mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for loading a therapeutic substance within a lumenal space of a hollow wire having a plurality of side openings that forms a hollow stent comprising: upper and lower segments that mate along longitudinally-extending surfaces to form a cylindrical structure, the cylindrical structure including a reservoir for containing a drug suspension including the therapeutic substance and a dispersion medium, a loading compartment for securing at least one hollow structure therein that is to be filled with the therapeutic substance, the loading compartment being positioned downstream of and in fluid communication with the reservoir, a restraining plate positioned downstream of the loading compartment that allows flow of the dispersion medium therethrough while retaining the therapeutic substance upstream thereof within the hollow structure, and a sump chamber positioned downstream of the restraining plate that captures and contains the dispersion medium that passes through the restraining plate. upper and lower segments that mate along longitudinally-extending surfaces to form a cylindrical structure, the cylindrical structure including a reservoir for containing a drug suspension including the therapeutic substance and a dispersion medium, a loading compartment for securing at least one hollow structure therein that is to be filled with the therapeutic substance, the loading compartment being positioned downstream of and in fluid communication with the reservoir, a restraining plate positioned downstream of the loading compartment that allows flow of the dispersion medium therethrough while retaining the therapeutic substance upstream thereof within the hollow structure, and a sump chamber positioned downstream of the restraining plate that captures and contains the dispersion medium that passes through the restraining plate.
Concrete pump truck having a frame portion for supporting a placing boom , and a telescopic swivel leg , which comprises a swivel portion and a telescopic portion , wherein the swivel portion is arranged swivellably hinged to the frame portion so as to swivel about a swivel axis arranged perpendicular to a base of the concrete pump truck, and an energy guiding device is provided in order to supply a support device of the telescopic swivel leg with pneumatic, hydraulic and/or electrical energy, characterised in that the energy guiding device has a swivel axis arranged parallel to the swivel axis of the swivel portion about which the energy guiding device can be swivelled, and wherein the energy guiding device is an energy guiding chain, which has hollow spaces and/or recesses, within which energy guiding elements are arranged, guided and/or protected as the energy guiding devices , such as electric lines, compressed air lines and/or hydraulic lines, and said energy guiding device extends further backwards or further forwards in relation to the concrete pump truck than the telescopic swivel leg in a swivelled-in and/or telescoped-in state of the telescopic swivel leg . a frame portion for supporting a placing boom , and a telescopic swivel leg , which comprises a swivel portion and a telescopic portion , wherein the swivel portion is arranged swivellably hinged to the frame portion so as to swivel about a swivel axis arranged perpendicular to a base of the concrete pump truck, and an energy guiding device is provided in order to supply a support device of the telescopic swivel leg with pneumatic, hydraulic and/or electrical energy, characterised in that the energy guiding device has a swivel axis arranged parallel to the swivel axis of the swivel portion about which the energy guiding device can be swivelled, and wherein the energy guiding device is an energy guiding chain, which has hollow spaces and/or recesses, within which energy guiding elements are arranged, guided and/or protected as the energy guiding devices , such as electric lines, compressed air lines and/or hydraulic lines, and said energy guiding device extends further backwards or further forwards in relation to the concrete pump truck than the telescopic swivel leg in a swivelled-in and/or telescoped-in state of the telescopic swivel leg .
A method for control and monitoring of security and network capabilities of a network device , comprising the steps of: providing a network connection device having a network port , a management network connectivity port , and a security processor ; exchanging data traffic on a first path that extends between a data network and a host computer via the network port of the network connection device; and isolating security and network configuration functions of the network connection device from the host computer by exchanging security management data on a second path that extends between the security processor and a management host on a management network via the management network connectivity port , wherein the second path is isolated from the first path. providing a network connection device having a network port , a management network connectivity port , and a security processor ; exchanging data traffic on a first path that extends between a data network and a host computer via the network port of the network connection device; and isolating security and network configuration functions of the network connection device from the host computer by exchanging security management data on a second path that extends between the security processor and a management host on a management network via the management network connectivity port , wherein the second path is isolated from the first path.
A terminal device comprising: selection unit configured to select a physical uplink control channel, PUCCH, resource used to transmit a scheduling request, from a first PUCCH resource in a first subframe in a first serving cell and a second PUCCH resource in the first subframe in a second serving cell; and transmission unit configured to transmit Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, by using a predetermined PUCCH format, in the first subframe in the first serving cell; wherein in a case that the PUCCH resource is selected in the first serving cell, the transmission unit is configured to transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and not to transmit, in the first subframe in the second serving cell, the scheduling request using a PUCCH format 1, and in a case that the PUCCH resource is selected in the second serving cell, the transmission unit is configured to transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and transmit, in the first subframe in the second serving cell, the scheduling request using the PUCCH format 1. selection unit configured to select a physical uplink control channel, PUCCH, resource used to transmit a scheduling request, from a first PUCCH resource in a first subframe in a first serving cell and a second PUCCH resource in the first subframe in a second serving cell; and transmission unit configured to transmit Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, by using a predetermined PUCCH format, in the first subframe in the first serving cell; wherein in a case that the PUCCH resource is selected in the first serving cell, the transmission unit is configured to transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and not to transmit, in the first subframe in the second serving cell, the scheduling request using a PUCCH format 1, and to transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and not to transmit, in the first subframe in the second serving cell, the scheduling request using a PUCCH format 1, and in a case that the PUCCH resource is selected in the second serving cell, the transmission unit is configured to transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and transmit, in the first subframe in the second serving cell, the scheduling request using the PUCCH format 1. transmit, in the first subframe in the first serving cell, the HARQ-ACK using the predetermined PUCCH format and the scheduling request, and transmit, in the first subframe in the second serving cell, the scheduling request using the PUCCH format 1.
A method of manufacturing a High Temperature Superconductor, HTS, field coil from one or more HTS tapes (100, 900, 900A,B, 1401, 1501A-D), each HTS tape comprising a flexible substrate, an intermediate layer provided on a face of the flexible substrate, an HTS material layer provided on the intermediate layer, and electrically conductive cladding in electrical contact with the HTS material and extending across at least the edges of the HTS tape, the method comprising: winding the one or more HTS tapes about an axis (Z) to form a field coil comprising windings of HTS tape; and characterised by : after winding, removing material from an axial edge of the one or more of the HTS tapes around at least a part of one or more of the windings to reduce the extent of the one or more HTS tapes along the axis of the field coil, wherein removing material from an axial edge of the one or more of the HTS tapes comprises partially or wholly removing the cladding from an edge of the one or more of the HTS tapes around at least a part of one or more of the windings to increase the electrical resistance between the HTS material layer in the winding and the HTS material layer in an adjacent winding.
A compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, Y 1 is O or S, one of Ar 1 to Ar 3 is represented by the following Chemical Formula 2, the rest being hydrogen; one of Ar 4 to Ar 7 is a substituted or unsubstituted dibenzofuran; or a substituted or unsubstituted dibenzothiophene, the rest being hydrogen, when Ar 1 is represented by the following Chemical Formula 2, Ar 7 is hydrogen, wherein, in Chemical Formula 2, each X is independently N or CH, with the proviso that two or more of X is N, Y 2 is O or S, R 1 to R 3 are each independently hydrogen; deuterium; halogen; hydroxy; cyano; nitro; amino; a substituted or unsubstituted C 1-60 alkyl; a substituted or unsubstituted C 1-60 haloalkyl; a substituted or unsubstituted C 1-60 thioalkyl; a substituted or unsubstituted C 1-60 alkoxy; a substituted or unsubstituted C 1-60 haloalkoxy; a substituted or unsubstituted C 3-60 cycloalkyl; or a substituted or unsubstituted C 2-60 alkenyl, a is an integer from 1 to 3, b is an integer from 1 to 4, and c is an integer from 1 to 5. Y 1 is O or S, one of Ar 1 to Ar 3 is represented by the following Chemical Formula 2, the rest being hydrogen; one of Ar 4 to Ar 7 is a substituted or unsubstituted dibenzofuran; or a substituted or unsubstituted dibenzothiophene, the rest being hydrogen, when Ar 1 is represented by the following Chemical Formula 2, Ar 7 is hydrogen, wherein, in Chemical Formula 2, each X is independently N or CH, with the proviso that two or more of X is N, Y 2 is O or S, R 1 to R 3 are each independently hydrogen; deuterium; halogen; hydroxy; cyano; nitro; amino; a substituted or unsubstituted C 1-60 alkyl; a substituted or unsubstituted C 1-60 haloalkyl; a substituted or unsubstituted C 1-60 thioalkyl; a substituted or unsubstituted C 1-60 alkoxy; a substituted or unsubstituted C 1-60 haloalkoxy; a substituted or unsubstituted C 3-60 cycloalkyl; or a substituted or unsubstituted C 2-60 alkenyl, a is an integer from 1 to 3, b is an integer from 1 to 4, and c is an integer from 1 to 5.
A sander comprising: a housing ; a motor housed in the housing ; a platen configured to be driven by the motor ; a dust chute ; and a dust container ; characterized in that the dust chute contains a one-way valve which allows air to flow in a direction towards the dust container ; and wherein the one-way valve comprises a flap held at a location away from edges of the flap . a housing ; a motor housed in the housing ; a platen configured to be driven by the motor ; a dust chute ; and a dust container ; characterized in that the dust chute contains a one-way valve which allows air to flow in a direction towards the dust container ; and wherein the one-way valve comprises a flap held at a location away from edges of the flap .
A collimator (100; 300; 705) comprising: an adjustable aperture size; and a first pair of knobs configured to adjust the aperture size by manipulating one or both of the first pair of knobs ; wherein the first pair of knobs are each attached to opposite ends of a first shaft , and wherein each of the first pair of knobs is configured to adjust a different dimension of the adjustable aperture . an adjustable aperture size; and a first pair of knobs configured to adjust the aperture size by manipulating one or both of the first pair of knobs ; wherein the first pair of knobs are each attached to opposite ends of a first shaft , and wherein each of the first pair of knobs is configured to adjust a different dimension of the adjustable aperture .
A virtual window display having a total display field of view (FOV), comprising: a plurality of collimated projector modules having contiguous exit pupils, each collimated projector module having a module FOV and comprising: a display device configured to display a spatially modulated image along a flat or curved geometric image surface; and one or more optical lenses sharing a common curvature symmetry axis and configured to optically collimate light from the display device in the collimated projector module; wherein the curvature symmetry axes of the plurality of collimated projector modules point in a plurality of angular directions and are substantially convergent along at least one axis at a finite distance from the plurality of collimated projectors; wherein the virtual display window makes displayed imagery appear to be behind the display device, with parallax behavior consistent with a distant scene; (para 0014) and wherein the total display field of view (FOV) is larger than the module FOV of each of the plurality of collimated projector modules. a plurality of collimated projector modules having contiguous exit pupils, each collimated projector module having a module FOV and comprising: a display device configured to display a spatially modulated image along a flat or curved geometric image surface; and one or more optical lenses sharing a common curvature symmetry axis and configured to optically collimate light from the display device in the collimated projector module; a display device configured to display a spatially modulated image along a flat or curved geometric image surface; and one or more optical lenses sharing a common curvature symmetry axis and configured to optically collimate light from the display device in the collimated projector module; wherein the curvature symmetry axes of the plurality of collimated projector modules point in a plurality of angular directions and are substantially convergent along at least one axis at a finite distance from the plurality of collimated projectors; wherein the virtual display window makes displayed imagery appear to be behind the display device, with parallax behavior consistent with a distant scene; (para 0014) and wherein the total display field of view (FOV) is larger than the module FOV of each of the plurality of collimated projector modules.
A method of allocating resources to at least one wireless node in a wireless communication network, said method comprising the steps of: a) continuously receiving, at a wireless node, assignment of a number of slots, wherein the slots have a fixed slot time, b) obtaining (S1) information regarding physical layer parameters together with said assignment of said number of slots and said slot time, c) extracting (S2) a packet from a packet transmission queue maintained by said wireless node, d) computing (S3), based on the obtained information regarding physical layer parameters, a duration of said packet, e) comparing (S4A, S4B, S4C) said packet duration with said fixed slot time, f) performing in real time at least one of fragmentation (S5C), aggregation (S5A) and reconfiguration (S5B) of said physical layer parameters, depending on the results of said comparison step and/or an amount of packets in said packet transmission queue - and g) mapping (S6) said packet to a first slot of the assigned number of slots; characterized in that, in step f): - it is determined to perform a reconfiguration of said physical layer parameters when said comparison indicates that the packet duration is shorter than said fixed slot time and no further packets are in said packet transmission queue, and/or - it is determined to perform a reconfiguration of said physical layer parameters when said comparison indicates that the packet duration is longer than said fixed slot time. a) continuously receiving, at a wireless node, assignment of a number of slots, wherein the slots have a fixed slot time, b) obtaining (S1) information regarding physical layer parameters together with said assignment of said number of slots and said slot time, c) extracting (S2) a packet from a packet transmission queue maintained by said wireless node, d) computing (S3), based on the obtained information regarding physical layer parameters, a duration of said packet, e) comparing (S4A, S4B, S4C) said packet duration with said fixed slot time, f) performing in real time at least one of fragmentation (S5C), aggregation (S5A) and reconfiguration (S5B) of said physical layer parameters, depending on the results of said comparison step and/or an amount of packets in said packet transmission queue - and - and g) mapping (S6) said packet to a first slot of the assigned number of slots; - it is determined to perform a reconfiguration of said physical layer parameters when said comparison indicates that the packet duration is shorter than said fixed slot time and no further packets are in said packet transmission queue, and/or - it is determined to perform a reconfiguration of said physical layer parameters when said comparison indicates that the packet duration is longer than said fixed slot time.
Cable-driven parallel manipulator comprising: - a support structure; - a cable system mounted on the support structure; and - a mobile platform connected to the cable system whereto a load is attachable; - the cable system being controlled by a control unit to position and orientate the mobile platform and to apply forces and moments on the mobile platform ; and - at least one movable device mounted on the mobile platform ; characterised in that the cable-driven parallel manipulator further comprises : - a control module configured to generate an instruction to move the movable device for displacing an overall center of mass of all of: the mobile platform , the at least one movable device and the load, such that, upon moving the movable device , the overall center of mass is within a predetermined region , wherein the predetermined region is a stability region computed as the center of mass, CoM, feasible region, which comprises a set of locations of the overall center of mass which corresponds to feasible wrenches for which the tension of the cables of the cable system remains within admissible minimum and maximum tensions. - a support structure; - a cable system mounted on the support structure; and - a mobile platform connected to the cable system whereto a load is attachable; - the cable system being controlled by a control unit to position and orientate the mobile platform and to apply forces and moments on the mobile platform ; and - at least one movable device mounted on the mobile platform ; characterised in that the cable-driven parallel manipulator further comprises : - a control module configured to generate an instruction to move the movable device for displacing an overall center of mass of all of: the mobile platform , the at least one movable device and the load, such that, upon moving the movable device , the overall center of mass is within a predetermined region ,
A method of wireless communication, comprising: receiving a downlink, DL, control message using shared radio frequency spectrum band; identifying a format of downlink control information, DCI, of the DL control message; identifying a control channel type of the DL control message from a plurality of control channel types, the plurality of control channel types comprising a first control channel type and a second control channel type; determining a function of the DL control message based at least in part on the identified format of the DCI, wherein the function of the DL control message comprises at least one of an uplink transmission trigger or a frame structure indication; determining an uplink, LTL, transmission based at least in part on the function of the DL control message; determining a starting time for the determined UL transmission based at least in part on the control channel type, wherein the first control channel type corresponds to the starting time being a first starting time at a first time resource and the second control channel type corresponds to the starting time being a second starting time at a second time resource; and transmitting the UL transmission at the determined starting time. receiving a downlink, DL, control message using shared radio frequency spectrum band; identifying a format of downlink control information, DCI, of the DL control message; identifying a control channel type of the DL control message from a plurality of control channel types, the plurality of control channel types comprising a first control channel type and a second control channel type; determining a function of the DL control message based at least in part on the identified format of the DCI, wherein the function of the DL control message comprises at least one of an uplink transmission trigger or a frame structure indication; determining an uplink, LTL, transmission based at least in part on the function of the DL control message; determining a starting time for the determined UL transmission based at least in part on the control channel type, wherein the first control channel type corresponds to the starting time being a first starting time at a first time resource and the second control channel type corresponds to the starting time being a second starting time at a second time resource; and transmitting the UL transmission at the determined starting time.