mhurhangee/patent-ind-claim-en huggingface dataset:
Method (METH) for detecting and calculating the duration of a jump effected by an individual, implemented by an electronic watch comprising the following steps: - detection (METH_Dt 2 ) of a moment (t 2 ) associated with a landing following the jump, this step comprising a sub-step of detecting (METH_Dt 2 _PC AC ) an acceleration peak (PC AC ) of an amplitude greater than a first threshold amplitude, within the acceleration measurements (AC) provided by a three-axis accelerometer (CP_AC), on board a watch (MT) worn on the wrist of the individual, - detection (METH_Ds) of a jump phase, by detection, in a temporal window finishing at the moment (t S ) of landing, of a succession of acceleration measurements (AC) between 0g and 0.5g during a duration greater than a first threshold duration (t S ), g being the acceleration due to gravity at the Earth's surface, - detection (METH_Dt 1 ) of a moment (t 0 ) associated with the start of the jump corresponding to the first measurement of the succession of acceleration measurements (AC) between 0 and 0.5g, - calculation (METH_Ts) of a duration (Ts) of the jump by the difference of the moment (t 2 ) associated with the landing and the moment (t 0 ) associated with the start of the jump, the step of detecting (METH_Dt 2 ) a moment (t 2 ) associated with a landing comprising a sub-step of detecting (METH_Dt 2 _PC PR ) a pressure peak (PC PR ) of an amplitude greater than a second threshold amplitude and of lesser duration than a second threshold duration, from pressure measurements (PR) provided by a pressure sensor (CP_PR) on board the watch (MT), and a sub-step of comparing the moment associated with the acceleration peak (PC AC ) and the moment associated with the pressure peak (PC PR ). - detection (METH_Dt 2 ) of a moment (t 2 ) associated with a landing following the jump, this step comprising a sub-step of detecting (METH_Dt 2 _PC AC ) an acceleration peak (PC AC ) of an amplitude greater than a first threshold amplitude, within the acceleration measurements (AC) provided by a three-axis accelerometer (CP_AC), on board a watch (MT) worn on the wrist of the individual, - detection (METH_Ds) of a jump phase, by detection, in a temporal window finishing at the moment (t S ) of landing, of a succession of acceleration measurements (AC) between 0g and 0.5g during a duration greater than a first threshold duration (t S ), g being the acceleration due to gravity at the Earth's surface, - detection (METH_Dt 1 ) of a moment (t 0 ) associated with the start of the jump corresponding to the first measurement of the succession of acceleration measurements (AC) between 0 and 0.5g, - calculation (METH_Ts) of a duration (Ts) of the jump by the difference of the moment (t 2 ) associated with the landing and the moment (t 0 ) associated with the start of the jump,
An apparatus for delivering wastewater from a motor vehicle to a drain, the apparatus comprising: a housing including an outer wall and an outlet , wherein the apparatus includes an inner wall generally perpendicular or slightly angled to the outer wall , the housing and the inner wall defining an inlet chamber above the inner wall and a further chamber below the inner wall , the outlet downwardly extending from the inlet chamber , and connected to the outer wall of the housing through the inner wall that separates the inlet chamber from the further chamber , the apparatus including a sealing member disposed in the further chamber and positioned in a radial direction between the outlet and the outer wall and in an axial direction below the inner wall, the apparatus further including a valve movable between an open position and a closed position and a valve activation mechanism for moving the valve between the open position and the closed position.
An electrochemical sensor comprising: a housing having interior walls defining a reservoir; a sensing electrode; a counter electrode located in a common plane with the sensing electrode; and at least one separator retaining an electrolyte, wherein the electrolyte provides an ionically conductive pathway between the sensing electrode and the counter electrode, wherein the housing comprises: a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing , and a plurality of corners at the attachment points between the housing and the bosses , the corners being configured to transport the localized electrolyte from the reservoir towards the separator . a housing having interior walls defining a reservoir; a sensing electrode; a counter electrode located in a common plane with the sensing electrode; and at least one separator retaining an electrolyte, wherein the electrolyte provides an ionically conductive pathway between the sensing electrode and the counter electrode, wherein the housing comprises: a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing , and a plurality of corners at the attachment points between the housing and the bosses , the corners being configured to transport the localized electrolyte from the reservoir towards the separator . a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing , and a plurality of corners at the attachment points between the housing and the bosses , the corners being configured to transport the localized electrolyte from the reservoir towards the separator .
Method for the measurement of the angular position of a folded pendulum with respect to a reference system xyz wherein the z-axis is along the direction of the gravity field or an equivalent conservative field, the folded pendulum comprising a support (F) with a base, a test mass (PM) with an oscillation direction, a simple pendulum arm (SP) and an inverted pendulum arm (IP) that connect the test mass (PM) to the support (F), the folded pendulum being positioned in such a way that said oscillation direction is along or parallel to the X-axis of a reference system XYZ integral to the folded pendulum and obtained by rotation from the system xyz by the Tait-Bryan angles of roll α, pitch β and yaw γ, the angles α, β, γ thus defining said angular position, the folded pendulum being subjected to a mechanical excitation or stress that makes it oscillate, and having a resonance frequency f o , the method being characterized in that the following steps are executed when said folded pendulum is alternatively in a known angular position with known angle α = α known , in particular α = 0, or in a known angular position with known angle β = β known , in particular β = 0: MB1. Providing a function f o = f o (α ,β ) of said resonance frequency as a function of α and β, starting from a Lagrangian A describing the folded pendulum or a resonance frequency-angular position calibration curve of said folded pendulum; MB2. Measuring the resonance frequency f o of the folded pendulum in said angular position starting from the oscillation motion of the test mass (PM) with respect to the support (F); MB3. Inverting the function f o = f o (α , β ) with α = α known or β = β known and providing an angular position function β = β ( f 0 ) or | α | = α ( f 0 ) respectively as a function of the resonance frequency; MB4. Calculating the angles β or | α |, respectively starting from the function β = β ( f 0 ) or | α | = α ( f 0 ); wherein said mechanical stress or excitation is such to make the folded pendulum oscillate so as to comprise said resonance frequency f 0 . MB1. Providing a function f o = f o (α ,β ) of said resonance frequency as a function of α and β, starting from a Lagrangian A describing the folded pendulum or a resonance frequency-angular position calibration curve of said folded pendulum; MB2. Measuring the resonance frequency f o of the folded pendulum in said angular position starting from the oscillation motion of the test mass (PM) with respect to the support (F); MB3. Inverting the function f o = f o (α , β ) with α = α known or β = β known and providing an angular position function β = β ( f 0 ) or | α | = α ( f 0 ) respectively as a function of the resonance frequency; MB4. Calculating the angles β or | α |, respectively starting from the function β = β ( f 0 ) or | α | = α ( f 0 );
A method for embossing a plastic sheet between a first and a second tool half, where the plastic sheet is pressed and heated between the tool halves while a pattern is imprinted on first and second faces of the plastic sheet by means of a first and a second stamper , respectively, on the tool halves, characterized by - imprinting at least a first reference mark on the first face of the plastic sheet and at least a second reference mark on the second face of the plastic sheet, - evaluating the embossed plastic sheet with optical means to determine an error data based on the relative position of the first and second reference marks, and adjusting the embossing tool based on the error data for subsequent embossing operations. - imprinting at least a first reference mark on the first face of the plastic sheet and at least a second reference mark on the second face of the plastic sheet, - evaluating the embossed plastic sheet with optical means to determine an error data based on the relative position of the first and second reference marks, and
Application head for the application of a covering material onto an object , at least comprising a base unit and a movable unit , wherein movable unit is movable with respect to base unit , a roller element for applicating said covering material onto the object , wherein the roller element is movable by an actuator means , at least one tensioning element for tensioning the covering material , at least one balancing element for pressure adjustment between application head and the object , wherein said balancing element is coupled with the movable unit and the base unit characterized in that the tensioning element is attached to the movable unit and deflectable with respect to the movable unit , wherein said balancing element is coupled with the movable unit and the base unit characterized in that the tensioning element is attached to the movable unit and deflectable with respect to the movable unit ,
A pharmaceutical composition for inhalatory use in powder form, characterized by comprising: a) a spray dried powder comprising an active principle selected from the group consisting of: inhalation bronchodilators with short and long duration of action, corticosteroids, anticholinergics, antibiotics, mucolytics, heparin, antioxidant substances, in an amount greather than 1% by weight of said first powder, leucine in an amount from 5 to 70% by weight of said first powder and a monosaccharides with 5 or more carbon atoms, disaccharides, oligosaccharides, polysaccharides or polyols with 5 or more carbon atoms selected from the group consisting of lactose, trehalose, sucrose and maltodextrin, in an amount from 20 to 90% by weight of said first powder and a surfactant; b) a bulking agent spray dried powder comprising leucine in amount from 5 to 70% by weight of said second powder and a monosaccharides with 5 or more carbon atoms, disaccharides, oligosaccharides, polysaccharides or polyols with 5 or more carbon atoms selected from the group consisting of: lactose, trehalose, sucrose and maltodextrin, in an amount from 20 to 90% by weight of said second powder and a surfactant. wherein said composition has a fine particle fraction (FPF) greater than 60% and an delivered fraction (DF) greater than 80%. a) a spray dried powder comprising an active principle selected from the group consisting of: inhalation bronchodilators with short and long duration of action, corticosteroids, anticholinergics, antibiotics, mucolytics, heparin, antioxidant substances, in an amount greather than 1% by weight of said first powder, leucine in an amount from 5 to 70% by weight of said first powder and a monosaccharides with 5 or more carbon atoms, disaccharides, oligosaccharides, polysaccharides or polyols with 5 or more carbon atoms selected from the group consisting of lactose, trehalose, sucrose and maltodextrin, in an amount from 20 to 90% by weight of said first powder and a surfactant; b) a bulking agent spray dried powder comprising leucine in amount from 5 to 70% by weight of said second powder and a monosaccharides with 5 or more carbon atoms, disaccharides, oligosaccharides, polysaccharides or polyols with 5 or more carbon atoms selected from the group consisting of: lactose, trehalose, sucrose and maltodextrin, in an amount from 20 to 90% by weight of said second powder and a surfactant.
An apparatus for optical detection of interior walls , comprising - at least one camera (K), - an optical imaging arrangement and - a lighting arrangement , wherein - the apparatus is equipped to record images of a plurality of areas of an interior wall offset axially from one another in a panoramic view using the camera (K), and wherein - the apparatus is equipped to record an axial section of the interior wall along a closed circumferential line in each individual image recorded, characterized in that - the lighting arrangement has at least two different functional states, wherein a first brightness distribution emitted by the lighting arrangement is assigned to a first functional state, this brightness distribution differing from a second brightness distribution emitted by the lighting arrangement in at least one second functional state, wherein - the lighting arrangement is equipped to emit brightness distributions that vary axially, radially and/or in the circumferential direction, so that - the interior wall is illuminated from various directions in space by the lighting arrangement , wherein - the apparatus is equipped to change to brightness distribution with a frequency of at least 25 Hz. - at least one camera (K), - an optical imaging arrangement and - a lighting arrangement , wherein - the apparatus is equipped to record images of a plurality of areas of an interior wall offset axially from one another in a panoramic view using the camera (K), and wherein - the apparatus is equipped to record an axial section of the interior wall along a closed circumferential line in each individual image recorded, characterized in that - the lighting arrangement has at least two different functional states, wherein a first brightness distribution emitted by the lighting arrangement is assigned to a first functional state, this brightness distribution differing from a second brightness distribution emitted by the lighting arrangement in at least one second functional state, wherein - the lighting arrangement is equipped to emit brightness distributions that vary axially, radially and/or in the circumferential direction, so that - the interior wall is illuminated from various directions in space by the lighting arrangement , wherein - the apparatus is equipped to change to brightness distribution with a frequency of at least 25 Hz.
A vehicle comprising a light emitting device mounted to said vehicle having a rotary part and a non-rotary part, wherein the light emitting device has a light emitting part to be mounted to one of the rotary part and the non-rotary part, and an electromagnetic wave radiating means , to be mounted to the other of the rotary part and the non-rotary part opposed to the light emitting part so that light from the electromagnetic wave radiating means strikes the light emitting part , for emitting electromagnetic wave to an irradiation area having a width, wherein the light emitting part forms part of said irradiation area, wherein the rotary part is a wheel having a rim and a tire which is rotatable about a rotation axis , the light emitting part is to be mounted on both sides of the rim , and the electromagnetic wave radiating means is to be located close to the rotation axis from the tire , wherein the electromagnetic wave radiating means is to be mounted on the non-rotary part of the vehicle to radiate the electromagnetic wave at an upward angle relative to a direction parallel to the rotation axis , characterized in that the electromagnetic wave radiating means is set so that the width of the irradiation area is at least 1.2 times a width of the light emitting part , wherein the light emitting device has a control unit which pulse-controls the electromagnetic wave radiated from the electromagnetic wave radiating means at a frequency of 5 or more times per one second and at an electromagnetic wave radiation ratio per unit time of 50% or less on average of said electromagnetic wave radiation ratio per unit time, wherein said electromagnetic wave radiation ratio per unit time is defined as the ratio of the electromagnetic wave radiation amount radiated to the light emitting part to the whole electromagnetic wave radiated in a unit time, whereby the light emitting part visually recognizably emits light, wherein the light emitting parts provided on said rim , where a width of said rim is reduced, is located above said wave radiating means formed as LEDs, so that the principle radiation direction of the LEDs are directed to the light emitting parts at an angle upward relative to a direction parallel to a rotation axis of said tire .
A foamed sheet comprising: an aliphatic polyester resin; and a filler, wherein an average foam diameter of the foamed sheet is 15 micrometers or less, the average foam diameter being determined by the method as described in paragraph 0029, wherein an average thickness of the foamed sheet is 3,000 micrometers or less, the average thickness being determined by the method as described in paragraph 0073 and wherein a ratio of a length of a side of the foamed sheet in a longer direction or a side of the foamed sheet in a direction perpendicular to the longer direction to the average thickness is 250 or more. an aliphatic polyester resin; and a filler, wherein an average foam diameter of the foamed sheet is 15 micrometers or less, the average foam diameter being determined by the method as described in paragraph 0029, wherein an average thickness of the foamed sheet is 3,000 micrometers or less, the average thickness being determined by the method as described in paragraph 0073 and wherein a ratio of a length of a side of the foamed sheet in a longer direction or a side of the foamed sheet in a direction perpendicular to the longer direction to the average thickness is 250 or more. wherein an average foam diameter of the foamed sheet is 15 micrometers or less, the average foam diameter being determined by the method as described in paragraph 0029, wherein an average thickness of the foamed sheet is 3,000 micrometers or less, the average thickness being determined by the method as described in paragraph 0073 and wherein a ratio of a length of a side of the foamed sheet in a longer direction or a side of the foamed sheet in a direction perpendicular to the longer direction to the average thickness is 250 or more.
A system for ventilation of a crankcase of an internal combustion engine, the system comprising - an air inlet guide adapted to guide air to at least one cylinder of the engine, - a closed circuit conduit for guiding crankcase gas from the crankcase to the air inlet guide , - wherein the system comprises gas detection means comprising at least one gas sensor positioned in the air inlet guide , for detecting crankcase gas in the air inlet guide, and wherein the closed circuit conduit is arranged to guide the crankcase gas to a location of a connection of the closed circuit conduit to the air inlet guide , characterized in that the at least one gas sensor being positioned upstream of the connection location . - an air inlet guide adapted to guide air to at least one cylinder of the engine, - a closed circuit conduit for guiding crankcase gas from the crankcase to the air inlet guide , - wherein the system comprises gas detection means comprising at least one gas sensor positioned in the air inlet guide , for detecting crankcase gas in the air inlet guide, and wherein the closed circuit conduit is arranged to guide the crankcase gas to a location of a connection of the closed circuit conduit to the air inlet guide , characterized in that the at least one gas sensor being positioned upstream of the connection location .
A synchronization signal block determining method, wherein the method is performed by a terminal device and comprises: detecting (S101), by the terminal device, a first synchronization signal block, SSB; and determining (S102), by the terminal device, a second SSB based on the first SSB, wherein a frequency domain position of the first SSB and a frequency domain position of the second SSB are within a preset bandwidth, or a difference between frequency domain positions of the first SSB and the second SSB is a preset value, and both the first SSB and the second SSB are cell-defining synchronization signal blocks, CD-SSBs; wherein information carried in a synchronization signal of the first SSB is the same as information carried in a synchronization signal of the second SSB, and information carried in a physical broadcast channel, PBCH of the first SSB is the same as information carried in a PBCH of the second SSB; and wherein the method further comprises: combining, by the terminal device, the PBCH of the first SSB and the PBCH of the second SSB, and demodulating, by the terminal device, a combined PBCH. detecting (S101), by the terminal device, a first synchronization signal block, SSB; and determining (S102), by the terminal device, a second SSB based on the first SSB, wherein a frequency domain position of the first SSB and a frequency domain position of the second SSB are within a preset bandwidth, or a difference between frequency domain positions of the first SSB and the second SSB is a preset value, and both the first SSB and the second SSB are cell-defining synchronization signal blocks, CD-SSBs; wherein information carried in a synchronization signal of the first SSB is the same as information carried in a synchronization signal of the second SSB, and information carried in a physical broadcast channel, PBCH of the first SSB is the same as information carried in a PBCH of the second SSB; and wherein the method further comprises: combining, by the terminal device, the PBCH of the first SSB and the PBCH of the second SSB, and demodulating, by the terminal device, a combined PBCH.
An infusate sleeve , comprising: a sleeve body ; a filter inside of the sleeve body and sealed to the sleeve body separating the sleeve body into a top portion and a bottom portion; a rigid disk sealed to the top portion of the sleeve body; the rigid disk covering an opening in the top portion of the sleeve body; a second opening in the bottom portion of the sleeve body; a draw tube connected to the rigid disk; the draw tube downwardly extending from the rigid disk through the filter and into the bottom portion; and a fluid connector connected to an outside of the rigid disk; the fluid connector in fluid connection with the draw tube. a sleeve body ; a filter inside of the sleeve body and sealed to the sleeve body separating the sleeve body into a top portion and a bottom portion; a rigid disk sealed to the top portion of the sleeve body; the rigid disk covering an opening in the top portion of the sleeve body; a second opening in the bottom portion of the sleeve body; a draw tube connected to the rigid disk; the draw tube downwardly extending from the rigid disk through the filter and into the bottom portion; and a fluid connector connected to an outside of the rigid disk; the fluid connector in fluid connection with the draw tube.