mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer assembly , said multilayer assembly comprising at least two layers , each layer comprises at least one color-forming component, a color marking has been produced within the multilayer assembly by selective transformation of the color-forming components of the layers by irradiation at selected laser wavelengths, wherein the layers are arranged so that: - each layer acts as an absorptive optical filter configured to selectively transmit the light of certain wavelengths and block or attenuate the light of other wavelengths, - wherein a sensitive layer is added over the upper layer of the multilayer assembly , said sensitive layer comprising a color component mixture of at least two of the color-forming components in the layers of the multilayer assembly, and wherein the concentration of the color component mixture is lower compared to the concentration of the color-forming components in the layers of the multilayer assembly, and that - during the irradiation of a selected color-forming component by a selected laser wavelength, an untargeted radiation exposure of the color forming component underneath the selected color-forming component is avoided or at least minimized. - each layer acts as an absorptive optical filter configured to selectively transmit the light of certain wavelengths and block or attenuate the light of other wavelengths, - wherein a sensitive layer is added over the upper layer of the multilayer assembly , said sensitive layer comprising a color component mixture of at least two of the color-forming components in the layers of the multilayer assembly, and wherein the concentration of the color component mixture is lower compared to the concentration of the color-forming components in the layers of the multilayer assembly, and that - during the irradiation of a selected color-forming component by a selected laser wavelength, an untargeted radiation exposure of the color forming component underneath the selected color-forming component is avoided or at least minimized.
Tranilast or a pharmacologically acceptable salt thereof for use as the only active agent in treating cutaneous amyloidosis.
Device for the measurement of carbon dioxide in a working gas for a blood oxygenator comprising: - a tubular body inside which a working gas is conveyed; - at least one emitter of an optical signal arranged at said tubular body ; - at least one receiver of said optical signal arranged at said tubular body on the opposite side of said emitter ; - heating means arranged at at least one of said emitter and said receiver ; characterized by the fact that it comprises at least one temperature sensor positioned in the proximity of said heating means , at least one control unit operatively connected to said emitter , to said receiver , to said heating means and to said sensor , said control unit comprising correction means which are configured to correct the value of the optical signal detected by said receiver depending on the temperature measured by said temperature sensor . - a tubular body inside which a working gas is conveyed; - at least one emitter of an optical signal arranged at said tubular body ; - at least one receiver of said optical signal arranged at said tubular body on the opposite side of said emitter ; - heating means arranged at at least one of said emitter and said receiver ;
A method for user transfer in a Cloud-radio access network, C-RAN, comprising: in response to a request for migrating a user from a first user equipment, UE, virtualized network function component, VNFC, to a second UE VNFC, receiving at the second UE VNFC, dynamic context information of a packet data convergence protocol, PDCP, layer and a radio link control, RLC, layer for data transmission of the user from the first UE VNFC; characterized by continuing a process of the data transmission of the user at the second UE VNFC based on the dynamic context information of the PDCP layer and the RLC layer received from the first UE VNFC by restoring a dynamic context used by the first UE VNFC. in response to a request for migrating a user from a first user equipment, UE, virtualized network function component, VNFC, to a second UE VNFC, receiving at the second UE VNFC, dynamic context information of a packet data convergence protocol, PDCP, layer and a radio link control, RLC, layer for data transmission of the user from the first UE VNFC; characterized by continuing a process of the data transmission of the user at the second UE VNFC based on the dynamic context information of the PDCP layer and the RLC layer received from the first UE VNFC by restoring a dynamic context used by the first UE VNFC.
An electrode substrate for a transparent light emitting device display, the electrode substrate comprising: a transparent substrate ; a wire electrode unit , which is provided on the transparent substrate and comprises a metal mesh pattern ; and at least one light emitting device mounting unit provided on the transparent substrate ; and a light emitting device provided on a solder provided on the at least one light emitting device mounting unit , wherein both an upper surface and a lateral surface of the metal mesh pattern of the wire electrode unit comprise a darkening layer pattern , wherein both an upper surface and a lateral surface of the light emitting device mounting unit do not comprise a darkening layer pattern, wherein the wire electrode unit comprises a first common electrode wiring unit , a second common electrode wiring unit , and a signal electrode wiring unit , the signal electrode wiring unit being provided between the first common electrode wiring unit and the second common electrode wiring unit , wherein the first common electrode wiring unit , the second common electrode wiring unit , and the signal electrode wiring unit comprise metal mesh patterns having the same line width, line height, and pitch, the metal mesh pattern being provided in an entire region of an effective screen unit on a transparent substrate , except for the light emitting device mounting unit . a transparent substrate ; a wire electrode unit , which is provided on the transparent substrate and comprises a metal mesh pattern ; and at least one light emitting device mounting unit provided on the transparent substrate ; and a light emitting device provided on a solder provided on the at least one light emitting device mounting unit , wherein both an upper surface and a lateral surface of the metal mesh pattern of the wire electrode unit comprise a darkening layer pattern , wherein both an upper surface and a lateral surface of the light emitting device mounting unit do not comprise a darkening layer pattern, wherein the wire electrode unit comprises a first common electrode wiring unit , a second common electrode wiring unit , and a signal electrode wiring unit , the signal electrode wiring unit being provided between the first common electrode wiring unit and the second common electrode wiring unit , wherein the first common electrode wiring unit , the second common electrode wiring unit , and the signal electrode wiring unit comprise metal mesh patterns having the same line width, line height, and pitch, the metal mesh pattern being provided in an entire region of an effective screen unit on a transparent substrate , except for the light emitting device mounting unit .
A method of a first device to perform sidelink transmission configured to operate in a 3GPP system, comprising: including a Medium Access Control, in the following also referred to as MAC, Control Element, in the following also referred to as CE, in a MAC Protocol Data Unit, in the following also referred to as PDU; if the MAC PDU comprises the MAC CE without sidelink data, setting or indicating disabling Sidelink, in the following also referred to as SL, Hybrid Automatic Repeat Request, in the following also referred to as HARQ, feedback for the MAC PDU in a sidelink control information, in the following also referred to as SCI ; if the first device includes sidelink data associated with a first sidelink logical channel in the MAC PDU and the first sidelink logical channel is configured to enable sidelink HARQ feedback , setting or indicating enabling SL HARQ feedback for the MAC PDU in the SCI ; and transmitting the SCI and performing a sidelink transmission delivering the MAC PDU to a second device wherein the SCI schedules the sidelink transmission. including a Medium Access Control, in the following also referred to as MAC, Control Element, in the following also referred to as CE, in a MAC Protocol Data Unit, in the following also referred to as PDU; if the MAC PDU comprises the MAC CE without sidelink data, setting or indicating disabling Sidelink, in the following also referred to as SL, Hybrid Automatic Repeat Request, in the following also referred to as HARQ, feedback for the MAC PDU in a sidelink control information, in the following also referred to as SCI ; if the first device includes sidelink data associated with a first sidelink logical channel in the MAC PDU and the first sidelink logical channel is configured to enable sidelink HARQ feedback , setting or indicating enabling SL HARQ feedback for the MAC PDU in the SCI ; and transmitting the SCI and performing a sidelink transmission delivering the MAC PDU to a second device wherein the SCI schedules the sidelink transmission.
A bonded abrasive article comprising: a plurality of abrasive particles , each particle having a coating of a catechol-like polymer resin on one side; a phenolic resin binder that forms a bonded abrasive matrix of the bonded abrasive article, and wherein the plurality of abrasive particles are retained in the phenolic binder. a plurality of abrasive particles , each particle having a coating of a catechol-like polymer resin on one side; a phenolic resin binder that forms a bonded abrasive matrix of the bonded abrasive article, and wherein the plurality of abrasive particles are retained in the phenolic binder.
Pin holding device with a pin draw-in device for fastening a pin , characterized in that : - it has a retaining device which blocks the pin draw-in device when the pin is not placed, - it has a release element which can be activated by means of the pin to be fastened and which is connected to the retaining device with a force fit and/or form fit, - the pin draw-in device has a clamping disk which can be loaded in a pin insertion direction by means of a spring energy store , - at least the pin draw-in device and the release element are arranged in an insertion sleeve , - the spring energy store loads the insertion sleeve counter to the pin insertion direction , and - the pin draw-in device can be unblocked upon actuation of the release element . - it has a retaining device which blocks the pin draw-in device when the pin is not placed, - it has a release element which can be activated by means of the pin to be fastened and which is connected to the retaining device with a force fit and/or form fit, - the pin draw-in device has a clamping disk which can be loaded in a pin insertion direction by means of a spring energy store , - at least the pin draw-in device and the release element are arranged in an insertion sleeve , - the spring energy store loads the insertion sleeve counter to the pin insertion direction , and - the pin draw-in device can be unblocked upon actuation of the release element .
A skylight window frame for being installed in or on a roof of a building, comprising four frame side members , the frame side members delimiting a frame opening and defining a frame plane (P) extending in a longitudinal direction (L) and a lateral direction (W), a first of the frame side members extending along a first peripheral side of the frame opening in the longitudinal direction (L), a second of the frame side members extending along a second peripheral side of the frame opening in a lateral direction (W), each frame side member having a frame height extending in a height direction (H), the height direction (H) being perpendicular to the frame plane (P), the first frame side member comprising a first leg , the first leg extending substantially in the height direction (H), and a second leg , extending substantially in the lateral direction, wherein the first leg has an outer side , the outer side facing away from the frame opening , wherein the second leg has an interior side configured to face an interior of the building in an installed position of the skylight window frame , the outer side having a major outer surface and optionally a curb flange located at a lower portion of the outer side adjacent to the interior side , the first frame side member comprising a pre-formed hole adapted for receiving a fastener, such as a screw or nail, characterized in that the pre-formed hole extends from the major outer surface of the first leg towards the interior side of the second leg in a direction which is inclined in relation to the frame plane (P). four frame side members , the frame side members delimiting a frame opening and defining a frame plane (P) extending in a longitudinal direction (L) and a lateral direction (W), a first of the frame side members extending along a first peripheral side of the frame opening in the longitudinal direction (L), a second of the frame side members extending along a second peripheral side of the frame opening in a lateral direction (W), each frame side member having a frame height extending in a height direction (H), the height direction (H) being perpendicular to the frame plane (P), the first frame side member comprising a first leg , the first leg extending substantially in the height direction (H), and a second leg , extending substantially in the lateral direction, wherein the first leg has an outer side , the outer side facing away from the frame opening , wherein the second leg has an interior side configured to face an interior of the building in an installed position of the skylight window frame , the outer side having a major outer surface and optionally a curb flange located at a lower portion of the outer side adjacent to the interior side , the first frame side member comprising a pre-formed hole adapted for receiving a fastener, such as a screw or nail, characterized in that the pre-formed hole extends from the major outer surface of the first leg towards the interior side of the second leg in a direction which is inclined in relation to the frame plane (P).
A method of decoding a bitstream by an electronic device , the method comprising: receiving an image frame of the bitstream; determining a block unit from the received image frame; determining a split line of the block unit indicated by a partition index included in the bitstream; receiving first motion information and second motion information from a candidate list to reconstruct the block unit , wherein the first motion information includes a first reference vector and a first list flag for selecting a first reference frame and the second motion information includes a second reference vector and a second list flag for selecting a second reference frame; determining a sub-block (561-576) in the block unit ; separating the block unit into a plurality of block regions (581-583) based on the split line ; determining whether the sub-block (561-576) is included in a specific one of the plurality of block regions (581-583) separated based on the split line , wherein the specific one of the plurality of block regions (581-583) covers the split line ; comparing the first list flag with the second list flag when the sub-block (561-576) is included in the specific one of the plurality of block regions (581-583); storing a predefined one of the first motion information or the second motion information as a stored motion information for the sub-block (561-576) when the first list flag is identical to the second list flag; and reconstructing a following block based on the stored motion information when the following block is reconstructed based on the sub-block (561-576). receiving an image frame of the bitstream; determining a block unit from the received image frame; determining a split line of the block unit indicated by a partition index included in the bitstream; receiving first motion information and second motion information from a candidate list to reconstruct the block unit , wherein the first motion information includes a first reference vector and a first list flag for selecting a first reference frame and the second motion information includes a second reference vector and a second list flag for selecting a second reference frame; determining a sub-block (561-576) in the block unit ; separating the block unit into a plurality of block regions (581-583) based on the split line ; determining whether the sub-block (561-576) is included in a specific one of the plurality of block regions (581-583) separated based on the split line , wherein the specific one of the plurality of block regions (581-583) covers the split line ; comparing the first list flag with the second list flag when the sub-block (561-576) is included in the specific one of the plurality of block regions (581-583); storing a predefined one of the first motion information or the second motion information as a stored motion information for the sub-block (561-576) when the first list flag is identical to the second list flag; and reconstructing a following block based on the stored motion information when the following block is reconstructed based on the sub-block (561-576).
Method for setting specification data of vehicle specifications in several control units of a vehicle , wherein the control units provide at least one vehicle functionality and each of the control units configures its respective part of the least one vehicle functionality on the basis of the vehicle specifications and wherein in the vehicle a common data storage is provided where the specification data describing the currently valid vehicle specifications are stored and the control units are repeatedly operated in an initialization phase , wherein in the initialization phase the respective control unit receives a copy of at least a subset of the specification data out of the common data storage and adapts its respective part of the one vehicle functionality according to the received specification data , which means that there is only one valid set of specification data provided in the common data storage and that for initializing each of the control units , either for setting up or configuring their at least one vehicle functionality , they are provided with the specification data from that common data storage , wherein the common data storage is coupled to a communication interface for updating the specification data in the common data storage , wherein the communication interface is coupled to a wireless communication unit of the vehicle and/or to a network connector that is designed to receive updated specification data from outside the vehicle , such that after providing new, updated specification data in the common data storage , these updated specification data are distributed among the control units in the next initialization phase , thus, only the data in the common data storage need to be updated from outside the vehicle and then the vehicle will distribute the updated specification data starting from the common data storage . wherein the common data storage is coupled to a communication interface for updating the specification data in the common data storage , wherein the communication interface is coupled to a wireless communication unit of the vehicle and/or to a network connector that is designed to receive updated specification data from outside the vehicle , such that after providing new, updated specification data in the common data storage , these updated specification data are distributed among the control units in the next initialization phase , thus, only the data in the common data storage need to be updated from outside the vehicle and then the vehicle will distribute the updated specification data starting from the common data storage .
A component mounting apparatus comprising: a mounting head ; and a control device that controls the mounting head , wherein the mounting head includes a nozzle holder that extends in an up-down direction, a nozzle that is attached to a lower end of the nozzle holder to be movable up and down with respect to the nozzle holder , an elastic body that elastically supports the nozzle , a flange that is provided on the nozzle , and a nozzle lifting and lowering mechanism that is able to move the nozzle downward by engaging with the flange at a position that is offset from the central axis of the nozzle and pressing down the flange against elastic force of the elastic body , and characterized in that the control device is configured to measure in advance a deviation amount between a tip position of the nozzle before the nozzle lifting and lowering mechanism moves the nozzle downward and a tip position of the nozzle after the nozzle lifting and lowering mechanism moves the nozzle downward, wherein the deviation amount on the horizontal XY-coordinates is measured between the center position of the nozzle in an image taken from below before pressing down the flange and the center position of the nozzle in an image taken from below after pressing down the flange , and control the mounting head so as to suck a component to mount the component on a board taking the deviation amount of said nozzle into account. a nozzle holder that extends in an up-down direction, a nozzle that is attached to a lower end of the nozzle holder to be movable up and down with respect to the nozzle holder , an elastic body that elastically supports the nozzle , a flange that is provided on the nozzle , and a nozzle lifting and lowering mechanism that is able to move the nozzle downward by engaging with the flange at a position that is offset from the central axis of the nozzle and pressing down the flange against elastic force of the elastic body , and