mhurhangee/ep-ind-claims huggingface dataset:
A controller suitable for controlling behavior of a motorcycle with a damping device for damping kinetic energy, the controller comprising: an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, characterized in that: before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small. an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, characterized in that: before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small. before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small.
A ceramic substrate having a rectangular shape in a plan view, wherein, in a first cut surface cut by a first straight line that passes through a center of the ceramic substrate and is parallel to any one side out of four sides in the plan view, a central portion in a length direction curves in a convex shape toward one side in a sheet thickness direction, and in a second cut surface cut by a second straight line that passes through the center and is orthogonal to the first straight line, a central portion in a length direction curves in a convex shape toward the other side in the sheet thickness direction, characterized in that a value obtained by dividing a maximum projection amount (Δz) in the sheet thickness direction of the ceramic substrate by a length of the diagonal line of the ceramic substrate is equal to or less than 6 μm/mm. wherein, in a first cut surface cut by a first straight line that passes through a center of the ceramic substrate and is parallel to any one side out of four sides in the plan view, a central portion in a length direction curves in a convex shape toward one side in a sheet thickness direction, and in a second cut surface cut by a second straight line that passes through the center and is orthogonal to the first straight line, a central portion in a length direction curves in a convex shape toward the other side in the sheet thickness direction, characterized in that a value obtained by dividing a maximum projection amount (Δz) in the sheet thickness direction of the ceramic substrate by a length of the diagonal line of the ceramic substrate is equal to or less than 6 μm/mm.
A method for protecting a communication between an electromagnetic transponder and a terminal, wherein the transmission of an acknowledgement for a request received from a terminal by the transponder is only allowed when the transponder is in mechanical contact or in quasi-mechanical contact with the terminal.
A method for analyzing polar metabolites comprising: i) extracting a biological sample with an extraction buffer comprising a phase separator and a volatile neutral ammonium salt under conditions which allow for immediate disruption of cells comprised by the biological sample, a) spin centrifuging the aqueous phase, b) lyophilising the supernatant obtained in step a), and c) dissolving the lyophilisate obtained in step b) in an analysis buffer comprising an ion pair generating agent. ii) separating the polar metabolites comprised by the extract obtained in step c) by chromatography, and iii) analyzing the separated polar metabolites obtained in step ii). i) extracting a biological sample with an extraction buffer comprising a phase separator and a volatile neutral ammonium salt under conditions which allow for immediate disruption of cells comprised by the biological sample, a) spin centrifuging the aqueous phase, b) lyophilising the supernatant obtained in step a), and c) dissolving the lyophilisate obtained in step b) in an analysis buffer comprising an ion pair generating agent. a) spin centrifuging the aqueous phase, b) lyophilising the supernatant obtained in step a), and c) dissolving the lyophilisate obtained in step b) in an analysis buffer comprising an ion pair generating agent. ii) separating the polar metabolites comprised by the extract obtained in step c) by chromatography, and iii) analyzing the separated polar metabolites obtained in step ii).
A method for producing a modified polytetrafluoroethylene without using a fluorinated surfactant, which comprises polymerizing tetrafluoroethylene in an aqueous medium in which a polymer comprising units based on a fluorine-free monomer is present, wherein to the total amount of tetrafluoroethylene which is supplied to the polymerization system, the proportion of the polymer is from 0.001 to 0.050 mass%.
Method for monitoring a data transmission system, comprising at least one transmitting device (3a, 3b, 3c) for transmitting messages, at least one receiving device (4a, 4b, 4c) for receiving messages, a data transmission means for transmitting the messages and a monitoring device, wherein the data transmission means is in particular a vehicle bus or a vehicle-side network of a motor vehicle, characterised in that - the monitoring device transmits a request message to the transmitting device (3a, 3b, 3c) and the receiving device (4a, 4b, 4c), - depending on the request message and at least one transmitter message transmitted by the respective transmitting device (3a, 3b, 3c) via the data transmission means, the transmitting device (3a, 3b, 3c) or at least one of the transmitting devices (3a, 3b, 3c) generates a respective transmitter response and transmits it to the monitoring device, - depending on the request message and at least one receiver message received by the respective receiving device (4a, 4b, 4c) via the data transmission means, the receiving device (4a, 4b, 4c) or at least one of the receiving devices (4a, 4b, 4c) generates a respective receiver response and transmits it to the monitoring device, and - the monitoring device receives the transmitter response and the receiver response and checks the fulfilment of a triggering condition depending on the transmitter response and the receiver response, the fulfilment of which displays a monitoring-relevant event. - the monitoring device transmits a request message to the transmitting device (3a, 3b, 3c) and the receiving device (4a, 4b, 4c), - depending on the request message and at least one transmitter message transmitted by the respective transmitting device (3a, 3b, 3c) via the data transmission means, the transmitting device (3a, 3b, 3c) or at least one of the transmitting devices (3a, 3b, 3c) generates a respective transmitter response and transmits it to the monitoring device, - depending on the request message and at least one receiver message received by the respective receiving device (4a, 4b, 4c) via the data transmission means, the receiving device (4a, 4b, 4c) or at least one of the receiving devices (4a, 4b, 4c) generates a respective receiver response and transmits it to the monitoring device, and - the monitoring device receives the transmitter response and the receiver response and checks the fulfilment of a triggering condition depending on the transmitter response and the receiver response, the fulfilment of which displays a monitoring-relevant event.
Sensor system for a moving part of a vehicle, comprising: an actuating element with at least one deformation region, in which an activation action by an operator can be detected, at least one inductive activation means arranged in the deformation region, and at least one sensor device arranged on the actuating element and/or on the movable part for measuring inductance on the activation means, at least one shielding element being provided for the at least one sensor device in order to avoid interference during the inductance measurement, wherein a first sensor device and a second sensor device are provided on the actuating element or on the movable part, wherein the first sensor device is designed to measure inductance at the first deformation region and the second sensor device is designed to measure inductance at the first deformation region or at the second deformation region. an actuating element with at least one deformation region, in which an activation action by an operator can be detected, at least one inductive activation means arranged in the deformation region, and at least one sensor device arranged on the actuating element and/or on the movable part for measuring inductance on the activation means, at least one shielding element being provided for the at least one sensor device in order to avoid interference during the inductance measurement, wherein a first sensor device and a second sensor device are provided on the actuating element or on the movable part, wherein the first sensor device is designed to measure inductance at the first deformation region and the second sensor device is designed to measure inductance at the first deformation region or at the second deformation region.
Method for automatic alignment of a position and orientation indicator with respect to a body part, the method comprising the steps: - attaching a position and orientation indicator (2, 4) to a body part; - moving the body part and measuring movements of the position and orientation indicator; characterised in that the method further comprises the step of: - exploiting physical constraints to motion for automatic determination of the alignment of the position and orientation indicator with respect to the body part. - attaching a position and orientation indicator (2, 4) to a body part; - moving the body part and measuring movements of the position and orientation indicator; - exploiting physical constraints to motion for automatic determination of the alignment of the position and orientation indicator with respect to the body part.
A computer-implemented method for calculating a gastric emptying rate from a stomach lumen into a small intestine of a patient, comprising: using at least one processor for executing the following during an enteral tube feeding of a stomach of the patient by a feeding mechanism: analyzing outputs of at least one stomach sensor located within the stomach for detecting a stop feeding condition; pausing the enteral tube feeding in response to a detection of the stop feeding condition; after a predefined period of time, restarting the enteral tube feeding until the stop condition is redetected by an analysis of said outputs; calculating a gastric emptying rate based on an amount of feeding content delivered during a period between the restarting and the redetection; and instructing the feeding mechanism to adapt a feeding rate of the enteral tube feeding according to the gastric emptying rate. analyzing outputs of at least one stomach sensor located within the stomach for detecting a stop feeding condition; pausing the enteral tube feeding in response to a detection of the stop feeding condition; after a predefined period of time, restarting the enteral tube feeding until the stop condition is redetected by an analysis of said outputs; calculating a gastric emptying rate based on an amount of feeding content delivered during a period between the restarting and the redetection; and instructing the feeding mechanism to adapt a feeding rate of the enteral tube feeding according to the gastric emptying rate.
A method for manufacturing a powdered molding material, comprising a step of three-dimensionally kneading, while heating, lacquer and plant fibers, wherein the powdered molding material comprises 10.5 - 13% by mass of acetone-soluble matter, wherein the mass % of acetone-soluble matter is measured by placing 1 g of the molding material with 25 ml of acetone and leaving overnight; filtration is then performed and the remaining substance is further mixed with 25 ml of acetone and left for two hours; filtration is then performed; the substance dissolved in the acetone after the two filtrations is left for five days in order to remove volatile components; the weight of the substance dissolved in the acetone is then measured and the mass % of acetone-soluble matter is calculated; wherein the powdered molding material comprises a powder that passes through a 10-120 mesh sieve, and wherein the lacquer and the plant fibers are three-dimensionally kneaded using one or more rotating blades provided in a mixing machine, wherein three-dimensionally kneading comprises movements in multiple directions, including vertical, horizontal and oblique directions. wherein the powdered molding material comprises 10.5 - 13% by mass of acetone-soluble matter, wherein the mass % of acetone-soluble matter is measured by placing 1 g of the molding material with 25 ml of acetone and leaving overnight; filtration is then performed and the remaining substance is further mixed with 25 ml of acetone and left for two hours; filtration is then performed; the substance dissolved in the acetone after the two filtrations is left for five days in order to remove volatile components; the weight of the substance dissolved in the acetone is then measured and the mass % of acetone-soluble matter is calculated; wherein the powdered molding material comprises a powder that passes through a 10-120 mesh sieve, and wherein the lacquer and the plant fibers are three-dimensionally kneaded using one or more rotating blades provided in a mixing machine, wherein three-dimensionally kneading comprises movements in multiple directions, including vertical, horizontal and oblique directions.
Polyether siloxanes of formula, R 1 -Si(CH 3) 2 -O-[-Si(CH 3) 2 -O-] n -[-Si(CH 3)R-O-] m -Si(CH 3) 2 -R 2 where R, R 1 and R 2 are the same or different, R in each occurrence is the same or different and represents -(CH 2) 2 -O-(CH 2 -CR'R"-O) y -R"', R' and R" are the same or different and each represent -H, -CH 3, -CH 2 CH 3 or phenyl, R"' represents -H, alkyl or acyl, R 1 and R 2 each represent R, wherein the alkylene oxide units (CH 2 -CR'R"-O) within a polyether residue R can be the same or different and the polyether residues R within a polyether siloxane molecule of formula can be the same or different, characterized in that on average, number average, averaged over all compounds of formula, n + m + 2 = > 10 to 200, m = 0 to 40 x = 2 to 10, y = 1 to 50, at least 25% of the R"' radicals represent hydrogen and at least 50% of all polyether residues R which have an end group R"' = -H have a secondary or tertiary OH end group and wherein on average, number average, averaged over all compounds of formula, at least 45 mol% of the alkylene oxide units (CH 2 -CR'R"-O) are ethylene oxide (R' = R" = -H), wherein the polyether residues R present where R"' represents hydrogen and the OH group present as a result is a secondary or tertiary OH group include an endblock of alkylene oxide units where R' and/or R" is other than -H and which was obtained by final addition of on average 0.5 to 5 alkylene oxide units per polyether molecule where R' and/or R" is other than -H.
Method for holding piece goods in a sorted manner, wherein a belt being wound helically onto a spool core to form a holding roll, characterized in that the piece goods are in each case inserted with one end, one after the other into a wedge-shaped region between a holding roll and the belt and are clamped between the individual layers of the belt when the belt is further wound by means of a drive.
An organopolysiloxane gel containing at least one natural oil free in the gel, comprising: a) a crosslinked organopolysiloxane gel which is the reaction product of A) an aliphatically unsaturated organopolysiloxane B), an Si-H-functional organopolysiloxane, and C) an α-olefin containing 6 or more carbon atoms; b) at least one hydrocarbon diluent D); and c) at least one natural oil E), wherein both the hydrocarbon diluent(s) D) and natural oil(s) E) are present in the composition prior to complete gelation of a reaction mixture comprising the aliphatically unsaturated organopolysiloxane, Si-H-functional organopolysiloxane, and α-olefin reactants of (a), the gelation taking place in the presence of a hydrosilylation catalyst F). a) a crosslinked organopolysiloxane gel which is the reaction product of A) an aliphatically unsaturated organopolysiloxane B), an Si-H-functional organopolysiloxane, and C) an α-olefin containing 6 or more carbon atoms; b) at least one hydrocarbon diluent D); and c) at least one natural oil E), wherein both the hydrocarbon diluent(s) D) and natural oil(s) E) are present in the composition prior to complete gelation of a reaction mixture comprising the aliphatically unsaturated organopolysiloxane, Si-H-functional organopolysiloxane, and α-olefin reactants of (a), the gelation taking place in the presence of a hydrosilylation catalyst F).
Process for the manufacture of an aerated dairy product comprising 1.5% to 14% by weight of fat, preferably 4 to 8% by weight of fat, comprising the steps of: - preparing a fermented dairy base comprising a stabiliser composition, said stabiliser composition comprising pectin, gelatine, cellulose, starch, hydrocolloids, or a mixture thereof, - preparing a cream, and homogenising said cream under a pressure lower than 6 MPa (60 bar), - whipping said fermented dairy base to an overrun of 25 to 130%, and/or whipping said cream to an overrun of 50 to 150%, - mixing 60 to 90 parts by weight of said fermented dairy base, 10 to 40 parts by weight of said cream, and up to 30 parts by weight of a flavour composition, where either or both of said fermented dairy base and said cream are whipped before mixing. - preparing a fermented dairy base comprising a stabiliser composition, said stabiliser composition comprising pectin, gelatine, cellulose, starch, hydrocolloids, or a mixture thereof, - preparing a cream, and homogenising said cream under a pressure lower than 6 MPa (60 bar), - whipping said fermented dairy base to an overrun of 25 to 130%, and/or whipping said cream to an overrun of 50 to 150%, - mixing 60 to 90 parts by weight of said fermented dairy base, 10 to 40 parts by weight of said cream, and up to 30 parts by weight of a flavour composition, where either or both of said fermented dairy base and said cream are whipped before mixing.
Method for controlling a robot movement of a robot on the basis of a second trajectory, comprising the following method steps: a) calculating a viscosity volume model for modelling a first working environment of the robot, wherein - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment; b) defining a first trajectory for the robot; c) exciting a simulated liquid in the viscosity volume model to move along the first trajectory, wherein the excited liquid has a flow; d) detecting a liquid element in the excited liquid at a start of the first trajectory; e) detecting a covered path of the element in the excited simulated liquid in the viscosity volume model, wherein a flow direction of the simulated liquid through the first regions is determined; f) storing the covered path as the second trajectory; g) controlling the robot movement on the basis of the second trajectory. a) calculating a viscosity volume model for modelling a first working environment of the robot, wherein - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment; - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment; b) defining a first trajectory for the robot; c) exciting a simulated liquid in the viscosity volume model to move along the first trajectory, wherein the excited liquid has a flow; d) detecting a liquid element in the excited liquid at a start of the first trajectory; e) detecting a covered path of the element in the excited simulated liquid in the viscosity volume model, wherein a flow direction of the simulated liquid through the first regions is determined; f) storing the covered path as the second trajectory; g) controlling the robot movement on the basis of the second trajectory.
An incremented force bearing comprising a bearing substrate formed of multiple rings comprising an inner ring, an outer ring, and an intermediate ring (3; 3a, 3b) interposed between the inner and outer rings (2,1), rotators interposed between respective ones of the outer, inner, and intermediate rings (2, 1, 3; 3a, 3b) so that the inner ring and the outer ring can be mutually rotated, and an annular recess provided on and recessed in the upper surface of the bearing substrate, wherein levers are arranged in a row around a center of the upper surface of the bearing substrate, said annular recess having wavy slide surfaces as recessed surfaces by which levers are pressed to the inner and outer rings (2, 1), wherein the arrangement of the levers is such that the levers join the slide surface of the outer ring and are pivotally mounted on the intermediate ring (3;3a;3b), characterized in that the waveform pitch of the outer ring is wider that of the inner ring, and in that due to the arrangement of these levers a pressing force generated by wavy joining between the outer ring and the levers upon reception from the wavy slide surface of the outer ring presses the wavy slide surface of the inner ring by way of one or more levers, causing crest parts of the wavy slide surface of the inner ring to be sequentially forwarded to rotate the inner ring.