mhurhangee/patent-ind-claim-en huggingface dataset:
A metal-organic material, having a three-dimensional crystalline micro or sub-micro structure, comprising at least two ligands, at least two metal ions structurally coordinated with said ligands, and counter anions, wherein each one of the ligands is of the general formula I: I R 1 (R 2 -R 3 -R 4 ) 4 , wherein R 1 is C or adamantane-1,3,5,7-tetrayl; R 2 and R 3 each independently is absent, or selected from (C 1 -C 4 )alkylene, (C 2 -C 4 )alkenylene, (C 2 -C 4 )alkynylene, cycloalkylene, heterocycloalkylene, arylene-diyl, heteroarylene-diyl, or -N=N-, wherein said alkylene, alkenylene, alkynylene, cycloalkylene, heterocycloalkylene, arylene-diyl and heteroarylene-diyl may optionally be substituted with one or more groups each independently selected from halogen, -OR 6 , -CN, -COR 6 , -COOR 6 , -CON(R 6 ) 2 , -OCOOR 6 , -OCON(R 6 ) 2 , -(C 1 -C 2 )alkyl, -O-(C 1 -C 2 )alkyl, -(C 1 -C 2 )alkylene-COOH, -N(R 6 ) 2 , -NO 2 , -SR 6 , -SO 2 R 6 , or -S(=O)R 6 , or said alkylene, alkenylene and alkynylene may optionally be interrupted by one or more identical or different heteroatoms selected from S, O or N, and/or at least one group selected from -N=N-, -NH-CO-, -CO-NH-, -N(C 1 -C 2 alkyl)-, -N(C 6 aryl)-, or -(C 6 )arylene-diyl-, wherein R 6 each independently is H or (C 1 -C 4 )alkyl; R 4 each independently is a pyridyl of the formula II, 2,2'-bipyridyl of the formula III, or 2,2':6',2"-terpyridyl of the formula IV. linked through a carbon atom thereof; and R 5 each independently is H, -COOH, -CN, -OH, or -NH 2 , and wherein said metal ions are ions of a transition metals selected from Os, Ru, Fe, Pt, Ni, Ir, Rh, Zn, Co, Cu, Re, Tc, Mn, V, Nb, Ta, Hf, Zr, Cr, Mo, W, Ti, Sc, Ag, Au, Y, or a combination thereof. R 1 is C or adamantane-1,3,5,7-tetrayl; R 2 and R 3 each independently is absent, or selected from (C 1 -C 4 )alkylene, (C 2 -C 4 )alkenylene, (C 2 -C 4 )alkynylene, cycloalkylene, heterocycloalkylene, arylene-diyl, heteroarylene-diyl, or -N=N-, wherein said alkylene, alkenylene, alkynylene, cycloalkylene, heterocycloalkylene, arylene-diyl and heteroarylene-diyl may optionally be substituted with one or more groups each independently selected from halogen, -OR 6 , -CN, -COR 6 , -COOR 6 , -CON(R 6 ) 2 , -OCOOR 6 , -OCON(R 6 ) 2 , -(C 1 -C 2 )alkyl, -O-(C 1 -C 2 )alkyl, -(C 1 -C 2 )alkylene-COOH, -N(R 6 ) 2 , -NO 2 , -SR 6 , -SO 2 R 6 , or -S(=O)R 6 , or said alkylene, alkenylene and alkynylene may optionally be interrupted by one or more identical or different heteroatoms selected from S, O or N, and/or at least one group selected from -N=N-, -NH-CO-, -CO-NH-, -N(C 1 -C 2 alkyl)-, -N(C 6 aryl)-, or -(C 6 )arylene-diyl-, wherein R 6 each independently is H or (C 1 -C 4 )alkyl; R 4 each independently is a pyridyl of the formula II, 2,2'-bipyridyl of the formula III, or 2,2':6',2"-terpyridyl of the formula IV. linked through a carbon atom thereof; and R 5 each independently is H, -COOH, -CN, -OH, or -NH 2 , and wherein said metal ions are ions of a transition metals selected from Os, Ru, Fe, Pt, Ni, Ir, Rh, Zn, Co, Cu, Re, Tc, Mn, V, Nb, Ta, Hf, Zr, Cr, Mo, W, Ti, Sc, Ag, Au, Y, or a combination thereof.
A process for making crystalline gefitinib Form 1 of formula , characterized by a XRPD powder diffraction pattern comprising the peaks at about 7.14, 11.26, 14.25, 15.86, 24.33 and 26.40 degrees 2 theta (±0.2 degrees 2 theta), when measured with CuKα1 radiation (λ = 1.54060 Å), the process comprising the steps: 1. Dissolving gefitinib in a solvent mixture comprising water and an alcohol selected form ethanol and butanol, wherein the ratio between water and alcohol is between 1:16 and 1:25 (vol:vol); 2. Isolating gefitinib form 1. 1. Dissolving gefitinib in a solvent mixture comprising water and an alcohol selected form ethanol and butanol, wherein the ratio between water and alcohol is between 1:16 and 1:25 (vol:vol); 2. Isolating gefitinib form 1.
A course prediction method setting a course of a host vehicle based on a traveling path of a surrounding vehicle obtained from a history of the position of the surrounding vehicle by using a position acquisition circuit configured to acquire the position of the surrounding vehicle , the method being characterized by comprising: acquiring a traveling route of the host vehicle on at least a map; and setting a corrected traveling path as the course of the host vehicle , by increasing or reducing a turning radius about a turning center of the traveling path of the surrounding vehicle , based on a turning direction and a lateral position of the surrounding vehicle , when the corrected traveling path is determined to be similar to the traveling route. acquiring a traveling route of the host vehicle on at least a map; and setting a corrected traveling path as the course of the host vehicle , by increasing or reducing a turning radius about a turning center of the traveling path of the surrounding vehicle , based on a turning direction and a lateral position of the surrounding vehicle , when the corrected traveling path is determined to be similar to the traveling route.
Air channeling device (DC) adapted to be coupled to a right or left end (Ej) of a front beam (PV) of a land vehicle, and comprising walls (Pk) delimiting an air channeling duct (CC), characterized in that one (P1) of said walls (Pk) comprises a clipping element (EC) adapted to be inserted and clipped into a through hole (TT) that said end (Ej) comprises and which is dedicated to the passage of a screw towards a base (EP) of a right or left foot (PPj) of said front beam (PV), located recessed, with a view to being secured to a structure of said vehicle.
An information processing device comprising: an image capturing condition data acquiring unit configured to acquire image capturing condition data at the time of capturing an image of a subject; and a determining unit configured to determine a predetermined initial value of light source data corresponding to the acquired image capturing condition data, a shape data acquiring unit configured to acquire shape data which is prepared in advance and represents a three-dimensional shape of the subject, a light source data deriving unit configured to derive light source data which represents a state of a light source of an image represented by the data of the captured image based on the image capturing condition data, the light source data deriving unit being configured to perform rendering using shape data acquired by the shape data acquiring unit , the initial value of the light source data, and the image capturing condition data, characterized in that the light source data deriving unit is configured to derive light source data suitable to the captured image based on an error between an image obtained by the rendering and the captured image. an image capturing condition data acquiring unit configured to acquire image capturing condition data at the time of capturing an image of a subject; and a determining unit configured to determine a predetermined initial value of light source data corresponding to the acquired image capturing condition data, a shape data acquiring unit configured to acquire shape data which is prepared in advance and represents a three-dimensional shape of the subject, a light source data deriving unit configured to derive light source data which represents a state of a light source of an image represented by the data of the captured image based on the image capturing condition data, the light source data deriving unit being configured to perform rendering using shape data acquired by the shape data acquiring unit , the initial value of the light source data, and the image capturing condition data, characterized in that the light source data deriving unit is configured to derive light source data suitable to the captured image based on an error between an image obtained by the rendering and the captured image.
A method performed by a wireless communication device in an orthogonal frequency-division multiplexing, OFDM, wireless communication system for determining a first offset parameter and a second offset parameter associated with a respective received first OFDM signal and a second OFDM signal having a respective first and second subcarrier frequency spacing, the method comprising: - determining whether transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal , wherein transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal when the first and second OFDM signals are time-synchronized, and - if it is determined that transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal , then - determining the first offset parameter based on the first OFDM signal , and - determining the second offset parameter based on the first offset parameter. - determining whether transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal , wherein transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal when the first and second OFDM signals are time-synchronized, and - if it is determined that transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal , then - determining the first offset parameter based on the first OFDM signal , and - determining the second offset parameter based on the first offset parameter. - determining the first offset parameter based on the first OFDM signal , and - determining the second offset parameter based on the first offset parameter.
A repeater for facilitating data communication, over a power-line, between a first electronic communication device and a second electronic communication device , the repeater comprising: - a first power-line communication (PLC) transceiver to communicate with the first electronic communication device over the power-line ; - a second PLC transceiver to communicate with the second electronic communication device over the power-line ; - a repeater communication channel wherein the first PLC transceiver communicates with the second PLC transceiver over the repeater communication channel ; characterised by - a common interface module to send and receive broadband over power-line signals to the power-line via a common coupler, wherein the common interface module comprises: - a transmitter interface to receive signals from the first and second PLC transceivers and perform signal conditioning suitable to inject the received broadband over power-line signals, via the common coupler, to the power-line ; and - a receiver interface to receive, via the common coupler, broadband over power-line signals from the power-line and perform signal conditioning suitable to be received by the first and second PLC transceivers ; wherein both the first and second PLC transceivers communicate with the respective first and second electronic communication devices through the common interface module . - a first power-line communication (PLC) transceiver to communicate with the first electronic communication device over the power-line ; - a second PLC transceiver to communicate with the second electronic communication device over the power-line ; - a repeater communication channel wherein the first PLC transceiver communicates with the second PLC transceiver over the repeater communication channel ; characterised by - a common interface module to send and receive broadband over power-line signals to the power-line via a common coupler, wherein the common interface module comprises: - a transmitter interface to receive signals from the first and second PLC transceivers and perform signal conditioning suitable to inject the received broadband over power-line signals, via the common coupler, to the power-line ; and - a receiver interface to receive, via the common coupler, broadband over power-line signals from the power-line and perform signal conditioning suitable to be received by the first and second PLC transceivers ;
Method for regulating a pressure setting in a braking system , having a pressure application device and an overflow valve , comprising the steps of - receiving a pressure demand and determining a pressure demand gradient from the pressure demand - determining a volume flow requirement from the pressure demand gradient - generating a hydraulic pressure by means of the pressure application device - determining an actual volume flow of the pressure application device , and characterized by the following steps: - regulating the overflow valve on the basis of the pressure demand and the difference between the actual volume flow and the volume flow requirement , wherein - a special mode is activated when the pressure demand gradient exceeds a gradient limit value, - wherein a minimum value for the volume flow requirement is set in the special mode on the basis of a last maximum of the volume flow requirement , - and wherein the special mode is deactivated when a difference between the pressure demand and a system pressure falls below a first limit value . - receiving a pressure demand and determining a pressure demand gradient from the pressure demand - determining a volume flow requirement from the pressure demand gradient - generating a hydraulic pressure by means of the pressure application device - determining an actual volume flow of the pressure application device , and characterized by the following steps: - regulating the overflow valve on the basis of the pressure demand and the difference between the actual volume flow and the volume flow requirement , wherein - a special mode is activated when the pressure demand gradient exceeds a gradient limit value, - wherein a minimum value for the volume flow requirement is set in the special mode on the basis of a last maximum of the volume flow requirement , - and wherein the special mode is deactivated when a difference between the pressure demand and a system pressure falls below a first limit value . - regulating the overflow valve on the basis of the pressure demand and the difference between the actual volume flow and the volume flow requirement , wherein - a special mode is activated when the pressure demand gradient exceeds a gradient limit value, - wherein a minimum value for the volume flow requirement is set in the special mode on the basis of a last maximum of the volume flow requirement , - and wherein the special mode is deactivated when a difference between the pressure demand and a system pressure falls below a first limit value .
Apparatus for peeling logs comprising: a cutting station wherein a cutting device is present configured to perform, in use, a spiral cut of the log while the log is rotated about a first rotation axis ; a loading station at which, in use, the apparatus receives each log to be peeled; and a device for transferring logs from the loading station to the cutting station ; wherein: the cutting station , the loading station and the transfer device , in use, interact with each other to position the log in the cutting station ; characterized in that the loading station includes a device for axially rotating the log configured to rotate the log about a second rotation axis . the loading station comprises a radiographic examination device , comprising an x-ray emission unit and an x-ray detection unit , which is configured to generate, in use, radiographic scans of the log ; the apparatus further comprises an electronic unit that is connected to the radiographic examination device to command its activation and receive digital-format data from it relating to each radiographic scan generated by it, as well as to the axial rotation device of the log to control its operation; and wherein the electronic unit is programmed to use said digital-format data to control a transfer of the log from the loading station to the cutting station and/or to control the operation of the cutting station . a cutting station wherein a cutting device is present configured to perform, in use, a spiral cut of the log while the log is rotated about a first rotation axis ; a loading station at which, in use, the apparatus receives each log to be peeled; and a device for transferring logs from the loading station to the cutting station ; the cutting station , the loading station and the transfer device , in use, interact with each other to position the log in the cutting station ; characterized in that the loading station includes a device for axially rotating the log configured to rotate the log about a second rotation axis . the loading station comprises a radiographic examination device , comprising an x-ray emission unit and an x-ray detection unit , which is configured to generate, in use, radiographic scans of the log ; the apparatus further comprises an electronic unit that is connected to the radiographic examination device to command its activation and receive digital-format data from it relating to each radiographic scan generated by it, as well as to the axial rotation device of the log to control its operation; and wherein the electronic unit is programmed to use said digital-format data to control a transfer of the log from the loading station to the cutting station and/or to control the operation of the cutting station .
A vehicle with a handle lock mechanism comprising an operating member which is disposed on the vehicle equipped with a steering unit that is steerably supported with respect to a vehicle main body , together with being supported on the vehicle main body and performing a handle locking operation with respect to a handle that constitutes part of the steering unit , an arm member to which an operating force of the operating member is input, and a lock member adapted to lock steering of the steering unit by coming into engagement with the steering unit accompanying swinging of the arm member caused by the operating force, the handle lock mechanism further comprising: a link member adapted to slide in a predetermined direction accompanying swinging of the arm member , and in conjunction with an action point of the arm member ; and a top bridge that constitutes part of the steering unit and supports the handle wherein the lock member slides in the predetermined direction in conjunction with the link member , whereby the lock member engages with the top bridge ; a bracket that covers the arm member and the link member while supporting the handle lock mechanism on the vehicle main body ; wherein the operating member and the arm member are arranged at positions overlapping each other in a height direction, characterized in that the operating member and the arm member are arranged above the top bridge ; and the link member and the lock member are disposed so as to overlap with the operating member along a vertical direction. a link member adapted to slide in a predetermined direction accompanying swinging of the arm member , and in conjunction with an action point of the arm member ; and a top bridge that constitutes part of the steering unit and supports the handle wherein the lock member slides in the predetermined direction in conjunction with the link member , whereby the lock member engages with the top bridge ; a bracket that covers the arm member and the link member while supporting the handle lock mechanism on the vehicle main body ; wherein the operating member and the arm member are arranged at positions overlapping each other in a height direction, characterized in that the operating member and the arm member are arranged above the top bridge ; and the link member and the lock member are disposed so as to overlap with the operating member along a vertical direction.
A footlet provided with a heel portion formed by knitting, a toe portion , and a middle portion located between the heel portion and the toe portion , which middle portion comprises lateral sides that extend between the heel portion and the toe portion on either side, wherein the heel portion is provided with a knitted elastic band forming an edge, characterised in that the elastic band of the heel portion is provided with an anti-slip element applied thereto on a side facing the toe portion , which anti-slip element has been applied to the elastic band after the knitting of at least the elastic band whilst the lateral sides of the middle portion are not provided with an anti-slip element .
An optical fibre comprising: - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by esterification of: a reactant A selected from an acid, a triglyceride or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds; and a polyol made of at least one monomer comprising at least 3 hydroxyl groups, the polyol being thermally stable up to 300°C (reactant B), wherein by thermally stable is meant that when the polyol is heated up to 300°C, at atmospheric pressure and in air, it has a weight loss from 0 wt% to 2 wt% of its weight. - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by esterification of: a reactant A selected from an acid, a triglyceride or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds; and a polyol made of at least one monomer comprising at least 3 hydroxyl groups, the polyol being thermally stable up to 300°C (reactant B), wherein by thermally stable is meant that when the polyol is heated up to 300°C, at atmospheric pressure and in air, it has a weight loss from 0 wt% to 2 wt% of its weight.
A process for the production of feed grade urea starting from a liquid urea melt, the process comprising: processing the urea melt to form biuret from urea, until a target concentration of biuret in the melt is reached, said target concentration being 3% by weight or higher; subjecting the so obtained biuret-containing urea melt to a shaping process to obtain a granular urea product. processing the urea melt to form biuret from urea, until a target concentration of biuret in the melt is reached, said target concentration being 3% by weight or higher; subjecting the so obtained biuret-containing urea melt to a shaping process to obtain a granular urea product.