mhurhangee/patent-ind-claim-en huggingface dataset:
Placement device for producing a component from a thermoset towpreg semi-finished product , comprising - a placement unit for guiding the towpreg semi-finished product , - a laser unit for emitting a laser beam , and - a heating section , - wherein the laser unit is arranged and configured to apply the laser beam to the towpreg semi-finished product in the heating area , - characterized in that the laser unit is arranged and configured to apply the laser beam to at least a first outer surface of the towpreg semi-finished product within the heating area and that the placement unit comprises a process housing through which the towpreg semi-finished product can be passed, wherein the heating area is located within the process housing . - a placement unit for guiding the towpreg semi-finished product , - a laser unit for emitting a laser beam , and - a heating section , - wherein the laser unit is arranged and configured to apply the laser beam to the towpreg semi-finished product in the heating area , - characterized in that the laser unit is arranged and configured to apply the laser beam to at least a first outer surface of the towpreg semi-finished product within the heating area and that the placement unit comprises a process housing through which the towpreg semi-finished product can be passed, wherein the heating area is located within the process housing .
Electric heater that can be inserted with a heating section into a receptacle of a component to be thermostated, with a heating element that can be energised via a power supply and which can be brought into thermal contact with a wall of the receptacle, an activation pin which is adjustable from a release position to an activation position to adjust the heating element from a mounting position in which it is not or only to a limited extent in thermal contact with the wall or in electrical contact with the associated power supply into an operative position in which thermal contact and/or electrical contact is ensured, the activation pin having a cantilevered actuating projection and an activation section on the heating element side that is operatively connected to the heating element for activation, the actuating projection being designed as a power supply so that an energisation takes place upon adjustment of the activation pin into its activation position, the power supply being designed to be resilient.
Winding unit for connection to a high-voltage grid, having - a winding that is embedded in a solid insulating body of the winding unit, - a first main connection terminal that is connected to a first winding end of the winding and is arranged on a first support that is formed on the insulating body , and - a second main connection terminal that is connected to a second winding end of the winding , - wherein the winding comprises partial windings and taps , by means of which the number of series-connected turns of the partial windings can be adjusted, and which are respectively connected, by means of a respective outgoing line that extends in the insulating body , to a respective tap connection terminal that is accessible from the exterior, wherein the tap connection terminals are formed on the support , - wherein the support has a rotationally symmetrical configuration and extends in a longitudinal direction, characterized in that the support is equipped, over the radial periphery thereof, with ribs extending radially with respect to the longitudinal direction, wherein the first main connection terminal is formed on the free longitudinal-side end of the support that is remote from the insulating body , and wherein the tap connection terminals are arranged between two of the ribs in an evenly-distributed manner over the radial periphery of said support . - a winding that is embedded in a solid insulating body of the winding unit, - a first main connection terminal that is connected to a first winding end of the winding and is arranged on a first support that is formed on the insulating body , and - a second main connection terminal that is connected to a second winding end of the winding , - wherein the winding comprises partial windings and taps , by means of which the number of series-connected turns of the partial windings can be adjusted, and which are respectively connected, by means of a respective outgoing line that extends in the insulating body , to a respective tap connection terminal that is accessible from the exterior, wherein the tap connection terminals are formed on the support , - wherein the support has a rotationally symmetrical configuration and extends in a longitudinal direction,
Apparatus for machining an end of an electrical cable, comprising a clamping apparatus for fixing the cable, a plurality of drivable brushes being provided which are arranged distributed along the periphery of the cable fixed by way of the clamping apparatus and are configured to brush a cable screen , exposed at least in the region of that end of the cable to be machined, straight in the direction of that end of the cable to be machined, the clamping apparatus being configured to fix the cable such that it cannot rotate during the brushing, and three brushes , four brushes , five brushes , six brushes , seven brushes or eight brushes being provided.
A functional lens comprising, in sequence directly: a lens body positioned at a first side, a first thermoplastic resin layer bonded to the lens body , a first adhesive layer , and an optically functional layer , wherein the first thermoplastic resin layer , the first adhesive layer and the optically functional layer are located at the side opposite of the first side, wherein the lens body comprises a polyamide resin, wherein the lens has an edge face, said edge face being formed in a ridge shape with a peak positioned at an interior side relative to the first adhesive layer in a thickness direction of the lens, and wherein the lens has a first face on a near side of a fitting portion for being fitted in the groove of a frame and a second face, at least the fitting portion has the edge face having a first inclined wall which is inclined or curved outwards in a direction from the first face of the lens towards the second face of the lens, and an angle θ1 of the first inclined wall relative to the central axis of the lens body is 15 to 30°. a lens body positioned at a first side, a first thermoplastic resin layer bonded to the lens body , a first adhesive layer , and an optically functional layer , wherein the first thermoplastic resin layer , the first adhesive layer and the optically functional layer are located at the side opposite of the first side, wherein the lens body comprises a polyamide resin, wherein the lens has an edge face, said edge face being formed in a ridge shape with a peak positioned at an interior side relative to the first adhesive layer in a thickness direction of the lens, and wherein the lens has a first face on a near side of a fitting portion for being fitted in the groove of a frame and a second face, at least the fitting portion has the edge face having a first inclined wall which is inclined or curved outwards in a direction from the first face of the lens towards the second face of the lens, and an angle θ1 of the first inclined wall relative to the central axis of the lens body is 15 to 30°.
A method for performing communications between a mobile device and an access control system , the method comprising performing, by the mobile device : creating a communication channel between the mobile device and the access control system using a shared secret, the communication channel using a first wireless protocol; communicating, using the communication channel, one or more ranging capabilities with the access control system for ranging to be performed using a second wireless protocol; transmitting, using the second wireless protocol, a first set of pulses in a ranging request message to the access control system , wherein the second wireless protocol uses a pulse width that is less than a pulse width used by the first wireless protocol; receiving, using the second wireless protocol, a second set of pulses in one or more ranging response messages from the access control system ; determining a transmission time(s) of the first set of pulses and a reception time(s) of the second set of pulses; and sending the transmission time(s) and the reception time(s) to the access control system , thereby enabling the access control system to perform an operation. creating a communication channel between the mobile device and the access control system using a shared secret, the communication channel using a first wireless protocol; communicating, using the communication channel, one or more ranging capabilities with the access control system for ranging to be performed using a second wireless protocol; transmitting, using the second wireless protocol, a first set of pulses in a ranging request message to the access control system , wherein the second wireless protocol uses a pulse width that is less than a pulse width used by the first wireless protocol; receiving, using the second wireless protocol, a second set of pulses in one or more ranging response messages from the access control system ; determining a transmission time(s) of the first set of pulses and a reception time(s) of the second set of pulses; and sending the transmission time(s) and the reception time(s) to the access control system , thereby enabling the access control system to perform an operation.
A knitted component having a first surface and an opposite second surface, the first surface of the knitted component comprising: first areas having a first coefficient of friction, the first areas comprising a first yarn having a core and a coating, the coating at least partially surrounding the core; and second areas having a second coefficient of friction that is different than the first coefficient of friction, the second areas comprising a second yarn , the second yarn being different from the first yarn , wherein the first areas form an alternating pattern with the second areas such that the first areas are 40% to 80% of a total surface area of the first surface , characterized in that the first coefficient of friction is greater than the second coefficient of friction, wherein the second coefficient of friction of the second areas is within a range from about 10% to about 75% less than the first coefficient of friction of the first areas.
Assembly comprising a device forming a timed-flow tap and a water receipt and discharge area, such as a basin, sink, bowl or similar, the device forming a timed-flow tap consisting of a tap body , comprising a water inlet orifice , particularly in the lower part, a water outlet orifice , particularly in the upper part, sufficiently far away from the water receipt area to enable the user to position at least part of their body in said area, for example their hands in the case of a washbasin, or all, or almost all, of their body in the case of a shower, so that the water can wet the said at least one part of the body, means forming a water circuit between the inlet and outlet orifices, and means forming a timed valve controlled by opening control means , actuation of said opening control means by a user causing water to be supplied for a finite interval of time, the arrangement being such that, in operation, the opening control means can be actuated by the user by at least two actuation modes, a first actuation mode in which water is supplied for a first timed interval which is not zero and at least one second actuation mode in which the water is supplied for a second timed interval which is not zero, different from the first timed interval, the means forming a timed valve comprising a time delay chamber , a seat and a closure member , the arrangement being such that, in the first actuation mode, the control means push the closure member out of the seat in the time delay chamber along a first stroke and in the second actuation mode the control means push the closure member out of the seat in the time delay chamber along a second stroke which is different and independent from the first stroke, particularly in that it extends in a different direction, particularly in the opposite direction, such that the time required for the time delay chamber to refill is less in one of these modes than in the other, the water filling the time delay chamber pushing the closure member back into its seat more quickly in the actuation mode corresponding to the smaller of the two first and second strokes, characterised in that the timed valve is located in the water circuit, the main water flow between the water inlet orifice and the water outlet orifice passing through the seat of the closure member for the means forming a timed valve.
Method for operating a waste heat steam generator, in particular one designed according to the forced flow principle, comprising an evaporator through which a flow medium flows, an economizer with a number of economizer heating surfaces , and a bypass line connected in parallel with a number of economizer heating surfaces on the flow medium side, in which a variable that is characteristic of the heat energy supplied to the waste heat steam generator is used for controlling or regulating the flow rate of the bypass line , and wherein the regulation or control of the flow rate of the flow medium through the bypass line is carried out as a function of a supercooling setpoint at the inlet of the evaporator , wherein the regulation or control of the flow rate of the flow medium through the bypass line is additionally carried out as a function of a superheating setpoint at the outlet of the evaporator , characterized in that the flow rate of the flow medium through the bypass line is increased when the superheating setpoint is undershot, and the flow rate of the flow medium through the bypass line is lowered when the superheating setpoint is exceeded.
A compound of Formula (Id) or (Ie), or a salt or solvate thereof wherein EDG is: Ar is phenyl, 1-naphthyl or 2-naphthyl; R 84 is hydrogen or C 1 -C 10 alkyl; EWG is -CN; WSG is selected from: i) or ii) wherein n is an integer from 1-50 and Rsi is hydrogen, a C 1 -C 10 alkyl, a C 1 -C 10 alkenyl, or a C 1 -C 10 alkynyl wherein each wherein the alkyl, alkenyl, or alkynyl is optionally substituted with one or more C 1 -C 10 alkyl, C 1 -C 10 heteroalkyl, cycloalkyl of no more than 10 carbons, heterocycloalkyl of no more than 10 carbons, arylene of no more than 10 carbons, or heteroarylene of no more than 10 carbons; optionally wherein R 81 is methyl or CH 2 -C≡CH, optionally wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, optionally wherein n is 3 or 6; or iii) optionally or optionally or iv) optionally or v) optionally or vi) wherein each R 82 is independently a hydrogen, methyl, ethyl, propyl, or butyl. EDG is: Ar is phenyl, 1-naphthyl or 2-naphthyl; R 84 is hydrogen or C 1 -C 10 alkyl; EWG is -CN; WSG is selected from: i) or ii) wherein n is an integer from 1-50 and Rsi is hydrogen, a C 1 -C 10 alkyl, a C 1 -C 10 alkenyl, or a C 1 -C 10 alkynyl wherein each wherein the alkyl, alkenyl, or alkynyl is optionally substituted with one or more C 1 -C 10 alkyl, C 1 -C 10 heteroalkyl, cycloalkyl of no more than 10 carbons, heterocycloalkyl of no more than 10 carbons, arylene of no more than 10 carbons, or heteroarylene of no more than 10 carbons; optionally wherein R 81 is methyl or CH 2 -C≡CH, optionally wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, optionally wherein n is 3 or 6; or iii) optionally or optionally or iv) optionally or v) optionally or vi) wherein each R 82 is independently a hydrogen, methyl, ethyl, propyl, or butyl. i) or ii) wherein n is an integer from 1-50 and Rsi is hydrogen, a C 1 -C 10 alkyl, a C 1 -C 10 alkenyl, or a C 1 -C 10 alkynyl wherein each wherein the alkyl, alkenyl, or alkynyl is optionally substituted with one or more C 1 -C 10 alkyl, C 1 -C 10 heteroalkyl, cycloalkyl of no more than 10 carbons, heterocycloalkyl of no more than 10 carbons, arylene of no more than 10 carbons, or heteroarylene of no more than 10 carbons; optionally wherein R 81 is methyl or CH 2 -C≡CH, optionally wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, optionally wherein n is 3 or 6; or wherein n is an integer from 1-50 and Rsi is hydrogen, a C 1 -C 10 alkyl, a C 1 -C 10 alkenyl, or a C 1 -C 10 alkynyl wherein each wherein the alkyl, alkenyl, or alkynyl is optionally substituted with one or more C 1 -C 10 alkyl, C 1 -C 10 heteroalkyl, cycloalkyl of no more than 10 carbons, heterocycloalkyl of no more than 10 carbons, arylene of no more than 10 carbons, or heteroarylene of no more than 10 carbons; optionally wherein R 81 is methyl or CH 2 -C≡CH, optionally wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, optionally wherein n is 3 or 6; or iii) optionally or optionally or iv) optionally or v) optionally or vi) wherein each R 82 is independently a hydrogen, methyl, ethyl, propyl, or butyl.
A computer-implemented method for assessing peripheral arterial tone , PAT, of an individual monitored by optical plethysmography, wherein said method comprises the steps of: - obtaining: ∘ an optical plethysmography signal measured at an investigated volume of said individual ; ∘ light intensities (102;103) acquired by optical plethysmography at two or more points in time (12;13) along said optical plethysmography signal ; ∘ an oxygen saturation estimate ; ∘ calibration data ; - determining a compensation function from said oxygen saturation estimate and said calibration data ; wherein said compensation function is a function of said oxygen saturation estimate ; - determining a first function of said light intensities (102;103); and - determining a ratio of the first function and said compensation function , thereby evaluating changes in arterial blood volume in said investigated volume between said two or more points in time (12;13) and hereby assessing PAT of said individual . - obtaining: ∘ an optical plethysmography signal measured at an investigated volume of said individual ; ∘ light intensities (102;103) acquired by optical plethysmography at two or more points in time (12;13) along said optical plethysmography signal ; ∘ an oxygen saturation estimate ; ∘ calibration data ; ∘ an optical plethysmography signal measured at an investigated volume of said individual ; ∘ light intensities (102;103) acquired by optical plethysmography at two or more points in time (12;13) along said optical plethysmography signal ; ∘ an oxygen saturation estimate ; ∘ calibration data ; - determining a compensation function from said oxygen saturation estimate and said calibration data ; wherein said compensation function is a function of said oxygen saturation estimate ; - determining a first function of said light intensities (102;103); and - determining a ratio of the first function and said compensation function , thereby evaluating changes in arterial blood volume in said investigated volume between said two or more points in time (12;13) and hereby assessing PAT of said individual .
A multi-level reservoir history matching system for improving reservoir surveillance that comprises: means for acquiring measurement data from a reservoir and adding the measurement data to a historical database; a memory having multi-level reservoir history matching software; and one or more processors coupled to the memory , the software causing the one or more processors to: generate a first history-matched model using at least one updated model parameter derived from one or more existing model parameters in combination with the measurement data from the historical database; generate a plurality of second history-matched models by applying a probabilistic inversion to the first history-matched model; derive a plurality of third history-matched models from the plurality of second history matched models; generate a plurality of dynamic simulation realization sets using each of the plurality of third history-matched models; rank each of the plurality of third history-matched models based at least in part on the plurality of dynamic simulation realization sets; and present a production forecast to a user based on one or more of the highest ranked third history-matched models. means for acquiring measurement data from a reservoir and adding the measurement data to a historical database; a memory having multi-level reservoir history matching software; and one or more processors coupled to the memory , the software causing the one or more processors to: generate a first history-matched model using at least one updated model parameter derived from one or more existing model parameters in combination with the measurement data from the historical database; generate a plurality of second history-matched models by applying a probabilistic inversion to the first history-matched model; derive a plurality of third history-matched models from the plurality of second history matched models; generate a plurality of dynamic simulation realization sets using each of the plurality of third history-matched models; rank each of the plurality of third history-matched models based at least in part on the plurality of dynamic simulation realization sets; and present a production forecast to a user based on one or more of the highest ranked third history-matched models. generate a first history-matched model using at least one updated model parameter derived from one or more existing model parameters in combination with the measurement data from the historical database; generate a plurality of second history-matched models by applying a probabilistic inversion to the first history-matched model; derive a plurality of third history-matched models from the plurality of second history matched models; generate a plurality of dynamic simulation realization sets using each of the plurality of third history-matched models; rank each of the plurality of third history-matched models based at least in part on the plurality of dynamic simulation realization sets; and present a production forecast to a user based on one or more of the highest ranked third history-matched models.