mhurhangee/ep-ind-claims huggingface dataset:
An imager circuit comprising: an array of pixels for producing respective reset signals and image output signals; an anti-eclipsing circuit for controlling the level of said reset signals by monitoring if said reset signals drop below a reference voltage; characterised by a reference voltage generation circuit for generating said reference voltage in response to signals which are affected by fabrication conditions which affect the reset signal produced by said pixels, the reference voltage generation circuit comprising: a pixel circuit comprising a light sensitive element which is shielded from incident light, said pixel circuit producing a nominal reset signal; and a voltage circuit, for producing said reference voltage equal to a voltage level of said nominal reset signal lowered by a controllable offset, wherein said array of pixels, said anti-eclipsing circuit, and said reference voltage generation circuit are located on a same substrate. an array of pixels for producing respective reset signals and image output signals; an anti-eclipsing circuit for controlling the level of said reset signals by monitoring if said reset signals drop below a reference voltage; characterised by a reference voltage generation circuit for generating said reference voltage in response to signals which are affected by fabrication conditions which affect the reset signal produced by said pixels, the reference voltage generation circuit comprising: a pixel circuit comprising a light sensitive element which is shielded from incident light, said pixel circuit producing a nominal reset signal; and a voltage circuit, for producing said reference voltage equal to a voltage level of said nominal reset signal lowered by a controllable offset, wherein said array of pixels, said anti-eclipsing circuit, and said reference voltage generation circuit are located on a same substrate. a pixel circuit comprising a light sensitive element which is shielded from incident light, said pixel circuit producing a nominal reset signal; and a voltage circuit, for producing said reference voltage equal to a voltage level of said nominal reset signal lowered by a controllable offset, wherein said array of pixels, said anti-eclipsing circuit, and said reference voltage generation circuit are located on a same substrate.
A flame retardant polymer composition comprising: a) one or more copolyetherester thermoplastic elastomers; b) melamine cyanurate; c) at least one epoxy-containing compound which is selected from the group consisting of 2,2-bis(4-hydroxyphenyl)propane-epichlorohydrin copolymer and tetraglycidyl ether of tetraphenol ethane and combinations thereof; and d) optionally at least one compound selected from the group consisting of phosphites and aromatic phosphate ester flame retardants and mixtures thereof; with the proviso that i) when the flame retardant polymer composition comprises an aromatic phosphate ester flame retardant and a phosphite, the amount of epoxy-containing compound present is such that the total epoxy functional group equivalent weight is at least 32 milliequivalents per kg of the combined weight of the one or more copolyetherester thermoplastic elastomers and the aromatic phosphate ester flame retardant and ii) when the flame retardant polymer composition comprises an aromatic phosphate ester flame retardant in the absence of phosphite, the amount of epoxy-containing compound present is such that the total epoxy functional group equivalent weight is at least 56 milliequivalents per kg of the combined weight of the one or more copolyetherester thermoplastic elastomers and the aromatic phosphate ester flame retardant, wherein the epoxy functional group equivalent weight is the weight of the epoxy-containing compound divided by the number of epoxy functional groups in the molecule. a) one or more copolyetherester thermoplastic elastomers; b) melamine cyanurate; c) at least one epoxy-containing compound which is selected from the group consisting of 2,2-bis(4-hydroxyphenyl)propane-epichlorohydrin copolymer and tetraglycidyl ether of tetraphenol ethane and combinations thereof; and d) optionally at least one compound selected from the group consisting of phosphites and aromatic phosphate ester flame retardants and mixtures thereof;
A food preparation appliance suitable to be operated on an induction heating cooker, comprising a body wherein foods are placed for food preparation operations like cooking, cutting and mixing; a cover mounted over the body; a control unit that is situated inside the cover and that provides the control of the operating parameters; one or more than one receiver coil that is disposed on the base of the body and that receives energy from the coils in the induction heating cooker, and a connector that has a socket and a housing and that provides the transmission of the energy received by the receiver coil to the control unit, characterized by a locking mechanism that is disposed oppositely on the cover or the body, that enables the socket and/or the housing to be moved, thus the socket and the housing to be inserted into one another and that enables the cover and the body to be locked to one another.
Harbour plant for storage, loading and unloading of hydrocarbon products at sea, comprising a number of units being mutually placed apart, resting on a seabed, the units being placed independently at a given distance apart in sideways direction and having a front surface along which a vessel is intended to be moored, the units forming a passage or passages for parts of the waves, and being configured to dampen a part of the incoming waves while allowing other parts of the waves and current to pass unhindered through the passages between two adjacent harbour units, the sideways distances between two neighbouring units being governed by the frequency of the waves to be dampened and the frequencies of the waves allowed to pass in between the units, characterized in that the front surface of one of the units, along which the vessel is intended to be moored, is offset with a distance relative to the front surfaces of two neighbouring units in a traverse direction with respect to the longitudinal direction of the plant, away from said incoming waves, and that the distance is in the range of 2 to 60 meters; that the foot print of the offset unit is trapezoidal, where the parallel side surfaces are facing perpendicular to the predominant direction of the waves and that the width of a passage formed between the offset unit and the side wall of a neighbouring unit either increases or decreases in direction of the incoming waves, and wherein an acute angle α is formed between the front side and one of the side surface, and one of the side walls forms an angle β with the other front side, where β differs from α.
A light mixing chamber comprising: a first light mixing chamber part comprising a light exit window and a first side wall having a first inner wall portion and a first outer wall portion, spaced apart and together forming a first groove, a second light mixing chamber part comprising a bottom wall and a second side wall having a second inner wall portion and a second outer wall portion, spaced apart and together forming a second groove, an inner cavity, and an LED substrate having a front surface facing the inner cavity and a back surface facing away from the inner cavity, the front surface supporting a plurality of LEDs (162,164,166,168), characterised in that the LED substrate is arranged into the first and second grooves, interconnecting the first and the second light mixing chamber parts (120,140) such that the light mixing chamber is formed, wherein the first inner wall portion of the first side wall is extending further away from the light exit window than the first outer wall portion of the first side wall and/or the second inner wall portion of the second side wall is extending further away from the bottom wall than the second outer wall portion of the second side wall, and wherein between 5% to 50% of the back surface of the LED substrate is covered by the first and second grooves. a first light mixing chamber part comprising a light exit window and a first side wall having a first inner wall portion and a first outer wall portion, spaced apart and together forming a first groove, a second light mixing chamber part comprising a bottom wall and a second side wall having a second inner wall portion and a second outer wall portion, spaced apart and together forming a second groove, an inner cavity, and an LED substrate having a front surface facing the inner cavity and a back surface facing away from the inner cavity, the front surface supporting a plurality of LEDs (162,164,166,168), characterised in that the LED substrate is arranged into the first and second grooves, interconnecting the first and the second light mixing chamber parts (120,140) such that the light mixing chamber is formed, wherein the first inner wall portion of the first side wall is extending further away from the light exit window than the first outer wall portion of the first side wall and/or the second inner wall portion of the second side wall is extending further away from the bottom wall than the second outer wall portion of the second side wall, and wherein between 5% to 50% of the back surface of the LED substrate is covered by the first and second grooves.
Use of a tire reinforcement material as cap ply by winding it on a tire belt in strips such that it makes 0 to 5° with the equatorial plane, wherein said tire reinforcement material is obtained from a fabric which comprises warps (Ck) aligned parallel to each other, said warps (Ck) comprised of cords with low modulus and cords with high modulus or yarns with low modulus and yarns with high modulus and wherein in said fabric the thermal shrinkage of the cords or yarns with low modulus (2, 4) is higher than that of the cords or yarns with high modulus (3, 5) and wherein the reinforcement material is subjected to a heat treatment such that said warps (Ck) gain bielastic behaviour as a result of the different thermal shrinkages at said heat treatment.
A composition for use in a method of vaccinating an animal, said composition comprising an expression vector, wherein the vector comprises a first polynucleotide encoding a Hendra virus G polypeptide and a second polynucleotide encoding a Hendra virus F polypeptide, wherein said vector is a canarypox vector; further wherein the Hendra virus G polypeptide is SEQ ID NO: 3 and the Hendra virus F polypeptide is SEQ ID NO: 6, said composition further comprising a pharmaceutically or veterinarily acceptable carrier, excipient, adjuvant, or vehicle.
An isolated peptide that binds to HLA-DR4, consisting of the amino acid sequence: YLKNVQTQETRTL (SEQ ID NO: 10); YLKNVQTQETRTLTQ (SEQ ID NO: 13); or FYLKNVQTQETRTLTQFHF (SEQ ID NO: 16). YLKNVQTQETRTL (SEQ ID NO: 10); YLKNVQTQETRTLTQ (SEQ ID NO: 13); or FYLKNVQTQETRTLTQFHF (SEQ ID NO: 16).
A method of dynamically allocating radio resources across a set of virtualized radio access points, vRAPs, in a virtual radio access network, vRAN, the method comprising: collecting contextual information across all vRAPs that share a common carrier bandwidth of a physical radio access point, mapping, by a radio resource controller according to an internal mapping policy, the contextual information of the vRAPs into an allocation of vRAN slices to the vRAPs, wherein each vRAN slice comprises allocated computing resources and an allocated bandwidth part, BWP, of the common carrier bandwidth, the BWPs being orthogonal across the vRAN slices, and notifying the vRAPs of their individual BWP allocations, characterized in that the method further comprises: computing, by the radio resource controller, a set of BWP vectors containing BWPs eligible for each vRAP such that the eligible BWPs for individual vRAPs across all vectors maximize a distance function. collecting contextual information across all vRAPs that share a common carrier bandwidth of a physical radio access point, mapping, by a radio resource controller according to an internal mapping policy, the contextual information of the vRAPs into an allocation of vRAN slices to the vRAPs, wherein each vRAN slice comprises allocated computing resources and an allocated bandwidth part, BWP, of the common carrier bandwidth, the BWPs being orthogonal across the vRAN slices, and notifying the vRAPs of their individual BWP allocations,
A draper belt system, comprising: a first draper belt assembly comprising a first roller, a second roller, and one or a plurality of draper belts looped around the first and second rollers (128, 130), the first roller defining a first central longitudinal axis about which the first roller spins; and a second draper belt assembly comprising a third roller, a fourth roller, and one or a plurality of draper belts looped around the third and fourth rollers (134, 136), the third roller defining a second central longitudinal axis about which the third roller spins, the second central longitudinal axis extending parallel or substantially parallel to the first central longitudinal axis; wherein the third roller of the second draper belt assembly is disposed adjacent to or substantially adjacent to the first roller of the first draper belt assembly; and characterised in that the first draper belt assembly is configured to pivot relative to the second draper belt assembly, pivoting of the first draper belt assembly resulting in a change in a distance between the first and third rollers (128, 134). a first draper belt assembly comprising a first roller, a second roller, and one or a plurality of draper belts looped around the first and second rollers (128, 130), the first roller defining a first central longitudinal axis about which the first roller spins; and a second draper belt assembly comprising a third roller, a fourth roller, and one or a plurality of draper belts looped around the third and fourth rollers (134, 136), the third roller defining a second central longitudinal axis about which the third roller spins, the second central longitudinal axis extending parallel or substantially parallel to the first central longitudinal axis; wherein the third roller of the second draper belt assembly is disposed adjacent to or substantially adjacent to the first roller of the first draper belt assembly; and characterised in that the first draper belt assembly is configured to pivot relative to the second draper belt assembly, pivoting of the first draper belt assembly resulting in a change in a distance between the first and third rollers (128, 134).
A blade outer air seal (BOAS) comprising: a tube of a ceramic matrix composite material; and a preform within the tube configured to receive a mount for the BOAS, wherein: the preform is of a CMC material; the tube has a first open end and a second open end at opposite sides of the BOAS, and the preform comprises a first preform in the first open end facing circumferentially outward and a second preform in the second open end facing circumferentially outward opposite the first preform; characterized in that the tube comprises a substantially rectangular shape with a radially inner surface and a radially outer surface, the radially outer surface including a first cutout and a second cutout at respective first and second ends; whereby the cutouts are configured to correspond with a profile of the mount such that the mount may extend into the open ends of the tube; and in that each of the first end and the second end includes an end groove for a seal. a tube of a ceramic matrix composite material; and a preform within the tube configured to receive a mount for the BOAS, wherein: the preform is of a CMC material; the tube has a first open end and a second open end at opposite sides of the BOAS, and the preform comprises a first preform in the first open end facing circumferentially outward and a second preform in the second open end facing circumferentially outward opposite the first preform; characterized in that the tube comprises a substantially rectangular shape with a radially inner surface and a radially outer surface, the radially outer surface including a first cutout and a second cutout at respective first and second ends; whereby the cutouts are configured to correspond with a profile of the mount such that the mount may extend into the open ends of the tube; and in that each of the first end and the second end includes an end groove for a seal. the preform is of a CMC material; the tube has a first open end and a second open end at opposite sides of the BOAS, and the preform comprises a first preform in the first open end facing circumferentially outward and a second preform in the second open end facing circumferentially outward opposite the first preform; characterized in that the tube comprises a substantially rectangular shape with a radially inner surface and a radially outer surface, the radially outer surface including a first cutout and a second cutout at respective first and second ends; whereby the cutouts are configured to correspond with a profile of the mount such that the mount may extend into the open ends of the tube; and in that each of the first end and the second end includes an end groove for a seal.
Method for producing at least one concrete component, wherein - material for forming the component is metered by means of at least one of at least two metering devices, - material for forming the component is metered in a changeable manner by means of at least one other of the at least two metering devices, and - material is dispensed by at least one dispensing device arranged downstream of the at least two metering devices in order to produce the component and provide it with at least one continuous or approximately continuous property change in at least one spatial direction, and wherein - the at least one dispensing device is moved by means of an automated movement device. - material for forming the component is metered by means of at least one of at least two metering devices, - material for forming the component is metered in a changeable manner by means of at least one other of the at least two metering devices, and - material is dispensed by at least one dispensing device arranged downstream of the at least two metering devices in order to produce the component and provide it with at least one continuous or approximately continuous property change in at least one spatial direction, and wherein - the at least one dispensing device is moved by means of an automated movement device.
Process for the production of solid particles comprising cyclic amide selected from laurolactam, caprolactam or a mixture of these, with a melting point from -20°C to +300°C at atmospheric pressure, characterized in that a mixture comprising: component a1) comprising the cyclic amide and optionally further ingredients in molten form and component a2) comprising the cyclic amide and optionally further ingredients in solid form is mixed by means of an extruder to give a paste, this is forced through a pelletizing die to give strands, and the strands are comminuted, wherein the temperature of the melt of component a1) is selected together with the temperature of the solid form of component a2) and according to the temperature of the extruder and the frictional heat generated inside the extruder in such a way that the presence of a solid phase and a molten phase is ensured during the extrusion. component a1) comprising the cyclic amide and optionally further ingredients in molten form and component a2) comprising the cyclic amide and optionally further ingredients in solid form is mixed by means of an extruder to give a paste, this is forced through a pelletizing die to give strands, and the strands are comminuted, wherein the temperature of the melt of component a1) is selected together with the temperature of the solid form of component a2) and according to the temperature of the extruder and the frictional heat generated inside the extruder in such a way that the presence of a solid phase and a molten phase is ensured during the extrusion.
A pharmaceutical composition comprising an insulin compound in a concentration of at least 10 mg/ml characterized by having a pharmacokinetic profile in vivo with substantially no burst of the insulin compound and wherein the insulin compound is fully contained in a depot, and wherein the insulin compound is covalently linked in the depot, wherein the insulin compound is a prodrug or a pharmaceutical acceptable salt thereof which is an insulin linker conjugate D-L, wherein D represents the insulin moiety; and -L is a non-biologically active linker moiety -L1 represented by formula, wherein the dashed line indicates the attachment to one of the amino groups of the insulin by forming an amide bond; X is C(R3R3a); or N; R1a, R3a are independently selected from the group consisting H, NH(R2b), N(R2b)C R4 and C1-4 alkyl; R1, R2 R2a, R2b, R3, R4 are independently selected from the group consisting of H and C1-4 alkyl, wherein L1 is substituted with one L2-Z and optionally further substituted, provided that the hydrogen marked with the asterisk in formula is not replaced by a substituent and wherein L2 is a single chemical bond or a spacer; and Z is a hydrogel. wherein the dashed line indicates the attachment to one of the amino groups of the insulin by forming an amide bond; X is C(R3R3a); or N; R1a, R3a are independently selected from the group consisting H, NH(R2b), N(R2b)C R4 and C1-4 alkyl; R1, R2 R2a, R2b, R3, R4 are independently selected from the group consisting of H and C1-4 alkyl, wherein L1 is substituted with one L2-Z and optionally further substituted, provided that the hydrogen marked with the asterisk in formula is not replaced by a substituent and wherein L2 is a single chemical bond or a spacer; and Z is a hydrogel.