mhurhangee/patent-ind-claim-en huggingface dataset:
An image capture system for capturing aerial images of the Earth, the image capture system comprising: an airplane; an image capture device (14; 14a) mounted to the airplane, the image capture device having a sensor for capturing an image; a computer system (20; 20a) configured to execute flight management software monitoring the position of the airplane and outputting signals to the image capture device to cause the image capture device to capture images ; and a detection computer configured to execute an abnormality detection algorithm for detecting an abnormality in an image immediately after the image is captured, the abnormality detection algorithm configured, when the abnormality is present in the captured image, to cause the detection computer to flag the image as bad and to send a signal to the flight management software executed on the computer system to automatically schedule a re-shoot of the image for a future time. an airplane; an image capture device (14; 14a) mounted to the airplane, the image capture device having a sensor for capturing an image; a computer system (20; 20a) configured to execute flight management software monitoring the position of the airplane and outputting signals to the image capture device to cause the image capture device to capture images ; and a detection computer configured to execute an abnormality detection algorithm for detecting an abnormality in an image immediately after the image is captured, the abnormality detection algorithm configured, when the abnormality is present in the captured image, to cause the detection computer to flag the image as bad and to send a signal to the flight management software executed on the computer system to automatically schedule a re-shoot of the image for a future time.
A method of transferring and mixing ink for printing, comprising: transferring ink from a supply container into a mixing area of a tank through a new ink supply inlet tube , wherein the mixing area has an inverted conical shape; transferring resident ink from a printing device into the mixing area through a resident ink supply inlet tube , wherein the transfers of the new ink and the resident ink into the mixing area are contemporaneous and cause mixing of the new ink and the resident ink; and transferring mixed ink from the mixing area to the printing device through an outlet port situated at bottom of the tank . transferring ink from a supply container into a mixing area of a tank through a new ink supply inlet tube , wherein the mixing area has an inverted conical shape; transferring resident ink from a printing device into the mixing area through a resident ink supply inlet tube , wherein the transfers of the new ink and the resident ink into the mixing area are contemporaneous and cause mixing of the new ink and the resident ink; and transferring mixed ink from the mixing area to the printing device through an outlet port situated at bottom of the tank .
Method for operating a sealing station of a packaging machine for producing packages (V) with packaging optics being at least essentially similar to one another at possibly varying filling degrees , the method comprising the following steps: • filling a packaging volume (P), enclosed between a lower and an upper packaging material , of at least one package (V) positioned inside the sealing station , with a gas (G) intended for creating a desired atmosphere, to a preset gassing target pressure (p soll ) for a finished package (V), • discharging a partial quantity (TM) of the gas (G) introduced into the packaging volume (P) from the packaging volume (P) via a line connected thereto into a collection volume (V3) linked thereto while retaining the packaging volume (P) generated by the preceding filling so that inside the packaging volume (P), a pressure reduced (p red ) relative to the gassing target pressure occurs for the remaining residual quantity (RM) of the filled gas (G), wherein the discharged partial quantity (TM) of the gas (G) substantially corresponds to the mass of the gas received within an imaginary partial volume (V2) of the packaging volume (P), which imaginary partial volume (V2) is enclosed by an imaginary plane (E), which crosses the packaging volume (P) and which occupies at least a part of an edge of the lower packaging material and the upper packaging material , and • reducing the packaging volume (P) maintained until then by the imaginary partial volume (V2) while moving the upper packaging material to an end position (L) essentially falling to the imaginary plane (E) so that the pressure (p red ) inside the package increases again to the gassing target pressure (p soll ). • filling a packaging volume (P), enclosed between a lower and an upper packaging material , of at least one package (V) positioned inside the sealing station , with a gas (G) intended for creating a desired atmosphere, to a preset gassing target pressure (p soll ) for a finished package (V), • discharging a partial quantity (TM) of the gas (G) introduced into the packaging volume (P) from the packaging volume (P) via a line connected thereto into a collection volume (V3) linked thereto while retaining the packaging volume (P) generated by the preceding filling so that inside the packaging volume (P), a pressure reduced (p red ) relative to the gassing target pressure occurs for the remaining residual quantity (RM) of the filled gas (G), • reducing the packaging volume (P) maintained until then by the imaginary partial volume (V2) while moving the upper packaging material to an end position (L) essentially falling to the imaginary plane (E) so that the pressure (p red ) inside the package increases again to the gassing target pressure (p soll ).
A method performed by a lower layer split-central unit, LLS-CU, performing at least one physical layer function of a base station in a wireless communication system, the method comprising: establishing a fronthaul interface to control a radio unit, RU, performing other physical layer functions of the base station; performing a modulation, a layer mapping and a resource element, RE, mapping for a downlink signal; and submitting, to the RU, the downlink signal for which the other physical layer functions are to be performed at the RU, wherein the other physical layer functions include a precoding, a digital beamforming, an inverse Fast Fourier Transform, iFFT, and a cyclic prefix, CP, addition for the downlink signal. establishing a fronthaul interface to control a radio unit, RU, performing other physical layer functions of the base station; performing a modulation, a layer mapping and a resource element, RE, mapping for a downlink signal; and submitting, to the RU, the downlink signal for which the other physical layer functions are to be performed at the RU, wherein the other physical layer functions include a precoding, a digital beamforming, an inverse Fast Fourier Transform, iFFT, and a cyclic prefix, CP, addition for the downlink signal.
A computer-implemented method for obtaining a decision model for picking for mushrooms from a bed, characterized by comprising the steps of: A. Repeatedly capturing images of picking operations of mushrooms from the same area of at least one bed before and after picking; B. Analysing the picking operation images by means of unsupervised learning, in particular machine learning by means of cluster analysis; C. Based on the analysis, obtaining a decision model for picking mushrooms from a bed. A. Repeatedly capturing images of picking operations of mushrooms from the same area of at least one bed before and after picking; B. Analysing the picking operation images by means of unsupervised learning, in particular machine learning by means of cluster analysis; C. Based on the analysis, obtaining a decision model for picking mushrooms from a bed.
A vehicle roof construction of a commercial vehicle in the form of a box van with several roof cross-beams and a roof lining covering these roof cross-beams on the underside with at least one roof lining element , characterised in that a ladder frame is formed from at least two ladder frame side members and at least two ladder frame cross members , wherein the ladder frame is attached to the roof cross-beams and wherein the at least one roof lining element is releasably attached to the ladder frame and wherein at least one roof cross-beam is arranged on the inside of a outer roof skin and at least one of the ladder frame cross members is configured to be complementary to at least one of the at least two roof cross-beams .
Light sheet microscope for recording 3D images of a specimen, comprising a light sheet generator and sheet scanning unit that produces a light sheet that is scanned through the specimen, an objective lens and an image detector and characterized in that it further comprises a wavefront encoder element or system positioned between the objective lens and the image detector at the exit pupil plane or a conjugated plane of the objective lens , for extending the depth of field of the objective lens , and further comprising a synchronisation unit for synchronizing the image detector with the scanning unit for acquiring with the light sheet , at any position in the z direction, the point spread functions (PSF) and the 2D images, and a digital processing unit for decoding the 2D images with an adequate deconvolution process, using the point spread functions at different depths which have been measured upfront at different position of the light sheet in the z direction, and transforming the 2D deconvolved images into a 3D image.
Elongated structure for a window frame suitable for supporting a panel for separating an inner environment from an outer environment, wherein the elongated structure comprises: - a first crosspiece defining a first abutment surface ; - a second crosspiece defining a second abutment surface , parallel to the first abutment surface ; - a truss structure connecting the first crosspiece and the second crosspiece ; wherein the truss structure comprises rods extending from connection zones of the first crosspiece to connection zones of the second crosspiece ; characterised in that the rods are tapered. - a first crosspiece defining a first abutment surface ; - a second crosspiece defining a second abutment surface , parallel to the first abutment surface ; - a truss structure connecting the first crosspiece and the second crosspiece ;
A packaging machine adapted to fold a flat sheet of protective material of an object that comprises: a product to be packaged substantially parallelepiped in shape, and a flat sheet of protective material that is placed to cover the base of said product to be packaged and also protrudes in a cantilever manner from the sides of the same product to be packaged ; said packaging machine comprising: a supporting framework resting on the ground; a linear conveyor which is located on the supporting framework and is adapted to feed said object along a substantially straight and horizontal path (p); a pair of movable shoulders that are arranged one in front of the other above the linear conveyor , extend parallel to said path (p) so as to define, above the linear conveyor , a longitudinal aisle , and are horizontally movable above the linear conveyor substantially perpendicular to said path (p); and a first moving device adapted to move said movable shoulders towards and away from one another; said packaging machine being characterised in that each movable shoulder comprises: a first folding assembly which is located inside the longitudinal aisle and is adapted to L-bend the facing/adjacent protruding lateral flap of the flat sheet upwards and substantially against the superjacent lateral side of the product to be packaged ; a second folding assembly which is located at the outlet of said longitudinal aisle and is adapted to L-bend the facing/adjacent protruding front flap of the flat sheet upwards and substantially against the superjacent front side of the product to be packaged ; and a third folding assembly which is located at the inlet of said longitudinal aisle and is adapted to L-bend the facing/adjacent protruding rear flap of the flat sheet upwards and substantially against the superjacent rear side of the product to be packaged .
A reduced-pressure treatment system for treating a tissue site on a patient, the system comprising: a gasket releasably attached around a perimeter of the tissue site , wherein the gasket comprises a gasket material having a first side and a second, patient-facing side and the gasket material comprises a polymer film; a manifold sized and configured to be placed in contact with the tissue site; an over-drape positioned over the manifold and sealed to the gasket to create a sealed space between the over-drape and the tissue site; a second attachment apparatus coupled to the second-patient facing side of the gasket material; a first attachment apparatus for coupling the over-drape to the gasket , wherein the first attachment apparatus comprises an adhesive tape; and a reduced-pressure source fluidly coupled to the sealed space to deliver reduced pressure to the tissue site. a gasket releasably attached around a perimeter of the tissue site , wherein the gasket comprises a gasket material having a first side and a second, patient-facing side and the gasket material comprises a polymer film; a manifold sized and configured to be placed in contact with the tissue site; an over-drape positioned over the manifold and sealed to the gasket to create a sealed space between the over-drape and the tissue site; a second attachment apparatus coupled to the second-patient facing side of the gasket material; a first attachment apparatus for coupling the over-drape to the gasket , wherein the first attachment apparatus comprises an adhesive tape; and a reduced-pressure source fluidly coupled to the sealed space to deliver reduced pressure to the tissue site.
A compound engine assembly comprising: an engine core including at least one internal combustion engine in driving engagement with an engine shaft ; a compressor having an outlet in fluid communication with an inlet of the engine core , the compressor including at least one compressor rotor rotatable about an axis of rotation coaxial with the engine shaft ; and a turbine section having an inlet in fluid communication with an outlet of the engine core , the turbine section including at least one turbine rotor engaged on a rotatable turbine shaft , the turbine shaft and the engine shaft being mechanically linked to each other via a gearbox to drive a rotatable load, the turbine shaft and the engine shaft being parallel to one another and radially offset from one another; characterized in that the engine shaft is in driving engagement with the compressor rotor ; and the turbine shaft and the axis of rotation of the compressor rotor are parallel to one another and radially offset from one another. an engine core including at least one internal combustion engine in driving engagement with an engine shaft ; a compressor having an outlet in fluid communication with an inlet of the engine core , the compressor including at least one compressor rotor rotatable about an axis of rotation coaxial with the engine shaft ; and a turbine section having an inlet in fluid communication with an outlet of the engine core , the turbine section including at least one turbine rotor engaged on a rotatable turbine shaft , the turbine shaft and the engine shaft being mechanically linked to each other via a gearbox to drive a rotatable load, the turbine shaft and the engine shaft being parallel to one another and radially offset from one another; characterized in that the engine shaft is in driving engagement with the compressor rotor ; and the turbine shaft and the axis of rotation of the compressor rotor are parallel to one another and radially offset from one another.
A mobile terminal , comprising a display screen , a housing , and a camera device , wherein the display screen is mounted on the housing ; the housing is provided with an opening and is formed with an accommodating cavity in communication with the opening to accommodate the camera device ; the mobile terminal further comprises a position detection mechanism arranged in the accommodating cavity ; the position detection mechanism comprises a circuit board , a bracket , a first magnet , and a Hall sensor ; the camera device comprises a camera and a driving assembly ; the camera is arranged on the bracket , and the driving assembly is connected to the bracket for driving the bracket to move to drive the camera to stretch out of or retract into the housing ; the Hall sensor is arranged on the circuit board , and the Hall sensor comprises a first working surface (a) and a second working surface (b) respectively extending in different directions wherein the driving assembly comprises a driving member , an adapter , and a lead screw ; one end of the adapter is fixedly connected to the bracket , and the other end of the adapter is rotatably connected to the lead screw ; the lead screw is further rotatably connected to the driving member ; the driving member can drive the lead screw to rotate, so that the adapter drives the bracket to move, and the camera stretches out of or retracts into the housing from the opening .
A package-belt line drawing device , comprising: a holding mechanism that holds a plurality of writing tools; and characterised in that the package-belt line drawing device further comprising a switching mechanism (23-25) that moves any one of the writing tools forward to a line drawing position, wherein the holding mechanism holds a rotator while allowing the rotator to move rotationally and holds the writing tools while allowing the writing tools to move forward and rearward, the rotator including a plurality of holding portions that support the writing tools, respectively, wherein the rotator circularly moves the holding portions with the rotational movement while urging the holding portions rearward, and wherein the switching mechanism includes a rotational driving mechanism and a straight advance driving mechanism, the rotational driving mechanism being engaged with the holding mechanism to rotationally move the rotator, the straight advance driving mechanism moving any of the holding portions positioned at an engagement position by the rotational movement forward to the line drawing position. a holding mechanism that holds a plurality of writing tools; and characterised in that the package-belt line drawing device further comprising a switching mechanism (23-25) that moves any one of the writing tools forward to a line drawing position, wherein the holding mechanism holds a rotator while allowing the rotator to move rotationally and holds the writing tools while allowing the writing tools to move forward and rearward, the rotator including a plurality of holding portions that support the writing tools, respectively, wherein the rotator circularly moves the holding portions with the rotational movement while urging the holding portions rearward, and wherein the switching mechanism includes a rotational driving mechanism and a straight advance driving mechanism, the rotational driving mechanism being engaged with the holding mechanism to rotationally move the rotator, the straight advance driving mechanism moving any of the holding portions positioned at an engagement position by the rotational movement forward to the line drawing position.
A method for controlling a motor using a maximum torque per ampere field module and a direct flux vector control module, characterized in that the method comprises the steps of: - determining by the direct flux vector control module reference voltages in a fτ framework from an estimated flux ( λ̂ ) norm, a reference flux ( λ MTPA ∗ ), a measured current motor vector ( i fτ ) in a fτ framework using an estimated load angle ( δ̂ s ) and a reference current ( i τ ∗ ) in a τ axis that is obtained from a reference torque (T*) and the reference flux ( λ MTPA ∗ ) , - summing the reference voltages transformed in a stator αβ framework ( v * αβ ) with a high frequency injection voltage ( v αβ inj ), - driving the motor with the summed voltages, - measuring a motor current vector ( i αβ ), - determining the high frequency injection voltage ( v αβinj ) from the measured motor current vector ( i αβ ) and a high frequency sinewave signal ( i δ sin ( ω h t )), so that the high frequency current response of the motor to the high frequency injection voltages is perpendicular to the measured motor current vector, - determining an estimated flux ( λ̂ αβ ) from the measured motor currents ( i αβ ) and the voltage references ( v * αβ ), - determining , by the maximum torque per ampere field module, from the estimated flux ( λ̂ αβ ) and the high frequency sinewave signal ( sin ( ω h t )), the reference flux ( λ MTPA ∗ ) to be provided to the direct flux vector control module so that the high frequency flux response to the injected voltage is aligned with the measured current vector. - determining by the direct flux vector control module reference voltages in a fτ framework from an estimated flux ( λ̂ ) norm, a reference flux ( λ MTPA ∗ ), a measured current motor vector ( i fτ ) in a fτ framework using an estimated load angle ( δ̂ s ) and a reference current ( i τ ∗ ) in a τ axis that is obtained from a reference torque (T*) and the reference flux ( λ MTPA ∗ ) , - summing the reference voltages transformed in a stator αβ framework ( v * αβ ) with a high frequency injection voltage ( v αβ inj ), - driving the motor with the summed voltages, - measuring a motor current vector ( i αβ ), - determining the high frequency injection voltage ( v αβinj ) from the measured motor current vector ( i αβ ) and a high frequency sinewave signal ( i δ sin ( ω h t )), so that the high frequency current response of the motor to the high frequency injection voltages is perpendicular to the measured motor current vector, - determining an estimated flux ( λ̂ αβ ) from the measured motor currents ( i αβ ) and the voltage references ( v * αβ ), - determining , by the maximum torque per ampere field module, from the estimated flux ( λ̂ αβ ) and the high frequency sinewave signal ( sin ( ω h t )), the reference flux ( λ MTPA ∗ ) to be provided to the direct flux vector control module so that the high frequency flux response to the injected voltage is aligned with the measured current vector.