mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: injecting into a thin wall disposable core die a slurry having a viscosity of 1 to 1,000 Pascal-seconds at room temperature when tested at a shear rate of up to 70 seconds -1 and a flow index of less than 0.6, the injecting being carried out at a hydrostatic pressure of 0.07 to 7 kilograms per centimeter square; wherein the thin wall disposable core die has an average wall thickness of 0.5 to 10 millimeters; restoring the thin wall disposable core die to its original position upon removal of the hydrostatic pressure; curing the slurry to form a cured ceramic core; removing the thin wall disposable core die from the cured ceramic core; and firing the cured ceramic core to form a solidified ceramic core. injecting into a thin wall disposable core die a slurry having a viscosity of 1 to 1,000 Pascal-seconds at room temperature when tested at a shear rate of up to 70 seconds -1 and a flow index of less than 0.6, the injecting being carried out at a hydrostatic pressure of 0.07 to 7 kilograms per centimeter square; wherein the thin wall disposable core die has an average wall thickness of 0.5 to 10 millimeters; restoring the thin wall disposable core die to its original position upon removal of the hydrostatic pressure; curing the slurry to form a cured ceramic core; removing the thin wall disposable core die from the cured ceramic core; and firing the cured ceramic core to form a solidified ceramic core.
A method for processing data for transmission from a first communication device to a second communication device, said method comprising the following steps, carried out by said first communication device: - detecting that said data comprises an attachment (A1, A10, A11); - determining that a copy of the attachment is already uploaded to a storage device external to said first communication device and said second communication device; - receiving an address where the copy (A1c, A10c, A11c) of said attachment (A1, A10, A11) is stored on the storage device, said address (Add1, Add10, Add11) determined by said storage device; - substituting said attachment (A1, A10, A11) with the address (Add1, Add10, Add11) of the copy (A1c, A10c, A11c) of said attachment (A1, A10, A11) in said data such that said copy (A1c, A10c, A11c) is retrievable at said second communication device by a processing unit at said second communication device extracting said address (Add1, Add10, Add11) from said data and retrieving said copy (A1c, A10c, A11c) from said storage device; and - transmitting said data to said second communication device. - detecting that said data comprises an attachment (A1, A10, A11); - determining that a copy of the attachment is already uploaded to a storage device external to said first communication device and said second communication device; - receiving an address where the copy (A1c, A10c, A11c) of said attachment (A1, A10, A11) is stored on the storage device, said address (Add1, Add10, Add11) determined by said storage device; - substituting said attachment (A1, A10, A11) with the address (Add1, Add10, Add11) of the copy (A1c, A10c, A11c) of said attachment (A1, A10, A11) in said data such that said copy (A1c, A10c, A11c) is retrievable at said second communication device by a processing unit at said second communication device extracting said address (Add1, Add10, Add11) from said data and retrieving said copy (A1c, A10c, A11c) from said storage device; and - transmitting said data to said second communication device.
A template for use in installing a plurality of foundation elements, in particular anchor piles, relative to one another in an underwater ground formation, comprising a plurality of guides, wherein each guide is suitable for guiding a foundation element in a guiding direction during driving the foundation element into a seabed, a frame including holding members for holding the respective guides in transverse direction of the guiding direction, and a levelling mechanism for levelling the frame with respect to a seabed when it is placed thereon, wherein the guides are freely displaceable with respect to the respective holding members in the guiding direction, wherein each of the guides is provided with a suspended element comprising an arresting ring, wherein each holding member comprises an upper ring surrounding the respective guide, wherein the arresting ring has a larger outer diameter than the inner diameter of the upper ring of the corresponding holding member, such that the upper rings of the holding members are adapted to support the respective guides at their arresting rings, and wherein the guide and the holding member are adapted such that upon lifting the frame the holding member displaces upwardly with respect to the guide until the upper ring of the holding member contacts the arresting ring of the guide so as to lift the guide, as well, wherein the length of each of the guides below the arresting ring is larger than the distance between the upper contact surface of the upper ring of the holding member with the arresting ring and the bottom of the frame which contacts the seabed upon placing the template including the frame and including the guides onto the seabed.
A muffler for an engine, the muffler having an inner space of a muffler body formed by two shells (11, 12), the inner space being divided into a plurality of chambers (17, 18, 19) by a partition wall with a flange portion in tight contact with an inner surface (11a, 12a) of the shell (11, 12), comprising: a reinforcing plate in rectangular shape at a position on an outer surface (11b, 12b) of each shell (11, 12) facing the flange portion of the partition wall, wherein a portion being a widthwise center of the reinforcing plate along a longitudinal direction of the reinforcing plate is welded to the flange portion across the shell (11, 12) at a plurality of places, and other portions located on both end sides of the reinforcing plate as viewed in the longitudinal direction of the reinforcing plate are welded to the outer surface (11b, 12b) of the shell (11, 12), so that an unwelded portion is provided between the reinforcing plate and the outer surface (11b, 12b) of the shell (11, 12). a reinforcing plate in rectangular shape at a position on an outer surface (11b, 12b) of each shell (11, 12) facing the flange portion of the partition wall, wherein a portion being a widthwise center of the reinforcing plate along a longitudinal direction of the reinforcing plate is welded to the flange portion across the shell (11, 12) at a plurality of places, and other portions located on both end sides of the reinforcing plate as viewed in the longitudinal direction of the reinforcing plate are welded to the outer surface (11b, 12b) of the shell (11, 12), so that an unwelded portion is provided between the reinforcing plate and the outer surface (11b, 12b) of the shell (11, 12).
Method for producing a length-adjustable steering shaft, comprising a hollow shaft in which a toothed shaft is received so as to be telescopic in the axial direction, said toothed shaft having a toothing which has teeth on the external circumference that extend in the axial direction and which engages in a form-fitting manner in an inner toothing of the hollow shaft, wherein a sliding layer from thermoplastic plastics material is at least in portions attached between the inner toothing and the toothing, wherein, prior to attaching the sliding layer, form-fitting elements which for forming a form-fitting connection that is effective in the axial direction are brought to engage with the sliding layer are configured in the region of the toothing of the toothed shaft or the inner toothing of the hollow shaft, characterized in that the form-fitting elements are plastically formed in the surface of the toothing or of the inner toothing and are rolled into the surface by means of rotating profiled rollers (61, 62) which roll in the axial direction on the surface of the toothing.
An expandable member (140, 400, 450, 510) for expanding an opening of a workpiece (160, 630) when an expansion mandrel is passed through a longitudinal passageway of the expandable member (140, 400, 450, 510), the member comprising a member body having a first end, a second end opposite the first end, and a sidewall extending between the first end and the second end and defining the longitudinal passageway, the sidewall including a longitudinally tapered section adjacent to the second end and a relatively thick section between the first end and the tapered section, the tapered section being dimensioned to operably accommodate displaced material of the member body moving generally along a longitudinal axis of the member body away from the first end towards the second end of the member body when the expansion mandrel moves through the longitudinal passageway to install the member in the opening, the tapered section is adapted to radially expand the workpiece (160, 630) while accommodating the displaced material so as to substantially prevent stress concentrations associated with the displaced material in a portion of the workpiece (160, 630) radially adjacent to the second end of the member body, wherein the relatively thick section has a first average cross-sectional area taken perpendicularly to the longitudinal axis of the member body, the tapered section has a second average cross-sectional area taken perpendicularly to the longitudinal axis of the member body, and the second average cross-sectional area is less than the first average cross-sectional area wherein in a pre-installed state, the relatively thick section has a first average wall thickness that is greater than a second average wall thickness of the tapered section, and wherein, in an installed state, the relatively thick section has a first average installed wall thickness that is equal to a second average installed wall thickness of the tapered section.
Prosthetic element comprising a cap made of metal material, having inside an acetabular seating, said cap having an internal wall that lines the seating and the external part consisting of a lattice with cells substantially in a single body with the internal wall and making a plurality of cavities disposed three-dimensionally, open and inter-communicating, connected with each other, said lattice being solid with the part facing toward the outside of the internal wall, wherein said internal wall is made of compact material and at least part of the lattice is formed, without a break in continuity also with respect to the internal wall and simultaneously with the compact internal wall using the EBM (Electron Beam Melting) technique or the DMSLS (Direct Metal Selective Laser Sintering) technique, by one or more models of a plurality of geometric meshes that are repeated in space over all or part of the body of the prosthetic element, halving a cellular geometry with elementary cells open and contiguous, so as to define a plurality of polygons with a spatial development delimiting the cavities, so that the lattice is able to promote osteo-integration, wherein each geometric mesh is formed by a first polygonal part with sides formed by angled segments, and a second and a third part, each shaped as an angled segment, said second and third part with angled segment being disposed, crossed with respect to each other, superimposed on the first part, one on one side and one on the other side, so as to define, in the space, a plurality of polygons having vertexes that are not co-planar, wherein the open free area of each elementary cell has an equivalence to a circle with an equivalent diameter comprised in a range from about 0.3 mm to about 1.5 mm.
A method of detecting malicious traffic on a mobile device (150, 250, 350, 450), the method, comprising: collecting information about a request or information about a response to the request initiated at the mobile device, wherein, the information includes request characteristics information associated with the request or response characteristics information associated with the response received for the request; using the information collected about the request to detect malware or possible malware; and only if malware or possible malware is not detected using the information collected about the request: using the information collected about the request or response received for the request initiated at the mobile device to determine cacheability of the response; if it is determined that the response is cacheable, caching the response by storing the response locally in a cache on the mobile device and serving the response from the cache to satisfy a subsequent request. collecting information about a request or information about a response to the request initiated at the mobile device, wherein, the information includes request characteristics information associated with the request or response characteristics information associated with the response received for the request; using the information collected about the request to detect malware or possible malware; and only if malware or possible malware is not detected using the information collected about the request: using the information collected about the request or response received for the request initiated at the mobile device to determine cacheability of the response; if it is determined that the response is cacheable, caching the response by storing the response locally in a cache on the mobile device and serving the response from the cache to satisfy a subsequent request. using the information collected about the request or response received for the request initiated at the mobile device to determine cacheability of the response; if it is determined that the response is cacheable, caching the response by storing the response locally in a cache on the mobile device and serving the response from the cache to satisfy a subsequent request.
A method of arranging a shortened resource block, called RB hereinafter, without a direct current, called DC hereinafter, subcarrier for a wireless communication system comprising a machine type communication, called MTC device hereinafter, device and a network, characterized by the method comprising: selecting, by the MTC device or the network, a RB from a plurality of RBs comprising a plurality of available subcarriers, according to a configuration, wherein the RB comprises a plurality of subcarriers; and removing, by the MTC device or the network, the DC subcarrier from the plurality of subcarriers of the RB according to the configuration, to construct the shortened RB without the DC subcarrier, to solve misalignment of DC subcarriers of the MTC device and a legacy communication device; wherein the configuration is determined according to a carrier frequency of the MTC device; wherein a number of subcarriers of the shortened RB is less than a number of subcarriers of another RB in the plurality of RBs. selecting, by the MTC device or the network, a RB from a plurality of RBs comprising a plurality of available subcarriers, according to a configuration, wherein the RB comprises a plurality of subcarriers; and removing, by the MTC device or the network, the DC subcarrier from the plurality of subcarriers of the RB according to the configuration, to construct the shortened RB without the DC subcarrier, to solve misalignment of DC subcarriers of the MTC device and a legacy communication device; wherein the configuration is determined according to a carrier frequency of the MTC device; wherein a number of subcarriers of the shortened RB is less than a number of subcarriers of another RB in the plurality of RBs.
A secondary battery separator comprising: a porous base material; and a porous layer stacked on at least one surface of the porous base material, the porous layer being mainly composed of inorganic particles, and two or more organic resins having different melting points, the porous layer including a fluororesin having a melting point of 130°C or higher as at least one of the organic resins, the secondary battery separator satisfying at least one of the following requirements and/or: The porous layer has a melting point of 130°C or higher and lower than 180°C and a melting point of 20°C or higher and lower than 130°C; and The porous layer has a melting point of 130°C or higher and lower than 180°C, and includes an amorphous organic resin, wherein the melting point is measured according to the description. The porous layer has a melting point of 130°C or higher and lower than 180°C and a melting point of 20°C or higher and lower than 130°C; and The porous layer has a melting point of 130°C or higher and lower than 180°C, and includes an amorphous organic resin,
A method for transmitting, by a slave user equipment, UE, an indication in a wireless communication system, the method comprising: receiving a neighboring cell information from a master UE, via a dedicated control channel, DCCH; transmitting device-to-device, D2D, connection release request message to the master UE, wherein the D2D connection release request message includes information related to the target cell and a release cause, characterised by: receiving a D2D connection release message from the master UE, wherein the D2D connection release message includes redirection information including a target cell identity indicating a redirected cell; and transmitting a radio resource control, RRC, reestablishment request message to the target cell, wherein the RRC, reestablishment request message includes an identity of the slave UE and a reestablishment cause indicating a D2D mobility, wherein the D2D mobility informs the target cell that the reestablishment is an D2D handover. receiving a neighboring cell information from a master UE, via a dedicated control channel, DCCH; transmitting device-to-device, D2D, connection release request message to the master UE, wherein the D2D connection release request message includes information related to the target cell and a release cause, characterised by: receiving a D2D connection release message from the master UE, wherein the D2D connection release message includes redirection information including a target cell identity indicating a redirected cell; and transmitting a radio resource control, RRC, reestablishment request message to the target cell, wherein the RRC, reestablishment request message includes an identity of the slave UE and a reestablishment cause indicating a D2D mobility, wherein the D2D mobility informs the target cell that the reestablishment is an D2D handover.
Process for the separation of benzene from other hydrocarbons in a hydrocarbon mixture in a distillation column having an adsorbent arranged therein, the process comprising: (a) passing said hydrocarbon mixture to a distillation stage, said distillation stage comprising an adsorbent in an adsorption zone which is in contact with a diluent liquid solution having a boiling point which is higher than that of the hydrocarbon mixture, (b) withdrawing from said distillation stage a distillate stream containing other hydrocarbons than benzene and retaining benzene in the adsorption zone, wherein said adsorption zone contains zeolite X, zeolite Y or mixtures of both, (c) withdrawing from said distillation stage a stream containing said diluent liquid solution and returning said stream to step (a); wherein step (a) comprises the steps of combining a first stream containing said hydrocarbon mixture with a second stream of said diluent liquid solution having a boiling point which is higher than that of the hydrocarbon mixture and passing the combined stream to said distillation stage; or wherein in step (a) the diluent liquid solution is contacted with the first stream containing the hydrocarbon mixture in counter-current mode in a distillation column comprising an adsorbent in an adsorption zone by withdrawing a stream of diluent from the bottom of the distillation column and returning said stream to the top of the column. (a) passing said hydrocarbon mixture to a distillation stage, said distillation stage comprising an adsorbent in an adsorption zone which is in contact with a diluent liquid solution having a boiling point which is higher than that of the hydrocarbon mixture, (b) withdrawing from said distillation stage a distillate stream containing other hydrocarbons than benzene and retaining benzene in the adsorption zone, wherein said adsorption zone contains zeolite X, zeolite Y or mixtures of both, (c) withdrawing from said distillation stage a stream containing said diluent liquid solution and returning said stream to step (a); wherein step (a) comprises the steps of combining a first stream containing said hydrocarbon mixture with a second stream of said diluent liquid solution having a boiling point which is higher than that of the hydrocarbon mixture and passing the combined stream to said distillation stage; or wherein in step (a) the diluent liquid solution is contacted with the first stream containing the hydrocarbon mixture in counter-current mode in a distillation column comprising an adsorbent in an adsorption zone by withdrawing a stream of diluent from the bottom of the distillation column and returning said stream to the top of the column.
A beverage or its base material, particularly an energy drink, containing a liquid formulation comprising cannabidiol and water and at least one emulsifier, wherein the cannabidiol is a synthetic cannabidiol or purified cannabidiol from a cannabis extract, comprising 50 mg/L to 300 mg/L CBD, particularly 50 mg/L to 100 mg/L CBD.
A gas turbine engine component having a cooling passage, the component comprising: a first wall defining an inlet of the cooling passage; a second wall generally opposite the first wall and defining an outlet of the cooling passage; a metering section extending downstream from the inlet, the metering section comprising: an upstream side; and a downstream side generally opposite the upstream side, wherein at least one of the upstream and downstream sides (120, 122A) comprises a first passage wall and a second passage wall, and wherein the first and second passage walls (128, 130) intersect to form a V-shape; and a diffusing section extending from the metering section to the outlet; wherein the first passage wall and the second passage wall are generally straight; and characterised in that the first passage wall and the second passage wall intersect to form an angle (θ 1) that is greater than 90 degrees. a first wall defining an inlet of the cooling passage; a second wall generally opposite the first wall and defining an outlet of the cooling passage; a metering section extending downstream from the inlet, the metering section comprising: an upstream side; and a downstream side generally opposite the upstream side, wherein at least one of the upstream and downstream sides (120, 122A) comprises a first passage wall and a second passage wall, and wherein the first and second passage walls (128, 130) intersect to form a V-shape; and an upstream side; and a downstream side generally opposite the upstream side, wherein at least one of the upstream and downstream sides (120, 122A) comprises a first passage wall and a second passage wall, and wherein the first and second passage walls (128, 130) intersect to form a V-shape; and a diffusing section extending from the metering section to the outlet; wherein the first passage wall and the second passage wall are generally straight; and characterised in that the first passage wall and the second passage wall intersect to form an angle (θ 1) that is greater than 90 degrees.
Device (5; 32) for lifting sludge from a body of water with a variable water depth, having an elongate structure (324; 52) on which a transport chain (322; 55) is wound, characterized in that it also comprises a channel (312; 51) extending next to and parallel to the elongate structure and a series of vanes (321; 53) mounted uniformly along the transport chain and arranged so as to slide along the channel.