mhurhangee/ep-ind-claims huggingface dataset:
Thread feeding device for feeding a thread to a textile machine comprising a housing, a storage device, from which the thread is drawn off by the textile machine, a winding element for winding the thread onto the storage device, a drivable shaft (5, 50) for driving the winding element, a magnet arrangement for fixing the storage device onto the housing with a first magnet unit on the housing and a second magnet unit on the storage device, a bearing device for the rotatable bearing of the shaft (5, 50) relative to the storage device with the second magnet unit and a locking device for fixing the bearing device, wherein the winding element is designed to be rotatable with the shaft (5, 50) and is arranged between the two magnet units (6, 7), wherein the storage device has a storage body and a wobble body, and wherein the locking device has a locking element (18, 37), which is arranged at an outer end of the shaft (5, 50) and is connected via a thread to the shaft (5, 50), characterised in that for cleaning purposes a unit, which comprises the storage device, the second magnet unit and the bearing device, is designed to be movable on the shaft (5, 50) along a cleaning section, and in that the locking element (18, 37) is arranged on the unit, wherein the unit can be moved by releasing the locking element (18, 37).
An oral care implement comprising: a base portion sized for insertion into an oral cavity; and a plurality of flexible, elastomeric elements extending from the base portion, wherein: each of the plurality of flexible, elastomeric elements comprises an edge, at least one of the edges comprises a micro edge, and the plurality of flexible, elastomeric elements comprises an element density of less than about 5 mm and wherein at least one of the edges comprises an out-gassed edge. a base portion sized for insertion into an oral cavity; and a plurality of flexible, elastomeric elements extending from the base portion, each of the plurality of flexible, elastomeric elements comprises an edge, at least one of the edges comprises a micro edge, and the plurality of flexible, elastomeric elements comprises an element density of less than about 5 mm and wherein at least one of the edges comprises an out-gassed edge.
An isolation system for an electronic device that is configured to be mounted to a structure, the isolation system comprising: a flexible conductor configured to be electrically connected to the electronic device; and an isolator configured to be coupled between the electronic device and the structure such that the isolator is configured to attenuate at least one of shock or vibration exerted on the electronic device, at least a portion of the isolator being electrically conductive, wherein the isolator is electrically connected to the flexible conductor and is configured to be electrically connected to the structure such that the isolator provides an electrical path between the flexible conductor and the structure, characterised in that the flexible conductor comprises an approximately planar strap or a braid. a flexible conductor configured to be electrically connected to the electronic device; and an isolator configured to be coupled between the electronic device and the structure such that the isolator is configured to attenuate at least one of shock or vibration exerted on the electronic device, at least a portion of the isolator being electrically conductive, wherein the isolator is electrically connected to the flexible conductor and is configured to be electrically connected to the structure such that the isolator provides an electrical path between the flexible conductor and the structure, characterised in that the flexible conductor comprises an approximately planar strap or a braid.
A display device having a display region and a side region adjacent to the display region, and the display device characterised by comprising: a plurality of display units and a plurality of sensing units disposed in the display region; a display driver (120, 124), coupled to at least a portion of the plurality of display units, and comprising a plurality of first thin-film transistors (114a, 114b) having a first channel layer (1120a, 1120b); a sensor driver (122, 126), coupled to at least a portion of the plurality of sensing units, and comprising a plurality of second thin-film transistors (112a, 112b) having a second channel layer (1140a, 1140b); and a shielding layer (110, 110a, 110b, 71a, 71b) disposed between the at least a portion of the plurality of first thin-film transistors (114a, 114b) and the at least a portion of the plurality of second thin-film transistors (112a, 112b) in a cross-sectional view of the display device; wherein at least the portion of the plurality of first thin-film transistors (114a, 114b) and at least the portion of the plurality of second thin-film transistors (112a, 112b) are disposed in the side region; and the display driver (120, 124) and the sensor driver (122, 126) are overlapping with each other from a top view direction of the display device. a plurality of display units and a plurality of sensing units disposed in the display region; a display driver (120, 124), coupled to at least a portion of the plurality of display units, and comprising a plurality of first thin-film transistors (114a, 114b) having a first channel layer (1120a, 1120b); a sensor driver (122, 126), coupled to at least a portion of the plurality of sensing units, and comprising a plurality of second thin-film transistors (112a, 112b) having a second channel layer (1140a, 1140b); and a shielding layer (110, 110a, 110b, 71a, 71b) disposed between the at least a portion of the plurality of first thin-film transistors (114a, 114b) and the at least a portion of the plurality of second thin-film transistors (112a, 112b) in a cross-sectional view of the display device; wherein at least the portion of the plurality of first thin-film transistors (114a, 114b) and at least the portion of the plurality of second thin-film transistors (112a, 112b) are disposed in the side region; and the display driver (120, 124) and the sensor driver (122, 126) are overlapping with each other from a top view direction of the display device.
A method for influencing, in a region of action, magnetic particles that have been introduced into an object prior to the implementation of this method, which method has the following steps: a) detection of interfering material in or on the object, b) generation of a magnetic field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength where the magnetization of the magnetic particles is not saturated and a second sub-zone having a higher magnetic field strength where the magnetization of the magnetic particles is saturated are formed in the region of action, c) changing the position in space of the two sub-zones in the region of action so that the magnetization of the particles changes locally, d) acquiring signals that depend on the magnetization in the region of action, which magnetization is influenced by the above change in position; wherein, for the detection in step a), steps b) to d) are performed for a first time with a lower spatial resolution and/or at a lower speed, and the signals acquired are analyzed to obtain information at least on the presence of interfering material, and wherein, in the analysis, the signals acquired are examined for signal components that derive from interfering material. a) detection of interfering material in or on the object, b) generation of a magnetic field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength where the magnetization of the magnetic particles is not saturated and a second sub-zone having a higher magnetic field strength where the magnetization of the magnetic particles is saturated are formed in the region of action, c) changing the position in space of the two sub-zones in the region of action so that the magnetization of the particles changes locally, d) acquiring signals that depend on the magnetization in the region of action, which magnetization is influenced by the above change in position;
. A vehicle light-emitting device comprising: a light-emitting element having a peak emission wavelength of 400 nm or greater and 510 nm or less; and a fluorescent member containing a first phosphor excited by light emitted by the light-emitting element and emitting light having a peak emission wavelength of 480 nm or greater and 530 nm or less and a second phosphor excited by the light emitted by the light-emitting element and emitting light having a peak emission wavelength of 540 nm or greater and 600 nm or less, wherein the vehicle light-emitting device is configured to emit light having chromaticity existing in a region AL in a CIE 1931 chromaticity diagram in which chromaticity is defined by x and y coordinates, the region AL defined by a first L straight line connecting a first L point at first chromaticity coordinates (xL = 0.278, yL = 0.332) and a second L point at second chromaticity coordinates (xL = 0.468, yL = 0.458), a second L straight line connecting the second L point and a third L point at third chromaticity coordinates (xL = 0.426, yL = 0.498), a third L straight line connecting the third L point and a fourth L point at fourth chromaticity coordinates (xL = 0.247, yL = 0.362), and a fourth L straight line connecting the fourth L point and the first L point. a light-emitting element having a peak emission wavelength of 400 nm or greater and 510 nm or less; and a fluorescent member containing a first phosphor excited by light emitted by the light-emitting element and emitting light having a peak emission wavelength of 480 nm or greater and 530 nm or less and a second phosphor excited by the light emitted by the light-emitting element and emitting light having a peak emission wavelength of 540 nm or greater and 600 nm or less, wherein the vehicle light-emitting device is configured to emit light having chromaticity existing in a region AL in a CIE 1931 chromaticity diagram in which chromaticity is defined by x and y coordinates, the region AL defined by a first L straight line connecting a first L point at first chromaticity coordinates (xL = 0.278, yL = 0.332) and a second L point at second chromaticity coordinates (xL = 0.468, yL = 0.458), a second L straight line connecting the second L point and a third L point at third chromaticity coordinates (xL = 0.426, yL = 0.498), a third L straight line connecting the third L point and a fourth L point at fourth chromaticity coordinates (xL = 0.247, yL = 0.362), and a fourth L straight line connecting the fourth L point and the first L point.
A method of operating a shape sensing apparatus, the method comprising: receiving first shape data from a first shape sensor section including a first elongated optical fiber section extending between a first location coupled to a reference fixture and a second location coupled to a first target; receiving second shape data from a second shape sensor section including a second elongated optical fiber section extending between a third location coupled to the reference fixture and a fourth location coupled to the first target, wherein the first elongated optical fiber section between the first location and the second location has a different length than the second elongated optical fiber section between the third location and the fourth location; and determining a position of an end portion of the first shape sensor section using the second shape data from the second shape sensor section by adjusting the second shape data based upon a distance between the first and third locations and a distance between the second and fourth locations. receiving first shape data from a first shape sensor section including a first elongated optical fiber section extending between a first location coupled to a reference fixture and a second location coupled to a first target; receiving second shape data from a second shape sensor section including a second elongated optical fiber section extending between a third location coupled to the reference fixture and a fourth location coupled to the first target, wherein the first elongated optical fiber section between the first location and the second location has a different length than the second elongated optical fiber section between the third location and the fourth location; and determining a position of an end portion of the first shape sensor section using the second shape data from the second shape sensor section by adjusting the second shape data based upon a distance between the first and third locations and a distance between the second and fourth locations.
A pattern for lost-pattern casting, the pattern being in the shape of a turbomachine blade with a root and a body on either side of a platform that is substantially perpendicular to a main axis of the blade, said blade body presenting a pressure side, a suction side, a leading edge, and a trailing edge, the pattern also including an expansion strip adjacent to the trailing edge, and a refractory core embedded in the pattern but presenting, both on the pressure side and on the suction side, a respective flush varnished surface between the trailing edge and the expansion strip, the pattern being characterized in that it also includes a web extending between the platform and said expansion strip and presenting a free edge between them.
Concrete composition for shielding from ionizing radiation, such as neutron radiation, containing sand, grit, cement, water, colemanite, a concrete plasticizer and a hardening accelerator, with the following range specifications in weight fractions, in each case based on one m 3 of fresh concrete: Sand 20 to 32 wt.% Grit 46 to 58 wt.% Cement 12 to 20 wt.% Water 3 to 6 wt.% Colemanite 0.45 to 0.9 wt.% Concrete plasticizer 0.05 to 0.09 wt.% Hardening accelerator 0.4 to 1.1 wt.%.
A power converter having a boosting mechanism with a multi-shaft vertically stepped turbine throughout a vertical direction, wherein the vertical direction includes at least the direction of gravity; the power converter comprises: a plurality of first stepped turbine units, a plurality of first shaft rods, a plurality of second stepped turbine units, a plurality of second shaft rods and a third shaft rod, wherein the plurality of first shaft rods and the plurality of second shaft rods are alternately and uniformly distributed around the third shaft rod; the plurality of first stepped turbine units are sequentially arranged on the first shaft rods and the second shaft rods from top to bottom throughout the vertical direction; the first stepped turbine units are drivingly connected to the first shaft rods, and are rotatably connected to the second shaft rods; the plurality of second stepped turbine units are sequentially arranged on the first shaft rods and the second shaft rods from top to bottom throughout the vertical direction; the second stepped turbine units are drivingly connected to the second shaft rods, and are rotatably connected to the first shaft rods; the first stepped turbine unit is located above the second stepped turbine unit; and the second stepped turbine units and the first stepped turbine units rotate in opposite directions; characterized in that the power converter further comprises a shaft sleeve, a water inlet end base and an outer sleeve, wherein the water inlet end base is provided on an upper end of the outer sleeve; the shaft sleeve is provided inside the outer sleeve, and an upper end of the shaft sleeve extends out of the water inlet end base; the water inlet end base is provided with a plurality of water inlet holes; the first shaft rods, the second shaft rods and the third shaft rod are nested inside the shaft sleeve; the third shaft rod is provided in a central part of the shaft sleeve.
A switch device comprising: a switch; a casing accommodating the switch; a body including a pair of side wall portions (62R, 62L) extending upward from the casing, a front wall portion extending upward from the casing, a back wall portion extending upward from the casing, a first dust-proof portion extending horizontally backward from an upper end of the back wall portion, and a second dust-proof portion extending upward from a back end of the first dust-proof portion; and an operation knob including an upper surface portion which is swingably mounted on the body in front and back directions and covers an upper portion of the body, and a back surface portion which extends downward from the back end of the upper surface portion and faces the second dust-proof portion. a switch; a casing accommodating the switch; a body including a pair of side wall portions (62R, 62L) extending upward from the casing, a front wall portion extending upward from the casing, a back wall portion extending upward from the casing, a first dust-proof portion extending horizontally backward from an upper end of the back wall portion, and a second dust-proof portion extending upward from a back end of the first dust-proof portion; and a pair of side wall portions (62R, 62L) extending upward from the casing, a front wall portion extending upward from the casing, a back wall portion extending upward from the casing, a first dust-proof portion extending horizontally backward from an upper end of the back wall portion, and a second dust-proof portion extending upward from a back end of the first dust-proof portion; and an operation knob including an upper surface portion which is swingably mounted on the body in front and back directions and covers an upper portion of the body, and a back surface portion which extends downward from the back end of the upper surface portion and faces the second dust-proof portion. an upper surface portion which is swingably mounted on the body in front and back directions and covers an upper portion of the body, and a back surface portion which extends downward from the back end of the upper surface portion and faces the second dust-proof portion.
A circuit for supplying power, comprising: at least a first transformer, the first transformer comprising a primary winding and a secondary winding; a first circuit portion; and a second circuit portion, the first circuit portion comprising the primary winding of the first transformer, at least a first switch and a first sub-circuit, the first switch and the first sub-circuit arranged in parallel, the first sub-circuit comprising at least a first diode and a second sub-circuit, the first diode and the second sub-circuit arranged in series, the second sub-circuit comprising at least a first capacitor and at least a first load arranged in parallel, the second circuit portion comprising the secondary winding of the first transformer, at least a second diode and a third sub-circuit, the third sub-circuit comprising at least a second capacitor and at least a second load arranged in parallel, characterized by a third capacitor electrically connected between a cathode end of the third sub-circuit and the secondary winding of the first transformer, the second diode, the third sub-circuit and the third capacitor arranged in series. at least a first transformer, the first transformer comprising a primary winding and a secondary winding; a first circuit portion; and a second circuit portion, the first circuit portion comprising the primary winding of the first transformer, at least a first switch and a first sub-circuit, the first switch and the first sub-circuit arranged in parallel, the first sub-circuit comprising at least a first diode and a second sub-circuit, the first diode and the second sub-circuit arranged in series, the second sub-circuit comprising at least a first capacitor and at least a first load arranged in parallel, the second circuit portion comprising the secondary winding of the first transformer, at least a second diode and a third sub-circuit, the third sub-circuit comprising at least a second capacitor and at least a second load arranged in parallel, characterized by a third capacitor electrically connected between a cathode end of the third sub-circuit and the secondary winding of the first transformer, the second diode, the third sub-circuit and the third capacitor arranged in series. the third sub-circuit comprising at least a second capacitor and at least a second load arranged in parallel, characterized by a third capacitor electrically connected between a cathode end of the third sub-circuit and the secondary winding of the first transformer, the second diode, the third sub-circuit and the third capacitor arranged in series.
Sewage-pipe inspection system comprising a feed element for advancing an inspection device and comprising a clamping unit which is designed to be clamped as a counter-bearing for the feed element inside a sewage pipe, wherein the clamping unit comprises a central body which comprises a guide for the feed element and at least one inflatable cushion arranged on the circumference of the central body, which extends, at least in an uninflated state, across a first circumferential region of less than 360° around the central body, characterized in that the guide comprises a recess facing the outer circumference of the clamping unit and extending across the entire axial length of the guide, through which the feed element can be inserted into the guide from the outer circumference. the clamping unit comprises a central body which comprises a guide for the feed element and at least one inflatable cushion arranged on the circumference of the central body, which extends, at least in an uninflated state, across a first circumferential region of less than 360° around the central body, characterized in that the guide comprises a recess facing the outer circumference of the clamping unit and extending across the entire axial length of the guide, through which the feed element can be inserted into the guide from the outer circumference.
A delivery processing apparatus comprising: a recognition unit (28-1,..., 28-N) for performing recognition processing for recognizing information provided on a delivery target item based on an image obtained by capturing the image of the delivery target item; and a determination unit for determining whether or not to extend the recognition processing performed by the recognition unit (28-1,..., 28-N) characterized in that the determining is based on a degree of progress of the recognition processing that has been performed by the recognition unit (28-1,...,28-N) in a period from when the recognition processing was started by the recognition unit (28-1,..., 28-N) until a predetermined time has elapsed, and an extension rate that indicates a ratio of the number of times that the recognition unit (28-1,...,28-N) has extended the recognition processing to the number of times that the recognition unit (28-1,...,28-N) has performed the recognition processing. a recognition unit (28-1,..., 28-N) for performing recognition processing for recognizing information provided on a delivery target item based on an image obtained by capturing the image of the delivery target item; and a determination unit for determining whether or not to extend the recognition processing performed by the recognition unit (28-1,..., 28-N) characterized in that the determining is based on a degree of progress of the recognition processing that has been performed by the recognition unit (28-1,...,28-N) in a period from when the recognition processing was started by the recognition unit (28-1,..., 28-N) until a predetermined time has elapsed, and an extension rate that indicates a ratio of the number of times that the recognition unit (28-1,...,28-N) has extended the recognition processing to the number of times that the recognition unit (28-1,...,28-N) has performed the recognition processing.