mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for moving a carriage along a rail , comprising: a frame having a first set of teeth and a second set of teeth , a shuttle including a third set of teeth that are configured to engage with the carriage to translate the carriage in a first direction with respect to the frame when the carriage is engaged with the third set of teeth , wherein the carriage is configured to move a container suspended from the carriage; and wherein the first set of teeth , the second set of teeth , and the third set of teeth each include a tooth having a holding configuration and a disengaged configuration, characterized in that , in the holding configuration, the tooth extends into a carriage recess of the frame and a holding face of the tooth is configured to inhibit the translation of the carriage within the carriage recess in a second direction; and in the disengaged configuration, the tooth allows the carriage to translate within the carriage recess in the first direction. a frame having a first set of teeth and a second set of teeth , a shuttle including a third set of teeth that are configured to engage with the carriage to translate the carriage in a first direction with respect to the frame when the carriage is engaged with the third set of teeth , wherein the carriage is configured to move a container suspended from the carriage; and wherein the first set of teeth , the second set of teeth , and the third set of teeth each include a tooth having a holding configuration and a disengaged configuration, characterized in that , in the holding configuration, the tooth extends into a carriage recess of the frame and a holding face of the tooth is configured to inhibit the translation of the carriage within the carriage recess in a second direction; and in the disengaged configuration, the tooth allows the carriage to translate within the carriage recess in the first direction. in the holding configuration, the tooth extends into a carriage recess of the frame and a holding face of the tooth is configured to inhibit the translation of the carriage within the carriage recess in a second direction; and in the disengaged configuration, the tooth allows the carriage to translate within the carriage recess in the first direction.
Adjusting drive for a motor-adjustable steering column for a motor vehicle, comprising an external threaded spindle which has an external thread which engages in a spindle nut , and which has an internal thread in which an internal threaded spindle engages, wherein the spindle nut , the external threaded spindle and the internal threaded spindle can be driven in rotation relative to one another about an axis (G) by a motorised drive unit , characterised in in that a locking device is provided which can be switched over between a first position and a second position, wherein in the first position the external threaded spindle is locked in a rotationally fixed manner with the spindle nut , and in the second position the external threaded spindle is locked in a rotationally fixed manner with the internal threaded spindle .
An ultrasound device comprising: at least one capacitive ultrasonic transducer ; a pulser having an input terminal and an output terminal, the pulser coupled, at the output terminal, to the capacitive ultrasonic transducer and configured to provide an input signal to the capacitive ultrasonic transducer having a value selected from among multiple selectable values; and a feedback circuit coupled to the output terminal and the input terminal of the pulser and configured to provide a control signal to the input terminal of the pulser based on a comparison of a detection signal, representing or derived from the input signal, to a first threshold voltage of a plurality of comparison threshold voltages generated by the feedback circuit ; and a dividing circuit configured to provide the detection signal to the feedback circuit , wherein a voltage of the detection signal is proportional to a voltage of the input signal, characterized in that the pulser , the feedback circuit , and the dividing circuit are monolithically integrated on a same semiconductor substrate. at least one capacitive ultrasonic transducer ; a pulser having an input terminal and an output terminal, the pulser coupled, at the output terminal, to the capacitive ultrasonic transducer and configured to provide an input signal to the capacitive ultrasonic transducer having a value selected from among multiple selectable values; and a feedback circuit coupled to the output terminal and the input terminal of the pulser and configured to provide a control signal to the input terminal of the pulser based on a comparison of a detection signal, representing or derived from the input signal, to a first threshold voltage of a plurality of comparison threshold voltages generated by the feedback circuit ; and a dividing circuit configured to provide the detection signal to the feedback circuit , wherein a voltage of the detection signal is proportional to a voltage of the input signal, characterized in that the pulser , the feedback circuit , and the dividing circuit are monolithically integrated on a same semiconductor substrate.
Method for producing carbon fibres from cellulose fibres, characterised in that cellulose fibres which have a water content of more than 30 parts by weight of water per 100 parts by weight of cellulose fibres and which do not undergo any drying procedures during their production are contacted with a solution of additives, and then the additised cellulose fibres, which contain at least 1 part by weight of additives per 100 parts by weight of cellulose, are converted into carbon fibres, the additives being inorganic salts in the form of phosphate, hydrogen phosphate, phosphite, hydrogen phosphite, sulphate or sulphite and it being possible for the additive solution to contain a single additive or a mixture of different additives.
A surgical device for enabling gastro-intestinal anastomosis using tissue couplers, the device comprising a first working element and a second working element, the first working element being displaceably arranged with respect to the second working element so that at least a first relative stand and a second relative stand between the first working element and the second working element are provided, wherein in the first relative stand a coupling space is provided between the first working element and the second working element, for receiving a first tissue portion and a second tissue portion for coupling, wherein in the second stand the first working element is adapted to cooperate with the second working element for depositing staples or couplers in said coupling space, for achieving said coupling along a coupling region, wherein the first working element and/or the second working element comprise first staples or couplers and second staples or couplers , wherein the first staples or couplers are configured to be aligned parallel to a cut line of the tissues to define a tissue sealing line, and wherein the second staples or couplers each define a respective virtual plane (P; P') that intersects the tissue sealing line in an intersection point, wherein the virtual planes have an orientation that is normal with respect to an orientation of the said tissue sealing line in the intersection point, to define a tissue healing line, and wherein a first distance between two adjacent first staples or couplers is smaller than a second distance between two adjacent second staples or couplers , when projected onto the tissue sealing line, characterized in that the second staples or couplers interdigitate and not overlap with the first staples or couplers . wherein in the first relative stand a coupling space is provided between the first working element and the second working element, for receiving a first tissue portion and a second tissue portion for coupling, wherein in the second stand the first working element is adapted to cooperate with the second working element for depositing staples or couplers in said coupling space, for achieving said coupling along a coupling region, wherein the first working element and/or the second working element comprise first staples or couplers and second staples or couplers , wherein the first staples or couplers are configured to be aligned parallel to a cut line of the tissues to define a tissue sealing line, and wherein the second staples or couplers each define a respective virtual plane (P; P') that intersects the tissue sealing line in an intersection point, wherein the virtual planes have an orientation that is normal with respect to an orientation of the said tissue sealing line in the intersection point, to define a tissue healing line, and wherein a first distance between two adjacent first staples or couplers is smaller than a second distance between two adjacent second staples or couplers , when projected onto the tissue sealing line, characterized in that the second staples or couplers interdigitate and not overlap with the first staples or couplers .
A device comprising: a first chip comprising a superconducting qubit , and a superconductor ground plane , the qubit comprising a superconducting quantum interference device, SQUID region , a control region , and a readout region ; and a second chip bonded to the first chip, the second chip comprising a first control element , a second control element , and a readout device , wherein the readout device comprises a resonator element electrically coupled to a pad element , wherein the pad element is arranged to electromagnetically couple to a portion of the readout region, wherein the qubit is located directly beneath the pad element and the resonator element is laterally displaced so it does not directly overlap the qubit, wherein the first control element is aligned directly over the SQUID region to electromagnetically couple to the SQUID region, and wherein the second control element is aligned directly over a recessed region within the ground plane and does not overlap the control region, wherein the second control element is arranged to electromagnetically couple to the qubit through the control region, and wherein the recessed region includes an absence of superconductor material in the ground plane and is laterally displaced from and adjacent to the control region. a first chip comprising a superconducting qubit , and a superconductor ground plane , the qubit comprising a superconducting quantum interference device, SQUID region , a control region , and a readout region ; and a second chip bonded to the first chip, the second chip comprising a first control element , a second control element , and a readout device , wherein the readout device comprises a resonator element electrically coupled to a pad element , wherein the pad element is arranged to electromagnetically couple to a portion of the readout region, wherein the qubit is located directly beneath the pad element and the resonator element is laterally displaced so it does not directly overlap the qubit, wherein the first control element is aligned directly over the SQUID region to electromagnetically couple to the SQUID region, and wherein the second control element is aligned directly over a recessed region within the ground plane and does not overlap the control region, wherein the second control element is arranged to electromagnetically couple to the qubit through the control region, and wherein the recessed region includes an absence of superconductor material in the ground plane and is laterally displaced from and adjacent to the control region.
A method for styling keratin fibers comprising: applying to keratin fibers a composition capable of forming a film, which upon evaporation of solvents is characterized by a resilience of less than 15% when displaced 2.0 mm by a compression force at 25°C; allowing said composition to dry on said keratin fibers to form a film on at least a portion of the surface of said fibers; and molding said keratin fibers into a desired configuration by applying a force thereto, wherein said keratin fibers remain in said desired configuration after said force is removed wherein said composition comprises (a) from 7.5 to 30% by weight of a wax component comprising one or more waxes selected from the group consisting of carnauba wax, beeswax, ozokerite and silicone wax, (b) between 0.1% and 1% of an oil phase gellant comprising dibutyl laurolyl glutamide and/or dibutyl ethylhexanoyl glutamide, (c) less than 15% by weight of one or more pigments and/or fillers, and (d) between 1% to 10% of an oil capable of forming a gel with the oil phase gellant comprising a compound selected from the group consisting of vegetable oils, octyl palmitate, isopropyl myristate, isopropyl palmitate, dicapryl ether, fatty alcohols, isoparaffins, silicone oils, and hydrocarbon oils. applying to keratin fibers a composition capable of forming a film, which upon evaporation of solvents is characterized by a resilience of less than 15% when displaced 2.0 mm by a compression force at 25°C; allowing said composition to dry on said keratin fibers to form a film on at least a portion of the surface of said fibers; and molding said keratin fibers into a desired configuration by applying a force thereto, wherein said keratin fibers remain in said desired configuration after said force is removed wherein said composition comprises (a) from 7.5 to 30% by weight of a wax component comprising one or more waxes selected from the group consisting of carnauba wax, beeswax, ozokerite and silicone wax, (b) between 0.1% and 1% of an oil phase gellant comprising dibutyl laurolyl glutamide and/or dibutyl ethylhexanoyl glutamide, (c) less than 15% by weight of one or more pigments and/or fillers, and (d) between 1% to 10% of an oil capable of forming a gel with the oil phase gellant comprising a compound selected from the group consisting of vegetable oils, octyl palmitate, isopropyl myristate, isopropyl palmitate, dicapryl ether, fatty alcohols, isoparaffins, silicone oils, and hydrocarbon oils. (a) from 7.5 to 30% by weight of a wax component comprising one or more waxes selected from the group consisting of carnauba wax, beeswax, ozokerite and silicone wax, (b) between 0.1% and 1% of an oil phase gellant comprising dibutyl laurolyl glutamide and/or dibutyl ethylhexanoyl glutamide, (c) less than 15% by weight of one or more pigments and/or fillers, and (d) between 1% to 10% of an oil capable of forming a gel with the oil phase gellant comprising a compound selected from the group consisting of vegetable oils, octyl palmitate, isopropyl myristate, isopropyl palmitate, dicapryl ether, fatty alcohols, isoparaffins, silicone oils, and hydrocarbon oils.
An anti-icing system (150; 250), comprising: an inner duct having a forward end configured to deliver a heated gas to a plenum and an aft end spaced from the forward end ; an outer duct circumferentially encompassing at least a portion of the inner duct ; and a forward seal system disposed proximate the forward end , the forward seal system including an aft attachment flange configured for positioning adjacent an aft bulkhead face of a forward bulkhead , the inner duct and the outer duct being connected to the aft attachment flange , and a seal configured for positioning adjacent a forward flange face of the aft attachment flange , characterised in that a forward facing end of the outer duct is welded to an aft flange face of the aft attachment flange . an inner duct having a forward end configured to deliver a heated gas to a plenum and an aft end spaced from the forward end ; an outer duct circumferentially encompassing at least a portion of the inner duct ; and a forward seal system disposed proximate the forward end , the forward seal system including an aft attachment flange configured for positioning adjacent an aft bulkhead face of a forward bulkhead , the inner duct and the outer duct being connected to the aft attachment flange , and a seal configured for positioning adjacent a forward flange face of the aft attachment flange , characterised in that a forward facing end of the outer duct is welded to an aft flange face of the aft attachment flange . an aft attachment flange configured for positioning adjacent an aft bulkhead face of a forward bulkhead , the inner duct and the outer duct being connected to the aft attachment flange , and a seal configured for positioning adjacent a forward flange face of the aft attachment flange , characterised in that a forward facing end of the outer duct is welded to an aft flange face of the aft attachment flange .
A method comprising: capturing a plurality of images of a scene using a rolling shutter sensor ; illuminating the scene using a continuous illumination source ; illuminating the scene using a time-varying illumination source ; synchronizing the rolling shutter sensor and the time-varying illumination source when capturing the plurality of images to cause a first subset of lines of the rolling shutter sensor to be on-cadence with the time-varying illumination source and a second subset of lines to be off-cadence; wherein the first subset of lines receives illumination from the continuous illumination source and a first amount of illumination from the time-varying illumination source, wherein the second subset of lines receives illumination from the continuous illumination source and a second amount of illumination from the time-varying illumination source, and wherein the first amount of illumination is greater than the second amount of illumination; and separating the plurality of images into a plurality of feeds, wherein each of the plurality of feeds includes a different contribution of the time-varying illumination source to an overall illumination of the scene. capturing a plurality of images of a scene using a rolling shutter sensor ; illuminating the scene using a continuous illumination source ; illuminating the scene using a time-varying illumination source ; synchronizing the rolling shutter sensor and the time-varying illumination source when capturing the plurality of images to cause a first subset of lines of the rolling shutter sensor to be on-cadence with the time-varying illumination source and a second subset of lines to be off-cadence; wherein the first subset of lines receives illumination from the continuous illumination source and a first amount of illumination from the time-varying illumination source, wherein the second subset of lines receives illumination from the continuous illumination source and a second amount of illumination from the time-varying illumination source, and wherein the first amount of illumination is greater than the second amount of illumination; and separating the plurality of images into a plurality of feeds, wherein each of the plurality of feeds includes a different contribution of the time-varying illumination source to an overall illumination of the scene.
A method for performing polymerase chain reactions (PCR), the method comprising: measuring a first temperature, by a first sensor , of a first sample block sector of a sample block; measuring a second temperature, by a second sensor , of a second sample block sector of the sample block that is adjacent to the first sample block sector ; calculating , by a thermoelectric controller , a difference in temperature between the first temperature and the second temperature; and adjusting , by the thermoelectric controller , the first temperature of the first sample block sector based on the difference in temperature based on adjusting a power output to one or more thermoelectric coolers, wherein the thermoelectric controller is a system controller and is bidirectionally connected to a further thermoelectric controller that is connected to the first sample block sector and to a still further thermoelectric controller that is connected to the second sample block sector , wherein the system controller determines a new thermal setpoint for the first sample block sector to maintain a uniform temperature, wherein the target of adjusting is that the difference in temperature has a value of zero, and wherein the one or more thermoelectric coolers are configured to heat or cool the first sample block sector . measuring a first temperature, by a first sensor , of a first sample block sector of a sample block; measuring a second temperature, by a second sensor , of a second sample block sector of the sample block that is adjacent to the first sample block sector ; calculating , by a thermoelectric controller , a difference in temperature between the first temperature and the second temperature; and adjusting , by the thermoelectric controller , the first temperature of the first sample block sector based on the difference in temperature based on adjusting a power output to one or more thermoelectric coolers, wherein the thermoelectric controller is a system controller and is bidirectionally connected to a further thermoelectric controller that is connected to the first sample block sector and to a still further thermoelectric controller that is connected to the second sample block sector , wherein the system controller determines a new thermal setpoint for the first sample block sector to maintain a uniform temperature, wherein the target of adjusting is that the difference in temperature has a value of zero, and wherein the one or more thermoelectric coolers are configured to heat or cool the first sample block sector .
A hub for a work platform system comprising a top element and a bottom element spaced at distal ends of a middle section , the top element having a center opening configured to receive a suspension connector , wherein the center opening is generally cruciform in configuration with four slots extending from a center opening area ; wherein the middle section has a longitudinal axis oriented normal to the planes of the top and bottom elements wherein each of the top and bottom elements comprises a plurality of openings extending through the top and bottom element , respectively, so that respective openings are coaxial; wherein a reinforcing plate is added to the underside of the top element wherein openings on the reinforcing plate correspond to the center opening . wherein the middle section has a longitudinal axis oriented normal to the planes of the top and bottom elements wherein each of the top and bottom elements comprises a plurality of openings extending through the top and bottom element , respectively, so that respective openings are coaxial; wherein a reinforcing plate is added to the underside of the top element wherein openings on the reinforcing plate correspond to the center opening .