mhurhangee/patent-ind-claim-en huggingface dataset:
A blood clot removal device for removing blood clots from the vascular system of a patient, the blood clot removal device being implantable in the patient's body and comprising: a blood flow passageway having a first side wall and a second side wall, a filter provided in the blood flow passageway for filtering blood clots, and a cleaning device for cleaning the filter, characterised in that the cleaning device is adapted to move from the first side wall towards the second side wall to move blood clots away from the blood flow passageway. a blood flow passageway having a first side wall and a second side wall, a filter provided in the blood flow passageway for filtering blood clots, and a cleaning device for cleaning the filter, characterised in that the cleaning device is adapted to move from the first side wall towards the second side wall to move blood clots away from the blood flow passageway.
Agricultural field sprayer for the metered dispensing of fertilizers and/or crop treatment compositions diluted with diluting liquid, used preferably in the form of fresh water, to form a spray liquor, having a spray tank, at least one induction container having at least one diluting-liquid supply device and at least one filling opening, wherein the induction container is assigned a cover that is pivotable selectively into an open position opening up the filling opening or into a closed position closing the filling opening, wherein the upwardly directed face of the cover , when the latter is in its open position opening up the filling opening in order to pour in the crop treatment compositions and/or fertilizers, is inclined towards the filling opening , characterized in that the cover is able to be pivoted from its closed position into its open position and vice versa in each case through about 170°, in that the cover , in its open position, projects with its side adjacent to the filling opening of the induction container beyond the outer upper rim of the induction container in the direction of the filling opening , in that the cover is bent downwards in its region projecting beyond the filling opening and/or has at least one drip edge located in the region of the filling opening .
An apparatus comprising: - means for storing information in the apparatus; - means for causing the information to be transmitted toward a user equipment in a downlink direction, partly via a cellular carrier and partly via a non-cellular carrier, the cellular and non-cellular carriers being together in a carrier aggregation; - means for determining a handover of the cellular carrier is likely, wherein the handover does not change an access point providing the non-cellular carrier, and - means for disabling , responsive to the determination, a ciphering of the part of the information conveyed toward the user equipment via the non-cellular carrier, wherein ciphering the part of the information transmitted via the cellular carrier is continued when ciphering the part of the information transmitted via the non-cellular carrier is disabled, wherein ciphering keys are associated with specific base stations, wherein the ciphering comprises ciphering applied to the part of the information conveyed via the non-cellular carrier before it is provided from the apparatus to the access point. - means for storing information in the apparatus; - means for causing the information to be transmitted toward a user equipment in a downlink direction, partly via a cellular carrier and partly via a non-cellular carrier, the cellular and non-cellular carriers being together in a carrier aggregation; - means for determining a handover of the cellular carrier is likely, wherein the handover does not change an access point providing the non-cellular carrier, and - means for disabling , responsive to the determination, a ciphering of the part of the information conveyed toward the user equipment via the non-cellular carrier, wherein ciphering the part of the information transmitted via the cellular carrier is continued when ciphering the part of the information transmitted via the non-cellular carrier is disabled, wherein ciphering keys are associated with specific base stations, wherein the ciphering comprises ciphering applied to the part of the information conveyed via the non-cellular carrier before it is provided from the apparatus to the access point.
Method for mixing a rubber mixture, comprising the following steps: A) providing a mixer, wherein the mixer has a mixing chamber and at least one mixing rotor arranged in the mixing chamber, wherein the mixing chamber of the mixer is delimited by a chamber housing , a first filling opening and a first ejection opening and has one or more sensors which is/are arranged in the chamber housing and is/are intended for measuring the temperature of a rubber mixture within the mixing chamber, wherein the surface of the sensors that are arranged within the mixing chamber is sheathed or coated with a material layer , B) heating the material layer of the one or more sensors by means of one or more heating units integrated in the material layer , C) adding at least one rubber and at least one further rubber mixture constituent to the mixing chamber of the mixer, D) blending the at least one rubber with the at least one further rubber mixture constituent in the mixer, with the result that a rubber mixture is produced, and, E) during step D), measuring the temperature of the rubber mixture by means of the one or more sensors heated in step B). A) providing a mixer, wherein the mixer has a mixing chamber and at least one mixing rotor arranged in the mixing chamber, wherein the mixing chamber of the mixer is delimited by a chamber housing , a first filling opening and a first ejection opening and has one or more sensors which is/are arranged in the chamber housing and is/are intended for measuring the temperature of a rubber mixture within the mixing chamber, wherein the surface of the sensors that are arranged within the mixing chamber is sheathed or coated with a material layer , B) heating the material layer of the one or more sensors by means of one or more heating units integrated in the material layer , C) adding at least one rubber and at least one further rubber mixture constituent to the mixing chamber of the mixer, D) blending the at least one rubber with the at least one further rubber mixture constituent in the mixer, with the result that a rubber mixture is produced, and, E) during step D), measuring the temperature of the rubber mixture by means of the one or more sensors heated in step B).
Vaccine for use in a method to protect a ruminant against pneumonia caused by Mannheimia haemolytica bacteria, the vaccine comprising in combination live attenuated Mannheimia haemolytica bacteria, live attenuated parainfluenza-3 virus and live attenuated bovine respiratory syncytial virus, wherein the vaccine is for administration to the upper respiratory tract of the ruminant via intranasal atomisation of the vaccine, and whereby the protection is a reduction in lung lesion scores.
A stemless humeral shoulder assembly (100; 500; 1000; 1100; 1200; 1300), comprising: a base member (108; 508; 1008; 1108; 1208; 1308) comprising a distal end (120; 520; 1020) configured to be embedded in bone and a proximal end (124; 524; 1024; 1124) to be disposed at a bone surface, the base member having a plurality of spaced apart arms (128; 528A, 528B, 528C; 1028) projecting from the proximal end to the distal end, characterized in that the stemless humeral shoulder assembly further comprises: an anchor (112; 512; 1012; 1112; 1212; 1312) adapted to be assembled with the base member to a position disposed within the arms, the anchor being configured to project circumferentially into spaced apart engagement areas of the base member and into a space between the arms so as to be exposed between the arms when the anchor is assembled with the base member, and a recess (104; 504) configured to receive a mounting member of an anatomical or reverse joint interface, the recess being surrounded by the base member and the anchor and projecting distally from a proximal end of the anchor to within the base member when the anchor is assembled with the base member. a base member (108; 508; 1008; 1108; 1208; 1308) comprising a distal end (120; 520; 1020) configured to be embedded in bone and a proximal end (124; 524; 1024; 1124) to be disposed at a bone surface, the base member having a plurality of spaced apart arms (128; 528A, 528B, 528C; 1028) projecting from the proximal end to the distal end, characterized in that the stemless humeral shoulder assembly further comprises: an anchor (112; 512; 1012; 1112; 1212; 1312) adapted to be assembled with the base member to a position disposed within the arms, the anchor being configured to project circumferentially into spaced apart engagement areas of the base member and into a space between the arms so as to be exposed between the arms when the anchor is assembled with the base member, and a recess (104; 504) configured to receive a mounting member of an anatomical or reverse joint interface, the recess being surrounded by the base member and the anchor and projecting distally from a proximal end of the anchor to within the base member when the anchor is assembled with the base member. an anchor (112; 512; 1012; 1112; 1212; 1312) adapted to be assembled with the base member to a position disposed within the arms, the anchor being configured to project circumferentially into spaced apart engagement areas of the base member and into a space between the arms so as to be exposed between the arms when the anchor is assembled with the base member, and a recess (104; 504) configured to receive a mounting member of an anatomical or reverse joint interface, the recess being surrounded by the base member and the anchor and projecting distally from a proximal end of the anchor to within the base member when the anchor is assembled with the base member.
A method for constructing a DNA library for sequencing, comprising: step B-1: A-tailing of a single 3' end to at least a portion of blunt-end DNA fragments to obtain DNA fragments having A tailing to the single 3' end; and step B-2: blunt-end ligating the DNA fragments having A tailing to the single 3' end obtained in step B-1. step B-1: A-tailing of a single 3' end to at least a portion of blunt-end DNA fragments to obtain DNA fragments having A tailing to the single 3' end; and step B-2: blunt-end ligating the DNA fragments having A tailing to the single 3' end obtained in step B-1.
Method for operating an industrial truck driving on a roadway on wheel tyres , in particular superelastic tyres or pneumatic tyres, wherein vehicle properties of the industrial truck are controlled by a vehicle control device , and a tyre wear of the wheel tyres is measured by a tyre wear measuring device , wherein at least one vehicle property of the industrial truck is actively influenced by the vehicle control device on the basis of the tyre wear of the wheel tyres , wherein the vehicle property used is at least one variable orientation of a vehicle apparatus, wherein the orientation is changed on the basis of the tyre wear of the wheel tyres in such a way that an inclination of the industrial truck due to the tyre wear of the wheel tyres is compensated for, wherein the tyre wear is ascertained by means of at least one distance sensor which is arranged on the industrial truck and which measures the distance of the distance sensor from the roadway , wherein the vehicle apparatus used is a load-bearing means of the industrial truck , wherein the orientation of the load-bearing means relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres such that the absolute orientation of the load-bearing means with respect to the roadway remains constant, wherein the load-bearing means used is a lifting mast , and the orientation of the lifting mast relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres in such a way that the absolute orientation of the lifting mast remains vertical, or wherein the vehicle apparatus used is a collision sensor of the industrial truck , wherein the orientation of the collision sensor relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres such that the absolute orientation of the collision sensor with respect to the roadway remains constant. wherein the vehicle apparatus used is a load-bearing means of the industrial truck , wherein the orientation of the load-bearing means relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres such that the absolute orientation of the load-bearing means with respect to the roadway remains constant, wherein the load-bearing means used is a lifting mast , and the orientation of the lifting mast relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres in such a way that the absolute orientation of the lifting mast remains vertical, or wherein the vehicle apparatus used is a collision sensor of the industrial truck , wherein the orientation of the collision sensor relative to the industrial truck is actively changed on the basis of the tyre wear of the wheel tyres such that the absolute orientation of the collision sensor with respect to the roadway remains constant.
A catheter system , comprising: a catheter body having a drive shaft ; an imaging sensor fixed relative to the distal end of the driveshaft and configured to rotate therewith; a drive motor configured to rotate the drive shaft; a sensor configured to measure an amount of current drawn by the drive motor as the drive shaft is rotated; a display configured to display one or more images obtained by the imaging sensor as the imaging sensor is rotated; and a controller configured to adjust a rotational orientation of the one or more images displayed by the display based upon the measured current. a catheter body having a drive shaft ; an imaging sensor fixed relative to the distal end of the driveshaft and configured to rotate therewith; a drive motor configured to rotate the drive shaft; a sensor configured to measure an amount of current drawn by the drive motor as the drive shaft is rotated; a display configured to display one or more images obtained by the imaging sensor as the imaging sensor is rotated; and a controller configured to adjust a rotational orientation of the one or more images displayed by the display based upon the measured current.
A formulation comprising collagen, hyaluronic acid and astaxanthin, wherein the formulation is encapsulated in an enteric capsule and wherein the collagen, hyaluronic acid and astaxanthin comprise at least 98% by weight of the contents of the capsule.
- Compressed air foam system, CAFS, comprising a source of water, an air management system for providing a compressed air flow, a solution dosing module for providing an additive solution and a mixing chamber module configured to provide an air-solution mixture to an output device , said mixing module comprising an outlet conduit fluidly connected to said output device and an inlet conduit fluidly connected to said source , said mixing module comprising a plurality of by-pass conduits between said inlet conduit and said outlet conduit each of said by-pass conduits having a hydraulic diameter different with respect to the other, said air management system and said dosing module being fluidly connected to at least one of sais by-pass conduits , said air-solution mixture being obtainable by said compressed air, said water and said additive solution in said outlet conduit . said mixing module comprising an outlet conduit fluidly connected to said output device and an inlet conduit fluidly connected to said source , said mixing module comprising a plurality of by-pass conduits between said inlet conduit and said outlet conduit each of said by-pass conduits having a hydraulic diameter different with respect to the other, said air management system and said dosing module being fluidly connected to at least one of sais by-pass conduits , said air-solution mixture being obtainable by said compressed air, said water and said additive solution in said outlet conduit .
Contacting element for connecting an electrical or electronic module to an elongate lighting support rail which comprises an elongate support rail profile which, together with two opposite elongate side walls , delimits a receiving space which is accessible via a receiving opening and in which at least one busbar is provided with lines which are electrically contactable from the receiving space and extend in the longitudinal direction (A) of the support rail profile , wherein the contacting element comprises: • a fastening part having ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module , and ∘ a coupling portion which extends away from the connecting portion in an extension direction (E), and • a connection part having a main body which is connected, via a connecting structure , to the coupling portion so as to be rotatable about an axis of rotation (X) extending in the extension direction (E) in order to move the connection part between an assembly position and a coupling position, wherein the connection part further comprises a maneuvering portion , wherein the connecting structure is designed such that it transfers a translational actuating force (F) applied to an actuating portion of the maneuvering portion into the relative rotation (R) between the connection part and the fastening part in order to thereby move the connection part from the assembly position into the coupling position, wherein the connection part further comprises at least one electrical contact element which projects radially outward with respect to the axis of rotation (X) so that, when the connection part rotates (R) relative to the fastening part , the contact element moves together with the main body about the axis of rotation (X). • a fastening part having ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module , and ∘ a coupling portion which extends away from the connecting portion in an extension direction (E), and ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module , and ∘ a coupling portion which extends away from the connecting portion in an extension direction (E), and • a connection part having a main body which is connected, via a connecting structure , to the coupling portion so as to be rotatable about an axis of rotation (X) extending in the extension direction (E) in order to move the connection part between an assembly position and a coupling position, wherein the connection part further comprises a maneuvering portion , wherein the connecting structure is designed such that it transfers a translational actuating force (F) applied to an actuating portion of the maneuvering portion into the relative rotation (R) between the connection part and the fastening part in order to thereby move the connection part from the assembly position into the coupling position,
An outboard motor, comprising: an engine ; an engine cover covering the engine ; a drive shaft vertically extending from the engine , the drive shaft being configured to be rotated by the engine ; an upper case covering the drive shaft ; a propeller shaft extending perpendicularly to the drive shaft ; a lower case covering the propeller shaft ; a front handle disposed forward of the drive shaft ; and a rear handle disposed rearward of the drive shaft , wherein the front handle is disposed below the engine cover ; and the rear handle is disposed below the engine cover , the rear handle being disposed in a position lower than a position of the front handle , wherein the rear handle is provided on the lower case , and the lower case includes a cavitation plate , characterised in that the rear handle is provided on the cavitation plate . an engine ; an engine cover covering the engine ; a drive shaft vertically extending from the engine , the drive shaft being configured to be rotated by the engine ; an upper case covering the drive shaft ; a propeller shaft extending perpendicularly to the drive shaft ; a lower case covering the propeller shaft ; a front handle disposed forward of the drive shaft ; and a rear handle disposed rearward of the drive shaft , wherein the front handle is disposed below the engine cover ; and the rear handle is disposed below the engine cover , the rear handle being disposed in a position lower than a position of the front handle , wherein the rear handle is provided on the lower case , and the lower case includes a cavitation plate , characterised in that the rear handle is provided on the cavitation plate .
Computer implemented method for determining a plurality of output data, the method comprising the following steps carried out by computer hardware components: - acquiring sensor data using a radar sensor; - integrating the sensor data over time to obtain integrated data; - determining a first estimate based on the sensor data, the first estimate comprising angle estimates, the angle estimates comprising an angle estimate from Doppler with target motion and an angle estimate from beamvectors; - determining a second estimate based on the integrated data, the second estimate comprising an integrated angle estimate; - postprocessing the first estimate to obtain first postprocessed data, the postprocessing the first estimate comprising determining a stationary/ moving classification based on at least one of the angle estimates; - postprocessing the second estimate to obtain second postprocessed data, the postprocessing the second estimate comprising determining a stationary/ moving classification based on the integrated angle estimate; - determining first output data based on the first estimates and the second estimates, the first output data comprising freespace information which includes information about unoccupied environment; and - determining second output data based on the first postprocessed data and the second postprocessed data, the second output data comprising a radar cross section feature map. - acquiring sensor data using a radar sensor; - integrating the sensor data over time to obtain integrated data; - determining a first estimate based on the sensor data, the first estimate comprising angle estimates, the angle estimates comprising an angle estimate from Doppler with target motion and an angle estimate from beamvectors; - determining a second estimate based on the integrated data, the second estimate comprising an integrated angle estimate; - postprocessing the first estimate to obtain first postprocessed data, the postprocessing the first estimate comprising determining a stationary/ moving classification based on at least one of the angle estimates; - postprocessing the second estimate to obtain second postprocessed data, the postprocessing the second estimate comprising determining a stationary/ moving classification based on the integrated angle estimate; - determining first output data based on the first estimates and the second estimates, the first output data comprising freespace information which includes information about unoccupied environment; and - determining second output data based on the first postprocessed data and the second postprocessed data, the second output data comprising a radar cross section feature map.