mhurhangee/ep-ind-claims huggingface dataset:
A saw system comprising: a base (110; 202; 252); a work support surface member (112; 204; 254) supported by the base and including a work piece support surface defining a horizontal work piece support plane; and characterised in that it further comprises two wheel carriage assemblies engaged with both the base (110; 202; 252) and the work support surface member (112; 204; 254), wherein: each wheel carriage assembly includes a carriage body and a plurality of wheels rotatably supported by the carriage body; none of the plurality of wheels is attached to either the base or the work support surface member, allowing for movement of the carriages with respect to the base member and the work support surface member; each wheel of the plurality of wheels defines an axis of rotation that extends in a horizontal plane; at least one of the axes is located in a horizontal plane that is vertically higher than the horizontal plane of another of the axes; each plurality of wheels comprises a first wheel, a second wheel, and a third wheel; and the third wheel is engaged with both the base and the work support surface member. a base (110; 202; 252); a work support surface member (112; 204; 254) supported by the base and including a work piece support surface defining a horizontal work piece support plane; and characterised in that it further comprises two wheel carriage assemblies engaged with both the base (110; 202; 252) and the work support surface member (112; 204; 254), wherein: each wheel carriage assembly includes a carriage body and a plurality of wheels rotatably supported by the carriage body; none of the plurality of wheels is attached to either the base or the work support surface member, allowing for movement of the carriages with respect to the base member and the work support surface member; each wheel of the plurality of wheels defines an axis of rotation that extends in a horizontal plane; at least one of the axes is located in a horizontal plane that is vertically higher than the horizontal plane of another of the axes; each plurality of wheels comprises a first wheel, a second wheel, and a third wheel; and the third wheel is engaged with both the base and the work support surface member. each wheel carriage assembly includes a carriage body and a plurality of wheels rotatably supported by the carriage body; none of the plurality of wheels is attached to either the base or the work support surface member, allowing for movement of the carriages with respect to the base member and the work support surface member; each wheel of the plurality of wheels defines an axis of rotation that extends in a horizontal plane; at least one of the axes is located in a horizontal plane that is vertically higher than the horizontal plane of another of the axes; each plurality of wheels comprises a first wheel, a second wheel, and a third wheel; and the third wheel is engaged with both the base and the work support surface member.
A process for producing hydroxyalkanoate copolymers, which comprises: (i) pre-treating a sucrose-containing feedstock in an acidic solution; (ii) feeding the pre-treated feedstock into a bioreactor containing polyhydroxyalkanoate producing microbial cells; (iii) cultivating the polyhydroxyalkanoate producing microbial cells to form a cell mass containing the hydroxyalkanoate copolymers; (iv) recovering the hydroxyalkanoate copolymers from the cell mass; wherein two different pre-treated feedstocks are fed into the bioreactor, the first one containing glucose and fructose and substantially devoid of 4-ketovaleric acid, the second one containing glucose and 4-ketovaleric acid and substantially devoid of fructose. (i) pre-treating a sucrose-containing feedstock in an acidic solution; (ii) feeding the pre-treated feedstock into a bioreactor containing polyhydroxyalkanoate producing microbial cells; (iii) cultivating the polyhydroxyalkanoate producing microbial cells to form a cell mass containing the hydroxyalkanoate copolymers; (iv) recovering the hydroxyalkanoate copolymers from the cell mass;
An air-conditioning unit, in particular for a cable car cabin, comprising a case, said case comprising a first compartment in which an evaporator is mounted and a second compartment fluidically connected to the first compartment via an opening and wherein a blower and at least one air outlet nozzle are mounted, said evaporator being adapted to receive an ambient air stream via an air inlet grille, to cool said received air stream by evaporation of a refrigerant liquid and to convey the cooled air stream to the second compartment via said opening, said blower being adapted to circulate the air stream cooled by said evaporator out of the case via said at least one air outlet nozzle, the case being characterized in that the second compartment comprises a first deflector of the air stream exiting the evaporator and a second deflector of the air stream exiting the evaporator, said first deflector and said second deflector being arranged between the outlet of the evaporator and the blower so as to form a baffle for deflecting the air stream leaving the evaporator.
A charcoal grill comprising: a cooking grate; a firebox; a solid and planar supporting surface for supporting a quantity of charcoal within the firebox and beneath the cooking grate; and a plurality of diffusers each comprising a plurality of parallel peaked structures comprising a pair of opposing walls rising from the solid and planar supporting surface to form an apex, each peaked structure having at least one air opening defined in the pair of opposing walls below the apex that allow air flow through the respective wall wherein the plurality of air diffusers transport air from beneath the solid and planar supporting surface to an area above at least a portion of the quantity of charcoal below the cooking grate and above the solid and planar supporting surface. a cooking grate; a firebox; a solid and planar supporting surface for supporting a quantity of charcoal within the firebox and beneath the cooking grate; and a plurality of diffusers each comprising a plurality of parallel peaked structures comprising a pair of opposing walls rising from the solid and planar supporting surface to form an apex, each peaked structure having at least one air opening defined in the pair of opposing walls below the apex that allow air flow through the respective wall wherein the plurality of air diffusers transport air from beneath the solid and planar supporting surface to an area above at least a portion of the quantity of charcoal below the cooking grate and above the solid and planar supporting surface.
A method in a source routed forwarding network comprising a plurality of nodes configured to transfer data packets to one another via a plurality of links, the method comprising: a forwarding node forwarding data packets to another said node by establishing a header (20,22,24,26,28) for each flow, the header defining a path of the data packets associated with said flow; wherein said path is defined from a source to multiple destinations, and the header includes an ordered set of codewords, characterized in that a controller instructs the forwarding node of mapping between codewords and a local interpretation, wherein the controller monitors the length of the header associated with a flow, and establishes a different set of codewords for that flow when the length of the header exceeds the predetermined threshold.
A form for casting a concrete block, the form comprising: a mold insert defining a cavity, wherein a concrete block is cast in the cavity; one or more side doors disposed around the concrete block wherein the one or more side doors are operably configured to move towards and away from the concrete block; and one or more pressure-transfer mechanisms securely connected to each of the one or more side doors, wherein each of the one or more pressure-transfer mechanisms comprises a surface configured to selectively engage with one or more sides of the concrete block in order to transfer the force encountered when engaging with the concrete block and to separate the concrete block from the one or more side doors by sliding said one or more side doors, and wherein the concrete block remains substantially stationary during separation of the concrete block from the form. a mold insert defining a cavity, wherein a concrete block is cast in the cavity; one or more side doors disposed around the concrete block wherein the one or more side doors are operably configured to move towards and away from the concrete block; and one or more pressure-transfer mechanisms securely connected to each of the one or more side doors, wherein each of the one or more pressure-transfer mechanisms comprises a surface configured to selectively engage with one or more sides of the concrete block in order to transfer the force encountered when engaging with the concrete block and to separate the concrete block from the one or more side doors by sliding said one or more side doors, and wherein the concrete block remains substantially stationary during separation of the concrete block from the form.
Coriolis mass flowmeter, with at least one measurement tube for forming a flow channel, at least one vibration generator and at least one vibration pick-up, the measurement tube having one inlet end, two vibration sections and one outlet end and being bent at least in sections such that two U-shaped or V-shaped vibration sections which run in essentially parallel planes are formed, the vibration sections being excited to vibrations by the vibration generator, the flow channel, except for the inlet end, the vibrations sections and the outlet end running within a base characterized in that a single measurement tube is provided and the flow channel is formed entirely by the measurement tube and that the measurement tube is cast from the material of the base, so that the base surrounds the measurement tube, adjoining it tightly.
An isolated anti-FXI or anti-FXla antibody that specifically binds to human FXI or FXla, wherein the antibody comprises an immunoglobulin light chain variable domain comprising CDR-L1 with SEQ ID NO: 123, CDR-L2 with SEQ ID NO: 124 and CDR-L3 with SEQ ID NO: 125 and an immunoglobulin heavy chain variable domain comprising CDR-H1 with SEQ ID NO: 126, CDR-H2 with SEQ ID NO: 127 and CDR-H3 with SEQ ID NO: 128; or a FXI- or FXla-binding fragment thereof.
A wireless power transmission device configured to wirelessly transmit electric power between a power-transmitting coil provided in a fixed portion and a power-receiving coil provided in a movable portion, comprising: a power conversion circuit (12, 13) configured to change DC power into AC power and to supply the AC power to the power-transmitting coil; and a control unit configured to control the power conversion circuit, characterized in that the control unit is configured to adjust the duty of the power conversion circuit based on the displacement amount in relative position and relative attitude of the power-receiving coil with respect to the power-transmitting coil in order to prevent overheating of a metal member provided in one or both of the fixed portion and the movable portion. a power conversion circuit (12, 13) configured to change DC power into AC power and to supply the AC power to the power-transmitting coil; and a control unit configured to control the power conversion circuit, characterized in that the control unit is configured to adjust the duty of the power conversion circuit based on the displacement amount in relative position and relative attitude of the power-receiving coil with respect to the power-transmitting coil in order to prevent overheating of a metal member provided in one or both of the fixed portion and the movable portion.
Reinforced product, which can be used especially for reinforcing a finished rubber article, comprising one or more textile or metallic reinforcing thread(s), said thread(s) being covered with a sheath comprising a thermoplastic polymer composition, the sheathed thread(s) being themselves embedded in a rubber composition referred to as coating rubber, characterized in that this coating rubber is a composition based on at least one diene elastomer, a reinforcing filler, and a sulphur-based vulcanization system, which system comprises a metal oxide and a stearic acid derivative in amounts such that the ratio of the content of metal oxide and of stearic acid derivative, in phr, is less than 7, preferably less than 5.
Door with a transparent double-glazing unit (4, 9, 9', 9"), for displays or refrigerators, comprising: - lighting means (6, 12) for lighting the inside of a display or refrigerator, said lightning means being placed in a supporting structure of said double-glazing unit (4, 9, 9', 9"), wherein said supporting structure of the double-glazing unit (4, 9, 9', 9") has a sectional shape made of transparent material, and said lighting means are placed between said double-glazing unit (4, 9") and said sectional shape, wherein said supporting structure is made of two joined together sectional shapes (7, 8), of which at least the one which is made of transparent material is in the inside part of the display or refrigerator when the door is closed, characterised in that said lighting means consist of a plurality of LEDs, and in that the double-glazing unit is clamped between the sectional shapes (7, 8) of the supporting structure. - lighting means (6, 12) for lighting the inside of a display or refrigerator, said lightning means being placed in a supporting structure of said double-glazing unit (4, 9, 9', 9"),
An optical device for all-optically multiplexing or demultiplexing light of substantially different predetermined wavelengths, the optical device comprising: - at least one first dielectric Silicon-on-insulator waveguide (11, 41, 42, 51, 52) formed on a substrate; - at least one second dielectric Silicon-on-insulator waveguide (12, 43, 44, 53) formed on said substrate, said at least one first dielectric Silicon-on-insulator waveguide and said at least one second dielectric Silicon-on-insulator waveguide intersecting at an intersection; and - a diffraction grating structure (13, 45, 55) formed at said intersection, wherein said diffraction grating structure (13, 45, 55) is adapted for diffracting a first radiation beam having a first predetermined central wavelength from said at least one first dielectric Silicon-on-insulator waveguide (11, 41, 42, 51, 52) in a coupling direction, and for diffracting a second radiation beam having a second predetermined central wavelength from said at least one second dielectric Silicon-on-insulator waveguide (12, 43, 44, 53) in substantially the same coupling direction which is substantially different from the normal direction on the average plane defined by the grating structure, the first predetermined central wavelength and the second predetermined central wavelength being substantially different, characterised in that the first predetermined central wavelength is between 1250 nm and 1350 nm, and the second predetermined central wavelength is between 1455 nm and 1605 nm. - at least one first dielectric Silicon-on-insulator waveguide (11, 41, 42, 51, 52) formed on a substrate; - at least one second dielectric Silicon-on-insulator waveguide (12, 43, 44, 53) formed on said substrate, said at least one first dielectric Silicon-on-insulator waveguide and said at least one second dielectric Silicon-on-insulator waveguide intersecting at an intersection; and - a diffraction grating structure (13, 45, 55) formed at said intersection,
An integrated circuit device comprising two or more active components (30a, 30b) carried on a surface of an interposer structure; wherein said interposer structure comprises an interposer substrate and spaced-apart conductive vias formed in the substrate and electrically connected to electric connections of said two or more active components (30a, 30b); said two or more active components (30a, 30b) including at least two components of at least two different semiconductor materials carried by at least two respective arrangements of the conductive vias in at least two different respective regions (R30a, R30b) of the interposer structure; said at least two arrangements of the conductive vias are different in at least one parameter such that the effective coefficients of thermal expansion, CTEs, of the interposer structure at said at least two different respective regions match the CTEs of the semiconductor materials of the respective components on said at least two regions, said at least one parameter comprising at least one of the following: diameters of the conductive vias; pitches of the conductive vias in said arrangements of vias; materials of said conductive vias; and fraction of a surface area covered by the conductive vias; and wherein the integrated circuit device comprises at least one metal cap, furnished on the top surface (S 1) of the interposer structure and encapsulating at least one of said two or more active components (30a, 30b). said interposer structure comprises an interposer substrate and spaced-apart conductive vias formed in the substrate and electrically connected to electric connections of said two or more active components (30a, 30b); said two or more active components (30a, 30b) including at least two components of at least two different semiconductor materials carried by at least two respective arrangements of the conductive vias in at least two different respective regions (R30a, R30b) of the interposer structure; said at least two arrangements of the conductive vias are different in at least one parameter such that the effective coefficients of thermal expansion, CTEs, of the interposer structure at said at least two different respective regions match the CTEs of the semiconductor materials of the respective components on said at least two regions, said at least one parameter comprising at least one of the following: diameters of the conductive vias; pitches of the conductive vias in said arrangements of vias; materials of said conductive vias; and fraction of a surface area covered by the conductive vias; and diameters of the conductive vias; pitches of the conductive vias in said arrangements of vias; materials of said conductive vias; and fraction of a surface area covered by the conductive vias; and wherein the integrated circuit device comprises at least one metal cap, furnished on the top surface (S 1) of the interposer structure and encapsulating at least one of said two or more active components (30a, 30b).
An appliance comprising: a first surface that defines a heating cavity and a second surface opposite said first surface; and a composite article for insulating said appliance, said composite article comprising: a backing layer spaced from said first surface, with said backing layer comprising a foamed polyurethane, a foamed polyisocyanurate, or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer, with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer; optionally wherein said first and second surfaces ( 32, 36) comprise a metal; optionally wherein said insulating layer is adhered to said second surface, and said backing layer is adhered to said insulating layer; and optionally wherein said appliance is an oven, a stove (or cooktop), a range, a microwave, a dishwasher, a water heater, or a boiler. a first surface that defines a heating cavity and a second surface opposite said first surface; and a composite article for insulating said appliance, said composite article comprising: a backing layer spaced from said first surface, with said backing layer comprising a foamed polyurethane, a foamed polyisocyanurate, or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer, with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer; optionally wherein said first and second surfaces ( 32, 36) comprise a metal; optionally wherein said insulating layer is adhered to said second surface, and said backing layer is adhered to said insulating layer; and optionally wherein said appliance is an oven, a stove (or cooktop), a range, a microwave, a dishwasher, a water heater, or a boiler. a backing layer spaced from said first surface, with said backing layer comprising a foamed polyurethane, a foamed polyisocyanurate, or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer, with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer; optionally wherein said first and second surfaces ( 32, 36) comprise a metal; optionally wherein said insulating layer is adhered to said second surface, and said backing layer is adhered to said insulating layer; and optionally wherein said appliance is an oven, a stove (or cooktop), a range, a microwave, a dishwasher, a water heater, or a boiler.
A method of routing an Extensible Markup Language, XML, Configuration Access Protocol, XCAP, request from an XML Document Management, XDM, client, via an Hyper Text Transfer Protocol, HTTP, Proxy, to an XDM server allocated to a user associated with the XDM client, wherein the HTTP Proxy performs the steps of: - receiving the XCAP request from the XDM client, the XCAP request including user information; - checking if the user exists in a storage associated with the HTTP Proxy, based on the user information, and if not; - creating and sending a Session Initiation Protocol, SIP, request to a SIP Proxy (130, 230), the SIP request including the user information; - receiving a SIP response from the SIP Proxy, including address information identifying the XDM server allocated to the user; and - routing the XCAP request to the XDM server (150, 250) allocated to the user, based on the received address information. - receiving the XCAP request from the XDM client, the XCAP request including user information; - checking if the user exists in a storage associated with the HTTP Proxy, based on the user information, and if not; - creating and sending a Session Initiation Protocol, SIP, request to a SIP Proxy (130, 230), the SIP request including the user information; - receiving a SIP response from the SIP Proxy, including address information identifying the XDM server allocated to the user; and - routing the XCAP request to the XDM server (150, 250) allocated to the user, based on the received address information.
A method for processing authentication for a mobile station in a mobile communication system, the method comprising: determining whether an authentication fail flag is set in an active state or in an inactive state; if the authentication fail flag is set in an active state, locking the mobile station without requesting registration authentication, and if the authentication fail flag is set in an inactive state, performing the following steps: requesting registration authentication; receiving an authentication result message from a network; and setting the authentication fail flag in an active state if the authentication result message is an authentication fail message. determining whether an authentication fail flag is set in an active state or in an inactive state; if the authentication fail flag is set in an active state, locking the mobile station without requesting registration authentication, and if the authentication fail flag is set in an inactive state, performing the following steps: requesting registration authentication; receiving an authentication result message from a network; and setting the authentication fail flag in an active state if the authentication result message is an authentication fail message. requesting registration authentication; receiving an authentication result message from a network; and setting the authentication fail flag in an active state if the authentication result message is an authentication fail message.