mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery comprising: an electrode assembly; a case configured to accommodate the electrode assembly, the case comprising a bottom portion, long side portions (142, 143), and short side portions (144, 145), at least one of which comprises a welding portion and is bent and welded, wherein the welding portion comprises main welding portions and auxiliary welding portions; and a cap plate coupled to the case, wherein the auxiliary welding portions are overlapped with portions of the main welding portions to form a respective overlap-welded portion, and wherein the main welding portions are welded as line welds and the auxiliary welding portions are welded as side welds. an electrode assembly; a case configured to accommodate the electrode assembly, the case comprising a bottom portion, long side portions (142, 143), and short side portions (144, 145), at least one of which comprises a welding portion and is bent and welded, wherein the welding portion comprises main welding portions and auxiliary welding portions; and a cap plate coupled to the case, wherein the auxiliary welding portions are overlapped with portions of the main welding portions to form a respective overlap-welded portion, and wherein the main welding portions are welded as line welds and the auxiliary welding portions are welded as side welds.
Method of mounting a strain gauge arrangement, in particular for an axle counter, the strain gauge arrangement comprising - at least one strain sensor element, in particular an optical fiber with a fiber Bragg grating (6a, FBG), - a carrier, to which the strain sensor element is fastened, and - a structure to be monitored, in particular a railroad track, to which the carrier is fastened, wherein at least a part of the carrier is kept in an elastically deformed state by the structure when the carrier is fastened to the structure, wherein the carrier is embodied with a first carrier piece and a second carrier piece, which oppose one another in spaced apart fashion, and wherein the strain sensor element is fastened to the first carrier piece with at least one first fixing point, to the second carrier piece with at least one second fixing point, and to neither the first nor the second carrier piece (T1, T2) with a central section between the fixing points (7, 8), characterized by the following steps: a) at least the part of the carrier is elastically braced by means of a bracing element (41; 81); b) at least the part of the carrier is kept in the elastically braced state by means of the bracing element (41; 81) and the carrier is fastened, in particular adhesively bonded, to the structure to be monitored; c) the bracing element (41; 81) is removed. - at least one strain sensor element, in particular an optical fiber with a fiber Bragg grating (6a, FBG), - a carrier, to which the strain sensor element is fastened, and - a structure to be monitored, in particular a railroad track, to which the carrier is fastened, wherein at least a part of the carrier is kept in an elastically deformed state by the structure when the carrier is fastened to the structure, a) at least the part of the carrier is elastically braced by means of a bracing element (41; 81); b) at least the part of the carrier is kept in the elastically braced state by means of the bracing element (41; 81) and the carrier is fastened, in particular adhesively bonded, to the structure to be monitored; c) the bracing element (41; 81) is removed.
A security device for use with an electric vehicle, said security device comprising: a processor programmed to receive at least one signal representative of a disconnection between an energy delivery device of a charging station and a battery within the electric vehicle, said processor further programmed to generate a command signal based on the at least one signal; a control module coupled to said processor and configured to receive the command signal, said control module further configured to transmit a control signal to modulate a clamp to lock the battery to render the electric vehicle inoperable; and a communication interface coupled to said processor and configured to receive the at least one signal representative of the disconnection. a processor programmed to receive at least one signal representative of a disconnection between an energy delivery device of a charging station and a battery within the electric vehicle, said processor further programmed to generate a command signal based on the at least one signal; a control module coupled to said processor and configured to receive the command signal, said control module further configured to transmit a control signal to modulate a clamp to lock the battery to render the electric vehicle inoperable; and a communication interface coupled to said processor and configured to receive the at least one signal representative of the disconnection.
A system (100, 200, 300) for aerosols delivery, the system (100, 200, 300) comprising: an aerosol delivery device (140, 220, 320, 420) comprising a controllable aerosol release mechanism (224, 324, 424) configured to release aerosols based on a control signal; characterized in that the system further comprises a yawn detector (120, 242, 250, 350, 450, 442) configured to provide a yawn indicative signal in a subject; and a processing circuity (110, 240, 340, 440) configured to identify a yawn based on said yawn indicative signal and to provide a control signal to said aerosol release mechanism (224, 324, 424), thereby affect release of aerosols from said device (140, 220, 320, 420), preferably wherein said processing circuity (110, 240, 340, 440) is further configured to stimulate yawning in the subject. an aerosol delivery device (140, 220, 320, 420) comprising a controllable aerosol release mechanism (224, 324, 424) configured to release aerosols based on a control signal; characterized in that the system further comprises a yawn detector (120, 242, 250, 350, 450, 442) configured to provide a yawn indicative signal in a subject; and a processing circuity (110, 240, 340, 440) configured to identify a yawn based on said yawn indicative signal and to provide a control signal to said aerosol release mechanism (224, 324, 424), thereby affect release of aerosols from said device (140, 220, 320, 420), preferably wherein said processing circuity (110, 240, 340, 440) is further configured to stimulate yawning in the subject.
A system including an RFID device and a reader device, the RFID device comprising: a microchip; an antenna operatively coupled to the microchip; an impedance transforming section operatively coupled to the microchip and to the antenna; wherein the transforming section comprises a loop of conductor material having a pair of connection points (22, 24) for coupling the microchip to the transforming section; wherein changing an electrical characteristic of at least one component of the RFID device results in a complex reflected signal at the reader device representing a sensed state of a material in proximity to the RFID device; wherein the electrical characteristic of the RFID device component comprises a complex impedance that is a function of the state analyzed; characterized in that the complex reflected signal comprises a combination of an amplitude modulation and a phase modulation; and wherein the reader device is configured to analyze the magnitude and characteristics of the amplitude modulation and the phase modulation to evaluate the complex impedance and to derive the sensed state. a microchip; an antenna operatively coupled to the microchip; an impedance transforming section operatively coupled to the microchip and to the antenna; wherein the transforming section comprises a loop of conductor material having a pair of connection points (22, 24) for coupling the microchip to the transforming section; wherein changing an electrical characteristic of at least one component of the RFID device results in a complex reflected signal at the reader device representing a sensed state of a material in proximity to the RFID device; wherein the electrical characteristic of the RFID device component comprises a complex impedance that is a function of the state analyzed; characterized in that the complex reflected signal comprises a combination of an amplitude modulation and a phase modulation; and wherein the reader device is configured to analyze the magnitude and characteristics of the amplitude modulation and the phase modulation to evaluate the complex impedance and to derive the sensed state.
An improved method for caching image data intended for use with a head-mounted, augmented, mixed or virtual reality display system, HMD, having a graphics processing unit, GPU,, a holographic processing unit, HPU, with an on-chip cache, system memory, and a display, the GPU generating images that can include text, holographic objects and other visual elements that can be displayed on the display, the system memory for storing GPU images, and the HPU configured to perform late stage adjustments to correct GPU images for movement of the HMD that may occur during the image rendering process, and the on-chip cache for constructing an output image based on the GPU generated image and the late stage adjustments, and the HPU generating a late stage adjustment matrix that maps each pixel of the late stage adjusted output image to the corresponding pixel of the GPU image, the method comprising acts for: performing an initial pre-fetch of one or more rows of the GPU image from system memory, the one or more rows being selected in the order needed to construct the output image; writing the initially pre-fetched one or more rows of the GPU image into the on-chip cache in the order needed to construct the output image based on the late stage adjustment matrix; and producing a walk of the image data from the initially pre-fetched one or more rows of the GPU image in the on-chip cache to construct the output image in a raster scan order and according to the adjustment matrix and outputting the output image. performing an initial pre-fetch of one or more rows of the GPU image from system memory, the one or more rows being selected in the order needed to construct the output image; writing the initially pre-fetched one or more rows of the GPU image into the on-chip cache in the order needed to construct the output image based on the late stage adjustment matrix; and producing a walk of the image data from the initially pre-fetched one or more rows of the GPU image in the on-chip cache to construct the output image in a raster scan order and according to the adjustment matrix and outputting the output image.
A compound of formula I wherein R represents H, cyano, (C 1 -C 3)alkoxy, cyanomethoxy, (C 3 -C 6)cycloalkylmethoxy, hydroxy(C 2 -C 4)alkoxy, (C 1 -C 3)alkoxy-(C 2 -C 3)alkoxy, (C 1 -C 4)alkoxycarbonyl, 2-ethoxy-2-oxoethoxy, 2-(methylamino)-2-oxoethoxy, (1-cyanocyclobutyl)methoxy, 3-hydroxy-pyrrolidin-1-yl or (3,4-dihydroxycyclopentyl)methoxy; U 1 represents N or CR 1, U 2 represents N or CR 2, U 3 represents N or CR 3 and U 4 represents N or CR 4, it being understood that at most three of U 1, U 2, U 3 and U 4 can represent N at the same time; V 1 represents N or CR 5, V 2 represents N or CR 6, V 3 represents N or CR 7 and V 4 represents N or CH, it being understood that at most two of V 1, V 2, V 3 and V 4 can represent N at the same time; R 1 represents H, cyano, hydroxy or (C 1 -C 3)alkoxy; R 2 represents H, hydroxy or (C 1 -C 3)alkoxy; R 3 represents H, cyano, hydroxy, (C 1 -C 3)alkoxy or carboxamido; R 4 represents H, cyano, hydroxy or (C 1 -C 3)alkoxy; R 5 represents H, hydroxy or halogen; R 6 represents H, hydroxy or halogen; R 7 represents H; the dotted line "-----" represents a bond or is absent; W represents CH or N when the dotted line "-----" is a bond, or W represents CH 2 when the dotted line "-----" is absent; X represents CH or N; and Q represents O or S; or a salt of this compound. R represents H, cyano, (C 1 -C 3)alkoxy, cyanomethoxy, (C 3 -C 6)cycloalkylmethoxy, hydroxy(C 2 -C 4)alkoxy, (C 1 -C 3)alkoxy-(C 2 -C 3)alkoxy, (C 1 -C 4)alkoxycarbonyl, 2-ethoxy-2-oxoethoxy, 2-(methylamino)-2-oxoethoxy, (1-cyanocyclobutyl)methoxy, 3-hydroxy-pyrrolidin-1-yl or (3,4-dihydroxycyclopentyl)methoxy; U 1 represents N or CR 1, U 2 represents N or CR 2, U 3 represents N or CR 3 and U 4 represents N or CR 4, it being understood that at most three of U 1, U 2, U 3 and U 4 can represent N at the same time; V 1 represents N or CR 5, V 2 represents N or CR 6, V 3 represents N or CR 7 and V 4 represents N or CH, it being understood that at most two of V 1, V 2, V 3 and V 4 can represent N at the same time; R 1 represents H, cyano, hydroxy or (C 1 -C 3)alkoxy; R 2 represents H, hydroxy or (C 1 -C 3)alkoxy; R 3 represents H, cyano, hydroxy, (C 1 -C 3)alkoxy or carboxamido; R 4 represents H, cyano, hydroxy or (C 1 -C 3)alkoxy; R 5 represents H, hydroxy or halogen; R 6 represents H, hydroxy or halogen; R 7 represents H; the dotted line "-----" represents a bond or is absent; W represents CH or N when the dotted line "-----" is a bond, or W represents CH 2 when the dotted line "-----" is absent; X represents CH or N; and Q represents O or S;
A light emitting device comprising: a light emitting structure layer including a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a passivation layer formed at a lateral surface of the light emitting layer and including an insulating material; an electrode electrically connected to the first conductivity type semiconductor layer; an electrode layer disposed under the light emitting structure layer; a channel layer disposed under the light emitting structure layer and on the electrode layer, the channel layer having an inner portion and an outer portion, the inner portion provided at an outer peripheral portion of a lower portion of the light emitting structure layer, and the outer portion extending beyond a lateral surface of the light emitting structure layer from the inner portion; a conductive support member disposed under the electrode layer; and a first protrusion projecting from at least a portion of an upper edge of the conductive support member, wherein the first protrusion includes a mixture of metal materials constituting the electrode layer and the conductive support member, wherein the first protrusion has a height from the upper edge of the conductive support member higher than a top surface of the channel layer, wherein the first protrusion surrounds the channel layer and the electrode layer, wherein the first protrusion has the height lower than a height of an upper end of the light emitting structure layer. a light emitting structure layer including a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a passivation layer formed at a lateral surface of the light emitting layer and including an insulating material; an electrode electrically connected to the first conductivity type semiconductor layer; an electrode layer disposed under the light emitting structure layer; a channel layer disposed under the light emitting structure layer and on the electrode layer, the channel layer having an inner portion and an outer portion, the inner portion provided at an outer peripheral portion of a lower portion of the light emitting structure layer, and the outer portion extending beyond a lateral surface of the light emitting structure layer from the inner portion; a conductive support member disposed under the electrode layer; and a first protrusion projecting from at least a portion of an upper edge of the conductive support member, wherein the first protrusion includes a mixture of metal materials constituting the electrode layer and the conductive support member, wherein the first protrusion has a height from the upper edge of the conductive support member higher than a top surface of the channel layer, wherein the first protrusion surrounds the channel layer and the electrode layer, wherein the first protrusion has the height lower than a height of an upper end of the light emitting structure layer.
A method of purifying a crude acetone stream which comprises a. treating a crude acetone stream which comprises acetone and at least one low-boiling impurity with a solid acid catalyst to form a treated acetone stream that comprises acetone and at least one higher-boiling impurity than in the crude acetone stream; b. distilling the treated acetone stream to remove at least a portion of the higher-boiling impurity to produce a purified acetone stream, wherein the solid acid catalyst is selected from the group consisting of: ZSM-5 zeolite, HY zeolite and divinylbenzene-crosslinked sulfonated polystyrene resin. a. treating a crude acetone stream which comprises acetone and at least one low-boiling impurity with a solid acid catalyst to form a treated acetone stream that comprises acetone and at least one higher-boiling impurity than in the crude acetone stream; b. distilling the treated acetone stream to remove at least a portion of the higher-boiling impurity to produce a purified acetone stream,
Method for electrically connecting a conductor based on aluminum with a contact part, to which a cap-like contact part comprising a base and a cylindrical sleeve which is connected to it and is positioned at a distance from it, and is plugged onto the conductor in such a way that the end face of the conductor rests on the base of the contact part, characterized in that - the contact part has a first stable state in which the contact part is plugged onto the conductor without the sleeve being in contact with the conductor - the cylindrical sleeve consists of a plurality of individual flaps comprising have projections facing inwards in the radial direction, and in a second stable state under tension on the outer side of the conductor, wherein the flaps are pressed together, the projection is pressed into the outer side of the conductor, and the end face of the conductor is additionally firmly fixed to the base of the contact part, and - the base of the contact part and the end face of the conductor are subsequently welded together. - the contact part has a first stable state in which the contact part is plugged onto the conductor without the sleeve being in contact with the conductor - the cylindrical sleeve consists of a plurality of individual flaps comprising have projections facing inwards in the radial direction, and in a second stable state under tension on the outer side of the conductor, wherein the flaps are pressed together, the projection is pressed into the outer side of the conductor, and the end face of the conductor is additionally firmly fixed to the base of the contact part, and - the base of the contact part and the end face of the conductor are subsequently welded together.
An optoelectronic sensor, in particular a laser scanner, for detecting objects in a monitored area, the sensor comprising a light transmitter for transmitting transmission light, a movable deflection unit for periodically deflecting the transmission light, a light receiver for generating a reception signal from remitted transmission light remitted by objects in the monitored area, wherein light transmitter and light receiver are arranged coaxially and transmission beam path and reception beam path overlap, and a control and evaluation unit for detecting information about objects in the monitored area using the reception signal, wherein a shielding device is arranged around the beam path of the transmission light in order to suppress crosstalk of the transmission light to the light receiver, characterized in that a deflecting element (30, 44) is arranged in the beam path of the remitted transmission light in order to deflect a portion of the remitted transmission light (24a-b) to the light receiver, which portion, without the deflecting element (30, 44), would impinge on the shielding device.
An electrical box for engaging through a cavity formed in a wall, said electrical box comprising: • a rear body that is centered on a central axis and that includes a side wall; • at least one snap-fastener tab that comprises firstly a bendable strip that is attached to the rear body via an end edge and that is flexible so as to tilt between a deployed position and a retracted position towards the central axis (Al), and secondly a catch rim that is adapted to catch against the wall, that is carried by the bendable strip, and that is at a distance from said end edge that is substantially constant; and • at least one screw-fastener well that is adapted to receive the threaded shank of a fastener screw for fastening an accessory mechanism, and that is fastened to the snap-fastener tab; said electrical box being characterized in that the end edge of the snap-fastener tab is attached to said side wall in such a manner that the snap-fastener tab is stationary in translation relative to said side wall so that when the fastener screw is tightened in the screw-fastener well, the snap-fastener tab does not move away from the remainder of the rear body. • a rear body that is centered on a central axis and that includes a side wall; • at least one snap-fastener tab that comprises firstly a bendable strip that is attached to the rear body via an end edge and that is flexible so as to tilt between a deployed position and a retracted position towards the central axis (Al), and secondly a catch rim that is adapted to catch against the wall, that is carried by the bendable strip, and that is at a distance from said end edge that is substantially constant; and • at least one screw-fastener well that is adapted to receive the threaded shank of a fastener screw for fastening an accessory mechanism, and that is fastened to the snap-fastener tab; said electrical box being characterized in that the end edge of the snap-fastener tab is attached to said side wall in such a manner that the snap-fastener tab is stationary in translation relative to said side wall so that when the fastener screw is tightened in the screw-fastener well, the snap-fastener tab does not move away from the remainder of the rear body.
A fluid container, comprising: agile walls, having an initial configuration and comprising: a flexible interior layer defining a closed inner sampling volume; an outer layer; and two memory shape members, each having a substantially rectangular shape and being incorporated between the flexible inner layer and the outer layer such that the memory shape members will not come in contact with a fluid within the fluid container; wherein, after deformation of the memory shape members, the memory shape members provide a biasing force toward the initial configuration; and avalve connected through the flexible interior layer to the inner sampling volume; characterized in that two sides of the rectangular shape of each of the memory shape members are concave; and in that the valve is also connected through the outer layer to the inner sampling volume and in that the valve is configured to open and close to respectively allow or prevent a flow of the fluid into or out of the inner sampling volume. agile walls, having an initial configuration and comprising: a flexible interior layer defining a closed inner sampling volume; an outer layer; and two memory shape members, each having a substantially rectangular shape and being incorporated between the flexible inner layer and the outer layer such that the memory shape members will not come in contact with a fluid within the fluid container; wherein, after deformation of the memory shape members, the memory shape members provide a biasing force toward the initial configuration; and a flexible interior layer defining a closed inner sampling volume; an outer layer; and two memory shape members, each having a substantially rectangular shape and being incorporated between the flexible inner layer and the outer layer such that the memory shape members will not come in contact with a fluid within the fluid container; wherein, after deformation of the memory shape members, the memory shape members provide a biasing force toward the initial configuration; and