mhurhangee/ep-ind-claims huggingface dataset:
An elastomer moisture resistant connector for at least one conductor disposed at least partially within a jacket of elastomer material, the connector comprising: a first elastomer portion having a first end and a second end, the first end adapted to be compressed against a support; a second elastomer portion, integrally molded with the first elastomer portion and extending longitudinally from the second end of the first elastomer portion, and configured to enclose at least a portion of the jacket; and a third elastomer portion, integrally molded with the first elastomer portion and protruding from the second end of the first elastomer portion, and adapted to be compressed by an enclosure, wherein the third elastomer portion forms a ridge between the first elastomer portion and the second elastomer portion, wherein the third elastomer portion is configured to mate with a groove in the enclosure, wherein the third elastomer portion protrudes along a circumference of the first elastomer portion, and wherein a diameter of the third elastomer portion is greater than a diameter of the second elastomer portion. a first elastomer portion having a first end and a second end, the first end adapted to be compressed against a support; a second elastomer portion, integrally molded with the first elastomer portion and extending longitudinally from the second end of the first elastomer portion, and configured to enclose at least a portion of the jacket; and a third elastomer portion, integrally molded with the first elastomer portion and protruding from the second end of the first elastomer portion, and adapted to be compressed by an enclosure, wherein the third elastomer portion forms a ridge between the first elastomer portion and the second elastomer portion, wherein the third elastomer portion is configured to mate with a groove in the enclosure, wherein the third elastomer portion protrudes along a circumference of the first elastomer portion, and wherein a diameter of the third elastomer portion is greater than a diameter of the second elastomer portion.
A dental implant with a ceramic base body that can be anchored in a jawbone, an implant abutment that can be attached to the base body, and a screw for securing the implant abutment to the base body, wherein, in an assembled state of the dental implant, a threaded portion of the screw engages in an internal thread that is formed in a blind bore of the base body, and wherein the implant abutment is pressed by the screw against the base body, characterized in that the engagement between the threaded portion of the screw and the internal thread of the blind bore takes place exclusively in a lower half of the base body, which lower half faces away from the implant abutment, wherein the blind bore adjoining the internal thread in a direction towards the implant abutment is embodied as a fit bore, and wherein a clearance fit with very little clearance or a transition fit exists between the fit bore and a shaft of the inserted screw, so that a support is provided in the transverse direction with respect to the longitudinal axis of the screw.
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 (10, 14), and a bypass line connected in parallel with a number of economizer heating surfaces (10, 14) 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.
An electronic component package structure, wherein the electronic component package structure comprises at least a substrate, a conductive lid, and a non-conductive adhesive, wherein: the substrate has a set attachment area for attaching an electronic component; the conductive lid has a top and a sidewall that extends toward the substrate, wherein one side of the sidewall close to the substrate has a bonding end, wherein the bonding end bonds the conductive lid to the substrate by using the non-conductive adhesive, and the conductive lid bonded to the substrate encloses the attachment area and forms a shielding space over the attachment area; and the non-conductive adhesive is located between the substrate and the bonding end; the electronic component package structure is characterized in that: the non-conductive adhesive has a dielectric constant not less than 7 and a coating thickness not greater than 0.07 mm. the substrate has a set attachment area for attaching an electronic component; the conductive lid has a top and a sidewall that extends toward the substrate, wherein one side of the sidewall close to the substrate has a bonding end, wherein the bonding end bonds the conductive lid to the substrate by using the non-conductive adhesive, and the conductive lid bonded to the substrate encloses the attachment area and forms a shielding space over the attachment area; and the non-conductive adhesive is located between the substrate and the bonding end; the non-conductive adhesive has a dielectric constant not less than 7 and a coating thickness not greater than 0.07 mm.
A self-assembling compound for the formation of ion channels in lipid bilayers or cell membranes having formula: or a salt, solvate, polymorph or stereoisomer thereof, wherein X is isobutyl, where, n is an integer 1 to 3; Y is a monovalent, divalent or trivalent linking group formed by removing one, two or three hydrogen atoms respectively from an unsubstituted hydrocarbon, carbocycle or heterocycle; and H DA is a divalent group having formula: wherein k is an integer 1 or 2; A is a bond, O, S, NR 2, where R 2 is H or hydrocarbyl; B 1 is O or NH; and D is C 1-3 alkylene substituted with one or more hydrocarbyl or heterocyclyl. wherein X is isobutyl, where, n is an integer 1 to 3; Y is a monovalent, divalent or trivalent linking group formed by removing one, two or three hydrogen atoms respectively from an unsubstituted hydrocarbon, carbocycle or heterocycle; and H DA is a divalent group having formula: wherein k is an integer 1 or 2; A is a bond, O, S, NR 2, where R 2 is H or hydrocarbyl; B 1 is O or NH; and D is C 1-3 alkylene substituted with one or more hydrocarbyl or heterocyclyl.
A video stream management system of an amusement park, comprising: a video controller configured to: receive, from one or more sensors (114, 118, 120), a signal indicative of a detected guest presence of one or more guests of the amusement park; live render video based on the detected guest presence to generate a primary video stream; and, embed a pixel pattern in the primary video stream to generate a video stream; and a display communicatively coupled to the video controller and configured to: receive the video stream; display the video stream to generate one or more displayed images; monitor the one or more displayed images on the display to identify an error in the video stream based on a comparison of the displayed images and the pixel pattern; generate an error signal based on identifying the error. a video controller configured to: receive, from one or more sensors (114, 118, 120), a signal indicative of a detected guest presence of one or more guests of the amusement park; live render video based on the detected guest presence to generate a primary video stream; and, embed a pixel pattern in the primary video stream to generate a video stream; and receive, from one or more sensors (114, 118, 120), a signal indicative of a detected guest presence of one or more guests of the amusement park; live render video based on the detected guest presence to generate a primary video stream; and, embed a pixel pattern in the primary video stream to generate a video stream; and a display communicatively coupled to the video controller and configured to: receive the video stream; display the video stream to generate one or more displayed images; monitor the one or more displayed images on the display to identify an error in the video stream based on a comparison of the displayed images and the pixel pattern; generate an error signal based on identifying the error. receive the video stream; display the video stream to generate one or more displayed images; monitor the one or more displayed images on the display to identify an error in the video stream based on a comparison of the displayed images and the pixel pattern; generate an error signal based on identifying the error.
A method for reducing peak power of a signal, comprising: predicting a peak associated with subsequent combination of a signal sample from each of at least two input signals by predicting a phase translation which will occur during up-conversion to radio frequencies; generating at least one scaling value using the predicted peak; modifying the signal samples from the at least two input signals using the at least one scaling value to generate modified input signals; upconverting the modified input signals to their respective radio frequencies to generate upconverted signals; and combining the upconverted signals thereby providing a peak power reduced signal, wherein the step of predicting further comprises: using knowledge of all possible phase transformations performed during the upconverting to predict the peak by generating a plurality of static, complex phase transformation values based on parameters associated with the upconverting. predicting a peak associated with subsequent combination of a signal sample from each of at least two input signals by predicting a phase translation which will occur during up-conversion to radio frequencies; generating at least one scaling value using the predicted peak; modifying the signal samples from the at least two input signals using the at least one scaling value to generate modified input signals; upconverting the modified input signals to their respective radio frequencies to generate upconverted signals; and combining the upconverted signals thereby providing a peak power reduced signal, wherein the step of predicting further comprises: using knowledge of all possible phase transformations performed during the upconverting to predict the peak by generating a plurality of static, complex phase transformation values based on parameters associated with the upconverting. using knowledge of all possible phase transformations performed during the upconverting to predict the peak by generating a plurality of static, complex phase transformation values based on parameters associated with the upconverting.
A pressure control device (12,30) for sealing about a tubular at a wellsite, the pressure control device (12,30) comprising: a rotatable member, configured to be positioned about the tubular; first and second radial seals (42,44) that sealingly contact the rotatable member; first and second chambers (46, 48), and a fluid flow path; characterised in that: the first and second chambers (46, 48) are located on respective opposite sides of the first radial seal, and wherein the second chamber is exposed to the rotatable member between the first and second radial seals (42, 44); and a pump that pumps fluid (51, 68) from the first chamber to the second chamber via the fluid flow path in response to rotation of the rotatable member. a rotatable member, configured to be positioned about the tubular; first and second radial seals (42,44) that sealingly contact the rotatable member; first and second chambers (46, 48), and a fluid flow path; characterised in that: the first and second chambers (46, 48) are located on respective opposite sides of the first radial seal, and wherein the second chamber is exposed to the rotatable member between the first and second radial seals (42, 44); and a pump that pumps fluid (51, 68) from the first chamber to the second chamber via the fluid flow path in response to rotation of the rotatable member. the first and second chambers (46, 48) are located on respective opposite sides of the first radial seal, and wherein the second chamber is exposed to the rotatable member between the first and second radial seals (42, 44); and a pump that pumps fluid (51, 68) from the first chamber to the second chamber via the fluid flow path in response to rotation of the rotatable member.
Method of transmitting a transducer output signal from a transducer unit to an evaluation unit, said method comprising the following steps: measuring at least one first and one second measured variable by means of a sensor unit and generating a sensor output signal indicative of the measured variable, calculating a total period (Tn) and a pulse width (TnH) of a pulse width modulated, PWM, signal, said total period (Tn) being indicative of said first measured variable and said pulse width (TnH) being indicative of said second measured variable, transmitting the PWM signal as said transducer output signal to the evaluation unit. measuring at least one first and one second measured variable by means of a sensor unit and generating a sensor output signal indicative of the measured variable, calculating a total period (Tn) and a pulse width (TnH) of a pulse width modulated, PWM, signal, said total period (Tn) being indicative of said first measured variable and said pulse width (TnH) being indicative of said second measured variable, transmitting the PWM signal as said transducer output signal to the evaluation unit.
A retractable covering for an architectural opening including in combination: a flexible fabric movable between extended and retracted positions, a roller about which said fabric can be wrapped in said retracted position or unwrapped in said extended position, and a control system for reversibly rotating said roller to move said fabric between said extended and retracted positions, said control system including an operating cord that when pulled substantially straight downwardly will cause said roller to rotate in a first direction, characterised in that: the control system is configured so that pulling the operating cord downwardly and away from said fabric in a plane substantially perpendicular to said fabric will cause said roller to rotate in the opposite direction. a flexible fabric movable between extended and retracted positions, a roller about which said fabric can be wrapped in said retracted position or unwrapped in said extended position, and a control system for reversibly rotating said roller to move said fabric between said extended and retracted positions, said control system including an operating cord that when pulled substantially straight downwardly will cause said roller to rotate in a first direction, characterised in that: the control system is configured so that pulling the operating cord downwardly and away from said fabric in a plane substantially perpendicular to said fabric will cause said roller to rotate in the opposite direction. the control system is configured so that pulling the operating cord downwardly and away from said fabric in a plane substantially perpendicular to said fabric will cause said roller to rotate in the opposite direction.
A method of making a tiled article, comprising: providing a substrate having prism elements in an upper surface thereof; creating replicas of the substrate, each replica having at least one reference edge therein, wherein the at least one reference edge is represented by a wall, wherein the walls share a first common edge with the surface or with a prism array on the surface, and wherein the at least one reference edge is created using a diamond cutter; creating a face created by a rough cut through each reference edge in each replica by removing a portion of a lower part of the replicas, wherein the rough cut is created with a wire electrical discharge machine, a laser cutter, a water jet cutter, or a waterjet-guided laser cutting, and tiling the replicas such that reference edges in the replicas abut face-to-face and the faces created by the rough cuts in the replicas do not abut face-to-face, to thereby produce the tiled article. providing a substrate having prism elements in an upper surface thereof; creating replicas of the substrate, each replica having at least one reference edge therein, wherein the at least one reference edge is represented by a wall, wherein the walls share a first common edge with the surface or with a prism array on the surface, and wherein the at least one reference edge is created using a diamond cutter; wherein the at least one reference edge is represented by a wall, wherein the walls share a first common edge with the surface or with a prism array on the surface, and wherein the at least one reference edge is created using a diamond cutter; creating a face created by a rough cut through each reference edge in each replica by removing a portion of a lower part of the replicas, wherein the rough cut is created with a wire electrical discharge machine, a laser cutter, a water jet cutter, or a waterjet-guided laser cutting, and tiling the replicas such that reference edges in the replicas abut face-to-face and the faces created by the rough cuts in the replicas do not abut face-to-face, to thereby produce the tiled article.
A method for controlling a remote pneumatically operated valve assembly implemented within a process control system, the method comprising: providing a fluid supply to a battery-powered pilot valve assembly, the pilot valve assembly operatively coupled to an output valve assembly; activating, via a processor (11/44), a first pilot valve of the pilot valve assembly to enable the fluid supply to drive the output valve assembly to a first switch position, the first pilot valve being operatively coupled to a battery power source; deactivating, via the processor (11/44), the first pilot valve of the pilot valve assembly; and maintaining the output valve assembly in the first switch position, when the first pilot valve is deactivated. providing a fluid supply to a battery-powered pilot valve assembly, the pilot valve assembly operatively coupled to an output valve assembly; activating, via a processor (11/44), a first pilot valve of the pilot valve assembly to enable the fluid supply to drive the output valve assembly to a first switch position, the first pilot valve being operatively coupled to a battery power source; deactivating, via the processor (11/44), the first pilot valve of the pilot valve assembly; and maintaining the output valve assembly in the first switch position, when the first pilot valve is deactivated.
A weighing system for weighing goods to be weighed that are fed sequentially, in particular containers, a) having a weighing table constituting a preload for receiving the force due to weight of the good to be weighed, b) wherein the good to be weighed can be fed to the weighing table, and discharged from the weighing table, along a path extending over the weighing table, characterised in that c) provided above the weighing table as a preload there is a clamping device with which the good to be weighed, after it has been fed to the weighing table and it has applied a force due to weight thereto, for the purposes of temporary fixation can be detachably clamped against a stop of the clamping device in order to be able to weigh it in the clamped state, d) wherein the clamping device comprises at least one clamping element with which the good to be weighed can be clamped between the clamping element and the stop. a) having a weighing table constituting a preload for receiving the force due to weight of the good to be weighed, b) wherein the good to be weighed can be fed to the weighing table, and discharged from the weighing table, along a path extending over the weighing table, characterised in that c) provided above the weighing table as a preload there is a clamping device with which the good to be weighed, after it has been fed to the weighing table and it has applied a force due to weight thereto, for the purposes of temporary fixation can be detachably clamped against a stop of the clamping device in order to be able to weigh it in the clamped state, d) wherein the clamping device comprises at least one clamping element with which the good to be weighed can be clamped between the clamping element and the stop.
A bispecific antibody or active fragment thereof, wherein the antibody or fragment thereof comprises two different heavy/light chain pairs and two different binding sites, and wherein a first heavy/light chain pair binds beta-amyloid and comprises: I. (i) a heavy chain variable region (HCVR) comprising human- or primate-derived light chain framework regions, a complementarity determining region 1 comprising the amino acid sequence of SEQ ID NO: 1, a CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and a CDR3 comprising the amino acid sequence of SEQ ID NO: 3; and II. (i) a light chain variable region (LCVR) comprising human- or primate-derived light chain framework regions, a CDR1 comprising the amino acid sequence of SEQ ID NO: 4, a CDR2 comprising the amino acid sequence of SEQ ID NO: 5, the amino acid sequence of RVSNRFS, or the amino acid sequence of KVSSRFS, and a CDR3 comprising the amino acid sequence of SEQ ID NO: 6; wherein the LCVR comprises an amino acid sequence that is 98%, 99% or 100% identical to the amino acid sequence of SEQ ID NO: 12, and/or the HCVR comprises an amino acid sequence that is 98%, 99% or 100% identical to the amino acid sequence of SEQ ID NO: 15. I. (i) a heavy chain variable region (HCVR) comprising human- or primate-derived light chain framework regions, a complementarity determining region 1 comprising the amino acid sequence of SEQ ID NO: 1, a CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and a CDR3 comprising the amino acid sequence of SEQ ID NO: 3; and II. (i) a light chain variable region (LCVR) comprising human- or primate-derived light chain framework regions, a CDR1 comprising the amino acid sequence of SEQ ID NO: 4, a CDR2 comprising the amino acid sequence of SEQ ID NO: 5, the amino acid sequence of RVSNRFS, or the amino acid sequence of KVSSRFS, and a CDR3 comprising the amino acid sequence of SEQ ID NO: 6;
Method for controlling the movements of a handling device in an automated manner, wherein the movements are subdivided into predefined object-based interactive movements and location-based transfer movements, wherein an object position and/or an object orientation is/are captured, wherein the handling device is actuated in order to perform an interactive movement relative to the captured object position and/or object orientation, wherein a position and/or an orientation of the handling device is/are captured, wherein a trajectory for a transfer movement between a starting position and a target position is determined, and wherein the handling device is actuated in order to perform the transfer movement along the determined trajectory, wherein a processing station stored in the form of data is allocated to an or each predefined interactive movement, and wherein the or each interactive movement is dynamically parameterized at runtime using the data on the basis of the captured object position and/or object orientation, characterized in that the or each transfer movement is dynamically calculated at runtime, and the or each transfer movement is obtained in this case from the sequence of adjacent processing stations by taking into account the stored data relating to the or each processing station.