mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: appending, to a furnisher blockchain, an interoperability smart contract comprising a cryptologic committal, the cryptologic committal comprising commit logic configured to cause a data receiver to commit token data to a receiver blockchain based on a pre-commit authorization; encrypting, based on a predetermined committal key, the pre-commit authorization to transfer token data stored on the furnisher blockchain to the receiver blockchain; sending the pre-commit authorization to the data receiver; after sending the pre-commit authorization, receiving a pre-commit acknowledgement of the pre-commit authorization; and responsive to the pre-commit acknowledgement: locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic. appending, to a furnisher blockchain, an interoperability smart contract comprising a cryptologic committal, the cryptologic committal comprising commit logic configured to cause a data receiver to commit token data to a receiver blockchain based on a pre-commit authorization; encrypting, based on a predetermined committal key, the pre-commit authorization to transfer token data stored on the furnisher blockchain to the receiver blockchain; sending the pre-commit authorization to the data receiver; after sending the pre-commit authorization, receiving a pre-commit acknowledgement of the pre-commit authorization; and responsive to the pre-commit acknowledgement: locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic. locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic.
A semiconductor device comprising: a substrate comprising a major surface and a backside; one or more electrical contacts located on the major surface; and a dielectric partition for electrically isolating a first part of the substrate from a second part of the substrate, wherein the dielectric partition extends through the substrate from the major surface to the backside, characterized in that : the dielectric partition includes at least one corner when viewed from above the major surface of the substrate, ; and the dielectric partition is shaped to define at least one interlocking portion in the substrate, wherein the interlocking portion comprises a locking member located on one side of the dielectric partition and an opening located on an opposite side of the dielectric partition, wherein the locking member is received within the opening and is conformal therewith to inhibit physical separation of the first and second parts of the substrate that the dielectric partition electrically isolates. a substrate comprising a major surface and a backside; one or more electrical contacts located on the major surface; and a dielectric partition for electrically isolating a first part of the substrate from a second part of the substrate, wherein the dielectric partition extends through the substrate from the major surface to the backside, characterized in that : the dielectric partition includes at least one corner when viewed from above the major surface of the substrate, ; and the dielectric partition is shaped to define at least one interlocking portion in the substrate, wherein the interlocking portion comprises a locking member located on one side of the dielectric partition and an opening located on an opposite side of the dielectric partition, wherein the locking member is received within the opening and is conformal therewith to inhibit physical separation of the first and second parts of the substrate that the dielectric partition electrically isolates.
An alloy comprising, by weight percentage: 1% to 4.2% nickel; 0.5% to 2.6% erbium; 0.1% to 1.5% zirconium; 0.05% to 0.3% yttrium; 0.1% to 1.2% ytterbium; no more than 0.5% impurities; and the balance of weight percent consisting of aluminum, wherein the alloy includes L1 2 precipitates having an Al 3 X composition, where X is at least one of: erbium, zirconium, yttrium, and ytterbium. 1% to 4.2% nickel; 0.5% to 2.6% erbium; 0.1% to 1.5% zirconium; 0.05% to 0.3% yttrium; 0.1% to 1.2% ytterbium; no more than 0.5% impurities; and the balance of weight percent consisting of aluminum, wherein the alloy includes L1 2 precipitates having an Al 3 X composition, where X is at least one of: erbium, zirconium, yttrium, and ytterbium.
An indoor unit of an air conditioner, comprising: a casing defining a receiving cavity therein, the receiving cavity having an air inlet and an air outlet formed in a bottom of the receiving cavity and spaced apart from each other; a heat exchanger disposed in the receiving cavity and adjacent to the air inlet so as to perform heat exchanging with an air flow entering the receiving cavity via the air inlet ; a fan disposed in the receiving cavity ; and a panel disposed on a bottom of the casing and movable between a close position and an open position, wherein in the close position, the panel closes both the air inlet and the air outlet , wherein in the open position, the panel opens both the air inlet and the air outlet , and at least partially separates air entering via the air inlet from air exiting via the air outlet ; wherein the indoor unit is characterized in that in the open position, a first end of the panel abuts against a spacing portion between the air inlet and the air outlet , a second end of the panel is inclined downwards, and an angle α between a plane in which the panel lies and a horizontal plane in which a bottom surface of the casing lies ranges from 15° to 150°. a casing defining a receiving cavity therein, the receiving cavity having an air inlet and an air outlet formed in a bottom of the receiving cavity and spaced apart from each other; a heat exchanger disposed in the receiving cavity and adjacent to the air inlet so as to perform heat exchanging with an air flow entering the receiving cavity via the air inlet ; a fan disposed in the receiving cavity ; and a panel disposed on a bottom of the casing and movable between a close position and an open position, wherein in the close position, the panel closes both the air inlet and the air outlet , wherein in the open position, the panel opens both the air inlet and the air outlet , and at least partially separates air entering via the air inlet from air exiting via the air outlet ; wherein the indoor unit is characterized in that in the open position, a first end of the panel abuts against a spacing portion between the air inlet and the air outlet , a second end of the panel is inclined downwards, and an angle α between a plane in which the panel lies and a horizontal plane in which a bottom surface of the casing lies ranges from 15° to 150°.
A heat exchange unit comprising: a heat exchanger ; a structure that supports the heat exchanger ; an insulating member that electrically insulates the heat exchanger from the structure ; a compressor electrically connected to the heat exchanger and the structure ; characterised in that the heat exchange unit also comprises a connection member that is attached to the heat exchanger and electrically connects the heat exchanger and the structure , the connection member being provided separately from a first conductive path (E1) that electrically connects the compressor and the heat exchanger and a second conductive path (E2) that electrically connects the compressor and the structure . a heat exchanger ; a structure that supports the heat exchanger ; an insulating member that electrically insulates the heat exchanger from the structure ; a compressor electrically connected to the heat exchanger and the structure ; characterised in that the heat exchange unit also comprises a connection member that is attached to the heat exchanger and electrically connects the heat exchanger and the structure , the connection member being provided separately from a first conductive path (E1) that electrically connects the compressor and the heat exchanger and a second conductive path (E2) that electrically connects the compressor and the structure .
Forage harvester having a conveying channel for conveying harvested crop, which conveying channel is arranged downstream of a comminuting device for the harvested crop in a conveying direction (E) of the harvested crop, wherein the conveying channel comprises a post-accelerator which, in a grass harvesting arrangement (H), is arranged in an acceleration position (B), in which the post-accelerator is positioned in the conveying channel and is provided for accelerating the harvested crop, and wherein, in a corn harvesting arrangement (M), a processor is accommodated in the conveying channel , which processor is not arranged in the conveying channel in the grass harvesting arrangement (H), characterized in that in the corn harvesting arrangement (M), the post-accelerator can be moved from the acceleration position (B) to a blower position (G), in which the post-accelerator is positioned out of the conveying channel and acts as a blower, so that, in the corn harvesting arrangement (M), the forage harvester comprises the blower, which serves to accelerate harvested crop without mechanically acting on the harvested crop.
A polynucleotide construct comprising an isolated polynucleotide selected from the group consisting of: (a) the nucleotide sequence set forth in SEQ ID NO:1 (PH4GP c-DNA), SEQ ID NO:3 (PH1W2 cDNA), or SEQ ID NO:9 (PH4GP Genomic sequence); (b) a nucleotide sequence encoding a CC-NB-LRR polypeptide having an amino acid sequence of at least 90% sequence identity when compared to SEQ ID NO:2 or SEQ ID NO:4, based on the CLUSTAL W method of alignment with default parameters; (c) a nucleotide sequence encoding a CC-NB-LRR polypeptide having an amino acid sequence of at least 90% sequence identity when compared to SEQ ID NO:2 or SEQ ID NO:4, based on the CLUSTAL W method of alignment with default parameters, wherein said polypeptide comprises the amino acid sequence set forth in SEQ ID NO:10; and (d) a nucleotide sequence encoding a CC-NB-LRR polypeptide having the sequence set forth in SEQ ID NO:2 or SEQ ID NO:4, wherein said isolated polynucleotide is operably linked to a heterologous promoter. (a) the nucleotide sequence set forth in SEQ ID NO:1 (PH4GP c-DNA), SEQ ID NO:3 (PH1W2 cDNA), or SEQ ID NO:9 (PH4GP Genomic sequence); (b) a nucleotide sequence encoding a CC-NB-LRR polypeptide having an amino acid sequence of at least 90% sequence identity when compared to SEQ ID NO:2 or SEQ ID NO:4, based on the CLUSTAL W method of alignment with default parameters; (c) a nucleotide sequence encoding a CC-NB-LRR polypeptide having an amino acid sequence of at least 90% sequence identity when compared to SEQ ID NO:2 or SEQ ID NO:4, based on the CLUSTAL W method of alignment with default parameters, wherein said polypeptide comprises the amino acid sequence set forth in SEQ ID NO:10; and (d) a nucleotide sequence encoding a CC-NB-LRR polypeptide having the sequence set forth in SEQ ID NO:2 or SEQ ID NO:4,
A film-forming composition comprising hydrolyzed starch, gellan gum, isosorbide, sorbitol and glycerol.
A lightning protection circuit comprising: a first lightning protection branch including at least one first branch transient voltage suppression protection element , and a first branch testing element integral to said lightning protection circuit, wherein said first branch testing element is operable to test a functionality of the lightning protection circuit while said lightning protection circuit is installed in an electronic control system; a controller connected to said testing element, such that said controller receives sensed signals from said testing element; said first lightning protection branch including a steering diode connecting said first lightning protection branch to a lightning protection circuit input via a steering diode anode; characterised by , a second lightning protection branch including at least one second branch transient voltage suppression protection element , and a second branch testing element integral to said lightning protection circuit, wherein said second branch testing element is operable to test a functionality of the lightning protection circuit while said lightning protection circuit is installed in the electronic control system; and said second lightning protection branch including a steering diode connecting said second lightning protection branch to the lightning protection circuit input via a steering diode cathode. a first lightning protection branch including at least one first branch transient voltage suppression protection element , and a first branch testing element integral to said lightning protection circuit, wherein said first branch testing element is operable to test a functionality of the lightning protection circuit while said lightning protection circuit is installed in an electronic control system; a controller connected to said testing element, such that said controller receives sensed signals from said testing element; said first lightning protection branch including a steering diode connecting said first lightning protection branch to a lightning protection circuit input via a steering diode anode; characterised by , a second lightning protection branch including at least one second branch transient voltage suppression protection element , and a second branch testing element integral to said lightning protection circuit, wherein said second branch testing element is operable to test a functionality of the lightning protection circuit while said lightning protection circuit is installed in the electronic control system; and said second lightning protection branch including a steering diode connecting said second lightning protection branch to the lightning protection circuit input via a steering diode cathode.
An activation unit for conveying ultrasonic energy into an elongate endovascular wire , the unit comprising: a source of the ultrasonic energy comprising an ultrasonic transducer; and a coupling that is arranged to couple the source to the wire at any of a plurality of discrete operational positions along the length of the wire , the coupling being arranged to clamp the wire when at any of the operational positions; and the unit being arranged for the wire to extend through the coupling and the source and for portions of the wire to extend, respectively, proximally and distally from the unit . a source of the ultrasonic energy comprising an ultrasonic transducer; and a coupling that is arranged to couple the source to the wire at any of a plurality of discrete operational positions along the length of the wire , the coupling being arranged to clamp the wire when at any of the operational positions; and the unit being arranged for the wire to extend through the coupling and the source and for portions of the wire to extend, respectively, proximally and distally from the unit .
Method for producing a tinplate strip (M) coated with a coating (B), wherein the coating (B) contains chromium metal and chromium oxide and is electrolytically applied to the tinplate strip (M) from an electrolyte solution (E), which contains a trivalent chromium compound in a concentration of at least 10 g/l, by bringing the tinplate strip (M) as a cathode in contact with the electrolyte solution (E), characterised in that the tinplate strip (M) is passed successively at a predetermined strip speed (v) in a strip running direction through a plurality of electrolysis tanks (1a to 1h) arranged one behind the other in the strip running direction, wherein a low current density (j 1 ) is present in the first electrolysis tank seen in the strip running direction or in a front group of electrolysis tanks , a medium current density (j 2 ) is present in a second electrolysis tank following in the strip running direction or in a middle group of electrolysis tanks (1c - 1f) and a high current density (j 3 ) is present in a last electrolysis tank seen in the strip running direction or in a rear group of electrolysis tanks , wherein j 1 ≤ j 2 < j 3 and the low current density (j 1 ) is greater than 20 A/dm 2 .
Satellite pump which body is divided into at least two parts constituting bodies, comprising a rear body , wherein a center body is integrated with a front body as one part or the center body and the front body are separate parts, the satellite pump comprises a shaft , a satellite pump mechanism comprising a planet (P) fitted in the middle section of the shaft, geared with numerous satellites (S) geared with a multi-humped external cam with numerous humps directed inwardly, constituting a curvature (O) whereby the satellites (S) are fitted between the curvature (O) and the planet (P), and also comprising a manifold , a front compensation plate , a rear compensation plate , at least two bearings , at least two gaskets and a cover , characterized in that , the cover seals at least one of the bearings , whereby in the rear body there is a suction duct (KS) placed coaxially with the rear body and at least two inner ducts (KW) routed throughout the whole length of the rear body and a ring duct (KP) routed in the rear body adjacent to the rear compensation plate situated between the satellite pump mechanism and the rear body and coaxially with the shaft and also comprising a ring-shaped compensation chamber (KK) which is adjacent to the rear compensation plate , whereby the suction duct (KS) has a diameter not larger than the inner diameter of the central body in both cases when the front body and the central body constitute one part, and when the front body and the central body constitute two separate parts and moreover, the inner ducts (KW) connect the suction duct (KS) with the ring duct (KP) and the ring duct (KP) is connected with the suction holes routed in the rear compensation plate .
A headlamp , comprising: a reflector module comprising: a spatial light modulator; and a static reflector disposed on a plurality of sides of the spatial light modulator; a light source disposed to illuminate the reflector module ; and projection optics configured to project light from the spatial light modulator and light reflected by the static reflector via a same lens system, and characterized in that a portion of the static reflector is moveable from a first position that blocks the spatial light modulator from light exposure to a second position that exposes the spatial light modulator to light; and further comprising an actuator coupled to the portion of the static reflector that is moveable, the actuator configured to move the portion of the static reflector that is moveable from the first position to the second position. a reflector module comprising: a spatial light modulator; and a static reflector disposed on a plurality of sides of the spatial light modulator; a light source disposed to illuminate the reflector module ; and projection optics configured to project light from the spatial light modulator and light reflected by the static reflector via a same lens system, and characterized in that a portion of the static reflector is moveable from a first position that blocks the spatial light modulator from light exposure to a second position that exposes the spatial light modulator to light; and further comprising an actuator coupled to the portion of the static reflector that is moveable, the actuator configured to move the portion of the static reflector that is moveable from the first position to the second position.
A method of low latency device-to-device wireless communication at a first mobile device (115-c) in a system that supports a first duration transmission time interval, TTI, and a second duration TTI that is greater than the first duration TTI, comprising: receiving a synchronization or discovery signal from a second mobile device (115-d) during the second duration TTI; receiving from a base station a request for a sidelink quality report; transmitting the sidelink quality report to the base station in response to the request; receiving an indication from the base station to operate using the first duration TTI, in response to the sidelink quality report and based at least in part on the first mobile device (115-c) having a sidelink quality above a threshold; receiving (415; 1305; 1405), from the second mobile device (115-d) during the first duration TTI, a control message comprising an indicator of a pattern corresponding to a sequence of transmissions that use the first duration TTI, wherein the sequence of transmissions comprises data transmissions and reference signal transmissions; receiving the sequence from the second mobile device (115-d); identifying (425; 1310; 1410) the pattern by selecting the pattern from a predetermined set of patterns based at least in part on the indicator; and decoding (430; 1315; 1415) the sequence of transmissions using the pattern. receiving a synchronization or discovery signal from a second mobile device (115-d) during the second duration TTI; receiving from a base station a request for a sidelink quality report; transmitting the sidelink quality report to the base station in response to the request; receiving an indication from the base station to operate using the first duration TTI, in response to the sidelink quality report and based at least in part on the first mobile device (115-c) having a sidelink quality above a threshold; receiving (415; 1305; 1405), from the second mobile device (115-d) during the first duration TTI, a control message comprising an indicator of a pattern corresponding to a sequence of transmissions that use the first duration TTI, wherein the sequence of transmissions comprises data transmissions and reference signal transmissions; receiving the sequence from the second mobile device (115-d); identifying (425; 1310; 1410) the pattern by selecting the pattern from a predetermined set of patterns based at least in part on the indicator; and decoding (430; 1315; 1415) the sequence of transmissions using the pattern.