mhurhangee/ep-ind-claims huggingface dataset:
A purified polypeptide comprising: (i) SEQ ID NO: 1; (ii) SEQ ID NOs: 1 and 2; or (iii) SEQ ID NOs: 1, 2, and 3; and a non-Stx2 protein scaffold, wherein said SEQ ID NO: 1, SEQ ID NOs: 1 and 2, or SEQ ID NOs: 1, 2, and 3 are inserted into said non-Stx2 protein scaffold and wherein said polypeptide has the antigenicity of Stx2 and wherein said polypeptide comprises an amino acid sequence having at least 95% sequence identity to the amino acid sequence set forth in SEQ ID NO:8. (i) SEQ ID NO: 1; (ii) SEQ ID NOs: 1 and 2; or (iii) SEQ ID NOs: 1, 2, and 3;
A vulcanizable rubber composition comprising: (a) a conjugated diene polymer or copolymer component; (b) a reinforcing filler component comprising at least one of: (i) carbon black, (ii) silica and a silane coupling agent, and (iii) silica; and (c) from 0.5 to 40 phr of at least one metal carboxylate represented by the formula: (RCOO) p M (p+n)+ n, wherein: R is a hydrocarbyl group having from 1 to 25 carbon atoms and optionally containing a heteroatom selected from a halogen atom, nitrogen, oxygen, and sulfur, M is aluminum, and p + n equals 3, and n is selected from 0 or 2. (a) a conjugated diene polymer or copolymer component; (b) a reinforcing filler component comprising at least one of: (i) carbon black, (ii) silica and a silane coupling agent, and (iii) silica; and (i) carbon black, (ii) silica and a silane coupling agent, and (iii) silica; and (c) from 0.5 to 40 phr of at least one metal carboxylate represented by the formula: (RCOO) p M (p+n)+ n, wherein: R is a hydrocarbyl group having from 1 to 25 carbon atoms and optionally containing a heteroatom selected from a halogen atom, nitrogen, oxygen, and sulfur, M is aluminum, and p + n equals 3, and n is selected from 0 or 2. R is a hydrocarbyl group having from 1 to 25 carbon atoms and optionally containing a heteroatom selected from a halogen atom, nitrogen, oxygen, and sulfur, M is aluminum, and p + n equals 3, and n is selected from 0 or 2.
A gas cooler for cooling synthesis gas, which is produced by gasification, with a gas guide pipe, through which synthesis gas flows, with an inner pipe which is constructed to be capable of oscillation and is fastened in the gas guide pipe, wherein the synthesis gas flows substantially through the inner pipe, and with a knocking device (9, 9'), which is arranged at the gas guide pipe and which has a knocker which acts on the inner pipe, characterised in that the inner pipe is fastened at only one end in the gas guide pipe and that the inner pipe is connected to the gas guide pipe so as to be capable of oscillation.
A static mixer for mixing together at least two components comprising: - a mixer housing; - a mixing element arranged at least partly within the mixer housing; and - a mixer inlet section having at least two inlets (18a; 18b) provided at an input side and at least two outlets (22a, 22b) provided at an output surface; wherein the at least two outlets (22a, 22b) are in fluid communication with the at least two inlets (18a, 18b); and wherein the mixer housing, the mixing element and the mixer inlet section are formed as separate elements, characterized in that the mixing element comprises a plug element and the mixer inlet section comprises a counter plug element engaging the plug element; and in that the mixing element and the mixer inlet section are plugged together in a rotationally fixed manner by means of a plugged connection. - a mixer housing; - a mixing element arranged at least partly within the mixer housing; and - a mixer inlet section having at least two inlets (18a; 18b) provided at an input side and at least two outlets (22a, 22b) provided at an output surface; wherein the at least two outlets (22a, 22b) are in fluid communication with the at least two inlets (18a, 18b); and wherein the mixer housing, the mixing element and the mixer inlet section are formed as separate elements,
A feedback method in a User Equipment, UE, device for Cooperative Multi-Point, CoMP, communication in a communication system, the feedback method characterized by comprising: checking (902, 1002) a number of feedback allocations configured to a user equipment, UE, the feedback allocations being configured by Radio Resource Control, RRC, signalling; determining (906, 910, 912, 1006, 1010, 1012) a number of bits of an aperiodic feedback indicator based on the checked number of feedback allocations and a type of a search space for downlink control information, DCI; receiving the DCI including the aperiodic feedback indicator on the search space; interpreting the aperiodic feedback indicator, based on the determined number of bits of the aperiodic feedback indicator; and performing aperiodic feedback of at least one feedback allocation, based on the aperiodic feedback indicator. checking (902, 1002) a number of feedback allocations configured to a user equipment, UE, the feedback allocations being configured by Radio Resource Control, RRC, signalling; determining (906, 910, 912, 1006, 1010, 1012) a number of bits of an aperiodic feedback indicator based on the checked number of feedback allocations and a type of a search space for downlink control information, DCI; receiving the DCI including the aperiodic feedback indicator on the search space; interpreting the aperiodic feedback indicator, based on the determined number of bits of the aperiodic feedback indicator; and performing aperiodic feedback of at least one feedback allocation, based on the aperiodic feedback indicator.
Method for drying a fibrous material web, in particular a paper, cardboard, or tissue web, in which the moving fibrous material web is subjected, in the region of a specifiable upstream drying zone, to hot air from a hot air hood, and subsequent to the drying zone is fed to a downstream Yankee cylinder, to which a further hood is assigned, and in the region of which the fibrous material web is dried further, wherein the hot air for the hot air hood assigned to the upstream drying zone is at least partially taken from the exhaust air of the hood assigned to the downstream Yankee cylinder, and the drying zone is essentially defined by the region in which the fibrous material web is subjected to hot air, characterized in that the fibrous material web within the drying zone is at least in some regions subjected to steam, and in that the fibrous material web, as viewed in the web direction of movement, is subjected to steam, at least at the start of the drying zone, for purposes of achieving a high gain in dry content.
A method for the energy-dispersive detection of X-radiation, comprising the following steps: - irradiating a sample with a primary electron beam so as to excite an emission of X-radiation and back-scattered electrons, - providing a means for reducing the back-scattered electrons, comprising a holder having at least two windows which have different transmission properties for back-scattered electrons, - positioning one of the at least two windows of the holder between an X-ray detection element and a sample, and - detecting the X-radiation by means of the X-ray detection element, wherein the one of the at least two windows of the holder is selected and positioned between the X-ray detection element and the sample which has the greatest possible transmittance Tx for X-rays in a predetermined energy range at each characteristic X-ray peak, wherein the transmittance T BSE for back-scattered electrons is at most 0.1. - irradiating a sample with a primary electron beam so as to excite an emission of X-radiation and back-scattered electrons, - providing a means for reducing the back-scattered electrons, comprising a holder having at least two windows which have different transmission properties for back-scattered electrons, - positioning one of the at least two windows of the holder between an X-ray detection element and a sample, and - detecting the X-radiation by means of the X-ray detection element,
A method comprising: registering a graphics buffer with a kernel running on a first processor, the kernel comprising a display driver and a user space, wherein the user space registers the buffer; storing, by the first processor, the registered graphics buffer in memory initially without drawing the graphics buffer to a display; informing a second processor of the registered graphics buffer, wherein the second processor is operatively coupled to the first processor; while the first processor is in sleep mode, receiving, by the first processor from the second processor, a wake command sent in response to a received trigger; in response to the wake command, performing a partial resume of the kernel without activating a user space on the first processor, wherein performing the partial resume comprises the kernel performing a partial resume of necessary hardware drivers; and drawing, by the first processor using the display driver of the kernel, the graphics buffer to the display without using an operating system graphics pipeline of the user space, wherein the second processor passes the registered graphics buffer to the display driver of the kernel to draw the graphics buffer to the display. registering a graphics buffer with a kernel running on a first processor, the kernel comprising a display driver and a user space, wherein the user space registers the buffer; storing, by the first processor, the registered graphics buffer in memory initially without drawing the graphics buffer to a display; informing a second processor of the registered graphics buffer, wherein the second processor is operatively coupled to the first processor; while the first processor is in sleep mode, receiving, by the first processor from the second processor, a wake command sent in response to a received trigger; in response to the wake command, performing a partial resume of the kernel without activating a user space on the first processor, wherein performing the partial resume comprises the kernel performing a partial resume of necessary hardware drivers; and drawing, by the first processor using the display driver of the kernel, the graphics buffer to the display without using an operating system graphics pipeline of the user space, wherein the second processor passes the registered graphics buffer to the display driver of the kernel to draw the graphics buffer to the display.
A molding, which is a laminated resin molding comprising, laminated in that order and firmly adhered to one another by thermal fusion bonding, (i) a thermoplastic polymer layer, wherein the thermoplastic polymer comprises at least one species selected from a styrene/butadiene-based elastomer, a polyolefin-based elastomer, a polyester-based elastomer, a polyurethane-based elastomer, a poly(vinyl chloride)-based elastomer and a polyamide-based elastomer, (ii) a polyamide-based resin layer wherein the polyamide-based resin has an amine value, determined by titration of a solution of 1 g resin in 50 ml m-cresol with 1/10 N aqueous p-toluenesulfonic acid using thymol blue as an indicator, of 10-60 (equivalents/10 6 g), and (iii) a thermoplastic resin layer wherein the thermoplastic resin - contains a functional group containing carbonyl group selected from carbonyl, carbonate, haloformyl, formyl, carboxyl, ester, acid anhydride [-C(=O)O-C(=O)-], and isocyanato groups or bonds, and - comprises a fluorine-containing ethylenic polymer; which molding is obtainable by a method comprising laminating by simultaneous multilayer co-extrusion using a coextruding machine comprising a die and a plurality of extruders each for feeding a resin to said die, wherein the die temperature is ≤ 230°C. (i) a thermoplastic polymer layer, wherein the thermoplastic polymer comprises at least one species selected from a styrene/butadiene-based elastomer, a polyolefin-based elastomer, a polyester-based elastomer, a polyurethane-based elastomer, a poly(vinyl chloride)-based elastomer and a polyamide-based elastomer, (ii) a polyamide-based resin layer wherein the polyamide-based resin has an amine value, determined by titration of a solution of 1 g resin in 50 ml m-cresol with 1/10 N aqueous p-toluenesulfonic acid using thymol blue as an indicator, of 10-60 (equivalents/10 6 g), and (iii) a thermoplastic resin layer wherein the thermoplastic resin - contains a functional group containing carbonyl group selected from carbonyl, carbonate, haloformyl, formyl, carboxyl, ester, acid anhydride [-C(=O)O-C(=O)-], and isocyanato groups or bonds, and - comprises a fluorine-containing ethylenic polymer; - contains a functional group containing carbonyl group selected from carbonyl, carbonate, haloformyl, formyl, carboxyl, ester, acid anhydride [-C(=O)O-C(=O)-], and isocyanato groups or bonds, and - comprises a fluorine-containing ethylenic polymer;
A device (18; 218) for adapting an electric power supply signal (S1, S201), the signal being able to be received from an electric converter (16; 216) and delivered to a load (14; 214), the adaptation device (18; 218) comprising: - an electric transformer (30; 230) comprising an input terminal (40; 240) adapted to be electrically connected to the electric converter (16; 216) via a first phase conductor and an output terminal (42; 242) adapted to be electrically connected to the load (14; 214) via a second phase conductor; - a unit for detecting a short-circuit on the output terminal (42; 242), characterised in that the electric transformer (30; 230) has a variable-value transformation ratio and in that the adaptation device (18; 218) further comprises means (70; 270) for controlling the transformation ratio of the transformer (30; 230) as a function of the detection of the short-circuit. - an electric transformer (30; 230) comprising an input terminal (40; 240) adapted to be electrically connected to the electric converter (16; 216) via a first phase conductor and an output terminal (42; 242) adapted to be electrically connected to the load (14; 214) via a second phase conductor; - a unit for detecting a short-circuit on the output terminal (42; 242),
Motorised base for a food preparation appliance, said motorised base comprising: - an outer casing having, on an upper side, a coupler configured to enable a coupling and an uncoupling of a work tool and to ensure the rotation of the work tool, the outer housing comprising, on a lower side, a support underframe by which the motorised base is intended to rest on an accommodating surface, - in the outer housing, an electric motor having a motor shaft rotating about a motor axis, the electric motor having a first axial end and a second axial end, opposite the first axial end, which rotates a fan which is arranged on the side of the second axial end of the motor and which suctions a flow of air which circulates along the electric motor from the first axial end to the second axial end, the fan discharging an outgoing flow of air which is channeled along a downstream circuit to an outlet opening arranged in a face of the outer casing, at the level of which the outgoing flow of air is ejected outside of the outer housing, the downstream circuit comprising, successively in the direction of circulation of the outgoing flow of air, a collector, a transfer duct, and the outlet opening, characterised in that the downstream circuit comprises, between the transfer duct and the outlet opening, a double vent having an upstream tubular outer channel, which extends in a venting direction from an upstream end connected to the transfer duct, and which is fluidically connected, via a turnaround volume, to a downstream inner channel which extends inside of the volume of the upstream tubular outer channel in the venting direction as far as a downstream end which corresponds to the outlet opening. - an outer casing having, on an upper side, a coupler configured to enable a coupling and an uncoupling of a work tool and to ensure the rotation of the work tool, the outer housing comprising, on a lower side, a support underframe by which the motorised base is intended to rest on an accommodating surface, - in the outer housing, an electric motor having a motor shaft rotating about a motor axis, the electric motor having a first axial end and a second axial end, opposite the first axial end, which rotates a fan which is arranged on the side of the second axial end of the motor and which suctions a flow of air which circulates along the electric motor from the first axial end to the second axial end, the fan discharging an outgoing flow of air which is channeled along a downstream circuit to an outlet opening arranged in a face of the outer casing, at the level of which the outgoing flow of air is ejected outside of the outer housing, the downstream circuit comprising, successively in the direction of circulation of the outgoing flow of air, a collector, a transfer duct, and the outlet opening,
A method for producing a pigment dispersion composition comprising bringing a pigment having a surface acidic group and a basic compound having two or more amino groups selected from a primary amino group and a secondary amino group in its molecule, into contact with each other in an aqueous medium to prepare a pigment having an unreacted surface amino group, bringing the pigment into contact with a polyisocyanate polyurethane resin having two or more isocyanate end groups so that the pigment and the polyisocyanate polyurethane resin are bonded via a urea bond to prepare a dispersion of a polyurethane resin-bonded pigment, and heating the dispersion of the polyurethane resin-bonded pigment at 40 to 100°C for 1 to 15 days.
Triester of cyclohexanetripropionic acid, in which the three alcohol moieties of the three ester groups each comprise 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 carbon atoms.
A force sensor comprising: a first conductive pattern layer on a non-conductive substrate; a second conductive pattern layer on a non-conductive substrate; and a resistive or semi-conductive pattern layer (2120, 2122) between the first layer and the second layer arranged to electrically couple to each of the first conductive pattern layer and second conductive pattern layer, characterised in that the resistive or semi-conductive pattern layer is printed with a material containing graphene. a first conductive pattern layer on a non-conductive substrate; a second conductive pattern layer on a non-conductive substrate; and a resistive or semi-conductive pattern layer (2120, 2122) between the first layer and the second layer arranged to electrically couple to each of the first conductive pattern layer and second conductive pattern layer, characterised in that the resistive or semi-conductive pattern layer is printed with a material containing graphene.
A method, comprising registering a mobile device for location-based authentication; associating, by linking together, (i) a geographical location for the mobile device of a user, (ii) a mobile device identifier for the mobile device, (iii) a user identity for the user, and (iv) an authentication policy for authentication of the user and the mobile device; and enforcing the authentication policy when the user, via the mobile device, subsequently attempts to access a network resource.
Photodiode (100, 300, 400) comprising a first P-type doped semiconductor layer covered by a second N-type semiconductor layer, the first and second layers forming a PN junction, the photodiode comprising two lateral semiconductor walls (110b, 110d; 410a, 410b) said to be of rank zero, and at least one inner semiconductor wall (M1, M2, M3, Mi, Mn), the inner and lateral walls extending along the entire height of the first and second semiconductor layers, the lateral and inner walls forming the branches of a comb-shaped structure, and being interconnected so as to receive the same electrical potential, each inner semiconductor wall being located between two walls of greater length, the photodiode comprises n rows of inner walls (M1, M2, M3, Mi, Mn), n being an integer greater than or equal to 1, each inner wall (M1, M2, M3, Mi, Mn) has a length less than the lengths of the walls of lower row, each inner wall (M1, M2, M3, Mi, Mn) is located between two walls of lower row, one of these walls being of immediately lower row, the inner walls of a same row having substantially the same length when viewed from above.
A light emitting diode, LED, comprising: a base LED structure comprising: a first layer (12, 40, 60) of semiconductor material comprising an associated first contact (22, 46, 68) and a first surface (14, 66) through which light is emitted, wherein said first surface (14, 66) is at least partially roughened; a second layer (16, 42, 62) of semiconductor material comprising an associated second contact (24, 48, 70), wherein a first surface of said associated second contact is in direct contact with said second layer of semiconductor material; an active region (18,50,72) between said first layer and said second layer; at least one current confinement structure (20, 44, 64) integral with and formed within at least one of said first or second layer of semiconductor material of said base LED structure, said current confinement structure adapted to direct current flowing toward said active region away from an area of said active region (32, 54, 76) that is coincident with an area of said current confinement structure, wherein said current confinement structure is generally axially aligned with said first contact; and a submount (36, 78) adjacent a second surface of said second contact (24, 48, 70), such that said second contact (24, 48, 70) is between said second layer of semiconductor material (16, 48, 62) and said submount (36, 78). a first layer (12, 40, 60) of semiconductor material comprising an associated first contact (22, 46, 68) and a first surface (14, 66) through which light is emitted, wherein said first surface (14, 66) is at least partially roughened; a second layer (16, 42, 62) of semiconductor material comprising an associated second contact (24, 48, 70), wherein a first surface of said associated second contact is in direct contact with said second layer of semiconductor material; an active region (18,50,72) between said first layer and said second layer; at least one current confinement structure (20, 44, 64) integral with and formed within at least one of said first or second layer of semiconductor material of said base LED structure, said current confinement structure adapted to direct current flowing toward said active region away from an area of said active region (32, 54, 76) that is coincident with an area of said current confinement structure, wherein said current confinement structure is generally axially aligned with said first contact; and a submount (36, 78) adjacent a second surface of said second contact (24, 48, 70), such that said second contact (24, 48, 70) is between said second layer of semiconductor material (16, 48, 62) and said submount (36, 78).
A sintered ceramic igniter element (10, 20, 30, 40) comprising a conductive zone (12, 22, 32, 42), a power booster zone (14, 24, 34, 44), and a hot zone (16, 26, 36, 46), the booster zone (14, 24, 34, 44) having a PTCR and a resistivity greater than the conductive zone (12, 22, 32, 42) and less than the hot zone (16, 26, 36, 46), characterised in that the path length of the hot zone is at least about 0.2 cm and up to about 2 cm, and in that the booster zone has sub-zones (34a, 34b, 34c) having differing resistance, the sub-zone having a greater resistance than the conductive zone, sub-zone has a greater resistance than sub-zone, and sub-zone having the highest resistance within the booster zone, but a lower resistance than the hot zone.