mhurhangee/ep-ind-claims huggingface dataset:
An optical scanning device comprising: a first waveguide that propagates light in a waveguide direction by total reflection; and a second waveguide, wherein the second waveguide includes: a first multilayer reflective film; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film, wherein the first optical waveguide layer has a variable thickness and/or a variable refractive index for the light and propagates the light transmitted through the first waveguide, wherein the first multilayer reflective film has a higher light transmittance than the second multilayer reflective film and allows part of the light propagating through the first optical waveguide layer to be emitted to the outside of the second waveguide, wherein the thickness of the first optical waveguide layer and/or the refractive index thereof for the light is changed to thereby change the direction of the part of the light emitted from the second waveguide, and wherein the optical scanning device is configured such that the propagating light in the first waveguide has a reflection angle that is greater than a critical angle of the total reflection. a first waveguide that propagates light in a waveguide direction by total reflection; and a second waveguide, wherein the second waveguide includes: a first multilayer reflective film; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film, a first multilayer reflective film; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film, wherein the first optical waveguide layer has a variable thickness and/or a variable refractive index for the light and propagates the light transmitted through the first waveguide, wherein the first multilayer reflective film has a higher light transmittance than the second multilayer reflective film and allows part of the light propagating through the first optical waveguide layer to be emitted to the outside of the second waveguide, wherein the thickness of the first optical waveguide layer and/or the refractive index thereof for the light is changed to thereby change the direction of the part of the light emitted from the second waveguide, and wherein the optical scanning device is configured such that the propagating light in the first waveguide has a reflection angle that is greater than a critical angle of the total reflection.
A base for a parallel kinematics robot, the base comprising: a plurality of gear cavities, each gear cavity comprising a first bearing seat configured to receive an output shaft bearing, characterized in that the base consists of one piece in homogeneous material. a plurality of gear cavities, each gear cavity comprising a first bearing seat configured to receive an output shaft bearing, characterized in that the base consists of one piece in homogeneous material.
A device for indicating parking space occupancy status that comprises detection means of the occupancy of the parking space, signaling means of the occupancy status of the parking space and illumination means of the parking space, characterized in that the illumination means generate a beam of light whose luminous flux is greater on its periphery than along its axis, allowing the peripheral zone of the parking space to be illuminated with greater intensity.
A composition for use in treating, ameliorating, or curing a condition or disease of lower intestinal tract tissue of a vertebrate, or damage to said tissue, said composition comprising an extracellular matrix graft or scaffold derived from small intestinal submucosa for delivering or stimulating migration of stem cells or progenitor cells to the diseased or damaged tissue, to promote reconstructive tissue remodeling of the diseased or damaged tissue to effect the treatment, amelioration, or cure of the diseased or damaged tissue without colectomy.
A method for use in a wireless transmit/receive unit, WTRU, for capillary network device registration and triggering, the method comprising: receiving, by the WTRU, a first registration message from the capillary network device, wherein the WTRU acts as a gateway for communication between the capillary network device and a wireless communication network; assigning, by the WTRU, a capillary network device identifier, CNDID to the capillary network device; transmitting, by the WTRU, to the capillary network device, one or more fields of the assigned capillary network device identifier, CNDID; establishing a connection with the wireless communication network; transmitting, by the WTRU, a second registration message associated with the capillary network device to a machine type communications, MTC, server via a cellular radio access network, RAN, of the wireless communication network, wherein the second registration message includes the CNDID of the capillary network device; and wherein the method is characterized by the steps of receiving, by the WTRU, a first trigger message including an application identifier, ID, that identifies an application on the capillary network device from a machine type communications-interworking function, MTC-IWF, via the cellular RAN; and transmitting, by the WTRU, a second trigger message to the capillary network device associated with the application ID, and wherein the WTRU maintains a mapping between application IDs and CNDIDs. receiving, by the WTRU, a first registration message from the capillary network device, wherein the WTRU acts as a gateway for communication between the capillary network device and a wireless communication network; assigning, by the WTRU, a capillary network device identifier, CNDID to the capillary network device; transmitting, by the WTRU, to the capillary network device, one or more fields of the assigned capillary network device identifier, CNDID; establishing a connection with the wireless communication network; transmitting, by the WTRU, a second registration message associated with the capillary network device to a machine type communications, MTC, server via a cellular radio access network, RAN, of the wireless communication network, wherein the second registration message includes the CNDID of the capillary network device; and wherein the method is characterized by the steps of receiving, by the WTRU, a first trigger message including an application identifier, ID, that identifies an application on the capillary network device from a machine type communications-interworking function, MTC-IWF, via the cellular RAN; and transmitting, by the WTRU, a second trigger message to the capillary network device associated with the application ID, and wherein the WTRU maintains a mapping between application IDs and CNDIDs.
Tyre with a tread, characterized in that the said tread comprises a felt impregnated with an elastomer material based on at least one thermoplastic elastomer, the said thermoplastic elastomer being a block copolymer comprising at least one elastomer block and at least one thermoplastic block, and in that the fibres of the said felt are selected from the group of textile fibres, inorganic fibres and their mixtures.
A first apparatus for wireless communication, comprising: a processing system configured to: generate a request for a second apparatus to store first header information, wherein the request comprises the first header information; receive a response from the second apparatus; decode the response from the second apparatus to determine whether the second apparatus will store the first header information; and generate a first header, the first header being generated without the first header information therein if the second apparatus will store the first header information; and an interface for outputting the request and the first header for transmission to the second apparatus; wherein the first header information of the request comprises at least one of a first field or a second field and wherein the at least one of the first field or the second field comprises a source address or a destination address associated with the first header, and wherein the request further comprises at least one of a store first field indication or a store second field indication, wherein the store first field indication is set to 1 to request the second apparatus to store the first field and wherein the store second field indication is set to 1 to request the second apparatus to store the second field. a processing system configured to: generate a request for a second apparatus to store first header information, wherein the request comprises the first header information; receive a response from the second apparatus; decode the response from the second apparatus to determine whether the second apparatus will store the first header information; and generate a first header, the first header being generated without the first header information therein if the second apparatus will store the first header information; and generate a request for a second apparatus to store first header information, wherein the request comprises the first header information; receive a response from the second apparatus; decode the response from the second apparatus to determine whether the second apparatus will store the first header information; and generate a first header, the first header being generated without the first header information therein if the second apparatus will store the first header information; and an interface for outputting the request and the first header for transmission to the second apparatus; wherein the first header information of the request comprises at least one of a first field or a second field and wherein the at least one of the first field or the second field comprises a source address or a destination address associated with the first header, and wherein the request further comprises at least one of a store first field indication or a store second field indication, wherein the store first field indication is set to 1 to request the second apparatus to store the first field and wherein the store second field indication is set to 1 to request the second apparatus to store the second field.
A method performed by a multi-cell/multicast coordination entity, MCE, in a wireless communication system, the method comprising: receiving information on resource allocation for a downlink, DL, vehicle-to-everything, V2X, message from a V2X application server, wherein the information on resource allocation is determined by the V2X application server based on an uplink, UL, V2X message, which is transmitted from a vehicle user equipment, UE, or a road side unit, RSU, UE; allocating resources for the DL V2X message based on the received information on resource allocation; characterised in that said method further comprises: transmitting a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively. receiving information on resource allocation for a downlink, DL, vehicle-to-everything, V2X, message from a V2X application server, wherein the information on resource allocation is determined by the V2X application server based on an uplink, UL, V2X message, which is transmitted from a vehicle user equipment, UE, or a road side unit, RSU, UE; allocating resources for the DL V2X message based on the received information on resource allocation; characterised in that said method further comprises: transmitting a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively. transmitting a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively.
A microcontroller, comprising: an external connection configured to receive a voltage; a voltage-to-current converter (306; 406; 506) having an input coupled to the external connection and adapted to convert the voltage to a current, wherein an output of the voltage-to-current converter (306; 406; 506) is coupled to a first terminal of a sample capacitor (314; 414), whose second terminal is coupled with a reference potential and the current therefrom charges the sample capacitor (314; 414) to a sample voltage during a measurement time period; an analog-to-digital converter, ADC, configured to be coupled to the first terminal of the sample capacitor after the measurement time period is over, wherein the ADC converts the sample voltage on the sample capacitor (314; 414) to a digital representation thereof; and a sample voltage reset switch (310; 410) coupled to the sample capacitor (314; 414), wherein the sample voltage reset switch (310; 410) resets the sample capacitor (314; 414) to a substantially zero voltage after the ADC has sampled the sample voltage thereon. an external connection configured to receive a voltage; a voltage-to-current converter (306; 406; 506) having an input coupled to the external connection and adapted to convert the voltage to a current, wherein an output of the voltage-to-current converter (306; 406; 506) is coupled to a first terminal of a sample capacitor (314; 414), whose second terminal is coupled with a reference potential and the current therefrom charges the sample capacitor (314; 414) to a sample voltage during a measurement time period; an analog-to-digital converter, ADC, configured to be coupled to the first terminal of the sample capacitor after the measurement time period is over, wherein the ADC converts the sample voltage on the sample capacitor (314; 414) to a digital representation thereof; and a sample voltage reset switch (310; 410) coupled to the sample capacitor (314; 414), wherein the sample voltage reset switch (310; 410) resets the sample capacitor (314; 414) to a substantially zero voltage after the ADC has sampled the sample voltage thereon.
A holding fixture (1;2) for an aircraft panel, wherein the aircraft panel includes a plate-like member, has a curved shape with an arc length in a cross section taken in a direction perpendicular to an axial direction, and has edge portions on two opposite sides of the aircraft panel which extend parallel or oblique to the axial direction, the holding fixture (1;2) comprising: a frame member; a plurality of gripping units configured to grip the edge portions of the aircraft panel; and a support body integrally supporting the plurality of gripping units, wherein the holding fixture (1;2) is configured to be conveyable in a state of holding the aircraft panel, the support body includes first support members each one of which is provided corresponding to each of the two opposite sides of the aircraft panel along the axial direction, and the plurality of gripping units are supported by the first support members so as to be able to grip the aircraft panel at the edge portions, characterised in that a position at which each one of the first support members is fixed to the frame member is variable in a circumferential direction about the axial direction of the aircraft panel to conform to the shape of the aircraft panel with respect to different arc lengths thereof. a frame member; a plurality of gripping units configured to grip the edge portions of the aircraft panel; and a support body integrally supporting the plurality of gripping units, wherein the holding fixture (1;2) is configured to be conveyable in a state of holding the aircraft panel, the support body includes first support members each one of which is provided corresponding to each of the two opposite sides of the aircraft panel along the axial direction, and the plurality of gripping units are supported by the first support members so as to be able to grip the aircraft panel at the edge portions, characterised in that a position at which each one of the first support members is fixed to the frame member is variable in a circumferential direction about the axial direction of the aircraft panel to conform to the shape of the aircraft panel with respect to different arc lengths thereof.
A viral inactivated-plasma cryoprecipitate concentrate (VIPCC), optionally in combination with a cell composition comprising notochordal-derived cells, wherein the cryoprecipitate comprises an initial fibronectin:fibrinogen relative concentration of 1:10 to 1:5 for use in treating a spine disease, disorder or condition involving intervertebral disc degeneration and/or injury, with the proviso that bovine aprotinin and tranexamic acid are absent from the cryoprecipitate concentrate.
A method for producing (7Z,10Z)-7,10-hexadecadienal of Formula: comprising steps of: subjecting a Grignard reagent formed from a (6Z,9Z)-1-halo-6,9-pentadecadiene of Formula (1-6Z9Z): wherein X stands for a halogen atom, to a nucleophilic substitution reaction with an orthoformate ester of Formula: wherein R may be same with or different from each other and stands for an alkyl group having from 1 to 6 carbon atoms, to obtain a (7Z,10Z)-1,1-dialkoxy-7,10-hexadecadiene of Formula: wherein R may be same with or different from each other and stands for an alkyl group having from 1 to 6 carbon atoms; and hydrolyzing the (7Z,10Z)-1,1-dialkoxy-7,10-hexadecadiene to obtain the (7Z,10Z)-7,10-hexadecadienal. subjecting a Grignard reagent formed from a (6Z,9Z)-1-halo-6,9-pentadecadiene of Formula (1-6Z9Z): wherein X stands for a halogen atom, to a nucleophilic substitution reaction with an orthoformate ester of Formula: wherein R may be same with or different from each other and stands for an alkyl group having from 1 to 6 carbon atoms, to obtain a (7Z,10Z)-1,1-dialkoxy-7,10-hexadecadiene of Formula: wherein R may be same with or different from each other and stands for an alkyl group having from 1 to 6 carbon atoms; and hydrolyzing the (7Z,10Z)-1,1-dialkoxy-7,10-hexadecadiene to obtain the (7Z,10Z)-7,10-hexadecadienal.
A method for evaluating a lung tissue, the method comprising: (a) determining expression levels of ASPM and eight or more genes in a lung tissue sample obtained from a subject, wherein the eight or more genes are selected from the following genes: BUB1, PTTG1, SHCBP1, NUSAP1, MK167, HJURP, CDCA3, PLK1, PRR11, BRCA2, ORM1, CCNB2, SMC4, HM13, DMD, FHL1, ORM2, NDUFC2-KCTD14, NCAPH, TTLL7, DEPDC1B, CNTN4, PRKAA2, PRKCQ, CDC42BPA, PARKD3B, SCTR, CSF3R, MPDZ; and (b) using a trained algorithm to classify the lung tissue sample as positive for an idiopathic pulmonary fibrosis tissue sample or a non-specific interstitial pneumonia (NSIP) tissue sample based on the expression levels determined in a). (a) determining expression levels of ASPM and eight or more genes in a lung tissue sample obtained from a subject, wherein the eight or more genes are selected from the following genes: BUB1, PTTG1, SHCBP1, NUSAP1, MK167, HJURP, CDCA3, PLK1, PRR11, BRCA2, ORM1, CCNB2, SMC4, HM13, DMD, FHL1, ORM2, NDUFC2-KCTD14, NCAPH, TTLL7, DEPDC1B, CNTN4, PRKAA2, PRKCQ, CDC42BPA, PARKD3B, SCTR, CSF3R, MPDZ; and (b) using a trained algorithm to classify the lung tissue sample as positive for an idiopathic pulmonary fibrosis tissue sample or a non-specific interstitial pneumonia (NSIP) tissue sample based on the expression levels determined in a).
A system for providing localization of a mobile electronic device within an indoor environment, the system comprising: at least one server in communication with the mobile electronic device, the at least one server adapted to receive input data from at least one picture, captured by a color camera of said mobile electronic device and at least one accelerometer measurement from the mobile electronic device; a memory database in communication with at least one server, the memory database storing at least one 3-dimensional map of the indoor environment; and a localization module adapted to be executed by the at least one server, the localization module providing localization to the mobile electronic device based on the input data from the at least one picture, the at least one accelerometer measurement and the at least one 3-dimensional map of the indoor environment, wherein the 3-dimensional map includes a database of 3-dimensional feature points; wherein the localization module provides localization by matching 2-dimensional feature points from the at least one picture with the 3-dimensional feature points of the 3-dimensional map by determining a translation vector and rotation matrix; and, wherein the localization module is further adapted to constrain a search space of the 3-dimensional map to a subset for comparing the at least one picture and at least one accelerometer measurement to the 3- dimensional map. at least one server in communication with the mobile electronic device, the at least one server adapted to receive input data from at least one picture, captured by a color camera of said mobile electronic device and at least one accelerometer measurement from the mobile electronic device; a memory database in communication with at least one server, the memory database storing at least one 3-dimensional map of the indoor environment; and a localization module adapted to be executed by the at least one server, the localization module providing localization to the mobile electronic device based on the input data from the at least one picture, the at least one accelerometer measurement and the at least one 3-dimensional map of the indoor environment, wherein the 3-dimensional map includes a database of 3-dimensional feature points; wherein the localization module provides localization by matching 2-dimensional feature points from the at least one picture with the 3-dimensional feature points of the 3-dimensional map by determining a translation vector and rotation matrix; and, wherein the localization module is further adapted to constrain a search space of the 3-dimensional map to a subset for comparing the at least one picture and at least one accelerometer measurement to the 3- dimensional map.