mhurhangee/ep-ind-claims huggingface dataset:
End piece configured for installation at a longitudinal extremity of a windscreen wiper, the end piece comprising an internal volume and a peripheral wall which delimits the internal volume, the end piece comprising at least one first housing configured to accommodate a heel of a wiper blade and being in communication with a slot which passes through the peripheral wall, the slot being delimited by sides, the first housing extending longitudinally from an inlet, through which the heel of the wiper blade may be introduced into the first housing, and extending preferably as far as a bottom wall of the peripheral wall, the first housing being delimited by a longitudinal wall disposed in the internal volume, characterized in that a first distance D1 measured at the inlet between one of the sides delimiting the slot and the longitudinal wall is greater than a second distance D2 separate from the first distance D1 and measured parallel to the first distance D1, the second distance D2 being measured between one of the sides of the slot and the longitudinal wall.
A nickel (Ni)-based alloy for forging containing, in mass%, 0.01 to 0.07% of carbon, 14 to 26% of chromium (Cr), 10 to 15% of cobalt (Co), 5 to 12% of molybdenum (Mo), 0.8 to 3% of aluminum (Al), 0.8 to 3% oftitanium (Ti), 0.001 to 0.006% of boron, optionally 0.05 to 0.7% of tantalum (Ta), optionally 0.1 to 0.7% of niobium (Nb), and the balance being nickel (Ni) and unavoidable impurities, the relationship 11 mass% ≤ Mo + 0.176Cr + 0.037Co ≤ 13.5 mass% being satisfied, wherein an average thickness of a carbide precipitated along a grain boundary is 250 nm or less. 0.01 to 0.07% of carbon, 14 to 26% of chromium (Cr), 10 to 15% of cobalt (Co), 5 to 12% of molybdenum (Mo), 0.8 to 3% of aluminum (Al), 0.8 to 3% oftitanium (Ti), 0.001 to 0.006% of boron, optionally 0.05 to 0.7% of tantalum (Ta), optionally 0.1 to 0.7% of niobium (Nb), and the balance being nickel (Ni) and unavoidable impurities, the relationship 11 mass% ≤ Mo + 0.176Cr + 0.037Co ≤ 13.5 mass% being satisfied,
A beverage container comprising: a beverage container body and bottom fabricated from an aluminum body alloy comprising 0.4 wt.% to 1 wt.% Mn, 1.1 wt.% to 2 wt.% Mg, 0.2 to 0.5 wt.% silicon, 0.3 to 0.6 wt.% iron, 0.2 to 0.5 wt.% copper, and no more than 5 wt.% impurities, the balance being aluminum; and a beverage container end operatively affixed to the beverage container body, the beverage container end fabricated from an aluminum end alloy, the aluminum end alloy comprising 0.4 wt.% to 1 wt.% Mn, 4 wt.% to 5.5 wt.% Mg, 0.2 to 0.5 wt.% silicon, 0.3 to 0.6 wt.% iron, 0.2 to 0.5 wt. % copper, and no more than 5 wt.% impurities, the balance being aluminum, wherein an absolute value of the difference in Mn concentration between the aluminum body alloy and the aluminum end alloy is not greater than 0.3 wt.%. a beverage container body and bottom fabricated from an aluminum body alloy comprising 0.4 wt.% to 1 wt.% Mn, 1.1 wt.% to 2 wt.% Mg, 0.2 to 0.5 wt.% silicon, 0.3 to 0.6 wt.% iron, 0.2 to 0.5 wt.% copper, and no more than 5 wt.% impurities, the balance being aluminum; and a beverage container end operatively affixed to the beverage container body, the beverage container end fabricated from an aluminum end alloy, the aluminum end alloy comprising 0.4 wt.% to 1 wt.% Mn, 4 wt.% to 5.5 wt.% Mg, 0.2 to 0.5 wt.% silicon, 0.3 to 0.6 wt.% iron, 0.2 to 0.5 wt. % copper, and no more than 5 wt.% impurities, the balance being aluminum, wherein an absolute value of the difference in Mn concentration between the aluminum body alloy and the aluminum end alloy is not greater than 0.3 wt.%.
A method comprising: determining when a processor of an apparatus is in a sleep mode; and when the processor is determined to be in the sleep mode, and during a transport protocol session of the apparatus with a device, in response to an incoming transport packet of the transport protocol session, transmitting an indication by the apparatus to the device, characterized in that the indication indicates that the processor is in a sleep mode. determining when a processor of an apparatus is in a sleep mode; and when the processor is determined to be in the sleep mode, and during a transport protocol session of the apparatus with a device, in response to an incoming transport packet of the transport protocol session, transmitting an indication by the apparatus to the device, characterized in that the indication indicates that the processor is in a sleep mode.
A DC distance protection controller, for identifying a fault within a protection zone extending between a first terminal with which the protection controller is in use operatively associated and a set point along a DC power transmission conduit lying between the first terminal and a second terminal within a DC electrical power network, the protection controller being programmed to: (i) periodically obtain as respective sampled pairs a measured voltage value (u m) and a measured current value (i m) of the DC power transmission conduit at the first terminal; characterised in that the protection controller being programmed to: (ii) isolate in respect of each sampled pair, a fault component voltage value (Δu m) from the corresponding measured voltage value (u m) and a fault component current value (Δi m) from the corresponding measured current value (i m) to define a respective corresponding isolated pair; (iii) calculate from each isolated pair of fault component voltage and current values (Δu m, Δi m) a fault component operating voltage (Δu op) of the DC power transmission conduit at the set point along the DC power transmission conduit; (iv) compare a given calculated fault component operating voltage (Δu op) with a historical voltage value (u h) derived from a historical measured voltage value (u m') from an earlier sampled pair of measured voltage and current values (u m, i m); and (v) identify a fault within the protection zone when the given calculated fault component operating voltage (Δu op) is greater than the historical voltage value (u m') with which it is compared. (i) periodically obtain as respective sampled pairs a measured voltage value (u m) and a measured current value (i m) of the DC power transmission conduit at the first terminal; (ii) isolate in respect of each sampled pair, a fault component voltage value (Δu m) from the corresponding measured voltage value (u m) and a fault component current value (Δi m) from the corresponding measured current value (i m) to define a respective corresponding isolated pair; (iii) calculate from each isolated pair of fault component voltage and current values (Δu m, Δi m) a fault component operating voltage (Δu op) of the DC power transmission conduit at the set point along the DC power transmission conduit; (iv) compare a given calculated fault component operating voltage (Δu op) with a historical voltage value (u h) derived from a historical measured voltage value (u m') from an earlier sampled pair of measured voltage and current values (u m, i m); and (v) identify a fault within the protection zone when the given calculated fault component operating voltage (Δu op) is greater than the historical voltage value (u m') with which it is compared.
A reciprocating compressor, comprising: a reciprocating motor including a first stator and a second stator separated to have an air gap there between, and a mover disposed between the first stator and the second stator, to perform a reciprocation; and a frame to support the first and second stators (31, 32); characterized in that a magnetic flux guiding member is disposed between at least one of the first stator and the second stator and the frame, to guide magnetic flux; wherein the magnetic flux guiding member is formed of a material having conductivity higher than that of the frame. a reciprocating motor including a first stator and a second stator separated to have an air gap there between, and a mover disposed between the first stator and the second stator, to perform a reciprocation; and a frame to support the first and second stators (31, 32);
Compressor comprising: - a motor compartment containing an electric motor driving a compression mechanism, - a control compartment containing a control device of the electric motor, the motor compartment and the control compartment being separated by a wall, - an electrical connection device connecting the control device and the electric motor, the electrical connection device comprising: i. at least one connection terminal of the control device, assembled through the wall and projecting into the motor compartment, and ii. a connection block of the electric motor, assembled in the motor compartment and arranged to cooperate removably with said connection terminal, characterized in that the electrical connection device includes at least one electric isolation element assembled removably on the connection block and arranged between the wall and the connection block, the connection block including a body containing at least one electrical connection element adapted to cooperate with the connection terminal via at least one connection opening of said body, the body having at least one opening (75, 76, F1), the electric isolation element being assembled on the connection block such as to close said opening (75, 76, F1) to prevent the occurrence of electric arcs, the electric isolation element including an interface partition placed between the wall and the body of the connection block, said interface partition including at least one through-opening to correspond with said connection opening of the body into which the connection terminal projects. - a motor compartment containing an electric motor driving a compression mechanism, - a control compartment containing a control device of the electric motor, the motor compartment and the control compartment being separated by a wall, - an electrical connection device connecting the control device and the electric motor, the electrical connection device comprising: i. at least one connection terminal of the control device, assembled through the wall and projecting into the motor compartment, and ii. a connection block of the electric motor, assembled in the motor compartment and arranged to cooperate removably with said connection terminal, i. at least one connection terminal of the control device, assembled through the wall and projecting into the motor compartment, and ii. a connection block of the electric motor, assembled in the motor compartment and arranged to cooperate removably with said connection terminal,
Molding composition comprising components (a), (b) and (c), (a) 71 to 90 wt.-% of at least one random copolymer (a) made from 44 to 64 wt.-% of at least one vinylaromatic monomer, in particular styrene, and 36 to 56 wt.-%, methyl methacrylate; (b) 10 to 29 wt.-% of at least one vinylaromatic-diene block copolymer (b) which comprises at least two, preferably terminal, hard blocks S made from vinylaromatic monomers, in particular styrene, and at least one soft block B made from dienes, in particular butadiene, and/or at least one soft block B/S made from dienes and vinylaromatic monomers, in particular butadiene and styrene; where the proportion of the diene - based on the entire block copolymer (b) - is from 47 to 67 wt.-%; and (c) 0 to 5 wt.-% of one or more additive(s) and/or processing aid(s) (c), wherein the total amount of components (a), (b) and (c) is 100 wt.-%. (a) 71 to 90 wt.-% of at least one random copolymer (a) made from 44 to 64 wt.-% of at least one vinylaromatic monomer, in particular styrene, and 36 to 56 wt.-%, methyl methacrylate; (b) 10 to 29 wt.-% of at least one vinylaromatic-diene block copolymer (b) which comprises at least two, preferably terminal, hard blocks S made from vinylaromatic monomers, in particular styrene, and at least one soft block B made from dienes, in particular butadiene, and/or at least one soft block B/S made from dienes and vinylaromatic monomers, in particular butadiene and styrene; where the proportion of the diene - based on the entire block copolymer (b) - is from 47 to 67 wt.-%; and (c) 0 to 5 wt.-% of one or more additive(s) and/or processing aid(s) (c),
Production method a MEMS package having at least one layer for protecting a MEMS device, comprising the following steps: - Providing a MEMS device comprising at least one MEMS interaction region on a substrate, wherein the MEMS element comprises a MEMS device and a processor on the substrate and an electrical connection is present between the MEMS device and the processor, - Surface conformal coating of the MEMS device with a dielectric layer, characterized in that - Application of an electrically conductive layer at least in regions on the dielectric layer, wherein the dielectric layer and the electrically conductive layer extend over the MEMS device and the processor. - Providing a MEMS device comprising at least one MEMS interaction region on a substrate, wherein the MEMS element comprises a MEMS device and a processor on the substrate and an electrical connection is present between the MEMS device and the processor, - Surface conformal coating of the MEMS device with a dielectric layer, characterized in that - Application of an electrically conductive layer at least in regions on the dielectric layer, wherein the dielectric layer and the electrically conductive layer extend over the MEMS device and the processor.
Training device, for carrying out muscle training for a muscle, in particular for a specific muscle, of a person, comprising a control unit, a main body and a load measuring device (201, 221, 231) arranged on the main body, wherein the muscle, in particular the specific muscle, is in contact with the load measuring device (201, 221, 231) in a use position of the person and the load measuring device (201, 221, 231) has a load sensor or a plurality of load sensors for determining a load exerted by the person onto the load measuring device (201, 221, 231) at a respective measurement point correlated with a region of the muscle at a respective measurement point position, wherein the control unit has a signal unit (114, 215) and the control unit is set up in such a way that a contraction signal can be emitted to the person by the signal unit (114, 215) so that the person performs a signalled muscle contraction on the basis of the contraction signal and successful execution of the signalled muscle contraction can be verified by comparing a load profile (311, 315) determined by the load measuring device (201, 221, 231) with a comparison load profile, in that a positive success signal is emitted in the event that the load profile (311, 315) and the comparison load profile correspond and a negative success signal is emitted in the event that the load profile (311, 315) and the comparison load profile do not correspond, characterised in that the training device has a chair or an armchair, and in that the signal unit (114, 215) has a mechanical actuator, wherein a mechanical contraction signal and/or a mechanical success signal can be emitted to the person by the mechanical actuator. wherein the control unit has a signal unit (114, 215) and the control unit is set up in such a way that a contraction signal can be emitted to the person by the signal unit (114, 215) so that the person performs a signalled muscle contraction on the basis of the contraction signal and successful execution of the signalled muscle contraction can be verified by comparing a load profile (311, 315) determined by the load measuring device (201, 221, 231) with a comparison load profile, in that a positive success signal is emitted in the event that the load profile (311, 315) and the comparison load profile correspond and a negative success signal is emitted in the event that the load profile (311, 315) and the comparison load profile do not correspond, characterised in that the training device has a chair or an armchair, and in that the signal unit (114, 215) has a mechanical actuator, wherein a mechanical contraction signal and/or a mechanical success signal can be emitted to the person by the mechanical actuator.
Process for decreasing content of a harmful substance of a chlorine-containing off-gas stream formed or used in a thermal treatment of a material, wherein the harmful substance is present in the form of sulphur and/or mercury and wherein - the off-gas stream is divided into a main stream and a substream, - at least some of the chlorine is separated off from the main stream, and - the content of the harmful substance is then lowered in the main stream by separation, wherein - a chlorine-containing additive is introduced into the main stream in order to achieve an increase in the degree of separation in the separation of the harmful substance, characterized in that the substream is filtered, wherein a filter cake separated from the substream in the filtration is used at least in part as chlorine-containing additive. - the off-gas stream is divided into a main stream and a substream, - at least some of the chlorine is separated off from the main stream, and - the content of the harmful substance is then lowered in the main stream by separation, wherein - a chlorine-containing additive is introduced into the main stream in order to achieve an increase in the degree of separation in the separation of the harmful substance,
Uleine, a plant extract comprising uleine or a composition comprising uleine for use in the prevention and/or the treatment of AIDS in a mammal subject.
An antenna module having an external receiving and/or transmitting antenna element (4, 5, 6, 7) and having an antenna box, which has no or few internal antennas on the inner side and which encloses electronic circuits which interact with the antenna elements (4 to 7), wherein the antenna module is provided in one piece for installation in a vehicle and has at least one external receiving and/or transmitting antenna element (4, 5, 6, 7) under an outer cover, wherein the outer cover is detachably secured to the antenna box, and wherein the outer cover can be attached through an opening in a vehicle roof in such a way that it projects out of the vehicle roof, and wherein the antenna box is closed on all sides and can be attached underneath the vehicle roof to a metallic upper side, and wherein the metallic upper side of the antenna box has feedthroughs (12 to 15) to the external antenna elements (4 to 7), and wherein the external antenna elements (4 to 7) in the outer cover are electrically coupled to the circuits within the antenna box which is closed on all sides, via the feedthroughs (12 to 15).
Tunnel boring machine having a device for detecting a content of critical gas in a cavity located at the rear side of a cutting wheel comprising an extraction line extending between an excavation chamber, as the cavity, and the device, a separation module for separating the gas to be detected from a fluid, and a gas analysis unit arranged downstream of the separation module, characterized in that a dosing module for controlled supply of separated gas to the gas analysis unit is arranged downstream of the separation module, the dosing module comprises a pressure reducer and a flow control valve arranged downstream of the pressure reducer and a double diaphragm pump is provided which is arranged downstream of the pressure reducer.
Drive component for a motor vehicle, having at least one mounting frame for structural elements of the drive component, having at least one first wall at least partially limiting the mounting frame, by means of which first wall at least one collection area for collecting a lubricant for lubricating the structural elements is at least partially limited, and having at least one second wall disposed on a side of the first wall facing away from the collection area, which second wall is at least in a partial area distanced from the first wall, such that between the walls (16, 26) is formed an intermediate chamber limited at least partially by the walls (16, 26), wherein for adjusting a heat transfer coefficient between the walls (16, 26) a fluid can be introduced into the intermediate chamber and can be discharged out of the intermediate chamber, characterised by: - at least one reservoir, connected fluidically with the intermediate chamber, for the reception of the fluid; and - at least one displacing element, which is at least partially moveable into the reservoir, in order thereby to effect a displacement of at least a part of the fluid out of the reservoir into the intermediate chamber. - at least one reservoir, connected fluidically with the intermediate chamber, for the reception of the fluid; and - at least one displacing element, which is at least partially moveable into the reservoir, in order thereby to effect a displacement of at least a part of the fluid out of the reservoir into the intermediate chamber.
A baseband processor for use in an intelligent device, wherein the baseband processor is configured to obtain a network connection record of an application, running on the intelligent device, and perform optimization on a network task of the application according to a network connection record; characterized in that the baseband processor is configured to skip executing a network task when the network task is to disconnect a connection between the intelligent device and a server of the application and when the network connection record indicates that duration for which the connection has been set up is less than a preset threshold; and/or the baseband processor is configured to skip executing the network task when the network task is to send a network request to the server of the application and when the network connection record indicates that no response is received for a historical network request sent to the server of the application in a historical time period dating back from a current moment.
A vertical take-off and landing aircraft comprising: a propulsion mechanism including a fan configured to generate lift and thrust; an engine configured to supply motive power to the propulsion mechanism; a frame coupling the propulsion mechanism and the engine; seating connected to and suspended from the frame so as to be swingable back and forth relative to the frame; a control stick connected to the frame; and a landing undercarriage connected to the frame or the seating, wherein: the frame is moved relative to the seating by manipulating the control stick, to change orientation of the propulsion mechanism, characterized in that the propulsion mechanism includes a left fan arranged on the left side of the seating, and a right fan arranged on the right side of the seating. a propulsion mechanism including a fan configured to generate lift and thrust; an engine configured to supply motive power to the propulsion mechanism; a frame coupling the propulsion mechanism and the engine; seating connected to and suspended from the frame so as to be swingable back and forth relative to the frame; a control stick connected to the frame; and a landing undercarriage connected to the frame or the seating, wherein: the frame is moved relative to the seating by manipulating the control stick, to change orientation of the propulsion mechanism, the frame is moved relative to the seating by manipulating the control stick, to change orientation of the propulsion mechanism, characterized in that the propulsion mechanism includes a left fan arranged on the left side of the seating, and a right fan arranged on the right side of the seating.