mhurhangee/patent-ind-claim-en huggingface dataset:
A method of estimating fluid quantity of a consumable fluid reservoir of a motor vehicle and equipped with at least one means for measuring said quantity, in particular of the gauge type, characterized in that it comprises the establishing of a sliding average on measurements of fluid quantity by said means during a plurality of successive stop phases of the vehicle.
Process for the synthesis of crosslinked polymeric materials in the form of a macroporous gel comprising a freezing step of a solution in which the polymerization takes place in the presence of a crosslinking agent, containing the HEMA monomer and at least one HEMA-R monomer of the following formula: wherein R is the acyl residue of a natural amino acid or of a linear or branched aliphatic C 2 -C 8 chain amino acid, preferably R is the acyl residue of an amino acid selected from the group consisting of lysine, arginine, histidine, β-alanine, γ-amino-butyric acid, 6-amino-hexanoic acid, 8-amino-octanoic acid, norleucine, or glycine, and even more preferably R is the acyl residue of lysine; and wherein the molar ratio between HEMA and HEMA-R monomers is comprised between 99.9% HEMA : 0.1% HEMA-R and 0.1% HEMA : 99.9% HEMA-R.
A method of operation in a processor-based system to control motion of a robot , the processor-based system including at least one processor , the method comprising: for each of a plurality of waypoints s i from s 1 to at least s n-1 along a geometric path, there being a corresponding robot configuration q i for each waypoint s i , linearly determining a first estimate of a maximized velocity along the path while applying an acceleration limit to movement represented by the transitions between adjacent ones of the waypoints s i ; following the linearly determining the first estimate using the first estimate as a starting point to linearly determine a second estimate of a maximized velocity along the path while applying a jerk limit to movement represented by the transitions between adjacent ones of the waypoints s i ; for each of the waypoints s i from at least s 2 to s n along the geometric path, determining a respective time at which the respective waypoint is to be reached based on respective ones of the determined second estimate of the maximized velocity; and providing at least the determined respective times at which the respective waypoints are to be reached to control motion of the robot. for each of a plurality of waypoints s i from s 1 to at least s n-1 along a geometric path, there being a corresponding robot configuration q i for each waypoint s i , linearly determining a first estimate of a maximized velocity along the path while applying an acceleration limit to movement represented by the transitions between adjacent ones of the waypoints s i ; following the linearly determining the first estimate using the first estimate as a starting point to linearly determine a second estimate of a maximized velocity along the path while applying a jerk limit to movement represented by the transitions between adjacent ones of the waypoints s i ; for each of the waypoints s i from at least s 2 to s n along the geometric path, determining a respective time at which the respective waypoint is to be reached based on respective ones of the determined second estimate of the maximized velocity; and providing at least the determined respective times at which the respective waypoints are to be reached to control motion of the robot.
A water dividing valve, comprising a water dividing body and an operation member , wherein the water dividing body comprises a water inlet cavity , wherein the water dividing valve further comprises a movable rod and a transmission member , the movable rod is disposed in the water inlet cavity , the movable rod comprises a plug and a water passage , the water passage is communicated with the water inlet cavity , the operation member surrounds an outer side of the water dividing body and is configured to be driven to rotate, the transmission member is disposed between the operation member and the movable rod to convert a circumferential movement of the operation member to a circumferential movement and an axial movement of the movable rod or to convert a circumferential movement of the operation member to an axial movement of the movable rod to enable the plug to close or open the water inlet cavity , characterized in that an outer periphery of the movable rod comprises at least one sliding rail , the transmission member comprises at least one ball , and each of the at least one ball is disposed in an inner wall of the operation member and slidably cooperates to a corresponding one of the at least one slide rail . a water dividing body and an operation member , wherein the water dividing body comprises a water inlet cavity , wherein the water dividing valve further comprises a movable rod and a transmission member , the movable rod is disposed in the water inlet cavity , the movable rod comprises a plug and a water passage , the water passage is communicated with the water inlet cavity , the operation member surrounds an outer side of the water dividing body and is configured to be driven to rotate, the transmission member is disposed between the operation member and the movable rod to convert a circumferential movement of the operation member to a circumferential movement and an axial movement of the movable rod or to convert a circumferential movement of the operation member to an axial movement of the movable rod to enable the plug to close or open the water inlet cavity , characterized in that an outer periphery of the movable rod comprises at least one sliding rail , the transmission member comprises at least one ball , and each of the at least one ball is disposed in an inner wall of the operation member and slidably cooperates to a corresponding one of the at least one slide rail .
An attachment for harvesting crop material standing in rows, including a plurality of mutually juxtaposed crop material pickup and/or crop material intake devices which are respectively at least portion-wise covered by a two-part cover element having a front cover hood and a rear cover hood , wherein in the operative position of the attachment the front cover hood is arranged substantially in alignment in the longitudinal direction of the rear cover hood and the respective front cover hood can be transferred by means of an actuator into a transport position in which the front cover hood is disposed in a position above and substantially parallel to the rear cover hood , characterised in that in the transition from the operative position into the transport position the front cover hood retains a substantially parallel orientation with respect to the rear cover hood .
An elevator control apparatus comprising: an exercise necessity degree determination unit configured to determine an exercise necessity degree being a degree to which an elevator user needs to exercise, who uses an elevator provided in a building provided with an inter-floor travel means other than the elevator ; characterized by a floor decision unit configured to extract a stairs-usage floor number corresponding to the exercise necessity degree of the elevator user determined by the exercise necessity degree determination unit and to change within a range of the extracted stairs-usage floor number at least one of a boarding floor and an alighting floor of the elevator from a floor that the elevator user prefers to another floor so as to let the elevator user use the inter-floor travel means before the elevator user reaches a destination floor to which the elevator user intends to go, wherein the stairs-usage floor number is the maximum number of floors to let the elevator user ascend the stairs or the maximum number of floors to let the elevator user descend the stairs. an exercise necessity degree determination unit configured to determine an exercise necessity degree being a degree to which an elevator user needs to exercise, who uses an elevator provided in a building provided with an inter-floor travel means other than the elevator ; characterized by a floor decision unit configured to extract a stairs-usage floor number corresponding to the exercise necessity degree of the elevator user determined by the exercise necessity degree determination unit and to change within a range of the extracted stairs-usage floor number at least one of a boarding floor and an alighting floor of the elevator from a floor that the elevator user prefers to another floor so as to let the elevator user use the inter-floor travel means before the elevator user reaches a destination floor to which the elevator user intends to go, wherein the stairs-usage floor number is the maximum number of floors to let the elevator user ascend the stairs or the maximum number of floors to let the elevator user descend the stairs.
Damper for damping torsional vibrations of a crankshaft the damper comprising a housing (H), suitable to be fixedly connected with an end (CKE) of a crankshaft, a flywheel (FW) suitable to be rotatably connected with said end (CKE) wherein the housing is provided with permanent magnets (M) and the flywheel is provided with a first arrangement of coils (C1) arranged in such a way to couple a magnetic flux produced by the permanent magnets, said magnetic flux dragging in rotation said flywheel, so that the coils produce electric current only as a consequence of a speed variation between the housing and the flywheel, wherein said flywheel further comprises a second arrangement of coils (C2) series connected with said first arrangement of coils, characterized in that the damper further comprises a stator (ST) provided with a third arrangement of coils (C3) arranged in such a way to couple a magnetic flux produced by said second arrangement of coils, wherein said second arrangement of coils is electrically supplied by said first arrangement of coils, the third arrangement of coils being conceived to convey electric current induced by a magnetic flux produced by said second arrangement of coils.
A system for a surgical robotic arm, wherein the system comprises: a robotic arm comprising a first coupler ; a surgical table comprising a second coupler to releasably couple to the first coupler of the robotic arm ; and a cart comprising: a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table ; a first engagement feature , the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler of the robotic arm is disposed in a position in which the first coupler of the robotic arm is engageable with the second coupler of the surgical table . a robotic arm comprising a first coupler ; a surgical table comprising a second coupler to releasably couple to the first coupler of the robotic arm ; and a cart comprising: a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table ; a first engagement feature , the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler of the robotic arm is disposed in a position in which the first coupler of the robotic arm is engageable with the second coupler of the surgical table . a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table ; a first engagement feature , the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler of the robotic arm is disposed in a position in which the first coupler of the robotic arm is engageable with the second coupler of the surgical table .
Asphalt mix chosen from hot mix or warm mix comprising a granular fraction and a hydrocarbon-based binder, characterised in that the elements of the granular fraction of the asphalt mix have sizes comprised between 0 mm and 10 mm and the granular fraction comprises - 4 to 15% by volume, compared to the total volume of the granular fraction, of fines, having a size less than 0.063 mm - 15 to 80% by volume, compared to the total volume of the granular fraction, of sand, having a size between 0.063 mm and 2 mm - 5 to 81% by volume, compared to the total volume of the granular fraction, of aggregates, having a size between 2 mm and 10 mm and in that the hydrocarbon-based binder is a 35/50 grade bitumen and comprises a workability additive, having a melting point above 60 °C and below 130°C, said asphalt mix being resistant to rutting, compact and workable, with a workability, measured with a Nynas workability meter at the working temperature of the asphalt mix, of less than 350N and insulating with a thermal conductivity, λ, of less than 1 W/m.K. - 4 to 15% by volume, compared to the total volume of the granular fraction, of fines, having a size less than 0.063 mm - 15 to 80% by volume, compared to the total volume of the granular fraction, of sand, having a size between 0.063 mm and 2 mm - 5 to 81% by volume, compared to the total volume of the granular fraction, of aggregates, having a size between 2 mm and 10 mm
A method of measuring a ratio of a hemoglobin A1c concentration to a hemoglobin concentration in a sample by an enzymatic method, the hemoglobin concentration being optically measured in a first step, the hemoglobin A1c concentration being optically measured in a second step_at a wavelength selected from 550 nm to 750 nm, wherein, when HbA1c% is calculated by dividing the hemoglobin A1c concentration measured in the second step by the hemoglobin concentration measured in the first step, the hemoglobin concentration serving as a denominator, which is measured at a first wavelength selected from 450 nm to 610 nm, is corrected using concentration information on lipid particles and concentration information on hemoglobin that are measured at a second wavelength selected from 690 nm to 900 nm. the hemoglobin concentration being optically measured in a first step, the hemoglobin A1c concentration being optically measured in a second step_at a wavelength selected from 550 nm to 750 nm, wherein, when HbA1c% is calculated by dividing the hemoglobin A1c concentration measured in the second step by the hemoglobin concentration measured in the first step, the hemoglobin concentration serving as a denominator, which is measured at a first wavelength selected from 450 nm to 610 nm, is corrected using concentration information on lipid particles and concentration information on hemoglobin that are measured at a second wavelength selected from 690 nm to 900 nm.
A pharmaceutical preparation comprising an aqueous solution comprising from 0.25 - 5.0 mg/ml 10H-1,3-Dioxolo[4,5-g]pyrano[3',4':6,7]indolizino[1,2-b] quinoline-8,11 -dione, 7-ethyl-7-hydroxy-, (S)- ("FL118"); 0.125 - 2.5% a type of cyclodextrin; and 1 - 10% dimethyl sulfoxide (DMSO).
Microscope having an objective interchange apparatus comprising a holder for receiving a number of objectives at respective holder positions (21.n) and comprising at least one objective of an objective receptacle which is configured for receiving the objective and is arranged in an optical beam path of the microscope , and an objective delivery device which is configured for transporting in each case a selected objective having an objective retainer between its holder position (21.n), which is delivered to a transfer position (ÜP), and the objective receptacle , wherein the objective receptacle remains in the optical beam path during the transport of the objective , the objective retainer is fitted to an objective housing of the objective or is attached thereto, and the objective retainer has an outer centring diameter as a reference surface, which diameter is guided against a lateral reference surface located in the objective receptacle such that reproducible positioning perpendicular to an optical axis of the microscope is achievable, and furthermore the object retainer has at least one planar support surface that extends orthogonally with respect to an optical axis of the objective ; a clamping apparatus is present for retaining the objective in a use position (EP) in the objective receptacle in a spatially fixed manner, and the clamping apparatus is formed by an abutment surface of the objective receptacle and at least one clamping element , wherein the objective retainer of the objective , which is in the use position (EP), is clampable by way of its support surface against the abutment surface by the clamping element . and furthermore the object retainer has at least one planar support surface that extends orthogonally with respect to an optical axis of the objective ; a clamping apparatus is present for retaining the objective in a use position (EP) in the objective receptacle in a spatially fixed manner, and the clamping apparatus is formed by an abutment surface of the objective receptacle and at least one clamping element , wherein the objective retainer of the objective , which is in the use position (EP), is clampable by way of its support surface against the abutment surface by the clamping element .
Method for operating a thermal control system of an electric or hybrid motor vehicle, comprising at least one electric battery for driving an electric machine , the thermal control system comprising a system with a heat pump having an evaporator , a first condenser located at the front face of the vehicle, a second condenser intended to heat the passenger compartment (H) of the vehicle, a compressor , a water/coolant heat exchanger and a refrigerating fluid or coolant which passes through these components and circulates in a coolant loop connecting the evaporator , the condensers , the compressor and the water/coolant heat exchanger , the thermal control system additionally comprising two separate water loops , specifically a first water loop operating at a first temperature intended to cool the electric battery and a second water loop operating at a second temperature intended to cool the electric machine , the first water loop comprising a first water radiator , the water/coolant heat exchanger , an electrical resistance element , the electric battery and a fan heater disposed between the evaporator and the second condenser of the heat pump , and the second water loop comprising a water radiator of the drive train, the electric machine and the charger , the radiator being disposed parallel to the first condenser and the first water radiator , characterized in that , when the vehicle runs without having been previously plugged into an external source of electrical energy in order to recharge the battery , when the outside temperature is lower than a first threshold value (S1), when the battery has a temperature lower than a fourth threshold value (S4) and when there is no risk of icing of the water radiator , the heat coming from the drive train coupled to at least one of the water radiators for extracting the heat from the outside air is used to heat the passenger compartment of the vehicle via the heat pump .
Method for detecting at least one wind status variable (V1, V2, V3, V4) by means of a wind turbine , wherein the wind turbine has a rotor having a plurality of rotor blades and the rotor blades pass over a rotor face when the rotor rotates, comprising the steps of: - detecting at least one wind measurement value (V5, V6, V7) in a wind measurement region , wherein - the wind measurement region is determined as a region above the rotor face , and - determining at least one wind status variable (V1, V2, V3, V4) in an upwind rotor region in accordance with the at least one detected wind measurement value (V5, V6, V7), wherein - the upwind rotor region is determined as a region in front of the rotor face (R A ). - detecting at least one wind measurement value (V5, V6, V7) in a wind measurement region , wherein - the wind measurement region is determined as a region above the rotor face , and - determining at least one wind status variable (V1, V2, V3, V4) in an upwind rotor region in accordance with the at least one detected wind measurement value (V5, V6, V7), wherein - the upwind rotor region is determined as a region in front of the rotor face (R A ).
A capacitive sensing controller , comprising: a first sensor input for receiving a reading of a self-capacitance of a first capacitive sensing element , wherein an effect of an environmental capacitance is approximately canceled from the reading of the first capacitive sensing element, the environmental capacitance being the self-capacitance of the first capacitive sensing element; an analog-to-digital, ADC, converter including an input of the ADC coupled to the first sensor input; a digital register configured to store a reading of the first sensor input from an output of the ADC; a digital processing unit coupled to read and write to the digital register, wherein the digital processing unit is configured to read a value from the digital register and process the reading; and a second sensor input for receiving a reading of a second capacitive sensing element , wherein the digital processing unit is configured to modify a reading of the second sensor input by a coefficient and adjust the reading of the first sensor input based on the coefficient modified reading of the second sensor input. a first sensor input for receiving a reading of a self-capacitance of a first capacitive sensing element , wherein an effect of an environmental capacitance is approximately canceled from the reading of the first capacitive sensing element, the environmental capacitance being the self-capacitance of the first capacitive sensing element; an analog-to-digital, ADC, converter including an input of the ADC coupled to the first sensor input; a digital register configured to store a reading of the first sensor input from an output of the ADC; a digital processing unit coupled to read and write to the digital register, wherein the digital processing unit is configured to read a value from the digital register and process the reading; and a second sensor input for receiving a reading of a second capacitive sensing element , wherein the digital processing unit is configured to modify a reading of the second sensor input by a coefficient and adjust the reading of the first sensor input based on the coefficient modified reading of the second sensor input.
A compound of formula: having an S configuration, or a pharmaceutically acceptable salt thereof, for use in the treatment of a dermatological condition.