mhurhangee/ep-ind-claims huggingface dataset:
Device for measuring at least one skin parameter, comprising: - a housing structure defining an interior cavity and a first opening at a skin contact end of the interior cavity; - a movable part (113, 117) connected to the housing structure via an elastic connecting arrangement, the movable part (113, 117) being movable with respect to the housing structure such that the movable part (113, 117) at least partly remains within the housing structure and configured to protrude from the first opening when no external force is applied to the movable part (113, 117), the movable part (113, 117) further comprising a second opening at a front end section; - an optical sensing unit for performing measurement of a first skin parameter, the optical sensing unit being provided within the interior cavity of the housing structure and comprising an illuminating unit for illuminating the skin surface by emitting light through the second opening of the movable part and an imaging unit for receiving light reflected by the illuminated skin surface; and - an electrical sensing unit for measuring a second skin parameter, wherein the electrical sensing unit is arranged at a front end section of the movable part (113, 117) defining the second opening. - a housing structure defining an interior cavity and a first opening at a skin contact end of the interior cavity; - a movable part (113, 117) connected to the housing structure via an elastic connecting arrangement, the movable part (113, 117) being movable with respect to the housing structure such that the movable part (113, 117) at least partly remains within the housing structure and configured to protrude from the first opening when no external force is applied to the movable part (113, 117), the movable part (113, 117) further comprising a second opening at a front end section; - an optical sensing unit for performing measurement of a first skin parameter, the optical sensing unit being provided within the interior cavity of the housing structure and comprising an illuminating unit for illuminating the skin surface by emitting light through the second opening of the movable part and an imaging unit for receiving light reflected by the illuminated skin surface; and - an electrical sensing unit for measuring a second skin parameter, wherein the electrical sensing unit is arranged at a front end section of the movable part (113, 117) defining the second opening.
A microscope apparatus comprising: an illumination optical system that illuminates a sample with illumination light emitted from a light source; an imaging optical system that converges light emitted from the sample to form a sample image by an objective lens; said objective lens defining an optical axis; characterised by an aperture member that is disposed in the illumination optical system in the vicinity of a conjugate plane of a rear focal plane of the objective lens and has a slit aperture for limiting the illumination light, the slit aperture being formed in the substantial center of the aperture member, with the optical axis passing through the slit aperture; and a filter member that includes a phase plate that is disposed in the imaging optical system in the vicinity of the rear focal plane of the objective lens or in the vicinity of the conjugate plane of the rear focal plane of the objective lens and has a first phase area and a second phase area introducing a phase difference of 180 degrees into the light from the sample; a phase boundary portion between the first phase area and the second phase area being disposed in an image of the slit aperture that is formed in a conjugate position of the slit aperture and extending substantially parallel to a lengthwise direction of the slit aperture. an illumination optical system that illuminates a sample with illumination light emitted from a light source; an imaging optical system that converges light emitted from the sample to form a sample image by an objective lens; said objective lens defining an optical axis; characterised by an aperture member that is disposed in the illumination optical system in the vicinity of a conjugate plane of a rear focal plane of the objective lens and has a slit aperture for limiting the illumination light, the slit aperture being formed in the substantial center of the aperture member, with the optical axis passing through the slit aperture; and a filter member that includes a phase plate that is disposed in the imaging optical system in the vicinity of the rear focal plane of the objective lens or in the vicinity of the conjugate plane of the rear focal plane of the objective lens and has a first phase area and a second phase area introducing a phase difference of 180 degrees into the light from the sample; a phase boundary portion between the first phase area and the second phase area being disposed in an image of the slit aperture that is formed in a conjugate position of the slit aperture and extending substantially parallel to a lengthwise direction of the slit aperture.
A method for determining fuel supplied to an engine comprising: receiving, by a controller, a first signal; characterised by receiving, by the controller, a second signal, wherein a response bandwidth frequency of the first signal is less than the response bandwidth frequency of the second signal; subtracting, by the controller, the second signal from the first signal to create an error signal; lagging, by the controller, the error signal to create a lagged error signal; adding, by the controller, the lagged error signal to the second signal to create a compensated signal; receiving, by the controller, a switch control signal, the compensated signal, and the second signal; determining, by the controller, the controller implementing a switch logic, whether to send at least one of the compensated signal or the second signal; sending, by the controller, at least one of the compensated signal or the second signal to a water-fuel ratio system. receiving, by a controller, a first signal; characterised by receiving, by the controller, a second signal, wherein a response bandwidth frequency of the first signal is less than the response bandwidth frequency of the second signal; subtracting, by the controller, the second signal from the first signal to create an error signal; lagging, by the controller, the error signal to create a lagged error signal; adding, by the controller, the lagged error signal to the second signal to create a compensated signal; receiving, by the controller, a switch control signal, the compensated signal, and the second signal; determining, by the controller, the controller implementing a switch logic, whether to send at least one of the compensated signal or the second signal; sending, by the controller, at least one of the compensated signal or the second signal to a water-fuel ratio system.
A lubricant composition comprising an oil of lubricating viscosity and 0.01 to 5 percent by weight of a substantially sulfur-free alkyl phosphate amine salt, wherein at least 30 mole percent of the phosphorus atoms are in an-alkyl pyrophosphate salt structure; wherein at least 80 mole percent of the alkyl groups are secondary alkyl groups of 3 to 12 carbon atoms; and wherein the amine alkyl pyrophosphate salt comprises a species represented by formula or wherein 0 to 5 mole percent of the O atoms are replaced by S atoms: wherein each R 1 is independently a secondary alkyl group of 4 to 12 carbon atoms and each R 2 is independently hydrogen or a hydrocarbyl group or an ester-containing group, and at least one R 2 group is a hydrocarbyl group or an ester-containing group.
A digital phase locked loop, DPLL,, comprising: an adjustable delay line configured to receive at least one of a reference clock and a feedback clock as an input and to output a dithered signal; a phase and frequency detector, PFD, configured to compare clock signals including a reference clock signal and a feedback clock signal wherein at least one of the clock signals is the dithered signal to determine phase and frequency differences between the clock signals; a digitally controlled oscillator, DCO, configured to receive early or late determinations from the PFD to adjust an output in accordance therewith; characterized by a dithering control circuit for changing an operating frequency to the DCO, the dithering control circuit including a feedback loop connected to an output of the DCO to feed back a control sequence to the DCO to enable a frequency of operation of the DCO, wherein the operating frequency of the DCO is thereby dithered at a rate equal to or integer multiples of its operating frequency and a spectral density of an oscillator frequency distribution is shaped so that dithering energy falls at or near zero so that no additional jitter or phase noise is introduced by the dithering. an adjustable delay line configured to receive at least one of a reference clock and a feedback clock as an input and to output a dithered signal; a phase and frequency detector, PFD, configured to compare clock signals including a reference clock signal and a feedback clock signal wherein at least one of the clock signals is the dithered signal to determine phase and frequency differences between the clock signals; a digitally controlled oscillator, DCO, configured to receive early or late determinations from the PFD to adjust an output in accordance therewith; characterized by a dithering control circuit for changing an operating frequency to the DCO, the dithering control circuit including a feedback loop connected to an output of the DCO to feed back a control sequence to the DCO to enable a frequency of operation of the DCO, wherein the operating frequency of the DCO is thereby dithered at a rate equal to or integer multiples of its operating frequency and a spectral density of an oscillator frequency distribution is shaped so that dithering energy falls at or near zero so that no additional jitter or phase noise is introduced by the dithering.
Reflector comprising a support structure and a mirror with a non-plane shape, fixed at its non-reflecting surface, said support structure being provided with pivot elements for rotating the reflector about at least one pivot axis, characterised in that the mirror is composed of a plurality of adjacent mirror elements with a non-plane shape, in that the reflector also comprises a frame associated with each mirror element, inserted between the structure support and said associated mirror element, said frames being independent of each other and each being associated with a unique mirror element, each frame comprising cross-members on which stringers are fixed, the non-reflecting surface of the mirror element being fixed on the stringers of the frame by means of mirror element attachment means, and in that each frame is mounted on the support structure using removable mechanical attachment means (36, 38), said support structure comprising positioning elements for each frame, the positioning elements forming contact points that together define a reference bearing surface for the frame supporting the mirror element. characterised in that the mirror is composed of a plurality of adjacent mirror elements with a non-plane shape, in that the reflector also comprises a frame associated with each mirror element, inserted between the structure support and said associated mirror element, said frames being independent of each other and each being associated with a unique mirror element, each frame comprising cross-members on which stringers are fixed, the non-reflecting surface of the mirror element being fixed on the stringers of the frame by means of mirror element attachment means, and in that each frame is mounted on the support structure using removable mechanical attachment means (36, 38), said support structure comprising positioning elements for each frame, the positioning elements forming contact points that together define a reference bearing surface for the frame supporting the mirror element.
A check-valve assembly comprising a housing and a check-valve wherein: the housing defines a first connection, a second connection, a first passageway between the first and second connections, and a second passageway between the first and second connections that is distinct from the first passageway; the check valve is disposed in the first passageway and configured to: permit fluid to pass through the check valve assembly from the first connection to the second connection if the pressure at the second connection is less than the pressure at the first connection; and substantially prevent fluid from passing through the check valve from the second connection to the first connection if the pressure at the second connection is greater than the pressure at the first connection. the housing defines a first connection, a second connection, a first passageway between the first and second connections, and a second passageway between the first and second connections that is distinct from the first passageway; the check valve is disposed in the first passageway and configured to: permit fluid to pass through the check valve assembly from the first connection to the second connection if the pressure at the second connection is less than the pressure at the first connection; and substantially prevent fluid from passing through the check valve from the second connection to the first connection if the pressure at the second connection is greater than the pressure at the first connection. permit fluid to pass through the check valve assembly from the first connection to the second connection if the pressure at the second connection is less than the pressure at the first connection; and substantially prevent fluid from passing through the check valve from the second connection to the first connection if the pressure at the second connection is greater than the pressure at the first connection.
Method for the process monitoring of a process system having a fluid-line portion, through which a process fluid flows and which comprises an inflow opening and an outflow opening, wherein at least one system component (2, 4, 8) which influences the fluid flow is arranged between the inflow opening and the outflow opening, and wherein the process fluid flowing into the fluid-line portion through the inflow opening flows out again through the outflow opening, wherein a mass flow m which flows through the at least one system component and at least one material constant are determined as determination variables of the process fluid in the fluid-line portion in a determination step within a predetermined determination duration in order to identify an operating point of the process system in the fluid-line portion, wherein the mass flow m which flows through the at least one system component and at least two material constants are determined as determination variables of the process fluid and two thermodynamic material constants of the process gas are determined in the determination step, characterised in that the two thermodynamic material constants form a value pair from the specific gas constant R s, the isentropic exponent γ, and the specific heat capacities at a constant pressure c p or a constant volume c v.
A cork stopper punching automatic system characterized in that it comprises: a support frame defining a working plane and having a first end and a second end, which define an operating direction, the frame comprising: • a cork strip feeder disposed on said first end, • three cork strip conveyors sequentially arranged in line and separated from one another by a first strip reading space and a second strip punching space; at least three cameras arranged to capture images from the strip reading space; a punching assembly arranged to operate in the strip punching space; a vertical actuator arranged to angularly displace the second end of the support frame or to displace the punching assembly perpendicular to the working plane; a processing unit connected in data communication with the cameras, wherein the processing unit comprises controllers for controlling the actuator, conveyors and punching assembly in accordance to data from the cameras. a support frame defining a working plane and having a first end and a second end, which define an operating direction, the frame comprising: • a cork strip feeder disposed on said first end, • three cork strip conveyors sequentially arranged in line and separated from one another by a first strip reading space and a second strip punching space; • a cork strip feeder disposed on said first end, • three cork strip conveyors sequentially arranged in line and separated from one another by a first strip reading space and a second strip punching space; at least three cameras arranged to capture images from the strip reading space; a punching assembly arranged to operate in the strip punching space; a vertical actuator arranged to angularly displace the second end of the support frame or to displace the punching assembly perpendicular to the working plane; a processing unit connected in data communication with the cameras, wherein the processing unit comprises controllers for controlling the actuator, conveyors and punching assembly in accordance to data from the cameras.
A vehicle vibration reduction apparatus comprising: an inertial mass body that is connected to a rotary shaft of a power transmission apparatus such that the inertial mass body is capable of power transmission, wherein the power transmission apparatus is capable of transmitting rotary power from a travel drive source to a drive wheel of a vehicle, the inertial mass body being provided parallel to a power transmission path of the power transmission apparatus extending from the travel drive source to the drive wheel; and a switching apparatus that is provided on the power transmission path between the rotary shaft and the inertial mass body and that is capable of switching between a first path on which the rotary shaft and the inertial mass body are connected to each other via an elastic body, and a second path on which the rotary shaft and the inertial mass body are connected to each other without passing through the elastic body. an inertial mass body that is connected to a rotary shaft of a power transmission apparatus such that the inertial mass body is capable of power transmission, wherein the power transmission apparatus is capable of transmitting rotary power from a travel drive source to a drive wheel of a vehicle, the inertial mass body being provided parallel to a power transmission path of the power transmission apparatus extending from the travel drive source to the drive wheel; and a switching apparatus that is provided on the power transmission path between the rotary shaft and the inertial mass body and that is capable of switching between a first path on which the rotary shaft and the inertial mass body are connected to each other via an elastic body, and a second path on which the rotary shaft and the inertial mass body are connected to each other without passing through the elastic body.
A device binding method implemented in a server, comprising: receiving a device identification of a smart device and a user identification of a user owning the smart device from the smart device; judging whether there is a temporary binding relation between the device identification and the user identification according to a preconfigured temporary binding relation, wherein the temporary binding relation is configured by the server after the server detects a designated operation for a temporary binding triggering option on a device transaction page; wherein the temporary binding triggering option has an input box added near a selectable button for prompting the user to input the user identification to be bound, if the selectable button is selected and the user identification input to the binding information input box is detected, the user identification in the input box is temporarily bound with the device identification by the server, and if there is a temporary binding relation between the device identification and the user identification, binding the device identification and the user identification. receiving a device identification of a smart device and a user identification of a user owning the smart device from the smart device; judging whether there is a temporary binding relation between the device identification and the user identification according to a preconfigured temporary binding relation, wherein the temporary binding relation is configured by the server after the server detects a designated operation for a temporary binding triggering option on a device transaction page; wherein the temporary binding triggering option has an input box added near a selectable button for prompting the user to input the user identification to be bound, if the selectable button is selected and the user identification input to the binding information input box is detected, the user identification in the input box is temporarily bound with the device identification by the server, and if there is a temporary binding relation between the device identification and the user identification, binding the device identification and the user identification.
Method for transmitting information between a vehicle and a server external to the vehicle, in which a contour profile of a road to be traversed by the vehicle, which is stored on the server, is retrieved by the vehicle via a vehicle-server-interface, wherein height values (H, G) of the road-surface contour profile lying in front of the vehicle are transmitted by the server to the vehicle cyclically at a time interval (13, 15) to be fixed, wherein per cycle a contour value (H, G) is transmitted which lies at an interval (13, 15), depending on speed, in front of the vehicle such that the time between two requests of the control unit can be raised at lower speed or decreased at higher speed.
A hydrated fat composition comprising a water-in-oil émulsion comprising: (a) a continuous phase comprising: a solid fat comprising a fully-hydrogenated vegetable oil, a stearine fraction of a vegetable oil, or a mixture thereof, in an amount ranging from 5 wt.% to 40 wt.% of the hydrated fat; and a low trans fat liquid vegetable oil in an amount ranging from 20 wt.% to 80 wit.% of the hydrated fat composition; (b) a dispersed phase comprising water in an amount ranging from wt% to 50 wt.% of the hydrated fat composition; and (c) an emulsifier. (a) a continuous phase comprising: a solid fat comprising a fully-hydrogenated vegetable oil, a stearine fraction of a vegetable oil, or a mixture thereof, in an amount ranging from 5 wt.% to 40 wt.% of the hydrated fat; and a low trans fat liquid vegetable oil in an amount ranging from 20 wt.% to 80 wit.% of the hydrated fat composition; a solid fat comprising a fully-hydrogenated vegetable oil, a stearine fraction of a vegetable oil, or a mixture thereof, in an amount ranging from 5 wt.% to 40 wt.% of the hydrated fat; and a low trans fat liquid vegetable oil in an amount ranging from 20 wt.% to 80 wit.% of the hydrated fat composition; (b) a dispersed phase comprising water in an amount ranging from wt% to 50 wt.% of the hydrated fat composition; and (c) an emulsifier.