mhurhangee/patent-ind-claim-en huggingface dataset:
A transferable thin-film optical device , comprising: a thin-film liquid crystal layer structurally configured to have liquid crystal molecules aligned in a predetermined alignment pattern to provide at least one predetermined optical function, said thin-film liquid crystal layer having a molecular pattern of liquid crystal molecules for the predetermined optical function, wherein the thin-film liquid crystal layer is configured to be removably attached to a substrate such that the predetermined alignment pattern of the liquid crystal molecules of the thin-film liquid crystal layer is preserved post removal from the substrate , and wherein: the thin-film liquid crystal layer is removably attached to the substrate through a soluble element, which is configured to be dissolved to separate the thin-film liquid crystal layer from the substrate when the thin-film liquid crystal layer is to be transferred to another substrate . a thin-film liquid crystal layer structurally configured to have liquid crystal molecules aligned in a predetermined alignment pattern to provide at least one predetermined optical function, said thin-film liquid crystal layer having a molecular pattern of liquid crystal molecules for the predetermined optical function, wherein the thin-film liquid crystal layer is configured to be removably attached to a substrate such that the predetermined alignment pattern of the liquid crystal molecules of the thin-film liquid crystal layer is preserved post removal from the substrate , and wherein: the thin-film liquid crystal layer is removably attached to the substrate through a soluble element, which is configured to be dissolved to separate the thin-film liquid crystal layer from the substrate when the thin-film liquid crystal layer is to be transferred to another substrate .
Method for fabricating a micro-electro-mechanical system, comprising the following steps: - production of a stack on the surface of a temporary substrate so as to produce a first assembly, comprising: - at least depositing a piezoelectric material or a ferroelectric material to produce a layer of piezoelectric material or of ferroelectric material ; - production of a first bonding layer ; - production of a second assembly comprising at least producing a second bonding layer on the surface of a host substrate ; - production of at least one acoustic isolation structure in at least one of the two assemblies; - production of one or more electrode levels in at least one of the two assemblies; - bonding said two assemblies via said two bonding layers, before or after the production of one or more electrode levels in at least one of the two assemblies; - removing said temporary substrate, said method comprising: - production of a sacrificial layer above a piezoelectric material ; - structuration operation of said sacrificed layer so as to define a stratified layer structure; - depositing a dielectric above said sacrificed layer structure; - removing said sacrificed layer structure so as to define said acoustic isolation structure. - production of a stack on the surface of a temporary substrate so as to produce a first assembly, comprising: - at least depositing a piezoelectric material or a ferroelectric material to produce a layer of piezoelectric material or of ferroelectric material ; - production of a first bonding layer ; - production of a second assembly comprising at least producing a second bonding layer on the surface of a host substrate ; - production of at least one acoustic isolation structure in at least one of the two assemblies; - production of one or more electrode levels in at least one of the two assemblies; - bonding said two assemblies via said two bonding layers, before or after the production of one or more electrode levels in at least one of the two assemblies; - removing said temporary substrate, said method comprising: - production of a sacrificial layer above a piezoelectric material ; - structuration operation of said sacrificed layer so as to define a stratified layer structure; - depositing a dielectric above said sacrificed layer structure; - removing said sacrificed layer structure so as to define said acoustic isolation structure.
A method of determining quantitative flux distribution from a formation in a petroleum reservoir, at along a fracture plane, intersecting a wellbore in the formation, and an effective half-length for the fracture plane, comprising the steps of: (a) performing pressure transient testing of the formation to obtain pressure transient test data; (b) determining by computer processing well pressure and well pressure derivative for the formation from the pressure transient test data; (c) determining by computer processing formation fracture parameters based on well pressure and well pressure derivative for the formation; (d) determining by computer processing the flux distribution from the formation along the fracture based on the determined formation fracture parameters; (e) determining by computer processing the effective fracture half-length of the fracture based on the determined formation fracture parameters; (f) determining by computer processing a quantified amount of flux along the fracture plane intersecting the wellbore; (g) storing in computer memory the determined flux and flux distribution from the formation along the fracture, the quantified amount of flux from the fracture, and the determined effective fracture half-length of the fracture; (h) mapping in a reservoir model by computer processing the determined flux distribution along the fracture plane and the determined effective fracture half-length of the fracture. (a) performing pressure transient testing of the formation to obtain pressure transient test data; (b) determining by computer processing well pressure and well pressure derivative for the formation from the pressure transient test data; (c) determining by computer processing formation fracture parameters based on well pressure and well pressure derivative for the formation; (d) determining by computer processing the flux distribution from the formation along the fracture based on the determined formation fracture parameters; (e) determining by computer processing the effective fracture half-length of the fracture based on the determined formation fracture parameters; (f) determining by computer processing a quantified amount of flux along the fracture plane intersecting the wellbore; (g) storing in computer memory the determined flux and flux distribution from the formation along the fracture, the quantified amount of flux from the fracture, and the determined effective fracture half-length of the fracture; (h) mapping in a reservoir model by computer processing the determined flux distribution along the fracture plane and the determined effective fracture half-length of the fracture.
An hybrid electric vehicle comprising: a motor-generator that is installed in a front section of a vehicle body and mechanically connected with front wheels as drive wheels via drive shafts ; an internal combustion engine that is installed in the front section of the vehicle body and generates electricity to be supplied to the motor-generator ; and a steering gearbox that extends in a lateral direction of the vehicle body and steers the front wheels , characterized in that a lower portion of the internal combustion engine is located on a front side of a lower portion of the motor-generator in the vehicle body with being distanced therefrom, and wherein the steering gearbox is located between the internal combustion engine and the motor-generator and located on a front side of the drive shafts in the vehicle body. a motor-generator that is installed in a front section of a vehicle body and mechanically connected with front wheels as drive wheels via drive shafts ; an internal combustion engine that is installed in the front section of the vehicle body and generates electricity to be supplied to the motor-generator ; and a steering gearbox that extends in a lateral direction of the vehicle body and steers the front wheels , characterized in that a lower portion of the internal combustion engine is located on a front side of a lower portion of the motor-generator in the vehicle body with being distanced therefrom, and wherein the steering gearbox is located between the internal combustion engine and the motor-generator and located on a front side of the drive shafts in the vehicle body.
A spray arm assembly for a dishwasher, comprising: a fixing seat , fixedly provided with a first bevel gear ; a first spray arm , rotatably connected to the fixing seat in a circumferential direction of the fixing seat and defining a first spray aperture configured to drive the first spray arm to rotate; and a second spray arm , having an end adjacent to the fixing seat , the end of the second spray arm adjacent to the fixing seat being rotatably connected to the first spray arm and provided with a second bevel gear , the second bevel gear being engaged with the first bevel gear , and the second spray arm defining a second spray aperture ; wherein the fixing seat is provided with a fixing shaft , the first spray arm is provided with a connection tube , and the connection tube is rotatably fitted over the fixing shaft , characterised in that an outer circumferential surface of the fixing shaft is provided with a retaining rib extending along an axis of the fixing shaft , the retaining rib has a guide bevel and a stop bevel , the guide bevel and the stop bevel are arranged at two opposite side surfaces along a circumferential direction of the fixing shaft and have different bevel angles, and an inner circumferential surface of the connection tube is formed with a retaining protrusion corresponding to the retaining rib , so that, when the retaining protrusion is fitted with the guide bevel , the first spray arm revolves about the fixing seat , and when the retaining protrusion is fitted with the stop bevel , the first spray arm stops revolution. a fixing seat , fixedly provided with a first bevel gear ; a first spray arm , rotatably connected to the fixing seat in a circumferential direction of the fixing seat and defining a first spray aperture configured to drive the first spray arm to rotate; and a second spray arm , having an end adjacent to the fixing seat , the end of the second spray arm adjacent to the fixing seat being rotatably connected to the first spray arm and provided with a second bevel gear , the second bevel gear being engaged with the first bevel gear , and the second spray arm defining a second spray aperture ; wherein the fixing seat is provided with a fixing shaft , the first spray arm is provided with a connection tube , and the connection tube is rotatably fitted over the fixing shaft , characterised in that an outer circumferential surface of the fixing shaft is provided with a retaining rib extending along an axis of the fixing shaft , the retaining rib has a guide bevel and a stop bevel , the guide bevel and the stop bevel are arranged at two opposite side surfaces along a circumferential direction of the fixing shaft and have different bevel angles, and an inner circumferential surface of the connection tube is formed with a retaining protrusion corresponding to the retaining rib , so that, when the retaining protrusion is fitted with the guide bevel , the first spray arm revolves about the fixing seat , and when the retaining protrusion is fitted with the stop bevel , the first spray arm stops revolution.
A circular stapling instrument for performing an anastomosis, comprising: an adapter assembly including a tubular body having a distal portion; a shell assembly disposed on the distal portion of the tubular body , the shell assembly supporting a staple cartridge assembly ; and a seal assembly supported on the tubular body , the seal assembly including an inflatable member disposed proximal of the shell assembly , wherein the inflatable member includes a first diameter when in a deflated condition and a second diameter when in an inflated condition, the second diameter being larger than the first diameter, characterised in that the circular stapling instrument further comprises an irrigation assembly , the irrigation assembly including a flexible tube , wherein the irrigation assembly is configured to deliver an irrigation fluid to pressure test the anastomosis following a stapling procedure. an adapter assembly including a tubular body having a distal portion; a shell assembly disposed on the distal portion of the tubular body , the shell assembly supporting a staple cartridge assembly ; and a seal assembly supported on the tubular body , the seal assembly including an inflatable member disposed proximal of the shell assembly , wherein the inflatable member includes a first diameter when in a deflated condition and a second diameter when in an inflated condition, the second diameter being larger than the first diameter, characterised in that the circular stapling instrument further comprises an irrigation assembly , the irrigation assembly including a flexible tube , wherein the irrigation assembly is configured to deliver an irrigation fluid to pressure test the anastomosis following a stapling procedure.
A method comprising: receiving , by a computing device , a first abnormality detection model from a remote device , the first abnormality detection model trainable using a machine learning technique for detecting anomaly of an application in a resource usage; obtaining resource usage data of the application according to the first abnormality detection model, the resource usage data comprising information about usage or energy consumption of one or more hardware components or one or more services accessed by the application on the computing device; determining , by the computing device using the first abnormality detection model, whether the application has anomaly in the resource usage based on the resource usage data obtained; taking an action in response to determination on the anomaly of the application in the resource usage; the method being characterized in : producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data. receiving , by a computing device , a first abnormality detection model from a remote device , the first abnormality detection model trainable using a machine learning technique for detecting anomaly of an application in a resource usage; obtaining resource usage data of the application according to the first abnormality detection model, the resource usage data comprising information about usage or energy consumption of one or more hardware components or one or more services accessed by the application on the computing device; determining , by the computing device using the first abnormality detection model, whether the application has anomaly in the resource usage based on the resource usage data obtained; taking an action in response to determination on the anomaly of the application in the resource usage; the method being characterized in : producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data. producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data.
Agricultural implement comprising: - a wheel body having two main faces (31; 33) and a peripheral groove , opening radially outward, formed between the two main faces (31; 33), - a tire including a substantially annular outer part and a bead projecting radially inward from the outer part , the bead being shaped so as to be housed in the groove when the tire is mounted around the wheel body , and - a radial lock which locks the tire around the wheel body , characterized in that the radial lock comprises: - a first aperture (37; 141) formed in the wheel body , opening into the peripheral groove on the one hand, and onto one of the two main faces (31; 33) on the other hand, - at least a second aperture formed in the bead of the tire , opening substantially facing the first aperture (37; 141), and - a pin (7; 107; 117; 127; 137; 147) placed in the first aperture (37; 141) and the second aperture . - a wheel body having two main faces (31; 33) and a peripheral groove , opening radially outward, formed between the two main faces (31; 33), - a tire including a substantially annular outer part and a bead projecting radially inward from the outer part , the bead being shaped so as to be housed in the groove when the tire is mounted around the wheel body , and - a radial lock which locks the tire around the wheel body , - a first aperture (37; 141) formed in the wheel body , opening into the peripheral groove on the one hand, and onto one of the two main faces (31; 33) on the other hand, - at least a second aperture formed in the bead of the tire , opening substantially facing the first aperture (37; 141), and - a pin (7; 107; 117; 127; 137; 147) placed in the first aperture (37; 141) and the second aperture .
A laser machining nozzle for a laser cutting machine with a cutting head that comprises the laser machining nozzle and a gas supply mechanism, the laser cutting machine being equipped to eject a gas jet from the laser machining nozzle onto the workpiece, wherein the laser machining nozzle comprises a flow passage extending between a nozzle inlet an a nozzle outlet orifice from which the gas jet is ejected, the laser machining nozzle comprising a flow guiding section of the flow passage, the flow guiding section having an inner wall , characterized in that the flow guiding section comprises a plurality of riblets projecting from the inner wall , wherein the riblets run in an axial direction and parallel to a direction (D) of a fluid flow through the flow guiding section and have a height of less than 1 mm. >
A communications method, comprising: receiving (S301), by a terminal, information about one or more cell groups, wherein one cell group comprises one first cell and at least one second cell; and for the cell group, determining carrier bandwidth part, BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group, wherein the determining BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group comprises: if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires. receiving (S301), by a terminal, information about one or more cell groups, wherein one cell group comprises one first cell and at least one second cell; and for the cell group, determining carrier bandwidth part, BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group, wherein the determining BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group comprises: if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires. if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires.
A timepiece mechanism (800; 800') comprising a device (200; 200') for selecting timepiece functions, comprising: - a frame (100; 100'), - one and a same interface element , in particular a control stem , and - a setting lever device (150; 150'), the setting lever device (150; 150') being arranged so as to define: - n stable positions of the interface element , where n ≥ 3, and - m selection configurations of the selection device (200; 200'), where m≥n+1, the timepiece mechanism being arranged such that each configuration of the selection device is defined by a translational movement of the interface element , so that a user only needs to perform pulling actions on the interface element to achieve the different configurations of the selection device, and such that, for each configuration of the selection device, the timepiece mechanism allows one or more timepiece functions to be activated by the rotation of the interface element , particularly depending on its direction of rotation. - a frame (100; 100'), - one and a same interface element , in particular a control stem , and - a setting lever device (150; 150'), the setting lever device (150; 150') being arranged so as to define: - n stable positions of the interface element , where n ≥ 3, and - m selection configurations of the selection device (200; 200'), where m≥n+1, - n stable positions of the interface element , where n ≥ 3, and - m selection configurations of the selection device (200; 200'), where m≥n+1, the timepiece mechanism being arranged such that each configuration of the selection device is defined by a translational movement of the interface element , so that a user only needs to perform pulling actions on the interface element to achieve the different configurations of the selection device, and such that, for each configuration of the selection device, the timepiece mechanism allows one or more timepiece functions to be activated by the rotation of the interface element , particularly depending on its direction of rotation.