mhurhangee/ep-ind-claims huggingface dataset:
A spallation resistant metallic article comprising: a metallic substrate; at least one ceramic thermal barrier coating comprising a zirconia base and at least one other element selected from the group consisting of La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, In, Y, Mo and C, rare earth oxides, scandium, and indium, wherein the element(s) are present from 1 to 50 mole percent of the M 2 O 3 oxide where M refers to the listed elements; and a thermally grown oxide layer; characterised in that said metallic article further comprises: a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia; and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat. a metallic substrate; at least one ceramic thermal barrier coating comprising a zirconia base and at least one other element selected from the group consisting of La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, In, Y, Mo and C, rare earth oxides, scandium, and indium, wherein the element(s) are present from 1 to 50 mole percent of the M 2 O 3 oxide where M refers to the listed elements; and a thermally grown oxide layer; characterised in that said metallic article further comprises: a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia; and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat. a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia; and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat.
A variant of a parent polypeptide which is preferably a hexose transporter, wherein the parent polypeptide comprises the amino acid sequence of SEQ ID NO: 1, and wherein the variant comprises an amino acid sequence which, when aligned with the amino acid sequence of SEQ ID NO: 1, comprises a substitution of amino acids N376 and T89, the positions of said amino acids being defined with reference to the amino acid sequence of SEQ ID NO: 1, wherein the substitution of amino acid T89 comprises any one of T89I, T89V, T89L, T89S, T89M, or T89F.
A method for producing a coil for an electric apparatus by cutting spirally a block-shaped workpiece (100; 200; 201; 202; 300; 400; 500; 600; 700) formed with a cylindrical portion (11; 211; 311; 411; 511; 611; 711) corresponding to the coil in a circumferential direction of the cylindrical portion, wherein the cylindrical portion has an opening, wherein the spiral coil is formed by turning a cutting means (21, 22, 23, 24, 25) while moving it from a part corresponding to one end side to a part corresponding to the other end side of the coil relatively to the workpiece along a machining line set spirally in a circumferential direction of the cylindrical portion, wherein the cutting means (21, 22, 23, 24, 25) comprises a wire-tool which is stretched between a first roll and a second roll arranged on the inside and the outside of the cylindrical portion respectively, the first roll and the second roll are moved relatively to the cylindrical portion and turned so as to move the wire-tool along the machining line while performing a cutting operation by moving the wire-tool in its lengthwise direction. wherein the spiral coil is formed by turning a cutting means (21, 22, 23, 24, 25) while moving it from a part corresponding to one end side to a part corresponding to the other end side of the coil relatively to the workpiece along a machining line set spirally in a circumferential direction of the cylindrical portion, wherein the cutting means (21, 22, 23, 24, 25) comprises a wire-tool which is stretched between a first roll and a second roll arranged on the inside and the outside of the cylindrical portion respectively, the first roll and the second roll are moved relatively to the cylindrical portion and turned so as to move the wire-tool along the machining line while performing a cutting operation by moving the wire-tool in its lengthwise direction.
Flexible pipe body for transporting fluids from a sub-sea location, comprising: a layer comprising a helically wound tape, said tape being formed from at least a first sub-layer sandwiched between two further sub-layers (417, 419), characterised in that the tape is preformed prior to winding, and wherein the first sub-layer has a lower density than at least one of the two further sub-layers, and wherein the first sub-layer comprises a plurality of filaments of metal, composite, glass, carbon fibre, nanotubes or cloth of woven, braided or knitted fibres.
A blow mold which molds a closed-end cylindrical pre-form into a predetermined container shape provided with a bottom part having a bottom plate part positioned in a bottom-part center, and a periphery part positioned in a bottom-part periphery and having a grounding part formed, by biaxial stretch blow molding, comprising: a side-part mold formed of a pair of split molds configured to be openable and closable, and a bottom-part mold to be incorporated into a bottom-part side of the side-part mold, wherein the bottom-part mold has a bottom-part center mold for shaping the bottom-part center including the bottom plate part, and a bottom-part periphery mold for shaping the bottom-part periphery including the periphery part, and has a temperature control mechanism for adjusting each of the bottom-part center mold and the bottom-part periphery mold to a predetermined temperature, whereby the bottom-part center mold and the bottom-part periphery mold formed as a separate body are combined with each other through a heat insulation material, and characterized in that the resulting combined molds are bonded to a support inside which a temperature control medium passage through which a temperature control medium at a low temperature is circulated is formed, and simultaneously a heating element is wound around a peripheral surface of the bottom-part periphery mold, and while cooling the bottom-part center mold, the bottom-part periphery mold is heated, whereby each of the bottom-part center mold and the bottom-part periphery mold can be adjusted to a predetermined temperature. a side-part mold formed of a pair of split molds configured to be openable and closable, and a bottom-part mold to be incorporated into a bottom-part side of the side-part mold, wherein the bottom-part mold has a bottom-part center mold for shaping the bottom-part center including the bottom plate part, and a bottom-part periphery mold for shaping the bottom-part periphery including the periphery part, and has a temperature control mechanism for adjusting each of the bottom-part center mold and the bottom-part periphery mold to a predetermined temperature, whereby the bottom-part center mold and the bottom-part periphery mold formed as a separate body are combined with each other through a heat insulation material, and characterized in that the resulting combined molds are bonded to a support inside which a temperature control medium passage through which a temperature control medium at a low temperature is circulated is formed, and simultaneously a heating element is wound around a peripheral surface of the bottom-part periphery mold, and while cooling the bottom-part center mold, the bottom-part periphery mold is heated, whereby each of the bottom-part center mold and the bottom-part periphery mold can be adjusted to a predetermined temperature.
A light emitting device, comprising a stack of layers of a substrate, with a basic layer, a first electrode layer and a second electrode layer, wherein an organic light-emitting layer is sandwiched between the first and the second electrode layer, the organic light-emitting layer is arranged to emit an artificial light homogeneously through the basic layer such that the stack of layers comprised by the light emitting device is a homogenous area light source with a lambertian light emission characteristic, the light emitting device further comprising a shielding structure is connected to the basic layer at least partly covering the basic layer, wherein the shielding structure comprises a plurality of lamella elements (70,70'), the lamella elements (70,70') extend sheet like from the stack of layers in such a way, that the lamella elements (70,70') guide the artificial light out of the light emitting device such that glare is reduced by means of the shielding structure in comparison to the lambertian light emission characteristic, the angle of the lamella elements with respect to their position on the light emitting device changes gradually.
Tyre for bicycle wheels, comprising: - a carcass structure; - a single belt layer arranged in a radially outer position with respect to the carcass structure; - a tread band arranged in a radially outer position with respect to the belt layer; wherein the carcass structure comprises a single carcass ply (3, 300, 301) engaged, at the axially opposite end edges thereof (3a, 300a, 301a), with a pair of annular anchoring structures and including a plurality of reinforcing cords inclined, with respect to an equatorial plane (X-X) of the tyre, by a first angle comprised between about 65° and about 90°, the extreme values being included; wherein said single belt layer comprises at least one reinforcing cord wound on the carcass structure according to a substantially circumferential winding direction. - a carcass structure; - a single belt layer arranged in a radially outer position with respect to the carcass structure; - a tread band arranged in a radially outer position with respect to the belt layer;
A stackable transport/storage assembly comprising a cylindrical sleeve (55, 150) and a lid (61, 152), for placement upon a support surface; wherein the cylindrical sleeve comprises a single element and is capable of being flat packed when not in use; wherein, in use, the sleeve provides upstanding walls and the lid is operable to provide a closure for the sleeve whereby to provide an enclosed load/storage volume; wherein the upstanding walls extend from feet operably in contact with the support surface and terminate with an uppermost lip operable to support a lower surface of said lid (61, 152), the lid having an engagement means (57, W2) to locate with the uppermost lip of the sleeve, wherein the lid provides an upper support surface, and the walls define at least one aperture to permit access for at least one tine of a lifting device; wherein said engagement means enables secure lateral fitment of the lid with respect to the walls of the sleeve and is operable to allow further assemblies together with any associated loads to be mounted upon and be supported by the lid; characterized in that the sleeve supports one or more horizontally directed channels operable to receive at least one edge member of the lid, whereby upon fastening, one edge of the lid, at a first side of the lid, is received into said one or more horizontal channels and the lid at the side opposite to the first side is permitted to engage with the upstanding sleeve wall of the corresponding side.
A method in user equipment, UE,, for performing circuit switched, CS, fallback from a first network cell in a wireless telecommunications system with which the UE is associated and that does not provide CS domain services, to a second network cell that does provide CS domain services, the method comprising: performing idle mode measurements of one or more network cells other than the first network cell when the UE is operating in an idle mode, wherein the UE performs the idle mode measurements without being instructed by an access device of the first network cell; storing the results of the idle mode measurements; receiving a request, by the UE, to access a first circuit switched, CS, domain service unavailable through the first network cell; communicating (122a, 126; 140; 142) with an access device associated with the first network cell; wherein the communicating with the access device of the first network cell comprises transmitting at least a portion of the results of the idle mode measurements to the access device of the first network cell, and not actively detecting at least some available network cells, in response to a request from the access device of the first network cell that the UE measure signals from the one or more network cells during gaps in communication with the first network cell; receiving from the access device an identification of the second network cell; and performing circuit switched, CS, fallback from the first network cell that does not provide CS domain services, to the second network cell that does provide CS domain services; and accessing the first circuit switched, CS, domain service through the second network cell. performing idle mode measurements of one or more network cells other than the first network cell when the UE is operating in an idle mode, wherein the UE performs the idle mode measurements without being instructed by an access device of the first network cell; storing the results of the idle mode measurements; receiving a request, by the UE, to access a first circuit switched, CS, domain service unavailable through the first network cell; communicating (122a, 126; 140; 142) with an access device associated with the first network cell; wherein the communicating with the access device of the first network cell comprises transmitting at least a portion of the results of the idle mode measurements to the access device of the first network cell, and not actively detecting at least some available network cells, in response to a request from the access device of the first network cell that the UE measure signals from the one or more network cells during gaps in communication with the first network cell; receiving from the access device an identification of the second network cell; and performing circuit switched, CS, fallback from the first network cell that does not provide CS domain services, to the second network cell that does provide CS domain services; and accessing the first circuit switched, CS, domain service through the second network cell.
A shock wave apparatus for treating the human or animal body by means of mechanical shock waves, having a first shock wave source being hollow and having a radiating surface for the shock waves produced which surrounds the hollow space and which can radiate to the outside in relation to the hollow space, a reflector for reflecting and directing the radiated shock waves into the body, a further second shock wave source being arranged within the hollow space of the first shock wave source at least partially and being able to radiate shock waves in the longitudinal direction in relation to the hollow space, characterized in that the second shock wave source is a ballistic shock wave source wherein a projectile can be accelerated and is adapted to a collision for producing the shock wave and wherein the first shock wave source is adapted to be non-focusing.
A filter media comprising: a fiber web including glass fibers and fibrillated fibers, the fiber web having a basis weight of between 10 and 1000 g/m 2 and a thickness of between 0.10 mm and 50.0 mm, wherein the average Canadian Standard Freeness level of fibrillation of the fibrillated fibers is between 100 and 850.
An intelligent gate drive unit for controlling at least two semiconductor switches in a half-bridge configuration between an upper DC terminal and a lower DC terminal of a power module (1, 14), the intelligent gate drive unit comprising: - at least two gate drivers each of which are configured to control the switching of one of the at least two semiconductor switches, - a processing circuitry comprising ∘ a data processor, ∘ an analog measuring circuit, and ∘ an analog to digital converter; wherein the analog measuring circuit of the processing circuitry is configured to measure actual real-time values of an analog voltage of at least one of the at least two semiconductor switches while the at least one of the at least two semiconductor switches is in a conducting mode, wherein a reference potential of the analog measuring circuit is the midpoint of the half-bridge such that the analog measuring circuit measures actual real-time values of the analog voltage of at least one of the at least two semiconductor switches between the midpoint of the half-bridge and the upper DC terminal or between the midpoint of the half-bridge and the lower DC terminal, wherein the analog to digital converter of the processing circuit is configured to convert the actual real-time values of the analog voltage to a digital representation of the analog voltage, wherein the data processor of the processing circuit based on the digital representation of the actual real-time values of the analog voltages is configured to perform at least one real-time diagnostic of the list comprising: condition, state of health, fatigue level, end of lifetime, predict near future conditions, root cause analysis, error detection and current health of at least one of the at least two semiconductor switches, wherein the intelligent gate drive unit facilitates adapting the control of at least one of the at least two semiconductor switches according to the real-time diagnostic. - at least two gate drivers each of which are configured to control the switching of one of the at least two semiconductor switches, - a processing circuitry comprising ∘ a data processor, ∘ an analog measuring circuit, and ∘ an analog to digital converter; ∘ a data processor, ∘ an analog measuring circuit, and ∘ an analog to digital converter;
A system for distributed generation of a random value amongst a set of servers, the system comprising: one or more processors and a non-transitory computer-readable medium having executable instructions encoded thereon such that when executed, the one or more processors perform an operation of: initiating a randomness generation protocol for distributed generation of a random value amongst the set of servers, wherein the set of servers executes the following: selecting, by each server, a randomly generated polynomial; broadcasting, by each server, a cryptographic hash function of the randomly generated polynomial; and sending, by each server, its value of the cryptographic hash function of the randomly generated polynomial to the set of servers; and using the randomness generation protocol in a multi-party computation protocol to ensure a set of data is securely shared electronically amongst the set of servers via a secure, authenticated broadcast channel. initiating a randomness generation protocol for distributed generation of a random value amongst the set of servers, wherein the set of servers executes the following: selecting, by each server, a randomly generated polynomial; broadcasting, by each server, a cryptographic hash function of the randomly generated polynomial; and sending, by each server, its value of the cryptographic hash function of the randomly generated polynomial to the set of servers; and selecting, by each server, a randomly generated polynomial; broadcasting, by each server, a cryptographic hash function of the randomly generated polynomial; and sending, by each server, its value of the cryptographic hash function of the randomly generated polynomial to the set of servers; and using the randomness generation protocol in a multi-party computation protocol to ensure a set of data is securely shared electronically amongst the set of servers via a secure, authenticated broadcast channel.
An in vitro method for detecting a C10orf54 protein in a sample comprising contacting the sample with an isolated antibody or antigen-binding fragment thereof comprising - a heavy chain variable domain comprising the following three CDRs, respectively CDR-H1 having the sequence SEQ ID NO: 1302, CDR-H2 having the sequence SEQ ID NO: 1365 and CDR-H3 having the sequence SEQ ID NO: 1402, and - a light chain variable domain comprising the following three CDRs, respectively CDR-L1 having the sequence SEQ ID NO: 1455, CDR-L2 having the sequence SEQ ID NO: 1103 and CDR-L3 having the sequence SEQ ID NO: 1505, wherein the antibody or antigen-binding fragment thereof is conjugated or recombinantly fused to a detectable agent. - a heavy chain variable domain comprising the following three CDRs, respectively CDR-H1 having the sequence SEQ ID NO: 1302, CDR-H2 having the sequence SEQ ID NO: 1365 and CDR-H3 having the sequence SEQ ID NO: 1402, and - a light chain variable domain comprising the following three CDRs, respectively CDR-L1 having the sequence SEQ ID NO: 1455, CDR-L2 having the sequence SEQ ID NO: 1103 and CDR-L3 having the sequence SEQ ID NO: 1505,
A particulate crunch material comprising particles of a first polyol coated with a crunch material coating composition, wherein the crunch material coating composition comprises gum arabic, and wherein the gum arabic is present in an amount of 5% to 50 % by weight based on the weight of the crunch material coating composition.
An injector element, in particular for a rocket drive, for operation with a first and a second propellant, comprising: - a central body with a flow channel with an outlet, the central body generating a conical drop distribution at the outlet forming a fuel cone, the first propellant being provided in the central body; - a sleeve concentrically surrounding the central body to form an annular flow channel for the second propellant; - a flow splitter arranged between the central body and the sleeve for splitting the second propellant into a plurality of individual flows, the flow splitter including a given number of passage channels which are distributed around the central body, each of the passage channels for generating a fine propellant jet; characterized in that the passage channels are formed between annular rings (18, 19) extending towards each other to provide sharp circumferential edges to the passage channels, a first of the rings (18, 19) being part of the central body and a second of the rings (18, 19) being part of the sleeve, wherein one of the first and the second annular rings (18, 19) having protrusions (20, 21) which are distributed around the central body and adjoin to the other annular ring. - a central body with a flow channel with an outlet, the central body generating a conical drop distribution at the outlet forming a fuel cone, the first propellant being provided in the central body; - a sleeve concentrically surrounding the central body to form an annular flow channel for the second propellant; - a flow splitter arranged between the central body and the sleeve for splitting the second propellant into a plurality of individual flows, the flow splitter including a given number of passage channels which are distributed around the central body, each of the passage channels for generating a fine propellant jet;