mhurhangee/ep-ind-claims huggingface dataset:
A high current electrical switch, comprising: a first primary conductor (12, 52); a second primary conductor (14, 54); characterised by an array (16, 56) of switching elements (34, 58) electrically connecting the first primary conductor to the second primary conductor and physically sandwiched between the first primary conductor and the second primary conductor; a printed circuit board (18, 60) with an interior cutout larger than the size of the array of switching elements and located substantially around the array of switching elements; wherein the array of switching elements has a resistance of less than 500 micro-ohms. a first primary conductor (12, 52); a second primary conductor (14, 54); characterised by an array (16, 56) of switching elements (34, 58) electrically connecting the first primary conductor to the second primary conductor and physically sandwiched between the first primary conductor and the second primary conductor; a printed circuit board (18, 60) with an interior cutout larger than the size of the array of switching elements and located substantially around the array of switching elements; wherein the array of switching elements has a resistance of less than 500 micro-ohms.
An imaging device positioning system for monitoring an anatomical region, the imaging device positioning system comprising: an imaging device for generating an image of the anatomical region; and an imaging device controller structurally configured to control a positioning of the imaging device relative to the anatomical region, wherein, in response to a generation by the imaging device of the image of the anatomical region, the imaging device controller is structurally configured to adapt the cycling of a positioning of the imaging device relative to the anatomical region between an imaging position and an non-imaging position based on the at least one physiological condition of the anatomical region extracted from the image of the anatomical region. an imaging device for generating an image of the anatomical region; and an imaging device controller structurally configured to control a positioning of the imaging device relative to the anatomical region, wherein, in response to a generation by the imaging device of the image of the anatomical region, the imaging device controller is structurally configured to adapt the cycling of a positioning of the imaging device relative to the anatomical region between an imaging position and an non-imaging position based on the at least one physiological condition of the anatomical region extracted from the image of the anatomical region.
A device (200; 600; 700) for emitting an electromagnetic wave front for being, in use, connected to a light source emitting a light beam, and comprising: - at least three emitting waveguides (220; 720), each including a rectilinear section (223; 623) which receives one or more element(s) for extracting optical power, called extracting element(s); and - upstream of each of said rectilinear sections, a respective phase shifting element; characterised in that: - the device further includes, upstream of each of said phase shifting elements, a respective optical coupler (260; 660), each optical coupler having an adjustable coupling rate; and - at least two of said rectilinear sections (223; 623) extend along straight lines which are not parallel to each other. - at least three emitting waveguides (220; 720), each including a rectilinear section (223; 623) which receives one or more element(s) for extracting optical power, called extracting element(s); and - upstream of each of said rectilinear sections, a respective phase shifting element; characterised in that: - the device further includes, upstream of each of said phase shifting elements, a respective optical coupler (260; 660), each optical coupler having an adjustable coupling rate; and - at least two of said rectilinear sections (223; 623) extend along straight lines which are not parallel to each other.
A capacitance-based blade tip clearance, BTC, probe, comprising: a housing (302; 402) having a body (307; 407); a hard lead comprising a hard shield (502; 402), a driven guard, and a lead wire; and a sensor element (324; 424) disposed within the housing (302; 402) and coupled to the lead wire, wherein the sensor element (324; 424) comprises a sensor head (326; 426) having a first vertex (602a; 602g), a second vertex (604a; 604g) and a third vertex (606a; 606g), characterised by the housing having a neck (310; 410) extending radially from the body (307; 407) coupled to the hard lead; and a cap (304; 405) coupled at a top surface of the body (307; 407) enclosing an interior volume of the housing (302; 402), wherein each of the first vertex, the second vertex, and the third vertex comprise an interior angle defining a triangular head, or wherein the sensor head (326; 426) further comprises a fourth vertex, a fifth vertex, and a sixth vertex defining a cranked arrow head, wherein the fifth vertex and the sixth define an area of relatively increased or decreased X-Z slope along a perimeter of the cranked arrow head between each of their respective adjacent vertexes, wherein the X and Z axes define a plane parallel to the sensor head (326, 426). a housing (302; 402) having a body (307; 407); a hard lead comprising a hard shield (502; 402), a driven guard, and a lead wire; and a sensor element (324; 424) disposed within the housing (302; 402) and coupled to the lead wire, wherein the sensor element (324; 424) comprises a sensor head (326; 426) having a first vertex (602a; 602g), a second vertex (604a; 604g) and a third vertex (606a; 606g), characterised by the housing having a neck (310; 410) extending radially from the body (307; 407) coupled to the hard lead; and a cap (304; 405) coupled at a top surface of the body (307; 407) enclosing an interior volume of the housing (302; 402), wherein each of the first vertex, the second vertex, and the third vertex comprise an interior angle defining a triangular head, or wherein the sensor head (326; 426) further comprises a fourth vertex, a fifth vertex, and a sixth vertex defining a cranked arrow head, wherein the fifth vertex and the sixth define an area of relatively increased or decreased X-Z slope along a perimeter of the cranked arrow head between each of their respective adjacent vertexes, wherein the X and Z axes define a plane parallel to the sensor head (326, 426).
A method for sending a Session Initiation Protocol, or SIP, protocol conforming response by a first node (BCS2-A) of a telecommunication network, the method comprising: - receiving by the first node (BCS2-A) a SIP request sent by a second node (BCS1-A) of the network; - detecting an event preventing a processing of this request by the first node; - sending to the second node a SIP response notifying this prevention; characterized in that it further comprises, before sending: - checking the capacity of the second node (BCS1-A) to interpret and process a parameter, - activating the parameter in the SIP response, the parameter authorizing a rerouting of the request by the second node (BCS1-A). - receiving by the first node (BCS2-A) a SIP request sent by a second node (BCS1-A) of the network; - detecting an event preventing a processing of this request by the first node; - sending to the second node a SIP response notifying this prevention; - checking the capacity of the second node (BCS1-A) to interpret and process a parameter, - activating the parameter in the SIP response, the parameter authorizing a rerouting of the request by the second node (BCS1-A).
A power cable comprising a conductor surrounded by one or more layers, wherein at least one of said layer(s) comprises a polymer composition having an electric conductivity of 0.50 x 10 -15 S/m or less, when measured according to DC conductivity method using a tape sample consisting of the polymer composition as described under "Determination Methods", the polymer composition comprising a polyolefin which is obtainable by a high pressure polymerisation process comprising the steps of: (a) compressing one or more monomer(s) under pressure in a compressor, wherein a compressor lubricant is used for lubrication, (b) polymerising a monomer optionally together with one or more comonomer(s) in a polymerisation zone, (c) separating the obtained polyolefin from the unreacted products and recovering the separated polyolefin in a recovery zone, wherein in step (a) the compressor lubricant comprises a mineral oil. (a) compressing one or more monomer(s) under pressure in a compressor, wherein a compressor lubricant is used for lubrication, (b) polymerising a monomer optionally together with one or more comonomer(s) in a polymerisation zone, (c) separating the obtained polyolefin from the unreacted products and recovering the separated polyolefin in a recovery zone,
A yarn imaging device comprising one or more sensing groups, wherein each sensing group includes: at least one illumination source for illuminating a yarn; and at least one digital image sensor positioned in such a way that said digital image sensor, in use, generates an image of the yarn passing in a direction of a yarn path, the image of the yarn being for determination of yarn characteristics, characterised in that the at least one digital image sensor comprises a rolling shutter, and the image rows of the digital image sensor are arranged such that the yarn path crosses the image rows of the digital image sensor, and wherein the yarn imaging device is configured to generate an updated image of the yarn by, during each frame update cycle of the digital image sensor, processing the image rows sequentially in the direction of the rolling shutter, and the image rows each comprise a line of photo-sites or photocells that the yarn imaging device is configured to expose and simultaneously process. at least one illumination source for illuminating a yarn; and at least one digital image sensor positioned in such a way that said digital image sensor, in use, generates an image of the yarn passing in a direction of a yarn path, the image of the yarn being for determination of yarn characteristics, characterised in that the at least one digital image sensor comprises a rolling shutter, and the image rows of the digital image sensor are arranged such that the yarn path crosses the image rows of the digital image sensor, and wherein the yarn imaging device is configured to generate an updated image of the yarn by, during each frame update cycle of the digital image sensor, processing the image rows sequentially in the direction of the rolling shutter, and the image rows each comprise a line of photo-sites or photocells that the yarn imaging device is configured to expose and simultaneously process.
A connector (10, 10A) comprising: a housing; and a terminal-equipped electric wire assembled to the housing, wherein the terminal-equipped electric wire includes: a terminal; an electric wire; and a flexible conductor (52; 101) provided between the terminal and the electric wire, wherein the housing includes an electric wire introduction portion extending downward in a direction orthogonal to a front-rear direction of the housing, and holding the electric wire, wherein the flexible conductor (52; 101) is divided into a plurality of divided conductor portions (77A, 77B) along an axial direction of the flexible conductor (52; 101) in a state of overlapping with each other in an upper-lower manner, and wherein the divided conductor portions (77A, 77B) are bent in different directions from each other. a housing; and a terminal-equipped electric wire assembled to the housing, wherein the terminal-equipped electric wire includes: a terminal; an electric wire; and a flexible conductor (52; 101) provided between the terminal and the electric wire, a terminal; an electric wire; and a flexible conductor (52; 101) provided between the terminal and the electric wire, wherein the housing includes an electric wire introduction portion extending downward in a direction orthogonal to a front-rear direction of the housing, and holding the electric wire, wherein the flexible conductor (52; 101) is divided into a plurality of divided conductor portions (77A, 77B) along an axial direction of the flexible conductor (52; 101) in a state of overlapping with each other in an upper-lower manner, and wherein the divided conductor portions (77A, 77B) are bent in different directions from each other.
Tool holder device which can be coupled to a machine which can rotate the device, the device comprising securing means for securing a tool and a body which comprises an anchoring element which allows coupling the device to the machine, wherein it comprises a movable part which can move in an axial direction, characterized in that said securing means are coupled to the movable part, wherein said movable part comprises a chamber hosting a pneumatic mechanism which comprises a pneumatic piston performing a linear movement in at least two directions, such that it can slide axially inside the chamber, wherein said pneumatic mechanism can cause an axial vibratory movement of the movable part, wherein the movable part further comprises conduit means (8, 23) configured for supplying compressed air to said pneumatic mechanism through said anchoring element and wherein the pneumatic piston further comprises inner conduits, said compressed air being carried to said inner conduits traversing the piston and opening into the chamber on axially opposite faces of the pneumatic mechanism, thus producing the axial vibratory movement of the pneumatic piston.
A method for determining the potential for an HBV to exhibit reduced sensitivity to a nucleoside analogue, said method comprising isolating DNA or corresponding mRNA from said HBV and screening for a mutation in the nucleotide sequence encoding HBV DNA polymerase resulting in at least one amino acid mutation being selected from one or more of N/S/H584T, N/S/H584A and H584I, wherein the presence of such a mutation is an indication of the likelihood of resistance to said nucleoside analogue.
Apparatus for preparing refrigerated products, comprising a containment tank suitable to contain the product to be prepared; a mixing device arranged inside said tank and suitable to cause the continuous circulation of the product inside the same tank, in order to convey the product towards a front zone of said tank; a cooling device arranged inside said tank to cool said product; a dispenser device for the product, positioned at said front zone of the containment tank, said containment tank being insulated by means of thermally insulating walls (21, 22) so as to reduce the thermal exchange between the external environment and the inside of the same tank, characterized in that said thermally insulating walls comprise a tank body arranged between a couple of lateral walls made hermetically integral to the same tank body to realize an interspace, said tank body being closed, at the front side, by a wall which extends in front of a further wall, shaped in a single piece with the same front wall and suitably distanced to define a relevant interspace with respect to the same front wall, said further wall being suitable to frontally close in a hermetic manner a first internal wall of said thermally insulating walls (21, 22) of the tank, said front wall having at a lower part a profiled portion protruding for a tract sufficient to incorporate a sleeve of said dispenser device which is in communication with the inside of said tank, said profiled portion being suitable to define an insulation interspace for said sleeve.
An optical device having a plurality of coloured pixels, each said pixel comprising a filter structure, the filter structure comprising: a first metallic layer; a dielectric layer over said first metallic layer; and a second metallic layer over said dielectric layer; wherein said second metallic layer comprises a nanostructured metallic layer having a lateral structure with features having at least one characteristic lateral dimension equal to or less than 1μm, and wherein said second metallic layer is structured to couple light incident on said second metallic layer into at least two absorption modes (135a, 140a) of the filter structure, one to either side of a target wavelength, such that said filter structure appears coloured at said target wavelength in reflected or transmitted light, wherein said lateral dimension is a direction within a plane defined by the second metallic layer, the optical device further comprising a controllable polarizer in an optical path through the filter structure, wherein the controllable polarizer is configured to select an optical response of the pixel, wherein said selection of the optical response comprises controlling a colour of the pixel. a first metallic layer; a dielectric layer over said first metallic layer; and a second metallic layer over said dielectric layer; wherein said second metallic layer comprises a nanostructured metallic layer having a lateral structure with features having at least one characteristic lateral dimension equal to or less than 1μm, and wherein said second metallic layer is structured to couple light incident on said second metallic layer into at least two absorption modes (135a, 140a) of the filter structure, one to either side of a target wavelength, such that said filter structure appears coloured at said target wavelength in reflected or transmitted light, wherein said lateral dimension is a direction within a plane defined by the second metallic layer,
A method of data communication, comprising: providing a sequence of symbols to be transmitted on a 3-wire interface, wherein each symbol in the sequence of symbols defines one of three voltage states for each wire of the 3-wire interface, and wherein all wires of the 3-wire interface are in different voltage states from one another during transmission of each symbol; driving all wires of the 3-wire interface to a common voltage state during a predetermined time interval during a transition from a first transmitted symbol to a second transmitted symbol, wherein the common voltage state is selected according to time required for one or more of the three wires to be driven from the common voltage state to one of the three voltage states, and wherein the predetermined time interval is determined so as to enable each of the three wires to reach the common voltage level; and driving each wire of the 3-wire interface in accordance with the second transmitted symbol after the predetermined time interval has elapsed; wherein the three voltage states include a first voltage state, a second voltage state greater than the first voltage state, and a mid-level voltage state that lies between the first voltage state and the second voltage state, and wherein the common voltage state lies between the first voltage state and the second voltage state. providing a sequence of symbols to be transmitted on a 3-wire interface, wherein each symbol in the sequence of symbols defines one of three voltage states for each wire of the 3-wire interface, and wherein all wires of the 3-wire interface are in different voltage states from one another during transmission of each symbol; driving all wires of the 3-wire interface to a common voltage state during a predetermined time interval during a transition from a first transmitted symbol to a second transmitted symbol, wherein the common voltage state is selected according to time required for one or more of the three wires to be driven from the common voltage state to one of the three voltage states, and wherein the predetermined time interval is determined so as to enable each of the three wires to reach the common voltage level; and driving each wire of the 3-wire interface in accordance with the second transmitted symbol after the predetermined time interval has elapsed; wherein the three voltage states include a first voltage state, a second voltage state greater than the first voltage state, and a mid-level voltage state that lies between the first voltage state and the second voltage state, and wherein the common voltage state lies between the first voltage state and the second voltage state.
Olive trees beating machine for olive crop collection, constituted of a motor and of a hollow bar hand held by the user, through which a flexible, rotating shaft passes from the motor to a rotating head, of olive crop beating mechanisms, wherein the olive crop beating mechanisms achieve the beating with the help of flexible bars' oscillation, converting at the contact with the tree branches the rotational motion of a bar bearer into an oscillation motion of the flexible bars through a wedge formed boss, resulting in the collection of the olive crop within a small radius without hurting the tree, characterized in that on the rotating head and between the olive crop beating mechanisms tubular elements made of plastic material are freely and co-axially accommodated on the rotating shaft.
Rotor for an electric machine of a motor vehicle drivetrain, wherein the rotor comprises a rotor carrier having - a radial supporting region, - an axial supporting region that extends axially with respect to the axis of rotation of the rotor and is connected to the radial supporting region, said axial supporting region having an outer circumferential face and having an inner circumferential face, - a magnetic flux conducting rotor component which is arranged on the outer circumferential face of the axial supporting region, wherein - the axial supporting region has a form-fitting profile, extending in the axial direction of the rotor, for receiving the magnetic flux conducting rotor component in a form-fitting manner, characterized in that the axial supporting region has, on its inner circumferential face, a form-fitting profile for receiving an element that rotates as one with the rotor, wherein recesses in the form-fitting profile of the one circumferential face serve at the same time as elevations in the form-fitting profile of the in each case other circumferential face facing away therefrom, such that the form-fitting profile embodied on the one circumferential face at the same time forms the form-fitting profile of the in each case other circumferential face. - a radial supporting region, - an axial supporting region that extends axially with respect to the axis of rotation of the rotor and is connected to the radial supporting region, said axial supporting region having an outer circumferential face and having an inner circumferential face, - a magnetic flux conducting rotor component which is arranged on the outer circumferential face of the axial supporting region, wherein - the axial supporting region has a form-fitting profile, extending in the axial direction of the rotor, for receiving the magnetic flux conducting rotor component in a form-fitting manner,