mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for use in treating elevated blood glucose in an individual comprising an FGF-1 compound, wherein the FGF-1 compound is FGF-1 or a functional fragment or functional variant of FGF-1, wherein the FGF-1 compound comprises a sequence having at least 80% identity to the sequence of FGF-1 and the FGF-1 compound retains at least a heparin binding activity.
A method of identifying or characterising at least one property of a sample, the method comprising the steps of: a. producing at least one measured spectrum of data from a sample using a mass spectrometer; b. inferring from the at least one measured spectrum, using Bayesian analysis, a family of plausible spectra of data, using a two-step nested sampling technique comprising; a first step of assigning a prior to the total intensity; and a second step of modifying the prior relative to the proportions for specific charge states, c. inferring an underlying spectrum of data from the family of plausible spectra of data; and d. using the underlying spectrum of data to identify or characterise at least one property of the sample. a. producing at least one measured spectrum of data from a sample using a mass spectrometer; b. inferring from the at least one measured spectrum, using Bayesian analysis, a family of plausible spectra of data, using a two-step nested sampling technique comprising; a first step of assigning a prior to the total intensity; and a second step of modifying the prior relative to the proportions for specific charge states, a first step of assigning a prior to the total intensity; and a second step of modifying the prior relative to the proportions for specific charge states, c. inferring an underlying spectrum of data from the family of plausible spectra of data; and d. using the underlying spectrum of data to identify or characterise at least one property of the sample.
A method for wireless communication, the method comprising: generating instructions for a transceiver to enable at least one opportunity to transmit mission critical, MiCr, data and at least one opportunity to receive MiCr data in a time division duplex, TDD, subframe during a single transmission time interval, TTI, wherein the subframe is one of a plurality of subframes within a frame; and communicating the MiCr data in the TDD subframe during the single TTI, wherein the MiCr data comprises data having at least one of a latency requirement lower than a latency requirement of other data included in the TDD subframe, a priority requirement higher than a priority requirement of other data included in the TDD subframe, or a reliability requirement higher than a reliability requirement of other data included in the TDD subframe. generating instructions for a transceiver to enable at least one opportunity to transmit mission critical, MiCr, data and at least one opportunity to receive MiCr data in a time division duplex, TDD, subframe during a single transmission time interval, TTI, wherein the subframe is one of a plurality of subframes within a frame; and communicating the MiCr data in the TDD subframe during the single TTI, wherein the MiCr data comprises data having at least one of a latency requirement lower than a latency requirement of other data included in the TDD subframe, a priority requirement higher than a priority requirement of other data included in the TDD subframe, or a reliability requirement higher than a reliability requirement of other data included in the TDD subframe.
A method for measuring a length in a mobile terminal, the method comprising: selecting (S200) a virtual measuring tape function; setting (S210) a reference object, the reference object being a target; measuring (S230) a length of a subject based on a spaced distance of the reference object, the spaced distance being measured by a laser when the reference object, brought into contact with the mobile terminal and one end of the subject, is spaced apart therefrom; and outputting a final length of the subject when the reference object reaches another end of the subject. selecting (S200) a virtual measuring tape function; setting (S210) a reference object, the reference object being a target; measuring (S230) a length of a subject based on a spaced distance of the reference object, the spaced distance being measured by a laser when the reference object, brought into contact with the mobile terminal and one end of the subject, is spaced apart therefrom; and outputting a final length of the subject when the reference object reaches another end of the subject.
A heat exchange unit for heat pumps or air conditioners, comprising: • a box-like casing , • a lower surface , an upper surface which is opposite the lower surface and which is spaced apart therefrom with respect to an axis (X) of the casing , and a front surface which extends between the lower surface and the upper surface , the surfaces being defined on the casing , • a first opening and a second opening which are made on the casing , • a channel which extends inside the casing between the first and second openings , • a fan housed inside the casing , along the channel , and which is arranged to move an air flow away from and towards the external environment with respect to the casing through the openings , , • a heat exchanger placed in the channel , in which the heat exchanger has a V-like profile and at least a portion of the fan and the heat exchanger are one below the other with respect to the axis (X), wherein the first opening is made on the front surface of the casing and the second opening is made on the upper surface and/or on the front surface in a position above the first opening with respect to the axis (X), characterized in that the fan is placed in the channel between the first opening and the heat exchanger , the fan being a centrifugal fan. • a box-like casing , • a lower surface , an upper surface which is opposite the lower surface and which is spaced apart therefrom with respect to an axis (X) of the casing , and a front surface which extends between the lower surface and the upper surface , the surfaces being defined on the casing , • a first opening and a second opening which are made on the casing , • a channel which extends inside the casing between the first and second openings , • a fan housed inside the casing , along the channel , and which is arranged to move an air flow away from and towards the external environment with respect to the casing through the openings , , • a heat exchanger placed in the channel , in which the heat exchanger has a V-like profile and at least a portion of the fan and the heat exchanger are one below the other with respect to the axis (X),
A print liquid supply apparatus, comprising a container to hold print liquid, wherein the container comprises either (a) a liquid reservoir to hold the print liquid and a vent and/or pressurizing mechanism connected to the inside of the reservoir or (b) a collapsible bag to hold the print liquid and a support structure arranged at least partially around the collapsible bag and an interface structure to fluidically connect the container to a receiving station , the container having a first (D1), second (D2) and third (D3) dimension that are perpendicular to each other, the interface structure having a first (d1), second (d2) and third (d3) dimension parallel to said first (D1), second (D2) and third (D3) dimension of the container, respectively, the interface structure projecting outwards with respect to the container in the direction of the first dimensions (d1, D1), wherein the first dimension (d1) of the interface structure is less than half of the first dimension (D1) of the container , wherein the interface structure comprises a liquid interface configured to fluidically connect to a corresponding fluidic interface of the receiving station , and a liquid channel fluidically connecting the container and the liquid interface , the liquid channel and interface defining a main liquid flow direction (DL) approximately parallel to the second dimension (d2, D2) of the interface and container , wherein a projecting portion of the container projects in a direction parallel to the main liquid flow direction (DL) surpassing the liquid interface in the main liquid flow direction (DL). a container to hold print liquid, wherein the container comprises either (a) a liquid reservoir to hold the print liquid and a vent and/or pressurizing mechanism connected to the inside of the reservoir or (b) a collapsible bag to hold the print liquid and a support structure arranged at least partially around the collapsible bag and an interface structure to fluidically connect the container to a receiving station , the container having a first (D1), second (D2) and third (D3) dimension that are perpendicular to each other, the interface structure having a first (d1), second (d2) and third (d3) dimension parallel to said first (D1), second (D2) and third (D3) dimension of the container, respectively, the interface structure projecting outwards with respect to the container in the direction of the first dimensions (d1, D1), wherein the first dimension (d1) of the interface structure is less than half of the first dimension (D1) of the container , wherein the interface structure comprises a liquid interface configured to fluidically connect to a corresponding fluidic interface of the receiving station , and a liquid channel fluidically connecting the container and the liquid interface , the liquid channel and interface defining a main liquid flow direction (DL) approximately parallel to the second dimension (d2, D2) of the interface and container ,
A gimbal driving device, comprising: a holding arm ; a first motor comprising a shaft , a rotor holder connected with the shaft , and a shaft cover fixed to the holding arm , wherein the shaft brings the rotor holder into swinging; a connecting frame for fixing an imaging device , wherein the connecting frame is fixed to the rotor holder to bring the imaging device into swinging; a connector connected between the shaft and the connecting frame ; and a flexible wiring board having one end connected to the holding arm and the other end connected to the connecting frame , and the flexible wiring board is configured to be flexed clockwise or counterclockwise within a certain angle while a length of the flexible wiring board remains unchanged during the swinging of the imaging device , wherein the holding arm has a body portion and an extension arm extending from the body portion ; characterized in that the flexible wiring board is fixed to a lower side of the rotor holder after passing through the shaft and is connected to the body portion of the holding arm 2. . a holding arm ; a first motor comprising a shaft , a rotor holder connected with the shaft , and a shaft cover fixed to the holding arm , wherein the shaft brings the rotor holder into swinging; a connecting frame for fixing an imaging device , wherein the connecting frame is fixed to the rotor holder to bring the imaging device into swinging; a connector connected between the shaft and the connecting frame ; and a flexible wiring board having one end connected to the holding arm and the other end connected to the connecting frame , and the flexible wiring board is configured to be flexed clockwise or counterclockwise within a certain angle while a length of the flexible wiring board remains unchanged during the swinging of the imaging device , wherein the holding arm has a body portion and an extension arm extending from the body portion ; characterized in that the flexible wiring board is fixed to a lower side of the rotor holder after passing through the shaft and is connected to the body portion of the holding arm 2. .
A method decoding a video, the method comprising: deriving (S3000) an affine motion vector for a sub-block included in a current block using a plurality of motion vectors of the current block, the plurality of motion vectors comprising a motion vector of a top left corner sample of the current block and a motion vector of a top right corner sample of the current block; and performing (S3010) a motion compensation for the sub-block based on the derived affine motion vector, characterised in that the motion vector of the top right corner sample of the current block is derived using a differential motion vector between the motion vector of the top left corner sample and the motion vector of the top right corner sample. deriving (S3000) an affine motion vector for a sub-block included in a current block using a plurality of motion vectors of the current block, the plurality of motion vectors comprising a motion vector of a top left corner sample of the current block and a motion vector of a top right corner sample of the current block; and performing (S3010) a motion compensation for the sub-block based on the derived affine motion vector, characterised in that the motion vector of the top right corner sample of the current block is derived using a differential motion vector between the motion vector of the top left corner sample and the motion vector of the top right corner sample.
A device for a platooning operation comprising a leaving determination module configured to determine an indication that a certain vehicle in a platoon might leave the platoon and drive into an adjacent path based on data indicating that the certain vehicle might leave the platoon , wherein the platoon includes at least one neighboring vehicle to the certain vehicle wherein provided an indication has been determined, the device is configured to limit a field of view of a radar detector , arranged on the at least one neighboring vehicle and facing the certain vehicle , such that the adjacent path is not included in the field of view of the radar detector , the device is further configured to receive data from the radar detector and to determine from the data if the certain vehicle has departed from the current path and thus left the platoon , the device further comprises a driving strategy module configured to determine a driving strategy for the platoon , such that the platoon is maintained when the certain vehicle has left the platoon , wherein the determination of driving strategy is based on a vehicle characteristic for at least one neighboring vehicle in the platoon and/or an environmental characteristic, and to determine driving strategy data indicating the driving strategy.
A water-free surface sizing composition comprising from 40 wt% to 70 wt% of at least one alkenyl succinic anhydride and from 30 wt% to 60 wt% of at least one biosolvent selected from biodiesel and/or limonene; wherein the composition has a viscosity of from 25 cPs to 100 cPs.
A timepiece barrel comprising: a barrel spring (2; 102; 202; 302) including: - an interior end (5; 105; 205; 305) and an exterior end, - a first portion having a first height (H), - a second portion (52; 152; 252; 352) having a second height (h) less than the first height (H) and situated near the interior end (5; 105; 205; 305), and - in the second portion, for example at the interior end, a first attachment element (51; 151; 251; 351) adapted to be fixed to a barrel shaft, the second portion being intended to be inserted in a groove extending circumferentially on the barrel shaft, and a shaft (1; 101; 201; 301; 401) for a clock movement barrel , including the groove (13; 113; 213; 313) extending round a circumference of the shaft and intended to receive a barrel spring (2; 102; 202; 302), the groove having a depth (p) equal or substantially equal to the thickness of the barrel spring. a barrel spring (2; 102; 202; 302) including: - an interior end (5; 105; 205; 305) and an exterior end, - a first portion having a first height (H), - a second portion (52; 152; 252; 352) having a second height (h) less than the first height (H) and situated near the interior end (5; 105; 205; 305), and - in the second portion, for example at the interior end, a first attachment element (51; 151; 251; 351) adapted to be fixed to a barrel shaft, the second portion being intended to be inserted in a groove extending circumferentially on the barrel shaft, and - an interior end (5; 105; 205; 305) and an exterior end, - a first portion having a first height (H), - a second portion (52; 152; 252; 352) having a second height (h) less than the first height (H) and situated near the interior end (5; 105; 205; 305), and - in the second portion, for example at the interior end, a first attachment element (51; 151; 251; 351) adapted to be fixed to a barrel shaft, the second portion being intended to be inserted in a groove extending circumferentially on the barrel shaft, a shaft (1; 101; 201; 301; 401) for a clock movement barrel , including the groove (13; 113; 213; 313) extending round a circumference of the shaft and intended to receive a barrel spring (2; 102; 202; 302), the groove having a depth (p) equal or substantially equal to the thickness of the barrel spring.
A washing machine comprising: a tub configured to contain water; a drum of metal material configured to be rotated in the tub ; an induction heater fixed to the tub in a state of being separated from the drum , and configured to heat the drum ; a first temperature sensor having a tube of metal material heated by the induction heater and a thermistor disposed in the tube , at least a part of the tube being exposed between the tub and the drum , and configured to detect a temperature of air between the tub and the drum ; a second temperature sensor disposed in a position further away than the first temperature sensor from the induction heater in a circumferential direction of the tub , and configured to detect a temperature of air between the tub and the drum ; and a controller configured to control the induction heater based on a first detection value of the first temperature sensor and a second detection value of the second temperature sensor . a tub configured to contain water; a drum of metal material configured to be rotated in the tub ; an induction heater fixed to the tub in a state of being separated from the drum , and configured to heat the drum ; a first temperature sensor having a tube of metal material heated by the induction heater and a thermistor disposed in the tube , at least a part of the tube being exposed between the tub and the drum , and configured to detect a temperature of air between the tub and the drum ; a second temperature sensor disposed in a position further away than the first temperature sensor from the induction heater in a circumferential direction of the tub , and configured to detect a temperature of air between the tub and the drum ; and a controller configured to control the induction heater based on a first detection value of the first temperature sensor and a second detection value of the second temperature sensor .
A control device for a component mounting machine , which is for mounting electronic components on a circuit board and which is provided with a feeder that is configured to supply the electronic components by feeding carrier tape housing the electronic components, the control device comprising: an error detecting section configured to detect a pickup error in which the electronic component was not picked up during pickup operation of picking up and holding the electronic component supplied by the feeder ; characterized by a recovery control section configured to perform recovery processing of picking up the electronic component by performing the pickup operation again in a case in which a quantity of the pickup errors (N) that has occurred consecutively during multiple attempts at the pickup operation is less than a threshold value (Tr); a tape management section configured to acquire a remaining amount (R) of the carrier tape at the feeder ; and a threshold changing section configured to change the threshold value (Tr) based on the acquired remaining amount (R) of the carrier tape . an error detecting section configured to detect a pickup error in which the electronic component was not picked up during pickup operation of picking up and holding the electronic component supplied by the feeder ; characterized by a recovery control section configured to perform recovery processing of picking up the electronic component by performing the pickup operation again in a case in which a quantity of the pickup errors (N) that has occurred consecutively during multiple attempts at the pickup operation is less than a threshold value (Tr); a tape management section configured to acquire a remaining amount (R) of the carrier tape at the feeder ; and a threshold changing section configured to change the threshold value (Tr) based on the acquired remaining amount (R) of the carrier tape .
A battery management apparatus comprising: a processor configured to collect sensing data of a battery using a sensor; and characterized by infrared, IR, communicators located adjacent to sides of a board of the battery management apparatus and configured to face a neighboring battery management apparatus (110-2) of the battery management apparatus , wherein the processor is configured to transmit the collected sensing data to the neighboring battery management apparatus (110-2) using one of the IR communicators , wherein the IR communicators comprise: a first IR communicator set configured to perform an IR communication in a first lateral direction of the battery management apparatus ; a second IR communicator set configured to perform an IR communication in a second lateral direction of the battery management apparatus ; a third IR communicator set configured to perform an IR communication in a third lateral direction of the battery management apparatus ; and a fourth IR communicator set configured to perform an IR communication in a fourth lateral direction of the battery management apparatus . a processor configured to collect sensing data of a battery using a sensor; and characterized by infrared, IR, communicators located adjacent to sides of a board of the battery management apparatus and configured to face a neighboring battery management apparatus (110-2) of the battery management apparatus , wherein the processor is configured to transmit the collected sensing data to the neighboring battery management apparatus (110-2) using one of the IR communicators , wherein the IR communicators comprise: a first IR communicator set configured to perform an IR communication in a first lateral direction of the battery management apparatus ; a second IR communicator set configured to perform an IR communication in a second lateral direction of the battery management apparatus ; a third IR communicator set configured to perform an IR communication in a third lateral direction of the battery management apparatus ; and a fourth IR communicator set configured to perform an IR communication in a fourth lateral direction of the battery management apparatus . a first IR communicator set configured to perform an IR communication in a first lateral direction of the battery management apparatus ; a second IR communicator set configured to perform an IR communication in a second lateral direction of the battery management apparatus ; a third IR communicator set configured to perform an IR communication in a third lateral direction of the battery management apparatus ; and a fourth IR communicator set configured to perform an IR communication in a fourth lateral direction of the battery management apparatus .