mhurhangee/patent-ind-claim-en huggingface dataset:
A catalyst composition comprising: (a) a support portion comprising an acidic mixed metal oxide comprising a transitional alumina, wherein the transitional alumina comprises delta or theta phase alumina, and a second metal oxide comprising silicon, wherein the second metal oxide has a weight percentage that is less than the weight percentage of alumina, and (b) a catalyst portion loaded on the support portion, the catalyst portion comprising (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition. wherein the expression "catalyst portion" refers to the total amount of catalytic metal in the catalyst composition, there is no, or less than 0.01 wt. % rhenium in the catalyst composition, and the catalyst portion is 25 wt. % or less of the catalyst composition. (a) a support portion comprising an acidic mixed metal oxide comprising a transitional alumina, wherein the transitional alumina comprises delta or theta phase alumina, and a second metal oxide comprising silicon, wherein the second metal oxide has a weight percentage that is less than the weight percentage of alumina, and (b) a catalyst portion loaded on the support portion, the catalyst portion comprising (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition. wherein the expression "catalyst portion" refers to the total amount of catalytic metal in the catalyst composition, there is no, or less than 0.01 wt. % rhenium in the catalyst composition, and the catalyst portion is 25 wt. % or less of the catalyst composition. (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition.
A gas-liquid separator , comprising: a body enclosing a cavity ; a gas outlet attached to the top of the body and communicated with the cavity ; a liquid outlet attached to the bottom of the body and communicated with the cavity ; an input tube constructed to include a bent portion and communicated into the cavity from the external of the body ; and a partition located in the cavity and comprising one or more holes; wherein the input tube further comprises: a first part extending along a first straight line and downstream communicated with the bent portion ; and a third part extending in the cavity along a third straight line and upstream communicated with the bent portion ; wherein the bent portion extends along the curve, and the curve is selected from one or more of the following curves: an arc, an ellipse, a parabola, a part of a hyperbola, an irregular curve, or a combination of them; and wherein the curve is a spiral line and extends along the periphery of the body for more than one round. a body enclosing a cavity ; a gas outlet attached to the top of the body and communicated with the cavity ; a liquid outlet attached to the bottom of the body and communicated with the cavity ; an input tube constructed to include a bent portion and communicated into the cavity from the external of the body ; and a partition located in the cavity and comprising one or more holes; wherein the input tube further comprises: a first part extending along a first straight line and downstream communicated with the bent portion ; and a third part extending in the cavity along a third straight line and upstream communicated with the bent portion ; wherein the bent portion extends along the curve, and the curve is selected from one or more of the following curves: an arc, an ellipse, a parabola, a part of a hyperbola, an irregular curve, or a combination of them; and wherein the curve is a spiral line and extends along the periphery of the body for more than one round.
An elevator governor , comprising a sheave rotatably mounted on a shaft and operatively connected to an elevator car , a flyweight retractably mounted on the shaft , the sheave and the flyweight both including a center of gravity, the center of gravity of the sheave being aligned with the center of gravity of the flyweight , a biasing element , in particular comprising a spring, exerting a radially inward force on the flyweight toward the shaft , and a sensor mounted proximate the flyweight, characterized in comprising at least two flyweights each being connected to a semi-circular band . a sheave rotatably mounted on a shaft and operatively connected to an elevator car , a flyweight retractably mounted on the shaft , the sheave and the flyweight both including a center of gravity, the center of gravity of the sheave being aligned with the center of gravity of the flyweight , a biasing element , in particular comprising a spring, exerting a radially inward force on the flyweight toward the shaft , and a sensor mounted proximate the flyweight, characterized in comprising at least two flyweights each being connected to a semi-circular band .
Method for forecasting a remaining useful life of a machine, in particular a motor, wherein the machine belongs to a machine class, characterized in that - state data (A) of the machine are taken as a basis for the computer-aided performance of multiple mutually independent base simulations (B) that each determine a remaining useful life forecast (P1, P2, P3) for a respective machine of the machine class, - the remaining useful life forecasts and characteristic data (D) that describe properties of the machine are supplied to a neural network (E) that has learned an assignment of any machine to the base simulations (B), - the neural network outputs weights (F) for the remaining useful life forecasts, and - a final forecast (G) is calculated in a computer-aided manner from the remaining useful life forecasts by weighting the remaining useful life forecasts (P1, P2, P3) with respect to one another in accordance with the weights (F). - state data (A) of the machine are taken as a basis for the computer-aided performance of multiple mutually independent base simulations (B) that each determine a remaining useful life forecast (P1, P2, P3) for a respective machine of the machine class, - the remaining useful life forecasts and characteristic data (D) that describe properties of the machine are supplied to a neural network (E) that has learned an assignment of any machine to the base simulations (B), - the neural network outputs weights (F) for the remaining useful life forecasts, and - a final forecast (G) is calculated in a computer-aided manner from the remaining useful life forecasts by weighting the remaining useful life forecasts (P1, P2, P3) with respect to one another in accordance with the weights (F).
Device (100; 200; 300) for storing heat/cold, with a view to subsequent reuse by transfer to a fluid, referred to as target fluid, the said device (100; 200; 300) comprising: - a container ; - a storage assembly , referred to as the main storage assembly, placed inside the said container and intended to store up calories/frigories supplied by an external source; - a rigid storage layer designed to store up calories/frigories supplied by an external source; - an insulating layer placed between the said container and the said rigid storage layer ; and - at least one means (100; 200; 300) for causing a target fluid to circulate through the said device (100; 200; 300), characterized in that the rigid storage layer is placed between the said container and the said main storage assembly. - a container ; - a storage assembly , referred to as the main storage assembly, placed inside the said container and intended to store up calories/frigories supplied by an external source; - a rigid storage layer designed to store up calories/frigories supplied by an external source; - an insulating layer placed between the said container and the said rigid storage layer ; and - at least one means (100; 200; 300) for causing a target fluid to circulate through the said device (100; 200; 300), characterized in that the rigid storage layer is placed between the said container and the said main storage assembly.
A method of decoding implemented by a video decoder , comprising: Receiving , by the video decoder, a video bitstream including a video parameter set (VPS) and a plurality of layers, wherein no layer is neither an output layer of at least one output layer set (OLS) nor a direct reference layer of any other layer, and decoding from the VPS a layer used as a reference flag, LayerUsedAsRefLayerFlag, and a layer used as an output layer flag, LayerUsedAsOutputLayerFlag, and wherein the LayerUsedAsRefLayerFlag and the LayerUsedAsOutputLayerFlag are not both zero; and Decoding , by the video decoder, a picture from one of the plurality of layers. Receiving , by the video decoder, a video bitstream including a video parameter set (VPS) and a plurality of layers, wherein no layer is neither an output layer of at least one output layer set (OLS) nor a direct reference layer of any other layer, and decoding from the VPS a layer used as a reference flag, LayerUsedAsRefLayerFlag, and a layer used as an output layer flag, LayerUsedAsOutputLayerFlag, and wherein the LayerUsedAsRefLayerFlag and the LayerUsedAsOutputLayerFlag are not both zero; and Decoding , by the video decoder, a picture from one of the plurality of layers.
A laminated glass comprising: a first glass plate; a second glass plate; and an intermediate film positioned between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and to the second glass plate, wherein the laminated glass further includes an HUD (head-up display) display area used for a head-up display, wherein in a predetermined area of at least a part of the HUD display area, a wedge angle decreases, in accordance with a direction from a lower edge of the predetermined area to an upper edge of the predetermined area, within a range of greater than or equal to 0.3 mrad and less than or equal to 0.8 mrad per 100 mm, and wherein at least one of the first glass plate and the second glass plate has a maximum depth of curvature of 10 mm or more. a first glass plate; a second glass plate; and an intermediate film positioned between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and to the second glass plate, wherein the laminated glass further includes an HUD (head-up display) display area used for a head-up display, wherein in a predetermined area of at least a part of the HUD display area, a wedge angle decreases, in accordance with a direction from a lower edge of the predetermined area to an upper edge of the predetermined area, within a range of greater than or equal to 0.3 mrad and less than or equal to 0.8 mrad per 100 mm, and wherein at least one of the first glass plate and the second glass plate has a maximum depth of curvature of 10 mm or more.
A lamp device adapted to be mounted on a vehicle , comprising: a lamp unit configured to emit visible light to an outside area of the vehicle ; a camera unit configured to capture an image of an outside area of the vehicle ; a translucent cover covering the lamp unit and the camera unit ; the lamp device being characterised in that it further comprises an air cleaner configured to jet gas toward an area (A0) on the translucent cover including a first area (A1) located within an angle of view of the camera unit , wherein a second area (A2) on the translucent cover is configured to allow passage of the visible light emitted from the lamp unit , and adapted to be cleaned by a sprayed cleaning liquid; and wherein the first area (A1) is located so as to avoid a third area (A3) where the sprayed cleaning liquid can reach. a lamp unit configured to emit visible light to an outside area of the vehicle ; a camera unit configured to capture an image of an outside area of the vehicle ; a translucent cover covering the lamp unit and the camera unit ; the lamp device being characterised in that it further comprises an air cleaner configured to jet gas toward an area (A0) on the translucent cover including a first area (A1) located within an angle of view of the camera unit , wherein a second area (A2) on the translucent cover is configured to allow passage of the visible light emitted from the lamp unit , and adapted to be cleaned by a sprayed cleaning liquid; and wherein the first area (A1) is located so as to avoid a third area (A3) where the sprayed cleaning liquid can reach.
A method for information transmission, comprising: receiving , by a terminal device in a first slot or a first mini-slot, a first synchronization signal, SS, block and a first physical downlink control channel, PDCCH, sent by a network device, the first slot or the first mini-slot comprising N symbols, the first SS block occupying M consecutive symbols in the first slot or the first mini-slot, the first SS block comprising an SS and a physical broadcast channel, PBCH, wherein M and N are positive integers, and M≤N, wherein the symbols occupied by the first PDCCH are non-overlapped with the symbols occupied by the first SS block; and wherein the first SS block occupies an (N-M+1)th symbol to an Nth symbol of the first slot or the first mini-slot, and the first PDCCH occupies a first symbol to a Pth symbol of the first slot or the first mini-slot, wherein P is a positive integer, and P≤(N-M). receiving , by a terminal device in a first slot or a first mini-slot, a first synchronization signal, SS, block and a first physical downlink control channel, PDCCH, sent by a network device, the first slot or the first mini-slot comprising N symbols, the first SS block occupying M consecutive symbols in the first slot or the first mini-slot, the first SS block comprising an SS and a physical broadcast channel, PBCH, wherein M and N are positive integers, and M≤N, wherein the symbols occupied by the first PDCCH are non-overlapped with the symbols occupied by the first SS block; and wherein the first SS block occupies an (N-M+1)th symbol to an Nth symbol of the first slot or the first mini-slot, and the first PDCCH occupies a first symbol to a Pth symbol of the first slot or the first mini-slot, wherein P is a positive integer, and P≤(N-M).
A fishing spinning reel comprising: a reel body ; a handle which is attachable to and detachable from the reel body ; a drive gear shaft that is provided in the reel body ; a ball bearing that is externally fitted into the drive gear shaft and rotatably supports the drive gear shaft ; and a handle shaft that is provided in the handle and is screwed into the drive gear shaft , said fishing spinning reel being characterized in that the handle shaft is integrally provided with an abutting portion that abuts on an inner ring of the ball bearing by the screwing into the drive gear shaft . a reel body ; a handle which is attachable to and detachable from the reel body ; a drive gear shaft that is provided in the reel body ; a ball bearing that is externally fitted into the drive gear shaft and rotatably supports the drive gear shaft ; and a handle shaft that is provided in the handle and is screwed into the drive gear shaft , said fishing spinning reel being characterized in that the handle shaft is integrally provided with an abutting portion that abuts on an inner ring of the ball bearing by the screwing into the drive gear shaft .
A video encoding method comprising: for an input block of image data performing motion estimation to produce M motion vectors and to generate M original weighting parameters wQ i for i = 0 to M - 1 for multi-hypothesis partitions, wherein M different hypotheses are used for each block that is being subjected to motion compensated prediction and wherein each of the multi-hypothesis partitions corresponds to a block belonging to one of one or more reference frames; computing the sum of all of the original weighting parameters, wherein said sum is equal to a constant; transforming said original weighting parameters wQ i to transformed weighting parameters B_wQ k for k = 0 to M - 1, wherein the first transformed weighting parameter B_wQ 0 is equal to said sum of all the original weighting parameters and wherein each remaining transformed weighting parameter B_wQ k for k = 1,... M - 1 is equal to wQ k-1 minus said sum of all of the original weighting parameters divided by the number of original weighting parameters M; performing motion compensation to generate a prediction using said M motion vectors and said M original weighting parameters; producing a residual by subtracting said prediction from said input block of image data; transforming said residual using a discrete cosine transform to create a 2-D array of transformed coefficients; quantizing said transformed coefficients; and variable length coding said transformed weighting parameters and said quantized transformed coefficients to generate a bitstream . for an input block of image data performing motion estimation to produce M motion vectors and to generate M original weighting parameters wQ i for i = 0 to M - 1 for multi-hypothesis partitions, wherein M different hypotheses are used for each block that is being subjected to motion compensated prediction and wherein each of the multi-hypothesis partitions corresponds to a block belonging to one of one or more reference frames; computing the sum of all of the original weighting parameters, wherein said sum is equal to a constant; transforming said original weighting parameters wQ i to transformed weighting parameters B_wQ k for k = 0 to M - 1, wherein the first transformed weighting parameter B_wQ 0 is equal to said sum of all the original weighting parameters and wherein each remaining transformed weighting parameter B_wQ k for k = 1,... M - 1 is equal to wQ k-1 minus said sum of all of the original weighting parameters divided by the number of original weighting parameters M; performing motion compensation to generate a prediction using said M motion vectors and said M original weighting parameters; producing a residual by subtracting said prediction from said input block of image data; transforming said residual using a discrete cosine transform to create a 2-D array of transformed coefficients; quantizing said transformed coefficients; and variable length coding said transformed weighting parameters and said quantized transformed coefficients to generate a bitstream .
Peripheral intravenous safety catheter with puncture system comprising: a catheter connected to a catheter holder that is located in a trigger holder , said trigger holder holding a trigger guard; a cannula located inside the catheter and the catheter holder , said cannula being attached, at its tip opposite to its free tip, to a cannula holder ; a case inside which the cannula holder is arranged, with bellows arranged between the case and the cannula holder ; and characterized in that the trigger guard is made up of two halves comprising legs configured with slits ; wherein the section consisting of the catheter and the catheter holder is connected, via the said catheter holder , to a catheter-holder tube having longitudinal ridges , the cannula being disposed in said catheter holder tube , while a spring is located at the distal end of the cannula holder in order to propel it at high speed when the cannula-holder spring is released; and in that the halves are suitable for being moved along in such a way that the halves of the front and back slits do no match each other and, when the trigger guard has not been activated, the longitudinal ridges of the catheter-holder tube are pressed up against the corresponding areas of the one of the halves of the guard. a catheter connected to a catheter holder that is located in a trigger holder , said trigger holder holding a trigger guard; a cannula located inside the catheter and the catheter holder , said cannula being attached, at its tip opposite to its free tip, to a cannula holder ; a case inside which the cannula holder is arranged, with bellows arranged between the case and the cannula holder ; and characterized in that the trigger guard is made up of two halves comprising legs configured with slits ; wherein the section consisting of the catheter and the catheter holder is connected, via the said catheter holder , to a catheter-holder tube having longitudinal ridges , the cannula being disposed in said catheter holder tube , while a spring is located at the distal end of the cannula holder in order to propel it at high speed when the cannula-holder spring is released; and in that the halves are suitable for being moved along in such a way that the halves of the front and back slits do no match each other and, when the trigger guard has not been activated, the longitudinal ridges of the catheter-holder tube are pressed up against the corresponding areas of the one of the halves of the guard.
A cross-car beam comprising: a plastic beam body that defines a first end , a second end spaced from the first end in a first direction D1, such that the plastic beam body is elongate along the first direction, wherein the plastic beam body defines a cross-sectional shape along a plane P1 normal to the first direction, wherein the cross-sectional shape defines: 1) a first section that is elongate in a second direction D2 that is perpendicular to the first direction, and 2) a second section that is elongate along a third direction D3 that is perpendicular to both the first direction and the second direction, and wherein the plastic beam body includes a reinforced plastic material, characterized in that : the first section is a first of a plurality of first sections , the second section is a first of a plurality of section sections , the cross-sectional shape comprising a second of the plurality of first sections , and a third of the plurality of first sections that: 1) is spaced from the second of the plurality of first sections along the second direction, and/or 2) is coplanar with the second of the plurality of first section. a plastic beam body that defines a first end , a second end spaced from the first end in a first direction D1, such that the plastic beam body is elongate along the first direction, wherein the plastic beam body defines a cross-sectional shape along a plane P1 normal to the first direction, wherein the cross-sectional shape defines: 1) a first section that is elongate in a second direction D2 that is perpendicular to the first direction, and 2) a second section that is elongate along a third direction D3 that is perpendicular to both the first direction and the second direction, and wherein the plastic beam body includes a reinforced plastic material, characterized in that : the first section is a first of a plurality of first sections , the second section is a first of a plurality of section sections , the cross-sectional shape comprising a second of the plurality of first sections , and a third of the plurality of first sections that: 1) is spaced from the second of the plurality of first sections along the second direction, and/or 2) is coplanar with the second of the plurality of first section.