mhurhangee/patent-ind-claim-en huggingface dataset:
System for cleaning a floor - with at least one cleaning robot , - with control means for controlling the cleaning robot and - with communication means for registering at least one environmental event, - wherein the environmental event is an event determined from a database, in particular a weather event, or an event determined by means of sensors characterized in that - the control means adjust the intensity of the use of the cleaning robot for a cleaning of at least one part of the floor depending on the environmental event and - the control means adjust the intensity of the use of the cleaning robot by altering the frequency of the cleaning. - with at least one cleaning robot , - with control means for controlling the cleaning robot and - with communication means for registering at least one environmental event, - wherein the environmental event is an event determined from a database, in particular a weather event, or an event determined by means of sensors characterized in that - the control means adjust the intensity of the use of the cleaning robot for a cleaning of at least one part of the floor depending on the environmental event and - the control means adjust the intensity of the use of the cleaning robot by altering the frequency of the cleaning.
An oligonucleotide comprising a sequence of 16 nucleotides, wherein the sequence is complementary to a miRNA and wherein the oligonucleotide is selected from SEQ ID NO: 120, SEQ ID NO: 121, and SEQ ID NO: 122, as provided in Table 9.
A health investigating arrangement for a first unidirectional conducting and reverse-bias turn off element (MBD1) acting as a main circuit breaker element of a circuit breaker connected in series with a direct current power transmission medium , the element having a reverse blocking state (S1) with a first voltage level, a forward conduction state (S2) with a second voltage level and a faulty state (S3) with a third voltage level, wherein the absolute value of the second voltage level is higher than the absolute value of the third voltage level and the absolute value of the first voltage level is more than ten times higher than the absolute value of the second voltage level, the health investigating arrangement comprising a voltage dividing circuit which when monitoring health is connected in parallel with the first unidirectional conducting element (MBD1), the voltage dividing circuit comprising: a first voltage handling block connected in series with a second voltage handling block , the first voltage handling block comprising a first voltage dividing component (R1) and the second voltage handling block comprising a second voltage dividing component (R2), the first and second voltage dividing components (R1, R2) having a relationship between each other set to divide the voltage of the reverse blocking state (S1) down to a level that can be handled by a signal evaluating circuit , where a junction between the first and second voltage handling blocks forms a health signal output on which a health signal (Vmon) capable of representing said states of the first unidirectional conducting element is provided, wherein the second voltage handling block comprises a second unidirectional conducting element (D2) with opposite orientation compared with the first unidirectional conducting element (MBD1) in order to remove the voltage division of the first and second voltage dividing components from the health signal when the first unidirectional conducting element is in the forward conduction state (S2).
A system for automatically parking a vehicle into a battery swap parking space within a battery swap station, characterized by comprising: an image acquiring unit configured to acquire an image of the ground around a vehicle; a control unit configured to determine, on the basis of the acquired image, whether the vehicle is located within a parking start area determined by means of prearranged first ground marks, to determine a position of the vehicle relative to the first ground marks if it is determined that the vehicle is located within the parking start area, to determine, on the basis of the position, a parking path for traveling from the position to the battery swap parking space within the battery swap station, and to control the vehicle to perform a parking operation according to the parking path; and a display unit configured to display information for prompting a driver to adjust the position of the vehicle if the control unit determines that the vehicle is not located within the parking start area, wherein the parking start area is an area from x1 min to x1 max and from y1 min and y1 max, with the width direction of the battery swap parking space as an x-axis direction and the length direction of the battery swap parking space as a y-axis direction, and wherein x1 min, x1 max, y1 min and y1 max represent constants determined according to the length and width of the battery swap parking space. an image acquiring unit configured to acquire an image of the ground around a vehicle; a control unit configured to determine, on the basis of the acquired image, whether the vehicle is located within a parking start area determined by means of prearranged first ground marks, to determine a position of the vehicle relative to the first ground marks if it is determined that the vehicle is located within the parking start area, to determine, on the basis of the position, a parking path for traveling from the position to the battery swap parking space within the battery swap station, and to control the vehicle to perform a parking operation according to the parking path; and a display unit configured to display information for prompting a driver to adjust the position of the vehicle if the control unit determines that the vehicle is not located within the parking start area, wherein the parking start area is an area from x1 min to x1 max and from y1 min and y1 max, with the width direction of the battery swap parking space as an x-axis direction and the length direction of the battery swap parking space as a y-axis direction, and wherein x1 min, x1 max, y1 min and y1 max represent constants determined according to the length and width of the battery swap parking space.
An illumination control device capable for controlling output duty ratios (DR, DG, DB) of pulse signals (P1, P2, P3) to be output to a red light emitting element , a green light emitting element , and a blue light emitting element , the illumination control device comprising: a first acquisition unit configured to acquire color information and brightness information; characterized by a first storage unit that stores duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element for each piece of color information; a second storage unit that stores a reference duty ratio (Dref) for each piece of brightness information; a second acquisition unit configured to acquire the duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element corresponding to the color information from the first storage unit ; a third acquisition unit configured to acquire the reference duty ratio (Dref) corresponding to the brightness information from the second storage unit ; a calculation unit configured to calculate the output duty ratios (DR, DG, DB) by multiplying the duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element acquired by the second acquisition unit by the reference duty ratio (Dref) acquired by the third acquisition unit ; and an output unit configured to output the pulse signals (P1, P2, P3) with the output duty ratios (DR, DG, DB) calculated by the calculation unit to the red light emitting element , the green light emitting element , and the blue light emitting element . a first acquisition unit configured to acquire color information and brightness information; characterized by a first storage unit that stores duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element for each piece of color information; a second storage unit that stores a reference duty ratio (Dref) for each piece of brightness information; a second acquisition unit configured to acquire the duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element corresponding to the color information from the first storage unit ; a third acquisition unit configured to acquire the reference duty ratio (Dref) corresponding to the brightness information from the second storage unit ; a calculation unit configured to calculate the output duty ratios (DR, DG, DB) by multiplying the duty ratios (Dr, Dg, Db) of the red light emitting element , the green light emitting element , and the blue light emitting element acquired by the second acquisition unit by the reference duty ratio (Dref) acquired by the third acquisition unit ; and an output unit configured to output the pulse signals (P1, P2, P3) with the output duty ratios (DR, DG, DB) calculated by the calculation unit to the red light emitting element , the green light emitting element , and the blue light emitting element .
A slim pump comprising: a frame including an interior separated by a partitioning board into a first chamber (S1) and a second chamber (S2), wherein a flow inlet intercommunicates with the first chamber (S1) and a flow outlet intercommunicates with the second chamber (S2); a shaft-coupling portion located in the frame ; a motor stator disposed around the shaft-coupling portion and located within an axial extent of the first chamber (S1); and an impeller including a plurality of blades and an inlet opening located in the second chamber (S2), wherein the first chamber (S1) is intercommunicated with the second chamber (S2) via a communication hole of the partitioning board , the inlet opening faces the communication hole ; wherein the slim pump is characterized in that : the motor stator is axially aligned with the communication hole ; and the inlet opening is axially aligned with the communication hole . a frame including an interior separated by a partitioning board into a first chamber (S1) and a second chamber (S2), wherein a flow inlet intercommunicates with the first chamber (S1) and a flow outlet intercommunicates with the second chamber (S2); a shaft-coupling portion located in the frame ; a motor stator disposed around the shaft-coupling portion and located within an axial extent of the first chamber (S1); and an impeller including a plurality of blades and an inlet opening located in the second chamber (S2), wherein the first chamber (S1) is intercommunicated with the second chamber (S2) via a communication hole of the partitioning board , the inlet opening faces the communication hole ; wherein the slim pump is characterized in that : the motor stator is axially aligned with the communication hole ; and the inlet opening is axially aligned with the communication hole . the motor stator is axially aligned with the communication hole ; and the inlet opening is axially aligned with the communication hole .
A three-wheeled vehicle tire to be mounted on a two-wheel side of a three-wheeled vehicle that is constituted by two front wheels and one rear wheel or one front wheel and two rear wheels and comprises a mechanism for tilting a tire(s) during turning, wherein a radius of curvature (Rc) of a tread surface in a center region is in a range of greater than 55% but 70% or less of a tire maximum width (W) where, on the tread surface at a tire widthwise cross-section of each tire in a load-free state that was assembled with a rim and inflated to a prescribed internal pressure, a region that is centered at the tire equator and comes into contact with the ground during straight running is defined as the center region and regions on each side of the center region are defined as shoulder regions, and the height (h2) of the bead fillers is 40% or less of the side height (h1); wherein the side height (h1) is the height from a bead baseline (BL) to a tire maximum width position; and the height (h2) of the bead fillers means the height along the tire radial direction from a tire radial-direction outer end of the respective bead cores in contact with the bead fillers to a tire radial-direction outer end of the respective bead fillers ; characterized in that : the thickness of the side wall portions is 4 to 6 mm, wherein the thickness of the side wall portions means the thickness of each side wall portion that is measured in a direction perpendicular to the tire surface at a position of a tire radial-direction midpoint of the side height (h1) ± 10% of the side height (h1).
A method of peeling a mother protective film from a mother display panel , the method comprising: laminating (S1) the mother protective film on the mother display panel , the mother display panel comprising a plurality of display cells (CE) each comprising a display area (DA) and a peripheral area (PA), wherein the peripheral area (PA) is in an outer portion of the display cells (CE); forming a target area (TA) and a dummy area (RA) on the mother protective film by forming (S2) a cutting line (CL1) on the mother protective film having a closed loop shape enclosing the target area (TA) corresponding to the display cells (CE) and an additional cutting line (CL2) on the mother protective film in a first direction (X), wherein the additional cutting line (CL2) is connected to the cutting line (CL1) arranging (S3) a fixing member on the mother protective film within the target area (TA) enclosed by the cutting line (CL1); and physically peeling (S4) off the dummy area (RA) of the mother protective film from the mother display panel , wherein the physically peeling (S4) off of the dummy area (RA) of the mother protective film comprises applying an external force along the additional cutting line (CL2) in the first direction (X). laminating (S1) the mother protective film on the mother display panel , the mother display panel comprising a plurality of display cells (CE) each comprising a display area (DA) and a peripheral area (PA), wherein the peripheral area (PA) is in an outer portion of the display cells (CE); forming a target area (TA) and a dummy area (RA) on the mother protective film by forming (S2) a cutting line (CL1) on the mother protective film having a closed loop shape enclosing the target area (TA) corresponding to the display cells (CE) and an additional cutting line (CL2) on the mother protective film in a first direction (X), wherein the additional cutting line (CL2) is connected to the cutting line (CL1) arranging (S3) a fixing member on the mother protective film within the target area (TA) enclosed by the cutting line (CL1); and physically peeling (S4) off the dummy area (RA) of the mother protective film from the mother display panel , wherein the physically peeling (S4) off of the dummy area (RA) of the mother protective film comprises applying an external force along the additional cutting line (CL2) in the first direction (X).
Refrigerator and/or freezer device , comprising at least one carcass and at least one closing element that closes an opening of the carcass , as well as at least one profiled arrangement which is arranged in a gap formed between the closing element and the carcass and which comprises a base , at least one securing arrangement , at least one sealing arrangement and at least one profiled element , wherein at least one free end of the profiled element is arranged on the sealing arrangement , wherein the sealing arrangement has at least one hollow chamber , wherein the profiled element is arranged approximately orthogonally on the sealing arrangement , characterised in that the profiled element of the profiled arrangement is configured such that it is approximately linear, approximately prismatic in cross-section and has a wall thickness of approximately 0.1 to 10 mm, preferably approximately 0.25 to 5 mm, in that at least one further free end of the profiled element is connected to the base by way of at least one movement arrangement which at least partially projects into the sealing arrangement , which comprises at least two movement sections that are arranged approximately opposite one another, in that the at least one movement arrangement projects into the sealing arrangement approximately at an acute angle relative to the profiled element , and in that the movement arrangement is made of a flexible polymeric material with a Shore A hardness according to DIN EN ISO of approximately 50 to 100 and preferably 60 to 90.
A sealing structure of a cylinder penetrating wire harness, comprising an in-cylinder wire harness , a cylinder body and an out-of-cylinder wire harness , wherein the sealing structure of the cylinder penetrating wire harness further comprises a cylinder penetrating device in sealed connection with the cylinder body , characterised by a wire connecting sleeve and an inner sealing member , wherein the in-cylinder wire harness and the out-of-cylinder wire harness are separately in conductive connection with the wire connecting sleeve ; the wire connecting sleeve is arranged in a positioning inner hole in the inner sealing member and the wire connecting sleeve is in sealed connection with the inner sealing member ; the inner sealing member is arranged in a cylinder penetrating device inner hole in the cylinder penetrating device and the inner sealing member is in sealed connection with the cylinder penetrating device . the sealing structure of the cylinder penetrating wire harness further comprises a cylinder penetrating device in sealed connection with the cylinder body , characterised by a wire connecting sleeve and an inner sealing member , wherein the in-cylinder wire harness and the out-of-cylinder wire harness are separately in conductive connection with the wire connecting sleeve ; the wire connecting sleeve is arranged in a positioning inner hole in the inner sealing member and the wire connecting sleeve is in sealed connection with the inner sealing member ; the inner sealing member is arranged in a cylinder penetrating device inner hole in the cylinder penetrating device and the inner sealing member is in sealed connection with the cylinder penetrating device .
A manufacturing method of a coil component comprising the steps of: preparing a coil assembly body , in which a coil is attached on a magnetic core , and a mold body , which is formed with a cavity portion in the inside thereof and which includes at least one opening portion , putting a viscous admixture including magnetic powders and thermosetting resin and the coil assembly body in the cavity portion , pushing the put-in viscous admixture in the mold body by using a pressure of 0.5 kg to 50 kg per cm 2 , and thermally-curing the pushed-in viscous admixture and thereby forming a magnetic exterior body which covers the coil assembly body . preparing a coil assembly body , in which a coil is attached on a magnetic core , and a mold body , which is formed with a cavity portion in the inside thereof and which includes at least one opening portion , putting a viscous admixture including magnetic powders and thermosetting resin and the coil assembly body in the cavity portion , pushing the put-in viscous admixture in the mold body by using a pressure of 0.5 kg to 50 kg per cm 2 , and thermally-curing the pushed-in viscous admixture and thereby forming a magnetic exterior body which covers the coil assembly body .
An engine vibration monitoring and control system, comprising: an aircraft autopilot ; and a flight management system , FMS, in operable communication with the aircraft autopilot and configured to determine when the aircraft autopilot is engaged and disengaged, the FMS adapted to receive vibration data from an engine vibration data source and configured, upon determining that the aircraft autopilot is engaged, to: process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds. an aircraft autopilot ; and a flight management system , FMS, in operable communication with the aircraft autopilot and configured to determine when the aircraft autopilot is engaged and disengaged, the FMS adapted to receive vibration data from an engine vibration data source and configured, upon determining that the aircraft autopilot is engaged, to: process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds. process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds.
Labelling machine comprising a carousel and a labelling unit which can be arranged on the periphery of the carousel so as to be interchangeable, and which has a fixed substructure , a functional part that can be displaced in the direction of the carousel relative to the substructure , and a unit protector which, when the labelling unit is connected, protects the label transfer area from user intervention, characterised in that the unit protector comprises at least one protective element that fixedly attached to the substructure and a protective element that can be displaced in the direction of the carousel relative to the first protective element, wherein the first protective element comprises a protective screen or protective wall. the unit protector comprises at least one protective element that fixedly attached to the substructure and a protective element that can be displaced in the direction of the carousel relative to the first protective element, wherein the first protective element comprises a protective screen or protective wall.
A knife comprising: a body , which body carries a plurality of visual indicia ; a blade slider slidably mounted within the body, which blade slider is configured to hold and slidably move a blade relative to the body, and which blade slider carries a visual indicium ; the knife further including a blade snapper pivotally coupled to the body, which blade snapper is positioned on the body such that when the blade slider selectively positions the blade to be engaged by the blade snapper and the visual indicium of the blade slider is aligned with any one of the visual indicia of the body, pivotal movement of the blade snapper imparts a force on a blade segment of the blade to detach the blade segment from the blade. a body , which body carries a plurality of visual indicia ; a blade slider slidably mounted within the body, which blade slider is configured to hold and slidably move a blade relative to the body, and which blade slider carries a visual indicium ; the knife further including a blade snapper pivotally coupled to the body, which blade snapper is positioned on the body such that when the blade slider selectively positions the blade to be engaged by the blade snapper and the visual indicium of the blade slider is aligned with any one of the visual indicia of the body, pivotal movement of the blade snapper imparts a force on a blade segment of the blade to detach the blade segment from the blade.