mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging unit for use in an endoscope, the imaging unit comprising: an optical element (1101; 1201; 1301; 1402) comprising one or more lenses; a sensor configured to receive light from the optical element (1101; 1201; 1301; 1402); a connector (1110; 4925) coupled to the sensor, wherein the connector (1110; 4925) comprises: a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section , wherein the second section (1115, 1120; 4920) is transverse to the first section; and a circuit board (1103; 1304) coupled to the second section (1115, 1120; 4920), wherein the sensor communicates electronically with the circuit board (1103; 1304) through the connector (1110; 4925), wherein the circuit board (1103; 1304) is transverse to the second section (1115, 1120; 4920) and the first section, wherein the first section, the second section (1115; 1120; 4920), and the circuit board (1103; 1304) are planar, and wherein the second section (1115; 1120; 4920) is L-shaped. an optical element (1101; 1201; 1301; 1402) comprising one or more lenses; a sensor configured to receive light from the optical element (1101; 1201; 1301; 1402); a connector (1110; 4925) coupled to the sensor, wherein the connector (1110; 4925) comprises: a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section , wherein the second section (1115, 1120; 4920) is transverse to the first section; and a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section , wherein the second section (1115, 1120; 4920) is transverse to the first section; and a circuit board (1103; 1304) coupled to the second section (1115, 1120; 4920), wherein the sensor communicates electronically with the circuit board (1103; 1304) through the connector (1110; 4925), wherein the circuit board (1103; 1304) is transverse to the second section (1115, 1120; 4920) and the first section, wherein the first section, the second section (1115; 1120; 4920), and the circuit board (1103; 1304) are planar, and wherein the second section (1115; 1120; 4920) is L-shaped.
A method for sending multicast data, comprising: establishing (S210), by a core network user plane network element, a plurality of data connections to a terminal, which may be one user equipment or a plurality of user equipments; determining (S220), by the core network user plane network element, a first data connection, wherein the first data connection is a part of the plurality of data connections; and receiving (S230), by the core network user plane network element, multicast data sent to the terminal; characterized in that the method further comprises: sending (S240), by the core network user plane network element, the multicast data to an access network element only through the first data connection. establishing (S210), by a core network user plane network element, a plurality of data connections to a terminal, which may be one user equipment or a plurality of user equipments; determining (S220), by the core network user plane network element, a first data connection, wherein the first data connection is a part of the plurality of data connections; and receiving (S230), by the core network user plane network element, multicast data sent to the terminal; characterized in that the method further comprises: sending (S240), by the core network user plane network element, the multicast data to an access network element only through the first data connection.
Method for producing a profile assembly having a first profile and having a second profile connected on its long side to the first profile , which two profiles each have a hook strip integrally formed on the long side, wherein the hook projection of the hook strip of the first profile points in the one direction and the hook projection of the hook strip of the second profile points in the opposite direction, and the hook strips are brought into engagement with one another in a claw-like manner, wherein the first profile has an anchoring channel following its longitudinal extent, provided by its hook strip and comprising a base , and the hook strip of the second profile has a clamping strip which is integrally formed thereon, which hook strip is secured by its hook projection and its clamping strip in the anchoring channel of the other profile by means of a cold-joining connection, wherein, in order to produce the cold-joining connection, one of the two hook strips comprises an adjusting strip which is formed by the cold-joining process, and which is supported in the produced profile assembly by its free end face while being under prestress, wherein the hook strip of the second profile secured in the anchoring channel is placed under prestress within the anchoring channel of the first profile at two points situated opposite one another in the direction of the height of the profile assembly , under prestress with respect to the adjoining portions of the first profile as a result of the cold-joining connection, and, in the profile assembly , the outer surface of the clamping strip takes effect against the base of the anchoring channel , characterized in that the pressure exerted by the cold-joining process onto the rear side of the clamping strip is applied by way of the base of the anchoring channel into the material of the first profile encompassing the anchoring channel , which leads to the hook strip of this profile being braced in such a way as to be pressed into the hook receiver of the hook strip of the second profile , carrying the clamping strip .
Radio-frequency shielding unit for shielding a radio-frequency antenna unit of a magnetic resonance apparatus , wherein the radio-frequency shielding unit comprises: - a support layer; - a first conducting layer ; - an electrically isolating insulating layer ; and - a second conducting layer ; wherein the first conducting layer is arranged between the support layer and the insulating layer, wherein the insulating layer is arranged between the first conducting layer and the second conducting layer , characterised in that an electrical capacitance is produced by the spatial separation of the two conducting layers by the insulating layer ; wherein the insulating layer has a layer thickness (d 3 ) of 50 μm maximum, wherein the insulating layer is applied to the first conducting layer at least in part by a spray-coating process and/or a printing process. - a support layer; - a first conducting layer ; - an electrically isolating insulating layer ; and - a second conducting layer ;
Method of manufacturing an electrostatic surge protection device , comprising the steps of: implanting in a first portion (A) of a very heavily doped semiconductor substrate of a first conductivity type, a first heavily doped buried layer of a second conductivity type; implanting in a second portion (B) of the substrate a second heavily doped buried layer of the first conductivity type, said second portion (B) being different from said first portion (A); forming by epitaxy a first lightly doped layer of the second conductivity type on at least the first buried layer ; and forming a second heavily doped layer of the second conductivity type on at least the first lightly doped layer , the method comprising performing a series of anneals causing the diffusion of the dopant atoms of the substrate through the first buried layer , to form a third layer of the first conductivity type between the first buried layer and the first layer . implanting in a first portion (A) of a very heavily doped semiconductor substrate of a first conductivity type, a first heavily doped buried layer of a second conductivity type; implanting in a second portion (B) of the substrate a second heavily doped buried layer of the first conductivity type, said second portion (B) being different from said first portion (A); forming by epitaxy a first lightly doped layer of the second conductivity type on at least the first buried layer ; and forming a second heavily doped layer of the second conductivity type on at least the first lightly doped layer , the method comprising performing a series of anneals causing the diffusion of the dopant atoms of the substrate through the first buried layer , to form a third layer of the first conductivity type between the first buried layer and the first layer .
A cosmetic composition comprising, in a continuous aqueous phase, - at least one colouring agent chosen from hydrophobic treated nacres; - at least one hydrophilic gelling agent; - water. - at least one colouring agent chosen from hydrophobic treated nacres; - at least one hydrophilic gelling agent; - water.
Method for cleaning up, in particular for removing, unwanted data of an optically recorded, virtual representation of teeth and intraoral structures, the representation showing at least two, preferably at least three, successive teeth, wherein the method comprises the following steps: a. defining an extension line of the representation, which line substantially follows an arch of the jaw having the at least two successive teeth, a1. dividing the extension line into points for generating projection planes, the points preferably being distributed equidistantly, b. generating a projection plane at one of the points of the extension line, the extension line being normal to the generated projection plane at this point, c. projecting all known spatial points of the representation from one region on the projection plane onto the projection plane, the region corresponding to a disk or a wedge in front of and/or behind the projection plane, the corresponding spatial point being stored for each projected point, d. generating a two-dimensional curve on the projection plane from the projected points, e. determining maxima, minima and a center of the curve, f. identifying projected points on the curve that are outside the minima or maxima when viewed from the center of the curve, g. removing the spatial points that correspond to the projected points that were identified in step f., h. repeating the process from step b. if necessary for another point on the extension line. a. defining an extension line of the representation, which line substantially follows an arch of the jaw having the at least two successive teeth, a1. dividing the extension line into points for generating projection planes, the points preferably being distributed equidistantly, b. generating a projection plane at one of the points of the extension line, the extension line being normal to the generated projection plane at this point, c. projecting all known spatial points of the representation from one region on the projection plane onto the projection plane, the region corresponding to a disk or a wedge in front of and/or behind the projection plane, the corresponding spatial point being stored for each projected point, d. generating a two-dimensional curve on the projection plane from the projected points, e. determining maxima, minima and a center of the curve, f. identifying projected points on the curve that are outside the minima or maxima when viewed from the center of the curve, g. removing the spatial points that correspond to the projected points that were identified in step f., h. repeating the process from step b. if necessary for another point on the extension line.
An electrical connection element comprising a metal conductive body that is made out of a first material and that houses a spring blade , said spring blade being adapted to press the stripped core of a conductive wire that is inserted into said connection element against an inside face of a wall of the body , the electrical connection element being characterized in that the inside face of the wall of the body is provided with a contact element that is made out of a second material that is different from the first material, and against which said spring blade is adapted to press said stripped core of the conductive wire when said stripped core is inserted into the connection element , said second material presenting contact resistance with the stripped core of the electric wire that is lower than the contact resistance between the first material and the stripped core of the electric wire.
Device for actuating a circuit-breaker , comprising a handle input module for introducing an input movement, wherein a deflection module for deflecting the input movement and an output module for transmitting the input movement to a circuit-breaker are provided, and wherein at least one lever is provided, of which the dynamic lever length is variably adjustable, characterized in that a sliding piece and/or an interface element for a ball joint which can be fixed discretely or continuously in a plurality of operating positions is/are accommodated within the lever .
A backlight unit for a display device comprising: a light source separated from a light diffuser by a predetermined distance, the light source being arranged to radiate light towards the light diffuser ; and a lens unit installed between the light diffuser and the light source , and comprising a surface facing the light source, a surface of the lens unit comprising a reflective area coated with a reflective material and arranged to reflect a portion of the light radiated from the light source, and a transmissive area arranged to transmit another portion of the light radiated from the light source; wherein: the light source has an elongated shape extending parallel to the light diffuser ; and the lens unit is arranged in an elongated shape corresponding to the elongated shape of the light source ; and the transmissive area is formed along the central axis in the lengthwise direction of the surface of the lens unit, and the reflective area is formed on either side of the transmissive area, wherein the reflective area comprises a first reflective area and a second reflective area divided from each other by the transmissive area, wherein the first reflective area and the second reflective area are curved and are inclined symmetrically to each other and inclined relative to a plane parallel to the light diffuser, characterised in that the surface of the lens unit facing the light source comprises the reflective and transmissive areas ; the light source comprises a plurality of optical elements , the plurality of optical elements being arranged in a strip shape in a plane parallel to the light diffuser ; and the lens unit is arranged in a strip shape corresponding to the strip shape of the plurality of optical elements . a light source separated from a light diffuser by a predetermined distance, the light source being arranged to radiate light towards the light diffuser ; and a lens unit installed between the light diffuser and the light source , and comprising a surface facing the light source, a surface of the lens unit comprising a reflective area coated with a reflective material and arranged to reflect a portion of the light radiated from the light source, and a transmissive area arranged to transmit another portion of the light radiated from the light source; wherein: the light source has an elongated shape extending parallel to the light diffuser ; and the lens unit is arranged in an elongated shape corresponding to the elongated shape of the light source ; and the transmissive area is formed along the central axis in the lengthwise direction of the surface of the lens unit, and the reflective area is formed on either side of the transmissive area, wherein the reflective area comprises a first reflective area and a second reflective area divided from each other by the transmissive area, wherein the first reflective area and the second reflective area are curved and are inclined symmetrically to each other and inclined relative to a plane parallel to the light diffuser,
A co-extruded monofilament having a first and a second cross sectional part, wherein the first part is a shell around the second part , wherein the first part has a pyrethroid incorporated but no PBO incorporated in a polymeric material of the first part , the second part having PBO incorporated in a polymeric material of the second part .
A wristband with closure providing a tamper-proof closure for a wristband , comprising a wristband and a wristband closure , wherein the wristband closure comprises: - a base body holding a part, preferably an end part, of the wristband; - a closing body for closing the wristband by means of receiving a further part of the wristband between the base body and the closing body; - a closing assembly for providing an enclosed closure between the base body and the closing body on one side of the wristband closure; - a hinge assembly for providing a pivotable connection between the base body and the closing body on an opposite side, the closing assembly providing a once only closing by comprising a snap closure connection comprising at least one snap-in element which is enclosed in the base body once it has been snapped in. - a base body holding a part, preferably an end part, of the wristband; - a closing body for closing the wristband by means of receiving a further part of the wristband between the base body and the closing body; - a closing assembly for providing an enclosed closure between the base body and the closing body on one side of the wristband closure; - a hinge assembly for providing a pivotable connection between the base body and the closing body on an opposite side, the closing assembly providing a once only closing by comprising a snap closure connection comprising at least one snap-in element which is enclosed in the base body once it has been snapped in.
A computer-implemented method of evaluating the internal structure of a retinal nerve fiber layer (RNFL) of a retina by analysis of the RNFL in an Optical Coherence Tomography (OCT) image of the retina, wherein the OCT image comprises an upper reflective region which is used for RNFL analysis, and a lower reflective region , and wherein the OCT image further comprises a plurality of colored or greyscale dots whereby each dot represents a different cell type, the method comprising the steps of: (a) identifying the upper reflective region of the OCT image for RNFL analysis, the upper reflective region representing the RNFL of the retina; (b) determining a pixel color value of each dot; (c) discretizing the color of each dot in the upper reflective region of a colored OCT image of the retina into one of four or more colors, each of the four or more colours including a range of pixel colour values, or alternatively discretizing the tonality of each dot in the upper reflective region of a greyscale OCT image of the retina into the nearest of four tonalities; the discretizing step comprising assigning the color of each dot by placing the pixel color value of the dot into an appropriate pixel color range; (d) tallying the numbers of the discretized dots in each of the four or more colors in the colored OCT image or each of the four tonalities in the greyscale OCT image; and (e) comparing the dot tallies to tallies from a normative database; and deriving scores based on the degree of deviation from the normative tallies. (a) identifying the upper reflective region of the OCT image for RNFL analysis, the upper reflective region representing the RNFL of the retina; (b) determining a pixel color value of each dot; (c) discretizing the color of each dot in the upper reflective region of a colored OCT image of the retina into one of four or more colors, each of the four or more colours including a range of pixel colour values, or alternatively discretizing the tonality of each dot in the upper reflective region of a greyscale OCT image of the retina into the nearest of four tonalities; the discretizing step comprising assigning the color of each dot by placing the pixel color value of the dot into an appropriate pixel color range; (d) tallying the numbers of the discretized dots in each of the four or more colors in the colored OCT image or each of the four tonalities in the greyscale OCT image; and (e) comparing the dot tallies to tallies from a normative database; and deriving scores based on the degree of deviation from the normative tallies.
An apparatus , comprising: an input transistor (M31) configured to generate an output data signal at an output terminal based on an input data signal applied to a control terminal of the input transistor; a first over-voltage protection transistor (M35) coupled in series with the input transistor between the output terminal and a voltage rail, wherein the first over-voltage protection transistor includes a control terminal configured to receive a first bias voltage (vbias1) based on a voltage at the output terminal, and wherein the first bias voltage biases the first over-voltage protection transistor to prevent over-voltage stress to the first over-voltage protection transistor and the input transistor; and a first bias voltage generator configured to generate the first bias voltage, wherein the output terminal comprises differential output terminals (txn, txp), wherein the first bias voltage generator comprises a common-mode sensor configured to generate a common-mode voltage (VCM) based on the voltage across the differential output terminals, and wherein the first bias voltage is based on the common mode voltage. an input transistor (M31) configured to generate an output data signal at an output terminal based on an input data signal applied to a control terminal of the input transistor; a first over-voltage protection transistor (M35) coupled in series with the input transistor between the output terminal and a voltage rail, wherein the first over-voltage protection transistor includes a control terminal configured to receive a first bias voltage (vbias1) based on a voltage at the output terminal, and wherein the first bias voltage biases the first over-voltage protection transistor to prevent over-voltage stress to the first over-voltage protection transistor and the input transistor; and a first bias voltage generator configured to generate the first bias voltage, wherein the output terminal comprises differential output terminals (txn, txp), wherein the first bias voltage generator comprises a common-mode sensor configured to generate a common-mode voltage (VCM) based on the voltage across the differential output terminals, and wherein the first bias voltage is based on the common mode voltage.