mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for changing an abrasive sheet in a sanding machine , said apparatus comprising: - a sanding machine consisting of: - a support body having an engagement surface arranged to engage with said abrasive sheet ; - a handling device for handling spatially said support body according to at least two degrees of freedom; said apparatus characterized in that it furthermore comprises at least one application station, at which an abrasive sheet is mounted at said engagement surface of said support body , in that at said application station at least one container is provided arranged to contain at least one abrasive sheet , in that said handling device is arranged to position said support body at said container , in order to cause an abrasive sheet to engage with said engagement surface of said support body , in that a spatial orientation computing device is, furthermore, provided arranged to compute the spatial orientation of said support body , said spatial orientation computing device configured to bring said support body at a position having a known spatial orientation, in that said handling device is arranged to position said support body at said spatial orientation computing device with said support body free to rotate about a rotation axis , and in that said spatial orientation computing device comprises an actuation member arranged to cause said support body to rotate about said rotation axis up to place said support body at said position having a known spatial orientation. - a sanding machine consisting of: - a support body having an engagement surface arranged to engage with said abrasive sheet ; - a handling device for handling spatially said support body according to at least two degrees of freedom; - a support body having an engagement surface arranged to engage with said abrasive sheet ; - a handling device for handling spatially said support body according to at least two degrees of freedom;
Electromechanical actuator , comprising a housing , a drive motor disposed in or on the housing, and a conversion element driven by the drive motor , wherein the conversion element includes a movable traveling means that can be moved in a translational travel direction (T), wherein range limiting means are disposed in the actuator , characterized in that the range limiting means turn off the drive motor when the traveling means has reached a predetermined maximal range of travel, wherein the range limiting means are configured as contact-less, electronic switch means and wherein the range limiting means comprise at least one Hall sensor that is in communication with a controller , wherein the controller is configured to count the number of drive cycles of the traveling means or to count the number of events, in which the current of the drive motor exceeds a predetermined maximal value, wherein the controller has a memory element, in which the number of the counted drive cycles of the traveling means or the number of events can be stored, in which the current of the drive motor exceeds the predetermined maximal value.
A liquid to air membrane energy exchanger (LAMEE) comprising: at least one air flow channel comprising a first inlet for receiving a flow of air into the LAMEE and a first outlet for exhausting the flow of air out of the LAMEE, a temperature and a humidity of the air changing between the first inlet and the first outlet; at least one liquid desiccant channel comprising a second inlet for receiving a flow of liquid desiccant into the LAMEE and a second outlet for expelling the flow of liquid desiccant from the LAMEE; and characterized in that the liquid to air membrane energy exchanger furthermore comprises: a selectively permeable, non-porous membrane interposed between the flow of air and the flow of liquid desiccant, the membrane being selectively permeable to water in the flow of air and the flow of liquid desiccant, wherein water molecules or ions are transportable through the membrane to transfer water between the air and the liquid desiccant. at least one air flow channel comprising a first inlet for receiving a flow of air into the LAMEE and a first outlet for exhausting the flow of air out of the LAMEE, a temperature and a humidity of the air changing between the first inlet and the first outlet; at least one liquid desiccant channel comprising a second inlet for receiving a flow of liquid desiccant into the LAMEE and a second outlet for expelling the flow of liquid desiccant from the LAMEE; and characterized in that the liquid to air membrane energy exchanger furthermore comprises: a selectively permeable, non-porous membrane interposed between the flow of air and the flow of liquid desiccant, the membrane being selectively permeable to water in the flow of air and the flow of liquid desiccant, wherein water molecules or ions are transportable through the membrane to transfer water between the air and the liquid desiccant.
A transformer, comprising: at least one magnetic core , each having at least one window (A); one primary side winding passing through the at least one window (A) of each of all the magnetic cores ; and at least one secondary side winding , each passing through the at least one window (A) of one corresponding magnetic core , wherein a wire forms the primary side winding , and the wire is sequentially covered with a first solid insulating layer , a grounded shielding layer and a second solid insulating layer from inside to outside along a radial direction of the wire , wherein the grounded shielding layer is connected to a reference ground, wherein the primary side winding has a first voltage with respect to the reference ground, the secondary side winding has a second voltage with respect to the reference ground, and the second voltage is greater than 50 times of the first voltage; wherein a space between the grounded shielding layer and the second solid insulating layer is further covered with a semi-conductive layer. at least one magnetic core , each having at least one window (A); one primary side winding passing through the at least one window (A) of each of all the magnetic cores ; and at least one secondary side winding , each passing through the at least one window (A) of one corresponding magnetic core , wherein a wire forms the primary side winding , and the wire is sequentially covered with a first solid insulating layer , a grounded shielding layer and a second solid insulating layer from inside to outside along a radial direction of the wire , wherein the grounded shielding layer is connected to a reference ground, wherein the primary side winding has a first voltage with respect to the reference ground, the secondary side winding has a second voltage with respect to the reference ground, and the second voltage is greater than 50 times of the first voltage; wherein a space between the grounded shielding layer and the second solid insulating layer is further covered with a semi-conductive layer.
A protein comprising the amino acid sequence of the formula (I) of: LC-L1-HC-L2-AP (I) wherein: LC comprises the amino acid sequence of SEQ ID NO:13 or a peptide having at least 85% sequence identity to SEQ ID NO:13, L1 is a peptide linker comprising a protease recognition site, HC comprises the amino acid sequence of SEQ ID NO:11 or a peptide having at least 85% sequence identity to SEQ ID NO:11, L2 is absent or is a peptide linker that cannot be processed by the protease, and AP comprises an activation peptide, wherein the protein is capable to, when the L1 is processed by the protease, produce a two-chain polypeptide comprising the LC and HC on separate chains, wherein the two-chain polypeptide is capable of binding to a factor Xa inhibitor. the amino acid sequence of the formula (I) of: LC-L1-HC-L2-AP (I) wherein: LC comprises the amino acid sequence of SEQ ID NO:13 or a peptide having at least 85% sequence identity to SEQ ID NO:13, L1 is a peptide linker comprising a protease recognition site, HC comprises the amino acid sequence of SEQ ID NO:11 or a peptide having at least 85% sequence identity to SEQ ID NO:11, L2 is absent or is a peptide linker that cannot be processed by the protease, and AP comprises an activation peptide, wherein the protein is capable to, when the L1 is processed by the protease, produce a two-chain polypeptide comprising the LC and HC on separate chains, wherein the two-chain polypeptide is capable of binding to a factor Xa inhibitor. LC comprises the amino acid sequence of SEQ ID NO:13 or a peptide having at least 85% sequence identity to SEQ ID NO:13, L1 is a peptide linker comprising a protease recognition site, HC comprises the amino acid sequence of SEQ ID NO:11 or a peptide having at least 85% sequence identity to SEQ ID NO:11, L2 is absent or is a peptide linker that cannot be processed by the protease, and AP comprises an activation peptide, wherein the protein is capable to, when the L1 is processed by the protease, produce a two-chain polypeptide comprising the LC and HC on separate chains, wherein the two-chain polypeptide is capable of binding to a factor Xa inhibitor.
Implement for keeping dairy animals, provided with a first and a second production unit (A, B, ...) and a care unit having a plurality of subunits , wherein each production unit (A, B, ...) is provided with at least one accommodation area for a production group, which comprises a group of lactating dairy animals, and with a milking implement for milking the production group, and wherein the subunits of the care unit at least comprise a calving unit for separate accommodation of dairy animals in a calving period and a milking implement for milking just calved dairy animals, and an infirmary unit for separate accommodation of sick animals, characterized in that the care unit forms a walkable connection between the production units (A, B, ...).
An instrument case for receiving a string instrument , with a housing , with a receiving region , delimited by the housing , for receiving an instrument and with at least one neck support module comprising a neck support unit for supporting an instrument neck, wherein the neck support module comprises a bearing unit having two bearing elements and supporting the neck support unit in the receiving region in an adjustable manner, wherein the first bearing element of the bearing unit is embodied as a bearing rail and is firmly connected to the housing , wherein the second bearing element of the bearing unit is embodied as a bearing carriage and is connected to the neck support unit , wherein the bearing rail is configured such that the bearing carriage is connected thereto in a form-fit and/or force-fit manner, the bearing carriage having one degree of freedom relative to the bearing rail along the bearing axis , wherein the bearing unit comprises a blocking device , which is configured for a blocking of the bearing elements of the bearing unit in different positions, wherein the blocking device comprises at least one first blocking element , which is connected to the first bearing element , and at least one second blocking element , which is connected to the second bearing element and is implemented correspondingly, characterized in that the blocking device comprises a spring element , which is configured to press the first and second blocking elements into a blocking position. the neck support module comprises a bearing unit having two bearing elements and supporting the neck support unit in the receiving region in an adjustable manner, wherein the first bearing element of the bearing unit is embodied as a bearing rail and is firmly connected to the housing , wherein the second bearing element of the bearing unit is embodied as a bearing carriage and is connected to the neck support unit , wherein the bearing rail is configured such that the bearing carriage is connected thereto in a form-fit and/or force-fit manner, the bearing carriage having one degree of freedom relative to the bearing rail along the bearing axis , wherein the bearing unit comprises a blocking device , which is configured for a blocking of the bearing elements of the bearing unit in different positions, wherein the blocking device comprises at least one first blocking element , which is connected to the first bearing element , and at least one second blocking element , which is connected to the second bearing element and is implemented correspondingly, characterized in that the blocking device comprises a spring element , which is configured to press the first and second blocking elements into a blocking position.
A method of signing a metadata frame corresponding to an image frame of a sequence of image frames, wherein the metadata frame comprises metadata of one or more detected objects in the image frame, wherein the metadata of each detected object comprises coordinates defining a location in the image frame of the detected object, the method comprising: generating (S110) a digital signature based on at least a subset of the metadata in the metadata frame; and adding (S120) additional metadata to the metadata frame, the additional metadata comprising the digital signature and predefined coordinates which define that the additional metadata comprise the digital signature.
A relay communication method, comprising: detecting, by a first wireless mobile device operating as a sensing mobile station, sensory data associated with multiple radio channels relative to a plurality of other sensing wireless mobile devices disposed in a sensing area of said first wireless mobile device; if said first wireless mobile device is out of range of a wide area cellular network, establishing a short-range wireless communication path with a second wireless mobile device having a wide area cellular communication connection; and transmitting said sensory data to said second wireless mobile device for reporting to a network element via a wide area cellular network serving said second wireless mobile device. detecting, by a first wireless mobile device operating as a sensing mobile station, sensory data associated with multiple radio channels relative to a plurality of other sensing wireless mobile devices disposed in a sensing area of said first wireless mobile device; if said first wireless mobile device is out of range of a wide area cellular network, establishing a short-range wireless communication path with a second wireless mobile device having a wide area cellular communication connection; and transmitting said sensory data to said second wireless mobile device for reporting to a network element via a wide area cellular network serving said second wireless mobile device.
A method of multiple-input multiple-output, MIMO, uplink transmission performed by a user terminal (110-122), the method comprising: spreading control information with a first spreading code to generate first coded control information; spreading the control information with a second spreading code that is different than the first spreading code to generate second coded control information; and transmitting, to a base station , the first coded control information via a first spatial stream via at least a first antenna and concurrently transmitting the second coded control information via a second spatial stream via at least a second antenna that is different than the first antenna, wherein the first spatial stream and the second spatial stream are transmitted using single carrier frequency division multiple access. spreading control information with a first spreading code to generate first coded control information; spreading the control information with a second spreading code that is different than the first spreading code to generate second coded control information; and transmitting, to a base station , the first coded control information via a first spatial stream via at least a first antenna and concurrently transmitting the second coded control information via a second spatial stream via at least a second antenna that is different than the first antenna, wherein the first spatial stream and the second spatial stream are transmitted using single carrier frequency division multiple access.
A vehicle-door assembly, having at least - a window pane (FS) that is adjustable by a vehicle window lifter, wherein the window pane (FS), in a closed state, is flush with upper and/or lateral body parts that bound a window opening (O), to be closed by the window pane (FS), of a vehicle door (T), - a door-frame support (TT) which defines a door case beneath the window opening (O), the window pane (FS) being lowered into said door case in order to be opened, and which has at least two lateral frame parts (RA, RB) that are located opposite one another above the door case at the window opening (O), - a first frame-side guide element for laterally guiding the window pane (FS) at one of the lateral frame parts (RA, RB), and a second frame-side guide element for laterally guiding the window pane (FS) at the other of the lateral frame parts (RA, RB), and - first and second pane-side guide elements via which the window pane (FS) is held in a displaceable manner on the frame-side guide elements , characterized in that - the first and second frame-side guide elements each have, above the door case, an insertion region via which a respectively associated pane-side guide element is positionable from above on the respective first or second frame-side guide element in order to mount the window pane (FS) on the door-frame support (TT), and - at least one closure part (4, 4*) that is to be fitted after the positioning of the pane-side first and second guide elements is provided in order to close at least one of the insertion regions of the first and second frame-side guide elements . - a window pane (FS) that is adjustable by a vehicle window lifter, wherein the window pane (FS), in a closed state, is flush with upper and/or lateral body parts that bound a window opening (O), to be closed by the window pane (FS), of a vehicle door (T), - a door-frame support (TT) which defines a door case beneath the window opening (O), the window pane (FS) being lowered into said door case in order to be opened, and which has at least two lateral frame parts (RA, RB) that are located opposite one another above the door case at the window opening (O), - a first frame-side guide element for laterally guiding the window pane (FS) at one of the lateral frame parts (RA, RB), and a second frame-side guide element for laterally guiding the window pane (FS) at the other of the lateral frame parts (RA, RB), and - first and second pane-side guide elements via which the window pane (FS) is held in a displaceable manner on the frame-side guide elements , - the first and second frame-side guide elements each have, above the door case, an insertion region via which a respectively associated pane-side guide element is positionable from above on the respective first or second frame-side guide element in order to mount the window pane (FS) on the door-frame support (TT), and - at least one closure part (4, 4*) that is to be fitted after the positioning of the pane-side first and second guide elements is provided in order to close at least one of the insertion regions of the first and second frame-side guide elements .
A military vehicle including an arm articulated relative to the vehicle using a hinge located at a first end of the arm , the arm including a payload at its second end, the load being contained in a compartment secured to the vehicle when the arm is in a first position called withdrawn position, the arm being deployable toward a second position, called deployed position, in which the load is removed from the compartment , the vehicle being characterised in that the arm includes a cover mounted pivoting relative to the arm , using a pivot link , between an open position, obtained by the action of a resilient means when the arm is in the deployed position, the cover closing the compartment when the arm is in the withdrawn position, the closing pivoting of the cover being obtained against the action of the resilient means by interference of a lever secured to the cover with a part of the vehicle or the compartment .
An implement guidance display system configured to be deployed onboard a work vehicle including an operator station , a work vehicle chassis , and a work implement mounted to move relative to the work vehicle chassis , the implement guidance display system comprising: a display device configured to be located within the operator station of the work vehicle ; implement data sources configured to provide implement tracking data pertaining to the work implement when mounted to the work vehicle chassis ; and a controller in signal communication with the display device and with the implement data sources , the controller configured to: receive the implement tracking data from the implement data sources ; establish a projected trajectory of the work implement utilizing the implement tracking data; and generate, on the display device , implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement , characterized in that the controller is further configured to establish a projected trajectory of the work vehicle chassis ; and further generate, on the display device , graphics representative of the projected trajectory of the work vehicle chassis . a display device configured to be located within the operator station of the work vehicle ; implement data sources configured to provide implement tracking data pertaining to the work implement when mounted to the work vehicle chassis ; and a controller in signal communication with the display device and with the implement data sources , the controller configured to: receive the implement tracking data from the implement data sources ; establish a projected trajectory of the work implement utilizing the implement tracking data; and generate, on the display device , implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement , receive the implement tracking data from the implement data sources ; establish a projected trajectory of the work implement utilizing the implement tracking data; and generate, on the display device , implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement , characterized in that the controller is further configured to establish a projected trajectory of the work vehicle chassis ; and further generate, on the display device , graphics representative of the projected trajectory of the work vehicle chassis .
A method for recycling a carbonaceous by-product obtained during the manufacture of a part made of carbon/carbon composite material comprising: - pyrolysis of the carbonaceous by-product so as to obtain a solid carbonaceous residue ; - forming a gas phase comprising a hydrocarbon from the carbonaceous residue; - separating the hydrocarbon from the remainder of the gas phase; - introducing the hydrocarbon separated in this way into a reaction chamber ; and - forming pyrolytic carbon in the reaction chamber from the hydrocarbon introduced by infiltration or chemical vapor deposition. - pyrolysis of the carbonaceous by-product so as to obtain a solid carbonaceous residue ; - forming a gas phase comprising a hydrocarbon from the carbonaceous residue; - separating the hydrocarbon from the remainder of the gas phase; - introducing the hydrocarbon separated in this way into a reaction chamber ; and - forming pyrolytic carbon in the reaction chamber from the hydrocarbon introduced by infiltration or chemical vapor deposition.