mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting a Device to Device, D2D, signal in a wireless communication system, the method comprising: receiving, by a user equipment, UE, a synchronization signal; and transmitting, by the UE , the D2D signal based on a timing advance offset and a reception timing of a radio frame corresponding to the received synchronization signal, characterized in that the timing advance offset is a value greater than 0 when the UE is in-coverage of a base station and the UE is in a radio resource control, RRC, idle state, and in that the timing advance offset is a value equal to 0 when the UE is out-of-coverage of the base station and the synchronization signal is received from another UE which is located in coverage of the base station . receiving, by a user equipment, UE, a synchronization signal; and transmitting, by the UE , the D2D signal based on a timing advance offset and a reception timing of a radio frame corresponding to the received synchronization signal, characterized in that the timing advance offset is a value greater than 0 when the UE is in-coverage of a base station and the UE is in a radio resource control, RRC, idle state, and in that the timing advance offset is a value equal to 0 when the UE is out-of-coverage of the base station and the synchronization signal is received from another UE which is located in coverage of the base station .
A vacuum blood collection tube labeling machine, comprising: a loading part of a vacuum blood collection tube comprising a plurality of loading slideways disposed in parallel, wherein each of the loading slideways comprises an inclined segment and a horizontal segment extending forward from a bottom end of the inclined segment ; a label printing part comprising a label printer and an output channel of the vacuum blood collection tube connected to the label printer ; and a robotic arm used for grabbing and lifting up the vacuum blood collection tube located on the horizontal segment and transferring the vacuum blood collection tube to the label printer , wherein the robotic arm comprises a grabbing mechanism and a movement control assembly for driving the grabbing mechanism , wherein the loading part of the vacuum blood collection tube further comprises a loading funnel slidably disposed at the top end of the loading slideway, the loading funnel is capable of sliding in a width direction of all the loading slideways and in a length direction of each loading slideway ; and a loading port of the loading funnel is parallel to the loading slideways , a top opening of the loading port is wider than a bottom opening of the loading port , and the width of the bottom opening is greater than the diameter of a cap of the vacuum blood collection tube . a loading part of a vacuum blood collection tube comprising a plurality of loading slideways disposed in parallel, wherein each of the loading slideways comprises an inclined segment and a horizontal segment extending forward from a bottom end of the inclined segment ; a label printing part comprising a label printer and an output channel of the vacuum blood collection tube connected to the label printer ; and a robotic arm used for grabbing and lifting up the vacuum blood collection tube located on the horizontal segment and transferring the vacuum blood collection tube to the label printer , wherein the robotic arm comprises a grabbing mechanism and a movement control assembly for driving the grabbing mechanism , wherein the loading part of the vacuum blood collection tube further comprises a loading funnel slidably disposed at the top end of the loading slideway, the loading funnel is capable of sliding in a width direction of all the loading slideways and in a length direction of each loading slideway ; and a loading port of the loading funnel is parallel to the loading slideways , a top opening of the loading port is wider than a bottom opening of the loading port , and the width of the bottom opening is greater than the diameter of a cap of the vacuum blood collection tube .
A method for acquiring and forming a spectrometry image (Pict) of a sample , comprising the following steps: a) digitally acquiring an initial structural image (IMO) of an area of the sample , the initial structural image (IMO) including pixels arranged into lines and columns; b) digitally processing the initial structural image (IMO) to decompose said initial structural image (IMO) into at least one first block of pixels associated with a first spatial sampling pitch and a second block of pixels associated with a second spatial sampling pitch, the first spatial sampling pitch being higher than the second spatial sampling pitch, so as to determine a multi-scale spatial sampling of said area of the sample ; c) determining a plurality of spectrometry measurement positions (Xi, Yj) in said area of the sample, as a function of the multi-scale spatial sampling determined at step b); d) successively, for each spectrometry measurement position (Xi, Yj) of the plurality of spectrometry measurement positions determined at step c), positioning an excitation beam at a spectrometry measurement position (Xi, Yj) and acquiring a spectrometry measurement for said spectrometry measurement position (Xi, Yj); e) reconstructing a spectrometry image (Pict) point by point, each point of the reconstructed spectrometry image (Pict) being obtained from one or several spectrometry measurements acquired at step d). a) digitally acquiring an initial structural image (IMO) of an area of the sample , the initial structural image (IMO) including pixels arranged into lines and columns; b) digitally processing the initial structural image (IMO) to decompose said initial structural image (IMO) into at least one first block of pixels associated with a first spatial sampling pitch and a second block of pixels associated with a second spatial sampling pitch, the first spatial sampling pitch being higher than the second spatial sampling pitch, so as to determine a multi-scale spatial sampling of said area of the sample ; c) determining a plurality of spectrometry measurement positions (Xi, Yj) in said area of the sample, as a function of the multi-scale spatial sampling determined at step b); d) successively, for each spectrometry measurement position (Xi, Yj) of the plurality of spectrometry measurement positions determined at step c), positioning an excitation beam at a spectrometry measurement position (Xi, Yj) and acquiring a spectrometry measurement for said spectrometry measurement position (Xi, Yj); e) reconstructing a spectrometry image (Pict) point by point, each point of the reconstructed spectrometry image (Pict) being obtained from one or several spectrometry measurements acquired at step d).
A method of operation of a User Equipment, UE, to provide service gap control in a wireless communication system , comprising: receiving at the UE a subscription data containing a service gap parameter from a network entity in an attach accept message during an initial attach procedure, the service gap parameter being indicative of a value for a service gap timer for the UE ; and enforcing the received service gap parameter at the UE on a per UE level in a non-access stratum layer by starting the service gap timer when the UE transitions from connected mode to idle mode. receiving at the UE a subscription data containing a service gap parameter from a network entity in an attach accept message during an initial attach procedure, the service gap parameter being indicative of a value for a service gap timer for the UE ; and enforcing the received service gap parameter at the UE on a per UE level in a non-access stratum layer by starting the service gap timer when the UE transitions from connected mode to idle mode.
An imaging system comprising: a first imaging apparatus that captures an image of an imaging target that is located at a first point located on a moving route of the imaging target; a second imaging apparatus a focus position of which is set at a second point that is located at a forward side along a moving direction of the imaging target than the first point; and a control apparatus that controls the second imaging apparatus to capture an image of the imaging target that is located at the second point on the basis of the image captured by the first imaging apparatus, wherein the control apparatus (i) determines, on the basis of the image captured by the first imaging apparatus, a first position coordinate that is a position coordinate of the imaging target located at the first point in the image captured by the first imaging apparatus, (ii) estimates, on the basis of the first position coordinate, a second position coordinate that is a position coordinate of the imaging target in the image captured by the second imaging apparatus under the assumption that the second imaging apparatus has captured the image of the imaging target that has moved from the first point to the second point, and (iii) controls, on the basis of the second position coordinate, the second imaging apparatus to capture the image of the imaging target that is located at the second point. a first imaging apparatus that captures an image of an imaging target that is located at a first point located on a moving route of the imaging target; a second imaging apparatus a focus position of which is set at a second point that is located at a forward side along a moving direction of the imaging target than the first point; and a control apparatus that controls the second imaging apparatus to capture an image of the imaging target that is located at the second point on the basis of the image captured by the first imaging apparatus, wherein the control apparatus (i) determines, on the basis of the image captured by the first imaging apparatus, a first position coordinate that is a position coordinate of the imaging target located at the first point in the image captured by the first imaging apparatus, (ii) estimates, on the basis of the first position coordinate, a second position coordinate that is a position coordinate of the imaging target in the image captured by the second imaging apparatus under the assumption that the second imaging apparatus has captured the image of the imaging target that has moved from the first point to the second point, and (iii) controls, on the basis of the second position coordinate, the second imaging apparatus to capture the image of the imaging target that is located at the second point.
A vacuum cleaner comprising: a cleaner body including a moving device for moving, the moving device including a plurality of wheels and a plurality of motors for rotating the plurality of wheels ; a suction device connected to the cleaner body to suction dusts and air and guide the suctioned dusts and air to the cleaner body , the suction device comprising a handle ; a detection device for detecting a distance between the handle and the cleaner body ; and a controller determining whether movement of the cleaner body is necessary on the basis of the distance between the cleaner body and the handle , the controller controlling the moving device when the movement of the cleaner body is necessary, wherein the controller is configured to control the moving device to allow the cleaner body to avoid an obstacle when it is determined that an operation for avoiding the obstacle is necessary while the moving device operates, characterized in that the vacuum cleaner further comprises a plurality of current detectors for detecting current inputted into each of the plurality of motors , wherein the controller is configured to determine whether the operation for avoiding the obstacle is necessary on the basis of the current detected by at least one current detector of the plurality of current detectors . a cleaner body including a moving device for moving, the moving device including a plurality of wheels and a plurality of motors for rotating the plurality of wheels ; a suction device connected to the cleaner body to suction dusts and air and guide the suctioned dusts and air to the cleaner body , the suction device comprising a handle ; a detection device for detecting a distance between the handle and the cleaner body ; and a controller determining whether movement of the cleaner body is necessary on the basis of the distance between the cleaner body and the handle , the controller controlling the moving device when the movement of the cleaner body is necessary, wherein the controller is configured to control the moving device to allow the cleaner body to avoid an obstacle when it is determined that an operation for avoiding the obstacle is necessary while the moving device operates, characterized in that the vacuum cleaner further comprises a plurality of current detectors for detecting current inputted into each of the plurality of motors , wherein the controller is configured to determine whether the operation for avoiding the obstacle is necessary on the basis of the current detected by at least one current detector of the plurality of current detectors .
A method for producing mammalian hepatocytes, the method comprising: Culturing mammalian hepatic progenitor cells under differentiation conditions to obtain hepatocytes, and Exposing said hepatocytes to at least one Src kinase inhibitor selected from the group consisting of PP1, PP2, 1-NA PP1, 1-NM-PP1, Src Inhibitor-1 (Src-I1), Src Kinase Inhibitor I, Src Kinase Inhibitor II, A-419529, A-770041, AZM 475271, bosutinib, CGP77675, Damnacanthal, dasatinib, dasatinib monohydrate, ER 27319 maleate, Fingolimod (FTY720), Geldanamycin, Herbimycin A, KB SRC 4, KX2-391, KX1-004, Lavendustin A, Lavendustin C, LCK inhibitor 2, Lyn peptide inhibitor, MLR-1023, MNS, N-Acetyl-O-phosphono-Tyr-Glu Dipentylamide, N-Acetyl-O-phosphono-Tyr-Glu-Glu-Ile-Glu, NVP-BHG712, PD 166285, PD173952, PD 180970, Piceatannol, pp60 c-src, quercetin, radicicol from Diheterospora chlamydosporia solid, saracatinib, SU 6656, TC-S 7003, TG 100572, WH-4-023, ZM 306416, and combinations thereof, optionally in combination with at least one maturation factor selected from the group consisting of vitamin D including precursors, metabolites and analogs thereof, hypoxia inducing compounds, sphingosine and sphingosine derivatives, activators of peroxisome proliferator-activated receptors (PPARs), platelet-activating factor (PAF), and PKC inhibitors. Culturing mammalian hepatic progenitor cells under differentiation conditions to obtain hepatocytes, and Exposing said hepatocytes to at least one Src kinase inhibitor selected from the group consisting of PP1, PP2, 1-NA PP1, 1-NM-PP1, Src Inhibitor-1 (Src-I1), Src Kinase Inhibitor I, Src Kinase Inhibitor II, A-419529, A-770041, AZM 475271, bosutinib, CGP77675, Damnacanthal, dasatinib, dasatinib monohydrate, ER 27319 maleate, Fingolimod (FTY720), Geldanamycin, Herbimycin A, KB SRC 4, KX2-391, KX1-004, Lavendustin A, Lavendustin C, LCK inhibitor 2, Lyn peptide inhibitor, MLR-1023, MNS, N-Acetyl-O-phosphono-Tyr-Glu Dipentylamide, N-Acetyl-O-phosphono-Tyr-Glu-Glu-Ile-Glu, NVP-BHG712, PD 166285, PD173952, PD 180970, Piceatannol, pp60 c-src, quercetin, radicicol from Diheterospora chlamydosporia solid, saracatinib, SU 6656, TC-S 7003, TG 100572, WH-4-023, ZM 306416, and combinations thereof, optionally in combination with at least one maturation factor selected from the group consisting of vitamin D including precursors, metabolites and analogs thereof, hypoxia inducing compounds, sphingosine and sphingosine derivatives, activators of peroxisome proliferator-activated receptors (PPARs), platelet-activating factor (PAF), and PKC inhibitors.
A system comprising: a catheter including an elongated carrier , a balloon about the carrier in sealed relation thereto, the balloon being arranged to receive a liquid therein that inflates the balloon , and first and second electrodes within the balloon arranged to receive there-across high electrical voltage pulses, each pulse at an initial low current, each high electrical voltage pulse causing an electrical arc to form across the first and second electrodes within the balloon , the electrical arc creating a gas bubble within the liquid, a high current to flow through the first and second electrodes , and a mechanical shock wave within the balloon ; and a power source that provides the first and second electrodes with the high electrical voltage pulses at the initial current; wherein the power source includes a current sensor that senses current flowing through the first and second electrodes during each voltage pulse, and wherein when the current reaches a predetermined limit during each voltage pulse, the current sensor generates a signal that causes the power source to terminate the application of the voltage supplied across the first and second electrodes for that pulse. a catheter including an elongated carrier , a balloon about the carrier in sealed relation thereto, the balloon being arranged to receive a liquid therein that inflates the balloon , and first and second electrodes within the balloon arranged to receive there-across high electrical voltage pulses, each pulse at an initial low current, each high electrical voltage pulse causing an electrical arc to form across the first and second electrodes within the balloon , the electrical arc creating a gas bubble within the liquid, a high current to flow through the first and second electrodes , and a mechanical shock wave within the balloon ; and a power source that provides the first and second electrodes with the high electrical voltage pulses at the initial current; wherein the power source includes a current sensor that senses current flowing through the first and second electrodes during each voltage pulse, and wherein when the current reaches a predetermined limit during each voltage pulse, the current sensor generates a signal that causes the power source to terminate the application of the voltage supplied across the first and second electrodes for that pulse.
A retainer for a choked flow clamped seat ring assembly , the retainer comprising: an upper body portion ; a skirt that extends away from the upper body portion, the skirt being adapted to guide movement of a fluid control member ; a securement ring spaced apart from the skirt; and a plurality of legs connecting the securement ring to the skirt, wherein at least one leg in the plurality of legs curves radially inwards from the securement ring to the skirt. an upper body portion ; a skirt that extends away from the upper body portion, the skirt being adapted to guide movement of a fluid control member ; a securement ring spaced apart from the skirt; and a plurality of legs connecting the securement ring to the skirt, wherein at least one leg in the plurality of legs curves radially inwards from the securement ring to the skirt.
Modular system for building a plantable wall , comprising hollow masonry blocks , said blocks having planar bearing surfaces for placing the blocks onto each other and further having a front and a rear side and the building blocks each defining a cavity that opens to the front side of the block , the system further comprising containers for receiving plantation substrate, wherein the containers are each configured as an open-top drawer that is insertable into the cavity from the front side of the blocks , characterized in that said blocks are made from concrete and the containers have an opening in their bottom, said opening overlapping with the opening in the bearing surface of the block when the container is inserted into the cavity , wherein the system further comprises draining blocks configured to be insertable into the cavity from the front side of the masonry blocks , wherein the draining blocks are made from a wire netting that houses draining elements, such as pebble stones or the draining blocks are made from a block of pervious concrete having a void content of between 10% and 35%.
An electronic device of a first base station , which is adapted to maintain a first communication channel with a user equipment , the electronic device comprising circuitry, configured to: send, to the user equipment, measurement configuration information for measuring a signal of a second base station ; receive, from the user equipment, a measuring result of the second base station based on the measurement configuration information; send, to the second base station, a request regarding the user equipment to establish communication with the second base station while the first communication channel being maintained; receive, from the second base station, acknowledge information comprising configuration information for the user equipment to establish communication with the second base station; based on the acknowledge information send, to the user equipment Radio Resource Control RRC, configuration information comprising the acknowledge information, to establish a second communication channel with the second base station while the first communication channel being maintained; wherein the frequency bands used for communication between the first base station and the user equipment are different from the frequency bands used for the communication between the user equipment and the second base station. send, to the user equipment, measurement configuration information for measuring a signal of a second base station ; receive, from the user equipment, a measuring result of the second base station based on the measurement configuration information; send, to the second base station, a request regarding the user equipment to establish communication with the second base station while the first communication channel being maintained; receive, from the second base station, acknowledge information comprising configuration information for the user equipment to establish communication with the second base station; based on the acknowledge information send, to the user equipment Radio Resource Control RRC, configuration information comprising the acknowledge information, to establish a second communication channel with the second base station while the first communication channel being maintained; wherein the frequency bands used for communication between the first base station and the user equipment are different from the frequency bands used for the communication between the user equipment and the second base station.
A variable vane system for a gas turbine, comprising: an actuator ; a drive driven by the actuator ; a drive gear driven by the drive; a first actuator gear mounted to a first variable vane of a first variable vane stage , the first actuator gear driven by the drive gear; and a second actuator gear mounted to a second variable vane of a second variable vane stage , the second actuator gear driven by the drive gear, characterised in that : the drive is a harmonic drive and the drive gear is a multi-planar drive gear including a first set of gear teeth in a first plane and a second set of gear teeth in a second plane . an actuator ; a drive driven by the actuator ; a drive gear driven by the drive; a first actuator gear mounted to a first variable vane of a first variable vane stage , the first actuator gear driven by the drive gear; and a second actuator gear mounted to a second variable vane of a second variable vane stage , the second actuator gear driven by the drive gear, characterised in that : the drive is a harmonic drive and the drive gear is a multi-planar drive gear including a first set of gear teeth in a first plane and a second set of gear teeth in a second plane .