mhurhangee/ep-ind-claims huggingface dataset:
A vehicle lighting system, comprising: a light assembly (180; 400; 500; 600) having: a printed circuit board, PCB, layer that is attachable to a vehicle component, wherein the vehicle component comprises a speaker cover for an audio speaker positioned in any location within a vehicle, wherein a shape of the PCB layer is based on a shape of the vehicle component, and wherein the PCB layer is perforated with a plurality of holes to allow sound to penetrate through the PCB layer; and a set of light sources mounted on the PCB layer; and a light controller that is coupled to the light assembly (180; 400; 500; 600) and is configured, when in operation, to cause the set of light sources to generate a lighting effect within an interior of a vehicle. a light assembly (180; 400; 500; 600) having: a printed circuit board, PCB, layer that is attachable to a vehicle component, wherein the vehicle component comprises a speaker cover for an audio speaker positioned in any location within a vehicle, wherein a shape of the PCB layer is based on a shape of the vehicle component, and wherein the PCB layer is perforated with a plurality of holes to allow sound to penetrate through the PCB layer; and a set of light sources mounted on the PCB layer; and a printed circuit board, PCB, layer that is attachable to a vehicle component, wherein the vehicle component comprises a speaker cover for an audio speaker positioned in any location within a vehicle, wherein a shape of the PCB layer is based on a shape of the vehicle component, and wherein the PCB layer is perforated with a plurality of holes to allow sound to penetrate through the PCB layer; and a set of light sources mounted on the PCB layer; and a light controller that is coupled to the light assembly (180; 400; 500; 600) and is configured, when in operation, to cause the set of light sources to generate a lighting effect within an interior of a vehicle.
Sensor signal processing unit having the following features: - an interface for reading in a first sensor signal and a second sensor signal, wherein the first sensor signal and the second sensor signal represent an identical physical variable, and wherein the first sensor signal has a maximum for a first value of the physical variable and the second sensor signal has a maximum for a second value of the physical variable that differs from the first value; - a sensor signal conditioning unit which is designed to determine a sensor signal evaluation variable (610, α) on the basis of a first component and a second component, wherein the first component of the sensor signal evaluation variable (610, α) is formed by a signal value of the first sensor signal and the second component of the sensor signal evaluation variable (610, α) is formed by a signal value of the second sensor signal, wherein the first and second signal values were recorded at an identical time, wherein the sensor signal evaluation variable represents a sensor signal evaluation point in a sensor signal space as a tuple of at least two values which together represent a mapping point in a two-dimensional plane or a multidimensional space; and - a sensor signal evaluation unit which is designed to determine the physical variable on which the first sensor signal and the second sensor signal are based using the sensor signal evaluation variable (610, α). - an interface for reading in a first sensor signal and a second sensor signal, wherein the first sensor signal and the second sensor signal represent an identical physical variable, and wherein the first sensor signal has a maximum for a first value of the physical variable and the second sensor signal has a maximum for a second value of the physical variable that differs from the first value; - a sensor signal conditioning unit which is designed to determine a sensor signal evaluation variable (610, α) on the basis of a first component and a second component, wherein the first component of the sensor signal evaluation variable (610, α) is formed by a signal value of the first sensor signal and the second component of the sensor signal evaluation variable (610, α) is formed by a signal value of the second sensor signal, wherein the first and second signal values were recorded at an identical time, wherein the sensor signal evaluation variable represents a sensor signal evaluation point in a sensor signal space as a tuple of at least two values which together represent a mapping point in a two-dimensional plane or a multidimensional space; and - a sensor signal evaluation unit which is designed to determine the physical variable on which the first sensor signal and the second sensor signal are based using the sensor signal evaluation variable (610, α).
An injection device comprising: an elongate housing; a syringe disposed in said housing and having an internal piston to express a dose from a needle at its front end; a shroud element movable forwardly relative to the syringe to shroud the needle after use; a latch movable between a latched state in which it restricts rearward movement of the shroud element, and a release state; characterised in that said latch is moved to its latched state by a magnetic force. an elongate housing; a syringe disposed in said housing and having an internal piston to express a dose from a needle at its front end; a shroud element movable forwardly relative to the syringe to shroud the needle after use; a latch movable between a latched state in which it restricts rearward movement of the shroud element, and a release state; characterised in that said latch is moved to its latched state by a magnetic force.
A blender comprising: - a base part, - a container arranged on said base part, said container comprising a detachable bottom part, - a sealing gasket arranged between said detachable bottom part and said container, characterized in that said sealing gasket comprises more than one rib extending upwards from said detachable bottom part inside said container, wherein said more than one rib comprises a plurality of ribs distributed around an inner periphery of said sealing gasket. - a base part, - a container arranged on said base part, said container comprising a detachable bottom part, - a sealing gasket arranged between said detachable bottom part and said container, characterized in that said sealing gasket comprises more than one rib extending upwards from said detachable bottom part inside said container, wherein said more than one rib comprises a plurality of ribs distributed around an inner periphery of said sealing gasket.
A foldable electronic device comprising: a foldable window; a foldable display panel disposed under the window; a foldable cushion member disposed under the display panel; and a first electronic module disposed under the window and inserted into a first hole defined in the display panel and the cushion member, wherein the first hole comprises: a first hole portion (101H1) defined in the display panel; and a second hole portion (101H2) defined in the cushion member, the second hole portion (101H2) having a width greater than a width of the first hole portion (101H1). a foldable window; a foldable display panel disposed under the window; a foldable cushion member disposed under the display panel; and a first electronic module disposed under the window and inserted into a first hole defined in the display panel and the cushion member, a first hole portion (101H1) defined in the display panel; and a second hole portion (101H2) defined in the cushion member, the second hole portion (101H2) having a width greater than a width of the first hole portion (101H1).
A base station for use in a wireless communication network, said base station (101, 102, 103) capable of delivering a paging message of the base station, in a paging slot, to at least one of a plurality of mobile stations (111, 112, 113, 114, 115), the base station (101, 102, 103) comprising: a transceiver; and means configured to: determine that at least a portion of the paging slot overlaps with an available interval, AI, of another base station (104, 105, 106, 144, 154) in which the another base station transmits a paging message of the another base station; and adjust an occurrence of the paging slot such that the paging slot is included in an unavailable interval, UAI, of the another base station (104, 105, 106, 144, 154), wherein the UAI of the another base station comprises a period in which the another base station transmits the paging message of the another base station (104, 105, 106, 144, 154) over limited resources or does not transmit the paging message of the another base station. a transceiver; and means configured to: determine that at least a portion of the paging slot overlaps with an available interval, AI, of another base station (104, 105, 106, 144, 154) in which the another base station transmits a paging message of the another base station; and adjust an occurrence of the paging slot such that the paging slot is included in an unavailable interval, UAI, of the another base station (104, 105, 106, 144, 154), determine that at least a portion of the paging slot overlaps with an available interval, AI, of another base station (104, 105, 106, 144, 154) in which the another base station transmits a paging message of the another base station; and adjust an occurrence of the paging slot such that the paging slot is included in an unavailable interval, UAI, of the another base station (104, 105, 106, 144, 154), wherein the UAI of the another base station comprises a period in which the another base station transmits the paging message of the another base station (104, 105, 106, 144, 154) over limited resources or does not transmit the paging message of the another base station.
A propylene homopolymer composition for a capacitor film, comprising 1 % by mass or more and less than 50 % by mass of a propylene homopolymer having characteristics (A-i) to (A-iii) below and more than 50 % by mass and 99 % by mass or less of a propylene homopolymer having characteristics (B-i) to (B-ii) below (with a sum of the propylene homopolymer and the propylene homopolymer being 100 % by mass), and having: (i) a melt flow rate of 1.0 to 10.0 g/10 min measured at 230°C under a load of 2.16 kg in accordance with ASTM D1238, and (ii) a chlorine content of 2 ppm by mass or less, wherein (A-i) a mesopentad fraction (mmmm) measured by 13 C-NMR is 0.930 or more, (A-ii) a half width of an elution peak measured by temperature rising elution fractionation (TREF) is less than 4.0°C, (A-iii) a molecular weight distribution Mw/Mn measured by GPC is less than 3.0, (B-i) a mesopentad fraction (mmmm) measured by 13 C-NMR is 0.950 or more, and (B-ii) a molecular weight distribution Mw/Mn measured by GPC is 3.0 or more. (i) a melt flow rate of 1.0 to 10.0 g/10 min measured at 230°C under a load of 2.16 kg in accordance with ASTM D1238, and (ii) a chlorine content of 2 ppm by mass or less, (A-i) a mesopentad fraction (mmmm) measured by 13 C-NMR is 0.930 or more, (A-ii) a half width of an elution peak measured by temperature rising elution fractionation (TREF) is less than 4.0°C, (A-iii) a molecular weight distribution Mw/Mn measured by GPC is less than 3.0, (B-i) a mesopentad fraction (mmmm) measured by 13 C-NMR is 0.950 or more, and (B-ii) a molecular weight distribution Mw/Mn measured by GPC is 3.0 or more.
A method for automatically drawing a bite line on a shoe upper comprising: accessing from a computing device a digital set of data representing a digital bite line; utilizing a robotic arm to support a marking instrument; actuating the robotic arm to physically mark on the shoe upper a bite line, the physical bite line representing the digital set of data; characterized in that an angle between the marking instrument and a surface of the shoe upper is maintained in the range of 45 degrees to 75 degrees, and in that the angle between the marking instrument and the surface of the shoe upper is positioned so that a non-marking end of the marking instrument leads a marking end of the marking instrument as the marking instrument is moved by the robotic arm in the direction of travel about the shoe upper.
Security structure that can be observed from at least one face, the structure comprising: - an array of elementary patterns formed in a polymeric material, the elementary patterns having unit dimensions of at least 75 micrometres, this array defining a non-planar surface, - in a first zone of the said array, a reflective layer at least partially visible from the observation face, this reflective layer defining a reflective surface following the relief of the said array, - in a second zone of the said array, different from the first zone, at least one recess formed in the reflective layer and/or an element that can be observed from the observation face, this observable element having a surface situated on the side of the observation face and following the relief of the said array, this surface having a different appearance from that of the reflective surface. - an array of elementary patterns formed in a polymeric material, the elementary patterns having unit dimensions of at least 75 micrometres, this array defining a non-planar surface, - in a first zone of the said array, a reflective layer at least partially visible from the observation face, this reflective layer defining a reflective surface following the relief of the said array, - in a second zone of the said array, different from the first zone, at least one recess formed in the reflective layer and/or an element that can be observed from the observation face, this observable element having a surface situated on the side of the observation face and following the relief of the said array, this surface having a different appearance from that of the reflective surface.
A microfluidic product pouch assembly for use in a microfluidic chip, comprising: - a pouch surrounding an inner chamber and having a rupturing portion; - an inner membrane positioned within the inner chamber to form a first cavity and a second cavity; - a reagent in fluid form within the first cavity; and - a rupturing structure configured to selectively break the rupturing portion, - wherein the second cavity houses a gas stored under pressure such that rupturing the rupturing portion causes a pressure imbalance whereby the inner membrane deforms into the first cavity and pushes the contents of the first cavity into a channel of the microfluidic chip. - a pouch surrounding an inner chamber and having a rupturing portion; - an inner membrane positioned within the inner chamber to form a first cavity and a second cavity; - a reagent in fluid form within the first cavity; and - a rupturing structure configured to selectively break the rupturing portion, - wherein the second cavity houses a gas stored under pressure such that rupturing the rupturing portion causes a pressure imbalance whereby the inner membrane deforms into the first cavity and pushes the contents of the first cavity into a channel of the microfluidic chip.
A method for spatial static map construction, adapted for an electronic device with a processor, wherein the method comprises steps as follows: scanning a three-dimensional space with a LiDAR sensor to generate a LiDAR frame comprising a plurality of points in the three-dimensional space in a time sequence; for each of the points in the LiDAR frame, finding a corresponding point closest to the point of the LiDAR frame from a static map built according to the three-dimensional space and calculating a distance between the point and the corresponding point, wherein the point is labelled as a dynamic point if the distance is greater than a predetermined threshold, and the point is labelled as a static point if the distance is not greater than the predetermined threshold; comparing each of the dynamic points labelled in the LiDAR frame with a plurality of points in N LiDAR frames generated before the time sequence, wherein if it is determined that the N LiDAR frames comprise the dynamic point, the dynamic point is corrected as the static point, where N is a positive integer; and removing the dynamic point in the LiDAR frame and updating each of the static points in the LiDAR frame to the static map. scanning a three-dimensional space with a LiDAR sensor to generate a LiDAR frame comprising a plurality of points in the three-dimensional space in a time sequence; for each of the points in the LiDAR frame, finding a corresponding point closest to the point of the LiDAR frame from a static map built according to the three-dimensional space and calculating a distance between the point and the corresponding point, wherein the point is labelled as a dynamic point if the distance is greater than a predetermined threshold, and the point is labelled as a static point if the distance is not greater than the predetermined threshold; comparing each of the dynamic points labelled in the LiDAR frame with a plurality of points in N LiDAR frames generated before the time sequence, wherein if it is determined that the N LiDAR frames comprise the dynamic point, the dynamic point is corrected as the static point, where N is a positive integer; and removing the dynamic point in the LiDAR frame and updating each of the static points in the LiDAR frame to the static map.
A container-securing device comprising: a flange located on an outer side of a groove hole in a corner casting of a container; a support pillar provided in the flange for fitting in a mouth of the groove hole; a fitting portion provided in the support pillar for fitting into a hollow of the groove hole; wherein the fitting portion is provided with a movable protrusion which is pivotable on a horizontal shaft provided horizontally in the support pillar and is urged to protrude laterally out of a vertical surface portion of the support pillar, and characterized by: a locked state is achieved when the flange comes in contact with an outer surface region of the corner casting, and the movable protrusion comes in contact with a far corner region which is at a far end of the mouth of the corner casting at some point when the movable protrusion pivots. a fitting portion provided in the support pillar for fitting into a hollow of the groove hole; wherein the fitting portion is provided with a movable protrusion which is pivotable on a horizontal shaft provided horizontally in the support pillar and is urged to protrude laterally out of a vertical surface portion of the support pillar, and characterized by: a locked state is achieved when the flange comes in contact with an outer surface region of the corner casting, and the movable protrusion comes in contact with a far corner region which is at a far end of the mouth of the corner casting at some point when the movable protrusion pivots.
Method for manufacturing a film (F1; F2) comprising cavities and formed from a polymer in which a cavitating agent is dispersed, said method comprising a step of extruding the polymer in a production line equipped with actuators (Act) for adjusting the features of the extruded film and a step (S30; S130) of stretching (Str1; Str2) the film as well as a step (S50a, S150a) consisting in establishing a film mapping function, characterized in that: - a first mass-per-unit area sensor (Cap m.surf) measures (S20; S120) a mass-per-unit area cross-sectional profile of the unstretched film; - a second mass-per-unit area sensor (Cap m.surf) measures (S40; S140) a mass-per-unit area cross-sectional profile of the film stretched by said stretching (Str1; Str2); - a computing unit (CALC) computes (S50a, S150a) said mapping function of the stretched film from said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50b, S150b) a stretching profile of the stretched film, from said mapping function and said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50f, S60B; S150f, S150B) a characteristic cross-sectional profile of the film from said stretching profile and a mass concentration cross-sectional profile of the cavitating agent in the stretched film, which makes it possible to take into account the distribution of the cavities in the film, and - said adjustment actuators are controlled (FBK1, FBK2, FBK3, FBK4) according to said characteristic cross-sectional profile. - a first mass-per-unit area sensor (Cap m.surf) measures (S20; S120) a mass-per-unit area cross-sectional profile of the unstretched film; - a second mass-per-unit area sensor (Cap m.surf) measures (S40; S140) a mass-per-unit area cross-sectional profile of the film stretched by said stretching (Str1; Str2); - a computing unit (CALC) computes (S50a, S150a) said mapping function of the stretched film from said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50b, S150b) a stretching profile of the stretched film, from said mapping function and said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50f, S60B; S150f, S150B) a characteristic cross-sectional profile of the film from said stretching profile and a mass concentration cross-sectional profile of the cavitating agent in the stretched film, which makes it possible to take into account the distribution of the cavities in the film, and - said adjustment actuators are controlled (FBK1, FBK2, FBK3, FBK4) according to said characteristic cross-sectional profile.
A method for graphically representing a landmark in a digital map comprising displaying at least a part of the digital map; determining a distance between a center of the displayed at least a part of the digital map and a location of the landmark on the displayed at least a part of the digital map; and either displaying a three-dimensional graphical object representing the landmark or a two-dimensional graphical object representing the landmark depending on the location of the landmark; wherein the two-dimensional graphical object is displayed, if the determined distance exceeds a predetermined threshold; and characterised by determining whether the landmark is hidden or partly hidden by another physical object and displaying the two-dimensional graphical object representing the landmark, if it is determined that the landmark is hidden or partly hidden by another physical object.
A light-emitting diode, LED, package comprising: a submount; a metal pattern on the submount, wherein the metal pattern comprises: a die attach pad formed by a first portion of a first metal trace and a first portion of a second metal trace, wherein the first metal trace is discontinuous with the second metal trace; and a bond pad formed by a second portion of the first metal trace, wherein a third portion of the first metal trace is continuous with the die attach pad and the bond pad; an LED chip mounted on the die attach pad; and a bond metal on the bond pad, characterized in that the bond metal comprises a conductive finger (74") that extends on a top surface of the third portion of the first metal trace to a position on the first portion of the metal trace such that the conductive finger (74") extends at least to a first edge of the LED chip that is opposite a second edge of the LED chip that is closest to the bond pad. a submount; a metal pattern on the submount, wherein the metal pattern comprises: a die attach pad formed by a first portion of a first metal trace and a first portion of a second metal trace, wherein the first metal trace is discontinuous with the second metal trace; and a bond pad formed by a second portion of the first metal trace, wherein a third portion of the first metal trace is continuous with the die attach pad and the bond pad; an LED chip mounted on the die attach pad; and a bond metal on the bond pad, characterized in that the bond metal comprises a conductive finger (74") that extends on a top surface of the third portion of the first metal trace to a position on the first portion of the metal trace such that the conductive finger (74") extends at least to a first edge of the LED chip that is opposite a second edge of the LED chip that is closest to the bond pad.