mhurhangee/patent-ind-claim-en huggingface dataset:
Camping box in the form of a box , more particularly a cuboidal box, which can be inserted into a vehicle, having a top side , having a front side , more particularly designed to be accessible from the inside of the vehicle, and having a rear side , more particularly designed to be accessible via a rear opening of the vehicle, which has at least one section across the width (B), of which a first section has a first retractable and extendable box insert with a first pull-out , more particularly a full pull-out, the pull-out of which is attached to the box via at least two fixed and parallel opposing cabinet rails , characterized in that the first section has a second retractable and extendable box insert in the form of a bench seat which is provided underneath the first box insert , which bench seat is supported on the box via the first and/or second cabinet rails of the first pull-out .
A method comprising: predicting a storage address for a second instruction wherein the second instruction is an indirect branch instruction, based on contents of a first program accessible register, PAR, specified in a first instruction wherein the first instruction is an advance correlating notice, ADVCN, instruction, the ADVCN instruction specifying the PAR and wherein a value stored in the first PAR correlates with a target address stored in a second PAR, the second PAR specified in the indirect branch instruction and wherein the value is different than the target address; the method further comprising: receiving an instruction and determining whether the received instruction is the ADVCN instruction or the indirect branch instruction; wherein if the received instruction is the ADVCN instruction, the method comprises asserting a valid advance notice and holding the value stored in the first PAR; wherein on receipt of the indirect branch instruction and if the valid advance notice is asserted, the method comprises predicting the storage address based on the stored value; and fetching information at the predicted storage address prior to execution of the indirect branch instruction. predicting a storage address for a second instruction wherein the second instruction is an indirect branch instruction, based on contents of a first program accessible register, PAR, specified in a first instruction wherein the first instruction is an advance correlating notice, ADVCN, instruction, the ADVCN instruction specifying the PAR and wherein a value stored in the first PAR correlates with a target address stored in a second PAR, the second PAR specified in the indirect branch instruction and wherein the value is different than the target address; the method further comprising: receiving an instruction and determining whether the received instruction is the ADVCN instruction or the indirect branch instruction; wherein if the received instruction is the ADVCN instruction, the method comprises asserting a valid advance notice and holding the value stored in the first PAR; wherein on receipt of the indirect branch instruction and if the valid advance notice is asserted, the method comprises predicting the storage address based on the stored value; and receiving an instruction and determining whether the received instruction is the ADVCN instruction or the indirect branch instruction; wherein if the received instruction is the ADVCN instruction, the method comprises asserting a valid advance notice and holding the value stored in the first PAR; wherein on receipt of the indirect branch instruction and if the valid advance notice is asserted, the method comprises predicting the storage address based on the stored value; and fetching information at the predicted storage address prior to execution of the indirect branch instruction.
A system for displaying an image in units of a scene, the system comprising: a spatial light modulator configured to modulate input light based on a transparency value; a display and at least one processor configured to: acquire (S1020) adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display , from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust (S1030) an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, wherein the plurality of pieces of view information are optical information of the scene approximating a light field of the scene, the optical information having been acquired at a plurality of viewpoints. a spatial light modulator configured to modulate input light based on a transparency value; a display and at least one processor configured to: acquire (S1020) adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display , from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust (S1030) an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, acquire (S1020) adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display , from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust (S1030) an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, wherein the plurality of pieces of view information are optical information of the scene approximating a light field of the scene, the optical information having been acquired at a plurality of viewpoints.
A process for preparing aqueous solutions of acrylic acid polymers having a weight average molecular weight M w in the range from 3500 to 12 000 g/mol and a polydispersity index M w /M n ≤ 2.5, wherein 30% to 60% of the acid groups of the acrylic acid polymers have been neutralized with calcium ions, 30% to 70% of the acrylic acid polymers have been neutralized with sodium ions and 0% to 10% of the acid groups of the acrylic acid polymers have not been neutralized, by polymerization of acrylic acid in feed mode with a free-radical initiator in the presence of a chain transfer agent in water as solvent, which process comprises (i) initially charging water and optionally acrylic acid in acidic, unneutralized form, optionally one or more ethylenically unsaturated comonomers, optionally the chain transfer agent and optionally initiator, (ii) adding acrylic acid, optionally one or more ethylenically unsaturated comonomers, aqueous free-radical initiator solution and chain transfer agent, (iii) adding a base to the aqueous solution after termination of the acrylic acid feed, wherein, in step (iii), a base comprising sodium ions and a base comprising calcium ions are added in such amounts that 30% to 60% of the acid groups of the acrylic acid polymers are neutralized with calcium ions, 30% to 70% of the acrylic acid polymers are neutralized with sodium ions and 0% to 10% of the acid groups of the acrylic acid polymers are not neutralized, wherein the chain transfer agent is hypophosphite and wherein the weight average molecular weight M w , the polydispersity index M w /M n and the neutralization level are determined according to the methods mentioned in the specification. (i) initially charging water and optionally acrylic acid in acidic, unneutralized form, optionally one or more ethylenically unsaturated comonomers, optionally the chain transfer agent and optionally initiator, (ii) adding acrylic acid, optionally one or more ethylenically unsaturated comonomers, aqueous free-radical initiator solution and chain transfer agent, (iii) adding a base to the aqueous solution after termination of the acrylic acid feed,
A method of aligning vertical flanges of two wind turbine tower segments when assembling a tubular wind turbine tower section for a wind turbine tower , the method comprising: - positioning a first flange of a first wind turbine tower segment and a second flange of a second wind turbine tower segment adjacent one another; - positioning a reaction pin of a flange alignment tool in a mounting aperture of said first flange ; - extending a first extension member of said flange alignment tool in a direction along the axis of the reaction pin towards so as to abut said second flange ; - extending a second extension member of said flange alignment tool in a direction orthogonal to the axis of the reaction pin towards so as to abut said second flange ; - extending said first extension member further to urge said second flange towards said first flange ; - extending said second extension member further to urge a second aperture of said second flange towards an axis of a first aperture of said first flange ; and - installing and fastening at least one set of fasteners into said first and second apertures of the pair of flanges. - positioning a first flange of a first wind turbine tower segment and a second flange of a second wind turbine tower segment adjacent one another; - positioning a reaction pin of a flange alignment tool in a mounting aperture of said first flange ; - extending a first extension member of said flange alignment tool in a direction along the axis of the reaction pin towards so as to abut said second flange ; - extending a second extension member of said flange alignment tool in a direction orthogonal to the axis of the reaction pin towards so as to abut said second flange ; - extending said first extension member further to urge said second flange towards said first flange ; - extending said second extension member further to urge a second aperture of said second flange towards an axis of a first aperture of said first flange ; and - installing and fastening at least one set of fasteners into said first and second apertures of the pair of flanges.
Dynamic measuring system for probing a dynamic data signal of a device under test comprising a measuring device with a probe interface that is configured to receive a probe signal from a probe wherein the probe signal corresponds to the dynamic data signal, an acquisition unit that is configured to acquire and digitize the probe signal into a digital signal, and a post processing unit that is configured to post process the digital signal wherein the post processing unit has at least one signal correction filter being configured to be operated in at least two different modes for processing the digital signal, wherein the signal correction filter has at least a first signal correction filter setting being used in a first mode and a second signal correction filter setting being used in a second mode, characterized in that a switching unit is provided that is configured to select the first mode or the second mode, the switching unit being configured to be operated dynamically based on an event in the data signal, wherein the signal correction filter comprises time variable coefficients. a measuring device with a probe interface that is configured to receive a probe signal from a probe wherein the probe signal corresponds to the dynamic data signal, an acquisition unit that is configured to acquire and digitize the probe signal into a digital signal, and a post processing unit that is configured to post process the digital signal wherein the post processing unit has at least one signal correction filter being configured to be operated in at least two different modes for processing the digital signal, wherein the signal correction filter has at least a first signal correction filter setting being used in a first mode and a second signal correction filter setting being used in a second mode, characterized in that a switching unit is provided that is configured to select the first mode or the second mode, the switching unit being configured to be operated dynamically based on an event in the data signal, wherein the signal correction filter comprises time variable coefficients.
A motor including a housing , a stator mounted in the housing , a rotor rotatably installed at a center of the stator by a rotation shaft , a bearing interposed between the rotation shaft and the housing to rotatably support the rotation shaft , and a ring shaped-damping member interposed between the bearing and the housing to interrupt penetration of moisture from outside and to apply a preload to the bearing , characterized in that the damping member includes a first protrusion and a second protrusion protruding in an axial direction of the rotor, and in that the housing is formed with a receiving groove portion including a first concave groove and a second concave groove corresponding to the first protrusion and the second protrusion of the damping member, respectively.
A computer-implemented method for delegating security authorisation to an agent application executable on a computing device, the method comprising: sending, by the agent application , a request to a remote server requesting authorization to delegate authority to access at least one resource to a plurality of managed applications ; in response to the remote server permitting the agent application to delegate authority, receiving at the agent application , access credentials and authorization to delegate authority by communicating delegation tokens to the plurality of managed applications ; determining, by the agent application being in communication with the plurality of managed applications, that a first one of the plurality of the managed applications requires a first delegation token; sending, upon receipt of the access credentials, by the agent application , the first delegation token to the first one of the plurality of the managed applications ; after the first delegation token has been sent to the first one of the plurality of the managed applications , determining, by the agent application being in communication with the plurality of managed applications, that a second one of the plurality of the managed applications requires a second delegation token; and in response to the determination that the second one of the plurality of managed applications requires the second delegation token, sending to the second one of the plurality of managed applications , from the agent application , the second delegation token. sending, by the agent application , a request to a remote server requesting authorization to delegate authority to access at least one resource to a plurality of managed applications ; in response to the remote server permitting the agent application to delegate authority, receiving at the agent application , access credentials and authorization to delegate authority by communicating delegation tokens to the plurality of managed applications ; determining, by the agent application being in communication with the plurality of managed applications, that a first one of the plurality of the managed applications requires a first delegation token; sending, upon receipt of the access credentials, by the agent application , the first delegation token to the first one of the plurality of the managed applications ; after the first delegation token has been sent to the first one of the plurality of the managed applications , determining, by the agent application being in communication with the plurality of managed applications, that a second one of the plurality of the managed applications requires a second delegation token; and in response to the determination that the second one of the plurality of managed applications requires the second delegation token, sending to the second one of the plurality of managed applications , from the agent application , the second delegation token.
An adjustable anchoring group for the wall assembly of wall-cupboards (P) comprising a hanging-bracket device , provided with an anchoring base to a wall-cupboard (P) and a hooking element , and an anchoring support to a wall , regulation means and actuation means of the reciprocal position being arranged between said hanging-bracket device , said hooking element and said anchoring support in order to regulate the position of the wall-cupboard (P) with respect to the wall according to two directions (F, F1) perpendicular to each other, vertically (in height) and horizontally (in depth), respectively, both said regulation means and said actuation means are accessible from below by means of holes formed in a base or ledge of the wall-cupboard (P), wherein said hanging-bracket comprises a slide sliding linearly with respect to said anchoring base in a first direction, said hooking element being at least partially associated with said slide and movable with respect to the latter in at least a second direction substantially perpendicular with respect to said first direction, wherein said regulation means and said actuation means are respectively associated with said slide and said hooking element , and said regulation means comprise: a threaded seat formed in said slide , an abutment flap integral with said base which extends perpendicularly to the movement direction of said slide, and a regulation screw cooperating with said abutment flap and with said threaded seat for allowing the sliding of said slide in said first direction, characterized in that said regulation screw is kept firmly in position with respect to the abutment flap , but rotates, thanks to the provision of a blocking ring which is housed in an annular seat situated below a head of said regulation screw and above the abutment flap .
A method for operating component carriers by a base station in an wireless communication network, the method comprising: identifying at least one newly available component carrier among component carriers in a cell, for activation by one or more mobile stations; transmitting, to the one or more mobile stations, a paging message instructing an update of system information during a first modification period ; and transmitting , to the one or more mobile stations, the updated system information related to the at least one newly available component carrier during a second modification period which follows the first modification period, wherein the updated system information is used by the one or more mobile stations to activate the at least only newly available component carrier during a third modification period, which follows the second modification period. identifying at least one newly available component carrier among component carriers in a cell, for activation by one or more mobile stations; transmitting, to the one or more mobile stations, a paging message instructing an update of system information during a first modification period ; and transmitting , to the one or more mobile stations, the updated system information related to the at least one newly available component carrier during a second modification period which follows the first modification period, wherein the updated system information is used by the one or more mobile stations to activate the at least only newly available component carrier during a third modification period, which follows the second modification period.
Method for defining a grandmaster clock in a system of control devices networked with one another via a first network or multiple first sub-networks , wherein at least one of the networked control devices is a server-based control device that combines multiple functional units that are suitable as a source of the grandmaster clock and are connected in terms of communication within the server-based control device by way of a second network via switches in one physical unit, which is connected to the first network or multiple first sub-networks via one or more network interfaces, comprising: - ascertaining the best clock of the entire network, wherein the method comprises, when the best clock ascertained is located in a server-based control device: - ascertaining (306-2) the distances between selected functional units, which are suitable as a source of the grandmaster clock, and selected active network interfaces that connect the server-based control device to the first network or multiple first sub-networks, - determining (306-3) the average distance to all selected network interfaces for each of the selected functional units, and - defining the selected functional unit that has the smallest average distance to all selected network interfaces as defined grandmaster clock for the first network or the first sub-networks. - ascertaining the best clock of the entire network, - ascertaining (306-2) the distances between selected functional units, which are suitable as a source of the grandmaster clock, and selected active network interfaces that connect the server-based control device to the first network or multiple first sub-networks, - determining (306-3) the average distance to all selected network interfaces for each of the selected functional units, and - defining the selected functional unit that has the smallest average distance to all selected network interfaces as defined grandmaster clock for the first network or the first sub-networks.