mhurhangee/ep-ind-claims huggingface dataset:
A surveying system comprising a surveying instrument and a rover, wherein said rover has an illuminating lamp adapted to emit an illumination light toward said surveying instrument, a second azimuth indicator adapted to detect an azimuth angle θ of an optical axis of said illumination light, and a second communication module adapted to transmit said azimuth angle of the optical axis of said illumination light to said surveying instrument and capable of data communication with said surveying instrument, and wherein said surveying instrument comprises a surveying instrument main body and a rotary driving unit (14, 21) capable of rotating said surveying instrument main body in at least a left-and-right direction, wherein said surveying instrument main body comprises a distance measuring light projecting unit configured to project a distance measuring light, a light receiving unit configured to receive a reflected distance measuring light and to produce a light receiving signal, a distance measuring unit (37, 38, 39) configured to perform a distance measurement of an object to be measured based on said light receiving signal, an optical axis deflector provided on a distance measuring optical axis and capable of deflecting said distance measuring optical axis two-dimensionally, a projecting direction detecting module configured to detect a deflection angle of said distance measuring optical axis and to perform an angle measurement, an image pickup unit having an image pickup optical axis in parallel with a reference optical axis, said reference optical axis corresponding to said distance measuring optical axis in a condition not being deflected by said optical axis deflector, a first azimuth indicator adapted to detect an azimuth angle of said reference optical axis, a first communication module which receives said azimuth angle of said reference optical axis and capable of data communication with said rover, and an arithmetic control module configured to control a deflecting action of said optical axis deflector and a distance measuring action of said distance measuring unit, and wherein said arithmetic control module is configured to receive said azimuth angle θ of the optical axis of said illumination light detected from said rover by said second azimuth indicator via said first communication module and to rotate said surveying instrument main body by said rotary driving unit (14, 21) in such a manner that said azimuth angle of said reference optical axis detected by said first azimuth indicator becomes θ+180°.
A method of processing a metallic gear 20, 201 comprising providing a gear 20, 201, directing a first peening media at the metallic gear 20, 201 thereby exposing a plurality of surfaces on the metallic gear 20, 201 to the first peening media whereby the strength and wear properties of the teeth roots of the gear are enhanced, washing the gear 20, 201, and rinsing the gear 20, 201 with rust inhibitor characterized by, prior to washing and rinsing: directing a second peening media at the metallic gear 20, 201 thereby exposing a plurality of surfaces on the metallic gear 20, 201 to the second peening media whereby the surface compressive stress of the surface of the gear 20, 201 is enhanced, providing a vibratory fine finishing container, placing a fine finishing medium comprising ceramic media in a slightly acidic solution in the vibratory fine finishing container, placing the gear 20, 201 with the fine finishing medium in the vibratory fine finishing container, coupling vibrations to the vibratory fine finishing container to vibrate the fine finishing medium with the gear 20, 201, and removing the gear 20, 201 from the vibratory fine finishing container upon achieving a fine finish of the gear 20, 201 from 5-25 Ra. directing a second peening media at the metallic gear 20, 201 thereby exposing a plurality of surfaces on the metallic gear 20, 201 to the second peening media whereby the surface compressive stress of the surface of the gear 20, 201 is enhanced, providing a vibratory fine finishing container, placing a fine finishing medium comprising ceramic media in a slightly acidic solution in the vibratory fine finishing container, placing the gear 20, 201 with the fine finishing medium in the vibratory fine finishing container, coupling vibrations to the vibratory fine finishing container to vibrate the fine finishing medium with the gear 20, 201, and removing the gear 20, 201 from the vibratory fine finishing container upon achieving a fine finish of the gear 20, 201 from 5-25 Ra.
An aircraft gas turbine engine comprising: a compressor system comprising a low pressure compressor coupled to a low pressure shaft, and a high pressure compressor coupled to a high pressure shaft; an inner core casing provided radially inwardly of compressor blades of the compressor system; a fan coupled to the low pressure shaft via a reduction gearbox; the high pressure compressor comprises an outer core casing arrangement provided radially outwardly of compressor blades of the high pressure compressor, the inner core casing and outer core casing arrangement defining a core working gas flow path therebetween; characterised in that the outer core casing arrangement comprises a first outer core casing and a second outer core casing spaced radially outward from the first outer core casing, and spaced radially inwardly from a bypass nacelle inner casing; wherein, at an axial plane of an inlet to the high pressure compressor, the second outer core casing has a radius greater than 0.25 times a radius of the fan. a compressor system comprising a low pressure compressor coupled to a low pressure shaft, and a high pressure compressor coupled to a high pressure shaft; an inner core casing provided radially inwardly of compressor blades of the compressor system; a fan coupled to the low pressure shaft via a reduction gearbox; the high pressure compressor comprises an outer core casing arrangement provided radially outwardly of compressor blades of the high pressure compressor, the inner core casing and outer core casing arrangement defining a core working gas flow path therebetween; characterised in that the outer core casing arrangement comprises a first outer core casing and a second outer core casing spaced radially outward from the first outer core casing, and spaced radially inwardly from a bypass nacelle inner casing; wherein, at an axial plane of an inlet to the high pressure compressor, the second outer core casing has a radius greater than 0.25 times a radius of the fan.
A connector carrier assembly for use with an electronic device recycling kiosk, the connector carrier assembly comprising: a support structure; a camshaft rotatably coupled to the support structure and including at least one cam lobe; and at least one cam follower movably coupled to the support structure and operably coupled to an electrical connector, wherein rotation of the camshaft about a longitudinal axis thereof drives the cam lobe against the cam follower to thereby move the electrical connector relative to the support structure; characterized in that the cam follower includes a proximal end portion pivotally coupled to the support structure and a distal end portion that holds the electrical connector, and wherein rotation of the camshaft about the longitudinal axis drives the cam lobe against the cam follower to rotate the cam follower about the proximal end portion. a support structure; a camshaft rotatably coupled to the support structure and including at least one cam lobe; and at least one cam follower movably coupled to the support structure and operably coupled to an electrical connector, wherein rotation of the camshaft about a longitudinal axis thereof drives the cam lobe against the cam follower to thereby move the electrical connector relative to the support structure; characterized in that the cam follower includes a proximal end portion pivotally coupled to the support structure and a distal end portion that holds the electrical connector, and wherein rotation of the camshaft about the longitudinal axis drives the cam lobe against the cam follower to rotate the cam follower about the proximal end portion.
Microwave frequency component of the electro-optical modulator type comprising a layer of dielectric material, formed by at least one thin layer, laid out between a ground electrode and a control electrode for controlling a microwave frequency electrical signal, such that: - the ground electrode extends on a first face, called a lower face, of the layer of dielectric material, - the control electrode extends longitudinally on a second face, called an upper face, of the layer of dielectric material, the microwave frequency component comprising a set of at least two coplanar electrodes extending all along the control electrode on either side of and at equal distance from the control electrode, characterized in that the width W in μ m of the control electrode and the thickness h in μ m of the layer of dielectric material satisfy the following equality: W = 2.5*h - 2, the thickness h being below 100 μm. - the ground electrode extends on a first face, called a lower face, of the layer of dielectric material, - the control electrode extends longitudinally on a second face, called an upper face, of the layer of dielectric material,
A method for detecting open chromatin in fixed or unfixed cell nuclei, comprising: (a) reacting a sample containing fixed or unfixed cell nuclei, wherein the cell nuclei comprise chromatin, with: (i) a reaction mixture comprising a nicking enzyme, and (ii) a ligase and adapters; and (b) enriching for, optionally amplifying, and then sequencing DNA fragments that comprise the adaptors. (a) reacting a sample containing fixed or unfixed cell nuclei, wherein the cell nuclei comprise chromatin, with: (i) a reaction mixture comprising a nicking enzyme, and (ii) a ligase and adapters; and (i) a reaction mixture comprising a nicking enzyme, and (ii) a ligase and adapters; and (b) enriching for, optionally amplifying, and then sequencing DNA fragments that comprise the adaptors.
A housing for an optoelectronic functional element, in particular an LED, comprising - an assembly comprising at least one base part and one top part; and - wherein a portion of the upper surface of the base part defines a mounting area for at least one optoelectronic functional element, so that the base part forms a heat sink for the optoelectronic functional element; and - wherein the top part extends at least partially around the circumference of the mounting area and defines a passage area (52, 61) above the mounting area for radiation emitted and/or to be received by the optoelectronic functional element; wherein - the top part comprises a metal and the base part comprises a metal; wherein the base part and the top part are joined at least by a first glass layer that is disposed between the upper surface of the base part and the lower surface of the top part, ch aracterized in that the upper surface of the base part is pre-oxidized and/or the lower surface of the top part is pre-oxidized; wherein at least the upper surface (1 a) of the base part and/or at least the lower surface of the top part is/are provided by copper; and the upper surface of the base part and/or the lower surface of the top part is/are pre-oxidized such that an oxide layer with a basis weight from 0.067 mg/cm 2 to 0.13 mg/cm 2 is formed. - an assembly comprising at least one base part and one top part; and - wherein a portion of the upper surface of the base part defines a mounting area for at least one optoelectronic functional element, so that the base part forms a heat sink for the optoelectronic functional element; and - wherein the top part extends at least partially around the circumference of the mounting area and defines a passage area (52, 61) above the mounting area for radiation emitted and/or to be received by the optoelectronic functional element; wherein - the top part comprises a metal and the base part comprises a metal; wherein the base part and the top part are joined at least by a first glass layer that is disposed between the upper surface of the base part and the lower surface of the top part, ch aracterized in that the upper surface of the base part is pre-oxidized and/or the lower surface of the top part is pre-oxidized; wherein at least the upper surface (1 a) of the base part and/or at least the lower surface of the top part is/are provided by copper; and the upper surface of the base part and/or the lower surface of the top part is/are pre-oxidized such that an oxide layer with a basis weight from 0.067 mg/cm 2 to 0.13 mg/cm 2 is formed. the upper surface of the base part is pre-oxidized and/or the lower surface of the top part is pre-oxidized; wherein at least the upper surface (1 a) of the base part and/or at least the lower surface of the top part is/are provided by copper; and the upper surface of the base part and/or the lower surface of the top part is/are pre-oxidized such that an oxide layer with a basis weight from 0.067 mg/cm 2 to 0.13 mg/cm 2 is formed.
A glass antenna for a vehicle window glass comprising: a slot antenna formed by cutting out a conductive film; and a pair of power supply units for supplying power to the slot antenna, wherein the slot antenna includes a power supply slot extended in a first direction and arranged so that the pair of power supply units straddle the power supply slot, a comb-tooth slot having a plurality of linear slots (21, 22, 23, 24) respectively extending parallel to each other in a second direction, and a root slot extended in a third direction, the root slot being connected to the power supply slot via a connection slot, and end portions of the plurality of linear slots (21, 22, 23, 24) being connected to the root slot so that the root slot and the plurality of linear slots (21, 22, 23, 24) are forming a shape of a fork's head portion, wherein the glass antenna is configured so that the first direction in which the power supply slot extends and the third direction in which the root slot extends are approximately vertical directions when the glass antenna is arranged at the vehicle window glass, wherein the glass antenna is configured so that the second direction in which the comb-tooth slot extends and a direction in which the connection slot extends are approximately horizontal directions when the glass antenna is arranged at the vehicle window glass. a slot antenna formed by cutting out a conductive film; and a pair of power supply units for supplying power to the slot antenna, wherein the slot antenna includes a power supply slot extended in a first direction and arranged so that the pair of power supply units straddle the power supply slot, a comb-tooth slot having a plurality of linear slots (21, 22, 23, 24) respectively extending parallel to each other in a second direction, and a root slot extended in a third direction, the root slot being connected to the power supply slot via a connection slot, and end portions of the plurality of linear slots (21, 22, 23, 24) being connected to the root slot so that the root slot and the plurality of linear slots (21, 22, 23, 24) are forming a shape of a fork's head portion, wherein the glass antenna is configured so that the first direction in which the power supply slot extends and the third direction in which the root slot extends are approximately vertical directions when the glass antenna is arranged at the vehicle window glass, wherein the glass antenna is configured so that the second direction in which the comb-tooth slot extends and a direction in which the connection slot extends are approximately horizontal directions when the glass antenna is arranged at the vehicle window glass.
A computing-implemented method for detection of timing attacks, the method comprising: generating a pseudo-random number, PRN; and transmitting a message during a protected transmission window of a data stream based on the PRN, a plurality of switching nodes communicating via the data stream, wherein a one of the plurality of switching nodes can independently generate the PRN, wherein two communicating nodes in a time-sensitive network, TSN, comprising the plurality of switching nodes, a transmitter, and a receiver have a synchronized pseudo-random number generator, PRNG, wherein on the side of the transmitter, a number received from the PRNG determines a transmission delay of a message, and wherein on the receiver side, the same number obtained from the PRNG determines an expectation on the arrival time of the message. generating a pseudo-random number, PRN; and transmitting a message during a protected transmission window of a data stream based on the PRN, a plurality of switching nodes communicating via the data stream, wherein a one of the plurality of switching nodes can independently generate the PRN, wherein two communicating nodes in a time-sensitive network, TSN, comprising the plurality of switching nodes, a transmitter, and a receiver have a synchronized pseudo-random number generator, PRNG, wherein on the side of the transmitter, a number received from the PRNG determines a transmission delay of a message, and wherein on the receiver side, the same number obtained from the PRNG determines an expectation on the arrival time of the message.
A differential assembly (100, 200) distributing torque from an input shaft (122, 322) to first and second output shafts (124, 126, 324, 326), the differential assembly (100, 200) comprising a ring gear receiving torque from the input shaft (122, 322), a carrier attached to and rotatable with the ring gear, a differential housing, and a bearing assembly supporting the carrier within the differential housing, the bearing assembly comprises a ball bearing and another bearing arranged on opposite sides of the ring gear, wherein along a common longitudinal axis of the two output shafts (124, 126, 324, 326) an axial distance between the other bearing and the ring gear is smaller than an axial distance between the ball bearing and the ring gear, characterised by that the other bearing is a cylindrical roller bearing.
A multi-level converter (100, 200) comprising: first and second DC buses (115a, 115b, 315a, 315b, 415a, 415b); a plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c) coupled in series between the first and second DC buses (115a, 115b, 315a, 315b, 415a, 415b); a clamp circuit configured to clamp a node joining a first transistor (Q1a, Q1b, Q1c) and a second transistor (Q2a, Q2b, Q2c) of the plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c) to a neutral node of the multi-level converter (100, 200); an AC node coupled to the plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c), wherein the second transistor (Q2a, Q2b, Q2c) is coupled between the clamped node (112a, 312, 412) and the AC node and the first transistor (Q1a, Q1b, Q1c) is coupled between the second transistor (Q2a, Q2b, Q2c) and the first DC bus (115a, 315a, 415a); and a bias circuit; characterised in that the bias circuit comprises a resistor (R1a, R1b, R1c) coupling the clamped node (112, 312, 412) to the second DC bus (115b, 315b, 415b). first and second DC buses (115a, 115b, 315a, 315b, 415a, 415b); a plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c) coupled in series between the first and second DC buses (115a, 115b, 315a, 315b, 415a, 415b); a clamp circuit configured to clamp a node joining a first transistor (Q1a, Q1b, Q1c) and a second transistor (Q2a, Q2b, Q2c) of the plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c) to a neutral node of the multi-level converter (100, 200); an AC node coupled to the plurality of transistors (Q1a, Q2a, Q1b, Q2b, Q1c, Q2c, Q3a, Q4a, Q3b, Q4b, Q3c, Q4c), wherein the second transistor (Q2a, Q2b, Q2c) is coupled between the clamped node (112a, 312, 412) and the AC node and the first transistor (Q1a, Q1b, Q1c) is coupled between the second transistor (Q2a, Q2b, Q2c) and the first DC bus (115a, 315a, 415a); and a bias circuit; characterised in that the bias circuit comprises a resistor (R1a, R1b, R1c) coupling the clamped node (112, 312, 412) to the second DC bus (115b, 315b, 415b).
A coupling unit consisting of a nipple portion and a coupling portion, a device for branching a liquid off from a pipe or a stationary unit or for supplying or removing a liquid from a flexible hose connection into a pipe or into a stationary unit or into a further flexible hose connection, wherein a portion of the coupling unit is fastened with a section in a pipe or in a stationary unit, wherein movably retained in the nipple portion and in the coupling portion there is a respective valve body biased by a spring into the closed position, wherein further the nipple portion consists of a nipple element and an inserted locking piece and the coupling portion consists of a coupling element and an inserted, further locking piece and they are thereby latched, whereby their axial cohesion is fixed and wherein O sealing rings are arranged between the inserted locking pieces and the nipple element and coupling element, respectively, characterised in that formed on the locking pieces (6, 8), the coupling element and on the nipple element there are projections (11, 14) which extend in the circumferential direction and in cross-section are substantially roof-shaped or substantially sawtooth-shaped and which extend around a portion of the entire periphery of the locking pieces (6, 8), of the coupling element and of the nipple element and, during the insertion process, are elastically deformed and latch behind one another and that at least one circumferential section of the locking pieces (6, 8), of the coupling element and of the nipple element is free of the roof-shaped or sawtooth-shaped projections (11, 14) and includes guide means for the rotationally fixed insertion process.
A delivery member for delivering an implantable medical device to a target location of a body vessel, the delivery member comprising: a distal hypotube comprising a distal end shaped to receive the implantable medical device; a flexible tubular section affixed to a proximal end of the distal hypotube, the flexible tubular section comprising openings therethrough; a proximal hypotube affixed to a proximal end of the flexible tubular section; a lumen extending through the distal hypotube, the flexible tubular section, and the proximal hypotube; characterised by: a stretch resistant member positioned outside of the lumen, affixed to the proximal hypotube, affixed to the distal hypotube, and extending along at least a portion of an outer surface of the flexible tubular section; and a flexible sleeve covering at least a majority of the outer surface of the flexible tubular section and stretch resistant member. a distal hypotube comprising a distal end shaped to receive the implantable medical device; a flexible tubular section affixed to a proximal end of the distal hypotube, the flexible tubular section comprising openings therethrough; a proximal hypotube affixed to a proximal end of the flexible tubular section; a lumen extending through the distal hypotube, the flexible tubular section, and the proximal hypotube; characterised by: a stretch resistant member positioned outside of the lumen, affixed to the proximal hypotube, affixed to the distal hypotube, and extending along at least a portion of an outer surface of the flexible tubular section; and a flexible sleeve covering at least a majority of the outer surface of the flexible tubular section and stretch resistant member. a stretch resistant member positioned outside of the lumen, affixed to the proximal hypotube, affixed to the distal hypotube, and extending along at least a portion of an outer surface of the flexible tubular section; and a flexible sleeve covering at least a majority of the outer surface of the flexible tubular section and stretch resistant member.