mhurhangee/ep-ind-claims huggingface dataset:
An isolated polynucleotide comprising: (a) a nucleic acid encoding zero to ten HTL epitopes; and (b) a nucleic acid encoding a pan-DR binding epitope; and (c) i) a nucleic acid encoding a polypeptide at least 90% identical to an influenza hemagglutinin sequence, or a fragment thereof, and/or ii) a nucleic acid encoding an influenza matrix protein 2 external (M2e) sequence, or fragment thereof; wherein the nucleic acid of (a) and (b) and (c-i) and/or (c-ii) are arranged in any order relative to one another. (a) a nucleic acid encoding zero to ten HTL epitopes; and (b) a nucleic acid encoding a pan-DR binding epitope; and (c) i) a nucleic acid encoding a polypeptide at least 90% identical to an influenza hemagglutinin sequence, or a fragment thereof, and/or ii) a nucleic acid encoding an influenza matrix protein 2 external (M2e) sequence, or fragment thereof; wherein the nucleic acid of (a) and (b) and (c-i) and/or (c-ii) are arranged in any order relative to one another. ii) a nucleic acid encoding an influenza matrix protein 2 external (M2e) sequence, or fragment thereof;
Window lifter drive for application in a motor vehicle comprising an adjusting drive and a connector with protruding spring contacts, wherein the spring contacts protrude into the adjusting drive and are in direct contact with contacting pads, wherein the adjusting drive comprises an electric motor, an output shaft, a circuit board, a housing and a connection interface, - wherein the electric motor is contact-connected to the circuit board and designed for driving the output shaft, - wherein the housing accommodates the circuit board, and - wherein the circuit board is dimensioned to be narrower than the housing opening so that the circuit board can be inserted into the housing through the housing opening, characterized in that - the connection interface comprises a direct plug-in connection to the contacting pads, wherein the contacting pads are designed for direct contact with a connector, and the adjusting drive dispenses with connector pins so that the protruding spring contacts at the connector rest directly on the contacting pads of the circuit board, - and wherein the same housing opening, as component of the connection interface, acts through which the circuit board can be inserted into the housing at the same time as access for the connector to the contacting pads. - wherein the electric motor is contact-connected to the circuit board and designed for driving the output shaft, - wherein the housing accommodates the circuit board, and - wherein the circuit board is dimensioned to be narrower than the housing opening so that the circuit board can be inserted into the housing through the housing opening, characterized in that - the connection interface comprises a direct plug-in connection to the contacting pads, wherein the contacting pads are designed for direct contact with a connector, and the adjusting drive dispenses with connector pins so that the protruding spring contacts at the connector rest directly on the contacting pads of the circuit board, - and wherein the same housing opening, as component of the connection interface, acts through which the circuit board can be inserted into the housing at the same time as access for the connector to the contacting pads.
A method performed by an access point for assisting a wireless device to perform contention-based access on a radio channel for uplink transmission to the access point by sensing whether the radio channel is busy or not, the method being characterised by comprising: obtaining a traffic load L on the radio channel, wherein the traffic load L is indicative of how much the radio channel is occupied, determining a sleep window for the wireless device based on the obtained traffic load L on the radio channel so that the sleep window increases when the traffic load L increases, and signaling the sleep window to the wireless device to instruct the wireless device to apply sleep mode according to the sleep window when the wireless device senses that the radio channel is busy. obtaining a traffic load L on the radio channel, wherein the traffic load L is indicative of how much the radio channel is occupied, determining a sleep window for the wireless device based on the obtained traffic load L on the radio channel so that the sleep window increases when the traffic load L increases, and signaling the sleep window to the wireless device to instruct the wireless device to apply sleep mode according to the sleep window when the wireless device senses that the radio channel is busy.
A compound represented by formula III: where R is H or a hydroxyl protection group; the hydroxyl protection group is selected from a t -butyldimethylsilyl, a trimethylsilyl, a triethylsilyl, a t- butyldiphenylsilyl or a triisoprolylsilyl.
A method for wireless communications using multi user, MU, MIMO technology comprising: specifying transmission parameters for a plurality of wireless nodes in a single frame having a single frame structure, wherein the transmission parameters comprise MU-MIMO parameters and comprise a first portion (326, 320) comprising information intended for the plurality of wireless nodes and a second portion comprising information being specifically identified for each one of the plurality of wireless nodes; and transmitting the single frame, wherein the first portion comprises at least one of: a Type field, a Stacked CTS field, an MU-MIMO sounding field, an Extended CP field, a Frequency Offset Present field, a CL Power Control field, a Ranging field or an MCS field, or wherein the second portion comprises at least one of: a Send CTS field, a Send SND field, a Send CQI field, a Frequency Offset Correction field, a Power Control field, an MCS field, a backoff counter field, or a transmission time field. specifying transmission parameters for a plurality of wireless nodes in a single frame having a single frame structure, wherein the transmission parameters comprise MU-MIMO parameters and comprise a first portion (326, 320) comprising information intended for the plurality of wireless nodes and a second portion comprising information being specifically identified for each one of the plurality of wireless nodes; and transmitting the single frame, wherein the first portion comprises at least one of: a Type field, a Stacked CTS field, an MU-MIMO sounding field, an Extended CP field, a Frequency Offset Present field, a CL Power Control field, a Ranging field or an MCS field, or wherein the second portion comprises at least one of: a Send CTS field, a Send SND field, a Send CQI field, a Frequency Offset Correction field, a Power Control field, an MCS field, a backoff counter field, or a transmission time field.
A computer-implemented method for processing a 4D seismic signal relative to a subsoil, the 4D seismic signal representing evolution throughout the period of 3D seismic signals corresponding to one or more of seismic attributes, the subsoil including a zone subject to extraction and/or injection, the method comprising: - providing the 4D seismic signal; - identifying a part of the 4D seismic signal corresponding to a zone of the subsoil distinct from the zone subject to extraction and/or injection and for which there is no evolution of the 3D seismic signals significantly distinct from noise; - determining a noise model of the 4D seismic signal based on the identified part of the 4D seismic signal, including interpreting seismic attribute evolution in the identified part of the 4D seismic signal as being noise; and - processing the 4D seismic signal based on the noise model. - providing the 4D seismic signal; - identifying a part of the 4D seismic signal corresponding to a zone of the subsoil distinct from the zone subject to extraction and/or injection and for which there is no evolution of the 3D seismic signals significantly distinct from noise; - determining a noise model of the 4D seismic signal based on the identified part of the 4D seismic signal, including interpreting seismic attribute evolution in the identified part of the 4D seismic signal as being noise; and - processing the 4D seismic signal based on the noise model.
A sliceable bone repair material comprising a porous block-shaped scaffold containing a hydrogel, wherein the hydrogel is formed by Michael type addition of at least two precursor molecules, and wherein said scaffold is made of a synthetic ceramic material and comprises interconnected macropores having a diameter above 100 μm, and said scaffold having a total porosity of 80 to 95% characterized in that the inner surface of the pores is more than 50% covered by a thin layer of the dried hydrogel, whereas the interior space of the pore is not filled with hydrogel, and whereby 30 to 60% of the total volume of the interconnected macropores is filled with said hydrogel after reconstitution of the dried hydrogel.
A pressure sensor (21A, 21B) comprising: a primary fluid flow channel (12, 12A, 12B, 12C) in which fluid to be subjected to pressure measurement flows; a pressure introduction flow channel (22, 22A, 22B) branched in a T-shape upward from the primary fluid flow channel (12, 12A, 12B, 12C), and a pressure detecting unit arranged in the pressure introduction flow channel (22, 22A, 22B), wherein the pressure introduction flow channel (22, 22A,22B) is formed such that the opening area on the side of the inlet port of the fluid is narrower than an opening area on the side of the pressure detecting unit, and characterised in that the pressure introduction flow channel (22, 22A, 22B) includes an inclined surface (28, 28A) formed toward the primary fluid flow channel (12, 12A, 12B, 12C) to increase an opening area on the side of an inlet port of the fluid on a wall surface on the downstream side in terms of the direction of flow of the fluid. a primary fluid flow channel (12, 12A, 12B, 12C) in which fluid to be subjected to pressure measurement flows; a pressure introduction flow channel (22, 22A, 22B) branched in a T-shape upward from the primary fluid flow channel (12, 12A, 12B, 12C), and a pressure detecting unit arranged in the pressure introduction flow channel (22, 22A, 22B), wherein the pressure introduction flow channel (22, 22A,22B) is formed such that the opening area on the side of the inlet port of the fluid is narrower than an opening area on the side of the pressure detecting unit, and characterised in that the pressure introduction flow channel (22, 22A, 22B) includes an inclined surface (28, 28A) formed toward the primary fluid flow channel (12, 12A, 12B, 12C) to increase an opening area on the side of an inlet port of the fluid on a wall surface on the downstream side in terms of the direction of flow of the fluid.
A chain-end functionalized methoxy poly(ethylene glycol) (mPEG) of the following chemical formula 3: wherein, Y is sulfonamide group such as sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine and sulfapyridine; a vitamin such as folic acid; or an amide or sulfonamide group-containing drug such as indisulam, doxorubicin, paclitaxel, vancomycin and amprenavir; n is an integer in the range of 10 to 500. Y is sulfonamide group such as sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine and sulfapyridine; a vitamin such as folic acid; or an amide or sulfonamide group-containing drug such as indisulam, doxorubicin, paclitaxel, vancomycin and amprenavir; n is an integer in the range of 10 to 500.
An odorant and flavoring formulation for topical application comprising, as matrix former, a polyvinyl acetate having an average molecular weight M w of 200 000 to 700 000 daltons as water-insoluble polymer and a homopolymer of N-vinylpyrrolidone having a K value of 30 as water-soluble polymer.
A semiconductor chip which is capable of mounting on a printed circuit board, characterized by: a signal generating module (211, 213; 212, 214, 216) for generating a first signal and a second signal; a first output node (251; 253), coupled to an apparatus, for transmitting the first signal; and a second output node (252; 219; 301) for transmitting the second signal, wherein the phase of the second signal is opposite to that of the first signal; characterized in that the second output node is utilized for connecting a terminator device (205; 209) mounted on the printed circuit board; and the apparatus receives the first signal and is different from the terminator device. a signal generating module (211, 213; 212, 214, 216) for generating a first signal and a second signal; a first output node (251; 253), coupled to an apparatus, for transmitting the first signal; and a second output node (252; 219; 301) for transmitting the second signal, wherein the phase of the second signal is opposite to that of the first signal; characterized in that the second output node is utilized for connecting a terminator device (205; 209) mounted on the printed circuit board; and the apparatus receives the first signal and is different from the terminator device.
An architectural covering support (10; 110) for mounting to the periphery of an architectural opening, the support including: an elongate element (20; 120) having one end defining an opening (28; 128) extending longitudinally along the elongate element (20; 120) with longitudinally extending facing support surfaces (28a; 128a); and a support bracket (22; 122) having a first leg (24; 124) for fitment into the opening of the elongate element and a second leg (26; 126) for supporting an architectural covering; wherein the first leg (24; 124) includes a first insertion member (40; 140) with a mounting surface (40a; 140a) and an oppositely facing receiving surface (40b; 140b); and the first insertion member (40; 140) is configured to fit within the opening (28; 128) of the elongate element (20; 120), characterized in that the mounting surface (40a; 140a) and receiving surface (40b; 140b) frictionally engage respective facing support surfaces (28a; 128a) of the opening (28; 128) an elongate element (20; 120) having one end defining an opening (28; 128) extending longitudinally along the elongate element (20; 120) with longitudinally extending facing support surfaces (28a; 128a); and a support bracket (22; 122) having a first leg (24; 124) for fitment into the opening of the elongate element and a second leg (26; 126) for supporting an architectural covering; wherein the first leg (24; 124) includes a first insertion member (40; 140) with a mounting surface (40a; 140a) and an oppositely facing receiving surface (40b; 140b); and the first insertion member (40; 140) is configured to fit within the opening (28; 128) of the elongate element (20; 120),
A dimming device, comprising a communication unit, a microcontrol unit, a power supply unit and a connector, wherein the power supply unit is input with a mains voltage and outputs a voltage required by the communication unit; the communication unit is adapted to receive a control signal obtained by wired or wireless transmission and to output the control signal to the microcontrol unit; the microcontrol unit is adapted to output a dimming signal for dimming; and the connector is adapted to be detachably connected with a connector of another device; the dimming device further comprises a housing and the communication unit, the microcontrol unit and the power supply unit are disposed in the housing; characterized in that the housing includes a first housing and a second housing; the first housing and the second housing are assembled to form a first accommodating cavity; the first housing is smaller than the second housing; a part of the second housing extending beyond the first housing is provided with a second accommodating cavity; the communication unit, the microcontrol unit and the power supply unit are disposed in the first accommodating cavity surrounded by the first housing and the second housing; and the connector is disposed in the second accommodating cavity.
A dry method for obtaining coated quartz characterized in that it consists of the following steps (a) adding quartz into a dry mixing unit at a temperature of between 10 oC and 30 oC; (b) dry mixing the quartz of step (a) with a silane by applying the silane onto the quartz, wherein the percent of the silane is between 0.1 % and 0.6 % by weight with respect of the quartz, wherein the mixing is performed at a temperature of between 10 oC and 30 oC and the mixing speed is between 140 rpm and 170 rpm; (c) continuing dry mixing the mixture in the dry mixture unit obtained in the step b) for a time of between 30 min and 4.0 h at a mixing velocity of between 60 rpm and 150 rpm; and optionally an additional step (a'), between (a) and (b), when the silane applied in step (b) is selected from (3-acryloxypropyl)trimethoxysilane and octyltrimethoxysilane or any combination thereof; the step (a') comprising the mixing of the silane with an amount of between 1% and 10% w/w of at least second silane selected from 3-aminopropyltrimethoxysilane, methyltriacetoxysilane, dimethyl-bis-propionyloxy-silane, bis-benzoyloxy-dimethyl-silane, N-(2-Aminoethyl)-3-aminopropyltrimethoxysilane and any combination thereof, for at least 15 minutes. (a) adding quartz into a dry mixing unit at a temperature of between 10 oC and 30 oC; (b) dry mixing the quartz of step (a) with a silane by applying the silane onto the quartz, wherein the percent of the silane is between 0.1 % and 0.6 % by weight with respect of the quartz, wherein the mixing is performed at a temperature of between 10 oC and 30 oC and the mixing speed is between 140 rpm and 170 rpm; (c) continuing dry mixing the mixture in the dry mixture unit obtained in the step b) for a time of between 30 min and 4.0 h at a mixing velocity of between 60 rpm and 150 rpm;
A method (400, 800) for configuring a private line service in a virtual network, comprising: detecting (401, 801), by a first device (Leaf 1), a state of each user side port (U1 or U2) of the first device (Leaf 1) in a bridge domain, wherein the bridge domain comprises one or two user side ports (U1, U2) of the first device (Leaf 1), and the state of a user side port (U1, U2) includes a usable state indicating that the user side port (U1, U2) is up, and an unusable state indicating that the user side port (U1, U2) is down, wherein the first device (Leaf 1) is an access network device directly connected to a first host (Host 1), the first host (Host 1) accesses one user side port (U1 or U2) of the one or two user side ports (U1, U2) of the first device (Leaf 1) and a user side port (U3 or U4) of a second device (Leaf 2) by using a multi-chassis link bundling technology, the second device (Leaf 2) is an access network device directly connected to the first host (Host 1), the first device (Leaf 1) is different from the second device (Leaf 2); the first device (Leaf 1) comprises a port of a peer-link, the peer-link connecting the first device (Leaf 1) and the second device (Leaf 2); and when it is detected (402, 802) that each of the one or two user side ports (U1, U2) of the first device (Leaf 1) in the bridge domain is in a usable state, removing, by the first device (Leaf 1), the port of the peer link from a broadcast domain corresponding to the bridge domain, so that no traffic passes through the port of the peer-link. detecting (401, 801), by a first device (Leaf 1), a state of each user side port (U1 or U2) of the first device (Leaf 1) in a bridge domain, wherein the bridge domain comprises one or two user side ports (U1, U2) of the first device (Leaf 1), and the state of a user side port (U1, U2) includes a usable state indicating that the user side port (U1, U2) is up, and an unusable state indicating that the user side port (U1, U2) is down, wherein the first device (Leaf 1) is an access network device directly connected to a first host (Host 1), the first host (Host 1) accesses one user side port (U1 or U2) of the one or two user side ports (U1, U2) of the first device (Leaf 1) and a user side port (U3 or U4) of a second device (Leaf 2) by using a multi-chassis link bundling technology, the second device (Leaf 2) is an access network device directly connected to the first host (Host 1), the first device (Leaf 1) is different from the second device (Leaf 2); the first device (Leaf 1) comprises a port of a peer-link, the peer-link connecting the first device (Leaf 1) and the second device (Leaf 2); and when it is detected (402, 802) that each of the one or two user side ports (U1, U2) of the first device (Leaf 1) in the bridge domain is in a usable state, removing, by the first device (Leaf 1), the port of the peer link from a broadcast domain corresponding to the bridge domain, so that no traffic passes through the port of the peer-link.
Device for electrically assisted skin treatment which can be held in a hand, comprising A skin electrode which can be placed on the skin area to be treated, a hand electrode on the outside of the device, which is in contact with the hand when the device is held in the hand by the user during use, an electrical energy source in the device, the poles of which are in electrical contact with the electrodes (4, 7) during operation of the device, wherein an absorbent carrier material impregnated with an active substance is located in front of the skin electrode, wherein the device has an additional part which consists of a ring which can be plugged onto the device and to which the absorbent carrier material impregnated with an active substance is attached, characterised in that the carrier material extends over the skin electrode when the ring is plugged on, and in that the ring is designed in the form of an oval with two longitudinal sections which are connected to one another via arcs, wherein the carrier material is attached to the longitudinal sections. A skin electrode which can be placed on the skin area to be treated, a hand electrode on the outside of the device, which is in contact with the hand when the device is held in the hand by the user during use, an electrical energy source in the device, the poles of which are in electrical contact with the electrodes (4, 7) during operation of the device, wherein an absorbent carrier material impregnated with an active substance is located in front of the skin electrode, wherein the device has an additional part which consists of a ring which can be plugged onto the device and to which the absorbent carrier material impregnated with an active substance is attached, characterised in that the carrier material extends over the skin electrode when the ring is plugged on, and in that the ring is designed in the form of an oval with two longitudinal sections which are connected to one another via arcs, wherein the carrier material is attached to the longitudinal sections.