respective first and second ends of the enclosure to enable a user to see through the first enclosure when expanded and observe a source of information at a distal end of the first enclosure while smoke or other particulate matter is in the environment; e) a switch operably associated with the blower to activate the blower and thereby inflate the first enclosure to the expanded form when the first enclosure is to be deployed; f) a tubular air passageway connecting the blower and the first enclosure; g) the tubular passageway comprises first and second sections; h) the first section includes a first end connected to the blower and a second end terminated outside of the compartment; and i) the second section includes a third end for connecting to the second end and a fourth end connected to the first enclosure. a) a compartment recessed into the glare shield; b) a blower within the compartment; c) an inflatable first enclosure made of airtight material and having an expanded form when deployed and a deflated form when not in use; d) first and second clear members (12, 14) disposed at respective first and second ends of the enclosure to enable a user to see through the first enclosure when expanded and observe a source of information at a distal end of the first enclosure while smoke or other particulate matter is in the environment; e) a switch operably associated with the blower to activate the blower and thereby inflate the first enclosure to the expanded form when the first enclosure is to be deployed; f) a tubular air passageway connecting the blower and the first enclosure; g) the tubular passageway comprises first and second sections; h) the first section includes a first end connected to the blower and a second end terminated outside of the compartment; and i) the second section includes a third end for connecting to the second end and a fourth end connected to the first enclosure.
A transformable robot, comprising an arm structure, a leg structure and a head of the robot fixed to a ribcage structure, wherein the arm structure comprises a left arm and a right arm; the leg structure comprises a left leg and a right leg; the left leg and the right leg being a first mutually mirror structure are symmetrically provided on both sides of a lower part of the ribcage structure; the left arm and the right arm being a second mutually mirror structure are symmetrically provided on both sides of an upper part of the ribcage structure; characterised in that the ribcage structure comprises a first steering gear fixed on an upper part of a second fixing frame; a rotating output shaft of the first steering gear successively passes through a top wall of the second fixing frame and a first backing plate to be fixedly connected to a first steering wheel fixed on a first rotating frame; the first steering wheel is provided with an arc-shaped limited opening; a limited column on the first backing plate is movable and passes through the arc-shaped limited opening; and the rotating output shaft of the first steering gear rotates to drive the first rotating frame to rotate.
A compound capable of inhibiting the visual cycle in an individual for use in prevention or treatment of pre-proliferative diabetic retinopathy or macular edema, in a mammal, wherein the compound comprises a retinoid of the formula V: wherein R1, R4, R9, R10, and R12 is CH 3, and R3, R5, R6, R7, and R8 is H, and wherein R11 is selected from the group consisting of - COOH, - an alcohol group, such as -CH 2 OH - an aldehyde group, such as -CHO - CH 2 OCOCH 2 Br, - CH 2 OCOCH 2 Cl, - COOCH 2 CH 3, - CONHR', wherein R' is 4-hydroxy-phenyl or ethyl, and - COOR", wherein R" is beta-D-glucuronide, and wherein the configuration of the four isoprenoid units is all trans or one or more is cis with the proviso that when R11 is -COOH, the configuration is not 9 cis (2E, 4E, 6Z 8E) or all trans. - COOH, - an alcohol group, such as -CH 2 OH - an aldehyde group, such as -CHO - CH 2 OCOCH 2 Br, - CH 2 OCOCH 2 Cl, - COOCH 2 CH 3, - CONHR', wherein R' is 4-hydroxy-phenyl or ethyl, and - COOR", wherein R" is beta-D-glucuronide, and
A detection and imaging method for a specific biological substance on a tissue section or a fixed cell section, using, as a color former, fluorescent substance-encapsulated nanoparticles to whose particle surfaces biological substance-recognizing molecules that specifically recognize a specific biological substance have been bonded, and whose matrix is composed of melamine, wherein nanoparticles, whose matrix is composed of melamine, and encapsulating no fluorescent substance are used as a blocking agent for preventing the fluorescent substance-encapsulated nanoparticles from being non-specifically adsorbed on a biological substance other than the specific biological substance.