mhurhangee/ep-ind-claims huggingface dataset:
An automatic cleaning apparatus, comprising: a chassis; a front housing arranged at a front end of the chassis; and a sensing device that senses movement of the front housing and sends a signal to a control mainboard of the automatic cleaning apparatus when the front housing touches an obstacle and moves relative to the chassis, wherein: the sensing device comprises a dust blocking member and a rocker arm, the rocker arm triggers the sensing device to send the signal; a first end of the rocker arm is rotatably arranged inside the sensing device, and a second end of the rocker arm passes through the dust blocking member and extends out of the sensing device; and a front housing reset device is arranged on the chassis and capable of biasing the front housing toward an initial position of the front housing. a chassis; a front housing arranged at a front end of the chassis; and a sensing device that senses movement of the front housing and sends a signal to a control mainboard of the automatic cleaning apparatus when the front housing touches an obstacle and moves relative to the chassis, wherein: the sensing device comprises a dust blocking member and a rocker arm, the rocker arm triggers the sensing device to send the signal; a first end of the rocker arm is rotatably arranged inside the sensing device, and a second end of the rocker arm passes through the dust blocking member and extends out of the sensing device; and a front housing reset device is arranged on the chassis and capable of biasing the front housing toward an initial position of the front housing. the sensing device comprises a dust blocking member and a rocker arm, the rocker arm triggers the sensing device to send the signal; a first end of the rocker arm is rotatably arranged inside the sensing device, and a second end of the rocker arm passes through the dust blocking member and extends out of the sensing device; and a front housing reset device is arranged on the chassis and capable of biasing the front housing toward an initial position of the front housing.
An optical fiber module comprising: - a container for accommodating an optical fiber coil, the container having a first accommodating part and a second accommodating part with the second accommodating part being disposed on an outer periphery side of the first accommodating part, the second accommodating part having a gap extending along an entire outer periphery wall of the second accommodating part so that the second accommodating part communicates with an exterior via the gap; - an optical fiber coil having a functional optical fiber accommodated in the first accommodating part of the container; and characterized by - a pigtail optical fiber that is optically connected to the functional optical fiber with an excess length portion of the pigtail optical fiber windingly accommodated in the second accommodating part of the container. - a container for accommodating an optical fiber coil, the container having a first accommodating part and a second accommodating part with the second accommodating part being disposed on an outer periphery side of the first accommodating part, the second accommodating part having a gap extending along an entire outer periphery wall of the second accommodating part so that the second accommodating part communicates with an exterior via the gap; - an optical fiber coil having a functional optical fiber accommodated in the first accommodating part of the container; and characterized by - a pigtail optical fiber that is optically connected to the functional optical fiber with an excess length portion of the pigtail optical fiber windingly accommodated in the second accommodating part of the container.
A transduction method, comprising incubating, in an internal cavity of a centrifugal chamber, an input composition comprising cells and viral particles containing a recombinant viral vector, wherein said centrifugal chamber is rotatable around an axis of rotation and the cavity has variable volume, and further comprises at least one opening being capable of permitting intake of liquid into said internal cavity and expression of liquid from said cavity; the centrifugal chamber is rotating around said axis of rotation during at least a portion of the incubation; and the method generates an output composition comprising a plurality of the cells transduced with the viral vector. said centrifugal chamber is rotatable around an axis of rotation and the cavity has variable volume, and further comprises at least one opening being capable of permitting intake of liquid into said internal cavity and expression of liquid from said cavity; the centrifugal chamber is rotating around said axis of rotation during at least a portion of the incubation; and the method generates an output composition comprising a plurality of the cells transduced with the viral vector.
A formulation comprising a heterogeneous renal population for use in treating kidney disease in a human subject, wherein the heterogeneous renal population is prepared from a kidney sample of the human subject, wherein the heterogeneous renal population is identified as suitable for eliciting a regenerative response in a kidney of the patient by use of the formulation according to a method comprising: determining that: (i) greater than 4.5% of cells of the heterogeneous renal cell population express GGT-1; (ii) greater than 80% of cells of the heterogeneous renal cell population express a cytokeratin; and (iii) cells of the heterogeneous renal cell population secrete VEGF and KIM-1; and wherein the formulation is for administration by injection. wherein the heterogeneous renal population is prepared from a kidney sample of the human subject, wherein the heterogeneous renal population is identified as suitable for eliciting a regenerative response in a kidney of the patient by use of the formulation according to a method comprising: determining that: (i) greater than 4.5% of cells of the heterogeneous renal cell population express GGT-1; (ii) greater than 80% of cells of the heterogeneous renal cell population express a cytokeratin; and (iii) cells of the heterogeneous renal cell population secrete VEGF and KIM-1; and
An integrated inserter, comprising: a body (10, 100, 200) comprising a needle hub (16, 110, 208) and needle (20, 138, 230); a spring (18, 120, 210) disposed in said body and configured to urge said needle hub and needle into a down position upon release, wherein said spring is configured to insert said needle into the skin at a controlled rate of speed; and a release mechanism, configured to releasably secure at least one of said spring and said needle hub in an up position, characterized in that, the release mechanism comprises: a pull tab extending from said body and having a first end comprising a detent for releasably securing at least one of said spring and said needle hub in an up position, and a second end comprising a user-graspable surface. a body (10, 100, 200) comprising a needle hub (16, 110, 208) and needle (20, 138, 230); a spring (18, 120, 210) disposed in said body and configured to urge said needle hub and needle into a down position upon release, wherein said spring is configured to insert said needle into the skin at a controlled rate of speed; and a release mechanism, configured to releasably secure at least one of said spring and said needle hub in an up position, a pull tab extending from said body and having a first end comprising a detent for releasably securing at least one of said spring and said needle hub in an up position, and a second end comprising a user-graspable surface.
A random access method, comprising: sending, by a terminal device, a first message to a network device, wherein the first message comprises a random access preamble and a first physical uplink shared channel, PUSCH, and the first PUSCH comprises data obtained from rate matching, performed by the terminal device, on a first transport block; and receiving, by the terminal device, downlink control information, DCI, sent by the network device, wherein the DCI is sent in response to the first message; characterized in that, the DCI is used for scheduling a physical downlink shared channel, PDSCH, which comprises data obtained from rate matching, performed by the network device, on a second transport block, wherein the second transport block comprises information in response to the first transport block; sending, by the terminal device, a negative acknowledgement to the network device if the terminal device receives the DCI and fails to decode the PDSCH. sending, by a terminal device, a first message to a network device, wherein the first message comprises a random access preamble and a first physical uplink shared channel, PUSCH, and the first PUSCH comprises data obtained from rate matching, performed by the terminal device, on a first transport block; and receiving, by the terminal device, downlink control information, DCI, sent by the network device, wherein the DCI is sent in response to the first message; characterized in that, the DCI is used for scheduling a physical downlink shared channel, PDSCH, which comprises data obtained from rate matching, performed by the network device, on a second transport block, wherein the second transport block comprises information in response to the first transport block; sending, by the terminal device, a negative acknowledgement to the network device if the terminal device receives the DCI and fails to decode the PDSCH.
Solid oral pharmaceutical dosage form comprising ticagrelor or a pharmaceutically acceptable salt or ester thereof, characterized in that at least 90 % by volume of the ticagrelor particles have a particle size in the range of 1 μm to 150 μm.
A power-over-Ethernet PoE control system comprising: a powered device PD that is configured to receive a voltage signal via an Ethernet connection, and which includes a PoE signal receiver configured to indicate a nominal power level via the received voltage signal; and a power sourcing equipment PSE device configured to generate the voltage signal and to measure a class current of the voltage signal to determine the nominal power level, the PSE device including a PoE controller configured to provide a power setting command as a function of the nominal power level to the PoE signal receiver via the voltage signal, so the PD can operate at a power level that is based on the power setting command. a powered device PD that is configured to receive a voltage signal via an Ethernet connection, and which includes a PoE signal receiver configured to indicate a nominal power level via the received voltage signal; and a power sourcing equipment PSE device configured to generate the voltage signal and to measure a class current of the voltage signal to determine the nominal power level, the PSE device including a PoE controller configured to provide a power setting command as a function of the nominal power level to the PoE signal receiver via the voltage signal, so the PD can operate at a power level that is based on the power setting command.
Vertical take-off and landing flying machine with electric drive equipped with communication, navigation and control systems, comprising a central body which is used as mounting space for two multi-blade turbines, a top multi-blade turbine and a bottom multi-blade turbine, mounted coaxially on magnetic bearings (4, 16) and which are counter-rotating after start process; wherein the central body is a conically shaped central body which has at its top area a linear drive circumferentially installed, used for driving the top multi-blade turbine and also comprises at its bottom area another linear drive, circumferentially installed and used for driving the bottom multi-blade turbine and wherein between the linear drives (3, 17) there are mounted rigid, horizontal beams to which an external ring is installed; the top multi-blade turbine and the bottom multi-blade turbine are both conical main turbines and which are facing towards each other at the bigger, circular base and are both mounted on the magnetic bearings (4, 16) which are mounted circumferentially and double-sided towards the edge of the external ring; the external ring has oppositely installed at least two stabilization nozzles (14A, 14B) for obtaining the rotational stabilization of the central body and between these nozzles at least four drive nozzles (15A, 15B, 15C, 15D) are mounted, for obtaining the desired thrust for horizontal flight; the area of the top turbine blades is bigger than the area of the bottom turbine blade.
A blood measuring apparatus comprising: first and second chambers (11, 12) which communicate with each other through an aperture, wherein the aperture is formed in a partition wall that separates the first and second chambers from each other first and second electrodes (21, 22) which are provided with the first and second chambers (11, 12), respectively; a liquid supply source which is configured to store a sheath liquid, and which is configured to apply a pressure to supply the sheath liquid to the first and second chambers (11, 12), the pressure of the sheath liquid to be supplied to the first chamber is different from the pressure of the sheath liquid to be supplied to the second chamber; a sheath flow generator which is configured to send a blood sample supplied to the first chamber, to the aperture while causing the blood sample to be converged by a sheath flow due to the sheath liquid supplied from the liquid supply source; and a swirling flow generator which is configured to cause the blood sample in the second chamber, to be converged by a swirling flow due to the sheath liquid supplied from the liquid supply source, thereby allowing the blood sample to flow in a direction separating from the aperture, characterized in that the first chamber has a truncated conical shape in which the diameter gets smaller in a tapered manner with progressing from the first electrode toward the aperture, and the second chamber has a truncated conical shape in which the diameter gets smaller in a tapered manner with progressing from the partition wall toward the second electrode. first and second chambers (11, 12) which communicate with each other through an aperture, wherein the aperture is formed in a partition wall that separates the first and second chambers from each other first and second electrodes (21, 22) which are provided with the first and second chambers (11, 12), respectively; a liquid supply source which is configured to store a sheath liquid, and which is configured to apply a pressure to supply the sheath liquid to the first and second chambers (11, 12), the pressure of the sheath liquid to be supplied to the first chamber is different from the pressure of the sheath liquid to be supplied to the second chamber; a sheath flow generator which is configured to send a blood sample supplied to the first chamber, to the aperture while causing the blood sample to be converged by a sheath flow due to the sheath liquid supplied from the liquid supply source; and a swirling flow generator which is configured to cause the blood sample in the second chamber, to be converged by a swirling flow due to the sheath liquid supplied from the liquid supply source, thereby allowing the blood sample to flow in a direction separating from the aperture, characterized in that the first chamber has a truncated conical shape in which the diameter gets smaller in a tapered manner with progressing from the first electrode toward the aperture, and the second chamber has a truncated conical shape in which the diameter gets smaller in a tapered manner with progressing from the partition wall toward the second electrode.
A communication method performed by a User Equipment, UE, the communication method comprising: receiving, from a Base Station, BS, Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH that schedules a Physical Downlink Shared Channel, PDSCH and carries a value of KO and a value of K1, wherein KO is a first slot offset between the PDCCH and the PDSCH, and K1 is used to determine a second slot offset between the PDSCH and a Physical Uplink Control Channel, PUCCH, for transmitting a Hybrid Automatic Repeat request, HARQ, Acknowledgement, ACK, feedback corresponding to a data reception on the PDSCH; receiving a Medium Access Control, MAC, Control Element, CE, command on the PDSCH; and in a case that a transmission of the HARQ ACK feedback is enabled, applying the MAC CE command in a first upcoming slot after a first slot identified by a first value of n+K0+K1+Np+M, where n is an index of a slot in which the DCI is received, Np indicates an approximation for a propagation delay, and M indicates a MAC CE parsing time, wherein Np is determined as ┌ a common Timing Advance, TA, value/2┐,, where ┌ ┐refers to a ceiling function, and the common TA value is included in system information broadcast by the BS. receiving, from a Base Station, BS, Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH that schedules a Physical Downlink Shared Channel, PDSCH and carries a value of KO and a value of K1, wherein KO is a first slot offset between the PDCCH and the PDSCH, and K1 is used to determine a second slot offset between the PDSCH and a Physical Uplink Control Channel, PUCCH, for transmitting a Hybrid Automatic Repeat request, HARQ, Acknowledgement, ACK, feedback corresponding to a data reception on the PDSCH; receiving a Medium Access Control, MAC, Control Element, CE, command on the PDSCH; and in a case that a transmission of the HARQ ACK feedback is enabled, applying the MAC CE command in a first upcoming slot after a first slot identified by a first value of n+K0+K1+Np+M, where n is an index of a slot in which the DCI is received, Np indicates an approximation for a propagation delay, and M indicates a MAC CE parsing time, wherein Np is determined as ┌ a common Timing Advance, TA, value/2┐,, where ┌ ┐refers to a ceiling function, and the common TA value is included in system information broadcast by the BS.
A method for controlling a cleaning robot having a cleaning pad, comprising: executing a wall following behavior by maintaining continuous contact between a wall surface and the robot's cleaning pad while maintaining a slight angle between the robot and the wall surface, characterized by: using a sensor of the robot to enable continuous contact between the robot's cleaning pad and the wall surface while the robot tracks the wall surface. executing a wall following behavior by maintaining continuous contact between a wall surface and the robot's cleaning pad while maintaining a slight angle between the robot and the wall surface, characterized by: using a sensor of the robot to enable continuous contact between the robot's cleaning pad and the wall surface while the robot tracks the wall surface.
A method of predicting, before seroconversion, a risk of a subject for Type 1 diabetes (T1D) comprising the following steps: a) providing a sample obtained from said subject, b) determining a gene expression profile of at least C17orf97 in said sample, and c) using said gene expression profile for the prediction of the probability of the subject to develop T1D. a) providing a sample obtained from said subject, b) determining a gene expression profile of at least C17orf97 in said sample, and c) using said gene expression profile for the prediction of the probability of the subject to develop T1D.
A semiconductor device comprising: a semiconductor die including a central region (CREG) and a peripheral region (PREG) surrounding the central region (CREG); a defect detection circuit in the peripheral region (PREG), the defect detection circuit arranged in an open conduction loop, the defect detection circuit comprising a plurality of latch circuits (LC1~LCm) and a plurality of defect detection conduction paths (CDP1~CDPm-1), each defect detection conduction path of the plurality of defect detection conduction paths (CDP1~CDPm-1) connecting two adjacent latch circuits of the plurality of latch circuits (LC1~LCm); and a test control circuitry configured to perform (a) a test write operation by sequentially transferring bits (B1~Bm) of an input data pattern in a forward direction of the open conduction loop to cause the plurality of latch circuits (LC1~LCm) to store the bits of the input data pattern in the plurality of latch circuits (LC1∼LC1m, characterised in that the test control circuitry is further configured to perform (b) a test read operation by transferring bits (B1~Bm) stored in the plurality of latch circuits (LC1~LCm) in a backward direction of the open conduction loop to read out an output data pattern. a semiconductor die including a central region (CREG) and a peripheral region (PREG) surrounding the central region (CREG); a defect detection circuit in the peripheral region (PREG), the defect detection circuit arranged in an open conduction loop, the defect detection circuit comprising a plurality of latch circuits (LC1~LCm) and a plurality of defect detection conduction paths (CDP1~CDPm-1), each defect detection conduction path of the plurality of defect detection conduction paths (CDP1~CDPm-1) connecting two adjacent latch circuits of the plurality of latch circuits (LC1~LCm); and a test control circuitry configured to perform (a) a test write operation by sequentially transferring bits (B1~Bm) of an input data pattern in a forward direction of the open conduction loop to cause the plurality of latch circuits (LC1~LCm) to store the bits of the input data pattern in the plurality of latch circuits (LC1∼LC1m, characterised in that the test control circuitry is further configured to perform (b) a test read operation by transferring bits (B1~Bm) stored in the plurality of latch circuits (LC1~LCm) in a backward direction of the open conduction loop to read out an output data pattern.
Gas measuring device which is mobile, such as able to be sent into space, for performing a measurement relating to a concentration of a gas, such as nitrogen oxides, such as nitrogen dioxides, in a gas mixture such as air, comprising: - a reaction chamber suitable for holding a liquid reaction mixture for the purpose of bringing the gas into contact therein with the liquid reaction mixture; - gas feed means, such as comprising a gas mixture feed tube, for feeding the gas mixture to the reaction chamber; - gas discharge means, such as comprising a gas mixture discharge tube, for discharging gas from the reaction chamber; - at least one photoelectric element, such as a photodiode, for converting photons, which are released during a reaction between the gas and the liquid reaction mixture, to electrical energy; - a processing circuit, such as an amplification circuit for a sampling circuit,for the purpose of providing a signal for sampling corresponding to a value of the released photons, wherein the gas feed means are arranged to introduce the gas into the reaction chamber at or close to the underside or at least such that an ascent path of the gas in the reaction chamber is possible under the influence of the Archimedean force. - a reaction chamber suitable for holding a liquid reaction mixture for the purpose of bringing the gas into contact therein with the liquid reaction mixture; - gas feed means, such as comprising a gas mixture feed tube, for feeding the gas mixture to the reaction chamber; - gas discharge means, such as comprising a gas mixture discharge tube, for discharging gas from the reaction chamber; - at least one photoelectric element, such as a photodiode, for converting photons, which are released during a reaction between the gas and the liquid reaction mixture, to electrical energy; - a processing circuit, such as an amplification circuit for a sampling circuit,for the purpose of providing a signal for sampling corresponding to a value of the released photons, wherein the gas feed means are arranged to introduce the gas into the reaction chamber at or close to the underside or at least such that an ascent path of the gas in the reaction chamber is possible under the influence of the Archimedean force.