mhurhangee/patent-ind-claim-en huggingface dataset:
A system for allocating elevator use based on an individual request, the system comprising: a request module configured to receive a reservation request of an elevator car from a user; an allocation module configured to identify a reserved elevator car based on the reservation request; and a mechanical control module configured to move the reserved elevator car in response to commands provided by the user and the reservation request; and a service quality monitoring module configured to monitor a quality of service of an elevator bank that includes the reserved elevator car; characterised in that : the service quality monitoring module sets a service threshold and instructs the allocation module to deny the reservation request in response to the quality of service falling below the service threshold. a request module configured to receive a reservation request of an elevator car from a user; an allocation module configured to identify a reserved elevator car based on the reservation request; and a mechanical control module configured to move the reserved elevator car in response to commands provided by the user and the reservation request; and a service quality monitoring module configured to monitor a quality of service of an elevator bank that includes the reserved elevator car; characterised in that : the service quality monitoring module sets a service threshold and instructs the allocation module to deny the reservation request in response to the quality of service falling below the service threshold.
Method for reducing misfiring during the operation of a motor vehicle with at least an internal combustion engine and an electric drive motor, wherein the motor vehicle is driven in each case proportionately by the internal combustion engine and the electric drive motor, wherein the method comprises at least the following method step: a) determining a risk factor which is a measure of misfiring of the internal combustion engine that is expected in a future operating phase of the internal combustion engine, and wherein the method furthermore comprises the following method steps: b1) increasing a generated power of the internal combustion engine in accordance with requirement, if a load state of the motor vehicle corresponds to a low-load phase, in order to lower the risk factor, wherein step b1) is performed insofar as the risk factor lies within a predefined value range, and b2) lowering the generated power of the internal combustion engine, and increasing the power of the electric drive motor, in accordance with requirement if the load state of the motor vehicle corresponds to a high-load phase, in order to prevent misfiring in the high-load phase. a) determining a risk factor which is a measure of misfiring of the internal combustion engine that is expected in a future operating phase of the internal combustion engine, b1) increasing a generated power of the internal combustion engine in accordance with requirement, if a load state of the motor vehicle corresponds to a low-load phase, in order to lower the risk factor, wherein step b1) is performed insofar as the risk factor lies within a predefined value range, and b2) lowering the generated power of the internal combustion engine, and increasing the power of the electric drive motor, in accordance with requirement if the load state of the motor vehicle corresponds to a high-load phase, in order to prevent misfiring in the high-load phase.
A method of designing a sports article, comprising: (a) scanning at least one body part of at least a first person; (b) creating a first digital model of the body part of the first person; (c) creating a digital model of the sports article ; (d) digitally arranging the digital model of the sports article on the first digital model of the body part , while allowing the digital model of the sports article to stretch digitally; and (e) digitally modifying at least one property of the digital model of the sports article based on the first digital model of the body part and the digital model of the sports article , calculating at least one force on the basis of the first digital model of the body part or the average digital model of the body part and the digital model of the sports article , and wherein digitally modifying the property of the digital model of the sports article is at least partially based on the calculated force, wherein digitally modifying the at least one property of the digital model of the sports article comprises digitally modifying a thickness of the sports article . (a) scanning at least one body part of at least a first person; (b) creating a first digital model of the body part of the first person; (c) creating a digital model of the sports article ; (d) digitally arranging the digital model of the sports article on the first digital model of the body part , while allowing the digital model of the sports article to stretch digitally; and (e) digitally modifying at least one property of the digital model of the sports article based on the first digital model of the body part and the digital model of the sports article , calculating at least one force on the basis of the first digital model of the body part or the average digital model of the body part and the digital model of the sports article , and wherein digitally modifying the property of the digital model of the sports article is at least partially based on the calculated force, wherein digitally modifying the at least one property of the digital model of the sports article comprises digitally modifying a thickness of the sports article . calculating at least one force on the basis of the first digital model of the body part or the average digital model of the body part and the digital model of the sports article , and wherein digitally modifying the property of the digital model of the sports article is at least partially based on the calculated force, wherein digitally modifying the at least one property of the digital model of the sports article comprises digitally modifying a thickness of the sports article .
Pneumatic vehicle tyre with run-flat properties, having a tread , a multi-ply breaker belt assembly , an inner layer of an airtight form, a carcass , which in the bead region is led from axially the inside axially outwards around tension-resistant cores as a carcass turn-up , and sidewalls , within which there is arranged at least one reinforcing profile , which is of a sickle-shaped cross section and is of a continuous ring-shaped form over the circumference of the sidewall, the inner layer not running right through the cross section of the tyre from bead region to bead region , but it rather being the case that the inner layer is omitted within the cross-sectional height of the reinforcing profile and the inner layer in a region lying opposite the tread being arranged between the two upper ends of the reinforcing profiles , characterized in that the inner layer does not cover these two ends of the reinforcing profiles axially on the inside.
A triphenylamine derivative represented by general formula : wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 , and R 15 each independently represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms.
A heater element comprising: a substrate ; a first electrode and a second electrode disposed on the substrate ; a carbon nanomaterial-containing layer disposed on the substrate , the carbon nanomaterial-containing layer being disposed between and electrically connected to the first and second electrodes ; and a cover layer disposed over the carbon nanomaterial-containing layer ; wher ein the carbon nanomaterial-containing layer incorporates one or more holes ; characterised in that the cover layer is bonded to the substrate through said one or more holes , at one or more points across the carbon nanomaterial-containing layer . a substrate ; a first electrode and a second electrode disposed on the substrate ; a carbon nanomaterial-containing layer disposed on the substrate , the carbon nanomaterial-containing layer being disposed between and electrically connected to the first and second electrodes ; and a cover layer disposed over the carbon nanomaterial-containing layer ; wher ein the carbon nanomaterial-containing layer incorporates one or more holes ; characterised in that the cover layer is bonded to the substrate through said one or more holes , at one or more points across the carbon nanomaterial-containing layer .
A combination of a floor drain and a device being received within the floor drain , the device comprising: a basket assembly configured for containing a liquid-soluble treatment material therein; and a skirt for covering the perimeter of the floor drain, wherein the skirt defines a plurality of drainage openings for allowing flow-through of liquid, wherein the basket assembly defines a shoulder engaging with a cooperative groove formed in the skirt , and characterized in that the basket assembly defines a plurality of drainage openings on a top portion thereof for allowing flow through of liquid, and in that the skirt defines an opening therein for receivably engaging the basket assembly . a basket assembly configured for containing a liquid-soluble treatment material therein; and a skirt for covering the perimeter of the floor drain, wherein the skirt defines a plurality of drainage openings for allowing flow-through of liquid, wherein the basket assembly defines a shoulder engaging with a cooperative groove formed in the skirt , and characterized in that the basket assembly defines a plurality of drainage openings on a top portion thereof for allowing flow through of liquid, and in that the skirt defines an opening therein for receivably engaging the basket assembly .
A method for measuring the amount of the PD-L1 protein in a human biological sample of formalin-fixed tissue, comprising: detecting and quantifying the amount of a PD-L1 protein fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the amount of PD-L1 protein in said sample; wherein said PD-L1 fragment peptide is the peptide of SEQ ID NO:4; and wherein said amount is a relative amount or an absolute amount. detecting and quantifying the amount of a PD-L1 protein fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the amount of PD-L1 protein in said sample;
A method for determining the presence, identities or amounts of a plurality of analytes present in a single sample, the method comprising: a. treating the sample with a denaturation treatment that denatures biopolymers in the sample thereby forming a denatured sample, wherein the denaturation treatment does not denature components of a normalization reagent when added thereto and wherein the denaturation treatment comprises one or more solvents and/or one or more chaotropic agents, wherein the solvents are selected from methanol, ethanol, or acetonitrile; b. treating the denatured sample with the normalization reagent, wherein the normalization reagent converts the multiple analytes in the denatured sample into normalized analyte species and normalized analyte fragment species, and wherein the normalization reagent comprises one or more enzymes that depolymerize biopolymers in the sample into analyte fragment species, wherein the normalization reagent comprises one or more of a nuclease, a proteinase, a glycosidase, and a lipase; c. treating the normalized sample with an extraction reagent and retaining soluble analyte species and analyte fragment species therein, thereby forming an extracted sample; d. subjecting the extracted sample to a single analytical run of multiple modes of liquid chromatography mass spectrometry; and e. computationally determining from the data of the single analytical run the presence, identities or amounts of the analytes present in the extracted sample, wherein the analytes comprise small molecules, lipids and proteins. a. treating the sample with a denaturation treatment that denatures biopolymers in the sample thereby forming a denatured sample, wherein the denaturation treatment does not denature components of a normalization reagent when added thereto and wherein the denaturation treatment comprises one or more solvents and/or one or more chaotropic agents, wherein the solvents are selected from methanol, ethanol, or acetonitrile; b. treating the denatured sample with the normalization reagent, wherein the normalization reagent converts the multiple analytes in the denatured sample into normalized analyte species and normalized analyte fragment species, and wherein the normalization reagent comprises one or more enzymes that depolymerize biopolymers in the sample into analyte fragment species, wherein the normalization reagent comprises one or more of a nuclease, a proteinase, a glycosidase, and a lipase; c. treating the normalized sample with an extraction reagent and retaining soluble analyte species and analyte fragment species therein, thereby forming an extracted sample; d. subjecting the extracted sample to a single analytical run of multiple modes of liquid chromatography mass spectrometry; and e. computationally determining from the data of the single analytical run the presence, identities or amounts of the analytes present in the extracted sample, wherein the analytes comprise small molecules, lipids and proteins.
A system for moving a patient into and from a medical apparatus, comprising: a patient support arranged outside a treatment space of a medical apparatus; a treatment table arranged inside the treatment space in the medical apparatus; a patient bed movable in a longitudinal direction from the patient support to the treatment table and back by means of activation of a transferring mechanism; a coil arrangement including an anterior coil and a support stand , the support stand resting on the patient bed adjacent to longitudinal edges of said patient bed and being slidable along the patient bed in a longitudinal direction; a stop device is arranged to prevent a sliding movement of the anterior coil when activated; wherein the support stand comprises at least one arc-shaped part having a first end part and a second end part resting on the patient bed , and the system being characterised in that each of said end parts comprises a rail being slidable in a corresponding guide track of said patient bed , wherein an end part of said at least one arch-shaped part comprises at least one flexible rail element arranged to fit into said guide track and to be moved into and out of said guide track . a patient support arranged outside a treatment space of a medical apparatus; a treatment table arranged inside the treatment space in the medical apparatus; a patient bed movable in a longitudinal direction from the patient support to the treatment table and back by means of activation of a transferring mechanism; a coil arrangement including an anterior coil and a support stand , the support stand resting on the patient bed adjacent to longitudinal edges of said patient bed and being slidable along the patient bed in a longitudinal direction; a stop device is arranged to prevent a sliding movement of the anterior coil when activated; wherein the support stand comprises at least one arc-shaped part having a first end part and a second end part resting on the patient bed , and the system being characterised in that each of said end parts comprises a rail being slidable in a corresponding guide track of said patient bed , wherein an end part of said at least one arch-shaped part comprises at least one flexible rail element arranged to fit into said guide track and to be moved into and out of said guide track .
Wrist-worn device for sensing ambient light intensity, comprising: a plurality of light receivers arranged at different positions of the wrist-worn device in different orientations to receive light from different directions (+X, -X; +Y, - Y; +Z, -Z), wherein the light receivers are sensors for generating a signal corresponding to the received light intensity; and a central processing unit configured for: processing the signals representing the intensities received by the light receivers, identifying a signal representing the maximum intensity among these intensities, identify which of the sensors measures the maximum intensity, and further processing only signals of the identified sensor, wherein each of the different directions (+X, -X; +Y, -Y; +Z, -Z) corresponds to a main axis (A,B,C) of maximum receptivity of one of the light receivers, wherein the light receivers are arranged in pairs, wherein the two light receivers of each pair are arranged in opposite orientations on one spatial axis of a Cartesian coordinate system. a plurality of light receivers arranged at different positions of the wrist-worn device in different orientations to receive light from different directions (+X, -X; +Y, - Y; +Z, -Z), wherein the light receivers are sensors for generating a signal corresponding to the received light intensity; and a central processing unit configured for: processing the signals representing the intensities received by the light receivers, identifying a signal representing the maximum intensity among these intensities, identify which of the sensors measures the maximum intensity, and further processing only signals of the identified sensor, processing the signals representing the intensities received by the light receivers, identifying a signal representing the maximum intensity among these intensities, identify which of the sensors measures the maximum intensity, and further processing only signals of the identified sensor, wherein each of the different directions (+X, -X; +Y, -Y; +Z, -Z) corresponds to a main axis (A,B,C) of maximum receptivity of one of the light receivers, wherein the light receivers are arranged in pairs, wherein the two light receivers of each pair are arranged in opposite orientations on one spatial axis of a Cartesian coordinate system.
A soft robotic actuator , comprising: a flexible or elastic elongate body having a first wall portion having a first profile and a second wall portion disposed opposite the first wall portion, the second wall portion having a repeating variable profile such that an internal height of the flexible or elastic elongate body varies over its length, wherein (a) the flexible or elastic elongate body defines a sealed void which is capable of being pressurized or depressurized relative to the environment around the actuator, and (b) pressurizing or depressurizing the flexible or elastic elongate body causes at least a portion of the flexible or elastic elongate body to bend; characterized in that the actuator has a generally linear actuation profile from near zero up to 103.5 kPa (15 PSI). a flexible or elastic elongate body having a first wall portion having a first profile and a second wall portion disposed opposite the first wall portion, the second wall portion having a repeating variable profile such that an internal height of the flexible or elastic elongate body varies over its length, wherein (a) the flexible or elastic elongate body defines a sealed void which is capable of being pressurized or depressurized relative to the environment around the actuator, and (b) pressurizing or depressurizing the flexible or elastic elongate body causes at least a portion of the flexible or elastic elongate body to bend; (a) the flexible or elastic elongate body defines a sealed void which is capable of being pressurized or depressurized relative to the environment around the actuator, and (b) pressurizing or depressurizing the flexible or elastic elongate body causes at least a portion of the flexible or elastic elongate body to bend; characterized in that the actuator has a generally linear actuation profile from near zero up to 103.5 kPa (15 PSI).
A non-aqueous dispersion comprising a continuous phase and a dispersed phase, wherein the dispersed phase comprises a dispersion polymerization reaction product prepared from a reaction mixture comprising an ethylenically unsaturated monomer, an acrylic polymer stabilizer, and an aliphatic polyester stabilized seed polymer.
Device for capture, transport and diffusion of light in a solution contained in a tank , the device comprising a cylindrical sleeve , made of material transparent to the transported and diffused light, the sleeve being intended to be filled with a liquid suitable for transmitting and diffusing light and to balance the external pressure in order to keep the sleeve in cylindrical shape, characterised in that it further comprises a sealed bell , transparent to the captured, transported and diffused light, and formed at least partially by two walls (120a-120b) separated by a sealed interstice (e) partially or totally filled by gas, the bell comprising a domed portion prolonged by a tubular portion , a first end of the sleeve being intended to be blocked against the bell in such a way that in the position of use, the bell floats freely in the solution and keeps at least the domed portion above the surface and the sleeve filled with liquid below the surface and extended vertically under the bell by adopting a cylindrical shape.
A knitted component comprising: an outer surface and an inner surface , the outer surface facing opposite the inner surface ; a plurality of pods having the outer surface and the inner surface ; and a plurality of edge regions having the outer surface and the inner surface , the edge regions surrounding at least some of the pods ; a first yarn forming the outer surface of the pods ; and a second yarn made from a second material forming the inner surface of the pods and the outer and inner surfaces of the edge regions , wherein the edge regions have a first degree of flexibility and the pods have a second degree of flexibility, wherein the first degree of flexibility is greater than the second degree of flexibility, characterized in that the first yarn is at least partially formed with a thermoplastic polymer material, and wherein the outer surface of the pods is primarily formed of a fused area of material that is heat-processed during manufacturing. an outer surface and an inner surface , the outer surface facing opposite the inner surface ; a plurality of pods having the outer surface and the inner surface ; and a plurality of edge regions having the outer surface and the inner surface , the edge regions surrounding at least some of the pods ; a first yarn forming the outer surface of the pods ; and a second yarn made from a second material forming the inner surface of the pods and the outer and inner surfaces of the edge regions , wherein the edge regions have a first degree of flexibility and the pods have a second degree of flexibility, wherein the first degree of flexibility is greater than the second degree of flexibility, characterized in that the first yarn is at least partially formed with a thermoplastic polymer material, and wherein the outer surface of the pods is primarily formed of a fused area of material that is heat-processed during manufacturing.
An aerosol generating device comprising: a heater configured to heat an aerosol generating substance; a battery configured to supply power to the heater ; and a thermoelectric element arranged adjacent to the heater , and configured to absorb heat from the heater and convert the absorbed heat into electric power; characterized in that the aerosol generating device further comprises a controller configured to charge the battery by using the converted power based on a heating time of the heater . a heater configured to heat an aerosol generating substance; a battery configured to supply power to the heater ; and a thermoelectric element arranged adjacent to the heater , and configured to absorb heat from the heater and convert the absorbed heat into electric power; characterized in that the aerosol generating device further comprises a controller configured to charge the battery by using the converted power based on a heating time of the heater .