mhurhangee/ep-ind-claims huggingface dataset:
A curable composition comprising a flexible polymer element and a resin matrix component wherein the flexible polymer element is in solid phase and adapted to at least partially undergo phase transition to fluid phase by solution on contact with the resin matrix component of the curable composition in which the polymer is soluble at a temperature which is less than the temperature for onset of gelling and/or curing of the curable composition characterised in that phase transition to fluid phase is by solution of the soluble polymer in the resin matrix component, wherein the matrix resin is curable and is selected from the group consisting of an epoxy resin, an addition-polymerisation resin, especially a bismaleimide resin, a formaldehyde condensate resin, especially a formaldehyde-phenol resin, a cyanate resin, an isocyanate resin, a phenolic resin and mixtures of two or more thereof, and wherein the flexible polymer element comprises at least one polyaromatic sulphone comprising ether-linked repeating units, optionally additionally comprising thioether-linked repeating units, the units consisting of -(PhAPh) n - and -(Ph)a- wherein A=CO or SO 2, Ph is phenylene, n = 1 to 2, a = 1 to 4 preferably a=1, 2 or 3 and, can be fractional and when a exceeds 1, said phenylenes are linked linearly through a single chemical bond or a divalent group other than -CO- or - SO 2 - or are fused together directly or via a cyclic moiety, such as acid alkyl group, a (hetero) aromatic or cyclic ketone, amide, imide, imine; and wherein the flexible polymer element is in the form of a mono or multi fibre, filament, ribbon, or mixtures or weave thereof.
A recording method comprising: first coating a treatment liquid A to a recording medium; second coating a treatment liquid B to the recording medium after the first coating; and discharging an ink composition including a coloring material to the recording medium by discharging from a nozzle after the second coating, wherein the treatment liquid A adjusts wettability of the treatment liquid B to the recording medium and includes a resin, and the treatment liquid B thickens or insolubilizes the ink composition and includes at least any one of a polyvalent metal salt, an organic acid, and an organic acid salt, characterized in that the glass transition temperature of the resin is 29°C or lower, and the recording medium is a non-absorbent recording medium. first coating a treatment liquid A to a recording medium; second coating a treatment liquid B to the recording medium after the first coating; and discharging an ink composition including a coloring material to the recording medium by discharging from a nozzle after the second coating, wherein the treatment liquid A adjusts wettability of the treatment liquid B to the recording medium and includes a resin, and the treatment liquid B thickens or insolubilizes the ink composition and includes at least any one of a polyvalent metal salt, an organic acid, and an organic acid salt, characterized in that the glass transition temperature of the resin is 29°C or lower, and the recording medium is a non-absorbent recording medium.
Support for fixing a Eurobalise to a sleeper, the support having a stackable form, the support, and optionally one or more other supports (15B, 20A, 20B) which are structurally identical with said support and are stacked on said support, being intended to be placed between the Eurobalise and the sleeper in a fixing direction in order to fix the Eurobalise at a predetermined height relative to the sleeper, said support having a first face having reinforcing ribs and receivers (48, 50, 52, 54) defined laterally at least in part by the reinforcing ribs.
A molded assembly, comprising: a circuit board, wherein the circuit board has a molding region, a mounting region and at least two pad regions, the molding region surrounds the mounting region, and the pad regions are arranged at corners of the circuit board and located outside corresponding corners of the molding region so as to electrically connect to an actuator, wherein each pad region has a triangle shape, and each pad region has an avoidance boundary (1133', 1133") as a hypotenuse of the triangle shape that separates and defines the respective pad region and the molding region, and an angle formed by each avoidance boundary (1133', 1133") is 180°, so that each avoidance boundary (1133', 1133") is a straight line, so as to be formed obliquely at corresponding corner of the circuit board; and a molded portion, wherein the molded portion embeds the molding region, surrounds the mounting region and thus defines a light window, and the molded portion avoids the pad regions along the avoidance boundaries (1133', 1133"); wherein a size of the narrowest part of the molded portion is at least 0.15 mm. a circuit board, wherein the circuit board has a molding region, a mounting region and at least two pad regions, the molding region surrounds the mounting region, and the pad regions are arranged at corners of the circuit board and located outside corresponding corners of the molding region so as to electrically connect to an actuator, wherein each pad region has a triangle shape, and each pad region has an avoidance boundary (1133', 1133") as a hypotenuse of the triangle shape that separates and defines the respective pad region and the molding region, and an angle formed by each avoidance boundary (1133', 1133") is 180°, so that each avoidance boundary (1133', 1133") is a straight line, so as to be formed obliquely at corresponding corner of the circuit board; and a molded portion, wherein the molded portion embeds the molding region, surrounds the mounting region and thus defines a light window, and the molded portion avoids the pad regions along the avoidance boundaries (1133', 1133"); wherein a size of the narrowest part of the molded portion is at least 0.15 mm.
An aisle containment system for installation in an area of a data center comprising pre-existing building columns, the aisle containment system comprising: a frame defined by wall beams, header frames, and a plurality of posts; a plurality of cabinets positioned within the frame; mid-span posts configured to be positioned adjacent building columns located within the frame, the mid-span posts for supporting the wall beams on one side of the frame; at least one containment column adapter secured to one of the wall beams and one of the mid-span posts; wherein the at least one containment column adapter is configured to seal gaps between a building column of the building columns, and the wall beam within the frame of the aisle containment system. a plurality of cabinets positioned within the frame; mid-span posts configured to be positioned adjacent building columns located within the frame, the mid-span posts for supporting the wall beams on one side of the frame;
A corner connector for window and door frames which comprises a first and a second connecting piece (110a, 110b) designed to engage in an inner or respectively outer profile chamber (210a, 210b) of a side profile of the window or door frame, wherein an insulating profile is formed between the first and the second connecting piece (110a, 110b); wherein the first and the second connecting piece (110a, 100b) comprise respective first and second legs (111, 112) which are connected together at an apex and preferably subtend a right angle for mutually aligning the side profile of the window or door frame; characterized in that the apex of the first and second connecting piece (110a, 100b) comprises a cavity for improving thermal insulation in the corners of the window or door frame.
A method for managing the provision of a service between origin and destination endpoints over a communication network, the communication network comprising at least two Autonomous Systems, ASs, the method comprising: - defining an Abstraction and Control of Traffic Engineered Networks, ACTN, Virtual Network, VN, between the origin and destination endpoints, the VN comprising at least one specified tunnel in each of the ASs; the method being characterised in that it further comprises: - defining at each egress node of each tunnel in the VN a loopback interface that corresponds to the VN and is specific to said each tunnel of the egress node; - defining, at each of the origin and destination endpoints, a service segregation loopback interface which binds a subset of traffic belonging to the service, wherein said subset of traffic belonging to the service is identified by routing constraints specific for said subset of traffic; and - using a Routing Policy to expose the loopback interface corresponding to the VN, and defined at the egress node corresponding to the destination endpoint, as routing next hop for traffic belonging to the service and having the service segregation loopback interface defined at the destination endpoint as its destination. - defining an Abstraction and Control of Traffic Engineered Networks, ACTN, Virtual Network, VN, between the origin and destination endpoints, the VN comprising at least one specified tunnel in each of the ASs; - defining at each egress node of each tunnel in the VN a loopback interface that corresponds to the VN and is specific to said each tunnel of the egress node; - defining, at each of the origin and destination endpoints, a service segregation loopback interface which binds a subset of traffic belonging to the service, wherein said subset of traffic belonging to the service is identified by routing constraints specific for said subset of traffic; and - using a Routing Policy to expose the loopback interface corresponding to the VN, and defined at the egress node corresponding to the destination endpoint, as routing next hop for traffic belonging to the service and having the service segregation loopback interface defined at the destination endpoint as its destination.
A method for determining a protocol data unit, PDU, session service network element, comprising: receiving, by a control plane function network element from a mobility management device, a request for establishing a first PDU session, wherein the request for establishing the first PDU session comprises a first data network name, DNN; determining, by the control plane function network element, that a same user plane function network element needs to be selected for PDU sessions corresponding to the first DNN; and determining, by the control plane function network element, that a first user plane function network element is a user plane function network element for the first PDU session; characterized by: before the determining, by the control plane function network element, that a same user plane function network element needs to be selected for a PDU session corresponding to the first DNN, the method further comprises: determining, by the control plane function network element, that the first PDU session needs to be subsequently switched to an evolved packet core, EPC, network; wherein the determining that the first PDU session needs to be subsequently switched to an EPC network, comprises: determining, by the control plane function network element based on subscription data, that the first PDU session needs to be subsequently switched to the EPC network. receiving, by a control plane function network element from a mobility management device, a request for establishing a first PDU session, wherein the request for establishing the first PDU session comprises a first data network name, DNN; determining, by the control plane function network element, that a same user plane function network element needs to be selected for PDU sessions corresponding to the first DNN; and determining, by the control plane function network element, that a first user plane function network element is a user plane function network element for the first PDU session; characterized by: before the determining, by the control plane function network element, that a same user plane function network element needs to be selected for a PDU session corresponding to the first DNN, the method further comprises: determining, by the control plane function network element, that the first PDU session needs to be subsequently switched to an evolved packet core, EPC, network; wherein the determining that the first PDU session needs to be subsequently switched to an EPC network, comprises: determining, by the control plane function network element based on subscription data, that the first PDU session needs to be subsequently switched to the EPC network.
Receiving stage (10, 10', 10") for receiving a receive signal, comprising: M receiving paths (12a, 12b, 12c), each receiving path (12a, 12b, 12c) comprising a signal processor (14a, 14b, 14c) and K comparators (16a, 16b, 16c, 16d), wherein each of the K comparators (16a, 16b, 16c, 16d) is coupled to a correlator unit (22a, 22b, 22c, 22d) configured to detect a bit sequence forwarded by the respective comparator (16a, 16b, 16c, 16d), wherein the signal processors (14a, 14b, 14c) of the M receiving paths (12a, 12b, 12c) are configured to generate, for each of the M receiving paths (12a, 12b, 12c), an amplified version of the receive signal such that an amplification gain of the respective receiving path (12a, 12b, 12c) increases from a first of the M receiving paths (12a, 12b, 12c) to a last of the M receiving paths (12a, 12b, 12c), wherein for each of the M receiving paths (12a, 12b, 12c) the K comparators (16a, 16b, 16c, 16d) of the respective receiving paths (12a, 12b, 12c) are configured to compare the amplified receive signal of the respective receiving path (12a, 12b, 12c) with a respective threshold value, and for each of the M receiving paths (12a, 12b, 12c) the threshold value increases from a first of the K comparators (16a, 16b, 16c, 16d) to the last of the K comparators (16a, 16b, 16c, 16d). M receiving paths (12a, 12b, 12c), each receiving path (12a, 12b, 12c) comprising a signal processor (14a, 14b, 14c) and K comparators (16a, 16b, 16c, 16d), wherein each of the K comparators (16a, 16b, 16c, 16d) is coupled to a correlator unit (22a, 22b, 22c, 22d) configured to detect a bit sequence forwarded by the respective comparator (16a, 16b, 16c, 16d), wherein the signal processors (14a, 14b, 14c) of the M receiving paths (12a, 12b, 12c) are configured to generate, for each of the M receiving paths (12a, 12b, 12c), an amplified version of the receive signal such that an amplification gain of the respective receiving path (12a, 12b, 12c) increases from a first of the M receiving paths (12a, 12b, 12c) to a last of the M receiving paths (12a, 12b, 12c), wherein for each of the M receiving paths (12a, 12b, 12c) the K comparators (16a, 16b, 16c, 16d) of the respective receiving paths (12a, 12b, 12c) are configured to compare the amplified receive signal of the respective receiving path (12a, 12b, 12c) with a respective threshold value, and for each of the M receiving paths (12a, 12b, 12c) the threshold value increases from a first of the K comparators (16a, 16b, 16c, 16d) to the last of the K comparators (16a, 16b, 16c, 16d).
A light emitting diode die structure comprising: LED semiconductor layers including an N-type layer, a P-type layer, an active layer that emits light; a growth substrate having a first surface and a second surface opposing the first surface; the N-type layer, the P-type layer, and the active layer being grown on the first surface; the N-type layer, the P-type layer, and the active layer being arranged so that at least a portion of the light generated by the active layer enters the first surface of the growth substrate and exits through the second surface of the growth substrate; a wavelength conversion layer overlying the second surface of the growth substrate; wherein the first surface of the growth substrate is at least partly exposed forming distributed contact areas for a metal contact (58, 70) for one of the LED semiconductor layers; the distributed contact areas are formed by one or more openings in the LED semiconductor layers distributed around a central portion of the LED die; the metal contact (58, 70) is formed along the edges of the one or more openings, not in the central area of the openings; characterized in that: a highly reflective material is deposited in the central areas of the one or more openings covering at least a portion of the first surface of the growth substrate so as to reflect light from the wavelength conversion layer. LED semiconductor layers including an N-type layer, a P-type layer, an active layer that emits light; a growth substrate having a first surface and a second surface opposing the first surface; the N-type layer, the P-type layer, and the active layer being grown on the first surface; the N-type layer, the P-type layer, and the active layer being arranged so that at least a portion of the light generated by the active layer enters the first surface of the growth substrate and exits through the second surface of the growth substrate; a wavelength conversion layer overlying the second surface of the growth substrate; wherein the first surface of the growth substrate is at least partly exposed forming distributed contact areas for a metal contact (58, 70) for one of the LED semiconductor layers; the distributed contact areas are formed by one or more openings in the LED semiconductor layers distributed around a central portion of the LED die; the metal contact (58, 70) is formed along the edges of the one or more openings, not in the central area of the openings; characterized in that: a highly reflective material is deposited in the central areas of the one or more openings covering at least a portion of the first surface of the growth substrate so as to reflect light from the wavelength conversion layer.
A seal assembly for providing a seal between a cylindrical member and a housing with the cylindrical member rotatable around a central axis and relative to the housing, said seal assembly comprising: a casing unit defined by a side wall and a flange extending axially from said side wall; and a sealing ring unit formed from an elastomeric material and secured to said flange and presenting an active surface configured to surround the cylindrical member; characterized by an element formed from a durable polymeric material and bonded to said active surface of said sealing ring unit, wherein the element is configured to engage the cylindrical member, and wherein the element further presents a pumping surface defined by a sinuous line forming waves along said pumping surface thereby being configured to lubricate the cylindrical member rotatable relative to said sealing ring unit, so that the element is configured to prevent frictional engagement between said sealing ring unit and the cylindrical member. a casing unit defined by a side wall and a flange extending axially from said side wall; and a sealing ring unit formed from an elastomeric material and secured to said flange and presenting an active surface configured to surround the cylindrical member;
A process for producing a xylene isomer comprising reacting oxygenates with an aromatic feedstock comprising toluene and/or benzene in a methylation zone operating under alkylation conditions comprising a temperature of 260°C to 320°C and a pressure of 300 kPa to 3000 kPa in the presence of a catalyst composition comprising a zeolite selected from a member of the group consisting of UZM-37, MCM-49, UZM-56 to provide a product stream comprising the xylene isomer.
A liner (16, 22) for a filtration apparatus, said liner (16, 22) adapted to be disposed and sealed between a holder plate (12, 13) and a filter element, said liner (16, 22) comprising a flat face adapted to abut said filter element and an opposite face adapted to abut said holder plate (12, 13), said liner (16, 22) having a feed fluid inlet, a feed fluid outlet, and a feed fluid path within said liner in fluid communication with said feed fluid inlet and said feed fluid outlet, and a retentate fluid inlet, a retentate fluid outlet, and a retentate fluid path within said liner in fluid communication with said retentate fluid inlet and said retentate fluid outlet, characterized by said liner (16, 22) further having a feed sensor port in fluid communication with said feed fluid path, and a retentate sensor port in fluid communication with said retentate fluid path; a feed diaphragm sealed to said feed sensor port, and a retentate diaphragm sealed to said retentate sensor port; and a feed pressure sensor removably connected to said feed sensor port for sensing pressure in said feed fluid path through said feed diaphragm without contacting fluid in said feed fluid path, and a retentate pressure sensor removably connected to said retentate sensor port for sensing pressure in said retentate fluid path through said retentate diaphragm without contacting fluid in said retentate fluid path.
Sanitary fitting comprising a fitting housing and a water conduit, wherein at least one electrically activatable actuator, particularly a flow valve is provided to open and close the water conduit, wherein the fitting housing comprises at least one opening and a detachable, covering installation cover for opening the fitting housing for installation, repair, and/or maintenance, wherein within the fitting housing is provided at least one turbine powering an electrical generator for utilizing the flow energy of the water flow, wherein the turbine is arranged behind the installation cover in the housing opening area and thus is directly accessible with the opened installation cover, wherein the turbine with generator is arranged or installed in the area directly before the outlet, wherein the water conduit is formed separately from the housing in the area of the turbine so that while the installation cover is opened the water conduit remains closed, characterised in that at least one cut-off apparatus having a second actuator is arranged within the fitting housing for cutting off the water conduit and that the second actuator enables a separation at a separation point, wherein the second actuator is activated by uninstalling the first actuator so that at the same time the second actuator is closed.
A carrycot including an upper frame, a bottom and a carrycot tightening adjustment mechanism, which has two elements (1, 2) hinged to each other with discs at the place of their rotary connection and with an opening angle ranging from 0° to 180°, one of which constitutes a tightener attached to the upper frame of the carrycot, while the other is an arm, where the discs of both elements (1, 2) adhere to each other - on the inside of them - one of the adjacent elements has at least one component protruding in the form of a safety tooth, while the other element has at least one concave component corresponding to the safety tooth in the form of a recess, characterized in that in the arm a longitudinal hollow is made in which is placed the end of a suitably bent movable element, which has a shape similar to the shape of the letter "U", which is blocked against the bottom of the carrycot, and which is a rod, and the arm has passing recesses which are holes successively made on both its longer and wider sides, wherein in one hole is placed a lock, wherein the holes pass into the central longitudinal hollow.
A system for controlling access to a software application, the system comprising a policy machine template generator for generating a policy machine template based on roles and permissions assigned to said roles; and a policy machine generator, coupled to the policy machine template generator, for generating a policy machine based on users assigned to the roles and objects associated with the users, wherein the policy machine is an access control framework represented using a directed acyclic graph, wherein the users and the objects are nodes on the directed acyclic graph.