mhurhangee/ep-ind-claims huggingface dataset:
A separator for a non-aqueous secondary battery, comprising: a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains, as monomer components, vinylidene fluoride, a fluorine-containing monomer other than vinylidene fluoride, and a monomer represented by the following Formula: wherein, in Formula, each of R 1, R 2, and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group, and wherein the polyvinylidene fluoride type resin has a molecular weight distribution that is a ratio of a weight average molecular weight to a number average molecular weight of from 3.5 to 10, and that has a weight average molecular weight of from 500,000 to 3,000,000; wherein the weight average molecular weight and the number average molecular weight of the polyvinylidene fluoride type resin are measured using the method described in the description; and wherein the fluorine-containing monomer other than vinylidene fluoride is selected from the group consisting of hexafluoropropylene, tetrafluoroethylene, trifluoroethylene, chlorotrifluoroethylene, vinyl fluoride, perfluoroalkylvinylether, and any combination of one or more thereof. a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains, as monomer components, vinylidene fluoride, a fluorine-containing monomer other than vinylidene fluoride, and a monomer represented by the following Formula: wherein, in Formula, each of R 1, R 2, and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group, and wherein the polyvinylidene fluoride type resin has a molecular weight distribution that is a ratio of a weight average molecular weight to a number average molecular weight of from 3.5 to 10, and that has a weight average molecular weight of from 500,000 to 3,000,000; wherein the weight average molecular weight and the number average molecular weight of the polyvinylidene fluoride type resin are measured using the method described in the description; and wherein the fluorine-containing monomer other than vinylidene fluoride is selected from the group consisting of hexafluoropropylene, tetrafluoroethylene, trifluoroethylene, chlorotrifluoroethylene, vinyl fluoride, perfluoroalkylvinylether, and any combination of one or more thereof.
Portable peripheral for communication with a data network utilising the internet protocol, which peripheral comprises: - a connector for mechanically connecting and establishing a wired communication, in a detachable manner, between the peripheral and a mobile terminal; - a first means for two-way wired communication with the mobile terminal; - a second means for two-way communication with the data network; - a unit for securing communication between the mobile terminal and the data network, this communication being carried out between the first and second communication means; and - an electricity storage unit connected to at least one electronic circuit of the peripheral and configured to cause, when electricity is transmitted to each said circuit, the destruction of each said circuit, and wherein the electricity stored in the storage unit is transmitted to each said circuit when, on the peripheral, a means for detecting an integrity anomaly identifies the presence of a logical integrity anomaly, wherein the anomaly detection unit is reinforced by an automatic learning algorithm for detecting anomalies, on the peripheral, and wherein, when a first anomaly is detected, the peripheral is logically deactivated and, on detection of a second anomaly, subsequent in time to the first anomaly, the electricity stored in the storage unit is transmitted to each electronic circuit of the peripheral to be destroyed. - a connector for mechanically connecting and establishing a wired communication, in a detachable manner, between the peripheral and a mobile terminal; - a first means for two-way wired communication with the mobile terminal; - a second means for two-way communication with the data network; - a unit for securing communication between the mobile terminal and the data network, this communication being carried out between the first and second communication means; and - an electricity storage unit connected to at least one electronic circuit of the peripheral and configured to cause, when electricity is transmitted to each said circuit, the destruction of each said circuit, and wherein the electricity stored in the storage unit is transmitted to each said circuit when, on the peripheral, a means for detecting an integrity anomaly identifies the presence of a logical integrity anomaly, wherein the anomaly detection unit is reinforced by an automatic learning algorithm for detecting anomalies, on the peripheral, and wherein, when a first anomaly is detected, the peripheral is logically deactivated and, on detection of a second anomaly, subsequent in time to the first anomaly, the electricity stored in the storage unit is transmitted to each electronic circuit of the peripheral to be destroyed.
A method for producing a plurality of converter modules for radiation emitted and/or to be received by at least one opto-electronic functional element, preferably from an LED, comprising: - providing a plurality of inorganic converters for converting the radiation emitted and/or to be received; - providing a plurality of optical components; wherein the plurality of converters and the plurality of optical components are provided in an array, each of them or at least part thereof; - joining the plurality of converters and the plurality of optical components such that the plurality of converters is heated to such an extent and/or the plurality of optical components is heated to such an extent that the plurality of converters and the plurality of optical components adhere to each other and form a cohesive composite, so that an array with a plurality of converter modules is provided; wherein the inorganic converters comprise a matrix of inorganic material with phosphors embedded therein; characterized in that the joining of the converters and the optical components is effected by sintering of the converters. - providing a plurality of inorganic converters for converting the radiation emitted and/or to be received; - providing a plurality of optical components; wherein the plurality of converters and the plurality of optical components are provided in an array, each of them or at least part thereof; - joining the plurality of converters and the plurality of optical components such that the plurality of converters is heated to such an extent and/or the plurality of optical components is heated to such an extent that the plurality of converters and the plurality of optical components adhere to each other and form a cohesive composite, so that an array with a plurality of converter modules is provided; wherein the inorganic converters comprise a matrix of inorganic material with phosphors embedded therein; characterized in that the joining of the converters and the optical components is effected by sintering of the converters.
A thermal bonding assembly for sheets made of polymeric material, of the type comprising at least one pair of jaws (2, 3) that can be moved mutually closer, at least one (2, 3) of which is provided with a heater at its surface (4, 5) for abutment against a corresponding complementary surface (5, 4) of the other jaw (3, 2) of the pair, wherein it comprises a shaft that can rotate by virtue of the action of a respective motor, said shaft comprising at least two eccentric rings (7, 8) which are arranged side by side so that the eccentric portion that protrudes the most (9, 10) with respect to the rotation axis is substantially mutually opposite, characterized in that each jaw (2, 3) of said pair comprises a respective through hole for the accommodation of said shaft, with the interposition of a rotatable disk (22, 23), the hole of a first jaw accommodating rotatably a first disk, said first disk being provided with an eccentric hole the shape and dimensions of which are complementary to those of a respective eccentric ring that is integral with said shaft and the hole of a second jaw accommodating rotatably a second disk, said second disk being provided with an eccentric hole the shape and dimensions of which are complementary to those of a respective eccentric ring that is integral with said shaft, the rotation of said shaft causing a mutual approach/spacing motion of said abutment surfaces (4, 5) of said jaws (2, 3) by virtue of the action of said eccentric rings (7, 8) in the corresponding disk (22, 23) that can rotate in said hole of a respective jaw (2, 3).
An adjustable anatomical support and seat cushion apparatus for wheelchairs, comprising: a base member formed of at least one layer of a thermoplastic honeycomb material; a resilient cushion member formed of an upper layer of thermoplastic honeycomb material, an intermediate layer of thermoplastic honeycomb material, and a lower layer of thermoplastic honeycomb material, the layers being bonded together, the base member having an edge thereof pivotally attached to a corresponding edge of the cushion member at a hinge, the cushion member being rotatable between a non-parallel disposition relative to the base member and a parallel disposition relative to the base member, wherein the base member is disposed beneath the lower layer when the cushion member is in the parallel disposition relative to the base member, wherein a first pocket is formed in the lower layer; and at least one pad (66/68/70) configured to be positioned within the first pocket of the cushion member, the at least one pad (66/68/70) being removable from the first pocket of the cushion member characterized in that the upper layer is softer than the intermediate layer, and the intermediate layer is softer than the lower layer, wherein the first pocket has an open end facing the base member when the cushion member is in the parallel disposition relative to the base member; a second pocket is formed in the intermediate layer, and the first and second pockets (48, 52) are open to each other. a base member formed of at least one layer of a thermoplastic honeycomb material; a resilient cushion member formed of an upper layer of thermoplastic honeycomb material, an intermediate layer of thermoplastic honeycomb material, and a lower layer of thermoplastic honeycomb material, the layers being bonded together, the base member having an edge thereof pivotally attached to a corresponding edge of the cushion member at a hinge, the cushion member being rotatable between a non-parallel disposition relative to the base member and a parallel disposition relative to the base member, wherein the base member is disposed beneath the lower layer when the cushion member is in the parallel disposition relative to the base member, wherein a first pocket is formed in the lower layer; and at least one pad (66/68/70) configured to be positioned within the first pocket of the cushion member, the at least one pad (66/68/70) being removable from the first pocket of the cushion member the upper layer is softer than the intermediate layer, and the intermediate layer is softer than the lower layer, wherein the first pocket has an open end facing the base member when the cushion member is in the parallel disposition relative to the base member; a second pocket is formed in the intermediate layer, and the first and second pockets (48, 52) are open to each other.
A device for cutting panels, the panels being of a type constituted by two parallel films (21A, 21B) between which a reticular layer is solidly interposed, comprising: an operating unit movable according to Cartesian axes X, Y and Z; a shaft rotatably supported by the operating unit, characterised in that the shaft exits on both sides from the operating unit and is adapted to rotate with respect to a relative axis wherein a lower portion of the shaft is bent at an angle with respect to the rotation axis thereof; and in that it comprises: vibrating means borne by the lower portion of the shaft, developing in an angled direction with respect to the centre line (Φ) of the lower portion; a blade keyed on an outlet spindle of the vibrating means, destined to cut at least a film (21A, 21 B) and the adjacent reticular layer of the corresponding panel.
An ultrasound elastography imaging device comprising: an ultrasound scanner; and a shear wave elastography processor configured to operate said ultrasound scanner to interrogate a medium of interest and form a preliminary elasticity-spatial-map (244, 308, 320) comprising shear wave propagation delay values based, at least in part, on a result of the interrogating, characterized in that the shear wave elastography processor is further configured to determine a calibrated elasticity-spatial-map by taking a difference between a reference elasticity-spatial-map (228, 304) and the preliminary elasticity-spatial-map (244, 308, 320), wherein said reference elasticity-spatial-map (228, 304) comprises an array of different shear wave propagation delay values corresponding to a reference medium that is not, nor is located at, said medium of interest. an ultrasound scanner; and a shear wave elastography processor configured to operate said ultrasound scanner to interrogate a medium of interest and form a preliminary elasticity-spatial-map (244, 308, 320) comprising shear wave propagation delay values based, at least in part, on a result of the interrogating, characterized in that the shear wave elastography processor is further configured to determine a calibrated elasticity-spatial-map by taking a difference between a reference elasticity-spatial-map (228, 304) and the preliminary elasticity-spatial-map (244, 308, 320), wherein said reference elasticity-spatial-map (228, 304) comprises an array of different shear wave propagation delay values corresponding to a reference medium that is not, nor is located at, said medium of interest.
Planar sealing element, for example for sealing a pipe passage, consisting of an expansible film layer, which is connected, at least in part, on one or on both sides to a nonwoven layer (5, 6) that forms an external surface of the sealing element, and a preferably central through-opening which passes through the nonwoven layer (n) and the film layer, and has a central point, characterised in that the film layer comprises one or more expansion regions on a radial oriented relative to the central point, in which regions the film layer is exposed, i.e. in any case extends without being covered by a nonwoven layer that restricts the expansibility of the film layer, and in that, in a circumferential direction with respect to the central point, a region of the film layer in which the film layer is covered by the nonwoven layer connected thereto is provided next to an expansion region.
A method performed by a user equipment comprising: detecting, by the user equipment, a wireless local area network access point (116, 118, 120); determining, from a plurality of groups of wireless local area network access points (116, 118, 120), a group of the detected wireless local area network access point (116, 118, 120), each group having at least one property different from another group, wherein the at least one property determines wireless local area network access point capabilities of the determined group of the detected wireless local area network access point (116, 118, 120); and using threshold information associated with the determined group to determine whether to connect to a wireless local area network using said detected wireless local area network access point (116, 118, 120). detecting, by the user equipment, a wireless local area network access point (116, 118, 120); determining, from a plurality of groups of wireless local area network access points (116, 118, 120), a group of the detected wireless local area network access point (116, 118, 120), each group having at least one property different from another group, wherein the at least one property determines wireless local area network access point capabilities of the determined group of the detected wireless local area network access point (116, 118, 120); and using threshold information associated with the determined group to determine whether to connect to a wireless local area network using said detected wireless local area network access point (116, 118, 120).
Heat exchanger for heating or cooling a medium stream, comprising multiple spaces for receiving a working medium, in particular a phase-change material, which spaces, for forming at least one flow channel for the medium stream to be heated or to be cooled, are arranged spaced apart from one another, wherein at least two spaces are connected via a connection channel or a connection opening, which connection channel or connection opening is arranged in a region of the heat exchange, and wherein the connection channel extends through the at least one flow channel substantially in a direction perpendicular to the flow direction of the medium stream, wherein the at least one flow channel is delimited by plates which separate the at least one flow channel from the spaces and which are preferably arranged in a parallel manner, characterized in that the connection channel or the connection opening, in the region of a surface centre of gravity of at least one plate, opens into a space.
A wireless communication device, comprising: circuity (101, 102) configured to classify an overall channel quality based on the channel qualities of downlinks, on a specific resource block, of a target cell and other cells in a cell cluster; calculate an inter-cell SINR of the target cell with respect to a first other cell on the specific resource block; and control so that a target transmission power, on the specific resource block, of the target cell is determined by a power allocating method adaptive to the classification of the overall channel quality and the inter-cell SINR. circuity (101, 102) configured to classify an overall channel quality based on the channel qualities of downlinks, on a specific resource block, of a target cell and other cells in a cell cluster; calculate an inter-cell SINR of the target cell with respect to a first other cell on the specific resource block; and control so that a target transmission power, on the specific resource block, of the target cell is determined by a power allocating method adaptive to the classification of the overall channel quality and the inter-cell SINR.
Air filter for I.C. engines, comprising a housing, a lid and a filtering cartridge (30; 130; 230; 330; 430), said filtering cartridge (30; 130; 230; 330; 430) comprising a first portion of pack of filtering material, a second portion of pack of filtering material and a connection element (35,31c) configured for being sealingly connected to the first portion and the second portion of the pack of filtering material, wherein the housing comprises a support element, wherein the lid comprises an abutment portion, and wherein the connection element comprises a portion (136; 236; 336; 436) clamped between the support element of the housing and the abutment portion of the lid, characterized in that the filtering cartridge further comprises a reinforcing net (138,238,438a,438b) for the pack of filtering material and in that the portion of the connection element (35,31c) that is clamped and pressed between the support element of the housing and the abutment portion of the lid comprises part of the reinforcing net (138,238,438a,438b) besides part of an intermediate portion of the pack of filtering material.
A computer-implemented method comprising: receiving, by a server computer from a requesting device, a request for a location of one or more requested devices; determining, by the server computer, whether the request for the location requires a relatively accurate response or only an approximate response, wherein: the request for location is determined to only require an approximate response when the request is for the location of multiple requested devices; and sending, by the server computer, a shallow locate request to the multiple requested devices when it is determined that the request for location requires only an approximate response, and wherein: the request for location is determined to require a relatively accurate response when the request specifies a single requested device; and sending, by a server, a deep locate request to the single requested device when it is determined that the request for location requires a relative accurate response. receiving, by a server computer from a requesting device, a request for a location of one or more requested devices; determining, by the server computer, whether the request for the location requires a relatively accurate response or only an approximate response, wherein: the request for location is determined to only require an approximate response when the request is for the location of multiple requested devices; and sending, by the server computer, a shallow locate request to the multiple requested devices when it is determined that the request for location requires only an approximate response, and wherein: the request for location is determined to require a relatively accurate response when the request specifies a single requested device; and sending, by a server, a deep locate request to the single requested device when it is determined that the request for location requires a relative accurate response. the request for location is determined to only require an approximate response when the request is for the location of multiple requested devices; and sending, by the server computer, a shallow locate request to the multiple requested devices when it is determined that the request for location requires only an approximate response, and wherein: the request for location is determined to require a relatively accurate response when the request specifies a single requested device; and sending, by a server, a deep locate request to the single requested device when it is determined that the request for location requires a relative accurate response. the request for location is determined to require a relatively accurate response when the request specifies a single requested device; and sending, by a server, a deep locate request to the single requested device when it is determined that the request for location requires a relative accurate response.
A method for producing a sugar-reduced apple juice, wherein components of the fruit are pressed, in particular after an at least partial comminution or fractionation, for obtaining the fruit juice, wherein at least a part (14, 19) of the juice obtained from the pressed fruit flesh is subjected to an at least partial sugar-removal process (S5, S9), characterized in that, prior to the pressing process, the skin of the fruit is removed by peeling and the skin is subjected to a separate pressing process, or a pressing process using only a part of the fruit flesh, that after the removal of the skin, an uppermost layer of the fruit flesh on the outer periphery or region of the fruit is separated from a core region of the fruit flesh, and these two parts (13, 16) of the separated fruit flesh are each subjected to a separate pressing process (S3, S4), and that the juice (15, 22) obtained from the sugar-removal process is combined or mixed with the juice (17, 20, 21) from the pressing process of the skin and optionally with the juice from the remaining part of the fruit flesh.