mhurhangee/ep-ind-claims huggingface dataset:
Brake disc shield device (1; 61) for a disc brake of a motor vehicle, in particular utility vehicle, comprising (a) a shield body (10; 610) which, by means of a brake calliper screw connection, can be fixed indirectly or directly to an axle part to which the disc brake is fixed, which shield body has a side wall region (11, 11a) for at least partially covering a brake disc of the disc brake at its side pointing towards a vehicle body and has a stiffening surface which is oriented substantially perpendicular to the side wall region; and (b) an attachment element (2; 20), the wall thickness of which is preferably greater than a wall thickness of the shield body (10; 610), which attachment element has a first region, which is fastened to the side wall region, a second region, which is fastened to the stiffening surface, and a third region, which is fastened to a location on the shield body (10; 610) at which the shield body (10, 610) is, in the installed state, fixed to the axle part by way of the brake calliper screw connection; characterized in that the shield body (10; 610) is fastened by way of the attachment element (2; 20) to the axle part, wherein the third region is in the form of an abutment surface which, in the installed state, is supported by way of a side averted from the shield body (10; 610), and in the region of a screw bearing surface of the brake calliper screw connection, against the axle part. (a) a shield body (10; 610) which, by means of a brake calliper screw connection, can be fixed indirectly or directly to an axle part to which the disc brake is fixed, which shield body has a side wall region (11, 11a) for at least partially covering a brake disc of the disc brake at its side pointing towards a vehicle body and has a stiffening surface which is oriented substantially perpendicular to the side wall region; and (b) an attachment element (2; 20), the wall thickness of which is preferably greater than a wall thickness of the shield body (10; 610), which attachment element has a first region, which is fastened to the side wall region, a second region, which is fastened to the stiffening surface, and a third region, which is fastened to a location on the shield body (10; 610) at which the shield body (10, 610) is, in the installed state, fixed to the axle part by way of the brake calliper screw connection; characterized in that the shield body (10; 610) is fastened by way of the attachment element (2; 20) to the axle part, wherein the third region is in the form of an abutment surface which, in the installed state, is supported by way of a side averted from the shield body (10; 610), and in the region of a screw bearing surface of the brake calliper screw connection, against the axle part.
A distance measuring device using pulses of light, comprising: an avalanche photodiode that detects pulsed light reflected from an object to be measured; an amplifier circuit that converts electric current output from the avalanche photodiode into a voltage pulse signal; a differential amplifier that is arranged in a rear stage of the amplifier circuit and that differentially amplifies the voltage pulse signal; damping circuits (105, 106) that are arranged in a rear stage of the differential amplifier and that convert the pulse signals from the differential amplifier into signals with a damped oscillation waveform; and an A/D converter that is arranged in a rear stage of the damping circuits (105, 106) and that converts the signals with the damped oscillation waveform by A/D conversion, wherein the signal path from the avalanche photodiode to the A/D converter allows a direct current signal to pass therethrough. an avalanche photodiode that detects pulsed light reflected from an object to be measured; an amplifier circuit that converts electric current output from the avalanche photodiode into a voltage pulse signal; a differential amplifier that is arranged in a rear stage of the amplifier circuit and that differentially amplifies the voltage pulse signal; damping circuits (105, 106) that are arranged in a rear stage of the differential amplifier and that convert the pulse signals from the differential amplifier into signals with a damped oscillation waveform; and an A/D converter that is arranged in a rear stage of the damping circuits (105, 106) and that converts the signals with the damped oscillation waveform by A/D conversion, wherein the signal path from the avalanche photodiode to the A/D converter allows a direct current signal to pass therethrough.
A ballistic resistant sheet comprising a core layer and face layers joined to respective opposing surfaces of the core layer, wherein the core layer comprises at least one first monolayer comprised of first unidirectionally oriented fibers and a matrix material, wherein each of the face layers comprise at least one second monolayer comprised of second UD oriented fibers and a matrix material, characterized by the matrix material of the core layer being elastomeric and the matrix material of the face layers being non-elastomeric, wherein each face layer is present in an amount of between 10 and 40 mass% of the ballistic resistant sheet and wherein the core layer is present in an amount of between 80 and 20 mass% of the ballistic resistant sheet.
A method of, at a multiple input multiple output (MIMO) transmitter including a plurality of antennas, performing communication with a MIMO receiver, the method comprising: measuring correlation between channels of a plurality of resource elements (REs) based on channel information of the plurality of REs; forming one or more RE groups by grouping the plurality of REs in consideration of the measured correlation between the channels; and transmitting information on the RE groups to the MIMO receiver. measuring correlation between channels of a plurality of resource elements (REs) based on channel information of the plurality of REs; forming one or more RE groups by grouping the plurality of REs in consideration of the measured correlation between the channels; and transmitting information on the RE groups to the MIMO receiver.
Li-Ni composite oxide particles having a composition represented by the formula: Li x (Ni 1-y-w-z-v Co y Mn w Ma z Mb v)O 2 (wherein 0.9 ≤ x ≤ 1.1; 0.05 ≤ y ≤ 0.25; 0 ≤ w ≤ 0.25; 0 < z ≤ 0.15; 0 ≤ v ≤ 0.03; Ma is at least one amphoteric metal selected from the group consisting of Al, Zn and Sn; and Mb is at least one metal selected from the group consisting of Bi, Sb, Zr, B and Mg), in which the Li-Ni composite oxide particles have a BET specific surface area of 0.05 to 0.8 m 2 /g; an atomic ratio (Ma/Ni) of a concentration of the amphoteric metal to a concentration of Ni on an outermost surface of the respective Li-Ni composite oxide particles is 2 to 6; the concentration of the amphoteric metal on the outermost surface of the respective Li-Ni composite oxide particles is higher than a concentration of the amphoteric metal at a position spaced by 50 nm from the outermost surface toward a center of the respective Li-Ni composite oxide particles; and wherein the concentration of the amphoteric metal on the outermost surface of the respective Li-Ni composite oxide particles is 5 to 60 atom% based on a total concentration of Ni, Co, Mn, the amphoteric metal (Ma), Mb and oxygen. (wherein 0.9 ≤ x ≤ 1.1; 0.05 ≤ y ≤ 0.25; 0 ≤ w ≤ 0.25; 0 < z ≤ 0.15; 0 ≤ v ≤ 0.03; Ma is at least one amphoteric metal selected from the group consisting of Al, Zn and Sn; and Mb is at least one metal selected from the group consisting of Bi, Sb, Zr, B and Mg), in which the Li-Ni composite oxide particles have a BET specific surface area of 0.05 to 0.8 m 2 /g; an atomic ratio (Ma/Ni) of a concentration of the amphoteric metal to a concentration of Ni on an outermost surface of the respective Li-Ni composite oxide particles is 2 to 6; the concentration of the amphoteric metal on the outermost surface of the respective Li-Ni composite oxide particles is higher than a concentration of the amphoteric metal at a position spaced by 50 nm from the outermost surface toward a center of the respective Li-Ni composite oxide particles; and wherein the concentration of the amphoteric metal on the outermost surface of the respective Li-Ni composite oxide particles is 5 to 60 atom% based on a total concentration of Ni, Co, Mn, the amphoteric metal (Ma), Mb and oxygen.
A method, comprising: reserving (301, 401) a portion of a wideband carrier for machine type communication traffic of one or more machine type communication devices by providing a plurality of narrowband uplink carriers (201, 202, 203) in the wideband carrier, characterized by further comprising: broadcasting (303, 403) a list that identifies available narrowband uplink carriers among the plurality of narrowband uplink carriers, which are available for use by a machine type communication device, and selecting (307, 405) by a machine type communication device a narrowband uplink carrier of the identified available narrowband uplink carriers for use by the machine type communication device. reserving (301, 401) a portion of a wideband carrier for machine type communication traffic of one or more machine type communication devices by providing a plurality of narrowband uplink carriers (201, 202, 203) in the wideband carrier, characterized by further comprising: broadcasting (303, 403) a list that identifies available narrowband uplink carriers among the plurality of narrowband uplink carriers, which are available for use by a machine type communication device, and selecting (307, 405) by a machine type communication device a narrowband uplink carrier of the identified available narrowband uplink carriers for use by the machine type communication device. broadcasting (303, 403) a list that identifies available narrowband uplink carriers among the plurality of narrowband uplink carriers, which are available for use by a machine type communication device, and selecting (307, 405) by a machine type communication device a narrowband uplink carrier of the identified available narrowband uplink carriers for use by the machine type communication device.
A carrier core material which is formed with ferrite particles, wherein a skewness Rsk of the particle is equal to or more than -0.40 but equal to or less than -0.20 as measured according to the description, a kurtosis Rku of the particle is equal to or more than 3.20 but equal to or less than 3.50 as measured according to the description, a maximum height Rz of the particle is equal to or more than 2.20 μm but equal to or less than 3.50 μm as described in the description, wherein the ferrite particles are particles which contain Sr and in which the main composition is a Mn ferrite, a Mg ferrite or a MnMg ferrite. wherein a skewness Rsk of the particle is equal to or more than -0.40 but equal to or less than -0.20 as measured according to the description, a kurtosis Rku of the particle is equal to or more than 3.20 but equal to or less than 3.50 as measured according to the description, a maximum height Rz of the particle is equal to or more than 2.20 μm but equal to or less than 3.50 μm as described in the description, wherein the ferrite particles are particles which contain Sr and in which the main composition is a Mn ferrite, a Mg ferrite or a MnMg ferrite.
A method for producing a ceramic scintillator comprising the steps of mixing a rare earth compound with sulfuric acid and/or sulfate to cause their reaction to obtain a product; calcining said product at a temperature of 300 to 1000°C to obtain calcined powder; reducing said calcined powder to obtain rare earth oxysulfide powder; molding said rare earth oxysulfide powder to obtain a green body; and sintering said green body in an inert atmosphere; a pulverization step being conducted to adjust the particle sizes of the product and/or the calcined powder before the reduction step, and a pulverization step for adjusting the particle sizes of said rare earth oxysulfide powder being not conducted after said reduction step.
A system (94, 102, 104, 108, 110) for processing wastewater 30, comprising: a) a stripping unit (10, 11), comprising a stripping column, a stripping gas inlet and a stripping unit exhaust; b) an oxidation unit, comprising a process air inlet, an oxidizer, and an OU exhaust, and c) a regenerative heat exchanger (52, 50) and another said regenerative heat exchanger (50, 52), both coupled to receive heat from the OU exhaust adapted for pre-heating process air that enters the oxidizer with heat generated in the oxidizer, wherein said regenerative heat exchangers (52, 50) are disposed on either side of said oxidizer, and at least one reversible fan (48, 48a, 48b) suitable for forcing gas in a clockwise or counterclockwise direction through said regenerative heat exchangers (52, 50) towards said oxidizer, wherein said OU exhaust is in fluid communication with said stripping gas inlet. a) a stripping unit (10, 11), comprising a stripping column, a stripping gas inlet and a stripping unit exhaust; b) an oxidation unit, comprising a process air inlet, an oxidizer, and an OU exhaust, and c) a regenerative heat exchanger (52, 50) and another said regenerative heat exchanger (50, 52), both coupled to receive heat from the OU exhaust adapted for pre-heating process air that enters the oxidizer with heat generated in the oxidizer, wherein said regenerative heat exchangers (52, 50) are disposed on either side of said oxidizer, and at least one reversible fan (48, 48a, 48b) suitable for forcing gas in a clockwise or counterclockwise direction through said regenerative heat exchangers (52, 50) towards said oxidizer,
A method for the functionally safe exchange of information between at least three safety controllers in accordance with a safety standard, designed for the functionally safe control of an electrical consumer in accordance with a safety standard, wherein a master is provided, and a plurality of security controllers are designed as a slave (S1...SN), and wherein data packets (DS1...DSN) are received from a plurality of slaves (S1...SN) by the master, the master connects the data packets (DS1...DSN) to form a collective data packet, and sends the collective data packet to all the slaves (S1...SN).
Use of xanthohumol of the formula optionally associated with or based on a salt as active compound for preparing a food supplement or medicament for preventing liver damage mediated by adipositas and/or diabetes.
Ring filter element with at least one end disc and a one-piece, annular seal attached removably onto the latter made from ethylene propylene diene rubber (EPDM), - having a ring body with a funnel-shaped sealing lip projecting radially outwards on the end face obliquely to the axis of the ring body, - having a holding edge, which projects on the end face of the ring body facing away from the sealing lip and at its free end has an inwardly pointing holding contour for gripping behind the end disc, - wherein the seal with its holding contour arranged on the holding edge grips around the edge of the end disc. - having a ring body with a funnel-shaped sealing lip projecting radially outwards on the end face obliquely to the axis of the ring body, - having a holding edge, which projects on the end face of the ring body facing away from the sealing lip and at its free end has an inwardly pointing holding contour for gripping behind the end disc, - wherein the seal with its holding contour arranged on the holding edge grips around the edge of the end disc.
Machine for forming and filling containers, said machine being adapted to shape from a preform and fill with liquid successive containers in forming stations, each forming station comprising a main station (25, 25a, 25b, 25c) and an elementary station (23, 23a, 23b, 23c) which are coupled together to form the forming station, wherein the machine comprises a series of elementary stations (23, 23a, 23b, 23c) moving along a first closed loop and a series of main stations (25, 25a, 25b, 25c) moving along a second closed loop, the first closed loop and the second closed loop comprising at least one common part wherein the main stations (25, 25a, 25b, 25c) are coupled with the elementary stations (23, 23a, 23b, 23c) and at least a distinct part wherein the main stations (25, 25a, 25b, 25c) are separated from the elementary stations (23, 23a, 23b, 23c) characterized in that the machine further comprises at least a first wheel carrying the series of main stations (25, 25a, 25b, 25c), the distinct part of the first closed loop extending outside the periphery of said first wheel.
Removable acoustic radiating membrane for a musical watch or a striking watch, wherein said membrane can be removably fixed between a middle part and a back cover of a watch case, characterized in that it includes a retaining member in a T or L shape with a stem fixed to a base part of the membrane and a tongue fixed to the stem parallel to the base part intended to cooperate with a stop member of the back cover arranged entirely inside the watch case, to limit the bending of the membrane following significant excess pressure or vacuum pressure according to environmental conditions, and in that the tongue has the general shape of a rectangle, the width of which is sized to enable the tongue to be inserted in a housing in an inner stop member of the back cover of the watch case, while the length is sized to retain the tongue in the housing following a bayonet type assembly in the housing.
A pneumatic material conveying system comprising a waste container/separating device and a press device/compactor device, which press device/compactor device is configured to be connected to the waste container/separating device of the pneumatic material conveying system, which press device/compactor device comprises a frame part, means for detachably connecting the frame part and the waste container/separating device to each other, and also a compression means, which is arranged to be movable with drive means into the frame part between a first position, in which first position the compression means is outside the container space of the waste container/separating device, and at least one second position, in which the compression means extends into the container space via the aperture formed in the waste container/separating device, wherein the press device/compactor device comprises a movable part, along with which the compression means and at least a part of the moving means (86, 87, 88) of the compression means are arranged to be movable, which movable part can be moved between at least one first position, in which the movable part is outside the waste container/separating device, and one second position, in which the movable part extends via the aperture into the container space of the waste container/separating device, and a support surface for at least one wall arranged transverse to the input direction of the material in the container space of the waste container/separating device, which wall is configured to guide the material into the operating range in the container space of the compression means of the press device/compactor device, wherein the at least one wall is arranged to be turnable or bendable at its top part around a transverse axis.
A protein comprising an ankyrin repeat domain, wherein the ankyrin repeat domain has an N-terminal capping module with L at the position corresponding to position 24 of SEQ ID NO: 1, wherein said N-terminal capping module comprises an amino acid sequence that has at least 70% sequence identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 1 to 37, and wherein said ankyrin repeat domain has a higher melting temperature than a reference ankyrin repeat domain having the same amino acid sequence except for the amino acid residue of the N-terminal capping module at the position corresponding to position 24 of SEQ ID NO: 1, which is A in the reference ankyrin repeat domain. wherein the ankyrin repeat domain has an N-terminal capping module with L at the position corresponding to position 24 of SEQ ID NO: 1, wherein said N-terminal capping module comprises an amino acid sequence that has at least 70% sequence identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 1 to 37, and wherein said ankyrin repeat domain has a higher melting temperature than a reference ankyrin repeat domain having the same amino acid sequence except for the amino acid residue of the N-terminal capping module at the position corresponding to position 24 of SEQ ID NO: 1, which is A in the reference ankyrin repeat domain.
Oral cosmetic use of a combination of active agents comprising at least taurine, 4-(2-hydroxyethyl)-1-piperazineethanesulfonic acid, N-acyltaurine, acetylhomotaurine, N,N-diacetylsalicyloxyethyltaurine, acylmethyltaurine, homotaurine or salts thereof or hypotaurine and at least one grape seed extract, as cosmetic active agents for reducing and/or preventing brittle, fragile, soft, split or cracked nails, preferably split nails, characterized in that the combination also comprises, as additional active agent, zinc or a salt thereof, and also comprises vitamin C and vitamin B8, in which the combination of active agents is used in a cosmetic composition that is suitable for oral administration, and further characterized in that taurine, 4-(2-hydroxyethyl)-1-piperazineethanesulfonic acid, N-acyltaurine, acetylhomotaurine, N,N-diacetylsalicyloxyethyltaurine, acylmethyltaurine, homotaurine or salts thereof or hypotaurine is used in a content of between 1% and 30% by weight, relative to the total weight of the composition, expressed as taurine equivalent.
Vehicle fairing, in particular for a rail vehicle, comprising - at least one fairing element (105; 205; 305; 405), wherein - the fairing element (105; 205; 305; 405) forms at least a part of the shell of a vehicle, in particular the outer shell of a vehicle, - the fairing element (105; 205; 305; 405) at least partially is constructed of at least one composite structure, in particular a fiber composite structure, and - the fairing element (105; 205; 305; 405) has at least a first section (105.1; 205.1; 305.1; 405.1) and an adjacent second section (105.2; 205.2; 305.2; 405.2), characterized in that - the fairing element (105; 205; 305; 405), at least in a transition region (105.3; 205.3; 305.3; 405.3) between the first section (105.1; 205.1; 305.1; 405.1) and the second section (105.2; 205.2; 305.2; 405.2) formed as a predetermined breaking location, is configured to be weakened relative to the first section (105.1; 205.1; 305.1; 405.1) such that, in a predeterminable crash situation, in the transition region (105.3; 205.3; 305.3; 405.3) a predefined failure of the fairing element (105; 205; 305; 405) takes place for preventing an uncontrolled crack propagation into the first section (105.1; 205.1; 305.1; 405.1). - at least one fairing element (105; 205; 305; 405), wherein - the fairing element (105; 205; 305; 405) forms at least a part of the shell of a vehicle, in particular the outer shell of a vehicle, - the fairing element (105; 205; 305; 405) at least partially is constructed of at least one composite structure, in particular a fiber composite structure, and - the fairing element (105; 205; 305; 405) has at least a first section (105.1; 205.1; 305.1; 405.1) and an adjacent second section (105.2; 205.2; 305.2; 405.2), - the fairing element (105; 205; 305; 405), at least in a transition region (105.3; 205.3; 305.3; 405.3) between the first section (105.1; 205.1; 305.1; 405.1) and the second section (105.2; 205.2; 305.2; 405.2) formed as a predetermined breaking location, is configured to be weakened relative to the first section (105.1; 205.1; 305.1; 405.1) such that, in a predeterminable crash situation, in the transition region (105.3; 205.3; 305.3; 405.3) a predefined failure of the fairing element (105; 205; 305; 405) takes place for preventing an uncontrolled crack propagation into the first section (105.1; 205.1; 305.1; 405.1).