mhurhangee/ep-ind-claims huggingface dataset:
A hinge device for pivotably supporting a door wing on a frame, a casement or the like, having at least two strap hinges (1, 2), one of which has a height adjusting device for vertically adjusting the door wing with respect to the frame, the casement or the like, wherein the height adjusting device has an eccentric, by the rotation of which a hinge plate on the side of the door wing, which includes the strap hinge including the height adjusting device, and thus the door wing, can be adjusted with respect to the frame, the casement or the like, characterized in that another one of the at least two strap hinges (1, 2) has a side adjusting device for horizontally adjusting the door wing with respect to the frame/casement opening or the like, wherein the strap hinge, which includes the height adjusting device, is freely adjustable in horizontal direction and the strap hinge, which includes the side adjusting device, is freely adjustable in vertical direction, and that the strap hinge having height adjustment does not have a side adjusting device having an eccentric, and that the strap hinge having side adjusting device does not have a height adjustment having an eccentric.
A laser processing apparatus (1A, 1B, 1D, 1E) for welding stacked resin members (UR, DR) to each other by using laser light, the apparatus comprising: a semiconductor laser (20A, 20B, 20D, 20E) for generating laser light; a pressure applying unit for receiving and pressing the stacked resin members; and a filter, disposed between the semiconductor laser and the pressure applying unit, for blocking light having a wavelength to become an observation wavelength for measuring a temperature of a welding area (DA, UA) in the light generated by the semiconductor laser; and wherein the apparatus is arranged such that light generated by the semiconductor laser that is not blocked by the filter is used for welding the stacked resin members to each other at the welding area, and such that thermally radiating light generated at the welding area and having a wavelength blocked by the filter is used for measuring the temperature of the welding area, characterised in that the filter blocks light of a wavelength range that does not include an oscillation wavelength of the semiconductor laser, the wavelength range including the range of 1100 nm to 2800 nm. a semiconductor laser (20A, 20B, 20D, 20E) for generating laser light; a pressure applying unit for receiving and pressing the stacked resin members; and a filter, disposed between the semiconductor laser and the pressure applying unit, for blocking light having a wavelength to become an observation wavelength for measuring a temperature of a welding area (DA, UA) in the light generated by the semiconductor laser; and wherein the apparatus is arranged such that light generated by the semiconductor laser that is not blocked by the filter is used for welding the stacked resin members to each other at the welding area, and such that thermally radiating light generated at the welding area and having a wavelength blocked by the filter is used for measuring the temperature of the welding area, characterised in that the filter blocks light of a wavelength range that does not include an oscillation wavelength of the semiconductor laser, the wavelength range including the range of 1100 nm to 2800 nm.
A biopsy device, comprising: a housing maintaining a stylet and a cannula; a control device coupled to the housing and operable to move the stylet and the cannula with respect to the housing; and a handle coupled with the control device to retract the stylet and the cannula, wherein the handle includes first and second wings (74a, 74b) extending from opposite sides of the housing and configured to be grasped by a user, characterized in that the control device is configured to advance the stylet and cannula once the stylet and cannula are retracted via the handle, wherein the handle is either foldable or removable from the housing to modify the device from a loading configuration to a delivery configuration; wherein in the delivery configuration the biopsy device has a reduced profile for obtaining a tissue sample. a housing maintaining a stylet and a cannula; a control device coupled to the housing and operable to move the stylet and the cannula with respect to the housing; and a handle coupled with the control device to retract the stylet and the cannula, wherein the handle includes first and second wings (74a, 74b) extending from opposite sides of the housing and configured to be grasped by a user, characterized in that the control device is configured to advance the stylet and cannula once the stylet and cannula are retracted via the handle, wherein the handle is either foldable or removable from the housing to modify the device from a loading configuration to a delivery configuration; wherein in the delivery configuration the biopsy device has a reduced profile for obtaining a tissue sample.
Capsule (1A, 1B, 1C, 1D, 1E) for the preparation of a beverage in a beverage machine by feeding liquid in the capsule and extracting a beverage out of the capsule, wherein the capsule comprises containment walls (6, 7, 8, 10) forming an interior cavity containing beverage precursor for mixing with the liquid in the cavity; characterized in that the beverage precursor is purely roast and ground coffee; wherein the beverage precursor comprises a combination of non-compacted beverage extractable powder and pellets of compacted beverage extractable powder and wherein the largest dimension of each pellet is at least 3.5 millimeters. characterized in that the beverage precursor is purely roast and ground coffee; wherein the beverage precursor comprises a combination of non-compacted beverage extractable powder and pellets of compacted beverage extractable powder and wherein the largest dimension of each pellet is at least 3.5 millimeters.
A method for linearizing attenuation measurements obtained by means of a direct conversion spectrometer comprising a radiation source and a detector for detecting said radiation after it has passed through an object, an attenuation measurement being represented by a vector M d giving the attenuation of the radiation in a plurality N k of energy channels of the detector, the actual attenuation of the material constituting the object being resolved according to a characteristic base of the attenuation in this material, μ n, n = 1,..., N with N ≥ 2; said spectrometer being characterized by a response matrix ψ giving, for a plurality N k of energy channels of the detector, the probability that a photon emitted in an energy bin h = 1,..., N h is detected in an energy channel, said method being characterized in that it estimates a vector M lin, called an equivalent linear attenuation vector, giving for each energy channel an attenuation linearly depending on the thickness of material through which the radiation passes, said method comprising an initialization step (510, 610) wherein M lin is estimated by the attenuation measurement M d and a succession of iterations, each iteration j providing an estimate M̂ lin ( j) and comprising: (a) a step (520, 620) of projecting the estimate M̂ lin ( j -1) of M lin obtained at the previous iteration onto an image base ψμ n, n = 1,..., N, image by said response matrix Ψ of said characteristic base of the attenuation of the material; (b) a step of determining an energy non linear deformation, T, (530, 631-633) of the components of the estimate M̂ lin ( j -1) for obtaining a corresponding attenuation M r d j in said different energy channels, in accordance with a non linear model of the spectrometer; (c) a step (540, 640) of reverse deformation of the components of M d to provide a new estimate M̂ lin ( j) of the equivalent linear attenuation M lin of said attenuation measurement, or of the components ĉ 1,..., ĉ N of said equivalent linear attenuation M lin in said image base. (a) a step (520, 620) of projecting the estimate M̂ lin ( j -1) of M lin obtained at the previous iteration onto an image base ψμ n, n = 1,..., N, image by said response matrix Ψ of said characteristic base of the attenuation of the material; (b) a step of determining an energy non linear deformation, T, (530, 631-633) of the components of the estimate M̂ lin ( j -1) for obtaining a corresponding attenuation M r d j in said different energy channels, in accordance with a non linear model of the spectrometer; (c) a step (540, 640) of reverse deformation of the components of M d to provide a new estimate M̂ lin ( j) of the equivalent linear attenuation M lin of said attenuation measurement, or of the components ĉ 1,..., ĉ N of said equivalent linear attenuation M lin in said image base.
An anti-icing system comprising: a deicing boot of an elastomeric material comprising a plurality of tubes, wherein the deicing boot comprises a first set of tubes and a second set of tubes, wherein the first set of tubes has a first end and the second set of tubes has a second end, characterized in that the first end and the second end are coupled to a continuous dual wrap end closure configured to inhibit fluid communication between the first set of tubes and the second set of tubes; and in that the continuous dual wrap end closure comprises a continuous non-elastomeric tape, and in that the continuous non-elastomeric tape defines a first layer and a second layer, wherein the first end of the first set of tubes is enclosed by the first layer and the second end of the second set of tubes is enclosed by the second layer. a deicing boot of an elastomeric material comprising a plurality of tubes, wherein the deicing boot comprises a first set of tubes and a second set of tubes, wherein the first set of tubes has a first end and the second set of tubes has a second end, characterized in that the first end and the second end are coupled to a continuous dual wrap end closure configured to inhibit fluid communication between the first set of tubes and the second set of tubes; and in that the continuous dual wrap end closure comprises a continuous non-elastomeric tape, and in that the continuous non-elastomeric tape defines a first layer and a second layer, wherein the first end of the first set of tubes is enclosed by the first layer and the second end of the second set of tubes is enclosed by the second layer.
A heating cooker comprising: a main body; a cooking room arranged inside the main body and configured to receive a food item to be heated; a heating device configured to heat the food item; a window arranged on one side of the cooking room; a measuring device arranged outside the cooking room and inside the main body, facing the food item through the window; and at least one processor configured to control the measuring device to obtain a three dimensional shape of the food item and control the heating device to heat the food item based on the 3D shape of the food item, wherein the measuring device comprises: a supporting shaft that is rotatable; a supporting frame configured to support the supporting shaft; a beam irradiator arranged at the supporting shaft and configured to irradiate a beam of light onto the food item; and a capturer arranged at the supporting shaft to be at a distance from the beam irradiator and configured to capture the beam projected on the food item, wherein the at least one processor is configured to control rotation of the supporting shaft and obtain the 3D shape of the food item based on image information obtained by the capturer as the supporting shaft is rotated, wherein the at least one processor is further configured to control the beam irradiator to change the wavelength of the beam depending on the colour of the food item. a main body; a cooking room arranged inside the main body and configured to receive a food item to be heated; a heating device configured to heat the food item; a window arranged on one side of the cooking room; a measuring device arranged outside the cooking room and inside the main body, facing the food item through the window; and at least one processor configured to control the measuring device to obtain a three dimensional shape of the food item and control the heating device to heat the food item based on the 3D shape of the food item, wherein the measuring device comprises: a supporting shaft that is rotatable; a supporting frame configured to support the supporting shaft; a beam irradiator arranged at the supporting shaft and configured to irradiate a beam of light onto the food item; and a capturer arranged at the supporting shaft to be at a distance from the beam irradiator and configured to capture the beam projected on the food item, a supporting shaft that is rotatable; a supporting frame configured to support the supporting shaft; a beam irradiator arranged at the supporting shaft and configured to irradiate a beam of light onto the food item; and a capturer arranged at the supporting shaft to be at a distance from the beam irradiator and configured to capture the beam projected on the food item, wherein the at least one processor is configured to control rotation of the supporting shaft and obtain the 3D shape of the food item based on image information obtained by the capturer as the supporting shaft is rotated, wherein the at least one processor is further configured to control the beam irradiator to change the wavelength of the beam depending on the colour of the food item.
An indoor unit comprising: a casing; a front panel provided forward of the casing; and a drive mechanism configured to move the front panel away from a front surface of the casing, the drive mechanism moving the front panel in a substantially horizontal direction,the casing including an outlet port provided below the front panel, and an outlet panel being provided below the front panel and forward of the outlet port, wherein the drive mechanism moves the outlet panel to a gap between the front panel and the casing in a state that the front panel has been moved forward, characterized in that when the outlet panel is moved to the gap between the front panel and the casing, the gap between the lower end portion of the front panel and the casing is closed so as to restrain the air blown out from the outlet port from being sucked into the gap between the front panel and the casing, and further characterized in that the front panel is curved so that a central part of the front panel protrudes forward. a casing; a front panel provided forward of the casing; and a drive mechanism configured to move the front panel away from a front surface of the casing, the drive mechanism moving the front panel in a substantially horizontal direction,the casing including an outlet port provided below the front panel, and an outlet panel being provided below the front panel and forward of the outlet port, wherein the drive mechanism moves the outlet panel to a gap between the front panel and the casing in a state that the front panel has been moved forward, characterized in that when the outlet panel is moved to the gap between the front panel and the casing, the gap between the lower end portion of the front panel and the casing is closed so as to restrain the air blown out from the outlet port from being sucked into the gap between the front panel and the casing, and further characterized in that the front panel is curved so that a central part of the front panel protrudes forward.
A compound having the following Formula: or a stereoisomer or pharmaceutically acceptable salt thereof, wherein: Y 1 and Y 2 are each, independently, hydrogen, C 1-3 alkyl or C 1-3 haloalkyl; R 1 is phenyl substituted with one to three halogens; X is -CHR 2 -; W is a bond or -CHR 3 -; Z is a bond or -CHR 4 -; R 2, R 3, and R 4 are each, independently, hydrogen or C 1-3 alkyl; R 5 is hydrogen, C 1-3 alkyl or C 1-3 haloalkyl; L is -C(R a) 2 -, -C(R a) 2 C(R a) 2 - or -C(R a) 2 C(R a) 2 C(R a) 2 -; and each R a is, independently, hydrogen, halo, hydroxyl or C 1-4 alkyl. Y 1 and Y 2 are each, independently, hydrogen, C 1-3 alkyl or C 1-3 haloalkyl; R 1 is phenyl substituted with one to three halogens; X is -CHR 2 -; W is a bond or -CHR 3 -; Z is a bond or -CHR 4 -; R 2, R 3, and R 4 are each, independently, hydrogen or C 1-3 alkyl; R 5 is hydrogen, C 1-3 alkyl or C 1-3 haloalkyl; L is -C(R a) 2 -, -C(R a) 2 C(R a) 2 - or -C(R a) 2 C(R a) 2 C(R a) 2 -; and each R a is, independently, hydrogen, halo, hydroxyl or C 1-4 alkyl.
A center hole machining method for a shaft blank (1, 40, 45), the center hole machining method configured to machine a center hole for processing an outer periphery of the shaft blank (1, 40, 45) formed by forging or casting, the center hole machining method comprising: a first step of obtaining outer peripheral shape data of a plurality of portions of the shaft blank (1, 40, 45) in an axial direction; a second step of obtaining a center axis for determining the center hole by comparing measured data of the plurality of portions of the shaft blank (1, 40, 45) with design data corresponding thereto; a third step of calculating minimum distance (Rmin) from the center axis to the outer periphery of each of the plurality of portions of the shaft blank (1, 40, 45); characterized by a fourth step of determining the center axis as an appropriate center axis when the minimum distance (Rmin) in each of the portions is greater than a machining dimension; and shifting the center axis in a direction of making the minimum distance (Rmin) greater than the machining dimension and repeatedly executing the third step based on the shifted center axis when the minimum distance (Rmin) is less than or equal to the machining dimension; and a fifth step of boring a center hole in an end surface of the shaft blank (1, 40, 45) at a position arranged on a line extended from the center axis determined as the appropriate center axis. a first step of obtaining outer peripheral shape data of a plurality of portions of the shaft blank (1, 40, 45) in an axial direction; a second step of obtaining a center axis for determining the center hole by comparing measured data of the plurality of portions of the shaft blank (1, 40, 45) with design data corresponding thereto; a third step of calculating minimum distance (Rmin) from the center axis to the outer periphery of each of the plurality of portions of the shaft blank (1, 40, 45); characterized by a fourth step of determining the center axis as an appropriate center axis when the minimum distance (Rmin) in each of the portions is greater than a machining dimension; and shifting the center axis in a direction of making the minimum distance (Rmin) greater than the machining dimension and repeatedly executing the third step based on the shifted center axis when the minimum distance (Rmin) is less than or equal to the machining dimension; and a fifth step of boring a center hole in an end surface of the shaft blank (1, 40, 45) at a position arranged on a line extended from the center axis determined as the appropriate center axis.
A seal arrangement for a gear mechanism, wherein a spacer ring is arranged between a first and a second shaft sealing ring (7, 10), wherein a flange part is connected to a connection flange, wherein the connection flange presses the second shaft sealing ring onto the spacer ring, the spacer ring presses onto the first shaft sealing ring, so that the first shaft sealing ring is adjusted against the flange part, wherein the running surface of the first shaft sealing ring and the running surface of the second shaft sealing ring are arranged on a bearing bush which is screw-connected to a shaft, wherein the connection flange is screwed onto the flange part such that the first and second shaft sealing ring (7, 10) are arranged between the connection flange and flange part, and the spacer ring between the first and second shaft sealing ring (7, 10), characterised in that the spatial region delimited by the flange part, the connection flange, the second shaft sealing ring and the bearing bush and/or the shaft is acted upon with compressed air, wherein the compressed air is supplied through the connection flange, wherein the flange part is connected to a cover part of the gear mechanism, wherein the screw heads of the screws used for connection are overlapped and/or covered by the connection flange, wherein a cascading seal arrangement is arranged between the shaft and cover part, which arrangement seals off the shaft from the housing and thus seals off the interior of the gear mechanism which is filled partially or entirely with oil from the external environment, wherein the cascading seal arrangement has a shaft-sealing-ring seal arrangement, a lamellar seal and a labyrinth seal.
A posture loop for straightening the shoulder and/or the back portion of a user, said posture loop comprising: an elastic cable including a first end, a second end, and a middle portion, a bridge including a bar having a first end and a second end, wherein the first end, the second end and the middle portion of the cable are each engaged with the bridge thereby forming an eight-shaped structure for engaging with the shoulders of the user, and two buckles attached to the first and the second ends (11, 12) of the cable for allowing the posture loop to be adjusted to the shoulders and/or the back portions of users of different size or dimension, characterised in that the bar includes two channels (34, 35) formed in the second end of the bar and slidably engaged with the first and the second ends (11, 12) of the cable, respectively, and the middle portion of the cable is engaged with the first end of the bar. an elastic cable including a first end, a second end, and a middle portion, a bridge including a bar having a first end and a second end, wherein the first end, the second end and the middle portion of the cable are each engaged with the bridge thereby forming an eight-shaped structure for engaging with the shoulders of the user, and two buckles attached to the first and the second ends (11, 12) of the cable for allowing the posture loop to be adjusted to the shoulders and/or the back portions of users of different size or dimension, characterised in that the bar includes two channels (34, 35) formed in the second end of the bar and slidably engaged with the first and the second ends (11, 12) of the cable, respectively, and the middle portion of the cable is engaged with the first end of the bar.
A binder composition for a non-aqueous secondary battery electrode comprising a polymer A and a polymer B, wherein the polymer A has a THF-insoluble content of 60 mass% or less, and the polymer B has a THF-insoluble content of 80 mass% or more, and wherein the polymer A includes an aliphatic conjugated diene monomer unit in a proportion of at least 60 mass% and not more than 98 mass%, and the polymer B includes an aliphatic conjugated diene monomer unit in a proportion of at least 20 mass% and not more than 50 mass%, wherein the THF-insoluble content is measured according to the description. the polymer A has a THF-insoluble content of 60 mass% or less, and the polymer B has a THF-insoluble content of 80 mass% or more, and wherein the polymer A includes an aliphatic conjugated diene monomer unit in a proportion of at least 60 mass% and not more than 98 mass%, and the polymer B includes an aliphatic conjugated diene monomer unit in a proportion of at least 20 mass% and not more than 50 mass%, wherein the THF-insoluble content is measured according to the description.