mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (I) W-L 1 -NH-L 2 -Ar (I) Wherein: W is independently selected from: - an adamantyl optionally substituted by one or more C 1 -C 6 alkyl groups, or - a saturated pinanyl L 1 is independently selected from a single bond W-N, -(CH 2 ) p C(=O)-, L 2 is independently selected from -(CH 2 ) q -, [-C(=O)-NH] r -N=CH-, or -(C 6 H 4 )-SO 2 -NH-, Ar is a C 6 -C 10 aryl or a 5 to 10 membered heteroaryl, said aryl or heteroaryl groups being optionally substituted by one to three R groups, R is independently selected from F, Cl, Br, I, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, NO 2 , p is 0, 1, or 2, q is 1 or 2, r is 0 or 1, and the stereoisomeric forms, mixtures of stereoisomeric forms or pharmaceutically acceptable salts forms thereof, for use in the treatment of a Chlamydiales infection. W is independently selected from: - an adamantyl optionally substituted by one or more C 1 -C 6 alkyl groups, or - a saturated pinanyl - an adamantyl optionally substituted by one or more C 1 -C 6 alkyl groups, or - a saturated pinanyl L 1 is independently selected from a single bond W-N, -(CH 2 ) p C(=O)-, L 2 is independently selected from -(CH 2 ) q -, [-C(=O)-NH] r -N=CH-, or -(C 6 H 4 )-SO 2 -NH-, Ar is a C 6 -C 10 aryl or a 5 to 10 membered heteroaryl, said aryl or heteroaryl groups being optionally substituted by one to three R groups, R is independently selected from F, Cl, Br, I, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, NO 2 , p is 0, 1, or 2, q is 1 or 2, r is 0 or 1, and the stereoisomeric forms, mixtures of stereoisomeric forms or pharmaceutically acceptable salts forms thereof, for use in the treatment of a Chlamydiales infection.
A method of manufacturing a high bulk continuous multifilament yarn for use as pile in a floor covering, comprising: in a first step, melt spinning a plurality of filaments of polymer to form a partially oriented yarn; in a second step, drawing and texturing one or more partially oriented yarns in a friction texturing process to form a draw textured yarn; and in a third step, twisting and/or cabling at least two plies of the draw textured yarn together in a range between 30 and 400 twists per meter and heat setting the twisted plies to obtain the high bulk continuous multifilament yarn having a weight of at least 1111,11 dTex (corresponding to 1000 denier), wherein at the end of the second step and prior to the third step, the draw textured yarn is wound to a bobbin or hank. in a first step, melt spinning a plurality of filaments of polymer to form a partially oriented yarn; in a second step, drawing and texturing one or more partially oriented yarns in a friction texturing process to form a draw textured yarn; and in a third step, twisting and/or cabling at least two plies of the draw textured yarn together in a range between 30 and 400 twists per meter and heat setting the twisted plies to obtain the high bulk continuous multifilament yarn having a weight of at least 1111,11 dTex (corresponding to 1000 denier), wherein at the end of the second step and prior to the third step, the draw textured yarn is wound to a bobbin or hank.
A microparticle comprising a strained polymeric material, wherein the polymeric material is formed from a thermoplastic composition containing a continuous phase that includes a thermoplastic matrix polymer and a polymeric microinclusion additive and a polymeric nanoinclusion additive dispersed within the continuous phase in the form of discrete domains, further wherein a porous network is defined in the material that contains a plurality of nanopores and micropores; wherein the micropores have an average cross-sectional dimension of from 0.5 to 30 micrometers; wherein the nanopores have an average cross-sectional dimension of from 1 to 500 nanometers; wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase; wherein the discrete domains of nanoinclusion additive have an average cross-sectional dimension of from 1 to 500 nanometers; and wherein the discrete domains of microinclusion additive have an average cross-sectional dimension of from 0.5 to 50 micrometers.
An illuminated reticle assembly for an optical aiming device, comprising: a reticle plate having a first surface on which a physical reticle pattern is applied; a laser light source configured to project a beam of laser light into the reticle plate at a first angle and toward an inner side of a second surface at an angle of incidence that directs a reflected beam of laser light toward at least a selected portion of the physical reticle pattern; the reflected laser light illuminating the at least selected portion of the physical reticle pattern; the reticle assembly further comprising a second, non-laser light source configured to illuminate at least a different portion of the physical reticle pattern. a reticle plate having a first surface on which a physical reticle pattern is applied; a laser light source configured to project a beam of laser light into the reticle plate at a first angle and toward an inner side of a second surface at an angle of incidence that directs a reflected beam of laser light toward at least a selected portion of the physical reticle pattern; the reflected laser light illuminating the at least selected portion of the physical reticle pattern; the reticle assembly further comprising a second, non-laser light source configured to illuminate at least a different portion of the physical reticle pattern.
A device for estimating a condition of a vehicle, characterized in that the device estimates a centroid position in a longitudinal direction of the vehicle based on a vehicle weight value, a stability factor value, a relation between a front wheel axle load and a front wheel cornering power and a relation between a rear wheel axle load and a rear wheel cornering power.
A method for processing a digital audio broadcast signal in a radio receiver, the method comprising: receiving a hybrid radio broadcast signal; demodulating the hybrid radio broadcast signal to produce an analog audio stream and a digital audio stream; determining a digital signal quality value (DSM) for the digital audio stream; blending an output of the radio receiver from the analog audio stream to the digital audio stream when the digital signal quality value (DSM) exceeds an adaptive analog-to-digital threshold value (Th_a2d); and blending the output of the radio receiver from the digital audio stream to the analog audio stream when the digital signal quality value (DSM) falls below an adaptive digital-to-analog threshold value (Th_d2a), wherein the adaptive digital-to-analog threshold value (Th_d2a) is lower than the adaptive analog-to-digital threshold value (Th_a2d); characterized in that the digital signal quality value (DSM) is filtered to produce a longer term digital signal quality value (DSMfilt), and the longer term digital signal quality value (DSMfilt) is used to adjust the adaptive digital-to-analog threshold value (Th_d2a) and the adaptive analog-to-digital threshold value (Th_a2d); wherein the longer term digital signal quality value (DSMfilt) is reduced immediately after blending from the digital audio stream to the analog audio stream. receiving a hybrid radio broadcast signal; demodulating the hybrid radio broadcast signal to produce an analog audio stream and a digital audio stream; determining a digital signal quality value (DSM) for the digital audio stream; blending an output of the radio receiver from the analog audio stream to the digital audio stream when the digital signal quality value (DSM) exceeds an adaptive analog-to-digital threshold value (Th_a2d); and blending the output of the radio receiver from the digital audio stream to the analog audio stream when the digital signal quality value (DSM) falls below an adaptive digital-to-analog threshold value (Th_d2a), wherein the adaptive digital-to-analog threshold value (Th_d2a) is lower than the adaptive analog-to-digital threshold value (Th_a2d); characterized in that the digital signal quality value (DSM) is filtered to produce a longer term digital signal quality value (DSMfilt), and the longer term digital signal quality value (DSMfilt) is used to adjust the adaptive digital-to-analog threshold value (Th_d2a) and the adaptive analog-to-digital threshold value (Th_a2d); wherein the longer term digital signal quality value (DSMfilt) is reduced immediately after blending from the digital audio stream to the analog audio stream.
A computer-implemented method of identifying a characteristic of one or more ultrasound images , wherein each ultrasound image is of a subject imaged by an ultrasound probe using an ultrasound imaging process, the method comprising: obtaining a manipulation signal indicative of a manipulation of the ultrasound probe during the ultrasound imaging process; obtaining a portion of the manipulation signal (t n ), the obtained portion indicating the manipulation of the ultrasound probe during a time period, wherein the obtained portion is associated with one or more ultrasound images; and classifying, using a neural network system , a characteristic of the one or more associated ultrasound images based on both the one or more ultrasound images and the obtained portion of the manipulation signal, wherein classifying the characteristic of the one or more associated ultrasound images comprises applying one or more convolution kernels on the obtained portion of the manipulation signal to generate a convolution output representative of the obtained portion of the manipulation signal, and classifying the convolution output to indicate the characteristic of the one or more ultrasound images associated with the obtained portion. obtaining a manipulation signal indicative of a manipulation of the ultrasound probe during the ultrasound imaging process; obtaining a portion of the manipulation signal (t n ), the obtained portion indicating the manipulation of the ultrasound probe during a time period, wherein the obtained portion is associated with one or more ultrasound images; and classifying, using a neural network system , a characteristic of the one or more associated ultrasound images based on both the one or more ultrasound images and the obtained portion of the manipulation signal, wherein classifying the characteristic of the one or more associated ultrasound images comprises applying one or more convolution kernels on the obtained portion of the manipulation signal to generate a convolution output representative of the obtained portion of the manipulation signal, and classifying the convolution output to indicate the characteristic of the one or more ultrasound images associated with the obtained portion.
A torque tube for use in a disk brake system, comprising: a backleg having a reaction plate and a foot extending axially away from the reaction plate , the foot including a plurality of spokes defining a plurality of slots and a lip extending axially away from the plurality of spokes ; and a barrel having a tubular structure having an axis, an inner surface configured to receive at least a portion of the foot , and a plurality of tabs extending axially away from the tubular structure , each of the plurality of tabs being configured to be received by one of the plurality of slots such that each of the plurality of spokes is in contact with two of the plurality of tabs , wherein the lip is configured to be received by the tubular structure in response to the plurality of tabs being received by the plurality of slots. a backleg having a reaction plate and a foot extending axially away from the reaction plate , the foot including a plurality of spokes defining a plurality of slots and a lip extending axially away from the plurality of spokes ; and a barrel having a tubular structure having an axis, an inner surface configured to receive at least a portion of the foot , and a plurality of tabs extending axially away from the tubular structure , each of the plurality of tabs being configured to be received by one of the plurality of slots such that each of the plurality of spokes is in contact with two of the plurality of tabs , wherein the lip is configured to be received by the tubular structure in response to the plurality of tabs being received by the plurality of slots.
A mooring device for an airship, the mooring device comprising: a lower module including a plurality of resting structures (3.1) configured to sustain the mooring device to a substrate; and an upper module mounted to the lower module and configured to rotate with respect to the lower module , wherein the upper module includes: - a winch (2.3) with a drum (2.4) and a shaft (2.33) configured to rotate; - a support structure (2.1) supporting the winch; - a cable passing member (2.2), the cable passing member having first and second arms (2.22) mounted to the shaft and configured to pivot independently with respect to the shaft; and - the drum (2.4) being fixedly mounted to the shaft between the first and second arms and configured to rotate in response to the rotation of the shaft, thereby enabling a cable to be wound or unwound as the drum rotates. - a winch (2.3) with a drum (2.4) and a shaft (2.33) configured to rotate; - a support structure (2.1) supporting the winch; - a cable passing member (2.2), the cable passing member having first and second arms (2.22) mounted to the shaft and configured to pivot independently with respect to the shaft; and - the drum (2.4) being fixedly mounted to the shaft between the first and second arms and configured to rotate in response to the rotation of the shaft, thereby enabling a cable to be wound or unwound as the drum rotates.
A syphon assembly for discharging water from a cistern, the assembly comprising an inverted generally U shaped duct having an upleg and a downleg , an openended, enlarged chamber fluidly connected to the upleg , a piston movable in the chamber and a piston rod extending through an upper wall of the chamber and having a first end connected to or formed integrally with the piston , characterised in that the assembly comprises a hydraulic, mains water-driven actuator connected to a second end of the piston rod , which is operable, in use, to move or at least assist in the movement of the piston within the chamber to initiate a syphonic flushing action.
A wind turbine comprising: a generator ; a power converter for converting at least a portion of electrical power generated by the generator , the power converter comprising a generator-side converter , a grid-side converter and a direct current, DC - link therebetween; an energy dissipating unit operatively coupled to the DC-link ; a controller ; and a circuit breaker for disconnecting the wind turbine from a power grid and arranged between the wind turbine and the power grid , wherein in response to a shutdown request, the controller is adapted to: decrease a voltage at the DC-link to a predetermined value; stop the operation of the grid-side converter when the voltage at the DC-link has reached the predetermined value and prior to opening the circuit breaker ; open the circuit breaker before activating the energy dissipating unit ; and activate the energy dissipating unit to dissipate energy from the DC-link . a generator ; a power converter for converting at least a portion of electrical power generated by the generator , the power converter comprising a generator-side converter , a grid-side converter and a direct current, DC - link therebetween; an energy dissipating unit operatively coupled to the DC-link ; a controller ; and a circuit breaker for disconnecting the wind turbine from a power grid and arranged between the wind turbine and the power grid , wherein in response to a shutdown request, the controller is adapted to: decrease a voltage at the DC-link to a predetermined value; stop the operation of the grid-side converter when the voltage at the DC-link has reached the predetermined value and prior to opening the circuit breaker ; open the circuit breaker before activating the energy dissipating unit ; and activate the energy dissipating unit to dissipate energy from the DC-link . decrease a voltage at the DC-link to a predetermined value; stop the operation of the grid-side converter when the voltage at the DC-link has reached the predetermined value and prior to opening the circuit breaker ; open the circuit breaker before activating the energy dissipating unit ; and activate the energy dissipating unit to dissipate energy from the DC-link .
An auto injector with a housing for accommodation of a container with at least one compartment for accommodation of a medicament to be injected, a needle mounting site for user mounting of a needle covered by a removable needle cap , a needle shield that is accommodated in the housing and that is movable along a longitudinal axis of the housing with relation to a fixed part of the housing , a needle shield driver that is anchored to the fixed part of the housing and connected to the needle shield for displacing the needle shield along the longitudinal axis of the housing with relation to the fixed part of the housing , and a needle shield locking mechanism that is configured for keeping the needle shield in a retracted position before mounting of the needle wherein the needle shield locking mechanism is configured for being released during mounting of the needle with the needle cap to the needle mounting site whereby the needle shield driver , upon release of the needle shield locking mechanism and concurrently with user removal of the needle cap from the needle , is configured for displacing the needle shield from its retracted position inside the housing to a first protruded position outside the housing whereby the needle shield prevents inadvertent user contact with the needle .
A polypeptide according to Formula I: (I): H-X 1 -X 2 -K-Y-X 3 -X 4 -R-W-R-P-K-X 5 -X 6 -X 7 wherein X 1 is I or G or L, X 2 is S or G, X 3 is I or G or L, X 4 is L or G, X 5 is N or G, X 6 is absent or S, and X 7 is absent or V; and wherein no two consecutive amino acids in the first 13 amino acids of the polypeptide differ from the sequence HISKYILRWRPKN, wherein the polypeptide is optionally substituted with at least one of a lower acyl group at the N-terminus, a substituted or unsubstituted lower alkyl-, alkenyl-, alkynyl- or haloalkylamine group at the C-terminus and polyethylene glycol, wherein the polypeptide is further optionally a linear or branched multimer of Formula I with an optional linker between each independently determined sequence of Formula I; or a cyclized form thereof. X 1 is I or G or L, X 2 is S or G, X 3 is I or G or L, X 4 is L or G, X 5 is N or G, X 6 is absent or S, and X 7 is absent or V; and wherein no two consecutive amino acids in the first 13 amino acids of the polypeptide differ from the sequence HISKYILRWRPKN, wherein the polypeptide is optionally substituted with at least one of a lower acyl group at the N-terminus, a substituted or unsubstituted lower alkyl-, alkenyl-, alkynyl- or haloalkylamine group at the C-terminus and polyethylene glycol, wherein the polypeptide is further optionally a linear or branched multimer of Formula I with an optional linker between each independently determined sequence of Formula I; or a cyclized form thereof.
A hydropneumatic valve comprising a hydraulic module (MH) and a pneumatic module (MP), the pneumatic module comprising: - a first pneumatic chamber (CP1) at low pressure, comprising a first pneumatic piston (PP1), and a second pneumatic chamber (CP2) at high pressure, the two pneumatic chambers being separated from each other by a membrane (M), - a pushing element (EP) for acting on the membrane (M) so as to let compressed air at high pressure pass from the second pneumatic chamber (CP2) to the first pneumatic chamber (CP1), characterized in that the hydropneumatic valve further comprises a mechatronic module (MM), comprising an electronic management module (MG), an electromechanical module (ME), itself comprising an electric motor (E) and an activation element (E1), and in that the pushing element (EP) can be activated independently by the hydraulic module (MH) and the electromechanical module (ME). - a first pneumatic chamber (CP1) at low pressure, comprising a first pneumatic piston (PP1), and a second pneumatic chamber (CP2) at high pressure, the two pneumatic chambers being separated from each other by a membrane (M), - a pushing element (EP) for acting on the membrane (M) so as to let compressed air at high pressure pass from the second pneumatic chamber (CP2) to the first pneumatic chamber (CP1),
A resistance annealing furnace to anneal at least one metal or metal alloy wire, strand, string, wire rod or strip, the annealing furnace comprising at least two electric axles (5-7) provided with respective electric contact rings (8-10) for conveying said metal or metal alloy wire , strand, string, wire rod or strip, and DC voltage generating means , which can be supplied by an AC voltage (Uac) to generate an annealing voltage (Uann) applied between the two electric axles (5-7) so as to produce an electric current in the portion of the aluminium or metal alloy wire , strand, string, wire rod or strip extending between the two electric axles (5-7), which provokes an annealing due to the Joule effect; at least one of said electric contact rings (8-10) being made of a non-metal electric conductor material.
A sealing profile for embedding into a molded part made of curable material, in particular a concrete or plastic molded part, wherein the sealing profile has a profile body , comprising a) a profile base to be embedded in the molded part , which, after embedding the sealing profile , has a profile base surface facing the molded part and lateral profile base flanks , and b) a profile back projecting with respect to the profile base , which has a profile back surface located opposite the profile base surface and lateral profile back flanks , and wherein - the sealing profile has at least one anchoring foot projecting from the profile base surface , characterized in that - the profile base flanks merge into the profile base surface with rounded portions or chamfers , wherein the rounded portions in the cross section of the sealing profile run from a first transition point in a curved line towards a central profile axis perpendicular to the profile base surface and merge at a second transition point into the profile base surface , or the chamfers in the cross section of the sealing profile run from a first transition point in polygonal line towards a central profile axis perpendicular to the profile base surface and merge into the profile base surface at a second transition point . a) a profile base to be embedded in the molded part , which, after embedding the sealing profile , has a profile base surface facing the molded part and lateral profile base flanks , and b) a profile back projecting with respect to the profile base , which has a profile back surface located opposite the profile base surface and lateral profile back flanks , - the sealing profile has at least one anchoring foot projecting from the profile base surface , characterized in that - the profile base flanks merge into the profile base surface with rounded portions or chamfers , wherein the rounded portions in the cross section of the sealing profile run from a first transition point in a curved line towards a central profile axis perpendicular to the profile base surface and merge at a second transition point into the profile base surface , or the chamfers in the cross section of the sealing profile run from a first transition point in polygonal line towards a central profile axis perpendicular to the profile base surface and merge into the profile base surface at a second transition point .