mhurhangee/ep-ind-claims huggingface dataset:
A fluid set for textile printing, comprising an aqueous inkjet ink containing a pigment stabilized by anionic dispersing groups and an aqueous pre-treatment liquid, characterised in that the aqueous pre-treatment liquid comprises a capsule having a core comprising a thermally reactive crosslinker and the shell comprises cationic dispersing groups obtainable by reacting a surfactant comprising at least one primary or secondary amine and quaternary ammonium group with a compound selected from the group of di- or poly-acid chlorides, di- or oligoisocyanates, di- or oligosulfochlorides, di- or oligo-chloroformates and an isocyanate monomer of the shell, wherein the surfactant is according formula I. wherein R 1 is selected from the group consisting of a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group and a substituted or unsubstituted alkynyl group with the proviso that R 1 comprises at least eight carbon atoms; R 2, R 3 and R 4 are independently selected from the group consisting of a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted aralkyl group, a substituted or unsubsituted alkaryl group and a substituted or unsubstituted (hetero)aryl group L 1 represents a divalent linking group comprising no more than eight carbon atoms; X represents a counterion to compensate the positive charge of the ammonium group R 1 is selected from the group consisting of a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group and a substituted or unsubstituted alkynyl group with the proviso that R 1 comprises at least eight carbon atoms; R 2, R 3 and R 4 are independently selected from the group consisting of a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted aralkyl group, a substituted or unsubsituted alkaryl group and a substituted or unsubstituted (hetero)aryl group L 1 represents a divalent linking group comprising no more than eight carbon atoms; X represents a counterion to compensate the positive charge of the ammonium group
Damper comprising a. a housing having a working chamber; b. damping fluid located in the working chamber; c. a piston unit arranged in the working chamber, having i. a piston rod having a longitudinal axis, ii. a piston fastened to the piston rod, said piston subdividing the working chamber into a first working chamber part and into a second working chamber part, iii. a through-flow duct connecting the first working chamber part and the second working chamber part; d. an adjusting unit for adjusting the damping force of the damper (1; 1a; 1b; 1c; 1d; 1e; 1f), having i. an adjusting element (48, 49) for adjusting the effective flow cross-sectional area of the through-flow duct, ii. an adjusting actuator (89; 89a; 89c; 89f) for automatically adjusting an arrangement of the adjusting element (48, 49) and of the piston rod, iii. a force transmission device for transmitting an actuating force provided by the adjusting actuator (89; 89a; 89c; 89f), wherein the adjusting actuator (89; 89a; 89c; 89f) is arranged outside the housing, wherein the force transmission device has a toothing, which corresponds to a counterpart toothing on the adjusting element (48, 49), wherein the counterpart toothing is embodied on a counterpart gear wheel (97; 97e; 97g), wherein the counterpart gear wheel (97; 97e; 97g) is connected to the piston rod for conjoint rotation, characterized in that the counterpart gearwheel (97; 97e; 97g) is embodied in the form of a gear wheel segment with an opening angle range of about 90° with respect to the longitudinal axis. a. a housing having a working chamber; b. damping fluid located in the working chamber; c. a piston unit arranged in the working chamber, having i. a piston rod having a longitudinal axis, ii. a piston fastened to the piston rod, said piston subdividing the working chamber into a first working chamber part and into a second working chamber part, iii. a through-flow duct connecting the first working chamber part and the second working chamber part; i. a piston rod having a longitudinal axis, ii. a piston fastened to the piston rod, said piston subdividing the working chamber into a first working chamber part and into a second working chamber part, iii. a through-flow duct connecting the first working chamber part and the second working chamber part; d. an adjusting unit for adjusting the damping force of the damper (1; 1a; 1b; 1c; 1d; 1e; 1f), having i. an adjusting element (48, 49) for adjusting the effective flow cross-sectional area of the through-flow duct, ii. an adjusting actuator (89; 89a; 89c; 89f) for automatically adjusting an arrangement of the adjusting element (48, 49) and of the piston rod, iii. a force transmission device for transmitting an actuating force provided by the adjusting actuator (89; 89a; 89c; 89f), i. an adjusting element (48, 49) for adjusting the effective flow cross-sectional area of the through-flow duct, ii. an adjusting actuator (89; 89a; 89c; 89f) for automatically adjusting an arrangement of the adjusting element (48, 49) and of the piston rod, iii. a force transmission device for transmitting an actuating force provided by the adjusting actuator (89; 89a; 89c; 89f),
Magnetic resonance imaging device comprising a field generation unit, wherein the field generation unit comprises a first magnet and a second magnet confining an imaging volume of the magnetic resonance imaging device in two spatial directions and wherein the field generation unit is configured to provide a static magnetic field within the imaging volume, wherein the first magnet and the second magnet are arranged asymmetrically with respect to the imaging volume and wherein the first magnet and the second magnet are arranged in such a way to provide an access to the imaging volume along at least two perpendicular spatial directions, wherein a direction of access to the imaging volume is angled with respect to a main magnetic field direction of the magnetic field in the imaging volume, wherein the first magnet comprises a superconducting magnet with a plurality of magnet segments, wherein each magnet segment comprises a magnetic field axis and wherein the magnetic field axes of the plurality of magnet segments are oriented in parallel to a magnetic field axis of the first magnet, wherein each magnet segment comprises a tubular shape, wherein • a diameter of at least a first magnet segment of the plurality of magnet segments differs from a diameter of at least a second magnet segment of the plurality of magnet segments and • characterized in that the magnetic field axis of each magnet segment of the plurality of magnet segments is positioned along the magnetic field axis of the first magnet in such a way, that an overall shape of the first magnet corresponds to a cone, a frustum or a sequence thereof. • a diameter of at least a first magnet segment of the plurality of magnet segments differs from a diameter of at least a second magnet segment of the plurality of magnet segments and • characterized in that the magnetic field axis of each magnet segment of the plurality of magnet segments is positioned along the magnetic field axis of the first magnet in such a way, that an overall shape of the first magnet corresponds to a cone, a frustum or a sequence thereof.
A classifier, comprising: a housing configured to take in an air flow (f) from below into a radially outer region (So) of an inside space; and an annular rotational portion disposed rotatably in a radially inner region (Si) positioned on a radially inner side of the radially outer region (So), of the inside space of the housing, and configured to classify particles which accompany the air flow (f), wherein the annular rotational portion includes a plurality of rotational blades (20,20b) arranged at intervals around a rotational axis of the annular rotational portion, and wherein the plurality of rotational blades (20,20b) form an outer shape of the annular rotational portion which forms an angle θ of not greater than 75° with a segment extended in a horizontal direction from the annular rotational portion outward in a radial direction, in a side view of the annular rotational portion, characterized in that the classifier further comprises a flow deflection portion disposed on an inner wall surface of the housing and configured to deflect the air flow (f) toward a center axis of the housing, and each of the rotational blades (20,20b) is arranged obliquely with respect to a vertical direction such that an upper end of the rotational blade (20,20b) is positioned on an upstream side of a lower end of the rotational blade (20,20b), with respect to a rotational direction of the annular rotational portion. a housing configured to take in an air flow (f) from below into a radially outer region (So) of an inside space; and an annular rotational portion disposed rotatably in a radially inner region (Si) positioned on a radially inner side of the radially outer region (So), of the inside space of the housing, and configured to classify particles which accompany the air flow (f), wherein the annular rotational portion includes a plurality of rotational blades (20,20b) arranged at intervals around a rotational axis of the annular rotational portion, and wherein the plurality of rotational blades (20,20b) form an outer shape of the annular rotational portion which forms an angle θ of not greater than 75° with a segment extended in a horizontal direction from the annular rotational portion outward in a radial direction, in a side view of the annular rotational portion, characterized in that the classifier further comprises a flow deflection portion disposed on an inner wall surface of the housing and configured to deflect the air flow (f) toward a center axis of the housing, and each of the rotational blades (20,20b) is arranged obliquely with respect to a vertical direction such that an upper end of the rotational blade (20,20b) is positioned on an upstream side of a lower end of the rotational blade (20,20b), with respect to a rotational direction of the annular rotational portion.
Method for identifying a current brought about due to a fault, in particular an arc, in a main current path comprising a first coil that comprises a winding with a plurality of turns and that is inductively coupled to a second coil, in which method - a voltage is applied to the second coil, - an electric current produced by the second coil is detected, - the electric current is compared with a limit value, and - the presence of the fault is deduced on the basis of the comparison, characterized in that a third coil is electrically connected in antiparallel with the second coil and is inductively coupled to the second coil. - a voltage is applied to the second coil, - an electric current produced by the second coil is detected, - the electric current is compared with a limit value, and - the presence of the fault is deduced on the basis of the comparison,
A composition comprising at least about 98 wt% C 7 -C 12 n-paraffins, wherein at least about 10 wt% of composition comprises n-decane, at least about 20 wt% of the composition comprises n-dodecane, and at least about 75 wt% of the composition comprises even carbon number paraffins, and the composition comprises a weight ratio of C 12 paraffins to C 11 paraffins from 3.0:1 to 1.2:1; less than about 0.1 wt% oxygenates; and less than about 0.1 wt % aromatics; wherein the composition is suitable as a diesel fuel, a turbine fuel, an aviation fuel, a charcoal lighter fluid, or a combination of any two or more thereof. at least about 98 wt% C 7 -C 12 n-paraffins, wherein at least about 10 wt% of composition comprises n-decane, at least about 20 wt% of the composition comprises n-dodecane, and at least about 75 wt% of the composition comprises even carbon number paraffins, and the composition comprises a weight ratio of C 12 paraffins to C 11 paraffins from 3.0:1 to 1.2:1; less than about 0.1 wt% oxygenates; and less than about 0.1 wt % aromatics; wherein the composition is suitable as a diesel fuel, a turbine fuel, an aviation fuel, a charcoal lighter fluid, or a combination of any two or more thereof.
Method for the safety shutdown of a clearing and/or dung removal slider at and after startup of the clearing and/or dung removal slider comprising at least one electrical drive unit, wherein the driving current absorbed by the electric drive unit is detected, wherein the clearing and/or dung removal slider is stopped and/or reversed and/or the electrice drive unit is switched off, stopped and/or reversed, when the drive current reaches and/or exceeds a first current limit, wherein the first current limit is determined every time in a first time period after startup by a first preset impact on the drive current covering a first time span with the addition of a second impact and is determined every time in a second time period determined by the first preset impact on the drive current covering a second time span, characterized in that the second impact is reduced with an increasing time interval from startup and wherein the first time period is located before startup from the second time period.
7β-Hydroxysteroid dehydrogenase (7β-HSDH) which catalyzes at least the stereospecific enzymatic reduction of a 7-ketosteroid to the corresponding 7-hydroxysteroid, wherein the enzyme comprises a mutation at position 64 of SEQ ID NO:2 or at the corresponding sequence positions of an amino acid sequence derived therefrom with at least 90% sequence identity to SEQ ID NO:2; wherein the mutation at position 64 is the mutation R64X 1, wherein X 1 represents E, D, T, L, S, P, V, K, C, A, G, Q, F, W, I or Y; and wherein the enzyme, in comparison with the 7β-HSDH with SEQ ID NO:2, shows the following property profile: a) an increased specific activity (Vmax [U/mg]) for NADPH in the enzymatic reduction of dehydrocholic acid (DHCA) with NADPH as cofactor; and additionally optionally: b) an increased specific activity (Vmax [U/mg]) for DHCA in the enzymatic reduction of DHCA with NADPH as cofactor; c) a reduced substrate inhibition by DHCA, d) a modified cofactor specificity with respect to NADH and NADPH, e) it being possible for these properties b), c) and d) to be present individually or in any combination. a) an increased specific activity (Vmax [U/mg]) for NADPH in the enzymatic reduction of dehydrocholic acid (DHCA) with NADPH as cofactor; and additionally optionally: b) an increased specific activity (Vmax [U/mg]) for DHCA in the enzymatic reduction of DHCA with NADPH as cofactor; c) a reduced substrate inhibition by DHCA, d) a modified cofactor specificity with respect to NADH and NADPH, e) it being possible for these properties b), c) and d) to be present individually or in any combination.
Process for preparing liquid pharmaceutical formulations suitable for parenteral administration containing gadolinium chelate complexes with reduced content of toxic impurities, comprising the following steps: i. mixing a predetermined amount of gadolinium oxide with a predetermined amount of chelating complexing agent in water, ii. adjusting the pH of the mixture obtained in step i. to a first pH in the range of pH 7.9 to pH 8.3 by adding a base; and iii. lowering the pH of the mixture obtained in step ii. to a second pH in the range of pH 6.8 to pH 7.4 by adding an acid, characterized in that the chelating complexing agent used in step i. is identical to the acid used in step iii. i. mixing a predetermined amount of gadolinium oxide with a predetermined amount of chelating complexing agent in water, ii. adjusting the pH of the mixture obtained in step i. to a first pH in the range of pH 7.9 to pH 8.3 by adding a base; and iii. lowering the pH of the mixture obtained in step ii. to a second pH in the range of pH 6.8 to pH 7.4 by adding an acid,
A delivery system comprising: a chamber adapted to contain a substance in an interior volume of space formed within said chamber; an opening adapted for receiving said substance in said volume of space and for introducing said substance to a downstream path upon which said substance primarily flows along; an interface adapted for receiving said substance from said opening; and said interface comprising a viewing port area (154, 154') that allows visualization of an internal portion of said interface, characterized by a visual flow indicator (138, 138') for indicating inhalation that is positioned within the viewing port area (154, 154') and movable between an at-rest position and an inhalation position in said interface so as to be viewed via said viewing port and so as to not substantially interfere with a flow of said substance along said path, wherein the visual flow indicator (138, 138') pivots forward in response to an inhalation pressure and seals against a surface on said interface to prevent entrainment of ambient air, and pivots back to engage a stop to substantially prevent non-ambient atmosphere gases and substances from escaping therefrom. a chamber adapted to contain a substance in an interior volume of space formed within said chamber; an opening adapted for receiving said substance in said volume of space and for introducing said substance to a downstream path upon which said substance primarily flows along; an interface adapted for receiving said substance from said opening; and said interface comprising a viewing port area (154, 154') that allows visualization of an internal portion of said interface, characterized by a visual flow indicator (138, 138') for indicating inhalation that is positioned within the viewing port area (154, 154') and movable between an at-rest position and an inhalation position in said interface so as to be viewed via said viewing port and so as to not substantially interfere with a flow of said substance along said path, wherein the visual flow indicator (138, 138') pivots forward in response to an inhalation pressure and seals against a surface on said interface to prevent entrainment of ambient air, and pivots back to engage a stop to substantially prevent non-ambient atmosphere gases and substances from escaping therefrom.
A method for performing a random access by a user equipment, UE, (205, 305, 1105) in a mobile communication system, the method comprising: transmitting a first message (215, 315) to an evolved node b, ENB, (210, 310), the first message comprising a preamble which is selected from a known code set; receiving a second message (220, 320) from the ENB (210, 310, 1135), the second message comprising uplink, UL, transmission resource information by which the UE will transmit a third message (225, 235); generating the third message (225, 325) based on a type of data to be transmitted by the UE; and transmitting the third message (225, 325), wherein the third message comprises a logical channel identifier, LCH ID, (505, 520, 525) and a medium access control, MAC, service data unit, SDU, (515, 525, 530), the MAC SDU (515, 525, 530) comprising at least one of a radio resource control, RRC, message and a buffer status report, BSR, and wherein the LCH ID is an identifier of a logical channel to which the MAC SDU (515, 525, 530) contained in the third message (225, 325) belongs. transmitting a first message (215, 315) to an evolved node b, ENB, (210, 310), the first message comprising a preamble which is selected from a known code set; receiving a second message (220, 320) from the ENB (210, 310, 1135), the second message comprising uplink, UL, transmission resource information by which the UE will transmit a third message (225, 235); generating the third message (225, 325) based on a type of data to be transmitted by the UE; and transmitting the third message (225, 325), wherein the third message comprises a logical channel identifier, LCH ID, (505, 520, 525) and a medium access control, MAC, service data unit, SDU, (515, 525, 530), the MAC SDU (515, 525, 530) comprising at least one of a radio resource control, RRC, message and a buffer status report, BSR, and wherein the LCH ID is an identifier of a logical channel to which the MAC SDU (515, 525, 530) contained in the third message (225, 325) belongs.
A computer-implemented method comprising: broadcasting, to nodes of a blockchain network, a first deposit transaction, the first deposit transaction configured to allow a first digital asset to be unlocked after a defined period of time through generation of a signature which is valid for a first public key and to be unlocked at any time through generation of a signature which is valid for a second public key; before expiration of the defined period of time, broadcasting to the blockchain network a first funding transaction which encumbers a second digital asset with the first public key, the second public key and a third public key such that the encumbrance of the second digital asset may be removed in one of two ways, wherein the two ways comprise: a first way wherein the encumbrance is removed if a signature valid for the first public key and a signature valid for the third public key is provided; and a second way wherein a signature valid for the second public key is provided; and after expiration of the defined period of time, broadcasting a transaction unlocking the first digital asset with a signature which is valid for the first public key. broadcasting, to nodes of a blockchain network, a first deposit transaction, the first deposit transaction configured to allow a first digital asset to be unlocked after a defined period of time through generation of a signature which is valid for a first public key and to be unlocked at any time through generation of a signature which is valid for a second public key; before expiration of the defined period of time, broadcasting to the blockchain network a first funding transaction which encumbers a second digital asset with the first public key, the second public key and a third public key such that the encumbrance of the second digital asset may be removed in one of two ways, wherein the two ways comprise: a first way wherein the encumbrance is removed if a signature valid for the first public key and a signature valid for the third public key is provided; and a second way wherein a signature valid for the second public key is provided; and after expiration of the defined period of time, broadcasting a transaction unlocking the first digital asset with a signature which is valid for the first public key.
A receiver (2200, 8200) for recognizing blinding attacks in a quantum encrypted channel comprising an optical fiber, comprising a multipixel detector (2210, 4210a, 4210b, 4210c, 5210, 6210a, 6210b) comprising a plurality of pixels (4211-4219, 5211-5212, 6211a-6212a, 6211b-6212b), and configured to be illuminated by a light beam outputted by the optical fiber, and a processing unit connected to the multipixel detector (2210, 4210a, 4210b, 4210c, 5210, 6210a, 6210b) and configured to determine the presence of a blinding attack if a predetermined number of pixels (4211-4219, 5211-5212, 6211 a-6212a, 6211b-6212b) detects light within a predetermined interval, characterized in that the dimensions of the multipixel detector (2210, 4210a, 4210b, 4210c, 5210, 6210a, 6210b) are configured and/or the distance between the optical fiber or a lens and the pixels of the multipixel detector is selected such that the plurality of pixels (4211-4219, 5211-5212, 6211a-6212a, 6211b-6212b) can be illuminated from the light beam outputted by the optical fiber, without the presence of any splitting element between the optical fiber and the multipixel detector (2210, 4210a, 4210b, 4210c, 5210, 6210a, 6210b).