mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary electric shaver comprising: an external outer blade having a plurality of hair inlet holes on an annular shaving surface in a plan view; an internal outer blade having a plurality of hair inlet holes on a disk-shaped shaving surface in a plan view and disposed radially inward of the external outer blade ; a rotationally driven external inner blade having a plurality of small blades coming into sliding contact with a rear surface of the shaving surface of the external outer blade ; a rotationally driven internal inner blade having a plurality of small blades coming into sliding contact with a rear surface of the shaving surface of the internal outer blade ; an external inner blade rest base to which the external inner blade is fixed; and an internal inner blade rest base to which the internal inner blade is fixed and which is supported by the external inner blade rest base , wherein the external outer blade has a cylindrical guide ring integrally or separately formed on an inner peripheral side of an inner wall portion , and the external inner blade has a plurality of guides which come into sliding contact with an inner peripheral surface of the guide ring to perform radial alignment with respect to the external outer blade . an external outer blade having a plurality of hair inlet holes on an annular shaving surface in a plan view; an internal outer blade having a plurality of hair inlet holes on a disk-shaped shaving surface in a plan view and disposed radially inward of the external outer blade ; a rotationally driven external inner blade having a plurality of small blades coming into sliding contact with a rear surface of the shaving surface of the external outer blade ; a rotationally driven internal inner blade having a plurality of small blades coming into sliding contact with a rear surface of the shaving surface of the internal outer blade ; an external inner blade rest base to which the external inner blade is fixed; and an internal inner blade rest base to which the internal inner blade is fixed and which is supported by the external inner blade rest base , wherein the external outer blade has a cylindrical guide ring integrally or separately formed on an inner peripheral side of an inner wall portion , and the external inner blade has a plurality of guides which come into sliding contact with an inner peripheral surface of the guide ring to perform radial alignment with respect to the external outer blade .
Apparatus for detecting a puncture, comprising: a housing comprising a plurality of compartments ; each said compartment comprising: an opening for receiving a flow of air into said compartment, and a detection element mounted on an axle , said axle having a first end and a second end and being secured at said first end and said second end within each said compartment; wherein said detection element is rotatable about said axle; and when a flow of air passes through said opening into said compartment, said detection element rotates around said axle in response to said flow of air; characterised in that : each said opening comprises a channel comprising a venturi, said venturi comprising a thirty-degree inlet channel and a five-degree outlet channel . a housing comprising a plurality of compartments ; each said compartment comprising: an opening for receiving a flow of air into said compartment, and a detection element mounted on an axle , said axle having a first end and a second end and being secured at said first end and said second end within each said compartment; wherein said detection element is rotatable about said axle; and when a flow of air passes through said opening into said compartment, said detection element rotates around said axle in response to said flow of air; characterised in that : each said opening comprises a channel comprising a venturi, said venturi comprising a thirty-degree inlet channel and a five-degree outlet channel .
A computer-implemented method of calibrating an in-vitro diagnostic analyzer, the method comprising executing a multi-point calibration procedure (100, 100', 100", 100′′′) comprising controlling the in-vitro diagnostic analyzer to measure a plurality of calibrator levels and thereby obtain a plurality of respective calibration points (1-n), calculating a result of the multi-point calibration procedure (100, 100', 100", 100′′′) and determining failure or passing of the multi-point calibration procedure (100, 100', 100", 100′′′) based on the calculated result , in case of failure of the multi-point calibration procedure (100, 100', 100", 100′′′) determining if failure is related to failure of a particular one or more of the plurality of calibration points (1-n), and in the affirmative triggering a repetition of measuring the calibrator level(s) only with respect to the failed calibration point(s) and re-calculating the result of the multipoint calibration procedure (100, 100', 100", 100′′′) after replacing only the failed calibration point(s) with the newly obtained calibration point(s) . executing a multi-point calibration procedure (100, 100', 100", 100′′′) comprising controlling the in-vitro diagnostic analyzer to measure a plurality of calibrator levels and thereby obtain a plurality of respective calibration points (1-n), calculating a result of the multi-point calibration procedure (100, 100', 100", 100′′′) and determining failure or passing of the multi-point calibration procedure (100, 100', 100", 100′′′) based on the calculated result , in case of failure of the multi-point calibration procedure (100, 100', 100", 100′′′) determining if failure is related to failure of a particular one or more of the plurality of calibration points (1-n), and in the affirmative triggering a repetition of measuring the calibrator level(s) only with respect to the failed calibration point(s) and re-calculating the result of the multipoint calibration procedure (100, 100', 100", 100′′′) after replacing only the failed calibration point(s) with the newly obtained calibration point(s) .
A data transmission method performed by a terminal device, comprising: determining a size of a semi-static Hybrid Automatic Repeat Request-Acknowledge, HARQ-ACK, codebook for a Physical Downlink Shared Channel, PDSCH; and performing a corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook, characterized in that , performing the corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook comprises: performing the corresponding HARQ-ACK feedback for the PDSCH with repetition transmissions according to the determined size of the semi-static HARQ-ACK codebook. determining a size of a semi-static Hybrid Automatic Repeat Request-Acknowledge, HARQ-ACK, codebook for a Physical Downlink Shared Channel, PDSCH; and performing a corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook, characterized in that , performing the corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook comprises: performing the corresponding HARQ-ACK feedback for the PDSCH with repetition transmissions according to the determined size of the semi-static HARQ-ACK codebook.
Panel equipped with a photovoltaic device constituted by an even number of columns of photovoltaic modules, the columns being aligned essentially parallel to a longitudinal edge of the panel, each column comprising an electrical pole on each of its extremities, the polarity of an electrical pole of one extremity being the inverse of that of the electrical pole of the other extremity and the poles of two adjacent columns being of inverse polarity, the electrical pole being in the form of a male connector when it is of one polarity and in the form of a female connector when it is of reverse polarity and the male and female connectors being arranged so that they fit into each other when the lower transverse edge of an upper panel covers the upper transverse edge of a lower panel.
A method comprising: providing a primary cell on a licensed band to a user apparatus; sending, to the user apparatus, a message indicating a request to scan an unlicensed band with a raster; receiving, from the user apparatus, scan results indicating one or more cells on the unlicensed band, and frame timing information measurements on one or more cells on the unlicensed band; using the scan results to select a carrier frequency for a secondary cell on the unlicensed band; using the frame timing information measurements received from the user apparatus for determining frame timing information for the secondary cell, the carrier frequency and the frame timing information being selected to avoid uplink/downlink interference between the primary cell on the licensed band and the secondary cell on the unlicensed band; and sending, to a network apparatus providing the secondary cell, the selected carrier frequency for the secondary cell and the frame timing information for the secondary cell. providing a primary cell on a licensed band to a user apparatus; sending, to the user apparatus, a message indicating a request to scan an unlicensed band with a raster; receiving, from the user apparatus, scan results indicating one or more cells on the unlicensed band, and frame timing information measurements on one or more cells on the unlicensed band; using the scan results to select a carrier frequency for a secondary cell on the unlicensed band; using the frame timing information measurements received from the user apparatus for determining frame timing information for the secondary cell, the carrier frequency and the frame timing information being selected to avoid uplink/downlink interference between the primary cell on the licensed band and the secondary cell on the unlicensed band; and sending, to a network apparatus providing the secondary cell, the selected carrier frequency for the secondary cell and the frame timing information for the secondary cell.
A method of producing an optical coating having reduced light scattering, comprising the steps of: - determination of a layer design of the optical coating , the determination of the layer design comprising a determination of the arrangement of layers , a determination of the layer materials and a determination of the layer thicknesses of the layers , - computational optimisation of the reflection or transmission of the optical coating for a predetermined wavelength or range of wavelengths by varying at least one layer parameter, - determination of the position of a scattering zone of the optical coating , wherein the determination of the position of the scattering zone comprises an estimation of the particle diameters at the surface of the optical coating of contaminations which are to be expected during operation of the optical coating and which are suitable for scattering electromagnetic radiation, and wherein the position of the scattering zone is determined in such a way that the scattering zone lies in the range of the particle diameters above the surface , - computational optimisation of the position of a minimum of the electric field strength (E) by varying at least one layer parameter in such a way that the electric field strength has a minimum in the scattering zone , the minimum of the electric field strength (E) occurring in a range between 10 nm and 2.5 μm above the surface of the uppermost layer , and - producing the optical coating with the layer parameters determined by the computational optimisations on a substrate . - determination of a layer design of the optical coating , the determination of the layer design comprising a determination of the arrangement of layers , a determination of the layer materials and a determination of the layer thicknesses of the layers , - computational optimisation of the reflection or transmission of the optical coating for a predetermined wavelength or range of wavelengths by varying at least one layer parameter, - determination of the position of a scattering zone of the optical coating , wherein the determination of the position of the scattering zone comprises an estimation of the particle diameters at the surface of the optical coating of contaminations which are to be expected during operation of the optical coating and which are suitable for scattering electromagnetic radiation, and wherein the position of the scattering zone is determined in such a way that the scattering zone lies in the range of the particle diameters above the surface , - computational optimisation of the position of a minimum of the electric field strength (E) by varying at least one layer parameter in such a way that the electric field strength has a minimum in the scattering zone , the minimum of the electric field strength (E) occurring in a range between 10 nm and 2.5 μm above the surface of the uppermost layer , and - producing the optical coating with the layer parameters determined by the computational optimisations on a substrate .
A method for operating a heating system in a building with at least one heatable room (R), said method comprising the steps of: at least the following measurement values are periodically generated and recorded at specified times: - a current actual room temperature ( T R ) of said at least one heatable room (R); - a current target room temperature (T R,W ) of said at least one heatable room (R); and - an outside temperature ( T A ); specifying a target temperature ( T E ) to be reached in said at least one heatable room (R) at a first time ( t E ); determining a second time (ts) at which a heating process must start in order to reach the target temperature ( T E ) at the first time ( t E ), wherein determining the second time (ts) is performed as a function of a plurality of parameters, characterized in that at said specified times, further a measurement value of a current flow temperature ( T VL ) is generated and recorded; the plurality of parameters is determined as a function of the recorded measurement values, wherein only those measurement values from a specified period of time (Δ t H ) are used that were generated during a heating process, wherein measurement values from a time belong to a heating process if the current actual room temperature ( T R ) is lower than the current specified target room temperature ( T R,W ). at least the following measurement values are periodically generated and recorded at specified times: - a current actual room temperature ( T R ) of said at least one heatable room (R); - a current target room temperature (T R,W ) of said at least one heatable room (R); and - an outside temperature ( T A ); - a current actual room temperature ( T R ) of said at least one heatable room (R); - a current target room temperature (T R,W ) of said at least one heatable room (R); and - an outside temperature ( T A ); specifying a target temperature ( T E ) to be reached in said at least one heatable room (R) at a first time ( t E ); determining a second time (ts) at which a heating process must start in order to reach the target temperature ( T E ) at the first time ( t E ), wherein determining the second time (ts) is performed as a function of a plurality of parameters, characterized in that at said specified times, further a measurement value of a current flow temperature ( T VL ) is generated and recorded; the plurality of parameters is determined as a function of the recorded measurement values, wherein only those measurement values from a specified period of time (Δ t H ) are used that were generated during a heating process, wherein measurement values from a time belong to a heating process if the current actual room temperature ( T R ) is lower than the current specified target room temperature ( T R,W ).
An integrated hydrogen gas generator (E), comprising: a water tank configured for containing a water to be electrolyzed; an electrolytic module configured for electrolyzing the water and generating a gas comprising hydrogen; an integrated passageway device disposed above the water tank , the integrated passageway device comprising a lower cover integrally formed to avoid the additional piping; a condenser coupled to the integrated passageway device for condensing an impurity in the gas comprising hydrogen; a humidifying module coupled to integrated passageway device and configured to humidify the gas comprising hydrogen; and wherein the gas comprising hydrogen is transmitted among the water tank , the condenser and the humidifying module through the integrated passageway device . a water tank configured for containing a water to be electrolyzed; an electrolytic module configured for electrolyzing the water and generating a gas comprising hydrogen; an integrated passageway device disposed above the water tank , the integrated passageway device comprising a lower cover integrally formed to avoid the additional piping; a condenser coupled to the integrated passageway device for condensing an impurity in the gas comprising hydrogen; a humidifying module coupled to integrated passageway device and configured to humidify the gas comprising hydrogen; and wherein the gas comprising hydrogen is transmitted among the water tank , the condenser and the humidifying module through the integrated passageway device .
A method for manufacturing microbeads having conjugate acid and conjugate base adsorbed onto Si-OH groups present on a surface of the microbeads by electrostatic interaction, the method comprising the steps of: immersing microbeads in a buffer solution containing conjugate acid and conjugate base to cause the conjugate acid and conjugate base components to be adsorbed onto microbeads, wherein the microbeads are silica-based glass microbeads ; and volatilizing the solvent to prepare microbeads with controlled pH, wherein the volatilizing the solvent is performed in an inert gas atmosphere at 40 to 70 °C. immersing microbeads in a buffer solution containing conjugate acid and conjugate base to cause the conjugate acid and conjugate base components to be adsorbed onto microbeads, wherein the microbeads are silica-based glass microbeads ; and volatilizing the solvent to prepare microbeads with controlled pH, wherein the volatilizing the solvent is performed in an inert gas atmosphere at 40 to 70 °C.
A traction battery self-heating control method using a permanent magnet motor, comprising: acquiring (S201) a second temperature of the rotor of the permanent magnet motor according to system parameters and a first temperature of the rotor of the permanent magnet motor; wherein the system parameters comprise: a material specific heat capacity of the rotor, a mass of the rotor and a power for heating the rotor in a sampling time interval, the first temperature is a temperature of the rotor at a first sampling time, the second temperature is a temperature of the rotor at a second sampling time, the second sampling time is a current sampling time, and the first sampling time is a previous sampling time of the second sampling time; predicting (S202) a third temperature of the rotor according to the first temperature and the second temperature, wherein the third temperature is a temperature of the rotor at a third sampling time, and the third sampling time is a next sampling time of the second sampling time; and stopping self-heating of the traction battery when the third temperature reaches a demagnetization temperature of the rotor. acquiring (S201) a second temperature of the rotor of the permanent magnet motor according to system parameters and a first temperature of the rotor of the permanent magnet motor; wherein the system parameters comprise: a material specific heat capacity of the rotor, a mass of the rotor and a power for heating the rotor in a sampling time interval, the first temperature is a temperature of the rotor at a first sampling time, the second temperature is a temperature of the rotor at a second sampling time, the second sampling time is a current sampling time, and the first sampling time is a previous sampling time of the second sampling time; predicting (S202) a third temperature of the rotor according to the first temperature and the second temperature, wherein the third temperature is a temperature of the rotor at a third sampling time, and the third sampling time is a next sampling time of the second sampling time; and stopping self-heating of the traction battery when the third temperature reaches a demagnetization temperature of the rotor.
A power take-off that is adapted to be secured to a mounting surface provided on a source of rotational energy , the power take-off comprising: a housing including a mounting surface that is adapted to be secured to a mounting surface provided on a source of rotational energy , the mounting surface of the housing of the power take-off portion having an opening therethrough; an input mechanism including an input gear that is rotatably supported on the housing of the power take-off portion and that has a portion that extends outwardly through the opening provided through the mounting surface of the housing of the power take-off portion and is adapted to extend within and be rotatably driven by a driving gear contained within the source of rotational energy ; and an output mechanism disposed within the housing and including a driven gear that is rotatably driven by the input gear of the input mechanism, characterised in that a rotational axis of the input gear and a rotational axis of either the driving gear or the driven gear are misaligned so as to minimize the transmission of torque transients and other vibrations therethrough during operation. a housing including a mounting surface that is adapted to be secured to a mounting surface provided on a source of rotational energy , the mounting surface of the housing of the power take-off portion having an opening therethrough; an input mechanism including an input gear that is rotatably supported on the housing of the power take-off portion and that has a portion that extends outwardly through the opening provided through the mounting surface of the housing of the power take-off portion and is adapted to extend within and be rotatably driven by a driving gear contained within the source of rotational energy ; and an output mechanism disposed within the housing and including a driven gear that is rotatably driven by the input gear of the input mechanism, characterised in that a rotational axis of the input gear and a rotational axis of either the driving gear or the driven gear are misaligned so as to minimize the transmission of torque transients and other vibrations therethrough during operation.