mhurhangee/ep-ind-claims huggingface dataset:
A roller (5; 5a, 5b) comprising the following features: - a tubular roller shell (11; 29) rotatably supported about an axis in a stationary bearing (7, 8), - an eddy current brake with a tubular eddy current receiver (13; 13a; 13b) within the roller shell and fixedly connected thereto, and with a magnet (25; 25a; 25b; 35) stationarily connected with the bearing (7, 8), having north and south poles (N, S) arranged at a distance of an air gap (c) from the eddy current receiver (13; 13a), characterized in that: - a shielding tube (21; 21 a) made of a ferromagnetic material, i.e. steel, is formed between the roller shell and the eddy current receiver (13; 13a) in a way projecting thereinto, - the shielding tube (21; 21 a) is fixedly connected with the stationary bearing (7, 8) at an end thereof, - the shielding tube (21; 21 a) is arranged at a distance of a second air gap (a) from the roller shell and at a distance of a third air gap (b) from the eddy current receiver (13; 13a), - wherein the second (a) and third (b) air gaps are dimensioned sufficiently large so that a contact of the roller shell and of the eddy current receiver (13; 13a) with the stationary shielding tube (21; 21 a) upon performance of the rotation is excluded. - a tubular roller shell (11; 29) rotatably supported about an axis in a stationary bearing (7, 8), - an eddy current brake with a tubular eddy current receiver (13; 13a; 13b) within the roller shell and fixedly connected thereto, and with a magnet (25; 25a; 25b; 35) stationarily connected with the bearing (7, 8), having north and south poles (N, S) arranged at a distance of an air gap (c) from the eddy current receiver (13; 13a), - a shielding tube (21; 21 a) made of a ferromagnetic material, i.e. steel, is formed between the roller shell and the eddy current receiver (13; 13a) in a way projecting thereinto, - the shielding tube (21; 21 a) is fixedly connected with the stationary bearing (7, 8) at an end thereof, - the shielding tube (21; 21 a) is arranged at a distance of a second air gap (a) from the roller shell and at a distance of a third air gap (b) from the eddy current receiver (13; 13a), - wherein the second (a) and third (b) air gaps are dimensioned sufficiently large so that a contact of the roller shell and of the eddy current receiver (13; 13a) with the stationary shielding tube (21; 21 a) upon performance of the rotation is excluded.
A device for leakage testing with provision of a displacement of a rubber stopper, which is inserted into the regular opening of a drug container, relative to the drug container in an opening direction for leakage testing of a connection between the rubber stopper and the corresponding drug container, the device comprising - a test medium supply for exposing a connection region of the drug container and the rubber stopper to a test medium, - a detection unit for detecting the presence of test medium that has passed through the regular opening of the drug container due to a leakage between the connection of the rubber stopper and the drug container, - a support member, - a movement member,and - a drug container receptacle with the container received in the drug container receptacle, characterized in that the support member supports the movement member, the movement member is movable relative to the support member in a movement direction which is parallel to the opening direction of the rubber stopper, and the movement member extends into the drug container receptacle for the displacement of the rubber stopper such that part of the movement member is inserted into the drug container through a communication hole which is provided at the drug container apart from its regular opening for enabling fluid communication of the interior of the drug container and the exterior of the drug container. - a test medium supply for exposing a connection region of the drug container and the rubber stopper to a test medium, - a detection unit for detecting the presence of test medium that has passed through the regular opening of the drug container due to a leakage between the connection of the rubber stopper and the drug container, - a support member, - a movement member,and - a drug container receptacle with the container received in the drug container receptacle, the support member supports the movement member, the movement member is movable relative to the support member in a movement direction which is parallel to the opening direction of the rubber stopper, and the movement member extends into the drug container receptacle for the displacement of the rubber stopper such that part of the movement member is inserted into the drug container through a communication hole which is provided at the drug container apart from its regular opening for enabling fluid communication of the interior of the drug container and the exterior of the drug container.
A cold-rolled steel sheet with excellent shape fixability, having a chemical composition consisting of 0.0010% to 0.0030% C, 0.05% or less Si, 0.1% to 0.5% Mn, 0.05% or less P, 0.02% or less S, 0.10% or less Al, 0.0050% or less N, 0.021% to 0.060% Ti, and 0.0005% to 0.0050% B on a mass basis such that B/C satisfies 0.5 or more, and optionally at least one of 0.009% or less Nb and 0.06% or less Cr on a mass basis, the remainder being Fe and incidental impurities; a microstructure dominated by ferrite with an average grain size of 10 μm to 30 μm; and a proportional limit of 100 MPa or less.
A vertical take-off and landing (VTOL) aircraft having: a wing structure having right and left side forward wings (20, 22); and right and left side rearward wings (30, 32), each of the right side wings (22, 32) being connected, and each of the left side wings (20, 30) being connected in a box wing configuration; characterized in that each wing (20, 22, 30, 32) has a fixed leading edge and at least one moveable trailing control surface, further wherein each wing (20, 22, 30, 32) has at least one motor pod having a motor, the motor pod being pivotally mounted to an underside of the fixed leading edge, and fixedly secured to the moveable trailing control surface. a wing structure having right and left side forward wings (20, 22); and right and left side rearward wings (30, 32), each of the right side wings (22, 32) being connected, and each of the left side wings (20, 30) being connected in a box wing configuration; characterized in that each wing (20, 22, 30, 32) has a fixed leading edge and at least one moveable trailing control surface, further wherein each wing (20, 22, 30, 32) has at least one motor pod having a motor, the motor pod being pivotally mounted to an underside of the fixed leading edge, and fixedly secured to the moveable trailing control surface.
A method for transmitting signals to a receiver by a transmitter in a wireless communication system, the method comprising: a first precoding, wherein one or more transmission signals are mapped to first logical antenna ports; a second precoding, wherein the signals mapped to the first logical antenna ports are mapped to second logical antenna ports; an antenna mapping, wherein the mapped to the second logical antenna ports are mapped to physical antennas; and transmitting the signals mapped to the physical antennas to the receiver, wherein a number of the first logical antenna ports is less than or equal to a number of the second logical antenna ports, wherein the first precoding comprises mapping receiver-specific precoded pilot signals to the first logical antenna ports, wherein the receiver-specific precoded pilot signals are used for demodulation, wherein the second precoding comprises mapping first non-precoded pilot signals to the second logical antenna ports, wherein the first non-precoded pilot signals are used for determining the number of the first logical antenna ports, and wherein the the antenna mapping comprises mapping second non-precoded pilot signals to the physical antennas, wherein the second non-precoded pilot signals are used for channel state information measurement. a first precoding, wherein one or more transmission signals are mapped to first logical antenna ports; a second precoding, wherein the signals mapped to the first logical antenna ports are mapped to second logical antenna ports; an antenna mapping, wherein the mapped to the second logical antenna ports are mapped to physical antennas; and transmitting the signals mapped to the physical antennas to the receiver, wherein a number of the first logical antenna ports is less than or equal to a number of the second logical antenna ports, wherein the first precoding comprises mapping receiver-specific precoded pilot signals to the first logical antenna ports, wherein the receiver-specific precoded pilot signals are used for demodulation, wherein the second precoding comprises mapping first non-precoded pilot signals to the second logical antenna ports, wherein the first non-precoded pilot signals are used for determining the number of the first logical antenna ports, and wherein the the antenna mapping comprises mapping second non-precoded pilot signals to the physical antennas, wherein the second non-precoded pilot signals are used for channel state information measurement.
A wrought aluminum alloy comprising: 0.01 to 0.15 wt% of Ti; 5.5 to 6.0 wt% of Zn; 1.8 to 2.8 wt% of Mg; 0.4 to 0.8 wt% of Cu; 0.1 to 0.2 wt% of Cr; at most 0.2 wt% (and more than 0 wt%) of Fe; at most 0.2 wt% (and more than 0 wt%) of Mn; and at most 0.2 wt% (and more than 0 wt%) of Si, with the remainder being Al, optionally wherein: the wrought aluminum alloy comprises 0.01 to 0.2 wt% of Sr. 0.01 to 0.15 wt% of Ti; 5.5 to 6.0 wt% of Zn; 1.8 to 2.8 wt% of Mg; 0.4 to 0.8 wt% of Cu; 0.1 to 0.2 wt% of Cr; at most 0.2 wt% (and more than 0 wt%) of Fe; at most 0.2 wt% (and more than 0 wt%) of Mn; and at most 0.2 wt% (and more than 0 wt%) of Si, with the remainder being Al, optionally wherein: the wrought aluminum alloy comprises 0.01 to 0.2 wt% of Sr.
An oligomer or polymer comprising a first repeat unit and a second repeat unit, wherein the second repeat unit is different from the first repeat unit, the first repeat unit having formula: wherein each E independently is selected from the group consisting of nitrogen, unsubstituted phosphorus or phosphorus oxide, with the proviso that at least one E is unsubstituted phosphorus; each Ar 1, Ar 2 and Ar 3 is the same or different and independently represents an optionally substituted aryl or heteroaryl; n is 0-3; and in the case of unsubstituted nitrogen and phosphorus, the second repeat unit is directly conjugated to the first repeat unit.
Shutoff valve for use in a conduit of an air conditioning system or a mechanical smoke ventilation assembly, wherein the shutoff valve comprises a housing, exhibiting in particular a rectangular cross-section, with a housing wall and a flap, arranged in the housing, arranged in particular centrally in relation to the housing cross-section, capable of pivoting about a pivot axle between an open position and a closed position, with a circumferential edge which is interrupted only by the pivot axle, wherein at least one passage opening for the pivot axle is provided in the housing, wherein a seal is provided on the outside on the edge, and wherein the flap, with the formation of a gap between the edge of the flap and the inner side of the housing, which remains in the closed position of the flap, is configured as smaller than the cross-section surface area of the housing, and the seal, in the closed position of the flap, seals the gap, wherein the seal comprises a cold seal and an intumescing hot seal which expands under the effect of heat, wherein at least the cold seal projects opposite the edge of the flap, characterised in that a hot seal is arranged in each case on the edge on both sides of the cold seal.
A press-tool for manufacturing a cutting insert green body, comprising: - a first and a second punch (8, 9) arranged movable towards and away from each other along a first pressing axis; - a first and a second die member (100, 200) arranged movable towards and away from an end position along at least a second axis which is non-parallel to the first pressing axis, wherein - the first die member comprises a first die cavity surface and the second die member comprises a second die cavity surface, and the die members (100, 200) are configured to form, in the end position, a die cavity having first and second openings (4, 5) for receiving the first and second punches (8, 9), and; - a core extending between the first and the second die cavity surface (103, 203), through the die cavity, when the first and the second die members (100, 200) are in the end position, and; - at least a first core portion (40, 50) for forming at least a portion of the core, and wherein the at least first core portion (40, 50) is arranged in the first or the second die member (100, 200), characterized in that the at least first core portion (40, 50) is joined to the first or the second die member (100, 200), such that the at least first core portion (40, 50) is moved together with the first or the second die member (100, 200) to the end position, and that the at least first core portion (40, 50) is releasably attached to the first or the second die member (100, 200). - a first and a second punch (8, 9) arranged movable towards and away from each other along a first pressing axis; - a first and a second die member (100, 200) arranged movable towards and away from an end position along at least a second axis which is non-parallel to the first pressing axis, wherein - the first die member comprises a first die cavity surface and the second die member comprises a second die cavity surface, and the die members (100, 200) are configured to form, in the end position, a die cavity having first and second openings (4, 5) for receiving the first and second punches (8, 9), and; - a core extending between the first and the second die cavity surface (103, 203), through the die cavity, when the first and the second die members (100, 200) are in the end position, and; - at least a first core portion (40, 50) for forming at least a portion of the core, and wherein the at least first core portion (40, 50) is arranged in the first or the second die member (100, 200), characterized in that the at least first core portion (40, 50) is joined to the first or the second die member (100, 200), such that the at least first core portion (40, 50) is moved together with the first or the second die member (100, 200) to the end position, and that the at least first core portion (40, 50) is releasably attached to the first or the second die member (100, 200).
A therapy tape (11,61) comprising: A flexible backing layer (12, 62), wherein the flexible backing layer defines a top side and a bottom side opposite the top side; a continuous adhesive layer (13, 63) comprising a first adhesive material secured to the bottom side of the flexible backing layer (12, 62), wherein the adhesive material is configured to adhere the backing layer against a patient's skin; characterized by a plurality of handles (14, 64) spaced relative to one another along a length of the flexible backing layer (12, 62) and secured onto the top side of the flexible backing layer and extending across at least a portion of a width of the flexible backing layer perpendicular to the length, the plurality of handles (14,64) is defined at least in part by a plurality of discontinuous material portions, such that each of the plurality of handles (14, 64) comprises a base portion defining an area of the respective handle (14, 64) permanently secured onto the top side of the flexible backing layer (12, 62) via a second adhesive material, wherein the second adhesive material is configured to permanently secure each of the respective handle of the plurality of handles (14, 64) relative to the top side of the flexible backing layer; and a grip portion extending away from the base portion; and wherein the first adhesive material is configured to maintain adherence with the flexible backing layer (12, 64) and a portion of the patient's skin while at least one of the plurality of handles (14, 64) is pulled in a direction perpendicular to the patient's skin. A flexible backing layer (12, 62), wherein the flexible backing layer defines a top side and a bottom side opposite the top side; a continuous adhesive layer (13, 63) comprising a first adhesive material secured to the bottom side of the flexible backing layer (12, 62), wherein the adhesive material is configured to adhere the backing layer against a patient's skin; characterized by a plurality of handles (14, 64) spaced relative to one another along a length of the flexible backing layer (12, 62) and secured onto the top side of the flexible backing layer and extending across at least a portion of a width of the flexible backing layer perpendicular to the length, the plurality of handles (14,64) is defined at least in part by a plurality of discontinuous material portions, such that each of the plurality of handles (14, 64) comprises a base portion defining an area of the respective handle (14, 64) permanently secured onto the top side of the flexible backing layer (12, 62) via a second adhesive material, wherein the second adhesive material is configured to permanently secure each of the respective handle of the plurality of handles (14, 64) relative to the top side of the flexible backing layer; and a grip portion extending away from the base portion; and wherein the first adhesive material is configured to maintain adherence with the flexible backing layer (12, 64) and a portion of the patient's skin while at least one of the plurality of handles (14, 64) is pulled in a direction perpendicular to the patient's skin.
An ISOFIX two-lock mechanism for retaining, comprising a base and an ISOFIX assembly, characterized in that a bracket is provided at the upper end of the base, the bracket is provided with a channel running through the bracket, the channel is provided with a stopper movable up and down along the channel therein, a stopper bevel is provided at the lower end of the stopper, and a stopper return spring is connected between the stopper and the bracket; the ISOFIX assembly is slidably fixed to the base; the ISOFIX assembly comprises a limiting rod located between the base and the bracket; and when the limiting rod moves into abutment against the stopper bevel, the stopper moves upward along the channel, and the stopper return spring elastically deforms; and when the limiting rod moves further and away from the abutment against the stopper, the stopper moves downward under the action of the stopper return spring until a plane of the stopper abuts against the limiting rod. the ISOFIX assembly is slidably fixed to the base; the ISOFIX assembly comprises a limiting rod located between the base and the bracket; and when the limiting rod moves into abutment against the stopper bevel, the stopper moves upward along the channel, and the stopper return spring elastically deforms; and when the limiting rod moves further and away from the abutment against the stopper, the stopper moves downward under the action of the stopper return spring until a plane of the stopper abuts against the limiting rod.
A method for electrolytically depositing a chromium or chromium alloy layer on at least one substrate, the method comprising the steps (a) providing an aqueous deposition bath with a pH in the range from 4.1 to 7.0, - comprising trivalent chromium ions, - comprising 0 mg/L to 200 mg/L hexavalent chromium, based on the total volume of the deposition bath, and - not comprising boron containing compounds, (b) providing the at least one substrate and at least one anode, and (c) immersing the at least one substrate in the aqueous deposition bath and applying an electrical direct current such that the chromium or chromium alloy layer is deposited on the at least one substrate, wherein the at least one substrate forms the cathode having a total cathodic current density and the at least one anode having a total anodic current density, with the proviso that - the total anodic current density is 6 A/dm 2 or more, wherein the maximum total anodic current density is 50 A/dm 2, - the total cathodic current density is 18 A/dm 2 or more, wherein the maximum total cathodic current density is 250 A/dm 2, - the total cathodic current density is higher than the total anodic current density, and - the at least one substrate and the at least one anode are present in the deposition bath such that the trivalent chromium ions are in contact with the at least one anode. (a) providing an aqueous deposition bath with a pH in the range from 4.1 to 7.0, - comprising trivalent chromium ions, - comprising 0 mg/L to 200 mg/L hexavalent chromium, based on the total volume of the deposition bath, and - not comprising boron containing compounds, - comprising trivalent chromium ions, - comprising 0 mg/L to 200 mg/L hexavalent chromium, based on the total volume of the deposition bath, and - not comprising boron containing compounds, (b) providing the at least one substrate and at least one anode, and (c) immersing the at least one substrate in the aqueous deposition bath and applying an electrical direct current such that the chromium or chromium alloy layer is deposited on the at least one substrate, wherein - the total anodic current density is 6 A/dm 2 or more, wherein the maximum total anodic current density is 50 A/dm 2, - the total cathodic current density is 18 A/dm 2 or more, wherein the maximum total cathodic current density is 250 A/dm 2, - the total cathodic current density is higher than the total anodic current density, and - the at least one substrate and the at least one anode are present in the deposition bath such that the trivalent chromium ions are in contact with the at least one anode.