mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator appliance defining a vertical direction, a lateral direction, and a transverse direction, the refrigerator appliance comprising: a cabinet defining a chilled chamber; a door (128, 130) providing selective access to the chilled chamber; a drawer assembly comprising: a storage bin positioned within the chamber; an adjustable divider positioned within the storage bin, the adjustable divider comprising a top support arm and a window mounted to the top support arm, wherein the window is transparent or translucent; a light source mounted on the adjustable divider; and a power supply assembly electrically connected to the light source as the adjustable divider slides within the storage bin, characterized in that the light source is mounted onto the top support arm and directed through the window, in that the storage bin defines a rear guide track that extends along a rear wall, and in that the adjustable divider comprises: one or more rear wheels rotatably coupled to the top support arm and being positioned within the rear guide track for guiding the adjustable divider as it is moved along a lateral direction. a cabinet defining a chilled chamber; a door (128, 130) providing selective access to the chilled chamber; a drawer assembly comprising: a storage bin positioned within the chamber; an adjustable divider positioned within the storage bin, the adjustable divider comprising a top support arm and a window mounted to the top support arm, wherein the window is transparent or translucent; a light source mounted on the adjustable divider; and a power supply assembly electrically connected to the light source as the adjustable divider slides within the storage bin, characterized in that a storage bin positioned within the chamber; an adjustable divider positioned within the storage bin, the adjustable divider comprising a top support arm and a window mounted to the top support arm, wherein the window is transparent or translucent; a light source mounted on the adjustable divider; and a power supply assembly electrically connected to the light source as the adjustable divider slides within the storage bin, characterized in that the light source is mounted onto the top support arm and directed through the window, in that the storage bin defines a rear guide track that extends along a rear wall, and in that the adjustable divider comprises: one or more rear wheels rotatably coupled to the top support arm and being positioned within the rear guide track for guiding the adjustable divider as it is moved along a lateral direction.
A therapeutic combination for use in treating a patient suffering from melanoma characterized by a V600 mutation in B-Raf, which use comprises: (a) administering to the patient a therapeutically effective amount of a B-Raf inhibitor, or a pharmaceutically acceptable salt thereof, until the patient exhibits disease progression; (b) detecting for a genetic alteration in one or more genes selected from the group consisting of B-raf, C-raf, CCND1, CDK4, HER2, IGF-1R, cMET, FGFR1, FGFR3 EGFR, MAP2K1, MAPK2, NRAS, KRAS HRAS, PTEN, PIK3CA, and P16 in a tumor sample from the patient after disease progression; and (c) when the mechanism of disease progression is characterized by a genetic alteration in BRAF, CRAF, MAP2K1, MAPK2, NRAS, KRAS, HRAS or EGFR administering a drug combination therapy comprising a compound of formula: and a Mek 1/2 inhibitor which is Compound B: (a) administering to the patient a therapeutically effective amount of a B-Raf inhibitor, or a pharmaceutically acceptable salt thereof, until the patient exhibits disease progression; (b) detecting for a genetic alteration in one or more genes selected from the group consisting of B-raf, C-raf, CCND1, CDK4, HER2, IGF-1R, cMET, FGFR1, FGFR3 EGFR, MAP2K1, MAPK2, NRAS, KRAS HRAS, PTEN, PIK3CA, and P16 in a tumor sample from the patient after disease progression; and (c) when the mechanism of disease progression is characterized by a genetic alteration in BRAF, CRAF, MAP2K1, MAPK2, NRAS, KRAS, HRAS or EGFR administering a drug combination therapy comprising a compound of formula:
A nanochannel delivery device comprising: an inlet microchannel; an outlet microchannel; and a nanochannel in fluid communication with the inlet microchannel and the outlet microchannel, wherein the inlet microchannel comprises a non-bio-robust material coated with a bio-robust material comprising tantalum oxide, said bio-robust material maintains nanoscale dimensions within 10% of their original dimensions over 1000 days when exposed to bio-fluids at body temperature, and wherein the outlet microchannel is coated with a bio-robust material comprising silicon carbide. an inlet microchannel; an outlet microchannel; and a nanochannel in fluid communication with the inlet microchannel and the outlet microchannel, wherein the inlet microchannel comprises a non-bio-robust material coated with a bio-robust material comprising tantalum oxide, said bio-robust material maintains nanoscale dimensions within 10% of their original dimensions over 1000 days when exposed to bio-fluids at body temperature, and wherein the outlet microchannel is coated with a bio-robust material comprising silicon carbide.
A compound of Formula or a phosphorylated form thereof for use in the treatment of an ophthalmic condition: wherein: R 1 and R 2 are independently C 1 to C 4 alkyl R 3 and R 4 are independently -H or -CH 3; R 5 is -H; R 8 is wherein X 4 is -OH or -COOH and n 2 is 1, 2, or 3; X 1 is -F, -Cl, -Br, or-OCH 3; X 2 is -SO 2 R' or -CO 2 R', where R' is -H, -CH 3, or-CH 2 CH 3; X 3 is -SO 2 CF 3 or -NO 2; and X 5 is -F, -Cl, or -H; wherein the ophthalmic condition is diabetic retinopathy. R 1 and R 2 are independently C 1 to C 4 alkyl R 3 and R 4 are independently -H or -CH 3; R 5 is -H; R 8 is wherein X 4 is -OH or -COOH and n 2 is 1, 2, or 3; X 1 is -F, -Cl, -Br, or-OCH 3; X 2 is -SO 2 R' or -CO 2 R', where R' is -H, -CH 3, or-CH 2 CH 3; X 3 is -SO 2 CF 3 or -NO 2; and X 5 is -F, -Cl, or -H; wherein the ophthalmic condition is diabetic retinopathy.
Neutron shielding for a nuclear fusion reactor, the neutron shielding including a cemented carbide or boride comprising a binder and an aggregate, the aggregate comprising particles of a carbide or boride compound of tungsten, tantalum and/or hafnium; characterised in that the composition of the cemented carbide or boride varies through the thickness of the cemented carbide or boride.
A sintered bush made of porous metallic sintered body, wherein the porous metallic sintered body comprises: an iron (Fe) based matrix containing a martensite structure; and one or more kind of metal matrix selected from copper (Cu), tin (Sn), and nickel (Ni), wherein the sintered bush is used under a contact pressure of 8 kg/mm 2 or more and a fluctuation velocity of the range of 1 to 8 cm/sec, wherein a lubricant is impregnated in pores of the porous sintered body, the lubricant having an oil separation rate of 5 to 10 wt% at an operational temperature of 70 to 80°C, wherein the lubricant includes a wax of 5 to 50 wt%, a thickener of 0.5 to 20 wt%, an additive of 0.1 to 5 wt%, and a residual amount of base oil and being semisolid or solid at room temperature, wherein the wax has a softening temperature of 150 degrees Celsius or less and a weight average molecular weight of 300 to 4000. an iron (Fe) based matrix containing a martensite structure; and one or more kind of metal matrix selected from copper (Cu), tin (Sn), and nickel (Ni),
A coding and modulation apparatus comprising - an encoder configured to encode input data into cell words according to a low density parity check code, LDPC, and - a modulator configured to modulate said cell words into constellation values of a non-uniform constellation and to assign bit combinations to constellation values of the used non-uniform constellation, wherein said modulator is configured to use, based on a modulation and coding scheme, MCS, index describing a single carrier, SC, mode, a total number of 64 constellation points and the code rate, a non-uniform constellation as defined in sub-group B3 for 64-QAM with code rates of 1/2, 5/8, 3/4 or 13/16, or a non-uniform constellation obtained therefrom through inversion of a bit label and/or through interchanging of bit positions, wherein the constellation points are defined as follows: B3) 64-QAM NUC bit label constellation value 000000 +1.0414-0.1712i 000001 +0.7230-0.1517i 000010 +1.0997-0.5419i 000011 +0.7484-0.4663i 000100 -1.04140.1712i 000101 -0.7230-0.1517i 000110 -1.0997-05419i 000111 -0.7484-0.4663i 001000 +1.0414+0.1712i 001001 +0.7230+0.1517i 001010 +1.0997+0.5419i 001011 +0.7484+0.4663i 001100 -1.0414+0.1712i 001101 -0.7230+0.1517i 001110 -1.0997+0.5419i 001111 -0.7484+0.4663i 010000 +0.1414-0.1379i 010001 +0.4272-0.1421i 010010 +0.1440-0.4167i 010011 +0.4369-0.4317i 010100 -0.1414-0.1379i 010101 -0.4272-0.1421i 010110 -0.1440-0.4167i 010111 -0.4369-0.4317i 011000 +0.1414+0.1379i 011001 +0.4272+0.1421i 011010 +0.1440+0.4167i 011011 +0.4369+0.4317i 011100 -0.1414+0.1379i 011101 -0.4272+0.1421i 011110 -0.1440+0.4167i 011111 -0.4369+0.4317i 100000 +1.4058-0.2115i 100001 +0.5981-1.1597i 100010 +1.0691-0.9443i 100011 +0.7360-0.8042i 100100 -1.4058-0.2115i 100101 -0.5981-1.1597i 100110 -1.0691-0.9443i 100111 -0.7360-0.8042i 101000 +1.4058+0.2115i 101001 +0.5981+11597i 101010 +1.0691+0.9443i 101011 +0.7360+0.8042i 101100 -1.4058+0.2115i 101101 -0.5981+1.1597i 101110 -1.0691+0.9443i 101111 -0.7360+0.8042i 110000 +0.1695-1.0298i 110001 +0.2236-1.3784i 110010 +0.1426-0.7102i 110011 +0.4351-0.7394i 110100 -0.1695-1.0298i 110101 -0.2236-1.3784i 110110 -0.1426-0.7102i 110111 -0.4351-0.7394i 111000 +0.1695+10298i 111001 +0.2236+13784i 111010 +0.1426+0.7102i 111011 +0.4351+0.7394i 111100 -0.1695+1.0298i 111101 -0.2236+1.3784i 111110 -0.1426+0.7102i 111111 -0.4351+0.7394i - an encoder configured to encode input data into cell words according to a low density parity check code, LDPC, and - a modulator configured to modulate said cell words into constellation values of a non-uniform constellation and to assign bit combinations to constellation values of the used non-uniform constellation,
A liquefied natural gas storage tank having an improved insulation structure, the liquefied natural gas storage tank comprising: an insulation wall (120, 130, 140) installed on an inner wall of the tank; and sealing walls installed on an upper surface of the insulation wall (120, 130, 140) and brought into direct contact with liquefied natural gas; wherein the insulation wall comprises corner structures installed at corner portions of the tank, anchor structures installed on the inner wall of the tank, and planar structures installed at planar portions of the tank, wherein the sealing walls comprise a first sealing wall brought into direct contact with the liquefied natural gas and a second sealing wall installed below the first sealing wall, wherein the first sealing wall and the second sealing wall are spaced apart from each other, wherein the first sealing wall comprises a first corrugated portion and the second sealing wall comprises a second corrugated portion such that the first corrugated portion and the second corrugated portion are opposing each other, and wherein the sealing walls enclose a supporting board for allowing a distance between the first sealing wall and the second sealing wall to be kept constant, and characterized in that the supporting board is provided over at least a portion of the sealing walls except the corrugated portions. an insulation wall (120, 130, 140) installed on an inner wall of the tank; and sealing walls installed on an upper surface of the insulation wall (120, 130, 140) and brought into direct contact with liquefied natural gas; wherein the insulation wall comprises corner structures installed at corner portions of the tank, anchor structures installed on the inner wall of the tank, and planar structures installed at planar portions of the tank, wherein the sealing walls comprise a first sealing wall brought into direct contact with the liquefied natural gas and a second sealing wall installed below the first sealing wall, wherein the first sealing wall and the second sealing wall are spaced apart from each other, wherein the first sealing wall comprises a first corrugated portion and the second sealing wall comprises a second corrugated portion such that the first corrugated portion and the second corrugated portion are opposing each other, and wherein the sealing walls enclose a supporting board for allowing a distance between the first sealing wall and the second sealing wall to be kept constant, and characterized in that the supporting board is provided over at least a portion of the sealing walls except the corrugated portions.
Catheter pump comprising a catheter, a pump head provided at the distal end of the catheter for insertion into the arterial vascular system, the catheter having an outer catheter and an inner catheter arranged in the outer catheter, comprising a rotor shaft which is rotatably arranged in the inner catheter for driving an expandable conveying element provided on the pump head, an actuation portion which is provided at the proximal end of the catheter and by means of which the rotor shaft can be driven, and comprising a cage surrounding the conveying element, the cage having a distal and a proximal sleeve (22, 24) and filaments extending between the sleeves (22, 24), the proximal sleeve being movable in the axial direction toward the distal sleeve in order to expand the cage, characterized in that the actuation portion has a base part which is movement-coupled to the inner catheter in the axial direction and an actuation part which is movable in the axial direction relative to the base part and is guided in or on the base part, the proximal end of the outer catheter being movement-coupled to the actuation part and the distal end of the outer catheter being movement-coupled to the proximal sleeve in the axial direction such that the proximal sleeve is moved toward the distal sleeve when the actuation part moves away from the base part, and in that the actuation part has an inlet for rinsing liquid to be conveyed to bearing points of the conveying element and in that the base part has an outlet for rinsing liquid coming from the bearing points. a pump head provided at the distal end of the catheter for insertion into the arterial vascular system, the catheter having an outer catheter and an inner catheter arranged in the outer catheter, comprising a rotor shaft which is rotatably arranged in the inner catheter for driving an expandable conveying element provided on the pump head, an actuation portion which is provided at the proximal end of the catheter and by means of which the rotor shaft can be driven, and comprising a cage surrounding the conveying element, the cage having a distal and a proximal sleeve (22, 24) and filaments extending between the sleeves (22, 24), the proximal sleeve being movable in the axial direction toward the distal sleeve in order to expand the cage, characterized in that the actuation portion has a base part which is movement-coupled to the inner catheter in the axial direction and an actuation part which is movable in the axial direction relative to the base part and is guided in or on the base part, the proximal end of the outer catheter being movement-coupled to the actuation part and the distal end of the outer catheter being movement-coupled to the proximal sleeve in the axial direction such that the proximal sleeve is moved toward the distal sleeve when the actuation part moves away from the base part, and in that the actuation part has an inlet for rinsing liquid to be conveyed to bearing points of the conveying element and in that the base part has an outlet for rinsing liquid coming from the bearing points.
A system for providing location data for use in a portable device, the system comprising: at least one signalling device (14a-d) in each of a plurality of environments, for sending a signal response for reception by the portable device having a unique identifying characteristic; and a portable device for receiving the signal response transmitted by the at least one signaling device (14a-d) in each of the plurality of environments; wherein the signal response transmitted by the at least one signaling device (14a-d) in each of the plurality of environments has a second transmission characteristic purposefully selected so as to ensure that the portable device receives the signal response transmitted by the at least one signaling device (14a-d) in only a one of the plurality of environments in which the portable device was located when the signal request was transmitted, the at least one signalling device (14a-d) in each of a plurality of environments has programming for receiving a signal request and, responsive to that signal request, for sending the signal response, the portable device having programming for simultaneously transmitting to each of the plurality of environments the signal request and receiving the signal response, and the signal request transmitted by the portable device has a first transmission characteristic purposefully selected so as to ensure that the at least one signalling device (14a-d) in each of the plurality of environments will receive the signal request. at least one signalling device (14a-d) in each of a plurality of environments, for sending a signal response for reception by the portable device having a unique identifying characteristic; and a portable device for receiving the signal response transmitted by the at least one signaling device (14a-d) in each of the plurality of environments; wherein the signal response transmitted by the at least one signaling device (14a-d) in each of the plurality of environments has a second transmission characteristic purposefully selected so as to ensure that the portable device receives the signal response transmitted by the at least one signaling device (14a-d) in only a one of the plurality of environments in which the portable device was located when the signal request was transmitted, the at least one signalling device (14a-d) in each of a plurality of environments has programming for receiving a signal request and, responsive to that signal request, for sending the signal response, the portable device having programming for simultaneously transmitting to each of the plurality of environments the signal request and receiving the signal response, and the signal request transmitted by the portable device has a first transmission characteristic purposefully selected so as to ensure that the at least one signalling device (14a-d) in each of the plurality of environments will receive the signal request.
A method for wireless communications performed by a user equipment, UE, comprising: determining at least one narrowband region of a wideband region for receiving at least one of: multicast information or broadcast information in at least one subframe; and receiving the at least one of: the multicast information or the broadcast information in the determined at least one narrowband region in the at least one subframe; the method further comprising: providing an indication to a base station that the UE has at least one of: the multicast information or the broadcast information to receive; and receiving a radio resource control, RRC, connection release message from the base station in response to the indication, wherein the at least one of: the multicast information or the broadcast information is received while the UE is in an idle mode. determining at least one narrowband region of a wideband region for receiving at least one of: multicast information or broadcast information in at least one subframe; and receiving the at least one of: the multicast information or the broadcast information in the determined at least one narrowband region in the at least one subframe; the method further comprising: providing an indication to a base station that the UE has at least one of: the multicast information or the broadcast information to receive; and receiving a radio resource control, RRC, connection release message from the base station in response to the indication, wherein the at least one of: the multicast information or the broadcast information is received while the UE is in an idle mode. providing an indication to a base station that the UE has at least one of: the multicast information or the broadcast information to receive; and receiving a radio resource control, RRC, connection release message from the base station in response to the indication, wherein the at least one of: the multicast information or the broadcast information is received while the UE is in an idle mode.
Method for classifying a driver in a vehicle, in particular in a single-track vehicle, in which a steering input variable specified by the driver is ascertained over a minimum period of time during driving and a driver evaluation signal is determined from the course of the steering input variable, the driver evaluation signal corresponding to a classification of the driver into a specified driver category, characterized in that a driving manoeuvre carried out by the driver is identified from the course of the steering input variable specified by the driver and/or from at least one driving state variable, wherein the driver evaluation signal is determined from the deviation in the actual steering input variable from an ideal steering input variable associated with the driving manoeuvre.
An enzyme comprising the following characteristics of (a), (b), and (g): (a) the enzyme has an activity of reversible dehydrogenation of D-amino acid; (b) the enzyme is a hexamer of polypeptides having an amino acid sequence that has 80% or greater identity with an amino acid sequence of SEQ ID NO: 2; and (g) the enzyme has an activity of producing D-aspartic acid from 2-oxobutanedioic acid. (a) the enzyme has an activity of reversible dehydrogenation of D-amino acid; (b) the enzyme is a hexamer of polypeptides having an amino acid sequence that has 80% or greater identity with an amino acid sequence of SEQ ID NO: 2; and (g) the enzyme has an activity of producing D-aspartic acid from 2-oxobutanedioic acid.
A user equipment for performing channel detection on a plurality of carriers in an unlicensed frequency band for uplink transmissions, comprising at least one processing circuit, wherein the plurality of carriers comprises a first carrier and a second carrier, and the at least one processing circuit (201, 2002) is configured to: perform channel detection on the first carrier to confirm whether the first carrier is idle; and, when it is detected during the channel detection the first carrier is occupied, perform channel detection on the second carrier to confirm whether the second carrier is idle; and wherein a type of the channel detection performed on the first carrier is more complex than the type of the channel detection performed on the second carrier such that the channel detection on the first carrier is energy detection involving random back-off and the energy detection on the second carrier is energy detection not involving random back-off and wherein a threshold value for determining whether a channel is idle is set to be lower for the channel detection performed on the first carrier and is set to be higher for the channel detection performed on the second carrier. perform channel detection on the first carrier to confirm whether the first carrier is idle; and, when it is detected during the channel detection the first carrier is occupied, perform channel detection on the second carrier to confirm whether the second carrier is idle; and wherein a type of the channel detection performed on the first carrier is more complex than the type of the channel detection performed on the second carrier such that the channel detection on the first carrier is energy detection involving random back-off and the energy detection on the second carrier is energy detection not involving random back-off and wherein a threshold value for determining whether a channel is idle is set to be lower for the channel detection performed on the first carrier and is set to be higher for the channel detection performed on the second carrier.