mhurhangee/ep-ind-claims huggingface dataset:
An alarm system (1; 10) for a vehicle, comprising: an object detection part configured to detect an object around the vehicle, a determination and alarm part configured to set an alarm line (61, 62) extending forward from the vehicle, to determine whether or not the object crosses the alarm line (61, 62) within a predetermined time, and to activate an alarm unit when the determination and alarm part determines that the object crosses the alarm line (61, 62) within the predetermined time; and a distance determination part configured to determine a distance between the vehicle and another vehicle stopped ahead of the vehicle in a lane, wherein, the determination and alarm part is configured to perform, when the distance is equal to or smaller than a predetermined value, an alarm reduction control to reduce operation of the alarm unit compared with when the distance is greater than the predetermined value, the determination and alarm part is configured to set a length of the alarm line (61, 62) at a first length when the distance is a first distance, and the determination and alarm part is configured to set the length of the alarm line (61, 62) at a second length, which is shorter than the first length, as the alarm reduction control when the distance is a second distance, which is smaller than the first distance. an object detection part configured to detect an object around the vehicle, a determination and alarm part configured to set an alarm line (61, 62) extending forward from the vehicle, to determine whether or not the object crosses the alarm line (61, 62) within a predetermined time, and to activate an alarm unit when the determination and alarm part determines that the object crosses the alarm line (61, 62) within the predetermined time; and a distance determination part configured to determine a distance between the vehicle and another vehicle stopped ahead of the vehicle in a lane, wherein, the determination and alarm part is configured to perform, when the distance is equal to or smaller than a predetermined value, an alarm reduction control to reduce operation of the alarm unit compared with when the distance is greater than the predetermined value, the determination and alarm part is configured to set a length of the alarm line (61, 62) at a first length when the distance is a first distance, and the determination and alarm part is configured to set the length of the alarm line (61, 62) at a second length, which is shorter than the first length, as the alarm reduction control when the distance is a second distance, which is smaller than the first distance.
An imaging catheter (100, 200, 300), comprising an imaging window, said window comprising: a first imaging window section (324; 328; 332), the first imaging window section having a finite length and being formed from a first material having a flexural modulus; and a second imaging window section (324; 328; 332), the second imaging window section having a finite length and being formed from a second material having a flexural modulus, wherein the flexural modulus of the first material is different than the flexural modulus of the second material. a first imaging window section (324; 328; 332), the first imaging window section having a finite length and being formed from a first material having a flexural modulus; and a second imaging window section (324; 328; 332), the second imaging window section having a finite length and being formed from a second material having a flexural modulus, wherein the flexural modulus of the first material is different than the flexural modulus of the second material.
Fire protection housing, in particular fire protection cabinet, having a body which has at least one body wall (3, 4, 5) and a plurality of body elements (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2) which can be plugged together via tongue-and-groove connections (6, 7, 8), which body elements (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2) each comprise a plate composite consisting of a plurality of interconnected plates (9.1, 9.2, 9.3), wherein the body wall (3, 4, 5) comprises at least one first and one second body element (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2), which are arranged one above the other and can be plugged together via the tongue-and-groove connection (6, 7, 8), wherein, of this tongue-and-groove connection (6, 7, 8), a first groove wall (6.1 or 7.1 or 8.1) of the first body element (3.1 or 4.1 or 5.1) has in sections a projection and a second groove wall (6.2 or 7.2 or 8.2) of the second body element (3.2 or 4.2 or 5.2) has a set-back portion complementary thereto, characterized in that the plate composite has at least three plates (9.1, 9.2, 9.3), wherein the groove and/or the tongue of the tongue-and-groove connection (6, 7, 8) is/are formed by an offset of at least one plate (9.2) in the plate composite.
An image processing method, wherein the method is applied to a computer system, the computer system comprises a host operating system, a kernel mode graphics driver and a first guest operating system are installed in the host operating system, a user mode graphics driver is deployed in the first guest operating system, and the method comprises: generating, by the user mode graphics driver based on a first application programming interface, API call request, a first instruction that can be identified by a graphics processing unit, and sending the first instruction to the kernel mode graphics driver, wherein the first API call request is used to request to perform an image rendering operation; and controlling, by the kernel mode graphics driver based on the first instruction, the graphics processing unit to perform image rendering, characterized in that the first guest operating system further comprises an image compositor and an image capture program, and the method further comprises: determining, by the image compositor, whether the image capture program is in an enabled state or a disabled state; and skipping performing an image composition operation on the plurality of layers if the image capture program is in the disabled state. generating, by the user mode graphics driver based on a first application programming interface, API call request, a first instruction that can be identified by a graphics processing unit, and sending the first instruction to the kernel mode graphics driver, wherein the first API call request is used to request to perform an image rendering operation; and controlling, by the kernel mode graphics driver based on the first instruction, the graphics processing unit to perform image rendering, characterized in that the first guest operating system further comprises an image compositor and an image capture program, and the method further comprises: determining, by the image compositor, whether the image capture program is in an enabled state or a disabled state; and skipping performing an image composition operation on the plurality of layers if the image capture program is in the disabled state.
A translating presbyopic contact lens comprising an optical zone, a lenticular portion surrounding the optical zone, a bevel portion surrounding the lenticular portion and a pseudotruncation in the lenticular and bevel portions, the pseudotruncation being an elongated, arcuate thickened portion in the lens, peripheral to the optical zone but inside of the edge; characterized in that the design of the lens surface of the pseudotruncation in the lenticular portion is obtained from the following equation: T 3 = T 1 + T 2 − T 1 × sin P 3 − P 1 / P 2 − P 1 × 90 n wherein P1 is the distance from the lens center to optical lenticular junction on a given radius, T1 is the thickness at the optical lenticular junction on the given radius, P2 is the distance from the lens center to the lenticular bevel junction on the given radius, T2 is the thickness at the lenticular bevel junction on the given radius, P3 and T3 are the arbitrary distance from the lens center and thickness at an arbitrary position on the given radius, and the value of n is between about 1.25 and about 4.
A tracking system comprising: a camera assembly configured to capture one or more images of a local area surrounding a head-mounted display; a magnetic field generator (115, 420, 520) coupled to a target object, the magnetic field generator (115, 420, 520) configured to generate a magnetic field; a magnetic sensor assembly (125, 410, 510) coupled to the head-mounted display, wherein the head-mounted display is separate from the target object, the magnetic sensor assembly (125, 410, 510) configured to detect the magnetic field; wherein the target object is a handheld input device; characterised by the tracking system further comprising a selective tracking system (140, 300) configured to track the target object, wherein the selective tracking system (140, 300) is configured to: determine whether the target object is within an effective field of view of the camera assembly using the captured images, and responsive to the target object being outside the effective field of view, determine a position of the target object using the detected magnetic field, and responsive to the target object being inside the effective field of view, determine a position of the target object using the captured images. a camera assembly configured to capture one or more images of a local area surrounding a head-mounted display; a magnetic field generator (115, 420, 520) coupled to a target object, the magnetic field generator (115, 420, 520) configured to generate a magnetic field; a magnetic sensor assembly (125, 410, 510) coupled to the head-mounted display, wherein the head-mounted display is separate from the target object, the magnetic sensor assembly (125, 410, 510) configured to detect the magnetic field; wherein the target object is a handheld input device; characterised by the tracking system further comprising a selective tracking system (140, 300) configured to track the target object, wherein the selective tracking system (140, 300) is configured to: determine whether the target object is within an effective field of view of the camera assembly using the captured images, and responsive to the target object being outside the effective field of view, determine a position of the target object using the detected magnetic field, and responsive to the target object being inside the effective field of view, determine a position of the target object using the captured images. determine whether the target object is within an effective field of view of the camera assembly using the captured images, and responsive to the target object being outside the effective field of view, determine a position of the target object using the detected magnetic field, and responsive to the target object being inside the effective field of view, determine a position of the target object using the captured images.
A tool communication adapter system, comprising: an adapter body having first and second mechanical attachment ends (151, 152); a first electrical connector proximate the first mechanical attachment end and a second electrical connector proximate the second mechanical attachment end; a first supply channel comprising an opening extending through the body between the first and second mechanical attachment ends, and comprising a first supply channel connector at the first attachment end and a second supply channel connector at the second mechanical attachment end; and a control unit in communication with the first and second electrical connectors; wherein the control unit is configured to provide a filter command signal to a protective filter in response to a signal received at the first electrical connector; and wherein the first supply channel comprises a gas supply channel. an adapter body having first and second mechanical attachment ends (151, 152); a first electrical connector proximate the first mechanical attachment end and a second electrical connector proximate the second mechanical attachment end; a first supply channel comprising an opening extending through the body between the first and second mechanical attachment ends, and comprising a first supply channel connector at the first attachment end and a second supply channel connector at the second mechanical attachment end; and a control unit in communication with the first and second electrical connectors; wherein the control unit is configured to provide a filter command signal to a protective filter in response to a signal received at the first electrical connector; and wherein the first supply channel comprises a gas supply channel.
A method for fabricating a semi-conductor body, the method comprising the steps of: a. providing a molten semi-conductor material, having a surface; b. providing a porous mold, comprising a forming surface; c. providing a differential pressure regime such that pressure at at least a portion of the forming surface is less than pressure at the molten material surface; d. contacting the forming surface to the molten material for a contact duration such that, for at least a portion of the contact duration, the differential pressure regime is provided such that a body of semi-conductor material solidifies upon the forming surface; e. causing motion of the forming surface relative to the molten semi-conductor material, with the solidified body upon the forming surface; and f. detaching the solidified body from the forming surface. a. providing a molten semi-conductor material, having a surface; b. providing a porous mold, comprising a forming surface; c. providing a differential pressure regime such that pressure at at least a portion of the forming surface is less than pressure at the molten material surface; d. contacting the forming surface to the molten material for a contact duration such that, for at least a portion of the contact duration, the differential pressure regime is provided such that a body of semi-conductor material solidifies upon the forming surface; e. causing motion of the forming surface relative to the molten semi-conductor material, with the solidified body upon the forming surface; and f. detaching the solidified body from the forming surface.
A laundry product comprising a fragrance composition, wherein the fragrance composition comprises from about 0.2 wt% to less than 10 wt% of isopulegol, based on the total weight of the fragrance composition; wherein the fragrance composition comprises, in addition to isopulegol, at least two distinct perfume ingredients; wherein the fragrance composition does not comprise a diester of formula: wherein A represents CH 2 or CH=CH, n represents an integer of 0 to 4 when A is CH 2 or 1 when A is CH=CH, B is an alcohol residue having 10 to 18 carbon atoms and containing a para-menthane skeleton, which may be substituted, and C is an alcohol residue having 6 to 18 carbon atoms, which may be substituted. wherein the fragrance composition comprises, in addition to isopulegol, at least two distinct perfume ingredients; wherein the fragrance composition does not comprise a diester of formula: wherein A represents CH 2 or CH=CH, n represents an integer of 0 to 4 when A is CH 2 or 1 when A is CH=CH, B is an alcohol residue having 10 to 18 carbon atoms and containing a para-menthane skeleton, which may be substituted, and C is an alcohol residue having 6 to 18 carbon atoms, which may be substituted.
A cranial fixation device comprising: a first anchor portion being configured to join to a skull; a second anchor portion being configured to join to a cranial bone portion; and an intermediate component extending between said first anchor portion and said second anchor portion, said intermediate component being configured: to expand to enable constrained outward movement of the cranial bone portion relative to the skull with an increase of intracranial pressure and to contract with a normalization of intracranial pressure so as to move the cranial bone portion back towards the skull. to expand to enable constrained outward movement of the cranial bone portion relative to the skull with an increase of intracranial pressure and to contract with a normalization of intracranial pressure so as to move the cranial bone portion back towards the skull.
A process for refining naphtha, the process comprising the steps of: (a) separating a naphtha feed into a light naphtha and a heavy naphtha, wherein the light naphtha comprises paraffins having 6 or fewer carbon atoms; (b) introducing the light naphtha to a first isomerization unit under first isomerization conditions to produce a light isomerate; (c) separating the heavy naphtha into a heavy n-paraffin and a heavy non-paraffin; wherein the heavy n-paraffin comprises paraffins having more than 6 carbon atoms and less than 13 carbon atoms, and wherein the heavy non-paraffin comprises non-paraffins having more than 6 carbon atoms and less than 13 carbon atoms; (d) introducing the heavy n-paraffin to a second isomerization unit under second isomerization conditions to produce a heavy isomerate; (e) introducing the heavy non-paraffin to a reforming unit under reforming conditions to produce a reformate; and (f) combining at least a portion of each of the light isomerate, the heavy isomerate, and the reformate to form a gasoline blend, wherein the gasoline blend has a target octane rating of at least 90. (a) separating a naphtha feed into a light naphtha and a heavy naphtha, wherein the light naphtha comprises paraffins having 6 or fewer carbon atoms; (b) introducing the light naphtha to a first isomerization unit under first isomerization conditions to produce a light isomerate; (c) separating the heavy naphtha into a heavy n-paraffin and a heavy non-paraffin; wherein the heavy n-paraffin comprises paraffins having more than 6 carbon atoms and less than 13 carbon atoms, and wherein the heavy non-paraffin comprises non-paraffins having more than 6 carbon atoms and less than 13 carbon atoms; (d) introducing the heavy n-paraffin to a second isomerization unit under second isomerization conditions to produce a heavy isomerate; (e) introducing the heavy non-paraffin to a reforming unit under reforming conditions to produce a reformate; and (f) combining at least a portion of each of the light isomerate, the heavy isomerate, and the reformate to form a gasoline blend, wherein the gasoline blend has a target octane rating of at least 90.
Method for producing an EAP device, the EAP device comprising at least one EAP stack, the at least one EAP stack having a plurality of layers arranged on one another in a longitudinal axis, the layers comprising electrode and dielectric layers (2, 3), the dielectric layers being formed as EAP layers each having at least one dielectric section, the electrode layers being formed as EAP layers each having at least one electrode section, the electrode and/or dielectric layers (2, 3) being formed as EAP films, the electrode layer formed as an EAP film having at least two line sections (2a, 2c) in the two-dimensional extent, one of the line sections forming the electrode section and the other line section forming a collecting electrode section, and the electrode layer formed as an EAP film having an insulation section, which electrically insulates the first and second line section (2a, 2c) from each other, the electrode layers and dielectric layers being provided as EAP films (2, 3), the EAP films arranged on one another in a longitudinal axis being joined to one another by means of a film co-extrusion method, and, following the joining, the EAP stack being formed as an endless EAP stack and/or cut up into individual EAP stacks, the EAP films (2, 3) being provided from at least one endless EAP hybrid film having line and dielectric sections (3a, 3b) and/or line and insulation sections (2a, 2b, 2c) arranged alternately in a longitudinal direction of the endless EAP hybrid film characterized in that to combine the endless EAP hybrid films to form the EAP stack, the endless EAP hybrid films are coated with a hot-melt adhesive and joined to form a laminate.
An organic light-emitting display, OLED, panel, comprising: a substrate; a first electrode layer disposed on the substrate and comprising a plurality of first electrodes; a pixel definition layer disposed on a side of the first electrode layer facing away from the substrate and comprising a plurality of first openings, wherein each of the plurality of first openings exposes part of a respective one of the plurality of first electrodes; a light-emitting layer disposed on a side of the plurality of first electrodes facing away from the substrate; a second electrode layer disposed on a side of the light-emitting layer facing away from the substrate; a conductive wall made of an elastic material and comprising peaks and valleys spaced apart from each other; a planarization layer disposed on a surface of the second electrode layer facing away from the substrate and comprising a plurality of second openings; wherein the conductive wall is disposed in the plurality of second openings; and a third electrode layer disposed on a side of the conductive wall facing away from the substrate and in contact with the peaks; wherein each of the peaks has a height of H1, each of the valleys has a height of H2, and the planarization layer has a height of H3, wherein H2<H3<H1; and a vertical projection of the conductive wall on the substrate and a vertical projection of the third electrode layer on the substrate each overlap a vertical projection of the pixel definition layer on the substrate. a substrate; a first electrode layer disposed on the substrate and comprising a plurality of first electrodes; a pixel definition layer disposed on a side of the first electrode layer facing away from the substrate and comprising a plurality of first openings, wherein each of the plurality of first openings exposes part of a respective one of the plurality of first electrodes; a light-emitting layer disposed on a side of the plurality of first electrodes facing away from the substrate; a second electrode layer disposed on a side of the light-emitting layer facing away from the substrate; a conductive wall made of an elastic material and comprising peaks and valleys spaced apart from each other; a planarization layer disposed on a surface of the second electrode layer facing away from the substrate and comprising a plurality of second openings; wherein the conductive wall is disposed in the plurality of second openings; and a third electrode layer disposed on a side of the conductive wall facing away from the substrate and in contact with the peaks; wherein each of the peaks has a height of H1, each of the valleys has a height of H2, and the planarization layer has a height of H3, wherein H2<H3<H1; and a vertical projection of the conductive wall on the substrate and a vertical projection of the third electrode layer on the substrate each overlap a vertical projection of the pixel definition layer on the substrate.