mhurhangee/ep-ind-claims huggingface dataset:
A distance measurement sensor, comprising: a light transmitter which transmits light to a target; a light receiver which receives light reflected from the target and outputs an electrical signal with a magnitude which varies in accordance with an intensity of the received light and a sensing position of the received light; and a controller which analyzes data changed from an electrical signal which is input from the light receiver over the time during a detection time to classify the state of the distance measurement sensor into a normal state and an abnormal state, wherein the controller detects an abnormal state including (i) a state in which a foreign substance is located in a non-sensing area on a light traveling path between the distance measurement sensor and the target or (ii) a state in which a front side of the distance measurement sensor is blocked, using a degree of dispersion of the data and optionally a representative value of the data, wherein the degree of dispersion is a value calculated based on a dispersion, a deviation, a standard deviation of data which is changed during a detection time or data from which noise is removed. a light transmitter which transmits light to a target; a light receiver which receives light reflected from the target and outputs an electrical signal with a magnitude which varies in accordance with an intensity of the received light and a sensing position of the received light; and a controller which analyzes data changed from an electrical signal which is input from the light receiver over the time during a detection time to classify the state of the distance measurement sensor into a normal state and an abnormal state, wherein the controller detects an abnormal state including (i) a state in which a foreign substance is located in a non-sensing area on a light traveling path between the distance measurement sensor and the target or (ii) a state in which a front side of the distance measurement sensor is blocked, using a degree of dispersion of the data and optionally a representative value of the data, wherein the degree of dispersion is a value calculated based on a dispersion, a deviation, a standard deviation of data which is changed during a detection time or data from which noise is removed.
A method of controlling an entertainment system of a motor vehicle including an entertainment unit having at least one memory device, the method comprising establishing the identity of one or more front seat occupants of the vehicle using respective seat fore-aft position sensors (35; 36) and seat mass sensors (31; 32) and selecting an audio output based upon the established identity of the one or more vehicle occupants characterised in that, when there is a single occupant in the motor vehicle in the form of a driver, a playlist associated with the driver is automatically selected and, when there are several occupants in the motor vehicle, then several playlists based upon the identities of the respective front seat occupants are offered for selection by the occupants based upon the identity of the respective front seat occupants.
A coating booth for coating workpieces, particularly with coating powder, wherein the coating booth comprises the following: - a coating chamber having a booth floor as well as two opposing side walls (11a, 11b); - two workpiece passageways (17a, 17b) arranged on opposite end regions of the coating chamber; - a conveying device for transporting the workpieces to be coated through the coating chamber; - at least one horizontally oriented suction slot (13a, 13b, 13c, 13d, 13e) arranged on the booth floor for suctioning off excess coating powder, and - at least one vertically extending suction channel (14a, 14b, 14c, 14d) having a vertically oriented suction slot (15a, 15b, 15c, 15d) for suctioning off excess coating powder, characterized in that the at least one vertically extending suction channel (14a, 14b, 14c, 14d) is arranged within the coating chamber, and namely in a corner region of the coating chamber adjoining one of the two opposite side walls (11a, 11b) as well as one of the two workpiece passageways (17a, 17b). - a coating chamber having a booth floor as well as two opposing side walls (11a, 11b); - two workpiece passageways (17a, 17b) arranged on opposite end regions of the coating chamber; - a conveying device for transporting the workpieces to be coated through the coating chamber; - at least one horizontally oriented suction slot (13a, 13b, 13c, 13d, 13e) arranged on the booth floor for suctioning off excess coating powder, and - at least one vertically extending suction channel (14a, 14b, 14c, 14d) having a vertically oriented suction slot (15a, 15b, 15c, 15d) for suctioning off excess coating powder,
A data center power and mounting system for equipment, the system comprising: a plurality of equipment racks (220A, 220B, 220C, 222, 224) arranged in a row having a first end and a second end, with a front side of each of the equipment racks being aligned along a common plane, each one of the equipment racks (220A, 220B, 220C, 222, 224) having at least a first power input to receive power to power equipment in each of the equipment racks (220A, 220B, 220C, 222, 224); a first power distribution rack having a plurality of power distribution devices, the first power distribution rack being positioned in the row at the first end, adjacent one of the plurality of equipment racks, and configured to receive input facility power and provide output power to each of the plurality of equipment racks (220A, 220B, 220C, 222, 224) through the plurality of distribution devices; and a second power distribution rack having a plurality of power distribution devices and configured to receive input facility power and to provide output power to at least some of the plurality of equipment racks (220A, 220B, 220C, 222, 224), the second power distribution rack being positioned in the row at the second end. a plurality of equipment racks (220A, 220B, 220C, 222, 224) arranged in a row having a first end and a second end, with a front side of each of the equipment racks being aligned along a common plane, each one of the equipment racks (220A, 220B, 220C, 222, 224) having at least a first power input to receive power to power equipment in each of the equipment racks (220A, 220B, 220C, 222, 224); a first power distribution rack having a plurality of power distribution devices, the first power distribution rack being positioned in the row at the first end, adjacent one of the plurality of equipment racks, and configured to receive input facility power and provide output power to each of the plurality of equipment racks (220A, 220B, 220C, 222, 224) through the plurality of distribution devices; and a second power distribution rack having a plurality of power distribution devices and configured to receive input facility power and to provide output power to at least some of the plurality of equipment racks (220A, 220B, 220C, 222, 224), the second power distribution rack being positioned in the row at the second end.
An angle attachment (100; 600) for a rotary power tool comprising: a first assembly (150; 650) including a first shaft (152; 652) and a first gear (154; 654), the first shaft (152; 652) having a central longitudinal axis; a second assembly including a second shaft (172; 672) and a second gear (174; 674), wherein the second gear (174; 674) engages the first gear (154; 654) and the second shaft (172; 672) has a central longitudinal axis, wherein the central longitudinal axis of the second shaft (172; 672) is not collinear or parallel to the central longitudinal axis of the first shaft (152; 652); and a member (140; 640) configured for removable coupling to a motor shaft of a rotary power tool and for removable coupling with the first assembly (150; 650), wherein the member (140; 640) includes a central longitudinal axis and a head portion (149; 649) having plurality of surfaces (147; 647), and wherein the head portion (149; 649) has a polygonal cross-sectional shape transverse to the central longitudinal axis of the member (140; 640); characterized in that at least the head portion (149; 649) of the member (140; 640) is configured for insertion into an aperture provided in the first shaft or an aperture provided in a female connector coupled to the first shaft (152; 652), wherein the head portion of the member (140; 640) includes a surface that is convex with respect to a central longitudinal axis of the member and a curved portion (151, 651) between a front surface and the plurality of surfaces for facilitating insertion of the head portion into the aperture (171; 660). a first assembly (150; 650) including a first shaft (152; 652) and a first gear (154; 654), the first shaft (152; 652) having a central longitudinal axis; a second assembly including a second shaft (172; 672) and a second gear (174; 674), wherein the second gear (174; 674) engages the first gear (154; 654) and the second shaft (172; 672) has a central longitudinal axis, wherein the central longitudinal axis of the second shaft (172; 672) is not collinear or parallel to the central longitudinal axis of the first shaft (152; 652); and a member (140; 640) configured for removable coupling to a motor shaft of a rotary power tool and for removable coupling with the first assembly (150; 650), wherein the member (140; 640) includes a central longitudinal axis and a head portion (149; 649) having plurality of surfaces (147; 647), and wherein the head portion (149; 649) has a polygonal cross-sectional shape transverse to the central longitudinal axis of the member (140; 640); characterized in that at least the head portion (149; 649) of the member (140; 640) is configured for insertion into an aperture provided in the first shaft or an aperture provided in a female connector coupled to the first shaft (152; 652), wherein the head portion of the member (140; 640) includes a surface that is convex with respect to a central longitudinal axis of the member and a curved portion (151, 651) between a front surface and the plurality of surfaces for facilitating insertion of the head portion into the aperture (171; 660).
A gripping element and a data carrier with which gripping element the data carrier can be clicked onto a branch of vegetables or fruits, or a stem, branch or stake of a plant, or as a tie up element for plastic bags, where the gripping element in its fabricated state is an essentially two dimensional object made from thin material, and which can be folded into a three dimensional gripping element, characterized in that the gripping element in its three dimensional ready for use state comprises one or several attachment lips with which the gripping element is attached to the data carrier using e.g. a glue and a gripping section located between the attachment lips, the gripping section comprising two surfaces (4a, 4b) forming legs of a triangle with an angle (α) between them in said ready to use state of the gripping element which from a side view give the gripping section a triangular shape, wherein each of said surfaces (4a, 4b) comprises a capture hole, wherein each of said surfaces (4a, 4b) comprises a longitudinal cut, and wherein each of said surfaces (4a, 4b) comprises a transverse cut provided at an end of its corresponding longitudinal cut, and lying at the side of its corresponding attachment lip interspaced from the capture hole with the longitudinal cut extending between them.
A memory expander (110, 210, 310, 410, 510) comprising: a memory device (112, 212, 312, 412, 512) including a first memory region (vMEM_SW1, vMEM1_ex) corresponding to a first host (11, 101, 201, 301, 401, 501) and a second memory region (vMEM_SW2, vMEM2_ex) corresponding to a second host (12, 102, 202, 302, 402, 502); and a controller (111, 211, 311, 411, 511) configured to communicate with the first host (11, 101, 201, 301, 401, 501) and the second host (12, 102, 202, 302, 402, 502) through a compute express link, CXL, interface, wherein the controller (111, 211, 311, 411, 511) is configured to: receive a first CXL communication packet from the first host (11, 101, 201, 301, 401, 501); and perform a target data transfer operation of transferring target data stored in the first memory region (vMEM_SW1, vMEM1_ex) to the second memory region (vMEM_SW2, vMEM2_ex), in response to the first CXL communication packet. a memory device (112, 212, 312, 412, 512) including a first memory region (vMEM_SW1, vMEM1_ex) corresponding to a first host (11, 101, 201, 301, 401, 501) and a second memory region (vMEM_SW2, vMEM2_ex) corresponding to a second host (12, 102, 202, 302, 402, 502); and a controller (111, 211, 311, 411, 511) configured to communicate with the first host (11, 101, 201, 301, 401, 501) and the second host (12, 102, 202, 302, 402, 502) through a compute express link, CXL, interface, wherein the controller (111, 211, 311, 411, 511) is configured to: receive a first CXL communication packet from the first host (11, 101, 201, 301, 401, 501); and perform a target data transfer operation of transferring target data stored in the first memory region (vMEM_SW1, vMEM1_ex) to the second memory region (vMEM_SW2, vMEM2_ex), in response to the first CXL communication packet. receive a first CXL communication packet from the first host (11, 101, 201, 301, 401, 501); and perform a target data transfer operation of transferring target data stored in the first memory region (vMEM_SW1, vMEM1_ex) to the second memory region (vMEM_SW2, vMEM2_ex), in response to the first CXL communication packet.
A planar carrier, especially a decorative strip, for applying to an object, comprising a polymeric carrier layer and a polymeric coating layer which is connected to the carrier layer which has a surface at least partially imprinted by means of a reverse coating more particularly on release paper, characterized in that the carrier layer, which is formed as a carrier film, has a higher elastic property than the coating layer, which consists of a radiation-curable duroplastic polymer, more particularly UV lacquer, in order to at least partially reduce mechanical stresses.
A surgical implant for use as an artificial sphincter, comprising: an outer ring having an outer wall and an inner wall, the outer ring disposed about a central axis; an inner ring adjacent to the outer ring inner wall and disposed about the central axis defining an annular opening; a plurality of wedge-shaped petals flexibly attached to the inner ring, disposed about the central axis, the petals substantially occluding the annular opening in a first state and flexibly opening to provide a variably sized bore in a second state, wherein the outer ring is bio-absorbable; wherein the inner ring is attached to the outer ring inner wall, the inner ring having a surface to promote tissue in-growth; and wherein the wedge-shaped petals have an annularly-shaped distal end terminating in a point at a proximal end, the distal end being flexibly attached to the inner ring, wherein the petals are elastically deformable to form the variably sized bore in the second state. an outer ring having an outer wall and an inner wall, the outer ring disposed about a central axis; an inner ring adjacent to the outer ring inner wall and disposed about the central axis defining an annular opening; a plurality of wedge-shaped petals flexibly attached to the inner ring, disposed about the central axis, the petals substantially occluding the annular opening in a first state and flexibly opening to provide a variably sized bore in a second state, wherein the outer ring is bio-absorbable; wherein the inner ring is attached to the outer ring inner wall, the inner ring having a surface to promote tissue in-growth; and wherein the wedge-shaped petals have an annularly-shaped distal end terminating in a point at a proximal end, the distal end being flexibly attached to the inner ring, wherein the petals are elastically deformable to form the variably sized bore in the second state.
A method for producing an insert structured to acoustically and/or thermally insulate component parts of a vehicle provided with an internal combustion engine; said method being characterized in that it comprises the steps of: providing a forming casing having an inner seat shaped according to the shape of the insert to be produced delimited by at least one perforated wall provided with through holes communicating with said seat; providing, on the outside of said forming casing, penetrating means structured to penetrate into said seat of said forming casing through said openings; placing a given amount of fibres inside the seat of said casing; making said penetrating means penetrate into the seat of the casing exclusively through said openings in said perforated wall to cause displacements on the fibres confined inside the seat in order to interweave/twist the fibres together and join/compact them; said forming casing being made of a rigid material that cannot be penetrated/crossed by said penetrating means.
Process for manufacturing a shaped wire made of low-alloy carbon steel that has high mechanical properties and is resistant to hydrogen embrittlement, which shaped wire is intended to be used as a constituent of flexible pipes for the offshore oil production sector, characterized in that it has the following chemical composition, expressed as percentages by weight of the total mass: 0.75 ≤ C % ≤ 0.95 and 0.30 ≤ Mn % ≤ 0.85 with Cr ≤ 0.4%; V ≤ 0.16%; Si ≤ 1.40%, and optionally no more than 0.06% Al, no more than 0.1% Ni and no more than 0.1% Cu, the remainder being iron and the inevitable impurities arising from smelting of the metal in the liquid state; and in that, starting from a wire rod, hot-rolled in its austenitic region above 900°C, then cooled to ambient temperature, and then having a diameter of from 5 to 30 mm, it is obtained by subjecting said wire rod first to a thermomechanical treatment carried out according to two successive and ordered steps, namely an isothermal quenching, which gives it a homogeneous pearlitic microstructure, followed by a cold mechanical transformation operation carried out with an overall strain hardening exponent of between 50 and 80% maximum in order to give the wire its final shape, and in that the shaped wire thus obtained is then subjected to a recovery heat treatment carried out with a temperature between 410 and 710°C over a duration not exceeding one minute, giving it a tensile strength Rm of at least 1300 MPa. 0.75 ≤ C % ≤ 0.95 and 0.30 ≤ Mn % ≤ 0.85
A method for shaping a metal part of high material hardness, wherein the metal part in the non-deformed state, at least on one side in that region which is under tensile load during the shaping, is provided in load-resistant manner with a cover layer made of a ductile metallic material, characterised in that the ductile cover layer does not extend over the entire surface of the metal part, but merely over those metal sheet regions which have undergone bending deformation upon cold deformation in a pressing tool, and the composite part thus manufactured is cold-deformed in the state of high material hardness of the metal part.
A vehicle pedal assembly having a base member attachable to a vehicle floor and a pedal element which is pivotal at the base member at an end thereof intended to face the vehicle floor between a rest position and at least one actuating position, which further comprises: an overlay element, that overlies the pedal element and is operatively connected thereto via a guide structure, arranged to allow guided movement of the overlay element away from and towards the pedal element; and an electrically controllable actuator arrangement operatively arranged to selectively produce a force between the overlay element and the pedal element for executing the guided movement of the overlay element selectively away from and towards the pedal element, and arranged to allow a user of an associated electrical control arrangement to selectively control the actuator arrangement to generate this force, characterized in that it further comprises user identification means, arranged to obtain information associated with a user and use this obtained information to identify the particular user and to use the associated electrical control arrangement to execute the guided movement of the overlay element to a pre-set position for the identified particular user. an overlay element, that overlies the pedal element and is operatively connected thereto via a guide structure, arranged to allow guided movement of the overlay element away from and towards the pedal element; and an electrically controllable actuator arrangement operatively arranged to selectively produce a force between the overlay element and the pedal element for executing the guided movement of the overlay element selectively away from and towards the pedal element, and arranged to allow a user of an associated electrical control arrangement to selectively control the actuator arrangement to generate this force, characterized in that it further comprises user identification means, arranged to obtain information associated with a user and use this obtained information to identify the particular user and to use the associated electrical control arrangement to execute the guided movement of the overlay element to a pre-set position for the identified particular user.
A method of wireless communication at a device in a wireless system, comprising: determining when communications of a first device (504; 506) using a first radio access technology, RAT, experience interference from communications of a second device (506; 504) using a second RAT; receiving, from the first device (504; 506), information regarding a first channel quality when experiencing the interference, information regarding a second channel quality when not experiencing the interference, and a duty cycle of a length of time of the interference; determining the channel capacity based on the information regarding the first and second channel qualities and the duty cycle; and altering the communications of at least the first device (504; 506) to reduce the interference, in which the altering comprises controlling a transmission rate to the first device (504; 506) based at least on the determined channel capacity. determining when communications of a first device (504; 506) using a first radio access technology, RAT, experience interference from communications of a second device (506; 504) using a second RAT; receiving, from the first device (504; 506), information regarding a first channel quality when experiencing the interference, information regarding a second channel quality when not experiencing the interference, and a duty cycle of a length of time of the interference; determining the channel capacity based on the information regarding the first and second channel qualities and the duty cycle; and altering the communications of at least the first device (504; 506) to reduce the interference, in which the altering comprises controlling a transmission rate to the first device (504; 506) based at least on the determined channel capacity.