mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications, comprising the steps of: assigning , by a base station, a mini-slot having a start symbol and a duration to a user equipment, UE; determining grant content for the LTE based on the current configuration of the data channel, the start symbol, and the duration; selecting a location of the grant within a control channel based on a property of the mini-slot; transmitting the grant from the base station on the control channel, the grant including the grant content; and communicating with the UE during the mini-slot according to the grant. assigning , by a base station, a mini-slot having a start symbol and a duration to a user equipment, UE; determining grant content for the LTE based on the current configuration of the data channel, the start symbol, and the duration; selecting a location of the grant within a control channel based on a property of the mini-slot; transmitting the grant from the base station on the control channel, the grant including the grant content; and communicating with the UE during the mini-slot according to the grant.
A system for releasing growth factors, the system comprising pulse generating circuitry , first and second electrodes , and a container containing a blood sample , wherein the first and second electrodes are coupled to the pulse generating circuitry and are disposed on either side of the container and further comprising: a non-transitory computer-readable memory storing one or more processor executable routines, wherein the processor executable routines, when executed, cause the pulse generating circuitry coupled to said first and second electrodes to supply a sequence of one or more electric pulses to the blood sample to trigger the release of the growth factors in the blood sample, the one or more electric pulses having an electric field strength between 0.1 kV/cm and 350 kV/cm and pulse durations between 1 nanosecond and 100 microseconds, wherein the blood sample does not comprise calcium chloride (CaCh) prior to or during the application of the sequence of the one or more electric pulses whereby the growth factor release is not accompanied by clotting within the blood sample; and further comprising a processor configured to access and execute the one or more processor executable routines stored in the computer-readable memory . a non-transitory computer-readable memory storing one or more processor executable routines, wherein the processor executable routines, when executed, cause the pulse generating circuitry coupled to said first and second electrodes to supply a sequence of one or more electric pulses to the blood sample to trigger the release of the growth factors in the blood sample, the one or more electric pulses having an electric field strength between 0.1 kV/cm and 350 kV/cm and pulse durations between 1 nanosecond and 100 microseconds, wherein the blood sample does not comprise calcium chloride (CaCh) prior to or during the application of the sequence of the one or more electric pulses whereby the growth factor release is not accompanied by clotting within the blood sample; and further comprising a processor configured to access and execute the one or more processor executable routines stored in the computer-readable memory .
A laser light source module having a semiconductor laser array obtained by arranging a plurality of semiconductor laser elements in an array pattern mounted thereon, comprising: - a stem ; - a plurality of power feeding lead pins arranged in a standing manner on the stem; - a heat sink made of a material excellent in thermal conductivity and is mounted on the stem ; - a sub-mount substrate made of a material excellent in insulation property and is mounted on the heat sink ; - a first lead frame made of a material excellent in electric conductivity and thermal conductivity and having a linear expansion coefficient similar to the linear expansion coefficient of the semiconductor laser array , mounted on the sub-mount substrate , having the semiconductor laser array mounted thereon, composing a power feeding path of the semiconductor laser array , and electrically bonded to the power feeding lead pins ; - a second lead frame made of a material excellent in electric conductivity and thermal conductivity, arranged on the sub-mount substrate side by side with the first lead frame , composing the power feeding path of the semiconductor laser array , and electrically bonded to other power feeding lead pins ; and - a wire for electrically bonding the semiconductor laser array and the second lead frame , wherein the semiconductor laser array , the first lead frame , the sub-mount substrate , and the heat sink are made of GaAs, CuW, AIN and Cu, respectively, as main components. - a stem ; - a plurality of power feeding lead pins arranged in a standing manner on the stem; - a heat sink made of a material excellent in thermal conductivity and is mounted on the stem ; - a sub-mount substrate made of a material excellent in insulation property and is mounted on the heat sink ; - a first lead frame made of a material excellent in electric conductivity and thermal conductivity and having a linear expansion coefficient similar to the linear expansion coefficient of the semiconductor laser array , mounted on the sub-mount substrate , having the semiconductor laser array mounted thereon, composing a power feeding path of the semiconductor laser array , and electrically bonded to the power feeding lead pins ; - a second lead frame made of a material excellent in electric conductivity and thermal conductivity, arranged on the sub-mount substrate side by side with the first lead frame , composing the power feeding path of the semiconductor laser array , and electrically bonded to other power feeding lead pins ; and - a wire for electrically bonding the semiconductor laser array and the second lead frame , wherein the semiconductor laser array , the first lead frame , the sub-mount substrate , and the heat sink are made of GaAs, CuW, AIN and Cu, respectively, as main components.
User equipment, UE, comprising an initiation unit , a first receiving unit , and a feedback unit ; wherein the initiation unit is configured to initiate a radio resource control, RRC, connection request message to a first base station to which a camped cell currently being camped on belongs; the first receiving unit is configured to receive a RRC connection setup message that carries an air interface resource of an access cell, wherein the access cell is a camped cell that is not of the UE and that is identified by the first base station; and the feedback unit is configured to feed back, in the access cell, a connection setup acknowledgement message to a base station to which the access cell belongs; characterized in that the RRC connection setup message further comprises mapping information of a radio bearer, RB, configuration information of an RB, and timing advance, TA, information used to adjust uplink sending; and the UE is configured to determine an uplink transmission configuration and a downlink transmission configuration according to the configuration information and the mapping information, and to determine, according to the TA information, a time of reporting the setup acknowledgement message.
A carriage apparatus comprising: a carriage configured to reciprocally move in a first direction (L, R); a first motor arranged on a side of one end of a range of movement of the carriage and configured to drive the carriage ; and a second motor arranged on a side of the other end of the range of movement of the carriage and configured to drive the carriage ; the carriage apparatus further comprises a first pulley attached to a first rotation shaft of the first motor ; a second pulley attached to a second rotation shaft of the second motor ; a carriage belt suspended between the first pulley and the second pulley , attached with the carriage , and configured to move the carriage in the first direction; characterized in that a support portion is configured to support the second motor so that the second motor is displaceable in the first direction with respect to the first motor . a carriage configured to reciprocally move in a first direction (L, R); a first motor arranged on a side of one end of a range of movement of the carriage and configured to drive the carriage ; and a second motor arranged on a side of the other end of the range of movement of the carriage and configured to drive the carriage ; the carriage apparatus further comprises a first pulley attached to a first rotation shaft of the first motor ; a second pulley attached to a second rotation shaft of the second motor ; a carriage belt suspended between the first pulley and the second pulley , attached with the carriage , and configured to move the carriage in the first direction; a first pulley attached to a first rotation shaft of the first motor ; a second pulley attached to a second rotation shaft of the second motor ; a carriage belt suspended between the first pulley and the second pulley , attached with the carriage , and configured to move the carriage in the first direction; characterized in that a support portion is configured to support the second motor so that the second motor is displaceable in the first direction with respect to the first motor .
An inertial filter placed in a fluid flow path for passage of a fluid containing nano-sized particles to collect the nano-sized particles in the fluid flow path by an effect of particle inertia, the inertial filter collecting the nano-sized particles having smaller particle sizes as a velocity of flow of the fluid is increased, the inertial filter including: a flow quantity adjusting nozzle located on an upstream side of the fluid flow path and having a diametrically-reduced through cavity diametrically smaller in the fluid passage direction, the flow quantity adjusting nozzle adjusting the velocity of fluid flow depending on different diameter reducing ratio of the diametrically-reduced through cavity; and a particle classifying sheet located further on a downstream side of the fluid flow path than the flow quantity adjusting nozzle and having a plurality of particle classifying holes uniformly arranged, the plurality of particle classifying holes being formed to collect the nano-sized particles by an effect of particle inertia, the particle classifying sheet having a sheet area larger than a downstream-side opening of the diametrically-reduced through cavity and being provided in the form of a partition wall dividing the fluid flow path in two sections in the fluid passage direction so as to block the downstream-side opening. a flow quantity adjusting nozzle located on an upstream side of the fluid flow path and having a diametrically-reduced through cavity diametrically smaller in the fluid passage direction, the flow quantity adjusting nozzle adjusting the velocity of fluid flow depending on different diameter reducing ratio of the diametrically-reduced through cavity; and a particle classifying sheet located further on a downstream side of the fluid flow path than the flow quantity adjusting nozzle and having a plurality of particle classifying holes uniformly arranged, the plurality of particle classifying holes being formed to collect the nano-sized particles by an effect of particle inertia, the particle classifying sheet having a sheet area larger than a downstream-side opening of the diametrically-reduced through cavity and being provided in the form of a partition wall dividing the fluid flow path in two sections in the fluid passage direction so as to block the downstream-side opening.
A computer-implemented method , comprising: determining, by a computing system that comprises one or more computing devices, one or more objects of interest having a predetermined manner of interaction with a lane sequence associated with a nominal path for an autonomous vehicle; determining, by the computing system, one or more keep clear areas associated with the lane sequence, each keep clear area indicative of a region along the nominal path in which gridlock prevention is desired; generating, by the computing system, a constraint for each of the one or more objects of interest and the one or more keep clear areas, wherein each constraint is defined as a constraint area in a multi-dimensional space; determining, by the computing system, and from a plurality of candidate trajectory paths, a low-cost trajectory path through a portion of the multi-dimensional space that minimizes exposure to the constraint areas and that is consistent with all constraints generated for the one or more objects of interest and the one or more keep clear areas; determining, by the computing system, a motion plan based at least in part on the low-cost trajectory path and a relative urgency factor indicative of the relative need or preference of a maneuver associated with the low-cost trajectory path; and controlling, by the computing system, motion of the autonomous vehicle based at least in part on the motion plan. determining, by a computing system that comprises one or more computing devices, one or more objects of interest having a predetermined manner of interaction with a lane sequence associated with a nominal path for an autonomous vehicle; determining, by the computing system, one or more keep clear areas associated with the lane sequence, each keep clear area indicative of a region along the nominal path in which gridlock prevention is desired; generating, by the computing system, a constraint for each of the one or more objects of interest and the one or more keep clear areas, wherein each constraint is defined as a constraint area in a multi-dimensional space; determining, by the computing system, and from a plurality of candidate trajectory paths, a low-cost trajectory path through a portion of the multi-dimensional space that minimizes exposure to the constraint areas and that is consistent with all constraints generated for the one or more objects of interest and the one or more keep clear areas; determining, by the computing system, a motion plan based at least in part on the low-cost trajectory path and a relative urgency factor indicative of the relative need or preference of a maneuver associated with the low-cost trajectory path; and controlling, by the computing system, motion of the autonomous vehicle based at least in part on the motion plan.
A method of dynamically monitoring one or more drivetrains of an industrial vehicle, comprising: observing a plurality of operating parameters of the industrial vehicle while the industrial vehicle is being operated; and determining whether a drivetrain failure has occurred using the operating parameters, wherein determining whether a drivetrain failure has occurred comprises: determining an expected speed of an inside traction motor based on a detected steer angle and a detected speed of an outside traction motor ; and determining if an actual speed of the inside traction motor is greater than the expected speed. observing a plurality of operating parameters of the industrial vehicle while the industrial vehicle is being operated; and determining whether a drivetrain failure has occurred using the operating parameters, wherein determining whether a drivetrain failure has occurred comprises: determining an expected speed of an inside traction motor based on a detected steer angle and a detected speed of an outside traction motor ; and determining if an actual speed of the inside traction motor is greater than the expected speed. determining an expected speed of an inside traction motor based on a detected steer angle and a detected speed of an outside traction motor ; and determining if an actual speed of the inside traction motor is greater than the expected speed.
Debug access port circuitry comprising: a debug interface configured to receive commands from a debugger ; a bus interface configured to couple to a bus to enable the debugger to access a memory system of a device, the device operating on data formed of data granules having associated metadata items, and the bus interface enabling communication of both the data granules and the metadata items over the bus between the memory system and the bus interface; a plurality of storage elements accessible via the commands issued from the debugger, such that the accesses performed within the memory system via the bus interface are controlled in dependence on the storage elements accessed by the commands; at least one of the storage elements comprising a metadata storage element to store a plurality of metadata items; and wherein the debug access port circuitry is responsive to at least one command from the debugger to perform an access to the memory system in order to transfer at least one of the plurality of metadata items between the metadata storage element and the memory system. a debug interface configured to receive commands from a debugger ; a bus interface configured to couple to a bus to enable the debugger to access a memory system of a device, the device operating on data formed of data granules having associated metadata items, and the bus interface enabling communication of both the data granules and the metadata items over the bus between the memory system and the bus interface; a plurality of storage elements accessible via the commands issued from the debugger, such that the accesses performed within the memory system via the bus interface are controlled in dependence on the storage elements accessed by the commands; at least one of the storage elements comprising a metadata storage element to store a plurality of metadata items; and wherein the debug access port circuitry is responsive to at least one command from the debugger to perform an access to the memory system in order to transfer at least one of the plurality of metadata items between the metadata storage element and the memory system.
Lyzate (Ly) of dedifferentiated cells of the plant Helichrysum stoechas in a form that is suitable for topical administration, for improving the moisturization of the skin and/or the scalp and/or the lips.
Valve unit for an installation for producing a medical preparation, particularly a parenteral nutrition preparation, comprising a housing with a plurality of inflows (3a-31) and one outflow , wherein the inflows (3a-31) are connectable to the outflow by means of valves , characterized in that the valves are configured as at least 3-way valves, wherein the valve comprises at least two inflows (3a-31) and one outflow , such that two source containers are connectable to a single valve .
Method for compensating variations in an attenuation of light of an optical filter of a light sensor system, wherein the variations in attenuation are caused by variations in the optical filter thickness from a nominal thickness and/or concentration of pigment or dye particles from a nominal concentration, the method comprising - illuminating a clear sensor (CS) and a color sensor (RS, GS, BS) of the light sensor system with a test light having a test spectrum, wherein - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - receiving, in particular in response to the illumination with the test light, a clear test signal generated by the clear sensor (CS) and a color test signal generated by the color sensor (RS, GS, BS); - determining a first transmission value T based on the clear test signal and on the color test signal; - calculating a compensation factor Kr, Kg, Kb to compensate the variations in the attenuation of light based on the first transmission value T and a nominal transmission value Tn of the optical filter; - compensating the variations in attenuation of light of the optical filter by generating at least one compensated color signal r_comp, g_comp, b_comp according to at least one respective formula of the formulae: r _ comp = Kr * r , g _ comp = Kg * g , b _ comp = Kb * b . - illuminating a clear sensor (CS) and a color sensor (RS, GS, BS) of the light sensor system with a test light having a test spectrum, wherein - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - receiving, in particular in response to the illumination with the test light, a clear test signal generated by the clear sensor (CS) and a color test signal generated by the color sensor (RS, GS, BS); - determining a first transmission value T based on the clear test signal and on the color test signal; - calculating a compensation factor Kr, Kg, Kb to compensate the variations in the attenuation of light based on the first transmission value T and a nominal transmission value Tn of the optical filter; - compensating the variations in attenuation of light of the optical filter by generating at least one compensated color signal r_comp, g_comp, b_comp according to at least one respective formula of the formulae: r _ comp = Kr * r , g _ comp = Kg * g , b _ comp = Kb * b .