mhurhangee/patent-ind-claim-en huggingface dataset:
A system for mesh onlay fixation to a fascial incision, comprising: a mesh strip integrated with a plurality of uni-directional fasteners , each fastener including a mating interface component and an anchoring mechanism adapted for affixation to anterior abdominal wall fascia; an applicator comprising tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) adapted to interface with the mating interface components of the fasteners to maintain a vertical tension of the mesh strip and a handle coupled with the tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) adapted to spread the tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) and thereby control a horizontal tension of the mesh strip ; wherein the mesh strip is configured to be aligned over a fascial incision using the applicator and affixed under tension to anterior abdominal wall fascia by tissue penetration of the anchoring mechanisms of the plurality of fasteners ; characterized in that each fastener includes a bottom component adapted to be attached to the mating interface component on an opposite side of the mesh strip . a mesh strip integrated with a plurality of uni-directional fasteners , each fastener including a mating interface component and an anchoring mechanism adapted for affixation to anterior abdominal wall fascia; an applicator comprising tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) adapted to interface with the mating interface components of the fasteners to maintain a vertical tension of the mesh strip and a handle coupled with the tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) adapted to spread the tension arms (210a, 210b; 510a, 510b, 1510a, 1510b, 3301a, 3301b, 3401a, 3401b) and thereby control a horizontal tension of the mesh strip ; wherein the mesh strip is configured to be aligned over a fascial incision using the applicator and affixed under tension to anterior abdominal wall fascia by tissue penetration of the anchoring mechanisms of the plurality of fasteners ;
Vaporizer cartridge as a component of an inhaler, comprising a hollow body with a continuous flow channel as well as a storage tank for storing liquid, wherein the storage tank has at least one access opening to the flow channel and a vaporizer unit extending over the entire access opening is arranged in the region of each access opening , which vaporizer unit has a wick member and a heating member , wherein the vaporizer unit is formed to be liquid-permeable in such a manner that liquid can be conveyed at least initially in a capillary manner from the storage tank through the vaporizer unit in the direction of the flow channel , characterised in that the wick member is formed from a plurality of granular loose grains which, as a result of their fill and/or formation, form microchannels which extend, for the establishment of a fluid connection between the storage tank and the flow channel , continuously from an entry side E D of the wick member to an exit side A D of the wick member , wherein an additional securing means is provided which is configured and adapted to hold the granular wick member in position in the region of the access opening in a manner which maintains the fluid connection.
A method of rendering a stored file inaccessible, comprising: generating and storing a unique encryption key in a remote key server ; in a data archiving system , storing the file by: assembling a set of metadata and a unique file content identifier associated with the file; creating an asset by encrypting the file, including obtaining the unique encryption key from the remote key server and associating the key with the file; and storing the asset in a storage array , wherein the unique file content identifier is used as a content addressable storage index identifying the asset; creating a data record associating the metadata associated with the file with the stored asset; creating, at a disposition agent , a disposition manifest listing the asset stored in the storage array marked for deletion; sending the disposition manifest to the remote key server; obtaining, at the disposition agent , authorization from the remote key server to render the asset inaccessible prior to rendering the asset inaccessible; and rendering, at the disposition agent , the asset inaccessible by selectively deleting the key associated with the file. generating and storing a unique encryption key in a remote key server ; in a data archiving system , storing the file by: assembling a set of metadata and a unique file content identifier associated with the file; creating an asset by encrypting the file, including obtaining the unique encryption key from the remote key server and associating the key with the file; and storing the asset in a storage array , wherein the unique file content identifier is used as a content addressable storage index identifying the asset; assembling a set of metadata and a unique file content identifier associated with the file; creating an asset by encrypting the file, including obtaining the unique encryption key from the remote key server and associating the key with the file; and storing the asset in a storage array , wherein the unique file content identifier is used as a content addressable storage index identifying the asset; creating a data record associating the metadata associated with the file with the stored asset; creating, at a disposition agent , a disposition manifest listing the asset stored in the storage array marked for deletion; sending the disposition manifest to the remote key server; obtaining, at the disposition agent , authorization from the remote key server to render the asset inaccessible prior to rendering the asset inaccessible; and rendering, at the disposition agent , the asset inaccessible by selectively deleting the key associated with the file.
RJ plug connector device with at least one wiring block which is configured for receiving at least one multi-wire data cable and which comprises at least one receiving region for receiving at least one wire of the at least one data cable , characterised in that the at least one wiring block comprises at least one drain wire receiving element , which is arranged at least partly on an outer side of the at least one wiring block and is configured for receiving a drain wire of the data cable and for guiding said drain wire at least partly in an axial direction and in a radial direction , wherein the wiring block is configured, in assembly, to be inserted into a plug connector, wherein the at least one wire of the data cable is contactable by at least one insulation displacement termination contact. characterised in that the at least one wiring block comprises at least one drain wire receiving element , which is arranged at least partly on an outer side of the at least one wiring block and is configured for receiving a drain wire of the data cable and for guiding said drain wire at least partly in an axial direction and in a radial direction , wherein the wiring block is configured, in assembly, to be inserted into a plug connector, wherein the at least one wire of the data cable is contactable by at least one insulation displacement termination contact.
A system for interrogating an interferometer , the system comprising: an optical signals generation system for concurrently generating a plurality of optical signals that each have a different modulation parameter and optically coupling each of the plurality of optical signals to a plurality of optical ports of the interferometer for ingress of the plurality of optical signals into the interferometer ; and an interferometer output processing system configured to determine a plurality of transfer values indicative of the fractional power distribution of each optical signal at each of the plurality of optical ports by exploiting the different modulation parameter of each of the plurality of optical signals, the interferometer output processing system being configured to determine an ingress optical power and an egress optical power (O1, O2, O3) at each of the plurality of ports, and further configured to determine an optical phase shift generated within the interferometer using the plurality of transfer values, the ingress optical power and the egress optical power at each of the plurality of optical ports , wherein the plurality of optical signals when so generated have different amplitude modulation frequencies and the interferometer output processing system is configured to generate the fractional distribution by measuring different frequency components in the plurality of optical signals generated by the different amplitude modulation frequencies. an optical signals generation system for concurrently generating a plurality of optical signals that each have a different modulation parameter and optically coupling each of the plurality of optical signals to a plurality of optical ports of the interferometer for ingress of the plurality of optical signals into the interferometer ; and an interferometer output processing system configured to determine a plurality of transfer values indicative of the fractional power distribution of each optical signal at each of the plurality of optical ports by exploiting the different modulation parameter of each of the plurality of optical signals, the interferometer output processing system being configured to determine an ingress optical power and an egress optical power (O1, O2, O3) at each of the plurality of ports, and further configured to determine an optical phase shift generated within the interferometer using the plurality of transfer values, the ingress optical power and the egress optical power at each of the plurality of optical ports , wherein the plurality of optical signals when so generated have different amplitude modulation frequencies and the interferometer output processing system is configured to generate the fractional distribution by measuring different frequency components in the plurality of optical signals generated by the different amplitude modulation frequencies.
Method for vibration compensation in a reciprocating compressor, the piston compressor of which is driven by means of a crankshaft of a three-phase motor controlled by a frequency converter , characterised in that the current angular position of the crankshaft of the piston compressor is determined, and, based on this, a torque (M M ) that follows the load moment (M L ) of the piston compressor is prescribed by the frequency converter for the three-phase motor in order to reduce the vibration excitation of the reciprocating compressor as a whole, wherein the torque (M M ) prescribed for the three-phase motor corresponds to the first order of the load moment profile of the piston compressor .
Method for locating a disturbance of a system for which an unmanned flight device flies over the system and takes pictures of the system , and visual information obtained from image data is sent to an operator who operates the flight device from the ground, characterized in that the operator detects the disturbance from the visual information and triggers a signal , and the signal triggers the transmission of the geographic coordinates of the unmanned flight device and an image of the disturbance to a ground-based server .
A heat transfer and thermal storage medium of nano molten salt, which is characterized in that it is compounded and obtained by dispersing metal oxide nanoparticles into a molten salt system, wherein said metal oxide nanoparticles are ZnO, Al 2 O 3 , TiO 2 , and/or MgO nanoparticles, wherein the average particle diameter of said nanoparticles is 10-30 nm, and wherein said molten salt system is a ternary nitrate molten salt system formed of potassium nitrate, sodium nitrate and sodium nitrite, wherein the ratio of portions by weight of each component of the heat transfer and thermal storage medium are: potassium nitrate 20-60 portions, sodium nitrate 8-20 portions, sodium nitrite 10-50 portions and nanoparticles 1-5 portions, or wherein said molten salt system is a polybasic nitrate molten salt system composed of potassium nitrate, sodium nitrate, sodium nitrite and cesium nitrate, wherein the content of mass percentage of each component in said heat transfer and thermal storage medium, respectively, are: potassium nitrate 20%-60%, sodium nitrate 10%-20%, sodium nitrite 10%-50%, cesium nitrate 5%-10%, and wherein the nanoparticles are 1%-5% of the total mass of said polybasic nitrate molten salt system.
Method performed by a network entity for establishing network cells in a wireless communication system , wherein the network entity provides wireless network coverage to a plurality of network cells , the method comprising method steps of: - identifying a need of establishing network cells , - accessing a network cell establishment list , wherein the network cell establishment list defines a number of network cells and an order in which the network cells are to be established, wherein the order in which the network cells are to be established is at least partially based on if a network cell is classified as an access network cell, a capacity network cell, or as an emergency call network cell, and - establishing network cells in accordance with the order provided by the network cell establishment list . - identifying a need of establishing network cells , - accessing a network cell establishment list , wherein the network cell establishment list defines a number of network cells and an order in which the network cells are to be established, wherein the order in which the network cells are to be established is at least partially based on if a network cell is classified as an access network cell, a capacity network cell, or as an emergency call network cell, and - establishing network cells in accordance with the order provided by the network cell establishment list .
A connector assembly comprising: a first member ; a threaded shaft disposed about an axis ; and a nut threadably engaged with the threaded shaft , wherein the nut includes a plurality of radially outward extending protrusions or serrations ; and the connector assembly being characterized in that it further comprises a set of axially facing first teeth non-rotatably coupled to the first member ; a set of second teeth configured to mate with the first teeth , the second teeth being coupled to the threaded shaft for axial movement relative to the threaded shaft and for common rotation with the threaded shaft ; and a tab that is non-rotatable relative to the first member , the tab engaging the protrusions or serrations to inhibit rotation of the nut relative to the first member . a first member ; a threaded shaft disposed about an axis ; and a nut threadably engaged with the threaded shaft , wherein the nut includes a plurality of radially outward extending protrusions or serrations ; and the connector assembly being characterized in that it further comprises a set of axially facing first teeth non-rotatably coupled to the first member ; a set of second teeth configured to mate with the first teeth , the second teeth being coupled to the threaded shaft for axial movement relative to the threaded shaft and for common rotation with the threaded shaft ; and a tab that is non-rotatable relative to the first member , the tab engaging the protrusions or serrations to inhibit rotation of the nut relative to the first member .
Discharge system for discharging a plurality of flexible containers from a tubular storage assembly, wherein each of the containers comprises a dispensing spout and wherein the storage assembly comprises a plurality of elongated guiding elements onto which a plurality of rows of dispensing spouts can be carried, wherein the guiding elements are configured to be maintained in a substantially tubular arrangement while the containers extend in a generally helical trajectory in the interior formed by the tubular arrangement, the discharge system having an axial direction (Pp) and comprising: - a storage assembly support configured to support the tubular storage assembly, the guiding elements extending in said axial direction; - a discharge device configured to remove the containers from the tubular storage assembly and move the containers one by one from the second end of the tubular storage assembly towards a discharge region, wherein the discharge device comprises: - a gripper unit ; - a drive configured to cause the storage assembly and the gripper unit to rotate relative to each other; wherein the gripper unit is configured to grip dispensing spouts of containers successively passing by the gripper unit, to transport the gripped dispensing spouts and associated containers in essentially the axial direction (Pp) and to collect the dispensing spouts in the discharge region. - a storage assembly support configured to support the tubular storage assembly, the guiding elements extending in said axial direction; - a discharge device configured to remove the containers from the tubular storage assembly and move the containers one by one from the second end of the tubular storage assembly towards a discharge region, wherein the discharge device comprises: - a gripper unit ; - a drive configured to cause the storage assembly and the gripper unit to rotate relative to each other; wherein the gripper unit is configured to grip dispensing spouts of containers successively passing by the gripper unit, to transport the gripped dispensing spouts and associated containers in essentially the axial direction (Pp) and to collect the dispensing spouts in the discharge region. - a gripper unit ; - a drive configured to cause the storage assembly and the gripper unit to rotate relative to each other;
A light emitting device , comprising: a light emitting structure comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer disposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; a first electrode disposed on the first conductivity type semiconductor layer ; and a second electrode disposed on the second conductivity type semiconductor layer , wherein the light emitting structure comprises a mesa etching region (M) where the second conductivity type semiconductor layer , the active layer , and the first conductivity type semiconductor layer are partially etched, thereby exposing a portion of the first conductivity type semiconductor layer , wherein the first electrode is disposed on the exposed portion of the first conductivity type semiconductor layer in the mesa etching region (M), and wherein a first transparent electrode layer is disposed on the unetched portion of the second conductivity type semiconductor layer and between the second conductivity type semiconductor layer and the second electrode , characterized in that the first electrode layer is not disposed over the mesa etching region (M), a second electrode layer is disposed on the first electrode layer and over a portion of the mesa etching region (M) toward an end portion of the second electrode , and the second electrode layer is disposed on portions of the first electrode layer spaced from each other at opposite sides of the mesa etching region (M). a light emitting structure comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer disposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; a first electrode disposed on the first conductivity type semiconductor layer ; and a second electrode disposed on the second conductivity type semiconductor layer , wherein the light emitting structure comprises a mesa etching region (M) where the second conductivity type semiconductor layer , the active layer , and the first conductivity type semiconductor layer are partially etched, thereby exposing a portion of the first conductivity type semiconductor layer , wherein the first electrode is disposed on the exposed portion of the first conductivity type semiconductor layer in the mesa etching region (M), and wherein a first transparent electrode layer is disposed on the unetched portion of the second conductivity type semiconductor layer and between the second conductivity type semiconductor layer and the second electrode , characterized in that the first electrode layer is not disposed over the mesa etching region (M), a second electrode layer is disposed on the first electrode layer and over a portion of the mesa etching region (M) toward an end portion of the second electrode , and the second electrode layer is disposed on portions of the first electrode layer spaced from each other at opposite sides of the mesa etching region (M).
A power apparatus comprising: a first 3-phase synchronous motor comprising a rotor; a second 3-phase synchronous motor comprising a rotor, and connected in parallel with the first motor; a driver configured to supply driving currents to the first and second motors; a speed calculator configured to calculate a rotating speed of the first motor and a rotating speed of the second motor; and a controller configured to control the driver to supply the driving currents according to the rotating speed of the first motor when the rotating speed of the first motor and the rotating speed of the second motor are the same, characterized in that the controller is configured to: provide a first output based on a difference between the rotating speed of the first motor and the rotating speed of the second motor, provide a second output based on a comparison result between a location of the rotor of the first motor and a location of the rotor of the second motor, provide a third output based on the first output and the second output, and control the driver to supply the driving currents according to the third output when the rotating speed of the first motor and the rotating speed of the second motor are different from each other. a first 3-phase synchronous motor comprising a rotor; a second 3-phase synchronous motor comprising a rotor, and connected in parallel with the first motor; a driver configured to supply driving currents to the first and second motors; a speed calculator configured to calculate a rotating speed of the first motor and a rotating speed of the second motor; and a controller configured to control the driver to supply the driving currents according to the rotating speed of the first motor when the rotating speed of the first motor and the rotating speed of the second motor are the same, characterized in that the controller is configured to: provide a first output based on a difference between the rotating speed of the first motor and the rotating speed of the second motor, provide a second output based on a comparison result between a location of the rotor of the first motor and a location of the rotor of the second motor, provide a third output based on the first output and the second output, and control the driver to supply the driving currents according to the third output when the rotating speed of the first motor and the rotating speed of the second motor are different from each other. provide a first output based on a difference between the rotating speed of the first motor and the rotating speed of the second motor, provide a second output based on a comparison result between a location of the rotor of the first motor and a location of the rotor of the second motor, provide a third output based on the first output and the second output, and control the driver to supply the driving currents according to the third output when the rotating speed of the first motor and the rotating speed of the second motor are different from each other.