mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a housing comprising an edge area with a side extending in a side direction, with respect to a front of the device; a transparent external protective layer, an edge of the transparent external protective layer comprising a curved first surface extending in the side direction adjacent to the side of the edge area; a panel module layer, an edge of the panel module layer being bent conformally with the curved first surface, adjacent to the side of the housing and extending in the side direction, the panel module layer being a flexible panel module layer comprising a display area and a non-display area, the non-display area extending in the side direction along the edge of the panel module layer and having a width in a vertical direction to the side direction; and an opaque layer disposed within the edge area, the opaque layer being interposed between the external protective layer and the panel module layer, the opaque layer extending in the side direction adjacent to the side of the edge area, a rail groove formed in a longitudinal direction in a surface of the housing facing a back of an edge side of the panel module layer; and a protective member inserted into the rail groove, wherein the width of the opaque layer in a vertical direction has a dimension that at least a part of the non-display area in the vertical direction of the width is covered. a housing comprising an edge area with a side extending in a side direction, with respect to a front of the device; a transparent external protective layer, an edge of the transparent external protective layer comprising a curved first surface extending in the side direction adjacent to the side of the edge area; a panel module layer, an edge of the panel module layer being bent conformally with the curved first surface, adjacent to the side of the housing and extending in the side direction, the panel module layer being a flexible panel module layer comprising a display area and a non-display area, the non-display area extending in the side direction along the edge of the panel module layer and having a width in a vertical direction to the side direction; and an opaque layer disposed within the edge area, the opaque layer being interposed between the external protective layer and the panel module layer, the opaque layer extending in the side direction adjacent to the side of the edge area, a rail groove formed in a longitudinal direction in a surface of the housing facing a back of an edge side of the panel module layer; and a protective member inserted into the rail groove, wherein the width of the opaque layer in a vertical direction has a dimension that at least a part of the non-display area in the vertical direction of the width is covered.
Cryogenic fluid circuit supporting element comprising a plurality of orifices (2, 3) provided for the passage respectively of cryogenic fluid transfer ducts, said supporting element comprising at least a first heat path formed between two adjacent orifices (2, 3), the first heat path comprising a blind opening arranged between the two adjacent orifices (2, 3), the opening being defined by two spaced-apart walls (14, 24, 15, 25), each wall extending between two ends along a longitudinal direction perpendicular to the plane of the orifices (2, 3), first ends of the walls (14, 24, 15, 25) being connected respectively to the two adjacent orifices (2, 3), the second ends of the two walls (14, 24; 15, 25) being interconnected via a bottom (34, 35), the supporting element being characterised in that it comprises a first set of orifices surrounded by the first heat path and a second set of orifices, the orifices (2, 3) of the first and second sets of orifices being situated in the same plane or in parallel planes, the orifices of the first and second sets of orifices being formed respectively in two material plates, such as sheets, the two material plates respectively comprising the first and the second set of orifices being parallel and situated in the same plane or in separate parallel planes, the first heat path being situated between the first set of orifices and the second set of orifices, i.e. the first heat path is thermally and mechanically linked with, on one hand, all the orifices of the first set of orifices and, on the other, all the orifices of the second set of orifices.
A touch control method for use in a terminal device, the terminal device comprising an operating system kernel layer, an application layer and a framework layer disposed between the operating system kernel layer and the application layer, the method comprising: detecting, by the operating system kernel layer, a first touch operation entered by a user on a touchscreen; and when a touch point of the first touch operation falls within a first preset area included in at least one preset area associated with a target interface, obtaining, by the framework layer, a touch mapping rule that is preset for the first preset area; modifying, by the framework layer, the first touch operation to a second touch operation according to the touch mapping rule; and providing, by the framework layer to the application layer, the second touch operation so that a target application responds to the second touch operation; and when the touch point of the first touch operation does not fall within any of the at least one preset area associated with the target application, providing, by the framework layer to the application layer, the first touch operation so that the target application responds to the first touch operation; wherein the target interface is any interface that is presented by the target application and that covers the first preset area, and the target application is running in the foreground; wherein the first touch operation and the second touch operation are sliding operations, and a sliding distance of the second touch operation is different from a sliding distance of the first touch operation. detecting, by the operating system kernel layer, a first touch operation entered by a user on a touchscreen; and when a touch point of the first touch operation falls within a first preset area included in at least one preset area associated with a target interface, obtaining, by the framework layer, a touch mapping rule that is preset for the first preset area; modifying, by the framework layer, the first touch operation to a second touch operation according to the touch mapping rule; and providing, by the framework layer to the application layer, the second touch operation so that a target application responds to the second touch operation; and when the touch point of the first touch operation does not fall within any of the at least one preset area associated with the target application, providing, by the framework layer to the application layer, the first touch operation so that the target application responds to the first touch operation; wherein the target interface is any interface that is presented by the target application and that covers the first preset area, and the target application is running in the foreground; wherein the first touch operation and the second touch operation are sliding operations, and a sliding distance of the second touch operation is different from a sliding distance of the first touch operation.
A secure electronic module comprising at least one electrical contact zone on one side, and on the other side at least one microchip connected to said at least one electrical contact zone by means of connectors, characterised in that said electronic module further comprises, on the same side as said microchip, at least one peripheral protection means defining a protection perimeter around said microchip and its connectors, where the height of said at least one peripheral protection means is greater than the height of the microchip and its connectors so that at least part of the microchip and its connectors is directly accessible, while being protected.
- A method for measuring the energy behavior of a transport network comprising a set of substation(s) for supplying electrical energy and a fleet of vehicles electrically supplied by said substations, said vehicles following predefined trajectories and comprising an environmental data capture unit comprising at least one temperature sensor, one humidity sensor and one CO 2 sensor, said method comprising the following steps implemented by an electronic system for measuring the energy behavior of the transport network comprising a memory and a processor: - the collection of environmental data captured by the sensor(s) of the capture unit during the movement of vehicles on their trajectory, with each environmental data being associated with its respective capture time,; - the collection of data characterizing the dynamic state of vehicles during the movement of vehicles on their trajectory; - determination of electrical consumption values of the vehicles at sampling times - the calculation of at least one indicator of energy performance indicator of the network according to said determined electrical values; where the electrical consumption values at said sampling times of at least some of said vehicles are determined by an algorithmic model, said algorithmic model being stored in the memory of the electronic measuring system and executed on the processor of said system, the electrical consumption values at said sampling times of each of said vehicles being calculated by the algorithmic model based on the captured environmental data and the associated capture times collected during the travel of the vehicle along said trajectory, as well as data characterizing the dynamic state of the vehicle on the predefined trajectory at the sampling times, the electrical consumption values of a substation being determined at said sampling times during the passage of a vehicle while solely supplied by said substation; electrical consumption values of said vehicle being deduced from said determined electrical consumption values of a substation and the validity of the algorithmic model being evaluated by comparing said deduced electrical consumption values of said vehicle with said determined electrical consumption values of said vehicles. - the collection of environmental data captured by the sensor(s) of the capture unit during the movement of vehicles on their trajectory, with each environmental data being associated with its respective capture time,; - the collection of data characterizing the dynamic state of vehicles during the movement of vehicles on their trajectory; - determination of electrical consumption values of the vehicles at sampling times - the calculation of at least one indicator of energy performance indicator of the network according to said determined electrical values;
Coiler mandrel for coiling metal sheets, comprising a shaped mandrel body, a spreader bar adjustable in axial direction relative to the mandrel body and a plurality of segments which are radially adjustable relative to the mandrel body by axial movement of the spreader bar, wherein a plurality of straps pivotably mounted on the spreader bar and on the segments is arranged between the spreader bar and the segments, wherein at least a plurality of the straps passes through recesses in the mandrel body in the mounted state of the coiler mandrel; and wherein the mandrel body is closed at the end and the recesses are thus so formed in the mandrel body that the mandrel body is free from the recesses at its two axial ends; characterised in that wear plates, which are supported at the closed mandrel body, of the segments are arranged.
A method for use in a User Equipment, UE, for performing measurements in a wireless communication network, the method comprising: - acquiring system information, SI, of a cell during autonomous gaps created by the UE; and - performing a non-SI measurement related to a serving cell and/or to one or more neighbour cells during a time period comprising the autonomous gaps, wherein the non-SI measurement is performed in-between the created autonomous gaps, and wherein a non-SI measurement related to a serving cell is at least a Radio Link Monitoring measurement. - acquiring system information, SI, of a cell during autonomous gaps created by the UE; and - performing a non-SI measurement related to a serving cell and/or to one or more neighbour cells during a time period comprising the autonomous gaps, wherein the non-SI measurement is performed in-between the created autonomous gaps, and wherein a non-SI measurement related to a serving cell is at least a Radio Link Monitoring measurement.
A method for treating a stack obtained upon manufacturing a heterojunction photovoltaic cell, in order to improve the efficiency of the photovoltaic cell, the stack comprising a crystalline silicon substrate and a hydrogenated amorphous silicon passivation layer disposed on the substrate, said method comprising a step of exposing a face of the stack to electromagnetic radiation emitted by a radiation source, said method being characterised in that the electromagnetic radiation is applied to the face of the stack along a line, the stack and the radiation source being relatively translationally moving in a direction of displacement such that the line scans at least part of the face of the stack.
A method for manufacturing a multilayer card body for a portable data carrier having the following steps: - making available a first and a second layer (2, 4) of synthetic paper, the synthetic paper being based on calcium carbonate to which high-density polyethylene (HDPE) is added, the ratio amounting to at least 3 to 1 based on weight, - respectively printing a graphical pattern (12, 22) to one side of the layers of synthetic paper, - applying an adhesive lacquer to the other side of at least one of the layers (2, 4) of synthetic paper, - bringing together the respectively one-sided printed layers (2, 4) of synthetic paper, so that the upper sides with the graphical pattern (12, 22) point outwardly and the side or sides coated with adhesive lacquer lie against each other, so that the adhesive lacquer lies between the layers (2, 4) of synthetic paper, - laminating the brought-together layers (2, 4) at a temperature of 120 to 180°C, preferably 140 to 160°C, and a pressure of 60 to 100 bar, preferably 75 to 95 bar, into a half-product which has a core structure formed from two synthetic paper layers (2, 4) and respectively bearing a graphical pattern (12, 22) on the outer sides, - separating the card body from the half-product by means of a separating tool. - making available a first and a second layer (2, 4) of synthetic paper, the synthetic paper being based on calcium carbonate to which high-density polyethylene (HDPE) is added, the ratio amounting to at least 3 to 1 based on weight, - respectively printing a graphical pattern (12, 22) to one side of the layers of synthetic paper, - applying an adhesive lacquer to the other side of at least one of the layers (2, 4) of synthetic paper, - bringing together the respectively one-sided printed layers (2, 4) of synthetic paper, so that the upper sides with the graphical pattern (12, 22) point outwardly and the side or sides coated with adhesive lacquer lie against each other, so that the adhesive lacquer lies between the layers (2, 4) of synthetic paper, - laminating the brought-together layers (2, 4) at a temperature of 120 to 180°C, preferably 140 to 160°C, and a pressure of 60 to 100 bar, preferably 75 to 95 bar, into a half-product which has a core structure formed from two synthetic paper layers (2, 4) and respectively bearing a graphical pattern (12, 22) on the outer sides, - separating the card body from the half-product by means of a separating tool.
Device for the inductive heating of a workpiece in a rolling mill, wherein the device comprises: - a converter for producing an alternating voltage, - a capacitor bank electrically connected to the converter and comprising a plurality of capacitors connected in parallel, - a working zone, in which an upper coil and a lower coil are arranged, wherein the workpiece can be moved through between the coils (10, 11) and is thereby inductively heated by transverse-field heating, - a housing arranged next to, below or above the working zone, wherein the converter and the capacitor bank are arranged in the housing, - wherein the coils (10, 11) are electrically connected to the capacitor bank by way of a respective flexible cable (12, 13), - wherein the cables (12, 13) are formed as coaxial cables, wherein one phase of the alternating voltage is on an inner conductor and the other phase of the alternating voltage is on an outer conductor of the coaxial cable, and - wherein the cables (12, 13) are cooled by a fluid, such as air or water. - a converter for producing an alternating voltage, - a capacitor bank electrically connected to the converter and comprising a plurality of capacitors connected in parallel, - a working zone, in which an upper coil and a lower coil are arranged, wherein the workpiece can be moved through between the coils (10, 11) and is thereby inductively heated by transverse-field heating, - a housing arranged next to, below or above the working zone, wherein the converter and the capacitor bank are arranged in the housing, - wherein the coils (10, 11) are electrically connected to the capacitor bank by way of a respective flexible cable (12, 13), - wherein the cables (12, 13) are formed as coaxial cables, wherein one phase of the alternating voltage is on an inner conductor and the other phase of the alternating voltage is on an outer conductor of the coaxial cable, and - wherein the cables (12, 13) are cooled by a fluid, such as air or water.
An optical element comprising an optically effective surface (R1, R2) and an optically non-effective surface (a, b, c, d, e), a light-shielding coating film being formed on the optically non-effective surface, wherein: the optically non-effective surface includes a concave step corner section; in a section obtained when the optical element is cut along a plane crossing the concave step corner section and perpendicular to a ridge line of the concave step corner section formed at an intersection of two surfaces of the concave step corner section excluding a round chamfer when the two surfaces are extended, a line corresponding to a surface of the concave step corner section has a shape in which two line segments (b, d) are smoothly connected to each other via an arc-shaped curve (c); and when that end of each of the two line segments which borders on the curve is designated as an inner end (A1, B1) of the line segment while an opposite end is designated as an outer end (A2, B2) of the line segment, characterized in that the light-shielding coating film is formed on a surface of the concave step corner section of the optically non-effective surface so as to have a raised area that increases in film thickness continuously or stepwise from the inner end to the outer end and then decreases continuously or stepwise on at least one of the two line segments in the section. the optically non-effective surface includes a concave step corner section; in a section obtained when the optical element is cut along a plane crossing the concave step corner section and perpendicular to a ridge line of the concave step corner section formed at an intersection of two surfaces of the concave step corner section excluding a round chamfer when the two surfaces are extended, a line corresponding to a surface of the concave step corner section has a shape in which two line segments (b, d) are smoothly connected to each other via an arc-shaped curve (c); and when that end of each of the two line segments which borders on the curve is designated as an inner end (A1, B1) of the line segment while an opposite end is designated as an outer end (A2, B2) of the line segment, characterized in that the light-shielding coating film is formed on a surface of the concave step corner section of the optically non-effective surface so as to have a raised area that increases in film thickness continuously or stepwise from the inner end to the outer end and then decreases continuously or stepwise on at least one of the two line segments in the section.
A specimen support tool for supporting a slice prepared by using a microtome, the specimen support tool comprising a specimen support member on which a groove for guiding the slice is formed, wherein a first through hole is formed in the specimen support member, the groove extends from an edge of the specimen support member to the first through hole, characterized in that a recessed portion is formed on a surface that defines a bottom of the groove of the specimen support member, and a chip having a support film for supporting the slice is installable in the recessed portion. a first through hole is formed in the specimen support member, the groove extends from an edge of the specimen support member to the first through hole, characterized in that a recessed portion is formed on a surface that defines a bottom of the groove of the specimen support member, and a chip having a support film for supporting the slice is installable in the recessed portion.
A single photon emission computed tomography, SPECT, system comprising: a handheld scanner comprising a solid-state detector configured to detect emissions from a patient and an imager configured to image the patient; and an image processor configured to determine an internal dose from a time activity curve formed from activities of different scans at different times, the activities tomographically formed from, at a first period, a first SPECT scan of the patient on a bed of a SPECT scanner as well as, at a second period, from (a) emissions detected from the patient by the solid-state detector during the different scans of the different times and (b) output of the imager, the image processor configured to tomographically form the activities with the patient in a far-field of the solid-state detector or a near-field of the solid-state detector. a handheld scanner comprising a solid-state detector configured to detect emissions from a patient and an imager configured to image the patient; and an image processor configured to determine an internal dose from a time activity curve formed from activities of different scans at different times, the activities tomographically formed from, at a first period, a first SPECT scan of the patient on a bed of a SPECT scanner as well as, at a second period, from (a) emissions detected from the patient by the solid-state detector during the different scans of the different times and (b) output of the imager, the image processor configured to tomographically form the activities with the patient in a far-field of the solid-state detector or a near-field of the solid-state detector.