mhurhangee/patent-ind-claim-en huggingface dataset:
A method for masking the effects of a flash on an operator in a drawer vision system (DVS) for a process control manager (PCM) used in clinical testing comprising: receiving, in a drawer of a drawer system, a tray configured to hold one or more laboratory containers; centering the tray underneath an image capture device using a drawer encoder system; activating, based on said centering, a flash device to illuminate the one or more laboratory containers; mitigating, using a flash masking system, at least one visual effect of the flash device; and capturing, using the image capture device, an illuminated image of the one or more laboratory containers, wherein the flash masking system includes means configured for - illuminating a background light source within the drawer system to reduce the flash device's perceived intensity. receiving, in a drawer of a drawer system, a tray configured to hold one or more laboratory containers; centering the tray underneath an image capture device using a drawer encoder system; activating, based on said centering, a flash device to illuminate the one or more laboratory containers; mitigating, using a flash masking system, at least one visual effect of the flash device; and capturing, using the image capture device, an illuminated image of the one or more laboratory containers, wherein the flash masking system includes means configured for - illuminating a background light source within the drawer system to reduce the flash device's perceived intensity. - illuminating a background light source within the drawer system to reduce the flash device's perceived intensity.
A method, comprising: performing, at one or more computing devices: obtaining a first indication of a destination of a vehicle; in response to determining that a threshold distance to the destination has been reached, initiating a vicinity-triggered interaction including a request for input, by an authorized occupant of the vehicle, regarding navigation to a preferred stopping point within a vicinity of the destination; detecting, using one or more sensor devices , one or more signals generated by an individual permitted to provide guidance with respect to movements of the vehicle, wherein the one or more signals are usable to determine a navigation path within the vicinity of the destination; identifying , based at least in part on (a) the one or more signals and (b) a data set pertaining to an external environment of the vehicle, one or more vehicular movements to be implemented to proceed along the navigation path; and transmitting a first directive to one or more motion control subsystems of the vehicle to initiate at least a first vehicular movement of the one or more vehicular movements. obtaining a first indication of a destination of a vehicle; in response to determining that a threshold distance to the destination has been reached, initiating a vicinity-triggered interaction including a request for input, by an authorized occupant of the vehicle, regarding navigation to a preferred stopping point within a vicinity of the destination; detecting, using one or more sensor devices , one or more signals generated by an individual permitted to provide guidance with respect to movements of the vehicle, wherein the one or more signals are usable to determine a navigation path within the vicinity of the destination; identifying , based at least in part on (a) the one or more signals and (b) a data set pertaining to an external environment of the vehicle, one or more vehicular movements to be implemented to proceed along the navigation path; and transmitting a first directive to one or more motion control subsystems of the vehicle to initiate at least a first vehicular movement of the one or more vehicular movements.
A respiratory monitoring system , comprising: a mechanical ventilator configurable to perform a ventilation mode that includes an inhalation gas delivery phase and provides extrinsic positive end-expiratory pressure (PEEP) at a PEEP level during an exhalation phase; a breathing tubing circuit including: a patient port , a gas inlet line connected to supply gas from the mechanical ventilator to the patient port, a gas flow meter connected to measure gas flow into lungs of the patient, a pressure sensor connected to measure gas pressure at the patient port, and at least one processor characterized in that the at least one processor is programmed to: compute a proxy pressure based on an integral of gas flow into the lungs measured by the gas flow meter; and trigger the inhalation gas delivery phase of the ventilation mode when the proxy pressure decreases below a trigger pressure threshold. a mechanical ventilator configurable to perform a ventilation mode that includes an inhalation gas delivery phase and provides extrinsic positive end-expiratory pressure (PEEP) at a PEEP level during an exhalation phase; a breathing tubing circuit including: a patient port , a gas inlet line connected to supply gas from the mechanical ventilator to the patient port, a gas flow meter connected to measure gas flow into lungs of the patient, a pressure sensor connected to measure gas pressure at the patient port, and a patient port , a gas inlet line connected to supply gas from the mechanical ventilator to the patient port, a gas flow meter connected to measure gas flow into lungs of the patient, a pressure sensor connected to measure gas pressure at the patient port, and at least one processor characterized in that the at least one processor is programmed to: compute a proxy pressure based on an integral of gas flow into the lungs measured by the gas flow meter; and trigger the inhalation gas delivery phase of the ventilation mode when the proxy pressure decreases below a trigger pressure threshold. compute a proxy pressure based on an integral of gas flow into the lungs measured by the gas flow meter; and trigger the inhalation gas delivery phase of the ventilation mode when the proxy pressure decreases below a trigger pressure threshold.
A method comprising: receiving, by a first hydrophone of a tool moving relative to a stationary acoustic source disposed in a wellbore , a first acoustic signal generated by the stationary acoustic source ; receiving, by a second hydrophone of the tool moving relative to the stationary acoustic source , second acoustic signals generated by the stationary acoustic source ; and determining a location of the stationary acoustic source in the wellbore based on differences in Doppler shifts between the first acoustic signals and the second acoustic signals. receiving, by a first hydrophone of a tool moving relative to a stationary acoustic source disposed in a wellbore , a first acoustic signal generated by the stationary acoustic source ; receiving, by a second hydrophone of the tool moving relative to the stationary acoustic source , second acoustic signals generated by the stationary acoustic source ; and determining a location of the stationary acoustic source in the wellbore based on differences in Doppler shifts between the first acoustic signals and the second acoustic signals.
A side press safety cap, wherein a safety cap comprises an inner cap forming a screw thread at an inner circumferential surface so as to be combined with screw combination to an upper portion of a container body where contents are stored, and an outer cap which is combined encircling the inner cap to be rotatable, further comprising: one or more open guide protrusions and close guide protrusions are equipped at an outer circumferential surface of the inner cap , so as to be rotated together with the outer cap when rotating the outer cap to opening direction or closing direction; and at an inner circumferential surface of the outer cap , a first rotation protrusion which interlocks with the open rotation protrusion and rotates the inner cap when the outer cap are rotated to opening direction in a state of the sides of the outer cap being pressurized, and a second rotation protrusion which interlocks with the close guide protrusions and rotates the inner cap when the outer cap is rotated to closing direction, characterized in that the second rotation protrusion extends forming a gentle curve from a point of an inner circumferential surface of the outer cap and goes over the close guide protrusions when the outer cap is rotated to opening direction, and interlocks with the close guide protrusions when the outer cap is rotated to closing direction. one or more open guide protrusions and close guide protrusions are equipped at an outer circumferential surface of the inner cap , so as to be rotated together with the outer cap when rotating the outer cap to opening direction or closing direction; and at an inner circumferential surface of the outer cap , a first rotation protrusion which interlocks with the open rotation protrusion and rotates the inner cap when the outer cap are rotated to opening direction in a state of the sides of the outer cap being pressurized, and a second rotation protrusion which interlocks with the close guide protrusions and rotates the inner cap when the outer cap is rotated to closing direction, characterized in that the second rotation protrusion extends forming a gentle curve from a point of an inner circumferential surface of the outer cap and goes over the close guide protrusions when the outer cap is rotated to opening direction, and interlocks with the close guide protrusions when the outer cap is rotated to closing direction.
Robotic vacuum cleaner for autonomously cleaning floor surfaces, the robotic vacuum cleaner having a suction mouth , the suction mouth being delimited by a suction mouth lip , the suction mouth lip having a first suction mouth lip region , a second suction mouth lip region and a third suction mouth lip region , the first suction mouth lip region being connected to the robotic vacuum cleaner , the third suction mouth lip region being designed to make contact with a floor surface to be cleaned, the second suction mouth lip region connecting the first suction mouth lip region to the third suction mouth lip region , and the second suction mouth lip region being designed to pivot the suction mouth lip about an axis that extends transversely to the direction of movement of the robotic vacuum cleaner , characterised in that the third suction mouth lip region has a hardness of between 85 and 99 Shore A and preferably a hardness of between 90 and 95 Shore A, the second suction mouth lip region having a hardness of between 40 and 65 Shore A and preferably a hardness of between 45 and 60 Shore A.
Equipment for a wheel (WL) of a bicycle, which equipment comprises at least one profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*) and a rim , the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*) being designed to be secured to the inner surface of the rim of the wheel (WL) itself, which equipment is characterised in that the inner profile of the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*) has the following geometrical characteristics with reference to the inner radius (R1) of the rim : R 2 = 0.6 ÷ 0.8 R 1 ; where (R2) is the radius of an arc (ARC1) defining the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*) and where (R1) is the inner radius of the rim ; (H) = 0.1 ÷ 0.2 (R1); where (H) is the distance between a centre point of the rim and a centre point (P) of the arc (ARC1); and taking a quadrant of the rim delimited by points (W1), (Z1), and, by removing from the point (W1) an angle (α) = 20° ÷ 45°, a point (W2) is drawn on the arc (ARC1); and, by removing from the point (Z1) an angle (β) = 20° ÷ 45°, a point (Z2) is drawn on the arc (ARC1); the points (W1), (W2), (Z2), (Z1) delimiting the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*). where (R2) is the radius of an arc (ARC1) defining the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*) and where (R1) is the inner radius of the rim ; (H) = 0.1 ÷ 0.2 (R1); where (H) is the distance between a centre point of the rim and a centre point (P) of the arc (ARC1); and taking a quadrant of the rim delimited by points (W1), (Z1), and, by removing from the point (W1) an angle (α) = 20° ÷ 45°, a point (W2) is drawn on the arc (ARC1); and, by removing from the point (Z1) an angle (β) = 20° ÷ 45°, a point (Z2) is drawn on the arc (ARC1); the points (W1), (W2), (Z2), (Z1) delimiting the profiled wing-shaped projection (25A, 25B, 25C, 25D; 25A*, 25B*, 25C*).
A device for measuring currents in power supply networks , the device having measuring current transformers and having a signal processing apparatus arranged on a printed circuit board and having screw fastenings for mounting the device , characterised in that cable ducts of the measuring current transformers are orientated parallel to a printed circuit board plane, wherein the printed circuit board has openings flush to the cable ducts of the measuring current transformers and the screw fastenings are constructed as fastening tabs having mounting holes , the spacings of which are dimensioned in such a manner that a standards-compliant mounting is possible and wherein the measuring current transformers are installed with the printed circuit board in a common housing , on the housing edges of which the fastening tabs of the screw fastening are integrally moulded.
A steam condenser for a cooking oven, especially for a combi steamer, having a housing , having side walls and having at least partly open front side and back side to facilitate flow of cooling air through the steam condenser , and a heat exchanger located in said housing , which serves as a condenser, wherein the heat exchanger comprises a number of connected finned tubes through which water vapor with other gases from the cooking oven, especially combi steamer, are guided, wherein the steam condenser comprises a condensate drainage system, wherein the adjacent ends of the adjacent finned tubes are connected by a 180° connectors , such that the finned tubes are interconnected in a zigzag manner, characterized in that the finned tubes are arranged between the side walls of the housing and in a descending manner, such that each tube has its' one end attached to the side wall of the housing higher than the other end , while also each two adjacent ends of adjacent tubes are located one higher than the other, wherein the highest or the lowest of the finned tubes is further connected to a final descending tube which is provided with orifices in its' upper part and located on the side of the final descending tube that is facing away from the flow of the cooling air. characterized in that the finned tubes are arranged between the side walls of the housing and in a descending manner, such that each tube has its' one end attached to the side wall of the housing higher than the other end , while also each two adjacent ends of adjacent tubes are located one higher than the other, wherein the highest or the lowest of the finned tubes is further connected to a final descending tube which is provided with orifices in its' upper part and located on the side of the final descending tube that is facing away from the flow of the cooling air.
Blasting medium for the blasting of a component, wherein the component comprises Al and/or Mg, especially an Al and/or Mg alloy, wherein the blasting medium comprises an AlSc alloy, characterized in that the blasting medium comprises particles of the AlSc alloy with a size of 45 μm or more.
Method of allocating transmission time slots in an optical wireless system comprising a plurality of access points connected to a wired network and controlled by a network controller, and a plurality of terminals, characterised in that : - one access point among said plurality of access points is associated with each terminal, such that the average quality of the uplink and the downlink between this access point and said terminal is maximum; - each terminal associated with an access point determines coverage information containing the identifiers of access points received by the terminal; - when the coverage information of a terminal is reduced to the identifier of the access point associated with the terminal, the access point allocates a transmission time slot to the downlink, within an available time range managed by the network controller CFP free down AP n ; - when the coverage information of a terminal includes a plurality of access point identifiers, the network controller allocates a transmission time slot to the downlink between the terminal and its associated access point, within an available time range ( CFP free down AP n ) and correspondingly eliminates the transmission time slot thus allocated from the available time ranges of access points belonging to the coverage information. - one access point among said plurality of access points is associated with each terminal, such that the average quality of the uplink and the downlink between this access point and said terminal is maximum; - each terminal associated with an access point determines coverage information containing the identifiers of access points received by the terminal; - when the coverage information of a terminal is reduced to the identifier of the access point associated with the terminal, the access point allocates a transmission time slot to the downlink, within an available time range managed by the network controller CFP free down AP n ; - when the coverage information of a terminal includes a plurality of access point identifiers, the network controller allocates a transmission time slot to the downlink between the terminal and its associated access point, within an available time range ( CFP free down AP n ) and correspondingly eliminates the transmission time slot thus allocated from the available time ranges of access points belonging to the coverage information.
A compressor over-load protection control method, wherein the compressor over-load protection control method is configured for over-load protection of a dehumidifier and an air conditioner, and each of the dehumidifier and the air conditioner comprises an evaporator and the compressor, the compressor over-load protection control method comprising: detecting (S101) whether the compressor is in a power-on state or a power-off state by detecting a tube temperature of an evaporator; judging (SI02) the compressor is under over-load protection when the compressor is in the power-off state and judging the compressor is not under over-load protection when the compressor is in the power-on state; and shielding (S103) fluorine shortage protection if the compressor is under the over-load protection. detecting (S101) whether the compressor is in a power-on state or a power-off state by detecting a tube temperature of an evaporator; judging (SI02) the compressor is under over-load protection when the compressor is in the power-off state and judging the compressor is not under over-load protection when the compressor is in the power-on state; and shielding (S103) fluorine shortage protection if the compressor is under the over-load protection.
An apparatus for preventing surrounding loose rock fragments from falling or collapsing into a blast hole , wherein the apparatus comprises: a resiliently flexible sheet including a pair of spaced apart longitudinally extending side edges and a pair of spaced apart laterally extending end edges , the sheet having a curved form defining a longitudinal passage extending between openings at longitudinally opposite ends , one end of the curved sheet being insertable into the open end of a blast hole , wherein in the curved form the side edges of the sheet are free and the sheet biases towards a flat form whereby an external surface of the curved sheet is biased against an internal surface of the blast hole and forms a barrier preventing surrounding loose rock fragments from falling or collapsing into the open end of the blast hole.
Acoustic attenuation panel comprising: - a first layer, so-called main layer , made of a porous material and having two opposite faces; - a second layer, so-called coating layer , disposed on one of the two faces of the main layer; - an adhesive film disposed at the interface between the main layer and the coating layer, the main layer and the coating layer being assembled together with the adhesive film, the adhesive film being a film provided with through holes and having a surface density between 40 g/m 2 and 56 g/m 2 ; the panel being characterised in that the main layer is a body made of melamine resin foam having a density between 6 and 6.8 kg/m 3 and a porosity rate between 0.978 and 0.984; in that the coating layer is a fabric having a density between 484 and 526 kg/m 3 and a porosity rate between 0.771 and 0.817; and in that the adhesive film is a film made of a thermoplastic material. - a first layer, so-called main layer , made of a porous material and having two opposite faces; - a second layer, so-called coating layer , disposed on one of the two faces of the main layer; - an adhesive film disposed at the interface between the main layer and the coating layer, the main layer and the coating layer being assembled together with the adhesive film, the adhesive film being a film provided with through holes and having a surface density between 40 g/m 2 and 56 g/m 2 ; the panel being characterised in that the main layer is a body made of melamine resin foam having a density between 6 and 6.8 kg/m 3 and a porosity rate between 0.978 and 0.984; in that the coating layer is a fabric having a density between 484 and 526 kg/m 3 and a porosity rate between 0.771 and 0.817; and in that the adhesive film is a film made of a thermoplastic material.
A pellet grill , comprising: a main body defining a cooking chamber ; a burn pot located within the main body , the burn pot including an upper end , a lower end located opposite the upper end , and a sidewall extending between the upper end and the lower end , the sidewall having an opening ; an ignitor extending into the burn pot through the opening of the sidewall ; and an ignitor carrier removably coupled to the ignitor , the ignitor carrier extending away from the burn pot and being accessible from outside the main body , characterized by the ignitor carrier being slidable relative to the burn pot to enable removal of the ignitor from the burn pot via the opening of the sidewall . a main body defining a cooking chamber ; a burn pot located within the main body , the burn pot including an upper end , a lower end located opposite the upper end , and a sidewall extending between the upper end and the lower end , the sidewall having an opening ; an ignitor extending into the burn pot through the opening of the sidewall ; and an ignitor carrier removably coupled to the ignitor , the ignitor carrier extending away from the burn pot and being accessible from outside the main body , characterized by the ignitor carrier being slidable relative to the burn pot to enable removal of the ignitor from the burn pot via the opening of the sidewall .