mhurhangee/ep-ind-claims huggingface dataset:
A lighting apparatus comprising: a printed circuit board; a plurality of light sources disposed on the printed circuit board; a reflecting unit disposed on the printed circuit board; and a resin layer disposed on the reflecting unit to cover the light sources, wherein the reflecting unit comprises a reflective film on a first surface of the printed circuit board, wherein the reflective film comprises a plurality of holes, wherein each light source of the plurality of light sources is disposed in a respective hole of the reflective film, characterized in that the reflecting unit further comprises a transparent reflective film spaced apart from the reflective film, and a spacing member disposed between the reflective film and the transparent reflective film, and the transparent reflective film comprises a plurality of holes aligned with the holes of the reflective film, and each light source is also disposed in a respective hole of the transparent reflective film and protrudes outward through the respective hole, and the spacing member comprises a plurality of unit spacing members and a plurality of first air areas. a printed circuit board; a plurality of light sources disposed on the printed circuit board; a reflecting unit disposed on the printed circuit board; and a resin layer disposed on the reflecting unit to cover the light sources, wherein the reflecting unit comprises a reflective film on a first surface of the printed circuit board, wherein the reflective film comprises a plurality of holes, wherein each light source of the plurality of light sources is disposed in a respective hole of the reflective film, characterized in that the reflecting unit further comprises a transparent reflective film spaced apart from the reflective film, and a spacing member disposed between the reflective film and the transparent reflective film, and the transparent reflective film comprises a plurality of holes aligned with the holes of the reflective film, and each light source is also disposed in a respective hole of the transparent reflective film and protrudes outward through the respective hole, and the spacing member comprises a plurality of unit spacing members and a plurality of first air areas.
Supporting structure of a vehicle with an antenna that is conformal with the outer structure, wherein the antenna has a flat-formed EM functional core, which is embedded in an indentation of the supporting structure; a covering plate, which is formed as an upper or outer covering of the EM functional core that is conformal with the outer structure and which is connected in its peripheral regions to the supporting structure, characterized in that the EM functional core and also the covering plate are respectively connected to the supporting structure by way of an adhesive layer and in that the outer peripheral region of the indentation is formed by angling of the supporting structure at an acute angle (α) with respect to the outer structure of the vehicle, and in that the covering plate is correspondingly bevelled on its peripheral legion at an acute angle and adhesively bonded there to the supporting structure.
A system comprising a sensor assembly and a rotation transmitting portion, the sensor assembly being configured to be attached to a bicycle, the bicycle including a wheel that is supported rotatably on a body frame, and the sensor assembly comprising: a detected portion; a detecting portion for detecting a rotation of the detected portion; and a holder that is fixable to the body frame so as not to rotate, wherein the holder is configured to support the detecting portion so as not to rotate and support the detected portion so as to rotate, and the system is configured such that, in an attached state when the sensor assembly is attached to the bicycle with the holder fixed to the body frame and the rotation transmitting portion provided on a hub of the wheel, rotational force of the wheel can be transmitted to rotate the detected portion together with the wheel by bringing a circumferential end face of an engaging portion that is provided on the rotation transmitting portion into abutment with a circumferential end face of an engaged portion that is provided on the detected portion. a detected portion; a detecting portion for detecting a rotation of the detected portion; and a holder that is fixable to the body frame so as not to rotate, wherein the holder is configured to support the detecting portion so as not to rotate and support the detected portion so as to rotate, and the system is configured such that, in an attached state when the sensor assembly is attached to the bicycle with the holder fixed to the body frame and the rotation transmitting portion provided on a hub of the wheel, rotational force of the wheel can be transmitted to rotate the detected portion together with the wheel by bringing a circumferential end face of an engaging portion that is provided on the rotation transmitting portion into abutment with a circumferential end face of an engaged portion that is provided on the detected portion.
A motor comprising a motor housing, a stator located within the motor housing, a rotor supported for rotation within the motor housing upon a rotor shaft, the rotor shaft being supported for rotation by bearings (22, 24), and a sealing sleeve, wherein the sealing sleeve is of closed ended form and encircles the rotor, the sealing sleeve being sealed adjacent its open end to the motor housing; characterised in that the sleeve comprises a main sleeve part and a removable plug closing an end of the main sleeve part; and wherein the rotor shaft is hollow, at least adjacent the closed end of the sleeve, and the closed end of the sleeve projects into the hollow of the rotor shaft.
A screen printing plate comprising: a mesh fixed to a frame body; an emulsion layer that fills up the mesh and has a through-hole; characterised by an amorphous carbon film formed on at least part of the inner wall of the through-hole and comprising at least one element selected from the group of silicon, oxygen, nitrogen and mixtures thereof; and a thin film of a fluorine-containing silane coupling agent formed on at least part of the amorphous carbon film. a mesh fixed to a frame body; an emulsion layer that fills up the mesh and has a through-hole; characterised by an amorphous carbon film formed on at least part of the inner wall of the through-hole and comprising at least one element selected from the group of silicon, oxygen, nitrogen and mixtures thereof; and a thin film of a fluorine-containing silane coupling agent formed on at least part of the amorphous carbon film.
A system comprising a detector to detect, on the skin of a subject, electrical potentials characteristic of electrical activity of neurological tissue and electrical potentials characteristic of electrical activity of non-neurological tissue in the vicinity of the detector, a processor, digital storage containing instructions to be executed by the processor to cause the processor to produce data values representative of the electrical activity of the neurological tissue based on the detected electrical potentials, one or more signal processing components to receive the detected electrical potentials and to produce processed electrical signals that are representative of, and have a better signal-to-noise ratio than, the detected electrical potentials of the neurological tissue, characterized in that the system comprises an analytical component (26, 30) to produce processed electrical signals (24, 32, 18) by analyzing successive times of occurrence or changing polarity of electrical potentials at two locations on the skin and identifying electrical potentials characteristic of electrical activity of neurological tissue based on the relationship of the times of occurrence or the polarities.
Floor cleaning machine with a machine frame, with a chassis, which is provided on the machine frame, for moving the floor cleaning machine along a direction of travel over a floor surface to be cleaned, with a cleaning device which is held movably on the machine frame, wherein a cleaning element and a container for sweepings, which has a base, are provided on the cleaning device, wherein the cleaning device can be adjusted in relation to the machine frame between a lowered position and an elevated position, wherein, in the lowered position, the cleaning element is arranged relative to the floor surface to be cleaned such that said cleaning element can clean the latter, and wherein, in the elevated position, the cleaning device is spaced apart from the floor surface to be cleaned, characterized in that the floor cleaning machine has a probe element which has a free end which extends into the container for sweepings, wherein the probe element is arranged in such a manner that the distance of the free end of the probe element from the base of the container for sweepings is increased when the cleaning device is adjusted from the elevated position into the lowered position, wherein the probe element can execute a movement relative to the machine frame, during which movement the free end of said probe element executes a movement in a direction which points away from the base of the container for sweepings, and with means for detecting the movement of the probe element relative to the machine frame, wherein the means are configured to emit a signal when a movement of the probe element is detected. with a chassis, which is provided on the machine frame, for moving the floor cleaning machine along a direction of travel over a floor surface to be cleaned, with a cleaning device which is held movably on the machine frame, wherein a cleaning element and a container for sweepings, which has a base, are provided on the cleaning device, wherein the cleaning device can be adjusted in relation to the machine frame between a lowered position and an elevated position, wherein, in the lowered position, the cleaning element is arranged relative to the floor surface to be cleaned such that said cleaning element can clean the latter, and wherein, in the elevated position, the cleaning device is spaced apart from the floor surface to be cleaned, characterized in that the floor cleaning machine has a probe element which has a free end which extends into the container for sweepings, wherein the probe element is arranged in such a manner that the distance of the free end of the probe element from the base of the container for sweepings is increased when the cleaning device is adjusted from the elevated position into the lowered position, wherein the probe element can execute a movement relative to the machine frame, during which movement the free end of said probe element executes a movement in a direction which points away from the base of the container for sweepings, and with means for detecting the movement of the probe element relative to the machine frame, wherein the means are configured to emit a signal when a movement of the probe element is detected.
A substrate processing apparatus for processing a substrate, the apparatus comprising: a stage configured to hold and move a substrate to be processed; a conveying unit configured to hold and convey the substrate to be processed between the conveying unit and the stage; characterized by further comprising an accumulation unit configured to accumulate control information concerning the stage and the conveying unit generated as a result of previous processing of a substrate that has already been processed; and a determination unit configured to determine a conveying procedure for conveying the substrate to be processed between the stage and the conveying unit by selecting one of a plurality of conveying procedures which can be set for the stage and the conveying unit based on the control information accumulated in the accumulation unit. a stage configured to hold and move a substrate to be processed; a conveying unit configured to hold and convey the substrate to be processed between the conveying unit and the stage; characterized by further comprising an accumulation unit configured to accumulate control information concerning the stage and the conveying unit generated as a result of previous processing of a substrate that has already been processed; and a determination unit configured to determine a conveying procedure for conveying the substrate to be processed between the stage and the conveying unit by selecting one of a plurality of conveying procedures which can be set for the stage and the conveying unit based on the control information accumulated in the accumulation unit.
An exchangeable separation insert for a centrifugal separator comprising a rotor casing enclosing a separation space in which a stack of separation discs is arranged to rotate around an axis of rotation, said rotor casing being axially arranged between a first and a second stationary portion; a feed inlet for supply of the fluid mixture to be separated to said separation space, a light phase outlet for discharge of a separated phase of a first density, and a heavy phase outlet for discharge of a separated phase of a second density higher than said first density, wherein said feed inlet is arranged at a first axial end of said rotor casing, and wherein said heavy phase outlet is arranged at a second axial end, opposite the first axial end, of the rotor casing; a first rotatable seal sealing and connecting said feed inlet to a stationary inlet conduit in said first stationary portion; and a second rotatable seal for sealing and connecting one of said light phase outlet and heavy phase outlet to a stationary outlet conduit in said second stationary portion, wherein the heavy phase outlet is arranged at the second axial end and the light phase outlet and the feed inlet may be arranged at the first axial end; and wherein the heavy phase collection space of the separation space extends from a first axial position to a second axial position, and characterised in that the inner diameter of the separation space continuously increases with no intermittent decrease from said first to said second axial position. a rotor casing enclosing a separation space in which a stack of separation discs is arranged to rotate around an axis of rotation, said rotor casing being axially arranged between a first and a second stationary portion; a feed inlet for supply of the fluid mixture to be separated to said separation space, a light phase outlet for discharge of a separated phase of a first density, and a heavy phase outlet for discharge of a separated phase of a second density higher than said first density, wherein said feed inlet is arranged at a first axial end of said rotor casing, and wherein said heavy phase outlet is arranged at a second axial end, opposite the first axial end, of the rotor casing; a first rotatable seal sealing and connecting said feed inlet to a stationary inlet conduit in said first stationary portion; and a second rotatable seal for sealing and connecting one of said light phase outlet and heavy phase outlet to a stationary outlet conduit in said second stationary portion, wherein the heavy phase outlet is arranged at the second axial end and the light phase outlet and the feed inlet may be arranged at the first axial end; and wherein the heavy phase collection space of the separation space extends from a first axial position to a second axial position, and characterised in that the inner diameter of the separation space continuously increases with no intermittent decrease from said first to said second axial position.
A modular sensor (1, 701, 1001, 2101) for use in a fluidic system comprising: a sensor; a cap (2, 702 1002, 2102) having a first side and an opposing second side, and enclosing said sensor and electronic circuitry coupled to said sensor, wherein the first side of said cap (2, 702 1002, 2102) includes an opening to a rectangular recess (4, 1004) in the cap (2, 702 1002, 2102), wherein the cap (2, 702 1002, 2102) is adapted to removably receive in the recess (4, 1004) at least one plug connection to electrically couple said sensor; and a base (3, 703, 1003, 2103) attached to the second side of said cap (2, 702 1002, 2102), wherein said base (3, 703, 1003, 2103) has an input port (13a, 1062a) and an output port (13b, 1062b), each of which are adapted to have tubing connected thereto, and wherein said base (3, 703, 1003, 2103) further comprises a first passageway adapted to allow fluid to flow from the input port (13a, 1062a) past at least a portion of said sensor and to the output port (13b, 1062b) of said base (3, 703, 1003, 2103), and wherein said base (3, 703, 1003, 2103) is adapted to be removably attached in an analytical instrument system. a sensor; a cap (2, 702 1002, 2102) having a first side and an opposing second side, and enclosing said sensor and electronic circuitry coupled to said sensor, wherein the first side of said cap (2, 702 1002, 2102) includes an opening to a rectangular recess (4, 1004) in the cap (2, 702 1002, 2102), wherein the cap (2, 702 1002, 2102) is adapted to removably receive in the recess (4, 1004) at least one plug connection to electrically couple said sensor; and a base (3, 703, 1003, 2103) attached to the second side of said cap (2, 702 1002, 2102), wherein said base (3, 703, 1003, 2103) has an input port (13a, 1062a) and an output port (13b, 1062b), each of which are adapted to have tubing connected thereto, and wherein said base (3, 703, 1003, 2103) further comprises a first passageway adapted to allow fluid to flow from the input port (13a, 1062a) past at least a portion of said sensor and to the output port (13b, 1062b) of said base (3, 703, 1003, 2103), and wherein said base (3, 703, 1003, 2103) is adapted to be removably attached in an analytical instrument system.
Method for the operation of a field device which is compatible with a fieldbus protocol, wherein the fieldbus protocol has at least one command, said command serving to execute a first function or to execute a second function of the field device depending on a value of an auxiliary variable, wherein the first function differs from the second function, wherein the command is a prespecified command or manufacturer-specific command of the fieldbus protocol of the field device which is compatible with a fieldbus protocol, wherein the command is a write command designed to write a parameter value of the field device to a memory unit of the field device, wherein the first function is the function predefined for the command by the fieldbus protocol, wherein the second function involves inhibiting the execution of the first function, and wherein the same response telegram and/or the same feedback information is transmitted over the fieldbus by the field device as a response to the at least one command, independently of the function that is executed in the field device depending on the auxiliary variable.
A video codec comprising: a processor configured to: compute a difference between an original pixel and a prediction pixel to generate a prediction residual; and binarize an absolute value of the prediction residual, wherein if the absolute value of the prediction residual, denoted as |R|, is greater than 2, binarizing |R| comprises using a truncated Golomb-Rice code with a Golomb-Rice parameter, and wherein the Golomb-Rice parameter is denoted as cRiceParam, is an integer, and has a valid range from 0 to n, where n is greater than 3 and wherein cRiceParam determines another parameter denoted as cTRMax, wherein if |R|-3>cTRMax, binarizing cRiceParam comprises using a k-th order exponential Golomb code, and wherein k is a positive integer and wherein cRiceParam and cTRMax are specified according to following table: cRiceParam cTRMax 0 7 1 20 2 42 3 70 4 142 5 252 a processor configured to: compute a difference between an original pixel and a prediction pixel to generate a prediction residual; and binarize an absolute value of the prediction residual, wherein if the absolute value of the prediction residual, denoted as |R|, is greater than 2, binarizing |R| comprises using a truncated Golomb-Rice code with a Golomb-Rice parameter, and wherein the Golomb-Rice parameter is denoted as cRiceParam, is an integer, and has a valid range from 0 to n, where n is greater than 3 and wherein cRiceParam determines another parameter denoted as cTRMax, wherein if |R|-3>cTRMax, binarizing cRiceParam comprises using a k-th order exponential Golomb code, and wherein k is a positive integer and wherein cRiceParam and cTRMax are specified according to following table: cRiceParam cTRMax 0 7 1 20 2 42 3 70 4 142 5 252 compute a difference between an original pixel and a prediction pixel to generate a prediction residual; and binarize an absolute value of the prediction residual, wherein if the absolute value of the prediction residual, denoted as |R|, is greater than 2, binarizing |R| comprises using a truncated Golomb-Rice code with a Golomb-Rice parameter, and wherein the Golomb-Rice parameter is denoted as cRiceParam, is an integer, and has a valid range from 0 to n, where n is greater than 3 and wherein cRiceParam determines another parameter denoted as cTRMax, wherein if |R|-3>cTRMax, binarizing cRiceParam comprises using a k-th order exponential Golomb code, and wherein k is a positive integer and wherein cRiceParam and cTRMax are specified according to following table: cRiceParam cTRMax 0 7 1 20 2 42 3 70 4 142 5 252
A method for measuring the concentration of a substance in a solution, said substance having an absorption at 300 nm or less, said method comprising the steps of: i) separating said substance from one or more compounds present in said solution by chromatography; ii) transmitting ultraviolet light of wavelength 300 nm or less from a light source through a band pass filter; iii) passing said ultraviolet light emanating from said band pass filter through a beam-splitter; iv) diverting a first portion of the light by the beam-splitter and quantifying the electromagnetic radiation of said first portion with a reference detector to obtain a reference value; v) irradiating a known path length of the solution with a second portion of the light passing through the beam splitter; vi) quantifying the electromagnetic radiation transmitted through the solution with a sample detector to obtain a sample value; and vii) calculating the absorbance from said sample value and said reference value; wherein, said light source is a light emitting diode which emits light of wavelength of 300 nm or less, and wherein the band pass filter has a bandwidth less than 10nm. i) separating said substance from one or more compounds present in said solution by chromatography; ii) transmitting ultraviolet light of wavelength 300 nm or less from a light source through a band pass filter; iii) passing said ultraviolet light emanating from said band pass filter through a beam-splitter; iv) diverting a first portion of the light by the beam-splitter and quantifying the electromagnetic radiation of said first portion with a reference detector to obtain a reference value; v) irradiating a known path length of the solution with a second portion of the light passing through the beam splitter; vi) quantifying the electromagnetic radiation transmitted through the solution with a sample detector to obtain a sample value; and vii) calculating the absorbance from said sample value and said reference value;