mhurhangee/patent-ind-claim-en huggingface dataset:
Parasol comprising: - a pole , having two ends , and intended to rest on the ground at a first end , - a fabric comprising two end portions , connected to the pole via fastening means arranged at the second end of the pole , wherein said fastening means comprise: - a shaft , - a plurality of ribs each having an articulation portion and a fastening portion for fastening the fabric , all of the ribs being articulated about said shaft , via the articulation portion thereof, with said fastening portion thereof extending in a substantially radial direction of the shaft , wherein the ribs define two end ribs : an upper end rib and a lower end rib , as well as a plurality of intermediate ribs positioned, in the axial direction (A41) of the shaft , between the upper end rib and the lower end rib , wherein the fastening portion of each end rib receives an end portion of the fabric and each intermediate rib receives an intermediate portion of the fabric , located between the two end portions of the fabric , such that the fabric can move: - from a retracted position, wherein the fastening portions of each of the ribs are superimposed in the axial direction (A41) of the shaft , to - a deployed position, wherein a plurality of ribs are pivoted about the shaft , such that at least two consecutive ribs define a non-zero angle therebetween, and wherein the fabric is capable of allowing a shaded surface to be formed on the ground (S), in the vicinity of the pole , the fabric surrounding, at least partially, the pole , characterised in that said fastening means further comprise a resilient element configured to cause the upper end rib to pivot relative to the lower end rib , so as to cause the fabric to move from the retracted position to the deployed position. - a pole , having two ends , and intended to rest on the ground at a first end , - a fabric comprising two end portions , connected to the pole via fastening means arranged at the second end of the pole , - a shaft , - a plurality of ribs each having an articulation portion and a fastening portion for fastening the fabric , all of the ribs being articulated about said shaft , via the articulation portion thereof, with said fastening portion thereof extending in a substantially radial direction of the shaft , - from a retracted position, wherein the fastening portions of each of the ribs are superimposed in the axial direction (A41) of the shaft , to - a deployed position, wherein a plurality of ribs are pivoted about the shaft , such that at least two consecutive ribs define a non-zero angle therebetween, and wherein the fabric is capable of allowing a shaded surface to be formed on the ground (S), in the vicinity of the pole , the fabric surrounding, at least partially, the pole ,
An inductive energy-transmitting device for a linear transport system , in which at least one magnetically driven carriage moves along a carriage guide comprising a motor module device, wherein the inductive energy-transmitting device comprises an energy-transmitting coil having a primary winding for applying an input voltage, and an energy-receiving coil having a secondary winding for tapping an output voltage, wherein the energy-transmitting coil is arranged on the motor module device and extends along the carriage guide , wherein the energy-receiving coil is arranged at the carriage and extends along the carriage , wherein the energy-transmitting coil and the energy-receiving coil , when the at least one magnetically driven carriage moves along the carriage guide comprising the motor module device, at least partially oppose each other to transfer energy from the energy-transmitting coil to the energy-receiving coil , characterized in that the secondary winding of the energy-receiving coil comprises a control-voltage-winding portion and a load-voltage-winding portion , the control-voltage-winding portion and the load-voltage-winding portion having separate winding conductor tracks from each other, wherein the control-voltage-winding portion provides a control voltage for tapping by a carriage guide controller on the carriage , and wherein the load-voltage-winding portion provides a load voltage for tapping by a load on the carriage . wherein the inductive energy-transmitting device comprises an energy-transmitting coil having a primary winding for applying an input voltage, and an energy-receiving coil having a secondary winding for tapping an output voltage, wherein the energy-transmitting coil is arranged on the motor module device and extends along the carriage guide , wherein the energy-receiving coil is arranged at the carriage and extends along the carriage , wherein the energy-transmitting coil and the energy-receiving coil , when the at least one magnetically driven carriage moves along the carriage guide comprising the motor module device, at least partially oppose each other to transfer energy from the energy-transmitting coil to the energy-receiving coil , characterized in that the secondary winding of the energy-receiving coil comprises a control-voltage-winding portion and a load-voltage-winding portion , the control-voltage-winding portion and the load-voltage-winding portion having separate winding conductor tracks from each other, wherein the control-voltage-winding portion provides a control voltage for tapping by a carriage guide controller on the carriage , and wherein the load-voltage-winding portion provides a load voltage for tapping by a load on the carriage .
A method for controlling a fan, comprising: after the fan is controlled to enter a scene-wind operation mode, obtaining a sleeping time period of a specified user corresponding to the scene-wind operation mode (S1); obtaining a control timing sequence for gears of the fan based on the sleeping time period of the specified user (S2); and controlling the fan based on the control timing sequence for gears of the fan to adjust a speed of wind supplied by the fan (S3); and characterised by : obtaining a human parameter of the specified user, and generating a wind speed adjusting instruction and a fan-rotating adjusting instruction based on the human parameter of the specified user to adjust the speed of wind supplied by the fan and a rotation angle of the fan. after the fan is controlled to enter a scene-wind operation mode, obtaining a sleeping time period of a specified user corresponding to the scene-wind operation mode (S1); obtaining a control timing sequence for gears of the fan based on the sleeping time period of the specified user (S2); and controlling the fan based on the control timing sequence for gears of the fan to adjust a speed of wind supplied by the fan (S3); and characterised by : obtaining a human parameter of the specified user, and generating a wind speed adjusting instruction and a fan-rotating adjusting instruction based on the human parameter of the specified user to adjust the speed of wind supplied by the fan and a rotation angle of the fan.
Apparatus for optically monitoring moving components during operation, wherein the component to be monitored moves during running operation and the components is monitored when in motion, comprising at least one first camera whose image capture region is able to be influenced by a tracking device so as to have the first camera track the movement of the component to be monitored, and which camera is configured to record at least one image of at least one partial area to be monitored of the component to be monitored, wherein the apparatus furthermore comprises at least one second camera which is configured to capture at least one image of the component to be monitored, and the apparatus furthermore comprises an open-loop or closed-loop control device which is able to be supplied with image data from the second camera and which can be used to generate an open-loop or closed-loop control signal and supply the latter to the tracking device , characterized in that the first camera is additionally rotatable about its optical axis or the image sensor of the first camera is rotatable about the optical axis of the first camera , in such a way that the relative alignment of the partial area to be captured of the component and the first camera remains constant while the image is recorded. the apparatus furthermore comprises at least one second camera which is configured to capture at least one image of the component to be monitored, and the apparatus furthermore comprises an open-loop or closed-loop control device which is able to be supplied with image data from the second camera and which can be used to generate an open-loop or closed-loop control signal and supply the latter to the tracking device , characterized in that the first camera is additionally rotatable about its optical axis or the image sensor of the first camera is rotatable about the optical axis of the first camera , in such a way that the relative alignment of the partial area to be captured of the component and the first camera remains constant while the image is recorded.
A medical system , comprising: a handle having (a) a handle chamber including an outlet and (b) a barrel extending into the handle chamber and defining a lumen having a longitudinal axis; and a spindle movably disposed within the lumen of the barrel , wherein the spindle includes a plurality of spindle enclosures , and wherein the spindle is configured to move between a first configuration, in which at least a portion of each of the plurality of spindle enclosures is positioned within a first portion of the lumen within the handle chamber, and a second configuration, in which at least the portion of each of the plurality of spindle enclosures is positioned in a second portion of the lumen outside the handle chamber, wherein the barrel includes an opening on an exterior of the handle and configured to be in fluid communication with one of the plurality of spindle enclosures when the spindle is in the second configuration. a handle having (a) a handle chamber including an outlet and (b) a barrel extending into the handle chamber and defining a lumen having a longitudinal axis; and a spindle movably disposed within the lumen of the barrel , wherein the spindle includes a plurality of spindle enclosures , and wherein the spindle is configured to move between a first configuration, in which at least a portion of each of the plurality of spindle enclosures is positioned within a first portion of the lumen within the handle chamber, and a second configuration, in which at least the portion of each of the plurality of spindle enclosures is positioned in a second portion of the lumen outside the handle chamber, wherein the barrel includes an opening on an exterior of the handle and configured to be in fluid communication with one of the plurality of spindle enclosures when the spindle is in the second configuration.
A water drainage pipe for washing machines, in particular dishwashers and laundry machines, comprising a length for the connection of said pipe to a pump of a washing machine , a length for water drainage towards the outside and a pipe length provided with a valve body bearing an opening , said valve body being provided with a breathable membrane closing said opening ; said water drainage pipe being characterised in that said membrane is provided with a peripheral edge fixed either by gluing or by welding to a connection element interposed between said membrane and said pipe length .
Vacuum pressure die-casting installation comprising a casting chamber with a filling opening , a casting piston which is movable in the casting chamber , and a piston rod which connects the casting piston to a casting drive, wherein an annular gap is formed between the outer casing of the casting piston and the inner wall of the casting chamber , wherein the casting piston has at least one evacuable depression or cavity , which is connected in terms of flow to the annular gap , and provision is made of means via which the depression or cavity is able to be evacuated, characterized in that the means comprise at least one, preferably two or more, suction lines , in particular suction tubes, each of which is connected in terms of flow to the evacuable depression or cavity by one of its ends and is connected in terms of flow to a vacuum installation by its other end, wherein the suction line , in particular the suction tube, extends along the piston rod in a groove formed on the outer side of the piston rod and, with one of its ends, passes into the depression or cavity through a piston or workpiece region facing the piston rod and is connected in terms of flow to said depression or cavity.
Process to regulate the thickness of oriented tubular film that is manufactured in a film blowing process, laid flat and repositioned using an oscillating take-off unit , oriented monoaxially in machine direction using an orientation unit and subsequently wound with a winder , whereby the thickness profile of the film tube produced with the blown film line is regulated using a film thickness profile control system that has segmented control zones and at least two measuring units for the film thickness, such that the specified target film thickness profile exhibits deviations from a uniform film thickness in the form of one or two thin spots opposite each other, which serve to compensate for film thickness changes across the film width which occur during the monoaxial orientation in machine direction, so that film is produced as a result of orientation whose transverse thickness profile has as few deviations as possible from the target film thickness across the entire width of the film web, whereby thin spots of a defined geometry are imprinted on the film tube by means of individual selection and/or control of the individual actuators of the segmented control zones, characterised in that influences of the running direction of the oscillating take-off unit on the thin spot geometry are taken into consideration. whereby different functions are integrated into the control algorithm of the control unit for the left-hand and right-hand flank of a thin spot . whereby the thickness profile of the film tube produced with the blown film line is regulated using a film thickness profile control system that has segmented control zones and at least two measuring units for the film thickness, such that the specified target film thickness profile exhibits deviations from a uniform film thickness in the form of one or two thin spots opposite each other, which serve to compensate for film thickness changes across the film width which occur during the monoaxial orientation in machine direction, so that film is produced as a result of orientation whose transverse thickness profile has as few deviations as possible from the target film thickness across the entire width of the film web, whereby thin spots of a defined geometry are imprinted on the film tube by means of individual selection and/or control of the individual actuators of the segmented control zones, characterised in that influences of the running direction of the oscillating take-off unit on the thin spot geometry are taken into consideration. whereby different functions are integrated into the control algorithm of the control unit for the left-hand and right-hand flank of a thin spot .
A vehicle control unit comprising: a control unit connectable to a first power supply line of a vehicle; a load connectable to the control unit ; a detachable internal rechargeable battery ; and a housing configured to accommodate the control unit and the internal rechargeable battery therein, wherein the control unit is configured to selectively supply, to the load , one of first power-supply electric power supplied from the first power supply line and second power-supply electric power supplied from the internal rechargeable battery according to a situation; and characterised in that , the control unit is configured to apply the first power-supply electric power supplied from the first power supply line to a charging circuit of the internal rechargeable battery to perform a charging operation of the internal rechargeable battery and to supply the first power-supply power supplied from the first power supply line to the load , in a case that a power generation function of the vehicle is in operation. a control unit connectable to a first power supply line of a vehicle; a load connectable to the control unit ; a detachable internal rechargeable battery ; and a housing configured to accommodate the control unit and the internal rechargeable battery therein, wherein the control unit is configured to selectively supply, to the load , one of first power-supply electric power supplied from the first power supply line and second power-supply electric power supplied from the internal rechargeable battery according to a situation; and characterised in that , the control unit is configured to apply the first power-supply electric power supplied from the first power supply line to a charging circuit of the internal rechargeable battery to perform a charging operation of the internal rechargeable battery and to supply the first power-supply power supplied from the first power supply line to the load , in a case that a power generation function of the vehicle is in operation.
A heat exchanger assembly, comprising a core and a bottle connected releasably to the core through a first connection configured for fluid communication, wherein the bottle is further connected to the core through a second connection , which is configured to enable movement between the bottle and the core when the first connection is released, the second connection comprises a hinge joint enabling hinge movement between the core and the bottle , wherein the axis A of the hinge joint is perpendicular to the axis (A) of the bottle , characterised in that the second connection further comprises a fixing arrangement adapted to prevent releasing of the bottle , wherein the second connection comprises a bottle portion adapted to frictionally hold the bottle , wherein the bottle portion comprisis a guiding portion which adapted to guide a component of the fixing arrangement , wherein said guiding portion is angled.
A system for determining a position of a non-shape-sensed guidewire, comprising: a non-shape-sensed guidewire ; a catheter including a shape sensing optical fiber and having a lumen , wherein said non-shape-sensed guidewire is received in the lumen; a measurement assembly configured to receive at least a portion of the non-shape-sensed guidewire and/or the shape-sensed catheter; a measurement module configured to measure a distance that the non-shape-sensed guidewire moves in the measurement assembly; and a location module configured to determine a position of the non-shape-sensed guidewire based on the distance that the non-shape-sensed guidewire moves determined by the measurement module. a non-shape-sensed guidewire ; a catheter including a shape sensing optical fiber and having a lumen , wherein said non-shape-sensed guidewire is received in the lumen; a measurement assembly configured to receive at least a portion of the non-shape-sensed guidewire and/or the shape-sensed catheter; a measurement module configured to measure a distance that the non-shape-sensed guidewire moves in the measurement assembly; and a location module configured to determine a position of the non-shape-sensed guidewire based on the distance that the non-shape-sensed guidewire moves determined by the measurement module.
A portable terminal comprising: a sensor unit for generating an interrupt signal when pressure of a user input is sensed; a first control unit for controlling overall operations of the portable terminal; and a second control unit for processing touch input signals in an active mode, wherein the first control unit is configured to: if the interrupt signal is received from the sensor unit by the first control unit while the first control unit is in a sleep mode and the second control unit is in an inactive mode, convert a mode of the first control unit from the sleep mode to an active mode and output an activating signal for activating the second control unit to the second control unit ; and wherein the second control unit is configured to: if the activating signal is received from the first control unit while the second control unit is in the inactive mode, convert a mode of the second control unit from the inactive mode to the active mode, and process the touch input signals while the second control unit is in the active mode. a sensor unit for generating an interrupt signal when pressure of a user input is sensed; a first control unit for controlling overall operations of the portable terminal; and a second control unit for processing touch input signals in an active mode, wherein the first control unit is configured to: if the interrupt signal is received from the sensor unit by the first control unit while the first control unit is in a sleep mode and the second control unit is in an inactive mode, convert a mode of the first control unit from the sleep mode to an active mode and output an activating signal for activating the second control unit to the second control unit ; and wherein the second control unit is configured to: if the activating signal is received from the first control unit while the second control unit is in the inactive mode, convert a mode of the second control unit from the inactive mode to the active mode, and process the touch input signals while the second control unit is in the active mode.
Method for producing a sealing-strip with the steps: - providing a ribbon-like base carrier , wherein this base carrier has a flexible plastic material, wherein a base body consists of a polyurethane - soft foam which is provided with an impregnation; - transporting of this base carrier along a predetermined transport path (T); - inserting at least one gap in this base carrier , wherein this gap extends along the transport path (T) and wherein this gap separates the base carrier in at least two base carrier sections which are completely separated from each other, wherein a sealing element is inserted into this gap, which sealing element is a functional foil and has a carrier material and is provided at both sides with an adhesive coating ; characterized in that the base carrier is subsequently pressed in the height direction, wherein the height of the base body with the inserted sealing element is reduced about at least 50 %. - providing a ribbon-like base carrier , wherein this base carrier has a flexible plastic material, wherein a base body consists of a polyurethane - soft foam which is provided with an impregnation; - transporting of this base carrier along a predetermined transport path (T); - inserting at least one gap in this base carrier , wherein this gap extends along the transport path (T) and wherein this gap separates the base carrier in at least two base carrier sections which are completely separated from each other, wherein a sealing element is inserted into this gap, which sealing element is a functional foil and has a carrier material and is provided at both sides with an adhesive coating ;