mhurhangee/ep-ind-claims huggingface dataset:
A method for forwarding information to a device in a communication network, characterized in that the method comprises: selecting a serving node to which to forward a request, the selected serving node being one of a plurality of serving nodes (22, 24, 26), each serving node of the plurality of serving nodes (22, 24, 26) supporting a different access technology, the request being a request to transmit one of a messaging service message and trigger information, the request including a list of the plurality of serving nodes (22, 24, 26); and sending the request to the selected serving node via a translation interface associated with the selected serving node, the translation interface adapted to use a protocol that corresponds to the access technology of the selected serving node; and the selected serving node forwarding the request to another serving node in the list of the plurality of serving nodes in the request in case the selected serving node cannot reach the device (S126, S130). selecting a serving node to which to forward a request, the selected serving node being one of a plurality of serving nodes (22, 24, 26), each serving node of the plurality of serving nodes (22, 24, 26) supporting a different access technology, the request being a request to transmit one of a messaging service message and trigger information, the request including a list of the plurality of serving nodes (22, 24, 26); and sending the request to the selected serving node via a translation interface associated with the selected serving node, the translation interface adapted to use a protocol that corresponds to the access technology of the selected serving node; and the selected serving node forwarding the request to another serving node in the list of the plurality of serving nodes in the request in case the selected serving node cannot reach the device (S126, S130).
Opening device for a tilt and turn leaf of windows or doors, having an adjusting linkage which can be moved along a leaf rebate into different switch positions by means of a drive, and at least one opening arm which is arranged on the leaf opening side opposite the perpendicular pivot axis, which is pivotally mounted on the leaf and which, when in the turn-open position, can be coupled to a frame-side slide guide of the device that runs along a frame rebate plane via a coupling element of the opening arm, characterised in that the slide guide which is open on both sides along the frame rebate plane comprises a baseplate and a guide bar which is located in the opening direction of the leaf and which is held positively on a rail of the baseplate and can be moved along the frame rebate plane relative to the baseplate, with a rigid guide bar comprising a detent element for the coupling element lying opposite the movable guide bar.
A method performed by a server to manage devices, the method comprising: receiving, from a first device, a request for the first device to be a follower of a second device (431, 432, 433); transmitting the request to the second device (431, 432, 433); receiving an approval response to the request from the second device (431, 432, 433) receiving, from the second device (431, 432, 433), a device message representing an event that occurs in the second device (431, 432, 433), the device message formed as a structured message in a machine readable language, wherein the event is an event that occurs according to a state of the second device (431, 432, 433) or an operation of the second device (431, 432, 433); receiving external context data from a third-party external server; generating a context-based message which is formed as a structured message in a machine readable language based on a combination of the event comprised in the received device message and the received external context data; and transmitting the context-based message to the first device according to the request from the first device; wherein the context-based message is a processed message from the device message for notifying an action to be required to a user of the first device based on the external context data. receiving, from a first device, a request for the first device to be a follower of a second device (431, 432, 433); transmitting the request to the second device (431, 432, 433); receiving an approval response to the request from the second device (431, 432, 433) receiving, from the second device (431, 432, 433), a device message representing an event that occurs in the second device (431, 432, 433), the device message formed as a structured message in a machine readable language, wherein the event is an event that occurs according to a state of the second device (431, 432, 433) or an operation of the second device (431, 432, 433); receiving external context data from a third-party external server; generating a context-based message which is formed as a structured message in a machine readable language based on a combination of the event comprised in the received device message and the received external context data; and transmitting the context-based message to the first device according to the request from the first device; wherein the context-based message is a processed message from the device message for notifying an action to be required to a user of the first device based on the external context data.
A method for use in a cable modem terminal system, CMTS, assembly, comprising: acquiring, by the CMTS assembly, configuration file information of a cable modem, CM, from a convergence device, wherein the configuration file information of the CM is acquired by the convergence device from a first Dynamic Host Configuration Protocol, DHCP, response message sent by a DHCP server to the CM; and intercepting, by the CMTS assembly, a TFTP request message that is sent by the CM to the convergence device and that requests to deliver a configuration file, after it is determined that a configuration file name in the TFTP request message is the same as a configuration file name in a configuration file sent by the convergence device, requesting, by using address information of a TFTP server, which is delivered by the convergence device, the corresponding TFTP server to deliver the configuration file of the CM, and sending the received configuration file to the CM. acquiring, by the CMTS assembly, configuration file information of a cable modem, CM, from a convergence device, wherein the configuration file information of the CM is acquired by the convergence device from a first Dynamic Host Configuration Protocol, DHCP, response message sent by a DHCP server to the CM; and intercepting, by the CMTS assembly, a TFTP request message that is sent by the CM to the convergence device and that requests to deliver a configuration file, after it is determined that a configuration file name in the TFTP request message is the same as a configuration file name in a configuration file sent by the convergence device, requesting, by using address information of a TFTP server, which is delivered by the convergence device, the corresponding TFTP server to deliver the configuration file of the CM, and sending the received configuration file to the CM.
A color electrophotographic image forming apparatus for forming an image on a recording medium, the color electrophotographic image forming apparatus comprising: a support means which supports a plurality of developing devices (18a, 18b, 18c, 18d), the support means being rotatably mounted on a pivotable arm in the image forming apparatus; characterised by: a rotary member arranged to rotate with the support means and comprising one or more contacting portions (101e, 101f, 101g, 101h) and one or more spacing portions (101a, 101b, 101c, 101d); and an abutment arranged to contact the contacting portion; wherein the image forming apparatus is arranged such that the support means may be rotated such that the contacting portions, which rotate with the support means, contact the abutment and thereby pivot the arm to move a developing device (18a, 18b, 18c, 18d) on the support means between a development position and a retreat position. a support means which supports a plurality of developing devices (18a, 18b, 18c, 18d), the support means being rotatably mounted on a pivotable arm in the image forming apparatus; characterised by: a rotary member arranged to rotate with the support means and comprising one or more contacting portions (101e, 101f, 101g, 101h) and one or more spacing portions (101a, 101b, 101c, 101d); and an abutment arranged to contact the contacting portion; wherein the image forming apparatus is arranged such that the support means may be rotated such that the contacting portions, which rotate with the support means, contact the abutment and thereby pivot the arm to move a developing device (18a, 18b, 18c, 18d) on the support means between a development position and a retreat position. a rotary member arranged to rotate with the support means and comprising one or more contacting portions (101e, 101f, 101g, 101h) and one or more spacing portions (101a, 101b, 101c, 101d); and an abutment arranged to contact the contacting portion; wherein the image forming apparatus is arranged such that the support means may be rotated such that the contacting portions, which rotate with the support means, contact the abutment and thereby pivot the arm to move a developing device (18a, 18b, 18c, 18d) on the support means between a development position and a retreat position.
Electric cable, in particular a high-voltage cable, in particular for use in a motor vehicle, in particular a hybrid or electric vehicle, having - an inner conductor, - a primary isolation surrounding the inner conductor, - an electric shield surrounding the primary isolation, and - a secondary isolation surrounding the shield, - wherein at least at one end of the cable the secondary isolation is removed so that the shield is stripped, - a sleeve is pushed over the stripped shield, - a part of the shield protruding beyond the sleeve in the direction of the end is folded back over the sleeve, characterized in that - the sleeve has a step-like offset such that the sleeve has a first diameter at a first side and a second, smaller diameter than the first diameter at a second side facing towards the end of the cable - in that the part of the shield that is put over the sleeve is intermetallically connected to the sleeve. - an inner conductor, - a primary isolation surrounding the inner conductor, - an electric shield surrounding the primary isolation, and - a secondary isolation surrounding the shield, - wherein at least at one end of the cable the secondary isolation is removed so that the shield is stripped, - a sleeve is pushed over the stripped shield, - a part of the shield protruding beyond the sleeve in the direction of the end is folded back over the sleeve, characterized in that - the sleeve has a step-like offset such that the sleeve has a first diameter at a first side and a second, smaller diameter than the first diameter at a second side facing towards the end of the cable - in that the part of the shield that is put over the sleeve is intermetallically connected to the sleeve.
Method for coding a sequence of images, comprising a step of coding at least one block of a current image of said sequence, implementing a prediction associating said block with at least one corresponding block in a reference image of said sequence, characterized in that said prediction comprises the following steps, for at least one given block of the current image or of the reference image, respectively: - determining a plurality of control vectors for said block, said control vectors each being representative of a motion between a characteristic point of said block and a corresponding position of said characteristic point in the reference image or in the current image, respectively, and said control vectors being determined while taking into account a motion vector of said block and of at least one connection indicator representative of a motion between said block and at least one neighbouring block in said reference image and current image, said at least one connection indicator indicating whether said block and said neighbouring block have a common edge both in the reference image and in the current image after motion compensation; - at least once dividing said block into sub-blocks; - determining a plurality of control vectors for said sub-blocks, on the basis of the control vectors for said block; - determining a prediction value for at least one point of said current image, on the basis of a motion compensation of at least one of said sub-blocks, which compensation is carried out on the basis of the control vectors determined for said sub-block; and in that said method comprises a step of inserting, into a signal representative of said sequence, a prediction residue of the motion vector of the block and items of information for reconstructing said control vectors for said given block, said items of information for reconstructing said control vectors comprising the at least one connection indicator. - determining a plurality of control vectors for said block, said control vectors each being representative of a motion between a characteristic point of said block and a corresponding position of said characteristic point in the reference image or in the current image, respectively, and said control vectors being determined while taking into account a motion vector of said block and of at least one connection indicator representative of a motion between said block and at least one neighbouring block in said reference image and current image, said at least one connection indicator indicating whether said block and said neighbouring block have a common edge both in the reference image and in the current image after motion compensation; - at least once dividing said block into sub-blocks; - determining a plurality of control vectors for said sub-blocks, on the basis of the control vectors for said block; - determining a prediction value for at least one point of said current image, on the basis of a motion compensation of at least one of said sub-blocks, which compensation is carried out on the basis of the control vectors determined for said sub-block;
An aqueous dispersion comprising: a) from 5 to 99.9% by weight, based on the weight of solids in the aqueous dispersion, of one or more polymers, prepared by the polymerization of one or more ethylenically unsaturated monomers, having a number average molecular weight less than 10,000; and b) from 0.1 to 95% by weight, based on the weight of solids in the aqueous dispersion, of one or more active ingredients that are compounds having biological activity selected from the group consisting of water soluble active ingredients, partially water soluble active ingredients, water insoluble active ingredients and combinations thereof.
A vehicle, in particular a motor vehicle, with at least one receiving means for at least one device for exchanging heat with at least one heating device and/or cooling device, a fan and a housing with at least one ventilation inlet and at least one ventilation outlet for an air flow to be conditioned, wherein the device is arranged in the receiving means which is substantially spatially determined by at least one first separating element to the engine compartment and by a second separating element to the passenger compartment, and the air to be conditioned is guided, at least in sections, in parallel to at least one plane which is spanned by at least one separating element (4, 5) of the receiving means, wherein the device has flow paths (25, 26, 27) for the introduction and discharge of the air and control means (22, 23) which influence the flow rate, the amount of air and/or the flow direction at least in part are arranged in the flow paths for the introduction and discharge of the air, characterised in that a part of the flow paths (25, 26, 27) serves to discharge the conditioned air into the vehicle interior in at least a first position of the control means (22, 23) and to introduce the air from the vehicle interior into the device for exchanging heat in at least a second position of the control means (22, 23).
Partition comprising at least one cladding panel covered with a fabric, said cladding panel being referred to as the first cladding panel, said first cladding panel extending in a substantially vertical plane and having a front face which receives the fabric, a rear face which is opposite the front face, a lower edge and an upper edge, characterised in that the fabric is a luminous fabric that comprises optical fibres which extend substantially vertically on the front face of the first cladding panel and of which first ends are bent around the lower edge of the first cladding panel towards the rear face thereof, in that an optionally open casing, referred to as the first casing, both accommodates light sources and has connection means for the ends of the optical fibres of the luminous fabric that are bent around the lower edge of the first cladding panel, in that the first casing is interdependent with the first cladding panel, and in that the first casing is supported by legs which extend beyond the lower edge of the first cladding panel.
A controller device to perform control functionality for a system that includes a radio frequency,RF, generator and a device under test,DUT,, the RF generator configured to provide a source signal to the DUT, the DUT configurable to switch between receive configurations of a plurality of receive configurations, the controller device comprising: memory; and processing circuitry, configured to: generate a machine learning rule for prediction of future receive configurations of the DUT, wherein the generated machine learning rule is based on historical data related to a sequence of receive configurations of the DUT at a sequence of times; receive, from the DUT, feedback that indicates a current receive configuration of the DUT; apply the machine learning rule to the current receive configuration of the DUT to determine a set of candidate future receive configurations of the DUT during a future time period; generate a set of RF waveforms that includes an RF waveform for each of the candidate future receive configurations of the DUT based on one or more RF parameters of the corresponding candidate future receive configuration of the DUT; and transfer the set of RF waveforms to the RF generator. generate a machine learning rule for prediction of future receive configurations of the DUT, wherein the generated machine learning rule is based on historical data related to a sequence of receive configurations of the DUT at a sequence of times; receive, from the DUT, feedback that indicates a current receive configuration of the DUT; apply the machine learning rule to the current receive configuration of the DUT to determine a set of candidate future receive configurations of the DUT during a future time period; generate a set of RF waveforms that includes an RF waveform for each of the candidate future receive configurations of the DUT based on one or more RF parameters of the corresponding candidate future receive configuration of the DUT; and transfer the set of RF waveforms to the RF generator.
Method for classifying unknown particles on a surface of a semiconductor wafer comprising: depositing particles of known chemical composition of different sizes on a test wafer, determining a size of a plurality of particles of known chemical composition and taking a spectrum of energy dispersive X-ray spectroscopy of a plurality of particles of known chemical composition, followed by determining a material content thereof, respectively, and fitting a compensation curve to the size and material content of the particles of known chemical composition, further determining a particle size of an unknown particle and recording an energy dispersive X-ray spectroscopy spectrum of the unknown particle and determining therefrom the material content of the unknown particle on a semiconductor wafer and classifying the unknown particle as a result of comparing the size and material content of the unknown particle with the compensation curve.
A method for manufacturing a structural composite component, said method comprising the following steps: - stacking, in a first heating mold, a first mat, a spacer and a second mat; the spacer being positioned between the first and second mats; at least one of the first and second mats including a continuous web of fibers impregnated with a composition including a thermosetting resin; and - compression and heating of the stack by the first heating mold, the heating being done at a temperature and for a duration allowing polymerization or cross-linking of the thermosetting resin; said method being characterized in that: it includes, before the stacking step in the first heating mold, a step of compressing the spacer in a non-heated second mold, a first inner surface of said non-heating second mold including at least one first raised and/or hollow cavity die, said first inner surface being substantially oriented in a compression direction, so as to configure the spacer according to said cavity die, - a second inner surface of the first heating mold includes at least one second raised and/or hollow cavity die corresponding to the first cavity die of the first inner surface of the non-heating second mold, said second inner surface being substantially oriented in the compression direction, such that, during the step for compression and heating by the first mold, an air gap between the spacer and said second inner surface is substantially constant over said second inner surface. - stacking, in a first heating mold, a first mat, a spacer and a second mat; the spacer being positioned between the first and second mats; at least one of the first and second mats including a continuous web of fibers impregnated with a composition including a thermosetting resin; and - compression and heating of the stack by the first heating mold, the heating being done at a temperature and for a duration allowing polymerization or cross-linking of the thermosetting resin; - a second inner surface of the first heating mold includes at least one second raised and/or hollow cavity die corresponding to the first cavity die of the first inner surface of the non-heating second mold, said second inner surface being substantially oriented in the compression direction, such that, during the step for compression and heating by the first mold, an air gap between the spacer and said second inner surface is substantially constant over said second inner surface.
A charge-transporting thin film containing one or more types of functional organic compounds having chiral elements, wherein the total of the number of chiral elements per molecule in each type of the functional organic compounds summed over all types of the functional organic compounds is four or more; wherein the functional organic compounds having chiral elements have a biaryl structure which has chiral elements due to hindered rotation between two aryl moieties, such that the functional organic compounds include an atropisomer; wherein the functional organic compounds do not include a metal complex having two or more chiral elements per molecule; and wherein at least one of the functional organic compounds having at least four chiral elements, said chiral elements having biaryl structure including the atropisomer, includes a host compound, a hole transport material, an electron transport material or a fluorescent material within the charge-transporting thin film.