mhurhangee/patent-ind-claim-en huggingface dataset:
Ink composition comprising stable dispersed colorant particles and between 4 wt% and 40 wt% stable dispersed latex resin particles relative to the total ink composition, wherein the ion sensitivity of the colorant particles is larger than the ion sensitivity of the latex resin particles, the ion sensitivity being expressed as ion sensitivity ratio: ion sensitivity ratio x M NaCl = Z av x M NaCl / Z av H 2 O wherein: Z av (x M NaCl) is the Z-average particle size determined 200 minutes after adding a droplet of a dispersion comprising colorant particles or latex resin particles to 10 ml. of a NaCl solution, wherein x is the ionic strength (in mol/l) which is varied in a range of 0-6 mol/l; Z av (H 2 O) is the Z-average particle size determined 200 minutes after adding a droplet of a dispersion comprising colorant particles or latex resin particles to 10 ml. of demineralised water, wherein the ionic strengths at which the sensitivity ratios of the colorant particles and the latex resin particles are both equal to 2 are expressed as x colorant and x latex respectively, and wherein x colorant and x latex have the same meaning as x in equation 1, and wherein x colorant and x latex both lie in a range of 0-6 mol/l, and wherein x latex -x colorant is at least 4 mol/l, wherein the latex resin particles comprise a resin selected from the group consisting of: polyester resins, polyurethane resins, polyepoxy resins, polyamide resins, polyether resins, poly(meth)acrylic resins, acryl-silicone resins, fluorine-based resins, polyolefin resins, polystyrene-based resins, polybutadiene-based resins, polyvinyl acetate-based resins, polyvinyl alcohol-based resins, polyvinyl ester-based resins, polyvinyl chloride-based resins, polyacrylic acid-based resins, unsaturated carboxylic acid-based resins and copolymers such as styrene - acrylate copolymer resins, styrene-butadiene copolymer resins.
A stent delivery device comprising: a sheath ; an elongated pusher disposed within the sheath; a plurality of wires extending distally from the pusher ; a plurality of pusher marker bands supported in a position radially away from the pusher by the plurality of wires; a stent having a plurality of marker coils on a stent loop and being disposed radially over the plurality of wires ; characterized in that the plurality of pusher marker bands are positioned distally of the plurality of marker coils within the sheath , such that proximal retraction of the pusher contacts proximal ends of the plurality of pusher marker bands against distal ends of the plurality of marker coils . a sheath ; an elongated pusher disposed within the sheath; a plurality of wires extending distally from the pusher ; a plurality of pusher marker bands supported in a position radially away from the pusher by the plurality of wires; a stent having a plurality of marker coils on a stent loop and being disposed radially over the plurality of wires ; characterized in that the plurality of pusher marker bands are positioned distally of the plurality of marker coils within the sheath , such that proximal retraction of the pusher contacts proximal ends of the plurality of pusher marker bands against distal ends of the plurality of marker coils .
A compressor comprising: a compressor housing defining a cavity, and a compressor wheel disposed in the cavity, the compressor housing defining an inlet for leading air into the compressor wheel, a discharge volute for receiving air compressed by the compressor wheel, and a recirculation duct connected to the inlet at a location upstream of the compressor wheel; a recirculation valve disposed between the discharge volute and the recirculation duct for regulating air flow through the recirculation duct into the inlet; wherein the recirculation duct comprises a substantially round or oval duct with a dividing wall configured to divide the duct into two halves comprising two channels extending parallel to each other in the flow direction along the channels, the two channels conducting two parallel streams of air from the recirculation valve into the inlet; and wherein the dividing wall has a length that extends along a flow direction through the recirculation duct, and a width that extends perpendicular to the flow direction, wherein the width extends perpendicular to an axial direction of the compressor. a compressor housing defining a cavity, and a compressor wheel disposed in the cavity, the compressor housing defining an inlet for leading air into the compressor wheel, a discharge volute for receiving air compressed by the compressor wheel, and a recirculation duct connected to the inlet at a location upstream of the compressor wheel; a recirculation valve disposed between the discharge volute and the recirculation duct for regulating air flow through the recirculation duct into the inlet; wherein the recirculation duct comprises a substantially round or oval duct with a dividing wall configured to divide the duct into two halves comprising two channels extending parallel to each other in the flow direction along the channels, the two channels conducting two parallel streams of air from the recirculation valve into the inlet; and wherein the dividing wall has a length that extends along a flow direction through the recirculation duct, and a width that extends perpendicular to the flow direction, wherein the width extends perpendicular to an axial direction of the compressor.
An apparatus comprising: a first register having a lane storing first input data elements; a second register having a lane storing second input data elements, wherein a width N of the lane of the second register is equal to a width N of the lane of the first register and characterised in that the first input data elements include N data elements of an input data stream and the second input data elements include a next N data elements of the input data stream, such that the second input data elements are shifted by N relative to the first input data elements; and a single-instruction-multiple-data, SIMD, lane having a lane width N equal to the width of the lane of the first register, wherein the SIMD lane is configured to perform a plurality of sliding window operations on the first input data elements in the lane of the first register and the second input data elements in the lane of the second register, wherein performing each sliding window operation includes determining a result based on a first position input data element selected from a first input data element stored in a first position of the first register and a second input data element stored in a first position of the second register, and a second position input data element selected from a first input data element stored in a second position of the first register and a second input data element stored in a second position of the second register, the second position different from the first position. a first register having a lane storing first input data elements; a second register having a lane storing second input data elements, wherein a width N of the lane of the second register is equal to a width N of the lane of the first register and characterised in that the first input data elements include N data elements of an input data stream and the second input data elements include a next N data elements of the input data stream, such that the second input data elements are shifted by N relative to the first input data elements; and a single-instruction-multiple-data, SIMD, lane having a lane width N equal to the width of the lane of the first register, wherein the SIMD lane is configured to perform a plurality of sliding window operations on the first input data elements in the lane of the first register and the second input data elements in the lane of the second register, wherein performing each sliding window operation includes determining a result based on a first position input data element selected from a first input data element stored in a first position of the first register and a second input data element stored in a first position of the second register, and a second position input data element selected from a first input data element stored in a second position of the first register and a second input data element stored in a second position of the second register, the second position different from the first position.
A cyclic dinucleotide prodrug molecule, or a stereoisomer, a tautomer, a nitrogen oxide, a solvate, a pharmaceutically acceptable salt thereof, wherein the cyclic dinucleotide prodrug molecule has a structure as shown in formula or formula ,
A tampon applicator , comprising: a tampon having a length; a barrel extending lengthwise between a plunger end and an insertion end , the barrel including a grip region , a transition region , a main body region , a plurality of petals , and an interior cavity , wherein the transition region is disposed between the main body region and the grip region , and the petals are disposed between the insertion end and the main body region ; and a telescoping two-piece plunger that includes an outer sleeve and an inner sleeve , with the inner sleeve having a stem portion with a length and a digit portion ; wherein in a non-deployed configuration of the plunger substantially all of the outer sleeve is disposed inside the barrel and substantially all of the inner sleeve is disposed within the outer sleeve ; wherein the plunger has a connection mechanism permitting a deployed configuration of the plunger in which the inner sleeve and outer sleeves are combined into a unitary member: wherein in the deployed configuration the plunger is selectively movable in a lengthwise direction relative to the barrel a full stroke travel, which full stroke travel is substantially equal to the length of the stem portion of the inner sleeve ; and wherein the length of the stem portion is substantially equal to the length of the tampon . a tampon having a length; a barrel extending lengthwise between a plunger end and an insertion end , the barrel including a grip region , a transition region , a main body region , a plurality of petals , and an interior cavity , wherein the transition region is disposed between the main body region and the grip region , and the petals are disposed between the insertion end and the main body region ; and a telescoping two-piece plunger that includes an outer sleeve and an inner sleeve , with the inner sleeve having a stem portion with a length and a digit portion ; wherein in a non-deployed configuration of the plunger substantially all of the outer sleeve is disposed inside the barrel and substantially all of the inner sleeve is disposed within the outer sleeve ; wherein the plunger has a connection mechanism permitting a deployed configuration of the plunger in which the inner sleeve and outer sleeves are combined into a unitary member: wherein in the deployed configuration the plunger is selectively movable in a lengthwise direction relative to the barrel a full stroke travel, which full stroke travel is substantially equal to the length of the stem portion of the inner sleeve ; and wherein the length of the stem portion is substantially equal to the length of the tampon . wherein in the deployed configuration the plunger is selectively movable in a lengthwise direction relative to the barrel a full stroke travel, which full stroke travel is substantially equal to the length of the stem portion of the inner sleeve ; and wherein the length of the stem portion is substantially equal to the length of the tampon .
A compound of formula (I), or a pharmaceutically acceptable salt thereof, wherein R a and R b represent independently hydrogen or C 1-6 alkyl.
Humanoid robot foot comprising a foot base , at least one leaf spring acting as flexible toe of the foot, said at least one leaf spring having a rear portion rigidly connected to a flat surface of the foot base , a front portion projecting from the foot base and an intermediate portion which is not rigidly connected to the foot base and is therefore freely deflectable, along with the front portion , as a result of the application of an external force on the front portion , and a stiffness adjustment device for actively changing the stiffness (K) of said at least one leaf spring , wherein the stiffness adjustment device comprises a roller assembly , which is held in contact with the intermediate portion of said at least one leaf spring and is movable relative to said at least one leaf spring along a longitudinal axis (x) of said at least one leaf spring , and an actuation unit arranged to move the roller assembly , and hence the point of contact (P) of the roller assembly with said at least one leaf spring , thereby varying the length ( l ) of the cantilevered portion of said at least one leaf spring , and hence the stiffness ( K ) of said at least one leaf spring .
A method of performing a Hybrid Automatic Repeat Request, HARQ, process, the method comprising: receiving , by a wireless device executing a HARQ process, a first transport block encoded according to a category type of the wireless device and a first modulation coding scheme; decoding , by the HARQ process, the first transport block using a number N of bits, wherein using N bits includes storing N bits in a soft buffer; after being configured to use a second modulation coding scheme different from the first modulation coding scheme, receiving , by the wireless device, a second transport block encoded according to the category type and the second modulation coding scheme; and decoding , by the HARQ process, the second transport block using said number N of bits, wherein using N bits includes storing N bits in a soft buffer; and wherein an operational state of the HARQ process is not reset after determining the second modulation scheme is different than the first modulation scheme and before decoding the second transmission block. receiving , by a wireless device executing a HARQ process, a first transport block encoded according to a category type of the wireless device and a first modulation coding scheme; decoding , by the HARQ process, the first transport block using a number N of bits, wherein using N bits includes storing N bits in a soft buffer; after being configured to use a second modulation coding scheme different from the first modulation coding scheme, receiving , by the wireless device, a second transport block encoded according to the category type and the second modulation coding scheme; and decoding , by the HARQ process, the second transport block using said number N of bits, wherein using N bits includes storing N bits in a soft buffer; and wherein an operational state of the HARQ process is not reset after determining the second modulation scheme is different than the first modulation scheme and before decoding the second transmission block.
A beverage machine having a liquid cleaner container in which liquid cleaner (3.1) can be stored for a plurality of cleaning operations, and having a dispensing device having a dispensing pump (4.11) for dispensing liquid cleaner (3.1), wherein the liquid cleaner container is designed as an interchangeable container, which has at least parts of the dispensing pump and a line coupling (4.11.3, 4.1) between the interchangeable container and the beverage machine for coupling a liquid cleaner line (4.11.3) to the beverage machine and a drive coupling (4.22.4, 4.11.8) for the mechanical coupling of a drive (4.22) of the dispensing pump (4.11), characterised in that the dispensing pump (4.11) comprises a rotor and that the drive shaft of a drive motor (4.22.1) to be coupled to the rotor is arranged to be offset with respect to the axis of the drive coupling (4.22.4; 4.11.8).
Threaded spindle module comprising a threaded spindle which extends along a longitudinal axis A and has an external thread at an output-side end , and, offset with respect to the external thread , a drive-side end with a peg for rotationally fixed coupling to an actuator interface, and with a threaded nut which is screwed onto the external thread , and wherein a joint-like curved support point , with sphere radius r, of the threaded nut serves as a pivot joint of the threaded spindle module with a pivot joint center relative to an associated receiver , including a support plane AE, such as for example a transport display, storage tray TR or brake piston , and wherein the threaded spindle module has a center of gravity SP, characterized in that the threaded spindle module is designed as a convex three-dimensional body with a homogeneous, uniform density distribution, such that the threaded spindle module automatically and autonomously assumes a monostable equilibrium position under force of gravity or as a controlled response to a disturbance variable or intervention or deflection, and wherein the monostable equilibrium position is furthermore characterized in that the drive-side end of the threaded spindle module is placed vertically at the top and the output-side end of the threaded spindle module is placed vertically at the bottom, perpendicularly one above the other and aligned with the longitudinal axis A, and oriented orthogonally to the horizontally arranged support plane AE, and in that the center of gravity SP of the threaded spindle module is arranged offset on the output side, in that a distance between the center of gravity SP and the support point is designed to be approximately the same as or shorter than a distance between the pivot joint center and the support point , so that the threaded spindle module centers itself in an inherently stable, automatic and autonomous fashion relative to its receiver , and aligns with the assigned actuator interface.
A polyalkylene ether glycol composition containing a nitrogen-containing compound, wherein the polyalkylene ether glycol is a polytetramethylene ether glycol; the nitrogen-containing compound constitutes 0.2 to 40 mass ppm of the polyalkylene ether glycol in terms of nitrogen atoms; the nitrogen-containing compound is at least one of amines represented by the following formula and amides represented by the following formula ; and the nitrogen-containing compound has a boiling point in the range of -40°C to 120°C at atmospheric pressure. , wherein in formula , R 1 to R 3 independently denote a hydrogen atom, an alkyl group, an alkenyl group, an aryl group, an alkoxy group (including an aryloxy group), a hydroxy group, an amino group, an alkylthio group, or an arylthio group; these groups may further have a substituent, and the substituent may have a heteroatom; R 1 to R 3 may be the same or different; R 1 and R 2 , R 2 and R 3 , and R 3 and R 1 may be linked to form a ring; , wherein in formula , one or both of R a and R b are an alkyl group, an alkenyl group, or an aryl group; R a and R b may contain a heteroatom; R a and R b may be the same or different; R c is a hydrogen atom, an alkyl group, an alkenyl group, or an aryl group; R a to R c may be linked to form a ring. the polyalkylene ether glycol is a polytetramethylene ether glycol; the nitrogen-containing compound constitutes 0.2 to 40 mass ppm of the polyalkylene ether glycol in terms of nitrogen atoms; the nitrogen-containing compound is at least one of amines represented by the following formula and amides represented by the following formula ; and the nitrogen-containing compound has a boiling point in the range of -40°C to 120°C at atmospheric pressure. , wherein in formula , R 1 to R 3 independently denote a hydrogen atom, an alkyl group, an alkenyl group, an aryl group, an alkoxy group (including an aryloxy group), a hydroxy group, an amino group, an alkylthio group, or an arylthio group; these groups may further have a substituent, and the substituent may have a heteroatom; R 1 to R 3 may be the same or different; R 1 and R 2 , R 2 and R 3 , and R 3 and R 1 may be linked to form a ring; , wherein in formula , one or both of R a and R b are an alkyl group, an alkenyl group, or an aryl group; R a and R b may contain a heteroatom; R a and R b may be the same or different; R c is a hydrogen atom, an alkyl group, an alkenyl group, or an aryl group; R a to R c may be linked to form a ring.
Lithotripsy device, in particular an intracorporeal lithotripsy device, having at least one sonotrode configured to apply at least ultrasonic waves to concretions, having at least one ultrasonic horn configured at least to focus and/or transfer ultrasonic waves on/to the sonotrode , having at least one irrigation channel configured to conduct an irrigation fluid and extending at least partially through the sonotrode and/or the ultrasonic horn , having at least one cap arranged so as to at least partially surround the sonotrode and/or the ultrasonic horn , and having at least one discharge channel fluid-connected to the irrigation channel for the purpose of discharging the irrigation fluid, characterized in that the discharge channel is formed at least in part by a gap enclosed between the cap of the sonotrode and/or the ultrasonic horn and is configured to cool the sonotrode and/or the ultrasonic horn by means of the discharged irrigation fluid.
A diaphragm pump leak detection device comprising: a body comprising an airflow inlet , an airflow outlet arranged to substantially align with the airflow inlet, and a liquid reservoir in a bottom portion of the body; a liquid separator positioned directly between the airflow inlet and the airflow outlet, the liquid separator dividing an airflow path from the airflow inlet to the airflow outlet into at least two separate flow paths around the liquid separator, wherein the liquid separator comprises a cylinder coupled to the body and positioned directly between the airflow inlet and the airflow outlet, and a sleeve configured to interface with a lower portion of the cylinder, the sleeve comprising a channel , wherein a first end of the channel terminates at the lower portion of the cylinder and a second end of the channel opens to the liquid reservoir; and a liquid level detector at least partially contained within the channel , wherein the channel is in liquid communication with the liquid reservoir. a body comprising an airflow inlet , an airflow outlet arranged to substantially align with the airflow inlet, and a liquid reservoir in a bottom portion of the body; an airflow inlet , an airflow outlet arranged to substantially align with the airflow inlet, and a liquid reservoir in a bottom portion of the body; a liquid separator positioned directly between the airflow inlet and the airflow outlet, the liquid separator dividing an airflow path from the airflow inlet to the airflow outlet into at least two separate flow paths around the liquid separator, wherein the liquid separator comprises a cylinder coupled to the body and positioned directly between the airflow inlet and the airflow outlet, and a sleeve configured to interface with a lower portion of the cylinder, the sleeve comprising a channel , wherein a first end of the channel terminates at the lower portion of the cylinder and a second end of the channel opens to the liquid reservoir; and a cylinder coupled to the body and positioned directly between the airflow inlet and the airflow outlet, and a sleeve configured to interface with a lower portion of the cylinder, the sleeve comprising a channel , wherein a first end of the channel terminates at the lower portion of the cylinder and a second end of the channel opens to the liquid reservoir; and a liquid level detector at least partially contained within the channel , wherein the channel is in liquid communication with the liquid reservoir.