mhurhangee/patent-ind-claim-en huggingface dataset:
A harvester comprising: a pair of oppositely facing sidewalls ; a pickup assembly ; a bale chamber , positioned between the pair of sidewalls , comprising a crop inlet at the front end of the bale chamber , and an outlet at the rear end of the bale chamber ; a crop supply chamber , positioned between the pair of sidewalls and in front of the bale chamber , comprising a supply inlet at the bottom of the crop supply chamber ; characterized in that the crop supply chamber further comprising a movable control surface positioned within the crop supply chamber ; and in that the harvester further comprising a conveyor system , positioned between the front of the crop inlet of the bale chamber and the pickup assembly , further positioned below the supply inlet of the crop supply chamber ; wherein the conveyor system comprises a front roller , a rear roller , at least one conveyor belt , capable of endless rotation around the front and rear rollers; wherein the crop supply chamber further comprises a front wall , a rear wall , and a storage volume ; wherein the storage volume is defined by the space between the front wall , the rear wall , the pair of oppositely facing sidewalls , the control surface and the supply inlet ; and wherein the control surface is able to move to a higher position in between the front wall and the real wall , thus increasing the size of the storage volume ; and to a lower position in between the front wall and the rear wall , thus decreasing the size of the storage volume . a pair of oppositely facing sidewalls ; a pickup assembly ; a bale chamber , positioned between the pair of sidewalls , comprising a crop inlet at the front end of the bale chamber , and an outlet at the rear end of the bale chamber ; a crop supply chamber , positioned between the pair of sidewalls and in front of the bale chamber , comprising a supply inlet at the bottom of the crop supply chamber ; characterized in that the crop supply chamber further comprising a movable control surface positioned within the crop supply chamber ; and in that the harvester further comprising a conveyor system , positioned between the front of the crop inlet of the bale chamber and the pickup assembly , further positioned below the supply inlet of the crop supply chamber ; wherein the conveyor system comprises a front roller , a rear roller , at least one conveyor belt , capable of endless rotation around the front and rear rollers; wherein the crop supply chamber further comprises a front wall , a rear wall , and a storage volume ; wherein the storage volume is defined by the space between the front wall , the rear wall , the pair of oppositely facing sidewalls , the control surface and the supply inlet ; and wherein the control surface is able to move to a higher position in between the front wall and the real wall , thus increasing the size of the storage volume ; and to a lower position in between the front wall and the rear wall , thus decreasing the size of the storage volume .
An implant comprising a metallic and/or ceramic component and an osseointegrative and anti-microbial surface (multi)layer structure on its surface comprising at least one osseointegrative and anti-microbial layer wherein the osseointegrative and anti-microbial layer comprises lanthanum aluminate.
A tunnel wind turbine with a horizontal axis of the rotor rotation, including: - a diffuser in the form of a rotational body the wall of which has, in its axial section, the shape of a convex-concave aeronautical profile with a nose designed to be directed towards inflowing air and which is supported by a wind direction bearing set of a vertical rotation axis on the turbine mast, and - a rotor with blades rotating in the plane of a throat (R t ) of the diffuser and lower ends are connected with a hub bearing mounted coaxially with the diffuser and having a contour consistent with an aerodynamic profile of a nacelle which is connected by ribs with the diffuser , characterised in that the lower ends of the blades are set away from the surface of the hub by the dimension of the lower gap (z2), the dimension being determined by the height of the connectors mounted to the lower ends of the blades and to the hub , the dimensions of the upper gap (z1) between the upper ends of the blades and the surface of the throat (R t ) and the lower gap (z2) range from 0.5 to 15% of the radius of the throat (R t ), preferably from 3 to 8%. - a diffuser in the form of a rotational body the wall of which has, in its axial section, the shape of a convex-concave aeronautical profile with a nose designed to be directed towards inflowing air and which is supported by a wind direction bearing set of a vertical rotation axis on the turbine mast, and - a rotor with blades rotating in the plane of a throat (R t ) of the diffuser and lower ends are connected with a hub bearing mounted coaxially with the diffuser and having a contour consistent with an aerodynamic profile of a nacelle which is connected by ribs with the diffuser , characterised in that the lower ends of the blades are set away from the surface of the hub by the dimension of the lower gap (z2), the dimension being determined by the height of the connectors mounted to the lower ends of the blades and to the hub , the dimensions of the upper gap (z1) between the upper ends of the blades and the surface of the throat (R t ) and the lower gap (z2) range from 0.5 to 15% of the radius of the throat (R t ), preferably from 3 to 8%.
A water purifying apparatus, comprising: a filter configured to purify incoming water and to discharge the purified water; a head having a water inlet portion and a water outlet portion , wherein the filter is configured to removably coupled to the head ; and a shaft provided at the head and rotatably mounted between the water inlet portion and the water outlet portion , the shaft defining (i) a bypass flow path that directly connects the water inlet portion to the water outlet portion and (ii) a filtering flow path that provides a connection between the water inlet portion and the water outlet portion such that water passes through the filter , wherein the shaft comprises an inner pipe for communicating with the filter , the inner pipe forms a portion of the filtering flow path , the inner pipe is provided for being coupled to one end portion of the filter , and characterized in that the shaft further comprises: a reinforcing portion projecting from an inner surface of the inner pipe and extending upward from a lower end of the inner pipe . a filter configured to purify incoming water and to discharge the purified water; a head having a water inlet portion and a water outlet portion , wherein the filter is configured to removably coupled to the head ; and a shaft provided at the head and rotatably mounted between the water inlet portion and the water outlet portion , the shaft defining (i) a bypass flow path that directly connects the water inlet portion to the water outlet portion and (ii) a filtering flow path that provides a connection between the water inlet portion and the water outlet portion such that water passes through the filter , (i) a bypass flow path that directly connects the water inlet portion to the water outlet portion and (ii) a filtering flow path that provides a connection between the water inlet portion and the water outlet portion such that water passes through the filter , wherein the shaft comprises an inner pipe for communicating with the filter , the inner pipe forms a portion of the filtering flow path , the inner pipe is provided for being coupled to one end portion of the filter , and characterized in that the shaft further comprises: a reinforcing portion projecting from an inner surface of the inner pipe and extending upward from a lower end of the inner pipe .
A method of coordinated interference suppression in a communication system implementing at least a first radio access technology via a first base station and a second radio access technology via a second base station , the second radio access technology being different from the first radio access technology , the method being performed by the second base station and comprising: receiving (S100), from the first base station , information relating to an interference signal received at the first base station via the first radio access technology ; said method being characterized by : identifying (S102), an interfering user equipment, UE, accessing the second base station via the second radio access technology , wherein the identifying includes correlating an estimated adjacent channel leakage level of the UE accessing the second base station to an interference level of the interference signal received at the first base station, said interference level being included in the received information relating to the interference signal, the estimated adjacent channel leakage level of the UE being based on modelling of UE emission characteristics; and suppressing (S104) an interference caused by the interfering UE. receiving (S100), from the first base station , information relating to an interference signal received at the first base station via the first radio access technology ; said method being characterized by : identifying (S102), an interfering user equipment, UE, accessing the second base station via the second radio access technology , wherein the identifying includes correlating an estimated adjacent channel leakage level of the UE accessing the second base station to an interference level of the interference signal received at the first base station, said interference level being included in the received information relating to the interference signal, the estimated adjacent channel leakage level of the UE being based on modelling of UE emission characteristics; and suppressing (S104) an interference caused by the interfering UE. identifying (S102), an interfering user equipment, UE, accessing the second base station via the second radio access technology , wherein the identifying includes correlating an estimated adjacent channel leakage level of the UE accessing the second base station to an interference level of the interference signal received at the first base station, said interference level being included in the received information relating to the interference signal, the estimated adjacent channel leakage level of the UE being based on modelling of UE emission characteristics; and suppressing (S104) an interference caused by the interfering UE.
A mobile telecommunications network including: a radio access network having radio means for wireless communication with a plurality of terminals registered with the telecommunications network and the telecommunications network having control means operable to provide services to the users of the terminals connected thereto; a core having content processing means operable to provide a core service relating to content; wherein the core is operable to provide the core service relating to content on a per user/per bearer basis, using a GTP-U based connection; and a cloud hosted content processing means operable to provide a cloud-based service relating to content corresponding to the core service; wherein the control means is operable to transmit data to the cloud hosted content processing means for the performance of the cloud-based service thereon; wherein the control means is operable to select whether content is sent to the processing means of the core or to the cloud hosted content processing means , wherein the cloud-based service includes at least one of content charging and lawful interception, wherein the content that requires mobility support on a per user/per bearer basis is sent to the processing means of the core and wherein the content for which mobility is not provided by a GTP-U encapsulation framework is sent to the cloud hosted content processing means for performing at least one of content charging and lawful interception. a radio access network having radio means for wireless communication with a plurality of terminals registered with the telecommunications network and the telecommunications network having control means operable to provide services to the users of the terminals connected thereto; a core having content processing means operable to provide a core service relating to content; wherein the core is operable to provide the core service relating to content on a per user/per bearer basis, using a GTP-U based connection; and a cloud hosted content processing means operable to provide a cloud-based service relating to content corresponding to the core service; wherein the control means is operable to transmit data to the cloud hosted content processing means for the performance of the cloud-based service thereon; wherein the control means is operable to select whether content is sent to the processing means of the core or to the cloud hosted content processing means , wherein the cloud-based service includes at least one of content charging and lawful interception, wherein the content that requires mobility support on a per user/per bearer basis is sent to the processing means of the core and wherein the content for which mobility is not provided by a GTP-U encapsulation framework is sent to the cloud hosted content processing means for performing at least one of content charging and lawful interception.
A mobile terminal that is configured to communicate with a SIP, session initiation protocol, server that is configured to perform call control between an intercom disposed in a lobby of an apartment building and an indoor monitor , the SIP server storing event information transmitted from the intercom , the indoor monitor , or a terminal apparatus which is connected to the SIP server , the mobile terminal comprising: a receiver that is configured to receive the event information from the SIP server ; and a display section that is configured to display the event information in chronological order from an upper side to a lower side of a display apparatus and that is configured to scroll-display the event information, characterized in that the mobile terminal is configured to transmit, in response to an INVITATION message (S82) from the SIP server , response information 200 OK (S87) to the SIP server for forwarding to the intercom , the response information indicating that it is a response from the mobile terminal , the intercom is is further configured to select a video setting for the mobile terminal based on the information included in the response information (S87). a receiver that is configured to receive the event information from the SIP server ; and a display section that is configured to display the event information in chronological order from an upper side to a lower side of a display apparatus and that is configured to scroll-display the event information, characterized in that the mobile terminal is configured to transmit, in response to an INVITATION message (S82) from the SIP server , response information 200 OK (S87) to the SIP server for forwarding to the intercom , the response information indicating that it is a response from the mobile terminal , the intercom is is further configured to select a video setting for the mobile terminal based on the information included in the response information (S87).
A method for automatically adjusting aircraft performance parameters for use on an airdrop, characterized in that it comprises: establishing initial dimensions for a drop zone by a ground element ; transmitting the initial dimensions for the drop zone from the ground element to a flight management system, FMS, of an in-flight cargo aircraft via a secure data link; continually monitoring locations of friendly forces that affect the usable dimensions of the drop zone with the ground element ; transmitting changes to the locations of friendly forces from the ground element to the FMS via the secure data link; continually adjusting a computed air release point, CARP, for the airdrop with the FMS based on the changes to the locations of friendly forces; and continually updating flight performance parameters for the in-flight cargo aircraft with the FMS based on the changes to the locations of friendly forces. establishing initial dimensions for a drop zone by a ground element ; transmitting the initial dimensions for the drop zone from the ground element to a flight management system, FMS, of an in-flight cargo aircraft via a secure data link; continually monitoring locations of friendly forces that affect the usable dimensions of the drop zone with the ground element ; transmitting changes to the locations of friendly forces from the ground element to the FMS via the secure data link; continually adjusting a computed air release point, CARP, for the airdrop with the FMS based on the changes to the locations of friendly forces; and continually updating flight performance parameters for the in-flight cargo aircraft with the FMS based on the changes to the locations of friendly forces.
Fabric comprising: a) 3 to 45 percent by weight of polyamide fiber; b) 5 to 35 percent by weight of an oxidized polymeric biregional fiber comprising an oxidized polymer selected from the group consisting of acrylonitrile-based homopolymers, acrylonitrile-based copolymers, acrylonitrile-based terpolymers, and combinations thereof; c) 1 to 20 percent by weight of FR rayon fiber; and characterized in that the fabric comprises 20 to 90 percent by weight of natural cellulose fiber. a) 3 to 45 percent by weight of polyamide fiber; b) 5 to 35 percent by weight of an oxidized polymeric biregional fiber comprising an oxidized polymer selected from the group consisting of acrylonitrile-based homopolymers, acrylonitrile-based copolymers, acrylonitrile-based terpolymers, and combinations thereof; c) 1 to 20 percent by weight of FR rayon fiber; and
A combined reservoir and degas bottle for receiving liquid coolant from two or more separate cooling circuits each having a different operating temperature requirement, the combined reservoir and degas bottle having an upper reservoir chamber including a single filler to permit the reservoir chamber to be filled with liquid coolant and a like number of separate degas chambers as there are separate cooling circuits wherein each of the degas chambers has respective inlet and outlet connections for connecting the degas chamber to a respective one of the separate cooling circuits, is separated from an adjacent degas chamber by a dividing wall forming a thermal barrier therebetween and is separated from the reservoir chamber by a transverse wall having at least one transfer aperture in communication with the respective degas chamber to allow top-up coolant to pass in use from the reservoir chamber to the respective degas chamber and any extracted gas to flow from the degas chamber to the reservoir chamber, characterised therein there are first and second degas chambers arranged in a side by side relationship below the reservoir chamber.
An optical-to-electrical conversion apparatus, comprising a first reflection layer , an optical gain layer , a light absorption layer , a second reflection layer , a first current source interface , a second current source interface , a first voltage source interface , and a second voltage source interface , wherein the first reflection layer and the second reflection layer are disposed in parallel to form a resonant cavity between the first reflection layer and the second reflection layer; signal light is incident into the first reflection layer; after the signal light passes through the first reflection layer, signal light of a transmitted part is output to the resonant cavity; and the signal light of the transmitted part is reflected for a plurality of times between the first reflection layer and the second reflection layer, until the signal light in the resonant cavity is converted into a light current; the optical gain layer and the light absorption layer are located in the resonant cavity; the optical gain layer is configured to amplify the signal light in the resonant cavity; the light absorption layer is configured to convert the signal light in the resonant cavity into the light current; the first current source interface and the second current source interface are respectively connected to a positive electrode and a negative electrode of a current source, to supply a current to the optical gain layer; and the first voltage source interface and the second voltage source interface are respectively connected to a positive electrode and a negative electrode of a voltage source, to supply voltage to the light absorption layer.
A surveillance camera arrangement comprising: a pan tilt zoom camera configured to: perform panning movements about a pan axis ; and a wide angle image sensor having an optical axis aligned with the pan axis of the pan tilt zoom camera , the wide angle image sensor having a wider field of view than the pan tilt zoom camera , wherein the pan tilt zoom camera is mechanically coupled to the wide angle image sensor ; characterized by : the pan tilt zoom camera is further configured to perform tilting movements within a plane of tilting motion, the plane of tilting motion being offset from, and parallel to and non-coincident with the pan axis . a pan tilt zoom camera configured to: perform panning movements about a pan axis ; and a wide angle image sensor having an optical axis aligned with the pan axis of the pan tilt zoom camera , the wide angle image sensor having a wider field of view than the pan tilt zoom camera , perform panning movements about a pan axis ; and a wide angle image sensor having an optical axis aligned with the pan axis of the pan tilt zoom camera , the wide angle image sensor having a wider field of view than the pan tilt zoom camera , wherein the pan tilt zoom camera is mechanically coupled to the wide angle image sensor ; characterized by : the pan tilt zoom camera is further configured to perform tilting movements within a plane of tilting motion, the plane of tilting motion being offset from, and parallel to and non-coincident with the pan axis .