mhurhangee/patent-ind-claim-en huggingface dataset:
A heterocyclic compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, W1 and W2 are the same as or different from each other, and each independently O or S; A1 and A2 are the same as or different from each other, and each independently a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group; R1 to R7 are the same as or different from each other, and each independently hydrogen, deuterium, a nitrile group, a halogen group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted cycloalkyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted silyl group, a substituted or unsubstituted amine group, a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group; and R1 to R7, A1 and A2 bond to adjacent substituents to form a substituted or unsubstituted ring, wherein the term "substituted or unsubstituted" means being substituted with one, two or more substituents selected from the group consisting of deuterium; a nitrile group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted silyl group; a substituted or unsubstituted aryl group; and a substituted or unsubstituted heterocyclic group, or substituted with a substituent linking two or more substituents among the substituents illustrated above, or having no substituents. W1 and W2 are the same as or different from each other, and each independently O or S; A1 and A2 are the same as or different from each other, and each independently a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group; R1 to R7 are the same as or different from each other, and each independently hydrogen, deuterium, a nitrile group, a halogen group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted cycloalkyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted silyl group, a substituted or unsubstituted amine group, a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group; and R1 to R7, A1 and A2 bond to adjacent substituents to form a substituted or unsubstituted ring, wherein the term "substituted or unsubstituted" means being substituted with one, two or more substituents selected from the group consisting of deuterium; a nitrile group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted silyl group; a substituted or unsubstituted aryl group; and a substituted or unsubstituted heterocyclic group, or substituted with a substituent linking two or more substituents among the substituents illustrated above, or having no substituents.
An energy conversion material (thermal to electric), comprising: a first phase providing a matrix and a second phase comprising a nanoscale or microscale material providing electron mobility, comprising particles with an aspect ratio greater than 1, wherein the second phase provides electrical conducting channels throughout the composition, characterised in that the second phase comprises barbed tendrils, with the barbs predominantly pointing in one direction.
A gas turbine exhaust nozzle assembly, comprising: an engine flange ; an exhaust nozzle that extends circumferentially about an axial centerline , comprising an exhaust nozzle flange that is removably and replaceably secured to the engine flange ; a radially inner surface that comprises an axially forward inner surface ; a noise attenuating structure comprising a perforated layer , a base layer , and a core layer , all of which are radially stacked in a superimposed relationship so that the core layer is disposed between the perforated layer and the base layer ; and an axially rear inner surface that is axially rearward of the noise attenuating structure , where the axially forward inner surface , the perforated layer and the axially rear inner surface are radially aligned to form the radially inner surface; a through hole inlet formed in the axially forward inner surface ; a through hole outlet formed in the axially rear inner surface ; and a radially outer surface that is radially separated from the radially inner surface by a nozzle cavity , where engine core air enters the nozzle cavity from the through hole inlet and exits the nozzle cavity axially downstream of the hole inlet via the through hole outlet . an engine flange ; an exhaust nozzle that extends circumferentially about an axial centerline , comprising an exhaust nozzle flange that is removably and replaceably secured to the engine flange ; a radially inner surface that comprises an axially forward inner surface ; a noise attenuating structure comprising a perforated layer , a base layer , and a core layer , all of which are radially stacked in a superimposed relationship so that the core layer is disposed between the perforated layer and the base layer ; and an axially rear inner surface that is axially rearward of the noise attenuating structure , where the axially forward inner surface , the perforated layer and the axially rear inner surface are radially aligned to form the radially inner surface; a through hole inlet formed in the axially forward inner surface ; a through hole outlet formed in the axially rear inner surface ; and a radially outer surface that is radially separated from the radially inner surface by a nozzle cavity , where engine core air enters the nozzle cavity from the through hole inlet and exits the nozzle cavity axially downstream of the hole inlet via the through hole outlet .
A method of wireless communication at a first user equipment, UE, comprising: transmitting a first message to announce an existence of a private platooning group; receiving , in response to the first message, a second message indicating a request to join the private platooning group from a second UE; allowing or denying the second UE to join the private platooning group based on the second message; wherein the first UE is a head of the private platooning group; wherein the first message comprises a public message portion that is accessible by both non-members of the private platooning group and members of the private platooning group, and a private message portion that is accessible by a set of allowed UEs for the private platooning group; and wherein the public message portion comprises information identifying the private platooning group as a private group and at least one of: braking information for the private platooning group, or acceleration information for the private platooning group. transmitting a first message to announce an existence of a private platooning group; receiving , in response to the first message, a second message indicating a request to join the private platooning group from a second UE; allowing or denying the second UE to join the private platooning group based on the second message; wherein the first UE is a head of the private platooning group; wherein the first message comprises a public message portion that is accessible by both non-members of the private platooning group and members of the private platooning group, and a private message portion that is accessible by a set of allowed UEs for the private platooning group; and wherein the public message portion comprises information identifying the private platooning group as a private group and at least one of: braking information for the private platooning group, or acceleration information for the private platooning group.
A cold cathode ionization gauge comprising: an anode ; a first cathode spaced from the anode by a first spacing sufficient to enable the formation of a plasma with electric discharge between the anode and the first cathode and a resultant ion current flow into the first cathode; a second cathode electrically isolated from the first cathode and spaced from the anode by a second spacing less than the first spacing sufficient to enable formation of an electric discharge between the anode and the second cathode and a resultant ion current flow into the second cathode; a magnet configured to apply a magnetic field through at least the first spacing to lengthen free electrons paths to sustain the plasma; and an electric controller configured to apply voltage between the anode and each of the first and second cathodes to create ionization with electric discharge between the anode and the first cathode and between the anode and the second cathode over respective pressure ranges, the controller configured to determine pressure based on measured current flow to the first cathode and on measured current flow to the second cathode. an anode ; a first cathode spaced from the anode by a first spacing sufficient to enable the formation of a plasma with electric discharge between the anode and the first cathode and a resultant ion current flow into the first cathode; a second cathode electrically isolated from the first cathode and spaced from the anode by a second spacing less than the first spacing sufficient to enable formation of an electric discharge between the anode and the second cathode and a resultant ion current flow into the second cathode; a magnet configured to apply a magnetic field through at least the first spacing to lengthen free electrons paths to sustain the plasma; and an electric controller configured to apply voltage between the anode and each of the first and second cathodes to create ionization with electric discharge between the anode and the first cathode and between the anode and the second cathode over respective pressure ranges, the controller configured to determine pressure based on measured current flow to the first cathode and on measured current flow to the second cathode.
An asphalt composition comprising: a crosslinked product prepared by ionically crosslinking a solid grade oligomer and a polymer using an ionic crosslinking agent, wherein the solid grade oligomer is reacted with the polymer before crosslinking or wherein the polymer is a copolymer derived from styrene, butadiene and the solid grade oligomer, wherein the polymer is derived from 4%-80% by weight styrene, 4%-80% by weight butadiene, and 8%-25% by weight solid grade oligomer.
A splice tray for providing a space for receipt of a plurality of spliced optical fibers of a plurality of cables, the splice tray comprising: a tray base comprising: a substantially planar base panel having an entry end and a remote end spaced from the entry end , the base panel defining a perimeter ; and a flange associated with the perimeter of the base panel and extending outward from the base panel ; a splice holder configured to hold a plurality of spliced optical fibers, the splice holder comprising: a holder base removably coupled to the tray base; and a plurality of ribs associated with the holder base and defining a plurality of recesses configured to receive at least one spliced optical fiber; and a cover removably coupled to at least one of the tray base or the splice holder and substantially enclosing the splice holder between the tray base and the cover , characterized in that : the splice tray also comprises a pivot recess associated with the tray base and configured to cooperate with a pivot support of a splice tray assembly to facilitate pivoting of the splice tray with respect to the splice tray assembly , wherein the pivoting of the splice tray is in a plane defined by the tray base . a tray base comprising: a substantially planar base panel having an entry end and a remote end spaced from the entry end , the base panel defining a perimeter ; and a flange associated with the perimeter of the base panel and extending outward from the base panel ; a substantially planar base panel having an entry end and a remote end spaced from the entry end , the base panel defining a perimeter ; and a flange associated with the perimeter of the base panel and extending outward from the base panel ; a splice holder configured to hold a plurality of spliced optical fibers, the splice holder comprising: a holder base removably coupled to the tray base; and a plurality of ribs associated with the holder base and defining a plurality of recesses configured to receive at least one spliced optical fiber; and a holder base removably coupled to the tray base; and a plurality of ribs associated with the holder base and defining a plurality of recesses configured to receive at least one spliced optical fiber; and a cover removably coupled to at least one of the tray base or the splice holder and substantially enclosing the splice holder between the tray base and the cover , characterized in that : the splice tray also comprises a pivot recess associated with the tray base and configured to cooperate with a pivot support of a splice tray assembly to facilitate pivoting of the splice tray with respect to the splice tray assembly , wherein the pivoting of the splice tray is in a plane defined by the tray base .
Method for producing a ceiling in a building, comprising the following steps: a) a plate-shaped ceiling element , which later remains in the structure, preferably in the form of a ceiling cladding or as a mounting for the ceiling cladding, in particular a dry building panel, is fixed on the already completed walls ; b) the plate-shaped ceiling element is supported in a closely spaced manner, optionally by means of horizontal bars supported on support elements ; c) optionally, an insulation and/or heating coils and/or an electric installation is placed on the plate-shaped ceiling element ; d) a curable compound , for example concrete or prestressed concrete and/or a screed or heating screed or the like, is filled thereon, preferably in such a way that the curing compound also extends at least partially above the adjoining walls ; e) wherein the plate-shaped ceiling element is penetrated by a plurality of elongated anchoring parts , which extend upward from the ceiling element into the curable compound and, after the solidification of the curable compound , are positively fixed therein, f) wherein the elongated anchoring parts are in the shape of screws, whose shaft ends protrude upward during the assembly; g) the support elements are removed after the curable compound has been cured to form a supporting layer , while the elongated anchoring parts remain in the structure and hold the plate-shaped ceiling element in place. a) a plate-shaped ceiling element , which later remains in the structure, preferably in the form of a ceiling cladding or as a mounting for the ceiling cladding, in particular a dry building panel, is fixed on the already completed walls ; b) the plate-shaped ceiling element is supported in a closely spaced manner, optionally by means of horizontal bars supported on support elements ; c) optionally, an insulation and/or heating coils and/or an electric installation is placed on the plate-shaped ceiling element ; d) a curable compound , for example concrete or prestressed concrete and/or a screed or heating screed or the like, is filled thereon, preferably in such a way that the curing compound also extends at least partially above the adjoining walls ; e) wherein the plate-shaped ceiling element is penetrated by a plurality of elongated anchoring parts , which extend upward from the ceiling element into the curable compound and, after the solidification of the curable compound , are positively fixed therein, f) wherein the elongated anchoring parts are in the shape of screws, whose shaft ends protrude upward during the assembly; g) the support elements are removed after the curable compound has been cured to form a supporting layer , while the elongated anchoring parts remain in the structure and hold the plate-shaped ceiling element in place.
A method of decreasing a light-induced degradation caused by an impurity in a silicon substrate , which is doped by at least one p-type dopant, the method comprising the steps of providing a charged insulation layer capable of retaining charge on the silicon substrate for generating a potential difference between the charged insulation layer and the silicon substrate, heat treating the silicon substrate in a temperature of 400°C maximum for enabling the impurity causing the light-induced degradation and being in the silicon substrate to diffuse due to the potential difference into a boundary of the silicon substrate and the insulation layer, and stabilizing the impurity into the boundary by heat treating the silicon substrate after the diffusion of the impurity has completed.
A bearing comprising: a base ring , an inner wall of which extends in an axial direction to form a shielding ring ; an upper rotating frame , which is annular and sleeved on the shielding ring ; a lower rotating frame , which is annular, sleeved on the shielding ring , and arranged below the upper rotating frame ; a moving assembly, which is arranged between the upper rotating frame and the lower rotating frame ; and a supporting frame ; wherein, the supporting frame is annular; and an inner wall of the supporting frame extends in an axial direction to form a shielding edge ; the base ring is sleeved on the shielding edge ; characterized in that the supporting frame is provided with a first annular groove , and the first annular groove is provided with a first drainage hole . a base ring , an inner wall of which extends in an axial direction to form a shielding ring ; an upper rotating frame , which is annular and sleeved on the shielding ring ; a lower rotating frame , which is annular, sleeved on the shielding ring , and arranged below the upper rotating frame ; a moving assembly, which is arranged between the upper rotating frame and the lower rotating frame ; and a supporting frame ; wherein, the supporting frame is annular; and an inner wall of the supporting frame extends in an axial direction to form a shielding edge ; the base ring is sleeved on the shielding edge ; characterized in that the supporting frame is provided with a first annular groove , and the first annular groove is provided with a first drainage hole .
A method for transmitting a packet in a multimedia service system, the method comprising: splitting a source packet block including source packets into a plurality of source packet subblocks; converting the plurality of source packet subblocks into a plurality of source symbol subblocks, respectively; generating a plurality of encoded source symbol subblocks and a plurality of first repair symbol blocks by encoding each of the source symbol subblocks by a first error correction code; and transmitting the plurality of encoded source symbol subblocks and the plurality of first repair symbol blocks, wherein each of the plurality of encoded source symbol subblocks comprises at least one error correction source packet, the error correction source packet including a source payload identifier, ID, wherein each of the plurality of first repair symbol blocks comprises at least one error correction repair packet, the error correction repair packet comprising a repair payload ID, wherein the source payload ID includes a source symbol ID indicating a sequence number identifying source symbols within the error correction source packet, and wherein the repair payload ID includes a source symbol block length indicating the number of source symbols in a source symbol block, wherein each source symbol includes at least one symbol element and the number of symbol elements is equal for every source symbol, and the source symbol ID is incremented per symbol element by 1. splitting a source packet block including source packets into a plurality of source packet subblocks; converting the plurality of source packet subblocks into a plurality of source symbol subblocks, respectively; generating a plurality of encoded source symbol subblocks and a plurality of first repair symbol blocks by encoding each of the source symbol subblocks by a first error correction code; and transmitting the plurality of encoded source symbol subblocks and the plurality of first repair symbol blocks, wherein each of the plurality of encoded source symbol subblocks comprises at least one error correction source packet, the error correction source packet including a source payload identifier, ID, wherein each of the plurality of first repair symbol blocks comprises at least one error correction repair packet, the error correction repair packet comprising a repair payload ID, wherein the source payload ID includes a source symbol ID indicating a sequence number identifying source symbols within the error correction source packet, and wherein the repair payload ID includes a source symbol block length indicating the number of source symbols in a source symbol block, wherein each source symbol includes at least one symbol element and the number of symbol elements is equal for every source symbol, and the source symbol ID is incremented per symbol element by 1.
Humanized cobra venom factor (hCVF) for use in reducing or preventing an immune response to a clotting factor in a subject to whom the clotting factor is administered, wherein a therapeutically effective amount of humanized cobra venom factor (hCVF) and said clotting factor is administered to the subject, whereby administration of hCVF depletes complement levels in blood of the subject.
A process for treatment of nanoparticles of a mineral filler, which comprises the steps of: a. Drying a mineral filler with an inert gas; b. Mixing the dried mineral filler obtained in step (a) with a swelling agent in a liquid state, or near a critical state or in supercritical state; c. Subjecting the swelling agent of the mixture obtained in step (b) to an endoenthalpic or isoenthalpic phase change, by altering the conditions of temperature and/or pressure; d. Subjecting the mixture obtained in step (c) to contact with a scavenging agent, wherein the said scavenging agent has the general formula I, II, III, IV, V or VI: Wherein: M1 is B; M2 is Zn or Mg; R is hydrocarbyl group between 1 to 8 carbons or hydrogen; X is Cl, I or O. a. Drying a mineral filler with an inert gas; b. Mixing the dried mineral filler obtained in step (a) with a swelling agent in a liquid state, or near a critical state or in supercritical state; c. Subjecting the swelling agent of the mixture obtained in step (b) to an endoenthalpic or isoenthalpic phase change, by altering the conditions of temperature and/or pressure; d. Subjecting the mixture obtained in step (c) to contact with a scavenging agent, wherein the said scavenging agent has the general formula I, II, III, IV, V or VI: M1 is B; M2 is Zn or Mg; R is hydrocarbyl group between 1 to 8 carbons or hydrogen; X is Cl, I or O.