mhurhangee/ep-ind-claims huggingface dataset:
Internal combustion engine which is designed as a four-stroke reciprocating piston engine, having - a crankshaft which has two crankshaft stubs and two crank arms the first end of each of which is fixedly connected to the crankshaft stubs and the second end of each of which is fixedly connected to a crankpin, - a connecting rod which is connected to the crankpin at a first end and is connected to a first piston at a second end, and - a cylinder housing, the inner side of which is formed as a right circular cylinder, wherein a combustion chamber is arranged between the first piston and a first circular end surface of the circular cylinder, and wherein, in the cylinder housing, a second piston is arranged on the side of the crankshaft stubs that faces away from the first piston and is connected to the first piston by means of at least two spacer rods, and wherein a second combustion chamber is arranged between the second piston and a second one of the circular end surfaces of the circular cylinder, characterised in that at least one opening (45, 46) is provided in each of the circular end surfaces of the circular cylinder which face towards a combustion chamber, and in that a number of sliders corresponding to the number of openings (45, 46) are arranged at each of the circular end surfaces of the circular cylinder which face towards a combustion chamber, said sliders being designed for closing and opening the respective opening (45, 46). - a crankshaft which has two crankshaft stubs and two crank arms the first end of each of which is fixedly connected to the crankshaft stubs and the second end of each of which is fixedly connected to a crankpin, - a connecting rod which is connected to the crankpin at a first end and is connected to a first piston at a second end, and - a cylinder housing, the inner side of which is formed as a right circular cylinder, wherein a combustion chamber is arranged between the first piston and a first circular end surface of the circular cylinder, and wherein, in the cylinder housing, a second piston is arranged on the side of the crankshaft stubs that faces away from the first piston and is connected to the first piston by means of at least two spacer rods, and wherein a second combustion chamber is arranged between the second piston and a second one of the circular end surfaces of the circular cylinder, characterised in that at least one opening (45, 46) is provided in each of the circular end surfaces of the circular cylinder which face towards a combustion chamber, and in that a number of sliders corresponding to the number of openings (45, 46) are arranged at each of the circular end surfaces of the circular cylinder which face towards a combustion chamber, said sliders being designed for closing and opening the respective opening (45, 46).
An electronic device, comprising: a touch display comprising a main region and curved regions, the curved regions comprising a first curved region extending from the main region in a first direction towards a first side of a front surface of the electronic device and a second curved region extending from the main region in a second direction towards a second side of the front surface of the electronic device; and one or more processors; characterized in that: the one or more processors are configured to: in response to a first touch interaction to touch one point of one of the first and second curved regions and move in a direction toward a location of the main region being detected while a home screen is displayed, control the touch display to display a first UI for inputting a password on an end of the touch display comprising the touched curved region, and in response to an input of a password to the first UI, control the touch display to remove the first UI displayed in the first area and display a second UI including a plurality of icons corresponding to a plurality of applications on an area of the touched curved region. a touch display comprising a main region and curved regions, the curved regions comprising a first curved region extending from the main region in a first direction towards a first side of a front surface of the electronic device and a second curved region extending from the main region in a second direction towards a second side of the front surface of the electronic device; and one or more processors; in response to a first touch interaction to touch one point of one of the first and second curved regions and move in a direction toward a location of the main region being detected while a home screen is displayed, control the touch display to display a first UI for inputting a password on an end of the touch display comprising the touched curved region, and in response to an input of a password to the first UI, control the touch display to remove the first UI displayed in the first area and display a second UI including a plurality of icons corresponding to a plurality of applications on an area of the touched curved region.
A sensor arrangement, comprising - a current mirror structure being connected to an input current path and to a plurality of output current paths and being configured to provide a respective base current (I0, I1,..., In-1) at each of the output current paths based on an input current (IMAIN) at the input current path; - for each of the output current paths, a respective adjustment current source (IDACO, IDAC1,..., IDACn-1) that is digitally controllable and is connected to the respective output current path for adjusting the base current of said output current path; - for each of the output current paths, a current biased sensor element (HEO, HE1,..., HEn-1) coupled in said output current path; - a selection element (HMUX) for selectively connecting one of the output current paths to an evaluation block (EVAL) based on a selection signal (HEsel); - the evaluation block (EVAL) that is configured -- to generate a sensing value (VSMP) corresponding to a resulting current in the connected output current path; -- to compare the sensing value (VSMP) with an average value; and -- to update the average value based on the sensing value (VSMP); and - a digital control adapted for generating the selection signal (HEsel) and for digitally adjusting the respective adjustment current source (IDACO, IDAC1,..., IDACn-1) of the connected output current path based on the comparison result. - a current mirror structure being connected to an input current path and to a plurality of output current paths and being configured to provide a respective base current (I0, I1,..., In-1) at each of the output current paths based on an input current (IMAIN) at the input current path; - for each of the output current paths, a respective adjustment current source (IDACO, IDAC1,..., IDACn-1) that is digitally controllable and is connected to the respective output current path for adjusting the base current of said output current path; - for each of the output current paths, a current biased sensor element (HEO, HE1,..., HEn-1) coupled in said output current path; - a selection element (HMUX) for selectively connecting one of the output current paths to an evaluation block (EVAL) based on a selection signal (HEsel); - the evaluation block (EVAL) that is configured -- to generate a sensing value (VSMP) corresponding to a resulting current in the connected output current path; -- to compare the sensing value (VSMP) with an average value; and -- to update the average value based on the sensing value (VSMP); and -- to generate a sensing value (VSMP) corresponding to a resulting current in the connected output current path; -- to compare the sensing value (VSMP) with an average value; and -- to update the average value based on the sensing value (VSMP); and - a digital control adapted for generating the selection signal (HEsel) and for digitally adjusting the respective adjustment current source (IDACO, IDAC1,..., IDACn-1) of the connected output current path based on the comparison result.
A sensor. (102-1, 102-2, 102-M, 202, 302), comprising: a wireless transmitter configured to generate an electromagnetic wave signal (104-1, 104-2, 104-N, 204); an RF attenuator configured to direct the electromagnetic wave signal (104-1, 104-2, 104-N, 204) in a pre-determined direction; and a controller configured to: receive, from a mobile device (106, 206, 306) in response to the mobile device (106, 206, 306) being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal. a wireless transmitter configured to generate an electromagnetic wave signal (104-1, 104-2, 104-N, 204); an RF attenuator configured to direct the electromagnetic wave signal (104-1, 104-2, 104-N, 204) in a pre-determined direction; and a controller configured to: receive, from a mobile device (106, 206, 306) in response to the mobile device (106, 206, 306) being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal. receive, from a mobile device (106, 206, 306) in response to the mobile device (106, 206, 306) being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal.
Fuel injector, having a control valve (1; 1a) which is arranged in a housing and which is actuatable by an electromagnet and which serves for controlling the outflow of pressure medium from a control chamber into a low-pressure chamber, wherein the control valve (1; 1a) has a valve element (22; 22a) which is movable by the electromagnet in the direction of a longitudinal axis, wherein the valve element (22; 22a) is adjoined by a valve chamber which is connected to the control chamber, and the valve element (22; 22a) interacts with a seat surface, which is formed on a valve body (36; 36a), in order to open and close a spill connection which connects the valve chamber and the low-pressure chamber, and wherein an end surface of the valve element (22; 22a) has a first annular-groove-like depression (63; 63a) and the valve body (36; 36a) has a second annular-groove-like depression, wherein the second annular-groove-like depression is delimited, on the side facing towards the seat surface, by a radially encircling edge which connects a conical side wall (66; 66a) of the second annular-groove-like depression to the conical seat surface running radially within the edge, and wherein an edge angle (α) of less than 130 degrees is formed in the transition region between the side wall (66; 66a) and the seat surface, and wherein the diameter (d K) in the region of the edge is at most 120% of the diameter (d D) in the region of a sealing seat, characterized in that the first annular-groove-like depression on the valve element has a conical surface, in that the second valve element (22; 22a) has, in the region of the valve seat, a surface section which transitions into the surface, in that an obtuse angle (β) is formed between the surface section and the surface such that the spacing between the two annular-groove-like depressions (63, 64) increases in a radial direction as viewed from a longitudinal axis of the valve element, and in that the conical surface transitions, on the side averted from a valve seat on the valve element, into a concave region.
A method for generating track segment data for a method for machining at least one workpiece surface in order to apply a texture pattern to at least one portion of the workpiece surface by means of a laser, in particular on a numerically controlled machine, comprising the steps of: - providing model data that specify a three-dimensional geometry of a surface form corresponding to the at least one portion of the workpiece surface; characterized by the steps of: - providing image data that specify an image of the texture pattern to be applied to the at least one portion of the workpiece surface, and - generating track segment data on the basis of said image data and of said model data, wherein said track segment data respectively specify a plurality of consecutive laser track segments along the respective track line for a plurality of track lines extending on the portion of the workpiece surface, depending on said texture pattern; wherein said track segment data are created on the basis of said image data and model data, provided that, for each track line, the number of adjacent laser track segments that are arranged so as to be substantially collinear relative to one another is increased, and in particular maximized. - providing model data that specify a three-dimensional geometry of a surface form corresponding to the at least one portion of the workpiece surface; - providing image data that specify an image of the texture pattern to be applied to the at least one portion of the workpiece surface, and - generating track segment data on the basis of said image data and of said model data,
A method for harvesting weighting agent fines from a commercial-grade weighting agent production process comprising: milling weighting agent into a plurality of weighting agent particles; classifying milled weighting agent in a first classifier to separate weighting agent particles having a particle size less than an acceptable maximum diameter for commercial-grade weighting agent from weighting agent particles having a particle size greater than the acceptable maximum diameter for commercial-grade weighting agent; discharging weighting agent particles having a particle size less than the acceptable maximum diameter for commercial-grade weighting agent into a cyclone; cyclonically removing a portion of fine weighting agent particles from larger weighting agent particles, wherein the fine weighting agent particles have a particle size below an acceptable minimum diameter for commercial-grade weighting agent; trapping the fine weighting agent particles in a baghouse; releasing the fine weighting agent particles to a second classifier; classifying the released weighting agent particles into a coarse particle group and a fines particle group based on particle size, wherein more than 98% of the weighting agent particles in the fines particle group have a particle size less than the acceptable minimum diameter for commercial-grade weighting agent and less than 15% of the weighting agent particles in the coarse particle group have a particle size less than the acceptable minimum diameter for commercial-grade weighting agent. milling weighting agent into a plurality of weighting agent particles; classifying milled weighting agent in a first classifier to separate weighting agent particles having a particle size less than an acceptable maximum diameter for commercial-grade weighting agent from weighting agent particles having a particle size greater than the acceptable maximum diameter for commercial-grade weighting agent; discharging weighting agent particles having a particle size less than the acceptable maximum diameter for commercial-grade weighting agent into a cyclone; cyclonically removing a portion of fine weighting agent particles from larger weighting agent particles, wherein the fine weighting agent particles have a particle size below an acceptable minimum diameter for commercial-grade weighting agent; trapping the fine weighting agent particles in a baghouse; releasing the fine weighting agent particles to a second classifier; classifying the released weighting agent particles into a coarse particle group and a fines particle group based on particle size, wherein more than 98% of the weighting agent particles in the fines particle group have a particle size less than the acceptable minimum diameter for commercial-grade weighting agent and less than 15% of the weighting agent particles in the coarse particle group have a particle size less than the acceptable minimum diameter for commercial-grade weighting agent.
A laminated polyester film comprising: a polyester film and a coating layer which is formed on at least one surface of the polyester film and is produced by applying a coating solution comprising a polyester resin having a naphthalene skeleton, a metal oxide, and two or more kinds of crosslinking agents, thereonto, wherein the two or more kinds of crosslinking agents comprise an isocyanate compound and an oxazoline compound. a polyester film and a coating layer which is formed on at least one surface of the polyester film and is produced by applying a coating solution comprising a polyester resin having a naphthalene skeleton, a metal oxide, and two or more kinds of crosslinking agents, thereonto, wherein the two or more kinds of crosslinking agents comprise an isocyanate compound and an oxazoline compound.
A method of selecting a wireless network from a plurality of wireless networks for use by a wireless communication device to process a data transmission, the method characterized by, determining whether an amount of data that has previously been sent by the wireless communication device over a given wireless network has reached a data limit for a given time period for the given wireless network; and if the amount of data has reached the data limit for the given time period, selecting another wireless network for use by the wireless communication device.
A display device, comprising: a light source that includes a blue light-emitting diode (LED, 212) configured to generate a blue output light; a nano-particle semiconductor material configured to: receive the blue output light, convert a first portion of the blue output light to a green light emission, convert a second portion of the blue output light to a red light emission, and transmit a remainder portion of the blue output light; a polarizing filter positioned between the light source and the nano-particle semi-conductor material; and a liquid crystal module configured to receive the green light emission, the red light emission, and the remainder portion of the blue output light and generate an image that includes a portion of the green light emission, a portion of the red light emission, and a portion of the remainder portion of the blue output light. a light source that includes a blue light-emitting diode (LED, 212) configured to generate a blue output light; a nano-particle semiconductor material configured to: receive the blue output light, convert a first portion of the blue output light to a green light emission, convert a second portion of the blue output light to a red light emission, and transmit a remainder portion of the blue output light; receive the blue output light, convert a first portion of the blue output light to a green light emission, convert a second portion of the blue output light to a red light emission, and transmit a remainder portion of the blue output light; a polarizing filter positioned between the light source and the nano-particle semi-conductor material; and a liquid crystal module configured to receive the green light emission, the red light emission, and the remainder portion of the blue output light and generate an image that includes a portion of the green light emission, a portion of the red light emission, and a portion of the remainder portion of the blue output light.
A plug connector adapted to be fixed on a mounting rail, fixing means (5, 6) being provided on the outside of the housing body of the plug connector for fixing the plug connector on a mounting rail, a holding cage being locked in place inside the housing body of the plug connector, the holding cage at one end engaging around a contacting element for electrically contacting a conductor of a cable to be connected and at the other end engaging around the cable sheath of the cable to be connected, characterized in that coupling elements (3, 4) are provided on the outside of the housing body on both sides for a reversible connection with a further plug connector having a housing body of the same type, and in that one coupling element is formed as an arcuate groove and the other coupling element is formed as a cylindrical pin. fixing means (5, 6) being provided on the outside of the housing body of the plug connector for fixing the plug connector on a mounting rail, a holding cage being locked in place inside the housing body of the plug connector, the holding cage at one end engaging around a contacting element for electrically contacting a conductor of a cable to be connected and at the other end engaging around the cable sheath of the cable to be connected, coupling elements (3, 4) are provided on the outside of the housing body on both sides for a reversible connection with a further plug connector having a housing body of the same type, and in that one coupling element is formed as an arcuate groove and the other coupling element is formed as a cylindrical pin.
A system for determining the concentration of an analyte in a liquid sample containing - a detection unit for the detection of light intensities emitted from subareas of an detection area of a test element and - an evaluation unit suitable for establishing a frequency distribution for the detected light intensities, wherein the frequency distribution has at least one first maximum caused by at least one unwetted subarea or at least one reference area, and a second maximum caused by wetted subareas and is suitable for identifying wetted areas of the test element due to frequencies and distinguishing them from unwetted areas and selecting at least one light intensity of the wetted area on the basis of the frequency distribution and establishing the concentration of the analyte from the at least one selected light intensity. - a detection unit for the detection of light intensities emitted from subareas of an detection area of a test element and - an evaluation unit suitable for establishing a frequency distribution for the detected light intensities, wherein the frequency distribution has at least one first maximum caused by at least one unwetted subarea or at least one reference area, and a second maximum caused by wetted subareas and is suitable for identifying wetted areas of the test element due to frequencies and distinguishing them from unwetted areas and selecting at least one light intensity of the wetted area on the basis of the frequency distribution and establishing the concentration of the analyte from the at least one selected light intensity.