mhurhangee/patent-ind-claim-en huggingface dataset:
Terminal block for an electrical distribution system, in particular for connecting protective and neutral conductors, comprising a busbar and a plurality of conductor connection devices for connecting in each case at least one conductor to be connected, said conductor connection devices being associated with the busbar and having in each case at least one conductor rail , wherein in each case a conductive connection is provided between the respective conductor rail and the busbar , wherein in each case an isolating device which can be opened and closed is provided between some or all of the conductor connection devices and the busbar , so that the respective conductive connection between the conductor rail and the busbar can be isolated and can be closed, characterized in that one or more of the isolating devices has a movable blade contact and one or more contact forks/tulip contacts , into which the respective blade contact can be moved in order to close the conductive connection arranged between the conductor rail and the busbar , and out of which it can be moved in order to isolate said conductive connection.
A system for replacing a native heart valve, the system comprising: an expansible helical anchor formed as multiple coils adapted to support a heart valve prosthesis , at least one of the coils being normally being at a first diameter, and being expandable to a second, larger diameter upon application of radial outward force from within the helical anchor ; an expansible heart valve prosthesis capable of being delivered into the helical anchor and expanded inside the multiple coils into engagement with the at least one coil to move the at least one coil from the first diameter to the second diameter while securing the helical anchor and the heart valve prosthesis together, wherein the expansible heart valve prosthesis includes a blood inflow end and a blood outflow end, characterized in that the system further comprises: a seal on the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor , wherein the blood outflow end of the heart valve prosthesis includes a bumper for preventing damage to tissue structure in the heart after implantation, the bumper comprising an internal layer covered by a sealing layer , the sealing layer covering an outflow portion of the expansible heart valve prosthesis . an expansible helical anchor formed as multiple coils adapted to support a heart valve prosthesis , at least one of the coils being normally being at a first diameter, and being expandable to a second, larger diameter upon application of radial outward force from within the helical anchor ; an expansible heart valve prosthesis capable of being delivered into the helical anchor and expanded inside the multiple coils into engagement with the at least one coil to move the at least one coil from the first diameter to the second diameter while securing the helical anchor and the heart valve prosthesis together, wherein the expansible heart valve prosthesis includes a blood inflow end and a blood outflow end, characterized in that the system further comprises: a seal on the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor , wherein the blood outflow end of the heart valve prosthesis includes a bumper for preventing damage to tissue structure in the heart after implantation, the bumper comprising an internal layer covered by a sealing layer , the sealing layer covering an outflow portion of the expansible heart valve prosthesis . a seal on the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor , wherein the blood outflow end of the heart valve prosthesis includes a bumper for preventing damage to tissue structure in the heart after implantation, the bumper comprising an internal layer covered by a sealing layer , the sealing layer covering an outflow portion of the expansible heart valve prosthesis .
A user equipment, UE, comprising: first circuitry to determine a physical layer cell identity corresponding to a cell of an evolved universal mobile telecommunication system terrestrial radio access network, E- UTRAN; second circuitry to receive: radio resource control signalling that semi-statically configures a list of virtual cell identities, downlink control information from a Physical Downlink Control Channel, wherein the downlink control information carries an index which dynamically selects one of the virtual cell identities of said list; and third circuitry to: generate a demodulation reference signal, DM-RS, parameter based on the selected virtual cell identity, wherein the DM-RS parameter is a seed, wherein the seed is used to derive a base sequence for a DM-RS in a manner according with 3GPP LTE Release 10; determine a cyclic shift for the DM-RS, wherein the cyclic shift is determined using a cyclic shift parameter signaled to the UE independently of the selected virtual cell identity. first circuitry to determine a physical layer cell identity corresponding to a cell of an evolved universal mobile telecommunication system terrestrial radio access network, E- UTRAN; second circuitry to receive: radio resource control signalling that semi-statically configures a list of virtual cell identities, downlink control information from a Physical Downlink Control Channel, wherein the downlink control information carries an index which dynamically selects one of the virtual cell identities of said list; and radio resource control signalling that semi-statically configures a list of virtual cell identities, downlink control information from a Physical Downlink Control Channel, wherein the downlink control information carries an index which dynamically selects one of the virtual cell identities of said list; and third circuitry to: generate a demodulation reference signal, DM-RS, parameter based on the selected virtual cell identity, wherein the DM-RS parameter is a seed, wherein the seed is used to derive a base sequence for a DM-RS in a manner according with 3GPP LTE Release 10; determine a cyclic shift for the DM-RS, wherein the cyclic shift is determined using a cyclic shift parameter signaled to the UE independently of the selected virtual cell identity. generate a demodulation reference signal, DM-RS, parameter based on the selected virtual cell identity, wherein the DM-RS parameter is a seed, wherein the seed is used to derive a base sequence for a DM-RS in a manner according with 3GPP LTE Release 10; determine a cyclic shift for the DM-RS, wherein the cyclic shift is determined using a cyclic shift parameter signaled to the UE independently of the selected virtual cell identity.
Industrial truck having an object recognition unit which has a video camera and a distance sensor, the object recognition unit being adapted to determine a match in the recorded images of the video camera for at least one object, the object recognition unit having a predetermined set of templates which stand for objects to be recognised and the recognition of the object being carried out via one of the templates , wherein the template being scaled in its dimensions with constant aspect ratios and the image being scanned with the scaled template, so that information about a spatial distance to the detected object is determined from the aspect ratios of the scaled template if it matches the scaled template, and wherein the object recognition unit is adapted to check the plausibility of the distance value detected from the recorded image or images of the video camera with the aid of the distance sensor, wherein a perspective transformation of the object in space is also detected from the distance data detected by the distance sensor and the template of the object to be recognised is adapted accordingly in a perspective transformation.
An internal line-up clamp for holding two pipes in alignment so that the pipes may be welded together, wherein the clamp includes a plurality of welding support blocks , wherein each welding support block is a welding support block for supporting, from the rear surface of a joint to be welded, a weld pool created during the welding process, being characterised in that each welding support block comprises a block of metal and a layer of ceramic material arranged to provide thermal insulation between the block of metal and the weld pool, wherein the ceramic material layer has a thickness between 0.25mm and 1.5mm, and the metal material immediately beneath the ceramic material layer is made of steel. each welding support block comprises a block of metal and a layer of ceramic material arranged to provide thermal insulation between the block of metal and the weld pool, wherein the ceramic material layer has a thickness between 0.25mm and 1.5mm, and the metal material immediately beneath the ceramic material layer is made of steel.
Removal device to remove liquid carbon dioxide from a fabric usable inside a treatment chamber under pressure, whereby said treatment chamber is suitable to wash said fabric in a bath of liquid carbon dioxide in order to remove apolar substances from it, characterized in that said removal device comprises a mechanical removal member , suitable to exert a mechanical action on the fabric in order to remove a part of the carbon dioxide trapped in the fibers, and a thermal removal member configured to heat the fabric and make the residual part of the carbon dioxide still trapped in the fibers evaporate.
An electronic device (101;201;301;401) comprising: a first antenna ; a first band filtering unit connected to the first antenna; a second antenna ; a second band filtering unit connected to the second antenna; a processor configured to: identify at least one of a first frequency band and a second frequency band filtered by the first band filtering unit; identify at least one of the second frequency band and a third frequency band filtered by the second band filtering unit; control the first band filtering unit to receive a first radio frequency, RF, signal in the second frequency band from the first antenna; and control the second band filtering unit to receive a second RF signal in the second frequency band from the second antenna; and a pre-processing unit configured to: generate a pre-processed signal by combining the first RF signal and the second RF signal based on a ratio of a weight factor; and transmit, to a first RF receiver , the pre-processed signal. a first antenna ; a first band filtering unit connected to the first antenna; a second antenna ; a second band filtering unit connected to the second antenna; a processor configured to: identify at least one of a first frequency band and a second frequency band filtered by the first band filtering unit; identify at least one of the second frequency band and a third frequency band filtered by the second band filtering unit; control the first band filtering unit to receive a first radio frequency, RF, signal in the second frequency band from the first antenna; and control the second band filtering unit to receive a second RF signal in the second frequency band from the second antenna; and a pre-processing unit configured to: generate a pre-processed signal by combining the first RF signal and the second RF signal based on a ratio of a weight factor; and transmit, to a first RF receiver , the pre-processed signal. identify at least one of a first frequency band and a second frequency band filtered by the first band filtering unit; identify at least one of the second frequency band and a third frequency band filtered by the second band filtering unit; control the first band filtering unit to receive a first radio frequency, RF, signal in the second frequency band from the first antenna; and control the second band filtering unit to receive a second RF signal in the second frequency band from the second antenna; and a pre-processing unit configured to: generate a pre-processed signal by combining the first RF signal and the second RF signal based on a ratio of a weight factor; and transmit, to a first RF receiver , the pre-processed signal. generate a pre-processed signal by combining the first RF signal and the second RF signal based on a ratio of a weight factor; and transmit, to a first RF receiver , the pre-processed signal.
Microfibre composite nonwoven comprising at least one ply S which comprises a first fibre component, and comprising at least one ply M which comprises a second fibre component, where the second fibre component has at least to some extent penetrated into the ply S, where the fibres of the first fibre component are melt-spun composite filaments which have been laid to give a web and which at least to some extent have been split into elemental filaments with average linear density less than 1 dtex, and consolidated, characterized in that the fibres of the second fibre component are melt-blown fibres.
A method for manufacturing an electrical steel sheet, comprising: applying a treatment solution on a surface of a base iron having a centerline average roughness in the rolling direction and orthogonal thereto of 1.0 μm or lower, measured according to JISB0601; and baking and drying the treatment solution, wherein the treatment solution contains: a first component containing a metal phosphate: 100 parts by mass; and a second component composed of particles of one or more kinds selected from a group consisting of a polyolefin wax, an epoxy resin and an acrylic resin, the particles having an average particle size of 2.0 μm to 15.0 μm measured by laser diffraction method according to JIS Z8826 and a melting point of 60°C to 140°C measured according to JIS K7121 5 parts by mass to 45 parts by mass in resin solid content, and wherein an insulating film , having a structure in which particles of the second component are dispersed and fixed in a base formed by solidification of the first component is formed on the base iron by baking and drying the treatment solution. applying a treatment solution on a surface of a base iron having a centerline average roughness in the rolling direction and orthogonal thereto of 1.0 μm or lower, measured according to JISB0601; and baking and drying the treatment solution, wherein the treatment solution contains: a first component containing a metal phosphate: 100 parts by mass; and a second component composed of particles of one or more kinds selected from a group consisting of a polyolefin wax, an epoxy resin and an acrylic resin, the particles having an average particle size of 2.0 μm to 15.0 μm measured by laser diffraction method according to JIS Z8826 and a melting point of 60°C to 140°C measured according to JIS K7121 5 parts by mass to 45 parts by mass in resin solid content, and wherein an insulating film , having a structure in which particles of the second component are dispersed and fixed in a base formed by solidification of the first component is formed on the base iron by baking and drying the treatment solution. a first component containing a metal phosphate: 100 parts by mass; and a second component composed of particles of one or more kinds selected from a group consisting of a polyolefin wax, an epoxy resin and an acrylic resin, the particles having an average particle size of 2.0 μm to 15.0 μm measured by laser diffraction method according to JIS Z8826 and a melting point of 60°C to 140°C measured according to JIS K7121 5 parts by mass to 45 parts by mass in resin solid content, and wherein an insulating film , having a structure in which particles of the second component are dispersed and fixed in a base formed by solidification of the first component is formed on the base iron by baking and drying the treatment solution.
A gas turbine engine component comprising: a casing ; an airfoil fixed to the casing to extend from a leading edge to a trailing edge , the component having a pressure side and a suction side ; and a trench formed within the casing adjacent the suction side of the component , wherein the trench is defined by a length extending in a longitudinal direction from the leading edge to the trailing edge and a width extending in a lateral direction from the airfoil toward an adjacent airfoil fixed to the casing , the trench has a maximum depth that is positioned at or aft of the leading edge , and a depth of the trench gradually decreases in an aft direction from the maximum depth and terminates at a location aft of the trailing edge of the airfoil , wherein the width of the trench is less than a distance between the airfoil and the adjacent airfoil such that the trench does not completely span the distance between adjacent airfoils, wherein the airfoil has an airfoil length extending from the leading edge to the trailing edge , and wherein the maximum depth is located within a range of 4% to 10% of the airfoil length relative to the leading edge . a casing ; an airfoil fixed to the casing to extend from a leading edge to a trailing edge , the component having a pressure side and a suction side ; and a trench formed within the casing adjacent the suction side of the component , wherein the trench is defined by a length extending in a longitudinal direction from the leading edge to the trailing edge and a width extending in a lateral direction from the airfoil toward an adjacent airfoil fixed to the casing , the trench has a maximum depth that is positioned at or aft of the leading edge , and a depth of the trench gradually decreases in an aft direction from the maximum depth and terminates at a location aft of the trailing edge of the airfoil , wherein the width of the trench is less than a distance between the airfoil and the adjacent airfoil such that the trench does not completely span the distance between adjacent airfoils,
Assembly for an aircraft , said assembly comprising: - a pylon having a bearing face and a contact face oriented away from the bearing face, - an engine mount having a bearing face and a contact face oriented away from the bearing face, where the contact face of the engine mount bears against the contact face of the pylon , - at least two bolts , each one comprising a threaded stem with a head and a nut bearing against the bearing face of the engine mount , - for each head , a bearing washer with a first bearing face and a second bearing face, where the second bearing face of the bearing washer bears against the bearing face of the pylon , and where the head bears against the first bearing face of the bearing washer , - a shoe , and - for each bearing washer , a clamp that is secured to the shoe and comprises a first branch and a second branch between which the bearing washer is clamped and is free to rotate about its axis. - a pylon having a bearing face and a contact face oriented away from the bearing face, - an engine mount having a bearing face and a contact face oriented away from the bearing face, where the contact face of the engine mount bears against the contact face of the pylon , - at least two bolts , each one comprising a threaded stem with a head and a nut bearing against the bearing face of the engine mount , - for each head , a bearing washer with a first bearing face and a second bearing face, where the second bearing face of the bearing washer bears against the bearing face of the pylon , and where the head bears against the first bearing face of the bearing washer , - a shoe , and - for each bearing washer , a clamp that is secured to the shoe and comprises a first branch and a second branch between which the bearing washer is clamped and is free to rotate about its axis.
A signal transmitting method performed by a base station (100-2) for use in a wireless communication system comprising a first communication system and a second communication system, the method comprising: obtaining information on a location of a reference signal or a control signal for the first communication system, the information including at least one of information on a number of cell specific reference signal, CRS, port, information on a bandwidth of the first communication system, information on a number of control symbol, or information on a cell ID; identifying the location of the reference signal or the control signal for the first communication system based on the received information, when a transmission band of the first communication system and a transmission band of the second communication system overlap each other; puncturing a signal for the second communication system based on the identified location of the reference signal or the control signal for the first communication system; and transmitting the punctured signal for the second communication system. obtaining information on a location of a reference signal or a control signal for the first communication system, the information including at least one of information on a number of cell specific reference signal, CRS, port, information on a bandwidth of the first communication system, information on a number of control symbol, or information on a cell ID; identifying the location of the reference signal or the control signal for the first communication system based on the received information, when a transmission band of the first communication system and a transmission band of the second communication system overlap each other; puncturing a signal for the second communication system based on the identified location of the reference signal or the control signal for the first communication system; and transmitting the punctured signal for the second communication system.
Improvement to illuminated sports net, wherein the improvement comprises a set disclosing a case which accommodates a LED (L), wherein the case discloses a bottom with a conical hole , wherein the case is composed by side walls , transverse walls , and chamfered vertexes with upper holes wherein the side walls are respectively provided with a respective recess on an edge , and with through cut-outs that align in a substantially parallel direction with each of the recesses of the edge , wherein the transverse walls are provided similarly with minor cut-outs , wherein the through cut-outs and the minor cut-outs give access to an inner cradle which discloses inner support walls for pivot pins , wherein pivot pins are provided inside of the inner cradle and are respectively surrounded by respective eyes of folded and seamed ends of support strips and side strips , wherein each of the side strips is provided with a protective strip joined to it by a seam (CO), so that each of the protective strips surrounds a cable harness (CH) which extends to the inside of the case , wherein the set also discloses a cover with flaps with recesses delimiting the cover , and the cover also has holes for screws , in which the respective free ends of the protective strips are kept inside the box by overlapping the edge with the flaps provided with recesses delimiting the cover , where the cover is fixed to the upper holes by screws inserted through the screw holes for the screws.