mhurhangee/patent-ind-claim-en huggingface dataset:
A system for measuring capillary electrophoresis current, the system comprising: a plurality of capillaries , wherein each capillary has a cathode end and an anode end; an anode buffer , wherein the anode ends of the capillaries are immersed in the anode buffer, a plurality of cathode buffers , wherein each of the cathode buffers is configured to be electrically isolated from the other cathode buffers, each cathode buffer is associated with one capillary of the plurality of capillaries, and the cathode end of each capillary is immersed in its associated cathode buffer; a high voltage supply connected to the anode buffer and to a plurality of current sensors , each current sensor associated with one capillary of the plurality of capillaries for measuring current. a plurality of capillaries , wherein each capillary has a cathode end and an anode end; an anode buffer , wherein the anode ends of the capillaries are immersed in the anode buffer, a plurality of cathode buffers , wherein each of the cathode buffers is configured to be electrically isolated from the other cathode buffers, each cathode buffer is associated with one capillary of the plurality of capillaries, and the cathode end of each capillary is immersed in its associated cathode buffer; a high voltage supply connected to the anode buffer and to a plurality of current sensors , each current sensor associated with one capillary of the plurality of capillaries for measuring current.
A three-gear pump system comprising: a housing; a three-gear configuration within the housing that pumps fluid from a fluid inlet to a fluid outlet, the three-gear configuration comprising: a center drive gear ; a first driven gear and a second driven gear positioned on opposite sides of the drive gear, and the drive gear meshes with the driven gears to drive the driven gears; and the driven gears are radially supported within the housing by a bearing structure for rotation of the driven gears about respective axes; and characterised in that the drive gear is free to float radially relative to the driven gears. a housing; a three-gear configuration within the housing that pumps fluid from a fluid inlet to a fluid outlet, the three-gear configuration comprising: a center drive gear ; a first driven gear and a second driven gear positioned on opposite sides of the drive gear, and the drive gear meshes with the driven gears to drive the driven gears; and the driven gears are radially supported within the housing by a bearing structure for rotation of the driven gears about respective axes; and characterised in that the drive gear is free to float radially relative to the driven gears. a center drive gear ; a first driven gear and a second driven gear positioned on opposite sides of the drive gear, and the drive gear meshes with the driven gears to drive the driven gears; and the driven gears are radially supported within the housing by a bearing structure for rotation of the driven gears about respective axes; and characterised in that the drive gear is free to float radially relative to the driven gears.
An armrest for a chair, comprising: a first member , the first member comprising: a body extending in a longitudinal direction from a first end to a second end, wherein the body comprises one or more recesses ; and one or more magnets disposed in the one or more recesses , each of the recesses being configured based on the shape of the magnets such that each magnet fits snugly in a respective recess , wherein the one or magnets are securely retained in the one or more recesses ; and a second member releasably attached to the first member , the second member comprising: a cavity configured to receive the first member ; and one or more magnetizable plate members disposed in the cavity , wherein the one or more magnetizable plate members are adjacent the one or more magnets when the first member is received in the cavity . a first member , the first member comprising: a body extending in a longitudinal direction from a first end to a second end, wherein the body comprises one or more recesses ; and one or more magnets disposed in the one or more recesses , each of the recesses being configured based on the shape of the magnets such that each magnet fits snugly in a respective recess , wherein the one or magnets are securely retained in the one or more recesses ; and a body extending in a longitudinal direction from a first end to a second end, wherein the body comprises one or more recesses ; and one or more magnets disposed in the one or more recesses , each of the recesses being configured based on the shape of the magnets such that each magnet fits snugly in a respective recess , wherein the one or magnets are securely retained in the one or more recesses ; and a second member releasably attached to the first member , the second member comprising: a cavity configured to receive the first member ; and one or more magnetizable plate members disposed in the cavity , wherein the one or more magnetizable plate members are adjacent the one or more magnets when the first member is received in the cavity . a cavity configured to receive the first member ; and one or more magnetizable plate members disposed in the cavity , wherein the one or more magnetizable plate members are adjacent the one or more magnets when the first member is received in the cavity .
Switching device for controlling an accelerating, braking and steering system of a vehicle with at least two separate motors for operating the accelerating and braking system and at least two separate motors for operating the steering system, and with at least one electronic control unit for controlling the at least two separate motors for operating the accelerating and braking system as well as the at least two separate motors for operating the steering system, characterised in that the at least one control unit has three identical CPUs (CPU1, CPU2, CPU3) and a programmable logic unit , in which, depending on input control signals as well as sensor signals from the motors , each of the CPUs (CPU1, CPU2, CPU3) produces control signals for the motors and forwards them to the programmable logic unit , which, depending on its programming, forwards the control signals from one of the CPUs (CPU1, CPU2, CPU3) to the motors , and each CPU (CPU1, CPU2, CPU3) receives the control signals from both of the other CPUs and compares them with its own control signals and forwards the result of the comparison to the programmable logic unit , so that, apart from direct signals from the CPUs (CPU1, CPU2, CPU3), the logic unit also receives the results of the comparison of the signals from both of the adjacent CPUS (CPU1, CPU2, CPU3).
An upright vacuum cleaner , comprising: a brushroll; a motor assembly comprising a motor housing and a motor disposed within the motor housing , wherein a rotating axis of the motor and a rotating axis of the brushroll are disposed in a non-parallel manner, and the motor drives the brushroll rolling by a drive belt ; characterized in that , the motor is rotatable between a first upright position of tensioning the drive belt and a first oblique position of loosening the drive belt ; a body assembly comprising a body , a bridging member mounted on the body and a cyclonic separating device , wherein the bridging member is rotatably connected with the motor housing to make the body rotatable between a second upright position and a second oblique position; wherein the bridging member makes the motor to move from the first oblique position to the first upright position when the body moves from the second upright position to the second oblique position. a brushroll; a motor assembly comprising a motor housing and a motor disposed within the motor housing , wherein a rotating axis of the motor and a rotating axis of the brushroll are disposed in a non-parallel manner, and the motor drives the brushroll rolling by a drive belt ; characterized in that , the motor is rotatable between a first upright position of tensioning the drive belt and a first oblique position of loosening the drive belt ; a body assembly comprising a body , a bridging member mounted on the body and a cyclonic separating device , wherein the bridging member is rotatably connected with the motor housing to make the body rotatable between a second upright position and a second oblique position; wherein the bridging member makes the motor to move from the first oblique position to the first upright position when the body moves from the second upright position to the second oblique position.
An imaging lens consisting of: a negative first lens (L1); a negative second lens (L2); a third lens (L3) of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side; and a fourth lens (L4) of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side, characterized in that the following conditional formula is satisfied: 1.0 < D 2 / f < 2.5 where f: a focal length of an entire system, and D2: a distance on an optical axis between the first lens (L1) and the second lens (L2). a negative first lens (L1); a negative second lens (L2); a third lens (L3) of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side; and a fourth lens (L4) of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side, characterized in that the following conditional formula is satisfied: 1.0 < D 2 / f < 2.5 where f: a focal length of an entire system, and D2: a distance on an optical axis between the first lens (L1) and the second lens (L2). f: a focal length of an entire system, and D2: a distance on an optical axis between the first lens (L1) and the second lens (L2).
A negative electrode for a rechargeable lithium battery, comprising a current collector; and a negative active material layer disposed on the current collector and including a carbon-based negative active material that is artificial graphite or a mixture of artificial graphite and natural graphite, wherein a DD (Degree of Divergence) value defined by Equation 1 is greater than or equal to about 19 and less than or equal to about 60: DD Degree of Divergence = I a / I total * 100 wherein, in Equation 1, I a is a sum of peak intensities at 2θ=42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ = 26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray. a current collector; and a negative active material layer disposed on the current collector and including a carbon-based negative active material that is artificial graphite or a mixture of artificial graphite and natural graphite, wherein a DD (Degree of Divergence) value defined by Equation 1 is greater than or equal to about 19 and less than or equal to about 60: DD Degree of Divergence = I a / I total * 100 wherein, in Equation 1, I a is a sum of peak intensities at 2θ=42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ = 26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray.
An implant delivery system comprising: an implant (10a; 10b; 10c; lOd; 10e; 20; 30; 40; 50) for inhibiting blood flow through a vein, said implant comprising an elastic elongate member having a distal end (12a; 12b; 12c; 12d; 12e; 24; 34; 44; 54) and a proximal end (14a; 14b; 14c; 14d; 14e; 22; 32; 42; 52), wherein the distal and proximal ends are each pre-shaped to assume a delivery configuration when constrained and an anchor configuration when unconstrained, wherein the distal and proximal ends when in their anchor configurations are separated by a middle region (26; 36; 46; 56) which controls the distance between opposed walls of a vein when the implant is implanted in the vein with each anchor on an exterior surface of a wall of the vein; and a delivery cannula configured to penetrate opposite walls of a vein, to carry the implant in a constrained configuration across the walls, and to release the implant so that the distal anchor is positioned against an external surface of a distal site on the wall and the proximal anchor is positioned against an external surface of a proximal site on the wall, characterised in that the cannula comprises an inner needle and an outer mandrel , wherein the distal end of the elongate member is removably secured to the needle and the proximal end of the implant is removably secured to the mandrel so that rotation of the needle relative to the mandrel in a first direction coils the elongate member more tightly over the cannula and rotation of the needle in an opposite direction releases the elongate member from the cannula . an implant (10a; 10b; 10c; lOd; 10e; 20; 30; 40; 50) for inhibiting blood flow through a vein, said implant comprising an elastic elongate member having a distal end (12a; 12b; 12c; 12d; 12e; 24; 34; 44; 54) and a proximal end (14a; 14b; 14c; 14d; 14e; 22; 32; 42; 52), wherein the distal and proximal ends are each pre-shaped to assume a delivery configuration when constrained and an anchor configuration when unconstrained, wherein the distal and proximal ends when in their anchor configurations are separated by a middle region (26; 36; 46; 56) which controls the distance between opposed walls of a vein when the implant is implanted in the vein with each anchor on an exterior surface of a wall of the vein; and a delivery cannula configured to penetrate opposite walls of a vein, to carry the implant in a constrained configuration across the walls, and to release the implant so that the distal anchor is positioned against an external surface of a distal site on the wall and the proximal anchor is positioned against an external surface of a proximal site on the wall, characterised in that the cannula comprises an inner needle and an outer mandrel , wherein the distal end of the elongate member is removably secured to the needle and the proximal end of the implant is removably secured to the mandrel so that rotation of the needle relative to the mandrel in a first direction coils the elongate member more tightly over the cannula and rotation of the needle in an opposite direction releases the elongate member from the cannula .
Construction vehicle which is a road finisher or a feeder vehicle for a road finisher, comprising: a drive for providing a drive function of the construction vehicle ; an internal network area of the construction vehicle , the internal network area comprising a computing unit for controlling an operation of the construction vehicle ; an external network area of the construction vehicle , the external network area being in data communication connection with the internal network area , characterized by a firewall configured to monitor data communication from the external network area of the construction vehicle to the internal network area of the construction vehicle , wherein the firewall has its own processor and its own operating system. a drive for providing a drive function of the construction vehicle ; an internal network area of the construction vehicle , the internal network area comprising a computing unit for controlling an operation of the construction vehicle ; an external network area of the construction vehicle , the external network area being in data communication connection with the internal network area , characterized by a firewall configured to monitor data communication from the external network area of the construction vehicle to the internal network area of the construction vehicle , wherein the firewall has its own processor and its own operating system.
A photoelectric conversion element , comprising: a first electrode ; a photoelectric conversion layer; and a second electrode , wherein the photoelectric conversion layer includes a hole-transporting layer , the hole-transporting layer includes lithium salt having an asymmetric structure, and characterized in that an amount of a solvent per unit volume of the hole-transporting layer is 5.4 to 30 μg/mm 3 . a first electrode ; a photoelectric conversion layer; and a second electrode , wherein the photoelectric conversion layer includes a hole-transporting layer , the hole-transporting layer includes lithium salt having an asymmetric structure, and characterized in that an amount of a solvent per unit volume of the hole-transporting layer is 5.4 to 30 μg/mm 3 .
A method for policy determination, comprising: receiving, by User Equipment, UE, first information transmitted by a network device, the first information comprising a first UE policy, wherein the network device divides the first UE policy into one or more sections when transmitting to the UE, wherein each section comprises one or more UE policy section contents, wherein each UE policy section content comprises one or more UE policy parts, wherein each UE policy part comprises a policy type corresponding to the first UE policy; wherein the network device is a Policy Control Function, PCF, the first information is encapsulated into a container by the PCF for transmitting to a Core Access and Mobility Management Function, AMF, and the container is transparently transmitted to the UE by the AMF; wherein the policy type corresponding to the first UE policy comprises at least one of a PC5 interface-based Vehicle to Everything, V2X, policy or a Uu interface-based V2X policy, wherein the first information further comprises: a trigger condition for the UE to transmit a first request message to the network device to update the first UE policy corresponding to the policy type, wherein the UE determines when to transmit the first request message to the network device according to the trigger condition, and wherein the trigger condition is at least one of a time from which the first UE policy expires, and a duration in which the first UE policy is valid. receiving, by User Equipment, UE, first information transmitted by a network device, the first information comprising a first UE policy, wherein the network device divides the first UE policy into one or more sections when transmitting to the UE, wherein each section comprises one or more UE policy section contents, wherein each UE policy section content comprises one or more UE policy parts, wherein each UE policy part comprises a policy type corresponding to the first UE policy; wherein the network device is a Policy Control Function, PCF, the first information is encapsulated into a container by the PCF for transmitting to a Core Access and Mobility Management Function, AMF, and the container is transparently transmitted to the UE by the AMF; wherein the policy type corresponding to the first UE policy comprises at least one of a PC5 interface-based Vehicle to Everything, V2X, policy or a Uu interface-based V2X policy, wherein the first information further comprises: a trigger condition for the UE to transmit a first request message to the network device to update the first UE policy corresponding to the policy type, wherein the UE determines when to transmit the first request message to the network device according to the trigger condition, and wherein the trigger condition is at least one of a time from which the first UE policy expires, and a duration in which the first UE policy is valid.
Method for controlling the starting of a heat engine of a hybrid powertrain also comprising a traction drive machine powered by an energy accumulator capable of being coupled to the heat engine in the event of detection of a start request so as to rotate the heat engine at a target engine speed at which the first combustion of the engine is triggered, the method being characterized in that it comprises the following successive steps - in the event of detection of a start request, the determination of the power of energy deliverable by the accumulator to the said prime mover at the instant of the detection of the said query, - when said energy power is greater than a predetermined threshold, the triggering of a first start-up procedure (Dm1) consisting in driving the heat engine in rotation by the driving machine until reach a first target engine speed (R1), - and when said power is lower than said threshold, the triggering of a second start-up procedure (Dm2) consisting in driving the thermal engine in rotation by the prime mover until reaching a second speed engine target (R2) lower than the first target speed (R1), this method further comprising, in the event of detection of a failure of the first starting procedure (Dm1), the triggering of the second procedure start (Dm2). - in the event of detection of a start request, the determination of the power of energy deliverable by the accumulator to the said prime mover at the instant of the detection of the said query, - when said energy power is greater than a predetermined threshold, the triggering of a first start-up procedure (Dm1) consisting in driving the heat engine in rotation by the driving machine until reach a first target engine speed (R1), - and when said power is lower than said threshold, the triggering of a second start-up procedure (Dm2) consisting in driving the thermal engine in rotation by the prime mover until reaching a second speed engine target (R2) lower than the first target speed (R1), this method further comprising, in the event of detection of a failure of the first starting procedure (Dm1), the triggering of the second procedure start (Dm2).
A terminal apparatus comprising: a higher layer processor configured to set a type of transmission time interval, TTI, for a physical channel based on a parameter; and a transmitter configured to perform an uplink transmission using the physical channel, wherein a first physical channel is used to transmit a first number of Hybrid Automatic Repeat Request-Acknowledgements, HARQ-ACKs, in a first type of TTI, a second physical channel is used to transmit a second number of HARQ-ACKs in a second type of TTI, a length of the first type of TTI is longer than a length of the second type of TTI, the first number of HARQ-ACKs depends on the length of the first type of TTI, the second number of HARQ-ACKs depends on the length of the second type of TTI, the first number of HARQ-ACKs is smaller than the second number of HARQ-ACKs in a certain duration, and the transmitter is configured to drop a transmission of the first physical channel with the first type of TTI in a case that the transmission of the first physical channel collides with a transmission of the second physical channel with the second type of TTI in a subframe. a higher layer processor configured to set a type of transmission time interval, TTI, for a physical channel based on a parameter; and a transmitter configured to perform an uplink transmission using the physical channel, wherein a first physical channel is used to transmit a first number of Hybrid Automatic Repeat Request-Acknowledgements, HARQ-ACKs, in a first type of TTI, a second physical channel is used to transmit a second number of HARQ-ACKs in a second type of TTI, a length of the first type of TTI is longer than a length of the second type of TTI, the first number of HARQ-ACKs depends on the length of the first type of TTI, the second number of HARQ-ACKs depends on the length of the second type of TTI, the first number of HARQ-ACKs is smaller than the second number of HARQ-ACKs in a certain duration, and the transmitter is configured to drop a transmission of the first physical channel with the first type of TTI in a case that the transmission of the first physical channel collides with a transmission of the second physical channel with the second type of TTI in a subframe.