mhurhangee/ep-ind-claims huggingface dataset:
A method for use with a time-of-flight sensor, the method comprising: generating by at least one processing device at least one high-resolution depth map frame from at least one high-resolution image (302, 304, 306, 308) received from the time-of-flight sensor; analyzing by the at least one processing device at least one of the at least one high-resolution depth map frame and the at least one high-resolution image (302, 304, 306, 308); determining by the at least one processing device a pixel binning mode of operation having an illuminator power output level and a binning factor for at least one binned lower-resolution image; generating a new image at the at least one processing device using the binning factor as determined and the new illumination power as determined, and at least one binned lower-resolution depth map frame from the at least one binned lower-resolution image received from the time-of-flight sensor; combining information from the at least one high-resolution depth map frame with information from the at least one binned lower-resolution depth map frame to generate at least one compensated depth map frame; and controlling by the at least one processing device the time-of-flight sensor and at least one illuminator according to the pixel binning mode of operation. generating by at least one processing device at least one high-resolution depth map frame from at least one high-resolution image (302, 304, 306, 308) received from the time-of-flight sensor; analyzing by the at least one processing device at least one of the at least one high-resolution depth map frame and the at least one high-resolution image (302, 304, 306, 308); determining by the at least one processing device a pixel binning mode of operation having an illuminator power output level and a binning factor for at least one binned lower-resolution image; generating a new image at the at least one processing device using the binning factor as determined and the new illumination power as determined, and at least one binned lower-resolution depth map frame from the at least one binned lower-resolution image received from the time-of-flight sensor; combining information from the at least one high-resolution depth map frame with information from the at least one binned lower-resolution depth map frame to generate at least one compensated depth map frame; and controlling by the at least one processing device the time-of-flight sensor and at least one illuminator according to the pixel binning mode of operation.
A dialysis system for conducting a dialysis treatment, comprising: a dialysis machine (150, 200) including a port arranged and configured to receive a disposable cassette used in the dialysis treatment; and a cleaning cartridge insertable into the port formed in the dialysis machine (150, 200), the cleaning cartridge including one or more features arranged and configured to remove foreign debris from the port; wherein the cleaning cartridge includes an outer surface, the outer surface being arranged and configured to collect foreign debris located in the port so that upon removing the cleaning cartridge from the port, foreign debris is removed from the port. a dialysis machine (150, 200) including a port arranged and configured to receive a disposable cassette used in the dialysis treatment; and a cleaning cartridge insertable into the port formed in the dialysis machine (150, 200), the cleaning cartridge including one or more features arranged and configured to remove foreign debris from the port; wherein the cleaning cartridge includes an outer surface, the outer surface being arranged and configured to collect foreign debris located in the port so that upon removing the cleaning cartridge from the port, foreign debris is removed from the port.
A non-transitory computer readable storage medium having stored thereon instructions that, when executed on one or more processors of a robotic surgical system, cause the one or more processors to: capture a plurality of images within a luminal network with an imaging device of the robotic surgical system, the imaging device positioned on an instrument of the robotic surgical system adapted to be navigated through the luminal network, the plurality of images comprising at least a first image captured at a first time and a second image captured at a second time subsequent to the first time; identify a first airway in the first image; identify two or more airways in the second image; determine, based on the first airway in the first image and the two or more airways in the second image, that an overlap condition is met; access preoperative model data indicative of an expected count of airways corresponding to a location of the instrument during the second time; and determine, based on the preoperative model data and the determination that the overlap condition is met, a mapping between the two or more airways in the second image and the airways in the preoperative model data. capture a plurality of images within a luminal network with an imaging device of the robotic surgical system, the imaging device positioned on an instrument of the robotic surgical system adapted to be navigated through the luminal network, the plurality of images comprising at least a first image captured at a first time and a second image captured at a second time subsequent to the first time; identify a first airway in the first image; identify two or more airways in the second image; determine, based on the first airway in the first image and the two or more airways in the second image, that an overlap condition is met; access preoperative model data indicative of an expected count of airways corresponding to a location of the instrument during the second time; and determine, based on the preoperative model data and the determination that the overlap condition is met, a mapping between the two or more airways in the second image and the airways in the preoperative model data.
Method for preparing one or more olefins, wherein a reaction feedstock containing oxygen and one or more paraffins is formed, and wherein a portion of the oxygen in the reaction feedstock is reacted with a portion of the paraffin or paraffins, thus obtaining a process gas, by an oxidative process, in particular by an oxidative dehydrogenation or an oxidative methane coupling, to form the olefin or olefins, the process gas containing at least the unreacted portion of the paraffin or paraffins and of the oxygen, the olefin or olefins, one or more acetylenes, carbon dioxide and water, characterized in that the method involves the process gas, or a gaseous mixture which is formed using at least a portion of the process gas, being partly or completely subjected to, in the order indicated here, a condensate separation, a compression, an at least partial removal of the oxygen and of the acetylene or acetylenes, and one or more stages of a carbon dioxide removal, the at least partial removal of the oxygen and of the acetylene or acetylenes taking place simultaneously and by catalytic reaction using a catalyst containing copper oxide or ruthenium, and the catalytic reaction taking place at least in part in the form of a hydrogenation.
A method for determining the concentration of an additional component in a body made of glassy material, comprising measuring the difference between the optical path length or the signal propagation time of a measuring wave penetrating the body made of glassy material in a measuring direction and the optical path length or the signal propagation time of a comparison measuring wave which does not penetrate the body made of glassy material, characterized in that modulated gigahertz radiation is used as the measuring wave, which covers the frequency range between 20 and 300 gigahertz, in that the body consists of a glass with a high silicic acid content, and in that the additional component is selected from the group consisting of hydroxyl groups, hydrogen, a metal oxide and/or a halogen.
An offshore wind turbine on a floating support comprising either a rotor with a horizontal rotation axis (horizontal-axis wind turbine HAWT) or a rotor with a vertical rotation axis (vertical-axis wind turbine VAWT), said rotor being mounted on a floating support having a principal axis, characterized in that said principal axis of the floating support is offset by an angle α with respect to: either the axis of a tower carrying the horizontal-axis rotor or to the rotation axis of the vertical-axis rotor.
Upper stop system of a front axle suspension of a motor vehicle arranged along a main axis, comprising a support for connection with the vehicle body, and an axial bearing stop with balls coming under this support, comprising an upper cup fitting in a centering of this support, having a raceway of the balls inclined with respect to a transverse plane, and a lower cup arranged under these balls, the upper stop system comprising a device for clipping the upper cup under the support, characterized in that it comprises an indexing of the angular position of this upper cup around the main axis.
Door system for a motor vehicle, preferably a commercial vehicle, in particular a bus/coach, with: - a door frame which serves as a supporting structure for a motor vehicle door for opening and closing a motor vehicle opening, wherein the door frame has side supports and at least one transverse support connecting the side supports, wherein - the door frame is of planar design, and - the door system comprises a planar portal frame which serves to surround the motor vehicle opening and is designed for installation on the motor vehicle, and the door frame is movable relative to the portal frame when the portal frame is mounted on the motor vehicle, characterized by at least one securing element which, in a first state, in which the portal frame is not mounted on the motor vehicle, prevents movement of the door frame relative to the portal frame and which, in a second state, permits movement of the door frame relative to the portal frame and serves to fasten the portal frame to the motor vehicle. - a door frame which serves as a supporting structure for a motor vehicle door for opening and closing a motor vehicle opening, wherein the door frame has side supports and at least one transverse support connecting the side supports, wherein - the door frame is of planar design, and - the door system comprises a planar portal frame which serves to surround the motor vehicle opening and is designed for installation on the motor vehicle, and the door frame is movable relative to the portal frame when the portal frame is mounted on the motor vehicle, characterized by at least one securing element which, in a first state, in which the portal frame is not mounted on the motor vehicle, prevents movement of the door frame relative to the portal frame and which, in a second state, permits movement of the door frame relative to the portal frame and serves to fasten the portal frame to the motor vehicle.
Use of a mix of biomass and Deinococcus bacteria, said biomass being at least partially digested by said Deinococcus bacteria, as protein supply for feedstuff.
Hose band connector for connecting hose band elements which each comprise a plurality of hoses, arranged in a band, for lines, with - a flange carrier which comprises a first connecting side and a second connecting side, between which passages are formed for a line connection, and - fixing devices on the first connecting side and the second connecting side for flanging the hoses of the hose band elements, - wherein at least one receiving element for a plug-type connection between a first electric line and a second electric line is formed on the flange carrier, characterised in that - a cover member is provided on the flange carrier and can be moved between a closed position, in which the electric plug-type connection is covered, and a released position, in which the plug-type connection is accessible. - a flange carrier which comprises a first connecting side and a second connecting side, between which passages are formed for a line connection, and - fixing devices on the first connecting side and the second connecting side for flanging the hoses of the hose band elements, - wherein at least one receiving element for a plug-type connection between a first electric line and a second electric line is formed on the flange carrier, - a cover member is provided on the flange carrier and can be moved between a closed position, in which the electric plug-type connection is covered, and a released position, in which the plug-type connection is accessible.
A method for forming an aluminum alloy comprising the steps: a. casting an alloy billet of an aluminum alloy composition, the composition consisting of the following components (in weight percent of the aluminum alloy composition): Si 0- 0.40; Fe 0- 0.70; Cu 5.0 - 6.0; Zn 0- 0.30; Bi 0.20 - 0.80; Sn 0.10 - 0.50; wherein Si, Fe, Cu, Zn, Bi, and Sn are the only components intentionally added to the alloy composition such that any other material exist only as incidental impurities, with the balance being aluminum save for the incidental impurities, said alloy composition having a ratio by weight of Bi/Sn of less than 1.32/1; b. optionally homogenizing the cast billet; c. extruding the cast billet to form an extrusion having a profile shape; d. solution heat treating the extrusion by heating to a soak temperature between 482-571°C (900-1060°F) and quenching from the soak temperature to room temperature; e. cold working the extrusion after step d) via drawing, stretching or rolling to a minimum of 5% reduction of cross sectional area; and f. artificial aging the extrusion of step e) to peak hardness using only a T8 or T6 temper to produce said aluminum alloy having an Ultimate Tensile Strength ≥ 311 MPa (45.0 KSI), Yield Strength ≥ 262 MPa (38.0 KSI), and % Elongation minimum ≥ 10%. a. casting an alloy billet of an aluminum alloy composition, the composition consisting of the following components (in weight percent of the aluminum alloy composition): Si 0- 0.40; Fe 0- 0.70; Cu 5.0 - 6.0; Zn 0- 0.30; Bi 0.20 - 0.80; Sn 0.10 - 0.50; wherein Si, Fe, Cu, Zn, Bi, and Sn are the only components intentionally added to the alloy composition such that any other material exist only as incidental impurities, with the balance being aluminum save for the incidental impurities, said alloy composition having a ratio by weight of Bi/Sn of less than 1.32/1; Si 0- 0.40; Fe 0- 0.70; Cu 5.0 - 6.0; Zn 0- 0.30; Bi 0.20 - 0.80; Sn 0.10 - 0.50; wherein Si, Fe, Cu, Zn, Bi, and Sn are the only components intentionally added to the alloy composition such that any other material exist only as incidental impurities, with the balance being aluminum save for the incidental impurities, said alloy composition having a ratio by weight of Bi/Sn of less than 1.32/1; b. optionally homogenizing the cast billet; c. extruding the cast billet to form an extrusion having a profile shape; d. solution heat treating the extrusion by heating to a soak temperature between 482-571°C (900-1060°F) and quenching from the soak temperature to room temperature; e. cold working the extrusion after step d) via drawing, stretching or rolling to a minimum of 5% reduction of cross sectional area; and f. artificial aging the extrusion of step e) to peak hardness using only a T8 or T6 temper to produce said aluminum alloy having an Ultimate Tensile Strength ≥ 311 MPa (45.0 KSI), Yield Strength ≥ 262 MPa (38.0 KSI), and % Elongation minimum ≥ 10%.
A drying assembly for a printer, comprising: a number N of fan units directed to force air to a drying zone, characterized in that N is an integer 2 or greater and each fan unit comprises: a fan; a heating element positioned to heat the air moved by the fan; and a temperature sensor positioned near an exhaust of the fan unit; a controller coupled to each fan unit, the controller to monitor the temperature senor in each fan unit, the controller to independently adjust a speed of each fan to maintain the same temperature at all N fan units, the controller to keep the total airflow through all N fan units at a constant value. a number N of fan units directed to force air to a drying zone, characterized in that N is an integer 2 or greater and each fan unit comprises: a fan; a heating element positioned to heat the air moved by the fan; and a temperature sensor positioned near an exhaust of the fan unit; a fan; a heating element positioned to heat the air moved by the fan; and a temperature sensor positioned near an exhaust of the fan unit; a controller coupled to each fan unit, the controller to monitor the temperature senor in each fan unit, the controller to independently adjust a speed of each fan to maintain the same temperature at all N fan units, the controller to keep the total airflow through all N fan units at a constant value.
A method implemented by one or more processors of a client device that facilitates touch-free interaction between one or more users and an automated assistant, the method comprising: receiving a stream of image frames that are based on output from one or more cameras (107A, 114) of the client device; processing the image frames of the stream using at least one trained machine learning model (117A, 117B, 117C) stored locally on the client device to monitor for occurrence of both: a gaze of a user that is directed toward the one or more cameras of the client device, and movement of a mouth of the user; detecting, based on the monitoring, occurrence of both: the gaze of the user, and the movement of the mouth of the user; and in response to detecting the occurrence of both the gaze of the user and the movement of the mouth of the user, performing one or both of: adapting rendering of user interface output of the client device, and adapting audio data processing by the client device. receiving a stream of image frames that are based on output from one or more cameras (107A, 114) of the client device; processing the image frames of the stream using at least one trained machine learning model (117A, 117B, 117C) stored locally on the client device to monitor for occurrence of both: a gaze of a user that is directed toward the one or more cameras of the client device, and movement of a mouth of the user; a gaze of a user that is directed toward the one or more cameras of the client device, and movement of a mouth of the user; detecting, based on the monitoring, occurrence of both: the gaze of the user, and the movement of the mouth of the user; and the gaze of the user, and the movement of the mouth of the user; and in response to detecting the occurrence of both the gaze of the user and the movement of the mouth of the user, performing one or both of: adapting rendering of user interface output of the client device, and adapting audio data processing by the client device. adapting rendering of user interface output of the client device, and adapting audio data processing by the client device.
A mixing apparatus comprising: a first port for receiving milk; a second port for receiving steam; a mixing chamber for mixing milk, steam and air; an outlet spout which receives the mixed liquid from the mixing chamber, and a channel arrangement between the first and second ports and the mixing chamber, wherein the channel arrangement comprises: a first channel portion connected between the first port and a frothing section; a second channel portion connected between the second port and the frothing section, wherein the frothing section couples to the mixing chamber; and an air intake channel to the frothing section, characterized in that the mixing apparatus comprises a barrier element at an outlet of the mixing chamber to the outlet spout which is adapted such that, in use, the frothing section is filled sufficiently with steamed milk that a direct path from the second port to the mixing chamber is interrupted by the steamed milk. a first port for receiving milk; a second port for receiving steam; a mixing chamber for mixing milk, steam and air; an outlet spout which receives the mixed liquid from the mixing chamber, and a channel arrangement between the first and second ports and the mixing chamber, wherein the channel arrangement comprises: a first channel portion connected between the first port and a frothing section; a second channel portion connected between the second port and the frothing section, wherein the frothing section couples to the mixing chamber; and an air intake channel to the frothing section, a first channel portion connected between the first port and a frothing section; a second channel portion connected between the second port and the frothing section, wherein the frothing section couples to the mixing chamber; and an air intake channel to the frothing section, characterized in that the mixing apparatus comprises a barrier element at an outlet of the mixing chamber to the outlet spout which is adapted such that, in use, the frothing section is filled sufficiently with steamed milk that a direct path from the second port to the mixing chamber is interrupted by the steamed milk.
A photosensitive unit configured to be mounted in a main frame of an image forming apparatus in a prescribed direction, the image forming apparatus including a pressure unit ( 300, 1400), a first positioning portion, and a second positioning portion, the photosensitive unit comprising: a plurality of photosensitive drums juxtaposedly arrayed with each other in the prescribed direction, each photosensitive drum having an axis extending in an axial direction; a pair of metal plates ( 200, 1200, 2200) spaced away from each other in the axial direction and supporting the plurality of photosensitive drums, the pair of metal plates being configured to be positioned on the second positioning portion; and a resin frame ( 100, 1110) supporting the pair of metal plates and configured to support a plurality of developer cartridges, the resin frame being configured to be positioned on the first positioning portion; wherein the pair of metal plates ( 200, 1200, 2200) is configured to be pressed against the second positioning portion to be positioned with respect to the main frame when the resin frame ( 100, 1110) is pressed by the pressure unit ( 300, 1400) in the prescribed direction characterized by that the resin frame comprises a first protrusion protruding to a side at which the pair of metal plates is positioned, wherein each of the pair of metal plates ( 200, 1200, 2200) comprises a first engagement portion and a second engagement portion, the first engagement portion including an downstream section in the prescribed direction that is configured to engage with the first protrusion to be pressed by the first protrusion, the second engagement portion being formed at an downstream end portion of each of the pair of metal plates in the prescribed direction, the second engagement portion being configured to be engaged with the second positioning portion such that the pair of metal plates is restricted from moving in the prescribed direction and the vertical direction. a plurality of photosensitive drums juxtaposedly arrayed with each other in the prescribed direction, each photosensitive drum having an axis extending in an axial direction; a pair of metal plates ( 200, 1200, 2200) spaced away from each other in the axial direction and supporting the plurality of photosensitive drums, the pair of metal plates being configured to be positioned on the second positioning portion; and a resin frame ( 100, 1110) supporting the pair of metal plates and configured to support a plurality of developer cartridges, the resin frame being configured to be positioned on the first positioning portion; wherein the pair of metal plates ( 200, 1200, 2200) is configured to be pressed against the second positioning portion to be positioned with respect to the main frame when the resin frame ( 100, 1110) is pressed by the pressure unit ( 300, 1400) in the prescribed direction