mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising: a tread having an outer surface which forms a tread surface; a pair of sidewalls extending from ends, respectively, of the tread approximately inward in a radial direction; a pair of beads positioned approximately inwardly from the pair of sidewalls, respectively, in the radial direction; a carcass positioned along the tread and the pair of sidewalls, so as to extend on and between the pair of beads; and multiple dimples formed on side surfaces, wherein a surface shape of each dimple is an elongated circle with a major axis of a length La and a minor axis of a length Li, a ratio La/Li is in a range of 1.2/1 to 5/1, characterized in that each dimple has a flat bottom surface, and a slope surface which extends from an edge (Ed) thereof to the flat bottom surface, and which is sloped relative to a tire radial direction, wherein an angle (α) of the slope surface is in a range of from 10 to 55 degrees. a tread having an outer surface which forms a tread surface; a pair of sidewalls extending from ends, respectively, of the tread approximately inward in a radial direction; a pair of beads positioned approximately inwardly from the pair of sidewalls, respectively, in the radial direction; a carcass positioned along the tread and the pair of sidewalls, so as to extend on and between the pair of beads; and multiple dimples formed on side surfaces, wherein a surface shape of each dimple is an elongated circle with a major axis of a length La and a minor axis of a length Li, a ratio La/Li is in a range of 1.2/1 to 5/1, characterized in that each dimple has a flat bottom surface, and a slope surface which extends from an edge (Ed) thereof to the flat bottom surface, and which is sloped relative to a tire radial direction, wherein an angle (α) of the slope surface is in a range of from 10 to 55 degrees.
A polymer composition comprising polymer chains of formula P1: where R 1, R 2, R 3, and R 4 are at each occurrence, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, an optionally substituted C 1-20 heteroaliphatic group, and an optionally substituted aryl group, where any two or more of R 1, R 2, R 3, and R 4 may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms;R 1', R 2', R 3' and R 4' are at each occurrence, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, an optionally substituted C 1-20 heteroaliphatic group, and an optionally substituted aryl group, where any two or more of R 1', R 2', R 3' and R 4' may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms; each n is, on average in the composition, within a range from about 2 to about 200; Q is any bivalent moiety derived from a cyclic acid anhydride; is a multivalent moiety; and x and y are each independently an integer from 0 to 6, where the sum of x and y is between 2 and 6. where R 1, R 2, R 3, and R 4 are at each occurrence, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, an optionally substituted C 1-20 heteroaliphatic group, and an optionally substituted aryl group, where any two or more of R 1, R 2, R 3, and R 4 may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms;R 1', R 2', R 3' and R 4' are at each occurrence, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, an optionally substituted C 1-20 heteroaliphatic group, and an optionally substituted aryl group, where any two or more of R 1', R 2', R 3' and R 4' may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms; each n is, on average in the composition, within a range from about 2 to about 200; Q is any bivalent moiety derived from a cyclic acid anhydride; is a multivalent moiety; and x and y are each independently an integer from 0 to 6, where the sum of x and y is between 2 and 6.
An evaporator system 10 for evaporating a liquid, the evaporator system having a primary evaporator 12 and a secondary evaporator 14 each evaporator comprising: at least one input pipe 34; at least one output pipe 36; wherein the at least one output pipe 36 of the primary evaporator 12 feeds into the at least one input pipe 34 of the secondary evaporator 14, a lower header 24; a plurality of lower tubes 26 having an upper end and a lower end, the lower ends of the lower tubes 26 being in fluid communication with the lower header 24; a plurality of upper tubes 30 having an upper end and a lower end; and an upper header 32 in fluid communication with the upper ends of the upper tubes 30, characterized by: an intermediate chamber 28 is provided in fluid communication with upper ends of the lower tubes 26, and the lower end of the upper tubes 30; the primary evaporator 12 and secondary evaporator 14 are positioned within a substantially straight duct 17 with heated fluid flow 22 passing through it, and the primary evaporator 12 is located downstream of the secondary evaporator 14 with respect to the heated fluid flow 22 to provided counter current heat transfer within the substantially straight duct 17. at least one input pipe 34; at least one output pipe 36; wherein the at least one output pipe 36 of the primary evaporator 12 feeds into the at least one input pipe 34 of the secondary evaporator 14, a lower header 24; a plurality of lower tubes 26 having an upper end and a lower end, the lower ends of the lower tubes 26 being in fluid communication with the lower header 24; a plurality of upper tubes 30 having an upper end and a lower end; and an upper header 32 in fluid communication with the upper ends of the upper tubes 30, an intermediate chamber 28 is provided in fluid communication with upper ends of the lower tubes 26, and the lower end of the upper tubes 30; the primary evaporator 12 and secondary evaporator 14 are positioned within a substantially straight duct 17 with heated fluid flow 22 passing through it, and the primary evaporator 12 is located downstream of the secondary evaporator 14 with respect to the heated fluid flow 22 to provided counter current heat transfer within the substantially straight duct 17.
A cylinder head cover made of a plastic material reinforced by glass fibers and/or minerals for a motor vehicle with an integrated camshaft timing mechanism and a plastic seat for the actuators of the camshaft timing mechanism, wherein the seat of the actuators is stiffened by an insert component consisting of a metal sheet part in full-area contact with said cylinder head cover and enclosed with said plastic material.
Device connected, in particular detachably, to a cleaning device, the device comprising at least one sensor means in order to detect the position of at least one cleaning area of the cleaning device used for the cleaning, at least one display device, and at least one data processing device operatively connected to the display device and the at least one sensor means, the data processing device being designed and configured to display at least one representation of at least one surface to be cleaned in at least one first colour or not coloured and, depending on a detected change in the position of at least the cleaning area of the cleaning device, to display the surface to be cleaned in at least one second colour, characterized in that the at least one sensor means detects the contact pressure of the at least one cleaning area of the cleaning device on the surface to be cleaned, wherein at least one threshold value for the contact pressure is defined, and wherein the surface to be cleaned is displayed (29") in the second colour only when the threshold value is reached and/or exceeded during a detected change in the position at least of the cleaning area, and/or the at least one sensor means detects the distance of the outlet from a jet nozzle of a cleaning device from the surface to be cleaned, the angle of the outlet of the jet nozzle or of the jet to the surface to be cleaned, the width and the intensity of the jet, wherein at least one threshold value of the intensity of the jet on the surface is defined, and wherein the surface to be cleaned is displayed in the second colour only when the threshold value is reached and/or exceeded during a detected change in the position of the jet nozzle.
A method for manufacturing a part of complex shape (3; 8) by successive deposition of layers according to a technique of 3D additive printing and pressure sintering, characterized in that it comprises the following steps: an initial step of producing a model (1; 4) from a material chosen from porous or pulverulent materials based on a metal alloy, a ceramic, a composite material and a lost material by formation of successive layers deposited according to the digitally controlled 3D additive printing technique, followed by a step of introducing a preform (1; 6) made of porous or pulverulent material, derived from the model (1; 4), to be densified into a mold filled with sacrificial porous or pulverulent material (13; 9) in addition to the preform (1; 6), the uniaxial densifying pressure sintering then being applied to the mold in order to form the part (3; 8) which is finally extracted from the mold.
A method for detecting charged particles (SE, BSE), comprising using at least one detector arranged in an object chamber (120; 122; 226; 303), wherein the object chamber (120; 122; 226; 303) is operated in a first pressure range or in a second pressure range, wherein the first pressure range only comprises pressures lower than or equal to 10 -3 hPa and wherein the second pressure range only comprises pressures equal to or over 10 -3 hPa, wherein the at least one detector is adapted to operate in the first pressure range and in the second pressure range and comprises at least one collector electrode, at least one scintillator and at least one light detector, and wherein the at least one scintillator is arranged between the at least one collector electrode and the at least one light detector, and wherein the method comprises, when operating the object chamber (120; 122; 226; 303) in the first pressure range, generating photons in the at least one scintillator using the charged particles (SE, BSE), and detecting the photons using the at least one light detector, and when operating the object chamber (120; 123; 226; 303) in the second pressure range, generating photons in the at least one scintillator using cascade particles generated by using the charged particles (SE, BSE) and a gas, and detecting the photons using the at least one light detector, wherein the charged particles are low energy charged particles and wherein the ambient pressure of the detector is equal to or over 10 -3 hPa.
Measuring probe comprising a probe head and a probe body, which is arranged thereat and which comprises an outer protective cap, which is secured by its open end in the probe head, of a high-density ceramic refractory material and an inner protective pipe, which is arranged coaxially in the protective cap with formation of an intermediate space and which is similarly secured in the probe head, of a high-temperature-resistant insulating material, in which a thermoelement is arranged, the measuring tip of which is disposed in the end region of the inner protective pipe remote from the probe head, wherein the outer protective cap is of gas-tight construction and is gas-tightly secured in the probe head and the free interior space of the protective cap and the free interior space of the inner protective pipe are filled with an inert gas and disposed in mutual flow connection conducting inert gas, characterised in that the probe head has an inert gas feed line which is in an inert-gas conducting flow and/or Iline connection with the end of the protective pipe facing the probe head, the probe head has an inert gas discharge line, which is in an inert-gas conducting flow and/or line connection with the open end of the protective cap facing the probe head and the inert gas feed line and the inert gas discharge line are so disposed in an inert-gas conducting line connection with a remotely arranged compensating container that an inert-gas circuit is formed and maintained between the compensating container and the free interior space of the measuring probe, which compresses or expands inert gas present in the measuring probe in dependence on temperature fluctuations and delivers temperature-dependent inert gas to the compensating container or receives it from the compensating vessel.
A method for manufacturing a metal strip or sheet (1; 1'), comprising: - providing a substrate (3; 3') made from stainless steel; and - depositing a chromium-nitride based layer on the substrate (3; 3') by physical vapor deposition in a deposition installation comprising a deposition chamber and a chromium target arranged in the deposition chamber, the substrate (3; 3') traveling through the deposition chamber in a longitudinal direction, wherein the deposition chamber comprises a deposition area (30; 30') with a length strictly smaller than the length of the deposition chamber, considered along the longitudinal direction, and at least a first prohibited area, adjacent to the deposition area (30; 30') in the longitudinal direction, and wherein, during the deposition, the chromium nitride is deposited on the substrate (3; 3') only in the deposition area (30; 30') and no chromium nitride is deposited on the substrate (3; 3') in the first prohibited area. - providing a substrate (3; 3') made from stainless steel; and - depositing a chromium-nitride based layer on the substrate (3; 3') by physical vapor deposition in a deposition installation comprising a deposition chamber and a chromium target arranged in the deposition chamber, the substrate (3; 3') traveling through the deposition chamber in a longitudinal direction,
A method performed by a first terminal in a wireless communication system, the method comprising: receiving, from a base station, at least one parameter associated with a sidelink transmission; identifying whether the terminal is configured to simultaneously transmit an uplink transmission and the sidelink transmission; transmitting, to a second terminal, the sidelink transmission in case that no uplink transmission is configured, wherein a transmission power for the sidelink transmission is identified from two or more transmission power values; and transmitting, to the base station, the uplink transmission in case that the terminal is configured to simultaneously transmit the uplink transmission and the sidelink transmission, wherein the sidelink transmission is not transmitted to the second terminal, in case that the terminal is configured to simultaneously transmit the uplink transmission and the sidelink transmission. receiving, from a base station, at least one parameter associated with a sidelink transmission; identifying whether the terminal is configured to simultaneously transmit an uplink transmission and the sidelink transmission; transmitting, to a second terminal, the sidelink transmission in case that no uplink transmission is configured, wherein a transmission power for the sidelink transmission is identified from two or more transmission power values; and transmitting, to the base station, the uplink transmission in case that the terminal is configured to simultaneously transmit the uplink transmission and the sidelink transmission, wherein the sidelink transmission is not transmitted to the second terminal, in case that the terminal is configured to simultaneously transmit the uplink transmission and the sidelink transmission.
Pump, in particular high-pressure fuel pump for a fuel injection device, having a pump housing (22, 40), wherein, on the pump housing, there is arranged at least one connector for a feed line and/or a return line for medium to and/or from the pump, wherein the connector is fastened in a receptacle of the pump housing, characterized in that the at least one connector has, in its longitudinal extent, at least one region which is of corrugated-bellows-like form and which is permanently deformable in order to make it possible to realize different lengths and/or orientations of the connector when the connector is fastened in the receptacle.
A color gradient generation system comprising: an input component that receives information defining at least one boundary curve (210, 510, 610, 710, 810, 910, 1320), one or more feature curves (220, 230, 620, 720, 820, 850, 930, 920, 1330) and colors along the boundary curve(s) and along the feature curve(s); and a gradient generator that employs an interpolation mechanism iteratively until a resolution-based threshold criterion is satisfied to generate a color gradient filling the interior of the boundary curve(s) based upon the colors along the boundary curve(s) and along the feature curve(s), wherein the resolution-based threshold criterion is a refinement criterion, the generating comprising: approximating the at least one input boundary curve and the one or more feature curves with line segments; triangulating a resulting graph formed by a set of vertices and edges defined by the line segments; determining whether the refinement criterion has been met; if the refinement criterion has not been met, refining the triangulation by adding new vertices, edges, and/or triangles wherever refinement is deemed necessary; and smoothing the color and position of each newly created vertex, based on the colors and positions of surrounding vertices. an input component that receives information defining at least one boundary curve (210, 510, 610, 710, 810, 910, 1320), one or more feature curves (220, 230, 620, 720, 820, 850, 930, 920, 1330) and colors along the boundary curve(s) and along the feature curve(s); and a gradient generator that employs an interpolation mechanism iteratively until a resolution-based threshold criterion is satisfied to generate a color gradient filling the interior of the boundary curve(s) based upon the colors along the boundary curve(s) and along the feature curve(s), wherein the resolution-based threshold criterion is a refinement criterion, the generating comprising: approximating the at least one input boundary curve and the one or more feature curves with line segments; triangulating a resulting graph formed by a set of vertices and edges defined by the line segments; determining whether the refinement criterion has been met; if the refinement criterion has not been met, refining the triangulation by adding new vertices, edges, and/or triangles wherever refinement is deemed necessary; and smoothing the color and position of each newly created vertex, based on the colors and positions of surrounding vertices. approximating the at least one input boundary curve and the one or more feature curves with line segments; triangulating a resulting graph formed by a set of vertices and edges defined by the line segments; determining whether the refinement criterion has been met; if the refinement criterion has not been met, refining the triangulation by adding new vertices, edges, and/or triangles wherever refinement is deemed necessary; and smoothing the color and position of each newly created vertex, based on the colors and positions of surrounding vertices.
A method for communications, comprising: transmitting a first control message, to a plurality of other apparatuses, the first control message requesting channel state information, CSI, to be computed, based on a sounding frame, at each of the other apparatuses; receiving, in response to the first control message, a first CSI report message with the CSI from a first apparatus of the other apparatuses that is indicated in the first control message as the one responding first with the CSI among the other apparatuses, the method being characterised by: transmitting a second control message requesting a second CSI report message with the computed CSI to be transmitted from at least a second apparatus of the other apparatuses that is not indicated in the first control message as the one responding first with the CSI among the other apparatuses; and receiving the second CSI report message in response to the second control message, wherein the second CSI report message comprises a sequence number that matches a sequence number in the first control message, wherein the second CSI report message comprises at least a segment of the computed CSI and at least an indication about a number of remaining segments of the computed CSI to be transmitted from the second apparatus. transmitting a first control message, to a plurality of other apparatuses, the first control message requesting channel state information, CSI, to be computed, based on a sounding frame, at each of the other apparatuses; receiving, in response to the first control message, a first CSI report message with the CSI from a first apparatus of the other apparatuses that is indicated in the first control message as the one responding first with the CSI among the other apparatuses, transmitting a second control message requesting a second CSI report message with the computed CSI to be transmitted from at least a second apparatus of the other apparatuses that is not indicated in the first control message as the one responding first with the CSI among the other apparatuses; and receiving the second CSI report message in response to the second control message, wherein the second CSI report message comprises a sequence number that matches a sequence number in the first control message, wherein the second CSI report message comprises at least a segment of the computed CSI and at least an indication about a number of remaining segments of the computed CSI to be transmitted from the second apparatus.
Method for producing a sealing strip roll employing the following steps: Preparing a length of open-cell cellular material; Impregnating the cellular material in order to prevent the cellular material from reverting to its original shape after being released from compression; Rolling up the length of cellular material into a wide roll and cutting this wide roll into narrow sealing strip rolls, whereby each sealing strip has a rectangular cross-section, together with an upper side, a lower side and two side ends, which form the side ends of the sealing strip roll: characterised by: Unrolling each sealing strip from the sealing strip roll and attaching it together with the complete adherence of a thin closed layer of a flexible or film type coating of 0.002 mm to 0.5 mm onto at least one side of the cellular material while the latter in not in a compressed state; and rewinding the strip of cellulose material containing the thin, closed layer into a sealing strip roll, in which the cellular material is in a partially compressed state. Preparing a length of open-cell cellular material; Impregnating the cellular material in order to prevent the cellular material from reverting to its original shape after being released from compression; Rolling up the length of cellular material into a wide roll and cutting this wide roll into narrow sealing strip rolls, whereby each sealing strip has a rectangular cross-section, together with an upper side, a lower side and two side ends, which form the side ends of the sealing strip roll: characterised by: characterised by: Unrolling each sealing strip from the sealing strip roll and attaching it together with the complete adherence of a thin closed layer of a flexible or film type coating of 0.002 mm to 0.5 mm onto at least one side of the cellular material while the latter in not in a compressed state; and rewinding the strip of cellulose material containing the thin, closed layer into a sealing strip roll, in which the cellular material is in a partially compressed state.