mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula: wherein R 1 represents Me, Et, CH=CH 2, C≡C-H or C≡C-Me; one of R 2 and R 3 represents a group selected from H, -C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -C 3 -C 8 cycloalkyl, -CH 2 -(C 3 -C 8 cycloalkyl), halogen and cyano, and the other represents the group -Z-R x; Z represents CO or SO 2; R x represents formula (iv): wherein V represents CO; wherein v represents 0 or 1; wherein n represents 0, 1 or 2, except that when v represents 1, n represents 1 or 2; m represents 1 or 2; X represents CH or N, except that when n represents 0 or 1, X represents CH; Y represents CH or N; W represents a group selected from -C 1 -C 4 alkyl, -C 1 -C 4 hydroxyalkyl, C 1 -C 4 alkoxy(C 1 -C 4)alkyl-, -C 1 -C 4 alkyleneCONR 20 R 21, -C 1 -C 4 alkyleneNR 20 COR 21, -SO 2 (C 1 -C 4)alkyl, -CO(C 1 -C4)alkyl, halogen, CN, OH and NR 22 R 23 except that when W represents NR 22 R 23, -C 1 alkyleneNR 20 COR 21 or halogen, Y represents CH; R 20, R 21, R 22, R 23, R 24 and R 25 independently represent H or -C 1 -C 4 alkyl; or a compound selected from the group consisting of: and or a pharmaceutically acceptable salt thereof. R 1 represents Me, Et, CH=CH 2, C≡C-H or C≡C-Me; one of R 2 and R 3 represents a group selected from H, -C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -C 3 -C 8 cycloalkyl, -CH 2 -(C 3 -C 8 cycloalkyl), halogen and cyano, and the other represents the group -Z-R x; Z represents CO or SO 2; wherein V represents CO; wherein v represents 0 or 1; wherein n represents 0, 1 or 2, except that when v represents 1, n represents 1 or 2; m represents 1 or 2; X represents CH or N, except that when n represents 0 or 1, X represents CH; Y represents CH or N; W represents a group selected from -C 1 -C 4 alkyl, -C 1 -C 4 hydroxyalkyl, C 1 -C 4 alkoxy(C 1 -C 4)alkyl-, -C 1 -C 4 alkyleneCONR 20 R 21, -C 1 -C 4 alkyleneNR 20 COR 21, -SO 2 (C 1 -C 4)alkyl, -CO(C 1 -C4)alkyl, halogen, CN, OH and NR 22 R 23 except that when W represents NR 22 R 23, -C 1 alkyleneNR 20 COR 21 or halogen, Y represents CH; R 20, R 21, R 22, R 23, R 24 and R 25 independently represent H or -C 1 -C 4 alkyl;
Vehicle disc brake, of a type incorporating an assembly of a crown and a brake bowl, the said crown being composed of at least one circular flange (11a-11b),the said flange(s) establishing an internal space (e) for the insertion of the brake bowl, the said brake bowl incorporating a circular base extended radially and externally by lugs, the crown accommodates a plurality of fingers protruding externally into the interior volume of the crown, the lugs being arranged to allow the insertion of said fingers, their radial guiding and holding in order to allow the absorption of the expansion of the crown and the fingers by radial movement of said fingers during the operation of the vehicle characterized in that the lugs have a staged configuration with, at the end, a hood form establishing two branches (12d2) parallel with each other, with a space (12d3) in 'U' form internally providing a housing for each of the fingers of the said crown, the number of lugs being equal to the number of fingers, being oriented in the same direction, with their opening part on the same side, while the stop zones formed by the bottom parts (12d4) of each initial U form of the lugs are oriented to maximize the strength of the connection as a function of the braking stresses, said lugs being closed around said fingers by deformation and flow of the material around said fingers leaving them a radial displacement capacity.
Container for receiving and storing a plurality of different fluid and/or granular media; 1.1 wherein the container has a body with at least two partial containers (12; 112) each with its own walls; 1.2 wherein a first partial container can receive a first medium and a second partial container can receive a second medium; and 1.3 the container is configured in such a way that the first medium in the first partial container can be stored separately from the second medium in the second partial container; 1.4 wherein the partial containers (12; 112) are connected to each other by a connecting means (16; 16'; 116); 1.4.1 wherein the connecting means (16; 16'; 116) is fixed to the walls of the partial containers (12; 112); 1.4.2 wherein the connecting means (16; 16'; 116) separates the walls of the individual partial containers (12; 112) from one another; 1.4.3 wherein the distance between the outer surfaces of the walls does not fall below a value of 0.2 mm; characterised in 1.4.4 that the connecting means (16; 16'; 116) is a central element (16; 16'; 116) which extends from the bottom of the body to the neck thereof and is in the form of a cylindrical tube which has a cavity in the interior and the outer wall of which is connected to the individual partial containers (12; 112). 1.1 wherein the container has a body with at least two partial containers (12; 112) each with its own walls; 1.2 wherein a first partial container can receive a first medium and a second partial container can receive a second medium; and 1.3 the container is configured in such a way that the first medium in the first partial container can be stored separately from the second medium in the second partial container; 1.4 wherein the partial containers (12; 112) are connected to each other by a connecting means (16; 16'; 116); 1.4.1 wherein the connecting means (16; 16'; 116) is fixed to the walls of the partial containers (12; 112); 1.4.2 wherein the connecting means (16; 16'; 116) separates the walls of the individual partial containers (12; 112) from one another; 1.4.3 wherein the distance between the outer surfaces of the walls does not fall below a value of 0.2 mm;
Scanning microscope, having a detector apparatus, which is configured to receive light and to generate electrical signals, with a housing and a detector arranged in the housing, wherein a. a cooling component is arranged in the housing and a light path for the light to be detected is defined and passes through the cooling component and/or wherein b. a cooling component is provided in the housing and is embodied in the form of a thermally conducting, electrically insulating intermediate element, wherein the detector apparatus has a light sensor, in particular a photo cathode, connected downstream of which is an electron accelerator, wherein the accelerated electrons are guided to an avalanche diode. a. a cooling component is arranged in the housing and a light path for the light to be detected is defined and passes through the cooling component and/or wherein b. a cooling component is provided in the housing and is embodied in the form of a thermally conducting, electrically insulating intermediate element,
A method for domain name system, DNS, response reordering comprising: Receiving, by a device, a DNS response to a DNS request of a client, the DNS response comprising a list of IP addresses corresponding to a plurality of sites associated with a domain to which the client is attempting to establish a connection; assigning, by the device via a priority policy, based on the domain or a classification of the connection to be established, a priority to the connection between the client and the domain; determining, by the device, for each link of a plurality of links between the device and the plurality of sites, a link quality of the link between the device and a respective site, the link corresponding to a respective IP address of the list of IP addresses; modifying, by a DNS response reorderer of the device, based on the link quality of at least one link of the plurality of links and the priority assigned to the connection to be established between the client and the domain, an order of the list of IP addresses; and transmitting, by the device, the modified order of the list of IP addresses to the client. Receiving, by a device, a DNS response to a DNS request of a client, the DNS response comprising a list of IP addresses corresponding to a plurality of sites associated with a domain to which the client is attempting to establish a connection; assigning, by the device via a priority policy, based on the domain or a classification of the connection to be established, a priority to the connection between the client and the domain; determining, by the device, for each link of a plurality of links between the device and the plurality of sites, a link quality of the link between the device and a respective site, the link corresponding to a respective IP address of the list of IP addresses; modifying, by a DNS response reorderer of the device, based on the link quality of at least one link of the plurality of links and the priority assigned to the connection to be established between the client and the domain, an order of the list of IP addresses; and transmitting, by the device, the modified order of the list of IP addresses to the client.
An internal interface structure for a nuclear thermal propulsion nuclear reactor including a reactor vessel and a reactor head, the internal interface structure comprising: a substantially cylindrical body having a top end, a bottom end, an inner surface, and an outer surface; an annular flange extending radially-outwardly from the outer surface of the cylindrical body, wherein the annular flange of the interface structure is configured to be mounted between an upper flange of the reactor vessel and a bottom flange of the reactor head; and a pathway extending through the annular flange and having an inlet formed in an outer perimeter of the annular flange and an outlet formed in the inner surface of the cylindrical body; characterized by a first annular ledge formed on the inner surface of the cylindrical body; a second annular ledge formed on the inner surface of the cylindrical body; and a third annular ledge formed on the inner surface of the cylindrical body, wherein the first annular ledge is disposed between the top end of the cylindrical body and the outlet of the pathway, the second annular ledge is disposed between the bottom end of the cylindrical body and the outlet of the pathway, and the third annular ledge is disposed between the second annular ledge and the bottom end of the cylindrical body. a substantially cylindrical body having a top end, a bottom end, an inner surface, and an outer surface; an annular flange extending radially-outwardly from the outer surface of the cylindrical body, wherein the annular flange of the interface structure is configured to be mounted between an upper flange of the reactor vessel and a bottom flange of the reactor head; and a pathway extending through the annular flange and having an inlet formed in an outer perimeter of the annular flange and an outlet formed in the inner surface of the cylindrical body; characterized by a first annular ledge formed on the inner surface of the cylindrical body; a second annular ledge formed on the inner surface of the cylindrical body; and a third annular ledge formed on the inner surface of the cylindrical body, wherein the first annular ledge is disposed between the top end of the cylindrical body and the outlet of the pathway, the second annular ledge is disposed between the bottom end of the cylindrical body and the outlet of the pathway, and the third annular ledge is disposed between the second annular ledge and the bottom end of the cylindrical body.
A method of degasification of a carbonated beverage-filled container in an apparatus for blowing and filling containers, the apparatus comprising: - a mould enclosing a blown and carbonated beverage-filled container that comprises a dispensing opening, - an injection head that is movable along a longitudinal axis passing by the dispensing opening of the container between a sealing position in which the injection head is in a sealing engagement with the dispensing opening and a non- sealing position in which the injection head is at a distance from the dispensing opening, characterized in that the method comprises the following steps: i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position. - a mould enclosing a blown and carbonated beverage-filled container that comprises a dispensing opening, - an injection head that is movable along a longitudinal axis passing by the dispensing opening of the container between a sealing position in which the injection head is in a sealing engagement with the dispensing opening and a non- sealing position in which the injection head is at a distance from the dispensing opening, characterized in that the method comprises the following steps: i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position. i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position.
An image capturing apparatus comprising: an optical system that gives aberration to incident light; and an image capturing unit that converts the light that has passed through the optical system into pixels, and captures an image; characterized by an inverse transform unit configured to calculate a spatial frequency characteristic of a first inverse transform filter for restoring the aberration for a predetermined part of the captured image captured by the image capturing unit using a frequency characteristic of a local area of an ideal image and perform a first inverse transformation process on the captured image by the first inverse transform filter; wherein the ideal image corresponds to the captured image prior to the introduction of aberration by the optical system and without the influence of noise; and the local area of the ideal image corresponds to the predetermined part of the captured image. an optical system that gives aberration to incident light; and an image capturing unit that converts the light that has passed through the optical system into pixels, and captures an image; characterized by an inverse transform unit configured to calculate a spatial frequency characteristic of a first inverse transform filter for restoring the aberration for a predetermined part of the captured image captured by the image capturing unit using a frequency characteristic of a local area of an ideal image and perform a first inverse transformation process on the captured image by the first inverse transform filter; wherein the ideal image corresponds to the captured image prior to the introduction of aberration by the optical system and without the influence of noise; and the local area of the ideal image corresponds to the predetermined part of the captured image.
A light-emitting device with outermost sidewalls (101, 102, 103, 104) comprising: a light-emitting diode having a first pad, a top surface opposite to the first pad, and a side surface; a first electrode having a first main segment formed on the first pad to extend beyond the side surface, and at least two first protrusions (1412A, 1412B, 1412C) extending from the first main segment to the outermost sidewalls (101, 102, 104); and an insulation structure formed between the first electrode and the first pad without contacting the top surface of the light-emitting diode; wherein the first pad has a portion electrically connected to the first electrode; wherein each of the at least two first protrusions (1412A, 1412B, 1412C) is narrower than the first main segment; and wherein the first main segment and the at least two first protrusions (1412A, 1412B, 1412C) are formed on a same side of the insulation structure and the first pad. a light-emitting diode having a first pad, a top surface opposite to the first pad, and a side surface; a first electrode having a first main segment formed on the first pad to extend beyond the side surface, and at least two first protrusions (1412A, 1412B, 1412C) extending from the first main segment to the outermost sidewalls (101, 102, 104); and an insulation structure formed between the first electrode and the first pad without contacting the top surface of the light-emitting diode; wherein the first pad has a portion electrically connected to the first electrode; wherein each of the at least two first protrusions (1412A, 1412B, 1412C) is narrower than the first main segment; and wherein the first main segment and the at least two first protrusions (1412A, 1412B, 1412C) are formed on a same side of the insulation structure and the first pad.
A direct drive wind turbine comprising a nacelle shell structure (10, 20) and a main structure, wherein the nacelle shell structure (10, 20) is attachable to the main structure of the direct drive wind turbine, characterised in that the nacelle shell structure (10, 20) is attached to the main structure such that the nacelle shell structure (10, 20) is carried by the main structure at only three static points.
A semiconductor light-emitting element that outputs emitted light having a predetermined emission peak wavelength, comprising at least: a substrate; a lower distributed Bragg reflective layer (12, 30) provided on the substrate; and a light-emitting layer provided on the lower distributed Bragg reflective layer (12, 30); wherein the light-emitting layer has a structure in which one or more sets of two active layers arranged at a distance of (1+2m) λ/4n with a variation of ± 10 % are included in an inactive layer, λ is the emission peak wavelength, n is a refractive index of the light-emitting layer, and m is an integer of 0 or greater, wherein the distance between two active layers is defined by a mutual distance between their centres in a thickness direction, wherein an antireflective layer for the emitted light is included on the light-emitting layer. a substrate; a lower distributed Bragg reflective layer (12, 30) provided on the substrate; and a light-emitting layer provided on the lower distributed Bragg reflective layer (12, 30); wherein the light-emitting layer has a structure in which one or more sets of two active layers arranged at a distance of (1+2m) λ/4n with a variation of ± 10 % are included in an inactive layer, λ is the emission peak wavelength, n is a refractive index of the light-emitting layer, and m is an integer of 0 or greater, wherein the distance between two active layers is defined by a mutual distance between their centres in a thickness direction, wherein an antireflective layer for the emitted light is included on the light-emitting layer.
Telescopic sliding door assembly with at least one first and one second door leaf (3, 5), wherein the second door leaf is coupled to the first door leaf via a traction drive to carry out a unidirectional movement and is adapted to be driven via the first door leaf, with a runner rail device having at least one runner rail (21, 23) for each door leaf (3, 5), respectively, each door leaf (3, 5) being guided in the runner rail (21, 23) via at least one door carriage, characterized by a damping unit with a retraction function that first decelerates the first door leaf as it moves towards an end position and then drives the same to the end position, and a further damping unit with a retraction function that first decelerates the second door leaf as it moves towards an end position and then drives the same to the end position.
A blade wheel of a Kaplan turbine, comprising the following features or components: 1.1 a shaft; 1.2 a number of blades (1.1); 1.3 a hollow hub which is situated at the free end of the shaft and carries the blades (1.1); 1.4 an adjusting device for twisting the blades about rotational axes perpendicularly to the rotational axis of the shaft; characterized by the following features: 1.5 the bearing as well as further points to be lubricated are free of lubricating oil; 1.6 the interior space of the hub is connected to a compressed-air source; 1.7 branch lines for supplying the compressed air to bearings or other lubricating points of the adjusting device are provided in the interior of the hub. 1.8 arrangement are provided so that the interior of the hub are super atmospheric pressure. 1.1 a shaft; 1.2 a number of blades (1.1); 1.3 a hollow hub which is situated at the free end of the shaft and carries the blades (1.1); 1.4 an adjusting device for twisting the blades about rotational axes perpendicularly to the rotational axis of the shaft; characterized by the following features: 1.5 the bearing as well as further points to be lubricated are free of lubricating oil; 1.6 the interior space of the hub is connected to a compressed-air source; 1.7 branch lines for supplying the compressed air to bearings or other lubricating points of the adjusting device are provided in the interior of the hub. 1.8 arrangement are provided so that the interior of the hub are super atmospheric pressure. 1.5 the bearing as well as further points to be lubricated are free of lubricating oil; 1.6 the interior space of the hub is connected to a compressed-air source; 1.7 branch lines for supplying the compressed air to bearings or other lubricating points of the adjusting device are provided in the interior of the hub. 1.8 arrangement are provided so that the interior of the hub are super atmospheric pressure.
A method for the production of a diazoalkane, comprising reacting a N-alkyl-N-nitroso compound with a base and a phase transfer catalyst, wherein no organic solvent is used, wherein the N-alkyl-N-nitroso compound has the general formula: wherein R 1, R 2, R 3 and R 4 are hydrogen, alkyl, alkenyl, alkoxy, alkoxylate, alkyloxy, alkenyloxy or alkoxyalkyl groups, R 6 is an alkyl group and R 5 is OR 7, NR 7 or R 7, wherein R 7 is hydrogen or an alkyl group.
A method for requesting intra-refreshing in a communication system, the method comprising: checking, by a reception apparatus, a sequence number and a Cyclic Redundancy Check, CRC, for a received video packet to detect an error or a loss of the received video packet; decoding the received video packet to check frame type information; determining, when the error or the loss of the received video packet is detected, whether the video packet is included in one of the regions of a first region, corresponding to a P-frame type, for requesting transmission of an I-frame, a second region, corresponding to a P-frame type, for waiting for a periodically transmitted I-frame, and a third region, corresponding to a periodically transmitted I-frame, for conditionally requesting transmission of an I-frame, the third region being located between the second region and a next first region; generating a control signal for requesting intra-refreshing and transmitting the generated control signal to a transmission apparatus if it is determined that the video packet is included in the third region and if no control signal for requesting intra-refreshing for the I-frame has been transmitted in the third region. checking, by a reception apparatus, a sequence number and a Cyclic Redundancy Check, CRC, for a received video packet to detect an error or a loss of the received video packet; decoding the received video packet to check frame type information; determining, when the error or the loss of the received video packet is detected, whether the video packet is included in one of the regions of a first region, corresponding to a P-frame type, for requesting transmission of an I-frame, a second region, corresponding to a P-frame type, for waiting for a periodically transmitted I-frame, and a third region, corresponding to a periodically transmitted I-frame, for conditionally requesting transmission of an I-frame, the third region being located between the second region and a next first region; generating a control signal for requesting intra-refreshing and transmitting the generated control signal to a transmission apparatus if it is determined that the video packet is included in the third region and if no control signal for requesting intra-refreshing for the I-frame has been transmitted in the third region.