mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigerator and/or freezer , with an appliance carcass, and a refrigerated inner space which is located in the appliance carcass, wherein the appliance is designed such that an air flow forms in the refrigerated inner space during operation of the device , the appliance comprises adjustable means which act on the air flow such that the air flow depends on the setting of the means, so that in the refrigerated inner space depending on the setting of the means and hence depending on the effect on the air flow regions of different temperature are formed, the means comprise a fan which conveys air from a region into a cold-air duct in which an evaporator is located, and which is held by way of fastening means which are designed such that they can be arranged in different positions, characterised in that predetermined positions are present between which the fastening means can be displaced in discrete steps.
An image processing method, comprising: determining a source transmission map (120; 230; 310) based on a dark channel map of an input image (110; 210; 340; 410; 420; 510; 520); determining transformed transmission maps (130; 331, 332) by applying different filters to the determined source transmission map; generating haze-free images (140; 351, 352; 430; 440; 530; 540; 611, 612; 710, 720) by removing haze from the input image based respectively on the determined transformed transmission maps; and generating an output image (150; 630; 740; 810; 820) by blending the generated haze-free images based on a blending weight , the method being characterized in that the blending weight is determined based on edges in the input image, and in that the generated haze-free images comprise: a first haze-free image (351; 611; 710) for determining a flat region of the output image, wherein the first haze-free image comprises the flat region including a restored texture; and a second haze-free image (352; 612; 720) for determining a strong edge region of the output image, wherein the second haze-free image comprises the strong edge region including a suppressed halo artifact. determining a source transmission map (120; 230; 310) based on a dark channel map of an input image (110; 210; 340; 410; 420; 510; 520); determining transformed transmission maps (130; 331, 332) by applying different filters to the determined source transmission map; generating haze-free images (140; 351, 352; 430; 440; 530; 540; 611, 612; 710, 720) by removing haze from the input image based respectively on the determined transformed transmission maps; and generating an output image (150; 630; 740; 810; 820) by blending the generated haze-free images based on a blending weight , the method being characterized in that the blending weight is determined based on edges in the input image, and in that the generated haze-free images comprise: a first haze-free image (351; 611; 710) for determining a flat region of the output image, wherein the first haze-free image comprises the flat region including a restored texture; and a second haze-free image (352; 612; 720) for determining a strong edge region of the output image, wherein the second haze-free image comprises the strong edge region including a suppressed halo artifact. a first haze-free image (351; 611; 710) for determining a flat region of the output image, wherein the first haze-free image comprises the flat region including a restored texture; and a second haze-free image (352; 612; 720) for determining a strong edge region of the output image, wherein the second haze-free image comprises the strong edge region including a suppressed halo artifact.
An optical device , comprising: an electro-optical layer , having an effective local index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; a first array of first excitation electrodes , comprising first parallel conductive stripes extending in a first direction over the active area on a first side of the electro-optical layer; a second array of second excitation electrodes , comprising second parallel conductive stripes extending in a second direction, orthogonal to the first direction, over the active area on a second side of the electro-optical layer, opposite the first side; and control circuitry , which is coupled to apply respective control voltage waveforms to the excitation electrodes and is configured to concurrently modify the respective control voltage waveforms applied to both the first excitation electrodes and the second excitation electrodes so as to generate a specified phase modulation profile in the electro-optical layer, characterized in that the electro-optical layer has a layer thickness equal to a distance between the first and second sides, and the excitation electrodes have an inter-electrode pitch that is less than four times the layer thickness of the electro-optical layer. an electro-optical layer , having an effective local index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; a first array of first excitation electrodes , comprising first parallel conductive stripes extending in a first direction over the active area on a first side of the electro-optical layer; a second array of second excitation electrodes , comprising second parallel conductive stripes extending in a second direction, orthogonal to the first direction, over the active area on a second side of the electro-optical layer, opposite the first side; and control circuitry , which is coupled to apply respective control voltage waveforms to the excitation electrodes and is configured to concurrently modify the respective control voltage waveforms applied to both the first excitation electrodes and the second excitation electrodes so as to generate a specified phase modulation profile in the electro-optical layer, characterized in that the electro-optical layer has a layer thickness equal to a distance between the first and second sides, and the excitation electrodes have an inter-electrode pitch that is less than four times the layer thickness of the electro-optical layer.
An automatic removal system for automatically removing a tape (T) and a resin (R) exposed to an outside of a battery module (B), the system comprising: a removal assembly including a removal device for removing the tape (T) and the resin (R); and an automatic multi-axis robot coupled to the removal assembly and configured to drive the removal assembly to remove the tape (T) and the resin (R) of the battery module (B), wherein the removal assembly includes a first removal device for removing the tape (T) and the resin (R) attached to the tape (T), wherein the removal assembly further includes a second removal device for removing the resin (R) remaining on the battery module (B) left by the first removal device , characterized in that the first removal device includes rods arranged side by side along one side of a base of the removal assembly and each of the rods extending downward, and a gripper integrally formed at a front end of each of the rods , and the second removal device includes a support bracket or block formed on a second side of the removal device opposite to a first side in which the first removal device is arranged, and a knife or scraper installed on the support bracket or block to remove the resin (R). a removal assembly including a removal device for removing the tape (T) and the resin (R); and an automatic multi-axis robot coupled to the removal assembly and configured to drive the removal assembly to remove the tape (T) and the resin (R) of the battery module (B), wherein the removal assembly includes a first removal device for removing the tape (T) and the resin (R) attached to the tape (T), wherein the removal assembly further includes a second removal device for removing the resin (R) remaining on the battery module (B) left by the first removal device , characterized in that the first removal device includes rods arranged side by side along one side of a base of the removal assembly and each of the rods extending downward, and a gripper integrally formed at a front end of each of the rods , and the second removal device includes a support bracket or block formed on a second side of the removal device opposite to a first side in which the first removal device is arranged, and a knife or scraper installed on the support bracket or block to remove the resin (R).
Assembly of a climbing rail and a climbing lift rail , which is movable relative to the climbing rail and guided by the climbing rail , for a rail-guided climbing system which is usable in particular as a climbing formwork, a climbing frame, a climbing protection wall, and/or a climbing working platform, wherein the climbing system comprises climbing shoes that are arrangeable on a building structure in a stationary manner and a lifting device that is fixed to the climbing rail at one end and to the climbing lift rail at the other end, wherein the climbing rail is guided by the climbing shoes , wherein the climbing rail and the climbing lift rail are suspendable on at least one of the climbing shoes in the direction opposite the climbing direction and unhookable from the at least one of the climbing shoes in the climbing direction and movable relative to the at least one of the climbing shoes , wherein a fixing means is provided in order to fix the climbing rail and the climbing lift rail to each other in a reversibly releasable manner independently of a fixation to each other by means of the lifting device .
A propulsion system controller configured to control a propulsion system of a watercraft, said propulsion system comprising: - a switchboard ; - a further switchboard ; - an inter switchboard converter coupled to said switchboard and said further switchboard , said inter switchboard converter comprising a first power converter coupled to said switchboard , a second power converter coupled to said further switchboard and said first power converter , and a battery coupled to said first power converter and said second power converter , - one or more electric propulsion motors coupled to said switchboard ; and - one or more electric generators coupled to said further switchboard , characterized in that said switchboard is a variable voltage switchboard, said further switchboard is a fixed voltage switchboard, and said controller is configured to be set to one of a plurality of modes, and is further configured to: - in a first of said plurality of modes , control said one or more electric generators to generate electricity at a constant voltage and a constant frequency, to control said second power converter to convert AC power from said one or more electric generators to DC power with a voltage suitable for said battery , and to control said first converter to convert DC power from said second power converter and said battery to AC power with a voltage and a frequency corresponding to a speed or power selected for said one or more electric propulsion motors , and - in a second of said plurality of modes , control said one or more electric generators not to generate electricity and to control said first converter to convert DC power from said battery to AC power, said AC power being provided to at least said one or more electric propulsion motors . - a switchboard ; - a further switchboard ; - an inter switchboard converter coupled to said switchboard and said further switchboard , said inter switchboard converter comprising a first power converter coupled to said switchboard , a second power converter coupled to said further switchboard and said first power converter , and a battery coupled to said first power converter and said second power converter , - one or more electric propulsion motors coupled to said switchboard ; and - one or more electric generators coupled to said further switchboard , - in a first of said plurality of modes , control said one or more electric generators to generate electricity at a constant voltage and a constant frequency, to control said second power converter to convert AC power from said one or more electric generators to DC power with a voltage suitable for said battery , and to control said first converter to convert DC power from said second power converter and said battery to AC power with a voltage and a frequency corresponding to a speed or power selected for said one or more electric propulsion motors , and - in a second of said plurality of modes , control said one or more electric generators not to generate electricity and to control said first converter to convert DC power from said battery to AC power, said AC power being provided to at least said one or more electric propulsion motors .
An air handling unit comprising air conditioning components 111, 122, characterized in that the air handling unit comprises a U-shaped air treatment arrangement, which U-shaped air treatment arrangement extends completely between longitudinal walls 102, floor 201 and ceiling 202 of the air handling unit, thereby defining an air intake zone 123 and an air outflow zone 119 within the air handling unit, which U-shaped air treatment arrangement comprises, - beginning at a first longitudinal wall 102 of the air handling unit, a first secondary bypass wall 107, connected perpendicular to the first longitudinal wall 102, - the first secondary bypass wall 107 is connected in a perpendicular manner to a first primary air path wall 105 running parallel to the first longitudinal wall 102, - the first primary air path wall 105 is connected via a first corner connection piece 106 to a primary bypass wall 104 which is positioned perpendicular to the first primary air path wall 105 and distal from the first secondary bypass wall 107 along the first primary air path wall 105, - the primary bypass wall 104 is connected via a second corner connection piece 106 perpendicular to a second primary air path wall 105 running parallel to the first primary air path wall 105 and a second longitudinal wall 102 of the air handling unit, - the second primary air path wall 105 is connected in a perpendicular manner to a second secondary bypass wall 107, which second secondary bypass wall 107 is connected in a perpendicular manner to the second longitudinal wall 102, wherein, in conjunction with the floor 201 and ceiling 202 of the air handling unit, the U-shaped air treatment arrangement completely divides the air handling unit into an air intake zone 123 and an air outflow zone 119; and wherein the first and second primary air path walls 105 are equipped with the air conditioning components 111. - beginning at a first longitudinal wall 102 of the air handling unit, a first secondary bypass wall 107, connected perpendicular to the first longitudinal wall 102, - the first secondary bypass wall 107 is connected in a perpendicular manner to a first primary air path wall 105 running parallel to the first longitudinal wall 102, - the first primary air path wall 105 is connected via a first corner connection piece 106 to a primary bypass wall 104 which is positioned perpendicular to the first primary air path wall 105 and distal from the first secondary bypass wall 107 along the first primary air path wall 105, - the primary bypass wall 104 is connected via a second corner connection piece 106 perpendicular to a second primary air path wall 105 running parallel to the first primary air path wall 105 and a second longitudinal wall 102 of the air handling unit, - the second primary air path wall 105 is connected in a perpendicular manner to a second secondary bypass wall 107, which second secondary bypass wall 107 is connected in a perpendicular manner to the second longitudinal wall 102,
A method for determining a parameter map used for estimating an operation condition for an energy storage device, said method comprising the steps of: determining (S302; S502) a first parameter value of a parameter related to the operation condition of said energy storage device and a variance of said first parameter value, said first parameter value being related to a current operating point of a parameter map comprising at least two operating points each having a related parameter value of said parameter; for the current operating point, estimating (S304; S504) an updated parameter value and an updated variance of said first parameter value, said update being an update over time; for at least a portion of operating points of said parameter map, estimating (S306; S506) an updated parameter value and an updated variance of each of the parameter values using a correlation model including correlation between the parameter value at the current operating point and each of the parameter values at the operating points in said portion of operating points in said parameter map; and based on said updated parameter values and updated variances, updating said parameter map by replacing the parameter values with the updated parameter values and the variances with the updated variances at the respective operating point. determining (S302; S502) a first parameter value of a parameter related to the operation condition of said energy storage device and a variance of said first parameter value, said first parameter value being related to a current operating point of a parameter map comprising at least two operating points each having a related parameter value of said parameter; for the current operating point, estimating (S304; S504) an updated parameter value and an updated variance of said first parameter value, said update being an update over time; for at least a portion of operating points of said parameter map, estimating (S306; S506) an updated parameter value and an updated variance of each of the parameter values using a correlation model including correlation between the parameter value at the current operating point and each of the parameter values at the operating points in said portion of operating points in said parameter map; and based on said updated parameter values and updated variances, updating said parameter map by replacing the parameter values with the updated parameter values and the variances with the updated variances at the respective operating point.
A method for producing a corneal implant, comprising: providing donor corneal tissue extracted from a donor cornea, the donor corneal tissue having an anterior surface and a posterior surface; forming an interior channel in the donor corneal tissue at a depth below the anterior surface, the channel having a channel shape; and positioning a supporting structure formed from non-tissue material in the channel of the donor corneal tissue, the supporting structure having a supporting-structure shape and providing support to resist deformation of the donor corneal tissue. providing donor corneal tissue extracted from a donor cornea, the donor corneal tissue having an anterior surface and a posterior surface; forming an interior channel in the donor corneal tissue at a depth below the anterior surface, the channel having a channel shape; and positioning a supporting structure formed from non-tissue material in the channel of the donor corneal tissue, the supporting structure having a supporting-structure shape and providing support to resist deformation of the donor corneal tissue.
A method for automatic camera capture configuration during operation of an autonomous machine comprising: capturing image data of a scene using one or more cameras configured with at least one initial camera capture parameter that comprises one or more of exposure time, gain, and active lighting intensity; the method being characterised by the following steps: comparing pixel intensities of the image to a pixel intensity threshold to determine if the image data is well-exposed; generating irradiance image data based on applying the image data of the scene to a calibrated irradiance map to estimate scene brightness; generating simulated image data based on the estimate of image data that would be captured in view of the estimated scene brightness if a different test camera capture parameter was used to capture the image data instead of the at least one initial camera capture parameter; determining a simulated pixel intensity based on the simulated image data; and generating at least one updated camera capture parameter based on the different test camera capture parameter in response to determining that the simulated pixel intensity is well-exposed. comparing pixel intensities of the image to a pixel intensity threshold to determine if the image data is well-exposed; generating irradiance image data based on applying the image data of the scene to a calibrated irradiance map to estimate scene brightness; generating simulated image data based on the estimate of image data that would be captured in view of the estimated scene brightness if a different test camera capture parameter was used to capture the image data instead of the at least one initial camera capture parameter; determining a simulated pixel intensity based on the simulated image data; and generating at least one updated camera capture parameter based on the different test camera capture parameter in response to determining that the simulated pixel intensity is well-exposed.
A method for screen printing of a material on a substrate, comprising: moving a process head assembly having at least one deposition device from a first position to a second position to perform a stroke, wherein the stroke includes at least a first phase for material processing of a material on a screen device using the at least one deposition device and a second phase for a material transfer from the screen device to the substrate, wherein the at least one deposition device moves in a first direction in the first phase, wherein at least one device moves in a second direction perpendicular to the first direction in the first phase, and wherein the at least one device is selected from the group consisting of the at least one deposition device, a material processing device, the screen device, and a substrate support, characterized in that the at least one deposition device and the at least one device move simultaneously during at least a part of the first phase. moving a process head assembly having at least one deposition device from a first position to a second position to perform a stroke, wherein the stroke includes at least a first phase for material processing of a material on a screen device using the at least one deposition device and a second phase for a material transfer from the screen device to the substrate, wherein the at least one deposition device moves in a first direction in the first phase, wherein at least one device moves in a second direction perpendicular to the first direction in the first phase, and wherein the at least one device is selected from the group consisting of the at least one deposition device, a material processing device, the screen device, and a substrate support, characterized in that the at least one deposition device and the at least one device move simultaneously during at least a part of the first phase.