mhurhangee/ep-ind-claims huggingface dataset:
A heat treatment method for a rod-shaped workpiece, comprising a heating step of inductively heating a rod-shaped workpiece having an outer peripheral surface with a circular cross section to a quenching temperature while continuously conveying the rod-shaped workpiece at a predetermined velocity along an axial direction of the rod-shaped workpiece, wherein, in the heating step, the rod-shaped workpiece being currently conveyed is heated to a predetermined temperature equal to or lower than the quenching temperature by a first heating coil, which is electrically connected to a first high-frequency power supply to keep an output from the first heating coil constant, said first heating coil has an axial dimension that is longer than an axial dimension of the rod-shaped workpiece, and then the rod-shaped workpiece being currently conveyed is heated to be maintained at the quenching temperature by a second heating coil, which is electrically connected to a second high-frequency power supply to keep an output from the second heating coil constant, said second heating coil has an axial dimension that is longer than the axial dimension of the rod-shaped workpiece. wherein, in the heating step, the rod-shaped workpiece being currently conveyed is heated to a predetermined temperature equal to or lower than the quenching temperature by a first heating coil, which is electrically connected to a first high-frequency power supply to keep an output from the first heating coil constant, said first heating coil has an axial dimension that is longer than an axial dimension of the rod-shaped workpiece, and then the rod-shaped workpiece being currently conveyed is heated to be maintained at the quenching temperature by a second heating coil, which is electrically connected to a second high-frequency power supply to keep an output from the second heating coil constant, said second heating coil has an axial dimension that is longer than the axial dimension of the rod-shaped workpiece.
Decoder for reconstructing a predetermined block of a depth/disparity map associated with a picture from a data stream, configured to segment a texture reference block of the picture, co-located to the predetermined block, depending on a texture feature of the picture within the texture reference block by performing edge detection and/or thresholding so as to obtain a bi-segmentation of the texture reference block into first and second partitions; spatially transfer the bi-segmentation of the texture reference block of the picture onto the predetermined block of the depth/disparity map so as to obtain first and second partitions of the predetermined block, and decode the predetermined block in units of the first and second partitions (202a, 202b), wherein the decoder is configured such that the segmentation, spatial transfer and decoding form one of a first set of coding options of the decoder, which is not part of a second set of coding options of the decoder, wherein the decoder is further configured to determine a dispersion of values of samples within the texture reference block of the picture; and retrieve a coding option identifier from the data stream, use the coding option identifier as an index into the first set of coding options in case of the dispersion exceeding a predetermined threshold, with performing the segmentation, spatial transfer and decoding onto the predetermined block if the index points to the one coding option, and as an index into the second set of coding options in case of the dispersion not exceeding the predetermined threshold.
A display system (60, 250) comprising: a plurality of light pipes, each light pipe having a light input surface and a light output surface at opposing ends of the light pipe; a plurality of light sources configured to emit light into the light input surface of the light pipes, wherein one or more light sources are configured to emit light of different wavelengths than other light sources; and a spatial light modulator configured to modulate light received from the light output surface of the light pipes to form images, wherein each light pipe is oriented to localize outputted light on a different location on the spatial light modulator than other light pipes. a plurality of light pipes, each light pipe having a light input surface and a light output surface at opposing ends of the light pipe; a plurality of light sources configured to emit light into the light input surface of the light pipes, wherein one or more light sources are configured to emit light of different wavelengths than other light sources; and a spatial light modulator configured to modulate light received from the light output surface of the light pipes to form images, wherein each light pipe is oriented to localize outputted light on a different location on the spatial light modulator than other light pipes.
A method of authenticated key exchange between a correspondent B and a correspondent A in a data communication system, said correspondent A and said correspondent B having a shared key K, said method comprising: (a) said correspondent A generating a first public value G A for use as a session public key and sending to said correspondent B said first value G A and a value x 2; (b) said correspondent A receiving from said correspondent B a second public value G B used by correspondent B as a session public key, a value y 1, a value y 2, identification information of said correspondent A, and a first keyed hash of said values G B, G A, x 2, y 1 and said identification information of said correspondent A, said first keyed hash obtained by said correspondent B using a shared key K; (c) said correspondent A computing a first verification keyed hash of said values G B, G A, x 2, y 1 and said identification information of said correspondent A, said first verification keyed hash using said shared key K; and (d) said correspondent A verifying that said first keyed hash equals said first verification keyed hash; wherein said value x 2 represents a value E K (k), the result of applying an encryption function E with key K on a value k wherein said correspondent B can retrieve the value k from said value x 2 and said key K, said value k being used as a shared session key with said correspondent A. (a) said correspondent A generating a first public value G A for use as a session public key and sending to said correspondent B said first value G A and a value x 2; (b) said correspondent A receiving from said correspondent B a second public value G B used by correspondent B as a session public key, a value y 1, a value y 2, identification information of said correspondent A, and a first keyed hash of said values G B, G A, x 2, y 1 and said identification information of said correspondent A, said first keyed hash obtained by said correspondent B using a shared key K; (c) said correspondent A computing a first verification keyed hash of said values G B, G A, x 2, y 1 and said identification information of said correspondent A, said first verification keyed hash using said shared key K; and (d) said correspondent A verifying that said first keyed hash equals said first verification keyed hash;
Manufacturing process for manufacturing a reinforced panel; the process comprising: - advancing a substantially flat reinforcing element along a longitudinal direction; - extruding at least a layer of polymer material on said reinforcing element during the advance along the longitudinal direction so as to embed the reinforcing element in the extruded polymer material; - shaping the polymer material and the reinforcing element so as to obtain a same profile comprising at least a corrugated portion or a wavy portion in cross section along a section plane orthogonal to said longitudinal direction; characterized in that the reinforcing element has a plurality of through holes; the polymer material, when deposited on said reinforcing element during extrusion, being still fluid so that it automatically and completely fills said holes. - advancing a substantially flat reinforcing element along a longitudinal direction; - extruding at least a layer of polymer material on said reinforcing element during the advance along the longitudinal direction so as to embed the reinforcing element in the extruded polymer material; - shaping the polymer material and the reinforcing element so as to obtain a same profile comprising at least a corrugated portion or a wavy portion in cross section along a section plane orthogonal to said longitudinal direction;
An active material included in a power supply element having a medium to proceed an oxidation-reduction reaction and to donate lithium ions, the active material, comprising: a lithium active material; and a composite layer, entirely covering the lithium active material to block moisture and oxygen from the lithium active material, comprising: a metal protection layer, comprising a first protection material and a second protection material, the first protection material forming an alloy with lithium metal/ion provided by the medium, and the second protection material being unalloyable with lithium metal/ion; and a metal structural layer; a barrier layer that separates the lithium active material and the composite layer and is lithium-unalloyable; wherein the lithium active material is in the shape of granule or sheet and the metal structural layer does not alloy with lithium metal/ion, and wherein the metal protection layer becomes loosened after an alloying reaction to provide paths for the lithium active material to proceed with an electrical-chemical reaction and the metal structural layer serves as concluding points of an adhesion of the active material. a lithium active material; and a composite layer, entirely covering the lithium active material to block moisture and oxygen from the lithium active material, comprising: a metal protection layer, comprising a first protection material and a second protection material, the first protection material forming an alloy with lithium metal/ion provided by the medium, and the second protection material being unalloyable with lithium metal/ion; and a metal structural layer; a metal protection layer, comprising a first protection material and a second protection material, the first protection material forming an alloy with lithium metal/ion provided by the medium, and the second protection material being unalloyable with lithium metal/ion; and a metal structural layer; a barrier layer that separates the lithium active material and the composite layer and is lithium-unalloyable; wherein the lithium active material is in the shape of granule or sheet and the metal structural layer does not alloy with lithium metal/ion, and wherein the metal protection layer becomes loosened after an alloying reaction to provide paths for the lithium active material to proceed with an electrical-chemical reaction and the metal structural layer serves as concluding points of an adhesion of the active material.
An optical glass having refractive index (n d) of from 1.71 to 2.00, density (d) of at most 5.0 g/cm 3, a temperature T 2 at which the viscosity of the glass is logη=2 of from 750 to 1,200°C, and devitrification temperature of at most 1,300°C, and which contains, as represented by mol% based on oxides: TiO 2: 0% to 21.5%, Nb 2 O 5: 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2, ZrO 2, WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2: 46% to 65%. density (d) of at most 5.0 g/cm 3, a temperature T 2 at which the viscosity of the glass is logη=2 of from 750 to 1,200°C, and devitrification temperature of at most 1,300°C, and which contains, as represented by mol% based on oxides: TiO 2: 0% to 21.5%, Nb 2 O 5: 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2, ZrO 2, WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2: 46% to 65%. TiO 2: 0% to 21.5%, Nb 2 O 5: 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2, ZrO 2, WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2: 46% to 65%.
A dipping sonar comprising an antenna (20; 50; 80) equipped with acoustic transmitters and receivers, characterised in that it further comprises a motorised winch having a reel, an actuator configured to turn the reel and a cable wound around the reel, in that the winch is disposed in the antenna, and in that the cable enables the antenna to be hooked onto a holder (10, 16) at a free end of the cable.
A film for transparent conductive layer lamination, comprising a transparent resin film substrate having laminated thereon a composite layer which at least includes a transparent resin layer A, a metal layer having an opening, and a transparent resin layer B containing inorganic fine particles provided in the opening, whereby the metal layer and the transparent resin layer B containing inorganic fine particles are composing the face of the composite layer on the side opposite to the face of the transparent resin film substrate side, wherein the content of the inorganic fine particles in the total volume of the transparent resin layer B containing inorganic fine particles is from 20 to 70% by volume, and wherein the inorganic fine particles are silica fine particles. wherein the content of the inorganic fine particles in the total volume of the transparent resin layer B containing inorganic fine particles is from 20 to 70% by volume, and wherein the inorganic fine particles are silica fine particles.
An elastomeric dental floss composition comprising: a. a blend of an elastomeric block copolymer and polypropylene, wherein the elastomeric block copolymer comprises a styrene-ethylene/butylene-styrene block copolymer and wherein the polypropylene comprises 1% to 50% by weight of the blend; and b. a plasticizer. a. a blend of an elastomeric block copolymer and polypropylene, wherein the elastomeric block copolymer comprises a styrene-ethylene/butylene-styrene block copolymer and wherein the polypropylene comprises 1% to 50% by weight of the blend; and b. a plasticizer.
A button which comprises a button body (10, 10a, 10b) and a fastener (20, 20a, 20b) adapted to be arranged on the side of cloth opposite to the side thereof on which said button body (10, 10a, 10b) is set in place to nip the cloth therebetween and to fixedly secure the button body (10, 10a, 10b) to the cloth, said button body (10, 10a, 10b) containing an outer shell member, which comprises a button back (15, 15a, 15b) and a cap (14, 14a, 14b), and an insert (11, 11a, 11b) accommodated in the outer shell member, characterized in that all of said button back (15, 15a, 15b), said cap (14, 14a, 14b) and said insert (11, 11a, 11b) are made of an aluminum alloy, wherein a side portion of said button back (15, 15a, 15b) has the Vickers hardness of Hv 110-140, and wherein a portion of said button back (15, 15b) with which said fastener (20, 20b) comes into contact has the Vickers hardness of Hv 80-105.
A method, executing on a host device that is remote to a head unit of an automobile, comprising: identifying current operating characteristics associated with the head unit; providing view components of an application to the head unit for execution by the head unit, the application includes one or more view components, one or more model components, and one or more controller components; dynamically selecting model components of the application in real time to be executed by the head unit based on the current operating characteristics; dynamically selecting controller components of the application in real time to be executed by the head unit based on the current operating characteristics; dynamically providing the selected model components and the selected controller components to the head unit for execution by the head unit as the current operating characteristics change over time; and executing non-selected model components of the application and non-selected controller components of the application on the host device. identifying current operating characteristics associated with the head unit; providing view components of an application to the head unit for execution by the head unit, the application includes one or more view components, one or more model components, and one or more controller components; dynamically selecting model components of the application in real time to be executed by the head unit based on the current operating characteristics; dynamically selecting controller components of the application in real time to be executed by the head unit based on the current operating characteristics; dynamically providing the selected model components and the selected controller components to the head unit for execution by the head unit as the current operating characteristics change over time; and executing non-selected model components of the application and non-selected controller components of the application on the host device.
A method for controlling an idle mode in a wireless device, the method comprising: determining neighborhood conditions of the wireless device, which includes determining the presence and states of other wireless devices in the neighborhood of the wireless device; adaptively setting an idle mode duty cycle used for at least preamble transmission by the wireless device responsive to the determined neighborhood conditions; wherein when determination of neighborhood conditions of the wireless device includes determining at least another wireless device operating in at least one of an active mode and an idle mode in a vicinity of the wireless device; the method further comprising: transmitting the preamble transmission including a minimum distance value configured to communicate to at least one neighboring serving wireless device the presence of the at least another wireless device operating in active mode or idle mode in the vicinity of the wireless device. determining neighborhood conditions of the wireless device, which includes determining the presence and states of other wireless devices in the neighborhood of the wireless device; adaptively setting an idle mode duty cycle used for at least preamble transmission by the wireless device responsive to the determined neighborhood conditions; wherein when determination of neighborhood conditions of the wireless device includes determining at least another wireless device operating in at least one of an active mode and an idle mode in a vicinity of the wireless device; the method further comprising: transmitting the preamble transmission including a minimum distance value configured to communicate to at least one neighboring serving wireless device the presence of the at least another wireless device operating in active mode or idle mode in the vicinity of the wireless device. transmitting the preamble transmission including a minimum distance value configured to communicate to at least one neighboring serving wireless device the presence of the at least another wireless device operating in active mode or idle mode in the vicinity of the wireless device.
A method for producing a radar image, the method comprising: (a) receiving a set of optical images of an object to be imaged taken by an optical sensor from varying positions relative to the object; (b) receiving a sequence of radar measurements of the object taken by a radar sensor from varying positions relative to the object; (c) determining the trajectory of the optical sensor relative to the object based on the optical images using structure from motion, wherein structure from motion uses target feature tracks in combination with distance measurements from the sequence of radar measurements to estimate a structure of the object and the trajectory of the optical sensor relative to the object; (d) determining the trajectory of the radar sensor relative to the object based on the relative positions of the radar sensor and optical sensor and based on the trajectory of the optical sensor; and (e) forming a synthetic aperture radar, hereinafter referred to as SAR, image of the object based on the radar measurements and the determined trajectory. (a) receiving a set of optical images of an object to be imaged taken by an optical sensor from varying positions relative to the object; (b) receiving a sequence of radar measurements of the object taken by a radar sensor from varying positions relative to the object; (c) determining the trajectory of the optical sensor relative to the object based on the optical images using structure from motion, wherein structure from motion uses target feature tracks in combination with distance measurements from the sequence of radar measurements to estimate a structure of the object and the trajectory of the optical sensor relative to the object; (d) determining the trajectory of the radar sensor relative to the object based on the relative positions of the radar sensor and optical sensor and based on the trajectory of the optical sensor; and (e) forming a synthetic aperture radar, hereinafter referred to as SAR, image of the object based on the radar measurements and the determined trajectory.
A method for verifying a servo pattern, the method comprising: positioning a read head to read a servo pattern, the servo pattern comprising a plurality of frames written on a servo band contained in a tape; moving the tape across the read head; scanning the read head across the servo band in a direction orthogonal to the direction of motion of the tape, wherein the scanning of the read head is slow relative to the length of the frames to enable demodulation of the servo pattern; reading and demodulating the servo pattern; generating a statistical analysis based on the demodulated servo pattern by evaluating at least one statistical metric as a function of position across the servo band, said at least one statistical metric including a frame loss rate and/or the variation between peak amplitudes of the demodulated servo pattern; and verifying the servo pattern based on the statistical analysis. positioning a read head to read a servo pattern, the servo pattern comprising a plurality of frames written on a servo band contained in a tape; moving the tape across the read head; scanning the read head across the servo band in a direction orthogonal to the direction of motion of the tape, wherein the scanning of the read head is slow relative to the length of the frames to enable demodulation of the servo pattern; reading and demodulating the servo pattern; generating a statistical analysis based on the demodulated servo pattern by evaluating at least one statistical metric as a function of position across the servo band, said at least one statistical metric including a frame loss rate and/or the variation between peak amplitudes of the demodulated servo pattern; and verifying the servo pattern based on the statistical analysis.