mhurhangee/ep-ind-claims huggingface dataset:
Scale (10, 20), in particular retail scale, having a weighing module, wherein the weighing module comprises a housing (18, 28), in which a load cell is accommodated, wherein the load cell comprises a fixed section, a deformation section and a movable section, wherein the fixed section is connected to the housing (18, 28) and the movable section carries a load cross with a load plate (11, 21), wherein the deformation section has a strain gauge for measuring a weight acting on the load plate (11, 21), characterized in that a luminous strip (19, 29) is attached to the outer wall of the housing, and is attached to the housing (18, 28) substantially circumferentially, and in that the scale comprise a control unit comprising a state machine which represents at least one technical state of the scale, wherein the control unit controls the luminous strip (19, 29) on the basis of the state of the state machine, and in that the luminous strip (19, 29) comprises first, second and third LED illuminants, where the first LED illuminants generate light in a wavelength range of 450 nm to 500 nm, the second LED illuminants generate light in a wavelength range of 500 nm to 570 nm and the third LED illuminants generate light in a wavelength range of 610 nm to 760 nm, wherein the first LED illuminants form a first group of LED illuminants, the second LED illuminants form a second group of LED illuminants, and the third LED illuminants form a third group of LED illuminants, and in that the control unit permanently applies a voltage to the third group of LED illuminants of the luminous strip (19, 29) if the state machine is in a first state (52a1, 52b1, 52c1, 52d1, 52e1, 52f1, 52g1), and permanently applies a voltage to the second group of LED illuminants of the luminous strip (19, 29) if the state machine is in a second state (52a2, 52b2, 52c2, 52d2, 52e2, 52f2, 52g2).
A display device, comprising an array substrate, a color filter substrate facing the array substrate, and a liquid crystal layer between the color filter substrate and the array substrate, wherein the array substrate comprises: a base substrate, a gate line disposed on the base substrate, a data line disposed perpendicular to the gate line, and a pixel region defined by the gate line intersecting the data line, in which a thin film transistor, a pixel electrode, and a common electrode which cooperates with the pixel electrodes to form a multi-dimension electric field are disposed, wherein the pixel electrode is a plate-shaped electrode and the common electrode is a slit-shaped electrode, and a first insulating layer is disposed between the common electrode and the pixel electrode, and a second insulating layer is disposed between a layer of the plate-shaped pixel electrode and a layer of the data line; characterized in tha an end of the plate-shaped pixel electrode completely covers the data line, the color filter substrate comprises black matrixes and color resin sheets formed between the black matrixes on a base substrate of the color filter substrate, the black matrixes are disposed such that they completely cover the gate line, the thin film transistor, and regions where the data line is not formed and which are between adjacent pixels, of the array substrate, and the black matrixes are not covering the data line. a base substrate, a gate line disposed on the base substrate, a data line disposed perpendicular to the gate line, and a pixel region defined by the gate line intersecting the data line, in which a thin film transistor, a pixel electrode, and a common electrode which cooperates with the pixel electrodes to form a multi-dimension electric field are disposed, wherein the pixel electrode is a plate-shaped electrode and the common electrode is a slit-shaped electrode, and a first insulating layer is disposed between the common electrode and the pixel electrode, and a second insulating layer is disposed between a layer of the plate-shaped pixel electrode and a layer of the data line; characterized in tha an end of the plate-shaped pixel electrode completely covers the data line, the color filter substrate comprises black matrixes and color resin sheets formed between the black matrixes on a base substrate of the color filter substrate, the black matrixes are disposed such that they completely cover the gate line, the thin film transistor, and regions where the data line is not formed and which are between adjacent pixels, of the array substrate, and the black matrixes are not covering the data line.
Cage for breeding insects, comprising: - a space, limited by walls (3, 4, 5, 6, 7, 8), for housing said insects and/or pupae and/or cocoons thereof; wherein: - the walls are impenetrable by the insects; - at least one of the walls is at least partly light translucent; and - at least one of the walls comprises an openable part (10, 11, 12), for inserting insects and/or pupae and/or cocoons, characterised in that a bottom wall comprises a gutter for conducting fluid to a fluid exit opening. - a space, limited by walls (3, 4, 5, 6, 7, 8), for housing said insects and/or pupae and/or cocoons thereof; - the walls are impenetrable by the insects; - at least one of the walls is at least partly light translucent; and - at least one of the walls comprises an openable part (10, 11, 12), for inserting insects and/or pupae and/or cocoons, characterised in that a bottom wall comprises a gutter for conducting fluid to a fluid exit opening.
A refrigerating machine oil comprising: a lubricating base oil; and a compound represented by the following formula: Wherein R a and R b each independently represent a monovalent hydrocarbon group, R c represents a divalent hydrocarbon group, X represents -COOH group, and Z a and Z b each independently represent oxygen atom or sulfur atom, and wherein a kinematic viscosity at 40 °C of the refrigerating machine oil is 3 mm 2 /s or more and 500 mm 2 /s or less.
A fluid-cooled electronics assembly for high-power electronics, said assembly comprising: an arrangement of electronic components that defines an upper-side of the arrangement and a lower-side of the arrangement opposite the upper-side; an upper-chamber thermally coupled to the upper-side, said upper-chamber configured to guide flowing-coolant from an upper-inlet to an upper-outlet to remove heat from the upper-side; a lower-chamber thermally coupled to the lower-side, said lower-chamber configured to guide flowing-coolant from a lower-inlet to a lower-outlet to remove heat from the lower-side, wherein the upper-chamber and the lower-chamber are further configured to cooperatively define a transfer-path that fluidicly couples the lower-outlet to the upper-inlet such that the flowing-coolant flows series-wise from the lower-chamber into the upper-chamber, characterized in that the upper-chamber and the lower-chamber are further configured to cooperatively define a manifold-connection operable to couple the assembly to a manifold-outlet and a manifold-inlet of a coolant-manifold such that the flowing-coolant flows through the assembly; the manifold-connection including a fitting configured to define an inlet-port of the assembly that directs the flowing-coolant from the manifold-outlet to the lower-inlet, and an outlet-port that directs the flowing-coolant from the upper-outlet to the manifold-inlet, wherein the inlet-port and the outlet-port are characterized as adjacent and side-by-side ports that are segregated from each other by a wall-section. an arrangement of electronic components that defines an upper-side of the arrangement and a lower-side of the arrangement opposite the upper-side; an upper-chamber thermally coupled to the upper-side, said upper-chamber configured to guide flowing-coolant from an upper-inlet to an upper-outlet to remove heat from the upper-side; a lower-chamber thermally coupled to the lower-side, said lower-chamber configured to guide flowing-coolant from a lower-inlet to a lower-outlet to remove heat from the lower-side, wherein the upper-chamber and the lower-chamber are further configured to cooperatively define a transfer-path that fluidicly couples the lower-outlet to the upper-inlet such that the flowing-coolant flows series-wise from the lower-chamber into the upper-chamber, characterized in that the upper-chamber and the lower-chamber are further configured to cooperatively define a manifold-connection operable to couple the assembly to a manifold-outlet and a manifold-inlet of a coolant-manifold such that the flowing-coolant flows through the assembly; the manifold-connection including a fitting configured to define an inlet-port of the assembly that directs the flowing-coolant from the manifold-outlet to the lower-inlet, and an outlet-port that directs the flowing-coolant from the upper-outlet to the manifold-inlet, wherein the inlet-port and the outlet-port are characterized as adjacent and side-by-side ports that are segregated from each other by a wall-section.
A method in a first wireless device for handling Device to Device, D2D, communication between the first wireless device and a second wireless device, the method comprising: sending, a beacon signal to be received by the second wireless device, which beacon signal announces that the first wireless device is available for D2D communication, characterized in that the beacon signal is sent on a first channel where the first wireless device is interfered, and the beacon signal indicates that no response to the beacon signal shall be sent on the first channel; and then transmitting data on a channel where the first wireless device is interfered. sending, a beacon signal to be received by the second wireless device, which beacon signal announces that the first wireless device is available for D2D communication, characterized in that the beacon signal is sent on a first channel where the first wireless device is interfered, and the beacon signal indicates that no response to the beacon signal shall be sent on the first channel; and then transmitting data on a channel where the first wireless device is interfered.
A cement production apparatus comprising: a plurality of cyclones vertically connected to each other in which exhaust gas generated in a cement kiln flows; a duct provided between the cyclones at an upper stage and the cyclone at a lower stage being provided below the cyclones at the upper stage among the cyclones, the duct in which the exhaust gas drained from the cyclone at the lower stage flows upward, distributing and introducing the exhaust gas to the cyclones at the upper stage; a material-supplying pipe for supplying cement raw material connected to the duct below a distribution part among the cyclones at the upper stage; and a material-guiding chute protruding into the duct from a connection part of the material-supplying pipe to the duct so as to drop the cement raw material being supplied from the material-supplying pipe into the duct, characterized in that the material-guiding chute is formed to have a flat upper surface and to be expandable by sliding so that insertion depth of a tip end from an inner-wall surface of the duct is 0.15 times to 0.5 times of an inner diameter of the duct. a plurality of cyclones vertically connected to each other in which exhaust gas generated in a cement kiln flows; a duct provided between the cyclones at an upper stage and the cyclone at a lower stage being provided below the cyclones at the upper stage among the cyclones, the duct in which the exhaust gas drained from the cyclone at the lower stage flows upward, distributing and introducing the exhaust gas to the cyclones at the upper stage; a material-supplying pipe for supplying cement raw material connected to the duct below a distribution part among the cyclones at the upper stage; and a material-guiding chute protruding into the duct from a connection part of the material-supplying pipe to the duct so as to drop the cement raw material being supplied from the material-supplying pipe into the duct, characterized in that the material-guiding chute is formed to have a flat upper surface and to be expandable by sliding so that insertion depth of a tip end from an inner-wall surface of the duct is 0.15 times to 0.5 times of an inner diameter of the duct.
A filter housing assembly comprising: a housing having an opening adapted to receive a filter; an air passage formed through the housing; and a seal member coupled to the housing and movable between a first position and at least a second position, the second position sealing the passage; and characterised by a seal element sealing the air passage with a bubble tight seal when the seal member is in the second position. a housing having an opening adapted to receive a filter; an air passage formed through the housing; and a seal member coupled to the housing and movable between a first position and at least a second position, the second position sealing the passage; and characterised by a seal element sealing the air passage with a bubble tight seal when the seal member is in the second position.
An ink-jet recording ink set, comprising a combination of inks of a plurality of colors having different hues, wherein an ink as an ink of one color selected from the inks of the plurality of colors comprises an ink containing a dye D1, a compound C1 represented by the following general formula and having an ethylene oxide average addition number U+V of S1, and water, wherein an ink as an ink of one color except the ink selected from the inks of the plurality of colors comprises an ink containing a dye D2, a compound C2 represented by the following general formula and having an ethylene oxide average addition number U+V of S2, and water, and wherein a surface tension γL1 (mN/m) of an evaluation liquid L1 obtained by adding, to a 5 mass% aqueous solution of the dye D1, a compound C3 represented by the following general formula and having an ethylene oxide average addition number U+V of 10 in an amount corresponding to 1 mass% of the aqueous solution, and a surface tension γL2 (mN/m) of an evaluation liquid L2 obtained by adding, to a 5 mass% aqueous solution of the dye D2, the compound C3 in an amount corresponding to 1 mass% of the aqueous solution satisfy a relationship of γL1-γL2≥10 (mN/m), and the ethylene oxide average addition number S1 of the compound C1 incorporated into the ink and the ethylene oxide average addition number S2 of the compound C2 incorporated into the ink satisfy a relationship of 2≤S2-S1≤7, wherein the surface tension is measured by a plate method using a platinum plate with an automatic surface tensiometer under the conditions of a temperature of 25°C and a humidity of 50%.
A light-emitting device comprising a solid-state light source, at least one conversion element and a light-scattering element, wherein - the solid-state light source is provided to emit a first part of a primary radiation for entry into the light-scattering element and a second part of a primary radiation for entry into the conversion element for at least partial conversion into at least one secondary radiation (521, 522), - the light-scattering element is provided to generate a mixed radiation having a Lambertian light distribution from the first part of the primary radiation, the secondary radiation (521, 522) and a portion of the second part of the primary radiation that has not been converted in the conversion element, and - the first part of the primary radiation leaves the light-emitting device without having passed the conversion element, and the light-emitting device further comprising a lens, which encloses the solid-state light source, characterised in that said lens encloses the conversion element and the light-scattering element. - the solid-state light source is provided to emit a first part of a primary radiation for entry into the light-scattering element and a second part of a primary radiation for entry into the conversion element for at least partial conversion into at least one secondary radiation (521, 522), - the light-scattering element is provided to generate a mixed radiation having a Lambertian light distribution from the first part of the primary radiation, the secondary radiation (521, 522) and a portion of the second part of the primary radiation that has not been converted in the conversion element, and - the first part of the primary radiation leaves the light-emitting device without having passed the conversion element,
A fuel tank (10, 40, 54), comprising: a tank body defining a chamber adapted to receive liquid fuel therein, characterized by a reinforcement for the tank body to permit the pressure within the chamber to exceed the vapor pressure of a fuel to be received within the chamber; and an inlet to the tank body through which fuel is added to the chamber, the inlet being configured to mate with a refueling nozzle through which fuel is added to the chamber to permit refueling the tank and maintaining the pressure in the chamber above atmospheric pressure. a tank body defining a chamber adapted to receive liquid fuel therein, characterized by a reinforcement for the tank body to permit the pressure within the chamber to exceed the vapor pressure of a fuel to be received within the chamber; and an inlet to the tank body through which fuel is added to the chamber, the inlet being configured to mate with a refueling nozzle through which fuel is added to the chamber to permit refueling the tank and maintaining the pressure in the chamber above atmospheric pressure.
A guide wire comprising: a tubular body; two or more conductive wires which are inserted into and passed through an internal space of the tubular body to be extended from a proximal end portion of the tubular body; and a connector having a complex of a tubular shape formed by two or more electrode rings (337A, 337B, 337C, 337D) exposed to an outer peripheral surface of the tubular shape and three or more insulation rings, the electrode rings and the insulation rings being alternately arranged and integrally fixed to locate the electrode rings apart from one another in the longitudinal axial direction of the complex, the connector further comprising two or more electrode pins (345A, 345B, 345C, 345D), wherein the electrode pins are connected to the electrode rings (337A, 337B, 337C, 337D) in a one-to-one correspondence and extend from a distal end portion of the complex through the internal space of the tubular shape of the complex to be connected to the conductive wires extending from the proximal end portion of the tubular body of the guide wire, the electrode pins (345A, 345B, 345C, 345D) are bundled in the internal space of the tubular shape of the complex, the electrode pins (345A, 345B, 345C, 345D) are disposed at different positions along a circumferential direction of the surface of the internal space of the complex, and the conductive wires and the electrode rings (337A, 337B, 337C, 337D) are connected in a one-to-one correspondence. a tubular body; two or more conductive wires which are inserted into and passed through an internal space of the tubular body to be extended from a proximal end portion of the tubular body; and a connector having a complex of a tubular shape formed by two or more electrode rings (337A, 337B, 337C, 337D) exposed to an outer peripheral surface of the tubular shape and three or more insulation rings, the electrode rings and the insulation rings being alternately arranged and integrally fixed to locate the electrode rings apart from one another in the longitudinal axial direction of the complex, the connector further comprising two or more electrode pins (345A, 345B, 345C, 345D), wherein the electrode pins are connected to the electrode rings (337A, 337B, 337C, 337D) in a one-to-one correspondence and extend from a distal end portion of the complex through the internal space of the tubular shape of the complex to be connected to the conductive wires extending from the proximal end portion of the tubular body of the guide wire, the electrode pins (345A, 345B, 345C, 345D) are bundled in the internal space of the tubular shape of the complex, the electrode pins (345A, 345B, 345C, 345D) are disposed at different positions along a circumferential direction of the surface of the internal space of the complex, and the conductive wires and the electrode rings (337A, 337B, 337C, 337D) are connected in a one-to-one correspondence.
A pod for preparing beverages, comprising a beaker-shaped body made of impermeable material which exhibits a mouth delimited by an externally-projecting perimetral flange, a substance for preparing a beverage contained in the cup-shaped body, and a membrane made of an impermeable material and applied to the perimetral flange such as to close the mouth of the beaker-shaped body, characterised in that the pod comprises a spacer ring made of stiff material, which is applied to the beaker-shaped body and abuts the perimetral flange on an opposite side thereof with respect to the sealing membrane and is removably constrained to the beaker-shaped body.
A system for generating an output signal comprising a high frequency component from an input audio signal comprising a low frequency component using a transposition order T, comprising: an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the AT time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F · L, wherein F ≥ Q + 1 2, and wherein, when the transposition order T is greater than the frequency resolution factor Q, F < T + 1 2. an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the AT time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F · L, wherein F ≥ Q + 1 2, and wherein, when the transposition order T is greater than the frequency resolution factor Q, F < T + 1 2.