mhurhangee/patent-ind-claim-en huggingface dataset:
Timepiece movement plate, comprising a first transparent or translucid outer part having a central opening (1.2) and a second central part made of an opaque material and arranged to support all the members, elements, bridges, going trains and mobiles of the timepiece movement; the first outer part having at least one recess (1.4) housing, or allowing the passage of, a portion of some of said components of the timepiece movement; wherein at least a portion of the outer periphery (2.1) of the second central part has a shape and dimensions corresponding to the shape and dimensions of the inner periphery (1.3) of the central opening (1.2) of the first outer part ; and wherein the second central part is located in the central opening (1.2) of the first outer part , these two parts being fixedly attached to each other and, once assembled, being irremovable.
A solid matrix sustained release ophthalmic formulation for topical delivery of nepafenac, comprising: about 15 to about 25% (w/w) of polycaprolactone, about 5 to about 15% (w/w) of polyethylene glycol (PEG) polymers, about 1 to about 15% w/w of tyloxapol and about 60 to about 70% (w/w) of nepafenac. about 15 to about 25% (w/w) of polycaprolactone, about 5 to about 15% (w/w) of polyethylene glycol (PEG) polymers, about 1 to about 15% w/w of tyloxapol and about 60 to about 70% (w/w) of nepafenac.
A method for providing a Moving Pictures Experts Group, MPEG, Media Transport, MMT, media content, the method comprising: receiving , by an MMT aware network entity, MANE , an MMT media content and a signaling message related to the MMT media content from an MMT sending entity , the signaling message including a flag indicating that particular media data in the MMT media content is replaced or modified or changed[claim 2]; receiving , by the MANE , a modification request message to request to modify particular media data of at least part of the MMT media content, the modification request message including at least one of information related to the particular media data to be modified and change type information of the particular media data [claim 7]; updating , by the MANE , the information related to the particular media data in the signaling message based on the modification request message; and transmitting, by the MANE, the updated signaling message to an MMT receiving entity . receiving , by an MMT aware network entity, MANE , an MMT media content and a signaling message related to the MMT media content from an MMT sending entity , the signaling message including a flag indicating that particular media data in the MMT media content is replaced or modified or changed[claim 2]; receiving , by the MANE , a modification request message to request to modify particular media data of at least part of the MMT media content, the modification request message including at least one of information related to the particular media data to be modified and change type information of the particular media data [claim 7]; updating , by the MANE , the information related to the particular media data in the signaling message based on the modification request message; and transmitting, by the MANE, the updated signaling message to an MMT receiving entity .
A sensor (10A-D) for detecting an emission amount of particle matter in exhaust gas, comprising: a collection part in which a plurality of filter members (31L-S), which are for collecting particulate matter in exhaust gas and have at least one of different porosities and different average pore sizes from each other, are arranged in descending order of the porosity or the average pore size from an exhaust upstream side to an exhaust downstream side of the exhaust gas; a plurality of pairs of electrodes (32L-S, 33L-S), each pair of the plurality of pairs of electrodes being arranged to a respective one of the plurality of filter members, and the two electrodes of each pair facing each other such that each respective one of the plurality of filter members is interposed between a pair of electrodes of the plurality of pairs of electrodes; and estimation means (42-44) for estimating a particulate matter amount collected on each of the plurality of filter members having the at least one of the different porosities and the different average pore sizes from each other based on a capacitance change amount between each of the plurality of pairs of electrodes. a collection part in which a plurality of filter members (31L-S), which are for collecting particulate matter in exhaust gas and have at least one of different porosities and different average pore sizes from each other, are arranged in descending order of the porosity or the average pore size from an exhaust upstream side to an exhaust downstream side of the exhaust gas; a plurality of pairs of electrodes (32L-S, 33L-S), each pair of the plurality of pairs of electrodes being arranged to a respective one of the plurality of filter members, and the two electrodes of each pair facing each other such that each respective one of the plurality of filter members is interposed between a pair of electrodes of the plurality of pairs of electrodes; and estimation means (42-44) for estimating a particulate matter amount collected on each of the plurality of filter members having the at least one of the different porosities and the different average pore sizes from each other based on a capacitance change amount between each of the plurality of pairs of electrodes.
A photoelectron spectroscopy system comprising: a chamber wall enclosing a chamber ; a substrate support positioned within the chamber and configured to support a semiconductor substrate ; an electromagnetic radiation source configured to emit an electromagnetic radiation beam onto the substrate on the substrate support , the electromagnetic radiation beam causing photoelectrons to be emitted from the substrate ; a viewing subsystem comprising an illuminator , a reflective subsystem and a camera , the viewing subsystem configured to generate and reflect optical light incident to a portion of the substrate and to reflect and collect visible light that is incident from the portion of the substrate and capture an image of the portion of the substrate ; a computer control console connected to the viewing subsystem , wherein the control unit and the viewing subsystem are configured to move the semiconductor substrate, and then the radiation beam is shaped to position an X-ray beam over a predetermined location on the semiconductor substrate; an analyzer configured to capture the photoelectrons emitted from the material on the substrate ; and a magnetic field generator configured to generate a magnetic field within the chamber and guide the photoelectrons from the substrate to the analyzer wherein the analyzer and the magnetic field generator are positioned on opposing sides of the substrate support . a chamber wall enclosing a chamber ; a substrate support positioned within the chamber and configured to support a semiconductor substrate ; an electromagnetic radiation source configured to emit an electromagnetic radiation beam onto the substrate on the substrate support , the electromagnetic radiation beam causing photoelectrons to be emitted from the substrate ; a viewing subsystem comprising an illuminator , a reflective subsystem and a camera , the viewing subsystem configured to generate and reflect optical light incident to a portion of the substrate and to reflect and collect visible light that is incident from the portion of the substrate and capture an image of the portion of the substrate ; a computer control console connected to the viewing subsystem , wherein the control unit and the viewing subsystem are configured to move the semiconductor substrate, and then the radiation beam is shaped to position an X-ray beam over a predetermined location on the semiconductor substrate; an analyzer configured to capture the photoelectrons emitted from the material on the substrate ; and a magnetic field generator configured to generate a magnetic field within the chamber and guide the photoelectrons from the substrate to the analyzer wherein the analyzer and the magnetic field generator are positioned on opposing sides of the substrate support .
A visual first opening indicator for visually indicating whether a container has been opened, the container having a bottle and a lid attached thereto for repeated closing and opening of the container , the visual first opening indicator comprising an inner ring and an outer ring , wherein the inner ring is received within the outer ring , the inner ring being rotatable relative to the outer ring , wherein the outer ring comprises an indication window which, in an activated state, shows a part of the inner ring after a first opening of the container and which in a storage state shows one of a different part of the inner ring , and no part of the inner ring .
A system for stabilizing a core meltdown in a nuclear power plant , comprising: - a reactor pressure vessel that contains a reactor core , - a containment vessel that defines a chamber that is located underneath the reactor pressure vessel , - a coolant supply device that is configured to bring coolant into the chamber if a core meltdown is detected, - an absorbent material that is adapted to absorb the coolant brought into the chamber , characterized in that the absorbent material is adapted to expand upon absorption of coolant . - a reactor pressure vessel that contains a reactor core , - a containment vessel that defines a chamber that is located underneath the reactor pressure vessel , - a coolant supply device that is configured to bring coolant into the chamber if a core meltdown is detected, - an absorbent material that is adapted to absorb the coolant brought into the chamber ,
A tracking area update, TAU, method based on a mobile integrated access and backhaul, IAB, node, wherein the method is performed by the mobile IAB node, the method comprising: receiving first tracking area code, TAC, list information from a donor IAB node ; initiating a TAU procedure in a case that a new tracking area identity TAI is discovered by the mobile IAB node based on the first TAC list information , wherein, initiating by the mobile IAB node the TAU procedure, causes a first access and mobility management function, AMF, to update location information of a terminal device, and the terminal device resides in a cell provided by the mobile IAB node; and sending second TAC list information to the donor IAB node, wherein the second TAC list information is used for being broadcast, the second TAC list information is further used for being added into the first TAC list information. receiving first tracking area code, TAC, list information from a donor IAB node ; initiating a TAU procedure in a case that a new tracking area identity TAI is discovered by the mobile IAB node based on the first TAC list information , wherein, initiating by the mobile IAB node the TAU procedure, causes a first access and mobility management function, AMF, to update location information of a terminal device, and the terminal device resides in a cell provided by the mobile IAB node; and sending second TAC list information to the donor IAB node, wherein the second TAC list information is used for being broadcast, the second TAC list information is further used for being added into the first TAC list information.
An autoinjector comprising a liquid container , an injector , an injection contact portion , a processor and an electronic sensor adjacent the injection contact portion for detecting skin, the injector is arranged to inject liquid from the liquid container into a patient at the injection contact portion , the electronic sensor comprising a processor , an EM source is configured to project a fine point of IR light onto the skin of a patient, a baffle , a first EM detector and a second EM detector , the sensor being arranged such that the EM source is located on a first side of the baffle and the first and second EM detectors are arranged on a second, opposite, side of the baffle at first and second distances from the EM source respectively, the first distance being less than the second distance, wherein the processor is configured to cause the source to emit EM radiation and to receive first and second signals from the first and second EM detectors respectively, the signals being indicative of the intensity of EM radiation detected by the sensor at a surface of the skin, the processor being further configured to process the first and second signals wherein the first signal is input to a logic gate and is compared against a first threshold, and if greater, a positive signal is passed to the logic gate; said first signal is divided by said second signal, and compared to a second threshold, and if greater a positive signal is passed to the logic gate; a rate of change of each of said first and second signals with respect to time is obtained and compared to a third and a fourth threshold respectively, and a positive signal is passed to the logic gate if the rate of change of said first and second signals is below said third and fourth thresholds, and wherein if the logic gate receives a summation of all four positive signals generates a positive skin detection signal, and wherein the autoinjector is configured to use the injector to inject the liquid from the container into a patient only when a positive skin signal has been received from the sensor .
A method implemented by a wireless transmit/receive unit, WTRU, comprising: receiving, by the WTRU in downlink control information, DCl, scheduling for a PDSCH and information indicating two or more patterns of time/frequency interference measurement resource elements, REs, associated with a physical downlink shared channel, PDSCH, transmission, wherein the associated time/frequency interference measurement REs contain no PDSCH data and the two or more patterns of time/frequency interference measurement REs associated with the PDSCH are orthogonal in frequency; determining, by the WTRU, positions in time and frequency of the time/frequency interference measurement REs of the two or more patterns of time/frequency interference measurement REs indicated by the information in the DCl; receiving the PDSCH transmission; and decoding the PDSCH transmission, wherein the receiving of the PDSCH transmission includes at least one of: rate-matching the PDSCH around the determined positions in time and frequency of the time/frequency interference measurement REs, excluding the time/frequency interference measurement REs of the two or more patterns from the reception of the PDSCH, or de-mapping the PDSCH to generate modulation symbols excluding the time/frequency interference measurement REs of the two or more patterns. receiving, by the WTRU in downlink control information, DCl, scheduling for a PDSCH and information indicating two or more patterns of time/frequency interference measurement resource elements, REs, associated with a physical downlink shared channel, PDSCH, transmission, wherein the associated time/frequency interference measurement REs contain no PDSCH data and the two or more patterns of time/frequency interference measurement REs associated with the PDSCH are orthogonal in frequency; determining, by the WTRU, positions in time and frequency of the time/frequency interference measurement REs of the two or more patterns of time/frequency interference measurement REs indicated by the information in the DCl; receiving the PDSCH transmission; and decoding the PDSCH transmission, wherein the receiving of the PDSCH transmission includes at least one of: rate-matching the PDSCH around the determined positions in time and frequency of the time/frequency interference measurement REs, excluding the time/frequency interference measurement REs of the two or more patterns from the reception of the PDSCH, or de-mapping the PDSCH to generate modulation symbols excluding the time/frequency interference measurement REs of the two or more patterns.
A method of a first base station, the method comprising: receiving , from a second base station, information on a first available buffer of the second base station for an evolved universal terrestrial radio access network, E-UTRAN , enhanced radio access bearer, E-RAB, established on the second base station, information on a second available buffer of the second base station for a terminal , which is connected with the first base station and the second base station, and an uplink data packet, via a data tunnel in a user data bearer corresponding to the E-RAB on an X2 interface between the first base station and the second base station; and adjusting an amount of data to be assigned to the second base station according to the information on the first available buffer and the information on the second available buffer. receiving , from a second base station, information on a first available buffer of the second base station for an evolved universal terrestrial radio access network, E-UTRAN , enhanced radio access bearer, E-RAB, established on the second base station, information on a second available buffer of the second base station for a terminal , which is connected with the first base station and the second base station, and an uplink data packet, via a data tunnel in a user data bearer corresponding to the E-RAB on an X2 interface between the first base station and the second base station; and adjusting an amount of data to be assigned to the second base station according to the information on the first available buffer and the information on the second available buffer.
A modified capsid protein comprising a portion of hepatitis E virus (HEV) open Reading Frame 2 (ORF2) protein that is able to form an acid and proteolytically stable HEV virus like particle (VLP), wherein: the portion of HEV ORF2 comprises the 452-606 segment of the HEV ORF2 protein of SEQ ID NO: 1, 2, 3, 4, 5, or 6, wherein at least one residue Y485, T489, S533, N573, or T586 of the HEV ORF2 protein set forth in SEQ ID NO: 1 or at least one of the corresponding residues of SEQ ID NO: 2, 3, 4, 5, or 6 is replaced with a cysteine, which cysteine is optionally chemically derivatized.
An industrial two-layer fabric comprising: an upper layer fabric including upper side warps and upper side wefts; and a lower layer fabric including lower side warps and lower side wefts, the upper layer fabric and the lower layer fabric being bound by warps that function as binding yarns, warp knuckles (●x) being formed on a surface side, each warp knuckle being formed by allowing a warp (Ub; U) to pass over a single upper side weft ('U), characterized in that the warp knuckles (●x) being sequentially arranged in such a way as to form a herringbone zigzag pattern on a surface layer side of the fabric, wherein in shafts adjacent to the warp knuckle (●x), at least two other warp knuckles (●x) being arranged in diagonal directions in a planar view. an upper layer fabric including upper side warps and upper side wefts; and a lower layer fabric including lower side warps and lower side wefts, the upper layer fabric and the lower layer fabric being bound by warps that function as binding yarns, warp knuckles (●x) being formed on a surface side, each warp knuckle being formed by allowing a warp (Ub; U) to pass over a single upper side weft ('U), characterized in that the warp knuckles (●x) being sequentially arranged in such a way as to form a herringbone zigzag pattern on a surface layer side of the fabric, wherein in shafts adjacent to the warp knuckle (●x), at least two other warp knuckles (●x) being arranged in diagonal directions in a planar view.
A bimodal lithium transition metal oxide based powder mixture for a rechargeable battery, comprising: - a first lithium transition metal oxide based powder, comprising particles of a material A having a layered crystal structure, wherein the particles of material A have a general formula Li 1+a Co 1-m M' m O 2 , with -0.05≤a≤0.05 and 0≤m≤0.05, wherein M' is either one or more metals of the group consisting of Al, Ca, Si, Ga, B, Ti, Mg, W, Zr, Cr and V, the first powder having a particle size distribution, measured by laser diffraction, characterized by a (D90-D10)/D50 <1.0; and - a second lithium transition metal oxide based powder, comprising a material B having single crystal particles, said particles having a general formula Li 1+b N' 1-b O 2 , wherein -0.03≤b≤0.10, and N'=Ni x M" y Co z E d , wherein 0.30≤x≤0.92 0.05≤y≤0.40, 0.05≤z≤0.40 and 0≤d≤0.10, with M" being either one or both of Mn or Al, and with E being a dopant different from M", the first powder having an average particle size D50 between 10 and 40 μm, the second powder having an average particle size D50 between 2 and 4 μm; and wherein the weight ratio of the second powder in the bimodal mixture is between 15 and 25 wt%, wherein E is either one of more elements of the group consisting of Al, Ca, Si, Ga, B, Ti, Mg, W, Zr, Cr, V, S, F or N. - a first lithium transition metal oxide based powder, comprising particles of a material A having a layered crystal structure, wherein the particles of material A have a general formula Li 1+a Co 1-m M' m O 2 , with -0.05≤a≤0.05 and 0≤m≤0.05, wherein M' is either one or more metals of the group consisting of Al, Ca, Si, Ga, B, Ti, Mg, W, Zr, Cr and V, the first powder having a particle size distribution, measured by laser diffraction, characterized by a (D90-D10)/D50 <1.0; and - a second lithium transition metal oxide based powder, comprising a material B having single crystal particles, said particles having a general formula Li 1+b N' 1-b O 2 , wherein -0.03≤b≤0.10, and N'=Ni x M" y Co z E d , wherein 0.30≤x≤0.92 0.05≤y≤0.40, 0.05≤z≤0.40 and 0≤d≤0.10, with M" being either one or both of Mn or Al, and with E being a dopant different from M", the first powder having an average particle size D50 between 10 and 40 μm, the second powder having an average particle size D50 between 2 and 4 μm; and wherein the weight ratio of the second powder in the bimodal mixture is between 15 and 25 wt%, - a second lithium transition metal oxide based powder, comprising a material B having single crystal particles, said particles having a general formula Li 1+b N' 1-b O 2 , wherein -0.03≤b≤0.10, and N'=Ni x M" y Co z E d , wherein 0.30≤x≤0.92 0.05≤y≤0.40, 0.05≤z≤0.40 and 0≤d≤0.10, with M" being either one or both of Mn or Al, and with E being a dopant different from M", the first powder having an average particle size D50 between 10 and 40 μm, the second powder having an average particle size D50 between 2 and 4 μm; and wherein the weight ratio of the second powder in the bimodal mixture is between 15 and 25 wt%, wherein E is either one of more elements of the group consisting of Al, Ca, Si, Ga, B, Ti, Mg, W, Zr, Cr, V, S, F or N.