mhurhangee/ep-ind-claims huggingface dataset:
A running tool apparatus for conveying a device on a body (12, 70) configured to permit transmission of torque and to permit slidable axial motion within a borehole, the apparatus comprising: a journal having an inner bore complementary to an external surface of the body, wherein the journal is configured for slidable movement along the body; an engagement instrument connected to the journal, wherein the engagement instrument is configured for engaging the device; a plurality of proximal fins attached to the engagement instrument, wherein the plurality of proximal fins surround and are arranged concentric with the body and extend radially therefrom, and extend to a diameter complementary to an outer diameter of the engagement instrument; a proximal collar attached to the proximal fins, wherein the proximal collar includes a proximal bushing; a plurality of distal fins attached to the engagement instrument, wherein the plurality of distal fins surround and are arranged concentric with the body and extend radially therefrom; a distal collar attached to the distal fins; and wherein the distal collar includes a distal bushing. a journal having an inner bore complementary to an external surface of the body, wherein the journal is configured for slidable movement along the body; an engagement instrument connected to the journal, wherein the engagement instrument is configured for engaging the device; a plurality of proximal fins attached to the engagement instrument, wherein the plurality of proximal fins surround and are arranged concentric with the body and extend radially therefrom, and extend to a diameter complementary to an outer diameter of the engagement instrument; a proximal collar attached to the proximal fins, wherein the proximal collar includes a proximal bushing; a plurality of distal fins attached to the engagement instrument, wherein the plurality of distal fins surround and are arranged concentric with the body and extend radially therefrom; a distal collar attached to the distal fins; and wherein the distal collar includes a distal bushing.
An apparatus for producing metal organic frameworks, comprising: a tubular flow reactor comprising a tubular body into which, in use, precursor compounds which form the metal organic framework are fed and flow, said tubular body including at least one annular loop comprising a coil; a flow restriction device downstream of the tubular reactor for controlling the pressure within the tubular reactor; and an apparatus for separating a metal organic framework from a solution, comprising: a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected. a tubular flow reactor comprising a tubular body into which, in use, precursor compounds which form the metal organic framework are fed and flow, said tubular body including at least one annular loop comprising a coil; a flow restriction device downstream of the tubular reactor for controlling the pressure within the tubular reactor; and an apparatus for separating a metal organic framework from a solution, comprising: a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected. a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected.
Wheel fastening device (1,1'1ʺ,1′′′,1ʺʺ) for fastening a vehicle wheel to a wheel bearing, a wheel bearing flange and/or a brake disc of a motor vehicle, having a fastening thread (5,5',5ʺ,5′′′,5ʺʺ) for fastening in the wheel bearing, in the wheel bearing flange and/or in the brake disc, characterized in that the wheel fastening device (1,1'1ʺ,1′′′,1ʺʺ) has a support region (10,10',10ʺ,10′′′,10ʺʺ) for support in the brake disc and/or the vehicle wheel, wherein a notch (11,11',11ʺ,11′′′,11ʺʺ) is arranged between the support region (10,10',10ʺ,10′′′,10ʺʺ) and the fastening thread (5,5',5ʺ,5′′′,5ʺʺ), characterized in that the notch (11,11',11ʺ,11′′′,11ʺʺ) is round at least in areas, wherein the width of the notch (11,11',11ʺ,11′′′,11ʺʺ) is in the range of 2 to 10 times the thread pitch of the fastening thread (5,5',5ʺ,5′′′,5ʺʺ).
A process for realising tombstones, the tombstones comprising a relative front face, to which are associated at least identifying data of a corresponding deceased person, the process includes use of at least a flexible elastic protective sheet made of a synthetic resin, and of at least a thermoplastic polymer in molten state at a temperature that is lower than the melting temperature of the protective sheet, the process being characterised in that it comprises steps as follow: a) predisposing a die comprising a base, in which a profiled design is afforded, a perimeter extension of which identifies the perimeter extension of a corresponding predetermined tombstone, the perimeter extension delimiting an operating surface conformed in a complementary way to the conformation of the front face of the predetermined tombstone; b) positioning the protective sheet of synthetic resin in said profiled design to cover at least the operating surface; c) injecting the thermoplastic polymer in the molten state into the profiled design with a consequent pressure exerted by the weight of the molten polymer on the protective sheet so that the protective sheet deforms elastically to match the profile of the operating surface, cooling and consequent solidification of the thermoplastic polymer injected into the profiled design leading to a stable joining of the protective sheet to the adjacent surface of the solidified body of thermoplastic polymer injected to define the front face of the predetermined tombstone; d) extracting, from the profiled design, after a predetermined time which enables solidification of the thermoplastic polymer injected, the whole solidified body - protective sheet assembly which identifies the predetermined tombstone. a) predisposing a die comprising a base, in which a profiled design is afforded, a perimeter extension of which identifies the perimeter extension of a corresponding predetermined tombstone, the perimeter extension delimiting an operating surface conformed in a complementary way to the conformation of the front face of the predetermined tombstone; b) positioning the protective sheet of synthetic resin in said profiled design to cover at least the operating surface; c) injecting the thermoplastic polymer in the molten state into the profiled design with a consequent pressure exerted by the weight of the molten polymer on the protective sheet so that the protective sheet deforms elastically to match the profile of the operating surface, cooling and consequent solidification of the thermoplastic polymer injected into the profiled design leading to a stable joining of the protective sheet to the adjacent surface of the solidified body of thermoplastic polymer injected to define the front face of the predetermined tombstone; d) extracting, from the profiled design, after a predetermined time which enables solidification of the thermoplastic polymer injected, the whole solidified body - protective sheet assembly which identifies the predetermined tombstone.
A line arrangement for a DC voltage onboard electrical system of a motor vehicle, comprising - a power source, - at least one load connected to a ground potential, - a supply line which has a shielding and an inner conductor, which supply line is connected to the power source on the source side and to the at least one load on the load side; and - a safety electronics system which is connected between the power source and the supply line and which comprises an actuatable disconnection element, characterised in that the shielding is configured in the form of a sensor conductor in that the shielding is connected to the inner conductor on the load side via a terminating resistor (R A) which is high-ohmic in comparison to a load resistor and is connected to the ground potential on the source side via a detection resistor (R S) which is low-ohmic in comparison to the terminating resistor (R A), wherein the safety electronics system comprises an analysis circuit, and the analysis circuit taps a detection voltage (Us) on the detection resistor (R S) in order, on the basis of the measured detection voltage (Us), to identify at least a first fault state (F 1), in particular parallel arcing, and to actuate the disconnection element when the detection voltage (Us) lies above a first, upper voltage threshold (U 1), which constitutes an upper limit of a normal operation voltage range. - a power source, - at least one load connected to a ground potential, - a supply line which has a shielding and an inner conductor, which supply line is connected to the power source on the source side and to the at least one load on the load side; and - a safety electronics system which is connected between the power source and the supply line and which comprises an actuatable disconnection element, the shielding is configured in the form of a sensor conductor in that the shielding is connected to the inner conductor on the load side via a terminating resistor (R A) which is high-ohmic in comparison to a load resistor and is connected to the ground potential on the source side via a detection resistor (R S) which is low-ohmic in comparison to the terminating resistor (R A), wherein the safety electronics system comprises an analysis circuit, and the analysis circuit taps a detection voltage (Us) on the detection resistor (R S) in order, on the basis of the measured detection voltage (Us), to identify at least a first fault state (F 1), in particular parallel arcing, and to actuate the disconnection element when the detection voltage (Us) lies above a first, upper voltage threshold (U 1), which constitutes an upper limit of a normal operation voltage range.
Conduit side wall of a rod conveying device of a machine of the tobacco processing industry, in particular with two or more lanes, having a top face, a bottom face, an external face and an internal face directed towards a rod conveying duct, characterised in that the conduit side wall has an orifice for accommodating a nozzle body of a nozzle device, the orifice extending obliquely in the conduit side wall in such a way that the inlet orifice of the orifice for the nozzle body in the external face is disposed opposite the outlet orifice of the orifice for the nozzle body in the internal face directed towards the rod conveying duct, being transversely offset from one another in the longitudinal direction of the conduit side wall, and upstream in the rod conveying direction, and the conduit side wall is provided as a means of laterally guiding a material rod to be formed or formed along the rod conveying duct.
A panel system, including a pair of adjacent spaced apart panels (51, 52) and a retention clip for securing the panels to a support structure, wherein the retention clip comprises: a base plate having a pair of opposing flanges (42, 43) at least one of which is configured for attaching to the support structure; a top plate having a pair of opposing flanges (47, 48); and an upright extending between the base plate and the top plate and defining opposing first and second surfaces (49, 49') that in use are dimensioned to engage opposing first and second ends of the panels (51, 52); characterized in that: at least said first surface supports a resilient or frangible spacer element that is configured to maintain a minimal gap between the first end of the first panel and the first surface of the retention clip during construction of the panel system, wherein said resilient spacer element is resiliently supported by the first surface of the upright so as to protrude outwardly from the first surface thereby defining said minimal gap, and so that after construction of the panel system the resilient spacer element is compressible under expansion forces applied by a heated panel, so as to allow for thermal expansion of the panels without inducing distortion or buckling of the panels, and wherein said frangible spacer element is frangibly attached to the upright and configured for removal after securing the first panel so as to leave said minimal gap before removal and so as to allow for thermal expansion of the panels without inducing distortion or buckling of the panels after removal. a base plate having a pair of opposing flanges (42, 43) at least one of which is configured for attaching to the support structure; a top plate having a pair of opposing flanges (47, 48); and an upright extending between the base plate and the top plate and defining opposing first and second surfaces (49, 49') that in use are dimensioned to engage opposing first and second ends of the panels (51, 52); at least said first surface supports a resilient or frangible spacer element that is configured to maintain a minimal gap between the first end of the first panel and the first surface of the retention clip during construction of the panel system, wherein said resilient spacer element is resiliently supported by the first surface of the upright so as to protrude outwardly from the first surface thereby defining said minimal gap, and so that after construction of the panel system the resilient spacer element is compressible under expansion forces applied by a heated panel, so as to allow for thermal expansion of the panels without inducing distortion or buckling of the panels, and wherein said frangible spacer element is frangibly attached to the upright and configured for removal after securing the first panel so as to leave said minimal gap before removal and so as to allow for thermal expansion of the panels without inducing distortion or buckling of the panels after removal.
Vehicle seat comprising a seat adjuster and a driving means which, in the event of operation, drives the seat adjuster, wherein an overload protection (3.1, 4.1, 4.2) is arranged between the seat adjuster and the driving means, said overload protection preventing the transmission of an excessive torque from the driving means to the seat adjuster in the event of an overload, characterized in that the overload protection is formed by two means (3.1, 4.2) which interact in a form-fitting manner in the event of operation, wherein one of the two means (4.2) is mounted elastically, in that the means (3.1, 4.2) are at least partially of conical or frustoconical design, wherein the cone angle (α) changes with the longitudinal axis (x) thereof, as a result of which the means (3.1, 4.2) are latched or unlatched in a manner controlled by the cone angle, wherein, in the event of an overload, the driving means is reversibly transferable from an operating position into an overload position.
A method for determining effectiveness of an overlay correction process, the method comprising: obtaining a first set of in-plane distortions for a plurality of wafers, the plurality of wafers including wafers from multiple lots, and the first set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers prior to application of the overlay correction process; obtaining a second set of in-plane distortions for the plurality of wafers, the second set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers after application of the overlay correction process; decomposing the first set of in-plane distortions to a first set of decomposed components (104, 106, 108, 110, 112) utilizing a processor; decomposing the second set of in-plane distortions to a second set of decomposed components (104, 106, 108, 110, 112) utilizing the processor; and determining an effectiveness factor of the overlay correction process for at least one decomposed component based on a comparison between the first set of decomposed components and the second set of decomposed components; wherein each of the first and second sets of decomposed components includes: a common process signature, higher order polynomial model lot-to-lot variations, higher order polynomial model wafer-to-wafer variations, corrections per exposure model common signature, and CPE model wafer-to-wafer variations. obtaining a first set of in-plane distortions for a plurality of wafers, the plurality of wafers including wafers from multiple lots, and the first set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers prior to application of the overlay correction process; obtaining a second set of in-plane distortions for the plurality of wafers, the second set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers after application of the overlay correction process; decomposing the first set of in-plane distortions to a first set of decomposed components (104, 106, 108, 110, 112) utilizing a processor; decomposing the second set of in-plane distortions to a second set of decomposed components (104, 106, 108, 110, 112) utilizing the processor; and determining an effectiveness factor of the overlay correction process for at least one decomposed component based on a comparison between the first set of decomposed components and the second set of decomposed components; wherein each of the first and second sets of decomposed components includes: a common process signature, higher order polynomial model lot-to-lot variations, higher order polynomial model wafer-to-wafer variations, corrections per exposure model common signature, and CPE model wafer-to-wafer variations.
Rotating handpiece for preparing a root canal using a root canal instrument provided with at least one blade, comprising at least one drive motor which is actuable via a control unit, a driven shaft of the drive motor being connected to the root canal instrument, wherein the drive motor is formed to drive the root canal instrument connected to the driven shaft in at least a reciprocal movement in a first direction of rotation through a predetermined first angle of rotation, subsequently in a second direction of rotation, counter to the first direction of rotation, through a predetermined second angle of rotation, and is formed to rotate the root canal instrument through at least a third angle of rotation after the at least one reciprocal movement of the drive motor, the third angle of rotation being at least 360°, and is formed to change to full rotation with reduced torque.
A method in a receiving node for determining when to apply a turbo equalization mode to compensate for Inter-Symbol Interference, "ISI", in a radio signal (s in) received over a radio channel (h 1, h 2) from a transmitting node, comprising: - decoding the received radio signal (s in) into a decoded signal; - determining a current error level in the decoded signal; - predicting a turbo equalization gain based on instantaneous channel information of the radio channel (h 1, h 2); - deciding whether to apply the turbo equalization mode depending on the predicted turbo equalization gain and the determined current error level in the decoded signal. - decoding the received radio signal (s in) into a decoded signal; - determining a current error level in the decoded signal; - predicting a turbo equalization gain based on instantaneous channel information of the radio channel (h 1, h 2); - deciding whether to apply the turbo equalization mode depending on the predicted turbo equalization gain and the determined current error level in the decoded signal.
Method of encapsulating at least one microelectronic device, comprising at least the following steps: - encapsulate the microelectronic device in a cavity (104, 126) hermetically sealed against air, a cap of the cavity comprising at least one wall (109, 128) permeable to at least one noble gas, - inject the noble gas into the cavity (104, 126) through the wall (109, 128) permeable to the noble gas, - hermetically seal the cavity (104, 126) against air and the noble gas injected into the cavity (104, 126). - encapsulate the microelectronic device in a cavity (104, 126) hermetically sealed against air, a cap of the cavity comprising at least one wall (109, 128) permeable to at least one noble gas, - inject the noble gas into the cavity (104, 126) through the wall (109, 128) permeable to the noble gas, - hermetically seal the cavity (104, 126) against air and the noble gas injected into the cavity (104, 126).
2-[(5-Chloro-2-{[3-methyl-1-(1-methylethyl)-1 H -pyrazol-5-yl]amino}-4-pyridinyl)amino]-N-(methyloxy)benzamide, which is a compound of formula (Ia) or a salt thereof.
A method for applying particulate materials onto an area to be coated, wherein the particulate material, as viewed in the forward movement direction of the coater, is applied onto the area to be coated and then a leveling element is moved over the applied particulate material, said particulate material being supplied from a metering system, which comprises an opening and performs an oscillation at least when applying the particulate material, characterised in that the opening, when viewed laterally, i.e. perpendicular to the coating direction, is provided on the metering system at an angle a, as well as forward of and above the leveling element in the direction of travel and is closed by a material cone of the particulate material forming in the opening upon standstill of the metering system, and activating the oscillation causes the material cone to collapse and allows particulate material to be discharged again.
A compound of the formula X = NH(CH 2) 2 NH X = NH(CH 2) 3 NH X = X = CH 2, R = Bn, or a pharmaceutically acceptable salt, solvate, and/or ester thereof.
An electric support system for sofa, comprising a linear drive device and at least one adjusting assembly, the adjusting assembly comprising a side plate, a slider, a first connecting link, and a second connecting link; wherein the slider is slidably configured on the side plate and driven by the linear drive device to slide on the side plate, one end of the first connecting link is pivotally connected to the slider, the other end of the first connecting link is pivotally connected to one end of the second connecting link, the other end of the second connecting link is an end adapted for fixing headrest, and the second connecting link is also pivotally connected to the side plate with a pivot configured between the two ends of the second connecting link.