mhurhangee/patent-ind-claim-en huggingface dataset:
A polyol composition comprising in weight percent based upon the weight of the composition: A. 10 to 60% of a saturated polyester polyol of ethylene/butane/adipate of a nominal molecular weight and with a functionality of 2 or more; B. 40 to 90% of a polyester polyol of ethylene/trimethylol propane/neopentyl adipate of nominal molecular weight and with a functionality of 2.5 or more; C. 0 to 20% 1,4-butane diol chain extender glycol; D. 0 to 0.4% polymethyl alkyl siloxane defoamer dissolved in an isoparaffin; E. 0 to 5% desiccant paste comprising 50 weight percent (wt%) of a zeolite powder suspension in castor oil; F. 0 to 0.8% polybutadiene oligomer; G. 0 to 10% antistatic agent; H. 0 to 0.5% surface modified fumed silica; I. 5 to 15% tris (2-chloro-1-methylethyl) phosphate flame retardant; J. 5 to 15% ammonium polyphosphate flame retardant; and K. 0.002 to 0.1% organometallic catalyst other than mercury- or lead-based organometallic catalyst. A. 10 to 60% of a saturated polyester polyol of ethylene/butane/adipate of a nominal molecular weight and with a functionality of 2 or more; B. 40 to 90% of a polyester polyol of ethylene/trimethylol propane/neopentyl adipate of nominal molecular weight and with a functionality of 2.5 or more; C. 0 to 20% 1,4-butane diol chain extender glycol; D. 0 to 0.4% polymethyl alkyl siloxane defoamer dissolved in an isoparaffin; E. 0 to 5% desiccant paste comprising 50 weight percent (wt%) of a zeolite powder suspension in castor oil; F. 0 to 0.8% polybutadiene oligomer; G. 0 to 10% antistatic agent; H. 0 to 0.5% surface modified fumed silica; I. 5 to 15% tris (2-chloro-1-methylethyl) phosphate flame retardant; J. 5 to 15% ammonium polyphosphate flame retardant; and K. 0.002 to 0.1% organometallic catalyst other than mercury- or lead-based organometallic catalyst.
An articulation system for chairs, the system comprising: - a main frame designed to be associated with a supporting base for resting a chair on the ground; - a support for a seat mounted on said main frame; - an articulation element that is rigid and hinged to said main frame so that it can rotate about an axis of rotation , wherein said support for the seat is hinged to said articulation element at a first hinge point ; - a support for a backrest coupled to said articulation element ; - a slider that is slidably movable along a guide solidly constrained to said main frame, wherein said support for the seat is hinged to said slider at a second hinge point located in a front portion of the support for the seat, wherein in a reference plane perpendicular to said axis of rotation , said guide determines a path for said second hinge point , wherein said path has at least one path section that is rectilinear wherein the system is configured to assume an at-rest configuration in the absence of tilting forces acting upon the support for the seat and/or upon the support for the backrest , and characterised in that in said at-rest configuration the first hinge point is found, with reference to said reference plane, interposed between a line vertical to said axis of rotation and a line vertical to the second hinge point . - a main frame designed to be associated with a supporting base for resting a chair on the ground; - a support for a seat mounted on said main frame; - an articulation element that is rigid and hinged to said main frame so that it can rotate about an axis of rotation , wherein said support for the seat is hinged to said articulation element at a first hinge point ; - a support for a backrest coupled to said articulation element ; - a slider that is slidably movable along a guide solidly constrained to said main frame, wherein said support for the seat is hinged to said slider at a second hinge point located in a front portion of the support for the seat, wherein in a reference plane perpendicular to said axis of rotation , said guide determines a path for said second hinge point , wherein said path has at least one path section that is rectilinear wherein the system is configured to assume an at-rest configuration in the absence of tilting forces acting upon the support for the seat and/or upon the support for the backrest , and characterised in that in said at-rest configuration the first hinge point is found, with reference to said reference plane, interposed between a line vertical to said axis of rotation and a line vertical to the second hinge point .
A method of processing data items received at a network element in a communications network, respective data items having indications of their source and of an intended destination , the method comprising, in respect of data items received at the network element: classifying respective data items of those received into subsets in dependence on their respective source and destination indications; and forwarding respective data items according to a forwarding process; characterised in that the method further comprises: determining respective performance characteristics for the subsets into which the respective data items have been classified, the performance characteristic for a subset being determined in dependence on one or more time measures indicative of a total time taken for data items to travel from the network element to the intended destination for data items of the subset, from the intended destination for data items of the subset to the source for data items of the subset, and from the source for data items of the subset to the network element ; and wherein the step of forwarding comprises forwarding respective data items according to a forwarding process dependent on the respective performance characteristics determined for the subsets into which the respective data items have been classified. classifying respective data items of those received into subsets in dependence on their respective source and destination indications; and forwarding respective data items according to a forwarding process; characterised in that the method further comprises: determining respective performance characteristics for the subsets into which the respective data items have been classified, the performance characteristic for a subset being determined in dependence on one or more time measures indicative of a total time taken for data items to travel from the network element to the intended destination for data items of the subset, from the intended destination for data items of the subset to the source for data items of the subset, and from the source for data items of the subset to the network element ; and wherein the step of forwarding comprises forwarding respective data items according to a forwarding process dependent on the respective performance characteristics determined for the subsets into which the respective data items have been classified. determining respective performance characteristics for the subsets into which the respective data items have been classified, the performance characteristic for a subset being determined in dependence on one or more time measures indicative of a total time taken for data items to travel from the network element to the intended destination for data items of the subset, from the intended destination for data items of the subset to the source for data items of the subset, and from the source for data items of the subset to the network element ; and wherein the step of forwarding comprises forwarding respective data items according to a forwarding process dependent on the respective performance characteristics determined for the subsets into which the respective data items have been classified.
A method implemented by a network node for signaling to a wireless communication device which precoders in a codebook are restricted from being used, the method comprising: generating codebook subset restriction signaling that, for each of one or more groups of precoders, jointly restricts the precoders in the group by restricting a certain component that the precoders in the group have in common; sending the generated signaling from the network node to the wireless communication device the method characterized in that the precoders are Kronecker product based precoders defined for a multi-dimensional antenna array; and the signaling is rank-agnostic so as to restrict precoders irrespective of their transmission rank. generating codebook subset restriction signaling that, for each of one or more groups of precoders, jointly restricts the precoders in the group by restricting a certain component that the precoders in the group have in common; sending the generated signaling from the network node to the wireless communication device the method characterized in that the precoders are Kronecker product based precoders defined for a multi-dimensional antenna array; and the signaling is rank-agnostic so as to restrict precoders irrespective of their transmission rank.
Device for cooling bulk material consisting of particles of different particle sizes, the bulk material being hot sinter having a temperature of at least 300 °C, comprising a shaft cooler with cooling shaft , and an input device for the input of bulk material in a shaft cooler , wherein the input device comprises: - a rotary bunker rotatable about a central axis of rotation , having an inlet opening for the bulk material through which the central axis of rotation passes, and having a discharge opening for the bulk material , the discharge opening being arranged eccentrically; - a supply bunker , in which the discharge opening of the rotary bunker opens; - at least three drainpipes emanating from the supply bunker ; wherein the supply bunker and the drainpipes are stationary; and wherein the input device is arranged at the upper end of the cooling shaft of the shaft cooler , wherein the drainpipes open with their lower ends into the cooling shaft , and the rotary bunker and the supply bunker are arranged outside the cooling shaft . comprising a shaft cooler with cooling shaft , and an input device for the input of bulk material in a shaft cooler , wherein the input device comprises: - a rotary bunker rotatable about a central axis of rotation , having an inlet opening for the bulk material through which the central axis of rotation passes, and having a discharge opening for the bulk material , the discharge opening being arranged eccentrically; - a supply bunker , in which the discharge opening of the rotary bunker opens; - at least three drainpipes emanating from the supply bunker ; - a rotary bunker rotatable about a central axis of rotation , having an inlet opening for the bulk material through which the central axis of rotation passes, and having a discharge opening for the bulk material , the discharge opening being arranged eccentrically; - a supply bunker , in which the discharge opening of the rotary bunker opens; - at least three drainpipes emanating from the supply bunker ; wherein the supply bunker and the drainpipes are stationary; and wherein the input device is arranged at the upper end of the cooling shaft of the shaft cooler , wherein the drainpipes open with their lower ends into the cooling shaft , and the rotary bunker and the supply bunker are arranged outside the cooling shaft .
A method of migrating data from one or more source databases to one or more target databases , the method comprising: receiving, from a cloud-based database modeling service, data relating to the one or more source databases and the one or more target databases , wherein the cloud-based database modeling service is located remotely from the source databases and is configured to collect and analyze data from the source databases and the target databases ; generating a pre-migration analysis for a plurality of objects stored in the one or more source databases , based on the data from the cloud-based database modeling service; generating a plurality of migration scripts that transfer the plurality of objects from the one or more source databases to the one or more target databases , based on the pre-migration analysis; generating a migration plan that defines an execution order for the plurality of migration scripts; migrating the plurality of objects from the one or more source databases to one or more target databases according to the migration plan; while migrating the plurality of objects, the migration plan further defines which of the plurality of migration scripts can be executed in parallel; while migrating the plurality of objects, dynamically adjusting the amount of parallel processing by scaling up or down the amount of parallel processing of the migration scripts based on available system resources; and validating the plurality of objects on the one or more target databases . receiving, from a cloud-based database modeling service, data relating to the one or more source databases and the one or more target databases , wherein the cloud-based database modeling service is located remotely from the source databases and is configured to collect and analyze data from the source databases and the target databases ; generating a pre-migration analysis for a plurality of objects stored in the one or more source databases , based on the data from the cloud-based database modeling service; generating a plurality of migration scripts that transfer the plurality of objects from the one or more source databases to the one or more target databases , based on the pre-migration analysis; generating a migration plan that defines an execution order for the plurality of migration scripts; migrating the plurality of objects from the one or more source databases to one or more target databases according to the migration plan; while migrating the plurality of objects, the migration plan further defines which of the plurality of migration scripts can be executed in parallel; while migrating the plurality of objects, dynamically adjusting the amount of parallel processing by scaling up or down the amount of parallel processing of the migration scripts based on available system resources; and validating the plurality of objects on the one or more target databases .
A method of heating at least one selected portion of an object, comprising the steps of projecting an energy beam onto a surface of the object so as to produce a primary spot on the surface, and repetitively scanning the beam in two dimensions in accordance with a scanning pattern so as to establish an effective spot on the surface, the effective spot having a two-dimensional energy distribution, and displacing the effective spot along a track on the surface of the object to progressively heat a selected portion of the object; wherein the selected portion has a first width (W1) at a first position along the track , and a second width (W2) at a second position along the track , the first width (W1) being larger than the second width (W2); wherein the beam is scanned in accordance with the scanning pattern so that the scanning pattern is repeated by the beam with a first frequency in correspondence with the first position along the track, and with a second frequency in correspondence with the second position along the track, and wherein both of the first frequency and the second frequency are larger than 10 Hz, wherein the effective spot has a length (L1, L2) in the direction parallel with the track that is smaller in correspondence with the first position than in correspondence with the second position. projecting an energy beam onto a surface of the object so as to produce a primary spot on the surface, and repetitively scanning the beam in two dimensions in accordance with a scanning pattern so as to establish an effective spot on the surface, the effective spot having a two-dimensional energy distribution, and displacing the effective spot along a track on the surface of the object to progressively heat a selected portion of the object; wherein the selected portion has a first width (W1) at a first position along the track , and a second width (W2) at a second position along the track , the first width (W1) being larger than the second width (W2); wherein the beam is scanned in accordance with the scanning pattern so that the scanning pattern is repeated by the beam with a first frequency in correspondence with the first position along the track, and with a second frequency in correspondence with the second position along the track, and wherein both of the first frequency and the second frequency are larger than 10 Hz, wherein the effective spot has a length (L1, L2) in the direction parallel with the track that is smaller in correspondence with the first position than in correspondence with the second position.
Apparatus for transferring people to or from a vessel , comprising a movable platform , able to carry people, connected to a movement assembly (4;2), said movement assembly (4;2) being arranged on a support base which is coupled to said vessel , said platform being maintained at an inclination substantially parallel to the water line of said vessel by suitable means ; the said movement assembly (4;2) being fully retractable from an operating and deployed condition to a non-operating and retracted condition, the overall size of the non-operating and retracted condition being sensibly less than that of the operating and deployed condition, wherein said support base is coupled to said vessel and arranged parallel with respect to the planes of the decks of said vessel , the said platform being movable into abutment against the upper deck of the vessel, or against any other location in the vessel which can be accessed by moving the movable assembly (4; 2), wherein said movement assembly comprises an articulated arm provided with at least two segments which can pivot with respect to each other and with respect to both said platform and said support base , there being provided suitable drive means , wherein said articulated segments are variable in length.
A method performed by a control entity configured to influence a selection of one service instance from a plurality of service instances provided by a distributed cloud system , each service instance providing a predefined service to a data packet flow of a user entity connected to a mobile communications network, the method comprising: - monitoring (S12, S31) a creation of new service instances providing the predefined service in the distributed cloud system , wherein for each new service instance a corresponding location in the distributed cloud system is determined, - determining (S13, S32), for each of the newly created service instances, location information indicating for each service instance a corresponding nearest access point name, APN, to the mobile communications network, - transmitting (S14, S33) the location information to the mobile communications network requesting to take into account the transmitted location information for a selection of a user plane entity configured to transmit at least a user data plane of the data packet flow between the user entity and said one of the service instances, wherein the creation of all new service instances providing different types of services is monitored, wherein the location information is determined and transmitted for each service instance and for each type of the different types of services, wherein monitoring the creation of new service instances comprises: - transmitting a request (S10) to the distributed cloud system requesting that the control entity be informed each time a new service instance is created in the distributed cloud system , - receiving a response (S11) to the transmitted request, the response comprising the new service instance and its location in the distributed cloud system. - monitoring (S12, S31) a creation of new service instances providing the predefined service in the distributed cloud system , wherein for each new service instance a corresponding location in the distributed cloud system is determined, - determining (S13, S32), for each of the newly created service instances, location information indicating for each service instance a corresponding nearest access point name, APN, to the mobile communications network, - transmitting (S14, S33) the location information to the mobile communications network requesting to take into account the transmitted location information for a selection of a user plane entity configured to transmit at least a user data plane of the data packet flow between the user entity and said one of the service instances, wherein the creation of all new service instances providing different types of services is monitored, wherein the location information is determined and transmitted for each service instance and for each type of the different types of services, - transmitting a request (S10) to the distributed cloud system requesting that the control entity be informed each time a new service instance is created in the distributed cloud system , - receiving a response (S11) to the transmitted request, the response comprising the new service instance and its location in the distributed cloud system.
An aircraft engine comprising: an engine case having at least one flange ; and a harness of wires extending in proximity to the engine case , characterised in that : the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments of the metal shield sleeve longitudinally spaced along the harness of wires ; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D). an engine case having at least one flange ; and a harness of wires extending in proximity to the engine case , characterised in that : the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments of the metal shield sleeve longitudinally spaced along the harness of wires ; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D). the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments of the metal shield sleeve longitudinally spaced along the harness of wires ; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D).
A toilet bidet system that is configured to be positioned onto a separate toilet frame of a vacuum toilet, the toilet bidet system comprising: a bidet rinse ring configured to cooperate with the toilet frame , the bidet rinse ring comprising a wand housing and a wand support , wherein the bidet rinse ring is removable from the toilet frame .
A device for confining a given zone of a part comprising a first rigid skirt open on a first end which can be applied around said given zone of the part and a second flexible and elastic skirt open on the same first end as the first skirt and designed to be applied to the part, the second skirt surrounding the first rigid skirt at a distance in order to form an annular space which is connected to means for creating a vacuum in the annular space when the first ends of the first skirt and the second skirt are applied to the part.