mhurhangee/ep-ind-claims huggingface dataset:
A gardening and/or forestry apparatus system, having: - a hand-held gardening and/or forestry processing apparatus, - an assistance device, which is formed separately from the gardening and/or forestry processing apparatus and which is designed to support a user in the operation of the gardening and/or forestry processing apparatus, wherein the assistance device has a user interface, by means of which the assistance device can be controlled by user inputs, - wherein the gardening and/or forestry processing apparatus has a user-actuable operator control element for user inputs to the user interface, - wherein the assistance device has various assistance functions to support the user in the operation of the gardening and/or forestry processing apparatus, and/or wherein the gardening and/or forestry apparatus system has various assistance devices having different assistance functions to support the user in the operation of the gardening and/or forestry processing apparatus, and - characterised in that the user-actuable operator control element is designed to select one of the assistance functions, and/or wherein the gardening and/or forestry processing apparatus has various user-actuable operator control elements designed to select one of the assistance functions. - a hand-held gardening and/or forestry processing apparatus, - an assistance device, which is formed separately from the gardening and/or forestry processing apparatus and which is designed to support a user in the operation of the gardening and/or forestry processing apparatus, wherein the assistance device has a user interface, by means of which the assistance device can be controlled by user inputs, - wherein the gardening and/or forestry processing apparatus has a user-actuable operator control element for user inputs to the user interface, - wherein the assistance device has various assistance functions to support the user in the operation of the gardening and/or forestry processing apparatus, and/or wherein the gardening and/or forestry apparatus system has various assistance devices having different assistance functions to support the user in the operation of the gardening and/or forestry processing apparatus, and - characterised in that the user-actuable operator control element is designed to select one of the assistance functions, and/or wherein the gardening and/or forestry processing apparatus has various user-actuable operator control elements designed to select one of the assistance functions.
A treadmill capable of adjusting slope rising and falling by a screw rod, comprising a running platform, and further comprising: a running frame, configured to bear the running platform; a lifting frame, arranged below the running frame and comprising a side arm, one end of the side arm being pivoted to the running frame; a driving mechanism, comprising a lead screw, the lead screw being in sleeving connection with a screw sleeve in a matching manner, and an outer side of the screw sleeve being rotatably connected to a supporting arm, the driving mechanism is arranged between the running frame and the lifting frame, the screw sleeve is driven by rotating the lead screw to move on the lead screw, and the supporting arm is driven to drive the lifting frame to adjust the slope of the treadmill; characterized in that the free end of the supporting arm is rotatably connected to a rotating shaft base through a second rotating shaft, and the rotating shaft base is rotatably connected to the lifting frame or the running frame through a first rotating shaft; and the first rotating shaft and the second rotating shaft are perpendicular to each other. a running frame, configured to bear the running platform; a lifting frame, arranged below the running frame and comprising a side arm, one end of the side arm being pivoted to the running frame; a driving mechanism, comprising a lead screw, the lead screw being in sleeving connection with a screw sleeve in a matching manner, and an outer side of the screw sleeve being rotatably connected to a supporting arm, the driving mechanism is arranged between the running frame and the lifting frame, the screw sleeve is driven by rotating the lead screw to move on the lead screw, and the supporting arm is driven to drive the lifting frame to adjust the slope of the treadmill; characterized in that the free end of the supporting arm is rotatably connected to a rotating shaft base through a second rotating shaft, and the rotating shaft base is rotatably connected to the lifting frame or the running frame through a first rotating shaft; and the first rotating shaft and the second rotating shaft are perpendicular to each other.
A flow-rate selector adapted to switch between two different flow-rate values of a flow of a pourable product, comprising a main body at least partially defining a duct for feeding a pourable product; a shutter body mobile, within said main body, between a relative downstream stop position, in which said shutter body at least partially engages a segment of said main body defining an outlet of said pourable product, and a relative upstream stop position in which said body leaves said outlet segment free; said shutter body comprising a tubular body defining a duct through which the pourable product can flow and which has a smaller section than the section of said feeding duct; characterized in that said shutter body is slidingly housed within a cylindrical cavity internal to said main body and comprises: - a stem having a length shorter than the overall longitudinal development of said cavity; and - a plurality of fins extending radially from the external surface of said stem to the wall defining said internal cavity, said stem comprising a tubular body open at the ends and internally defining said duct. - a stem having a length shorter than the overall longitudinal development of said cavity; and - a plurality of fins extending radially from the external surface of said stem to the wall defining said internal cavity, said stem comprising a tubular body open at the ends and internally defining said duct.
An X-ray tube comprising a shielded anode comprising: a linear anode (119,210) having a surface facing an electron beam and a shield (105, 205) configured to encompass said surface, wherein said shield has more than one aperture, wherein said shield has an internal surface facing said anode surface, wherein said shield internal surface and said anode surface are separated by a gap, and wherein said shield allows the transmission of X-ray photons through the shield material, but said shield blocks and absorbs backscattered electrons.
An organoaminosilane comprising a compound represented by Formula A below: wherein R 1 is selected from a linear or branched C 1 to C 10 alkyl group, a linear or branched C 3 to C 10 alkenyl group, a linear or branched C 3 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, and a C 5 to C 10 aryl group; wherein R 2 is selected from hydrogen, a linear or branched C 1 to C 10 alkyl group, a linear or branched C 3 to C 10 alkenyl group, a linear or branched C 3 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, and a C 5 to C 10 aryl group; or wherein R 1 and R 2, or two R 1 s, or two R 2 s are linked together to form a ring; R 3 is selected from a linear or branched C 1 to C 10 alkylene group, a linear or branched C 3 to C 6 alkenylene group, a linear or branched C 3 to C 6 alkynylene group, a C 3 to C 10 cyclic alkylene group, a C 3 to C 10 hetero-cyclic alkylene group, a C 5 to C 10 arylene group, and a C 5 to C 10 hetero-arylene group; n equals 1; and m equals 0 or 1.
A method, performed by a radio network node, for scheduling of wireless devices (110, 111, 112, 113) of a cellular network, wherein at least some of the wireless devices (110, 111, 112, 113) form Device-to-Device, D2D, pairs (115, 116), wherein wireless devices (110, 111, 112, 113) of each D2D pair (115, 116) are operable for direct communication utilizing radio resources that are commonly shared with the cellular network, wherein the method comprises: assigning, to each wireless device (110, 111, 112, 113), a D2D pair out of the D2D pairs (115, 116) based on spatial compatibilities for each of the D2D pairs (115, 116) with respect to said each wireless device (110, 111, 112, 113); estimating, for each wireless device (110, 111, 112, 113) and the assigned D2D pair (115, 116), a first respective throughput for cellular communication and D2D communication; and estimating, for each wireless device (110, 111, 112, 113), a second respective throughput for only cellular communication; and scheduling one or more of the wireless devices (110, 111, 112, 113) based on the first and second respective throughputs, wherein each of the one or more of the wireless devices (110, 111, 112, 113) is scheduled for cellular communication together with the D2D communication of the assigned D2D pair (115, 116) when the first respective throughput exceeds the second respective throughput, and for only cellular communication when the first respective throughput is below the second respective throughput. assigning, to each wireless device (110, 111, 112, 113), a D2D pair out of the D2D pairs (115, 116) based on spatial compatibilities for each of the D2D pairs (115, 116) with respect to said each wireless device (110, 111, 112, 113); estimating, for each wireless device (110, 111, 112, 113) and the assigned D2D pair (115, 116), a first respective throughput for cellular communication and D2D communication; and estimating, for each wireless device (110, 111, 112, 113), a second respective throughput for only cellular communication; and scheduling one or more of the wireless devices (110, 111, 112, 113) based on the first and second respective throughputs, wherein each of the one or more of the wireless devices (110, 111, 112, 113) is scheduled for cellular communication together with the D2D communication of the assigned D2D pair (115, 116) when the first respective throughput exceeds the second respective throughput, and for only cellular communication when the first respective throughput is below the second respective throughput.
Hot compress having a heat-developing layer, wherein the heat-developing layer has a content of carbon nanotubes (CNTs), characterized in that the heat-developing layer consists of CNTs embedded in a matrix, wherein the CNTs can in part contact one another and form a conducting network and the heat-developing layer is surface joined to a support material.
A navigation system for a vehicle (100, 300), the navigation system comprising: an image capturing device (110, 310) configured to produce projections of surrounding scenes; a processor coupled to the image capturing device (110, 310), the processor having a process (130, 325) for robust feature matching using invariant mutual relations between features; and a memory (140, 315) coupled to the processor; wherein the processor is configured to match at least a descriptive subset of features extracted by the processor from a first projection with features extracted by the processor from a second projection based on a similarity of invariant mutual relations between features of the at least a descriptive subset from the first projection and selected features from the second projection, which are selected so that mutual relations between these features are most similar to the mutual relations between features of the at least a descriptive subset; wherein the processor is configured to estimate at least one hypothetic transformation T from the at least a descriptive subset of features extracted from the first projection and the selected features from the second projection; wherein the processor is configured to store at least one hypothesis H into the memory (140, 315); and wherein the processor is configured to perform a quality analysis of a plurality of hypotheses H to select a final hypothesis H B that includes a final transformation T B. an image capturing device (110, 310) configured to produce projections of surrounding scenes; a processor coupled to the image capturing device (110, 310), the processor having a process (130, 325) for robust feature matching using invariant mutual relations between features; and a memory (140, 315) coupled to the processor; wherein the processor is configured to match at least a descriptive subset of features extracted by the processor from a first projection with features extracted by the processor from a second projection based on a similarity of invariant mutual relations between features of the at least a descriptive subset from the first projection and selected features from the second projection, which are selected so that mutual relations between these features are most similar to the mutual relations between features of the at least a descriptive subset; wherein the processor is configured to estimate at least one hypothetic transformation T from the at least a descriptive subset of features extracted from the first projection and the selected features from the second projection; wherein the processor is configured to store at least one hypothesis H into the memory (140, 315); and wherein the processor is configured to perform a quality analysis of a plurality of hypotheses H to select a final hypothesis H B that includes a final transformation T B.
Mounting system for mounting photovoltaic modules on roofs, in particular on flat roofs, having - base rails which are to be arranged directly on the roof or on a protective mat placed thereon and which are formed by hollow-chamber profiles, - support elements (5, 6) which can be mounted on the base rails and to which the photovoltaic modules and/or other photovoltaic installation components can be attached, and - at least one ballast block which can be placed on the mounting system and which serves for positionally securing the photovoltaic installation on the roof, wherein the ballast block can be fixed in its intended position by a fastening device which can be attached to the mounting system, characterized in that the fastening device has a laterally projecting horizontal arm which comes to lie over the ballast block and which can be pressed onto the upper side of the ballast block by screwing a screw into the fastening device, with this being accompanied by the rest of the fastening device being pulled upwards towards the arm, with the result that the fixing of the ballast block that occurs by the arm pressing down is thus at the same time accompanied by fixing of the fastening device on the mounting system component that carries it. - base rails which are to be arranged directly on the roof or on a protective mat placed thereon and which are formed by hollow-chamber profiles, - support elements (5, 6) which can be mounted on the base rails and to which the photovoltaic modules and/or other photovoltaic installation components can be attached, and - at least one ballast block which can be placed on the mounting system and which serves for positionally securing the photovoltaic installation on the roof, wherein the ballast block can be fixed in its intended position by a fastening device which can be attached to the mounting system, characterized in that the fastening device has a laterally projecting horizontal arm which comes to lie over the ballast block and which can be pressed onto the upper side of the ballast block by screwing a screw into the fastening device, with this being accompanied by the rest of the fastening device being pulled upwards towards the arm, with the result that the fixing of the ballast block that occurs by the arm pressing down is thus at the same time accompanied by fixing of the fastening device on the mounting system component that carries it.
A method of fabricating a two-component blade (10; 10'; 10") for a gas turbine engine, the method comprising in succession: obtaining a blade profile made of ceramic material having a hole passing right through the blade profile in its length direction so as to form a longitudinal channel opening out at a first longitudinal end of the blade profile into a top cavity; positioning and maintaining the blade profile in a mold so as to form a bottom cavity communicating with the channel of the blade profile at a second longitudinal end of the blade profile; casting molten metal (Mf) into the blade profile so as to fill the top and bottom cavities and the channel interconnecting them; and cooling the metal so that the shrinkage of the metal cooled in the top and bottom cavities leads to the ceramic of the blade profile being subjected to compression prestress. obtaining a blade profile made of ceramic material having a hole passing right through the blade profile in its length direction so as to form a longitudinal channel opening out at a first longitudinal end of the blade profile into a top cavity; positioning and maintaining the blade profile in a mold so as to form a bottom cavity communicating with the channel of the blade profile at a second longitudinal end of the blade profile; casting molten metal (Mf) into the blade profile so as to fill the top and bottom cavities and the channel interconnecting them; and cooling the metal so that the shrinkage of the metal cooled in the top and bottom cavities leads to the ceramic of the blade profile being subjected to compression prestress.
An adaptive equalizer (42, 47), comprising: an equalizer configured to apply at least one of a loss compensation for frequency-dependent distortion and an offset compensation for DC-offset distortion to a signal before or after the distortion occurs to generate an output signal; a sampler configured to: receive the output signal and a clock signal; and using the clock signal, sample the output signal to generate a plurality of data values (D0, D1) and boundary values (E0, E1), each value comprising either a high value or a low value based on the sampling of the output signal, wherein a boundary value is a value comprised between successive data values (D0, D1); and a controller (102, 106) configured to adjust at least one of the loss compensation and the offset compensation applied to the signal based only on the high or low value of one or more of the data values (D0, D1) and boundary values (E0, E1), wherein: if the at least one of the loss compensation and the offset compensation applied to the signal is to be increased, the at least one of the loss compensation and the offset compensation is increased by a first amount; if the at least one of the loss compensation and the offset compensation applied to the signal is to be decreased, the at least one of the loss compensation and the offset compensation is decreased by a second amount characterised in that the magnitude of the first amount is not equal to the magnitude of the second amount. receive the output signal and a clock signal; and using the clock signal, sample the output signal to generate a plurality of data values (D0, D1) and boundary values (E0, E1), each value comprising either a high value or a low value based on the sampling of the output signal, wherein a boundary value is a value comprised between successive data values (D0, D1); and a controller (102, 106) configured to adjust at least one of the loss compensation and the offset compensation applied to the signal based only on the high or low value of one or more of the data values (D0, D1) and boundary values (E0, E1), wherein: if the at least one of the loss compensation and the offset compensation applied to the signal is to be increased, the at least one of the loss compensation and the offset compensation is increased by a first amount; if the at least one of the loss compensation and the offset compensation applied to the signal is to be decreased, the at least one of the loss compensation and the offset compensation is decreased by a second amount characterised in that the magnitude of the first amount is not equal to the magnitude of the second amount. if the at least one of the loss compensation and the offset compensation applied to the signal is to be increased, the at least one of the loss compensation and the offset compensation is increased by a first amount; if the at least one of the loss compensation and the offset compensation applied to the signal is to be decreased, the at least one of the loss compensation and the offset compensation is decreased by a second amount characterised in that the magnitude of the first amount is not equal to the magnitude of the second amount.
A fireproof component comprising a frame structure with frame bars in which the frame bars are made from a composite section which consists of an inner shell and an outer shell and insulating bars connecting these layers, and in which the inner shell and the outer shell are provided with system grooves extending in the longitudinal direction, and the inner and outer shells (4, 3) of the composite section have locking grooves running parallel and at a distance from the system grooves, into which the functional parts of the frame structure can be fixed in a friction-locked and/or interlocking manner, characterised in that each locking groove has an undercut, and that each undercut is formed by at least one bar protruding into the locking groove, and a holder for securing a panel element consists of at least one angled element (21, 22), wherein the angled element facing the frame section has locking bars (23, 24) which can be inserted into the locking grooves in an interlocking manner.
A process for preparing a nanosponge, comprising the steps of: a) extruding in a single- or a multi-screw extruder at least one dextrin and at least one crosslinker selected from the group consisting of: a dianhydride, a dicarboxylic acid or a derivative thereof, 1,1-carbonyldiimidazole, a carbonate ester, a diisocyanate, a diepoxide, and sodium trimetaphosphate; and b) obtaining the nanosponge from step a). a) extruding in a single- or a multi-screw extruder at least one dextrin and at least one crosslinker selected from the group consisting of: a dianhydride, a dicarboxylic acid or a derivative thereof, 1,1-carbonyldiimidazole, a carbonate ester, a diisocyanate, a diepoxide, and sodium trimetaphosphate; and b) obtaining the nanosponge from step a).