mhurhangee/ep-ind-claims huggingface dataset:
A recombinant humanized antibody that recognizes the NGcGM3 ganglioside comprising the constant region of the IgG1human heavy chain and the constant region of the Ck human light chain and heavy and light chain variable regions from the murine 14F7 monoclonal antibody produced by the hybridoma with the deposit ECACC 98101901, wherein the murine 14F7 monoclonal antibody comprises the sequences of the hyper variable regions (CDRs) of the heavy and light chains shown below: HEAVY CHAIN CDR1: SYWIH CDR2: YIDPATAYTESNQKFKD CDR3: ESPRLRRGIYYYAMDY LIGHT CHAIN CDR1: RASQSISNNLH CDR2: YASQSIS CDR3: QQSNRWPLT; and the murine 14F7 monoclonal antibody comprises the sequences of the framework regions (FRs) of the heavy and light chains shown below: HEAVY CHAIN FR1: QVQLQQSGNELAKPGASMKMSCRASGYSFT FR2: WLKQRPDQGLEWIG FR3: KAILTADRSSNTAFMYLNSLTSEDSAVYYCAR FR4: WGQGTTVTVSS LIGHT CHAIN FR1: DLVLTQSPATLSVTPGDSVSFSC FR2: WYQQRTHESPRLLIK FR3: GIPSRFSGSGSGTDFTLSIISVETEDFGMYFC FR4: FGAGTKLELKRA; wherein the recombinant humanized antibody is characterized by containing the sequence of the variable region of the heavy chain of the murine 14F7 monoclonal antibody and a light chain variable region whose sequence is the following: Fr1 D I Q M T Q T P S S L S A S L G D R V T I S C CDR1 R A S Q D I S N Y L N Fr 2 W Y Q Q K P D G T V K L L I V CDR 2 Y T S R L H S Fr 3 G V P S R F S G S G S G T D Y S L T I S N L E Q E D I A T Y F C CDR 3 Q Q G N T L P P T F Fr 4 G A G T K L E L K or: Fr1 D I Q M T Q T P S S L S A S V G D R V T I T C CDR1 R A S Q S I S S F L N Fr 2 W Y Q Q K P G K A P K L L I Y CDR 2 A A S N L Q S Fr 3 G V P S R F S G R G S G T D F T L T I S S L Q P E D F A A Y Y C CDR 3 Q Q G Y T T P L T F Fr 4 G Q G T K L E L K or: Fr1 Q S V V T Q P P S A S G G P G Q S L T I S C CDR 1 T G T S S D V G G Y N H V S Fr 2 W Y Q Q H P G K A P K L MI Y CDR 2 D V S K R P S Fr 3 G V P H R F S G S K S G N T A S L T V S G L Q A E D E A V Y Y C CDR 3 S S Y A G S N N L V F Fr 4 GGGTKVTVL HEAVY CHAIN CDR1: SYWIH CDR2: YIDPATAYTESNQKFKD CDR3: ESPRLRRGIYYYAMDY LIGHT CHAIN CDR1: RASQSISNNLH CDR2: YASQSIS CDR3: QQSNRWPLT; HEAVY CHAIN FR1: QVQLQQSGNELAKPGASMKMSCRASGYSFT FR2: WLKQRPDQGLEWIG FR3: KAILTADRSSNTAFMYLNSLTSEDSAVYYCAR FR4: WGQGTTVTVSS LIGHT CHAIN FR1: DLVLTQSPATLSVTPGDSVSFSC FR2: WYQQRTHESPRLLIK FR3: GIPSRFSGSGSGTDFTLSIISVETEDFGMYFC FR4: FGAGTKLELKRA; Fr1 D I Q M T Q T P S S L S A S L G D R V T I S C CDR1 R A S Q D I S N Y L N Fr 2 W Y Q Q K P D G T V K L L I V CDR 2 Y T S R L H S Fr 3 G V P S R F S G S G S G T D Y S L T I S N L E Q E D I A T Y F C CDR 3 Q Q G N T L P P T F Fr 4 G A G T K L E L K Fr1 D I Q M T Q T P S S L S A S V G D R V T I T C CDR1 R A S Q S I S S F L N Fr 2 W Y Q Q K P G K A P K L L I Y CDR 2 A A S N L Q S Fr 3 G V P S R F S G R G S G T D F T L T I S S L Q P E D F A A Y Y C CDR 3 Q Q G Y T T P L T F Fr 4 G Q G T K L E L K Fr1 Q S V V T Q P P S A S G G P G Q S L T I S C CDR 1 T G T S S D V G G Y N H V S Fr 2 W Y Q Q H P G K A P K L MI Y CDR 2 D V S K R P S Fr 3 G V P H R F S G S K S G N T A S L T V S G L Q A E D E A V Y Y C CDR 3 S S Y A G S N N L V F Fr 4 GGGTKVTVL
A method for decoding a media stream, the method being performed by a packet receiver, the method comprising: receiving packets, the packets having been transmitted by a packet transmitter, the packets defining the media stream and each packet comprising encoded media; and decoding the encoded media into at least a first decoded version and a second decoded version, wherein for the first decoded version only a subset of the packets decoded for the second decoded version are decoded, wherein the subset includes only those of the packets that are received within a first threshold time delay from having been transmitted by the packet transmitter, and wherein for the second decoded version the packets received later than the first threshold time delay are decoded; characterised in that the received packets are provided in a common jitter buffer at the packet receiver before being decoded, wherein there are separate logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the first decoded version and the second decoded version, respectively, and wherein the logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the second decoded version retrieves more packets than the retrieving logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the first decoded version. receiving packets, the packets having been transmitted by a packet transmitter, the packets defining the media stream and each packet comprising encoded media; and decoding the encoded media into at least a first decoded version and a second decoded version, wherein for the first decoded version only a subset of the packets decoded for the second decoded version are decoded, wherein the subset includes only those of the packets that are received within a first threshold time delay from having been transmitted by the packet transmitter, and wherein for the second decoded version the packets received later than the first threshold time delay are decoded; characterised in that the received packets are provided in a common jitter buffer at the packet receiver before being decoded, wherein there are separate logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the first decoded version and the second decoded version, respectively, and wherein the logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the second decoded version retrieves more packets than the retrieving logics for obtaining the packets from the common jitter buffer for decoding the encoded media into the first decoded version.
Use of a propylene glycol based fuel having a flashpoint above 50°C and comprising at least 60 wt.% propylene glycol as a safe fuel in an open geometry wicked device, wherein the device comprises a container and a wick, wherein the container contains the wick, and wherein said container has a top surface, wherein the horizontal surface area exposed to the open air is a fraction of at least 20% of the top surface area of the container.
Waste heat boiler for heat exchanging a relatively hot process gas with a cooling media comprising • a shell (110, 120, 130), • at least two tube sheets (115, 125), • a plurality of heat exchange tubes, • at least one by-pass tube, • a heat exchange section enclosed by said shell part and said at least two tube sheets, • a process gas inlet section, • a process gas outlet section, • at least one cooling media inlet, • at least one cooling media outlet, the relatively hot process gas enters the heat exchange tubes and the at least one by-pass tube in the process gas inlet section, flows through the heat exchange section where at least the process gas flowing in the heat exchange tubes is in indirect heat exchange with the cooling media and exits in the process gas outlet section, characterised in that said waste heat boiler further comprises a swirl mixer with a first duct in fluid connection with the outlet of the heat exchange tubes and a second duct within the first duct and in fluid connection with the outlet of the by-pass tube, the outlet of the first duct is formed by a swirl inducing element and the outlet of the second duct is formed by radiai nozzles and wherein the swirl mixer further comprises a first valve to control the flow of the cooled process gas exiting the heat exchange tubes. • a shell (110, 120, 130), • at least two tube sheets (115, 125), • a plurality of heat exchange tubes, • at least one by-pass tube, • a heat exchange section enclosed by said shell part and said at least two tube sheets, • a process gas inlet section, • a process gas outlet section, • at least one cooling media inlet, • at least one cooling media outlet,
An artificial hand, comprising: (a) a palm body; (b) at least two finger digits (11, 12, 14, 15) extending distally from the palm body and each having a knuckle element (11c, 12c, 14c, 15c) pivotally connected to the palm body, and characterised by further comprising: (c) an adductor-abductor plate mounted in the palm body for sliding movement in distal and proximal directions and having diverging slots, and an adductor-abductor linear actuator in the palm body for effecting sliding movement of the plate as aforesaid, and wherein each of the knuckles (11c, 12c, 14c, 15c) has an arm extending proximally from the knuckle over the palm body and bearing a peg inserted in one of the slots, such that sliding movement of the plate causes the slots to guide the pegs divergently or convergently thereby to rotate the knuckles for adduction or abduction of the finger digits(11, 12, 14, 15). (a) a palm body; (b) at least two finger digits (11, 12, 14, 15) extending distally from the palm body and each having a knuckle element (11c, 12c, 14c, 15c) pivotally connected to the palm body, and characterised by further comprising: (c) an adductor-abductor plate mounted in the palm body for sliding movement in distal and proximal directions and having diverging slots, and an adductor-abductor linear actuator in the palm body for effecting sliding movement of the plate as aforesaid, and wherein each of the knuckles (11c, 12c, 14c, 15c) has an arm extending proximally from the knuckle over the palm body and bearing a peg inserted in one of the slots, such that sliding movement of the plate causes the slots to guide the pegs divergently or convergently thereby to rotate the knuckles for adduction or abduction of the finger digits(11, 12, 14, 15).
A powder composition comprising a) an alkali metal tungsten bronze, b) a binary tungsten oxide, and c) tungsten metal. a) an alkali metal tungsten bronze, b) a binary tungsten oxide, and c) tungsten metal.
A gas turbine engine comprising: a combustor; an igniter coupled in ignition providing communication with the combustor; a fuel manifold comprising a fuel supply inlet interface for receiving fuel into the fuel manifold and a plurality of fuel delivery outlet interfaces for delivering fuel to the combustor of the gas turbine engine, wherein the fuel manifold comprises a first branch extending in a first circumferential direction from the fuel supply inlet interface and terminating at a first end portion and a second branch extending in a second circumferential direction from the fuel supply inlet interface and terminating at a second end portion, wherein the second branch of the fuel manifold comprises a bend, wherein the second branch extends in the first circumferential direction from the bend; a first valve coupled to the first branch of the fuel manifold; and a second valve coupled to the second branch of the fuel manifold; wherein the first valve and the second valve are configured to divide the fuel manifold into two fuel flow circumferential sections (322A, 322B) and two fuel limited circumferential sections (324A, 324B). a combustor; an igniter coupled in ignition providing communication with the combustor; a fuel manifold comprising a fuel supply inlet interface for receiving fuel into the fuel manifold and a plurality of fuel delivery outlet interfaces for delivering fuel to the combustor of the gas turbine engine, wherein the fuel manifold comprises a first branch extending in a first circumferential direction from the fuel supply inlet interface and terminating at a first end portion and a second branch extending in a second circumferential direction from the fuel supply inlet interface and terminating at a second end portion, wherein the second branch of the fuel manifold comprises a bend, wherein the second branch extends in the first circumferential direction from the bend; a first valve coupled to the first branch of the fuel manifold; and a second valve coupled to the second branch of the fuel manifold; wherein the first valve and the second valve are configured to divide the fuel manifold into two fuel flow circumferential sections (322A, 322B) and two fuel limited circumferential sections (324A, 324B).
A lighting device comprising: - a light source; - an electronic carrier comprising a first portion for carrying the light source and a second portion for providing an electrical connection to the light source; and - a heat sink structure arranged for a dissipation of heat from the electronic carrier and defining a cavity, the heat sink structure comprising a first lid portion and a second lid portion arranged at an opening of the heat sink structure, wherein the first lid portion and the second lid portion form a lid over the cavity and substantially close the opening in a folded position, wherein the first portion of the electronic carrier is supported by the first lid portion outside the cavity, and the second portion of the electronic carrier is at least partially enclosed by the heat sink structure inside the cavity characterized in that the first and the second lid portion (11, 12) in the folded position define a hole through which hole the electronic carrier extends, and in that the second lid portion partially overlaps the first lid portion and clamps the first portion of the electronic carrier to the first lid portion in the folded position. - a light source; - an electronic carrier comprising a first portion for carrying the light source and a second portion for providing an electrical connection to the light source; and - a heat sink structure arranged for a dissipation of heat from the electronic carrier and defining a cavity, the heat sink structure comprising a first lid portion and a second lid portion arranged at an opening of the heat sink structure, wherein the first lid portion and the second lid portion form a lid over the cavity and substantially close the opening in a folded position,
A measuring probe comprising a suspension module (12;112) and a transducer module (10;110); the suspension module (12;112) and the transducer module (10;110) both having mutually engageable location elements (16,18;160,180) and being releasably connectable to each other; the suspension module (12;112) including a housing (14B;114B), a stylus holder (40;140) to which a stylus is connected or connectable, and a suspension system (42,44;142,144) for the stylus holder whereby the stylus holder(40;140) is movable relative to the housing (14B;114B); the transducer module (10;110) containing at least one transducer (60,62,70;200,212,220;312,314,316,318) for measuring the movement of the stylus holder (40;140) relative to the housing (14B;114B) in the suspension module (12;112).
A tubing mounted completion assembly comprising: at least one downhole valve assembly; and at least one contingency device (12, 14, 18) associated with and separate from the downhole valve assembly, wherein the contingency device (12, 14, 18) is adapted to operate upon failure of the downhole valve assembly, wherein the contingency device (12, 14, 18) is adapted to actuate the downhole valve assembly upon failure, wherein the downhole valve assembly when open comprises an axial passage such that production flow is not impeded, wherein production flow is impeded when the downhole valve assembly is closed, wherein each contingency device (12, 14, 16, 18) is operable independently from other contingency devices (12, 14, 16, 18) in the tubing mounted completion assembly and wherein each contingency device (12, 14, 16, 18) is associated with secondary operation of the downhole valve assembly independently from the other contingency devices.
Composition for caring for and/or making up keratin materials comprising, in a physiologically acceptable medium, a) one aqueous phase; and b) at least microcapsules having a mean size from 10 μm to 400 μm and comprising: - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate, and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. a) one aqueous phase; and b) at least microcapsules having a mean size from 10 μm to 400 μm and comprising: - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate, and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate, and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt.
A method of spot etching a silicon surface of a timepiece component, the method comprising the following steps a) forming an apertured etching mask (6; 15; 28) on the silicon surface, so that the areas of the surface to be etched are exposed; b) depositing a sacrificial layer (8; 18; 30) of resist on the exposed areas of the surface and on the etch mask, the sacrificial layer being formed without exposing the resist or annealing it; c) etching the sacrificial resin layer by deep reactive ion etching (DRIE), step c) continuing long enough to transfer inhomogeneities in the sacrificial layer onto the area of the silicon surface to be etched, so as roughen said area into an irregular relief comprising depressions and peaks, said depressions, or craters, having a depth of from about 100 nanometres to 1 micrometre. a) forming an apertured etching mask (6; 15; 28) on the silicon surface, so that the areas of the surface to be etched are exposed; b) depositing a sacrificial layer (8; 18; 30) of resist on the exposed areas of the surface and on the etch mask, the sacrificial layer being formed without exposing the resist or annealing it; c) etching the sacrificial resin layer by deep reactive ion etching (DRIE), step c) continuing long enough to transfer inhomogeneities in the sacrificial layer onto the area of the silicon surface to be etched, so as roughen said area into an irregular relief comprising depressions and peaks, said depressions, or craters, having a depth of from about 100 nanometres to 1 micrometre.
A method for wireless communications at a first device, the method comprising: generating a first set of data associated with a plurality of components of the first device; establishing, with one or more other devices, a connection for validation of data generated at the plurality of components; determining at least a subset of the first set of data for validation based at least in part on a capability of the one or more other devices to generate one or more other sets of data corresponding to the first set of data; transmitting the subset of the first set of data to the one or more other devices; receiving, from the one or more other devices, at least one other set of data corresponding to the subset of the first set of data; characterized in that the method further comprises: determining at least one component of the plurality of components is experiencing a failure, wherein the first set of data is associated with the at least one component; determining a second set of data associated with one or more other components of the plurality of components; and determining a validity of the subset of the first set of data in response to receiving the at least one other set of data and the second set of data. generating a first set of data associated with a plurality of components of the first device; establishing, with one or more other devices, a connection for validation of data generated at the plurality of components; determining at least a subset of the first set of data for validation based at least in part on a capability of the one or more other devices to generate one or more other sets of data corresponding to the first set of data; transmitting the subset of the first set of data to the one or more other devices; receiving, from the one or more other devices, at least one other set of data corresponding to the subset of the first set of data; characterized in that the method further comprises: determining at least one component of the plurality of components is experiencing a failure, wherein the first set of data is associated with the at least one component; determining a second set of data associated with one or more other components of the plurality of components; and determining a validity of the subset of the first set of data in response to receiving the at least one other set of data and the second set of data. determining at least one component of the plurality of components is experiencing a failure, wherein the first set of data is associated with the at least one component; determining a second set of data associated with one or more other components of the plurality of components; and determining a validity of the subset of the first set of data in response to receiving the at least one other set of data and the second set of data.