mhurhangee/patent-ind-claim-en huggingface dataset:
Dual mass damper having a torque limiter function, comprising: a first mass coupled to an output side of an engine and circumferentially forming a first accommodating space therein; a cover plate coupled to the first mass to finish the first accommodating space; a guide casing installed in the first accommodating space and circumferentially forming a second accommodating space therein; a coil spring circumferentially disposed in the second accommodating space; a drive plate disposed within the coil spring in the second accommodating space; a second mass connected to the drive plate and including a spline hub to be coupled to an input side of a transmission; and torque limiters installed between the first mass and the guide casing and between the cover plate and the guide casing, respectively, characterized in that , the torque limiters are supported by the first mass and the cover plate, respectively, in a radially outer location from the centre of the spline hub, so that the torque limiters can contact both side parts of the guide casing, respectively, in a direction crossing an axial direction of the dual mass damper. a first mass coupled to an output side of an engine and circumferentially forming a first accommodating space therein; a cover plate coupled to the first mass to finish the first accommodating space; a guide casing installed in the first accommodating space and circumferentially forming a second accommodating space therein; a coil spring circumferentially disposed in the second accommodating space; a drive plate disposed within the coil spring in the second accommodating space; a second mass connected to the drive plate and including a spline hub to be coupled to an input side of a transmission; and torque limiters installed between the first mass and the guide casing and between the cover plate and the guide casing, respectively, characterized in that , the torque limiters are supported by the first mass and the cover plate, respectively, in a radially outer location from the centre of the spline hub, so that the torque limiters can contact both side parts of the guide casing, respectively, in a direction crossing an axial direction of the dual mass damper.
An ultrasound transducer unit comprising: a tissue contact area ; a vibration means at the tissue contact area; a movement sensing means for sensing a sliding direction of the transducer unit across an incident surface; and a controller ; the controller operable to control a slide friction of the transducer unit across an incident surface based on adjusting a vibration setting of the vibration means, and the controller configured to implement a friction guiding function for guiding an operator along a slide path across said incident surface, the friction guiding function based on controlling the slide friction responsive to sensed sliding direction. a tissue contact area ; a vibration means at the tissue contact area; a movement sensing means for sensing a sliding direction of the transducer unit across an incident surface; and a controller ; the controller operable to control a slide friction of the transducer unit across an incident surface based on adjusting a vibration setting of the vibration means, and the controller configured to implement a friction guiding function for guiding an operator along a slide path across said incident surface, the friction guiding function based on controlling the slide friction responsive to sensed sliding direction.
A midsole for a shoe, where the midsole is 3D printed from an elastic polymeric material, the midsole comprising: - a sole facing surface - a foot facing surface - a plurality of walls (9; 20, 21, 22) that in a first position are substantially perpendicular to the sole facing surface that extend from the sole facing surface to the foot facing surface where each wall (9; 20, 21, 22) has a height, - where the plurality of walls (9; 20, 21, 22) define a plurality of cells (18; 23) having a central axis that is substantially parallel to the walls (9; 20, 21, 22) and having a radius from a wall to the central axis, - where the walls (9; 20, 21, 22) in a second position are configured to elastically deform upon application of an external force so that the deformation provides a change in the radius and/or the height, - and where the walls (9; 20, 21, 22) are adapted to return to their first position upon removal of the external force, wherein the midsole as a whole is formed out of the plurality of walls (9; 20, 21, 22) and cells , the entire midsole is constructed from the 3D printed elastic material, where the entire midsole is 3D printed from the same material, wherein the cells are triangular, rectangular, pentagonal, semi-circular, circular or hexagonal, and wherein the thickness of each wall (9; 20, 21, 22) is between 0.4 and 1.6 mm, more preferably between 0.5 and 1.2 mm, more preferably between 0.6 and 1.0 mm, or more preferably between 0.7 and 0.9 mm. - a sole facing surface - a foot facing surface - a plurality of walls (9; 20, 21, 22) that in a first position are substantially perpendicular to the sole facing surface that extend from the sole facing surface to the foot facing surface where each wall (9; 20, 21, 22) has a height, - where the plurality of walls (9; 20, 21, 22) define a plurality of cells (18; 23) having a central axis that is substantially parallel to the walls (9; 20, 21, 22) and having a radius from a wall to the central axis, - where the walls (9; 20, 21, 22) in a second position are configured to elastically deform upon application of an external force so that the deformation provides a change in the radius and/or the height, - and where the walls (9; 20, 21, 22) are adapted to return to their first position upon removal of the external force, wherein the midsole as a whole is formed out of the plurality of walls (9; 20, 21, 22) and cells , the entire midsole is constructed from the 3D printed elastic material, where the entire midsole is 3D printed from the same material, wherein the cells are triangular, rectangular, pentagonal, semi-circular, circular or hexagonal, and wherein the thickness of each wall (9; 20, 21, 22) is between 0.4 and 1.6 mm, more preferably between 0.5 and 1.2 mm, more preferably between 0.6 and 1.0 mm, or more preferably between 0.7 and 0.9 mm.
A system for treating human or animal tissue, comprising: a conical body defining a chamber , the conical body extending between a base of the conical body and an outlet nozzle of the conical body, wherein the base has an inlet for liquid flow into the chamber and the outlet nozzle is at a conical tip of the conical body and is configured to generate an output stream of liquid flow from the chamber for treating human or animal tissue; an acoustic transducer associated with the conical body and configured to introduce acoustic energy into the liquid within the chamber whereby the acoustic energy is present in the output stream; a gas bubble generator configured to provide gas bubbles in the output stream for excitation by the acoustic energy, wherein the conical body and the outlet nozzle are each configured to have pressure amplitude reflection coefficient with respect to the acoustic energy in aqueous liquid within the chamber of -0.95 to -1.0; and a liquid supply system configured to supply a liquid flow through the inlet at a flow rate of 0.1 to 7 liters/minute, wherein the outlet nozzle is configured to generate the output stream of liquid flow having an average width of 0.25 to 20 mm, wherein the acoustic transducer is configured to generate the acoustic energy having a frequency of 0.1 to 5 MHz, and wherein the gas bubble generator is configured to provide, in the output stream, the gas bubbles having a radius of 0.5 to 40 μm. a conical body defining a chamber , the conical body extending between a base of the conical body and an outlet nozzle of the conical body, wherein the base has an inlet for liquid flow into the chamber and the outlet nozzle is at a conical tip of the conical body and is configured to generate an output stream of liquid flow from the chamber for treating human or animal tissue; an acoustic transducer associated with the conical body and configured to introduce acoustic energy into the liquid within the chamber whereby the acoustic energy is present in the output stream; a gas bubble generator configured to provide gas bubbles in the output stream for excitation by the acoustic energy, wherein the conical body and the outlet nozzle are each configured to have pressure amplitude reflection coefficient with respect to the acoustic energy in aqueous liquid within the chamber of -0.95 to -1.0; and a liquid supply system configured to supply a liquid flow through the inlet at a flow rate of 0.1 to 7 liters/minute, wherein the outlet nozzle is configured to generate the output stream of liquid flow having an average width of 0.25 to 20 mm, wherein the acoustic transducer is configured to generate the acoustic energy having a frequency of 0.1 to 5 MHz, and wherein the gas bubble generator is configured to provide, in the output stream, the gas bubbles having a radius of 0.5 to 40 μm.
Arrangement of a first intelligent piece of clothing with integrated first electronics and of a second intelligent piece of clothing with integrated second electronics connected to the first intelligent piece of clothing by means of a connection , wherein a first connecting part is provided on a first intelligent piece of clothing and a second connecting part is provided on a second intelligent piece of clothing , characterized in that the first connecting part and the second connecting part are magnetically connected for establishing the connection , in order to align and interconnect a first signal connecting part in the first connecting part with a second signal connecting part in the second connecting part for establishing a signal connection between the first electronics and second electronics .
Method for operating a weighing scale with a scales pan , at least six position sensors and a weighing mechanism , wherein the weighing mechanism comprises six electromagnetic mechanisms each with at least one permanent magnet and each with at least one plunger coil , and wherein, during the weighing process, the electromagnetic mechanisms generate, by the currents flowing in the respective plunger coils and based on the respective orientation and position thereof relative to the scales pan , compensation forces (F c1 - F c6 ) on the scales pan in the six degrees of freedom, consisting of the following steps: - measuring the position of the scales pan in all three dimensions by means of the at least six position sensors ; - simultaneously regulating the currents flowing in the respective plunger coils so that the compensation forces (F c1 - F c6 ) hold, by the sum of the respective torques thereof, the scales pan in a predefined, free floating and constant position relative to translations and rotations in the six degrees of freedom; - using the amounts of the currents flowing in the respective plunger coils to compute the weighing results. - measuring the position of the scales pan in all three dimensions by means of the at least six position sensors ; - simultaneously regulating the currents flowing in the respective plunger coils so that the compensation forces (F c1 - F c6 ) hold, by the sum of the respective torques thereof, the scales pan in a predefined, free floating and constant position relative to translations and rotations in the six degrees of freedom; - using the amounts of the currents flowing in the respective plunger coils to compute the weighing results.
A computer-implemented method of detecting gestures performed by a user of an input device having a touch-sensitive portion , comprising: loading, at a processor , a definition of a plurality of regions corresponding to zones on the touch-sensitive portion of the input device , a first zone on the touch-sensitive portion being associated with a first digit and a second zone being associated with a second other digit, wherein each region in the plurality of regions is associated with a distinct set of gestures, each gesture in a set of gestures associated with a threshold vector, each threshold vector having a priority value; receiving, at the processor , data describing movement of at least one digit of the user on the touch-sensitive portion of the input device ; determining, from the data and the definition of the plurality of regions , an associated region for the data and a current coordinate for each of the at least one digit , the current position having an associated start coordinate; determining a comparison order from a comparison of the priority value and the current coordinate in priority value order; comparing the data to the associated region's set of gestures and selecting a gesture applicable to the data, the data being compared to the gestures in the determined comparison order; and executing, on the processor , a command associated with the gesture selected. loading, at a processor , a definition of a plurality of regions corresponding to zones on the touch-sensitive portion of the input device , a first zone on the touch-sensitive portion being associated with a first digit and a second zone being associated with a second other digit, wherein each region in the plurality of regions is associated with a distinct set of gestures, each gesture in a set of gestures associated with a threshold vector, each threshold vector having a priority value; receiving, at the processor , data describing movement of at least one digit of the user on the touch-sensitive portion of the input device ; determining, from the data and the definition of the plurality of regions , an associated region for the data and a current coordinate for each of the at least one digit , the current position having an associated start coordinate; determining a comparison order from a comparison of the priority value and the current coordinate in priority value order; comparing the data to the associated region's set of gestures and selecting a gesture applicable to the data, the data being compared to the gestures in the determined comparison order; and executing, on the processor , a command associated with the gesture selected.
Flow measuring system for a system applying a fluid to a plurality of parts , the flow measuring system adapted for measuring a flow rate of a fluid applied to each one of the plurality of parts , the fluid applying system comprising, a plurality of supporting means configured for supporting the plurality of parts , a plurality of fluid injectors arranged in a fluid applying platform , the plurality of fluid injectors adapted to inject a fluid, wherein the flow measuring system comprises, a plurality of flowmeters , each of the flowmeters in fluid communication with one of the fluid injectors , the plurality of flowmeters being configured to generate, process and transmit a signal related to the flow rate of the injected fluid, at least a first signal processing device , adapted to process the flow rate signals of the plurality of flowmeters , and a fluid measuring platform , adapted to hold at least the plurality of flowmeters , wherein the fluid applying system is configured to generate one or more signals related to the application of a fluid to a part , and is operatively connected to the first signal processing device , and characterised in that the fluid measuring platform is separated from the fluid applying platform . the fluid applying system comprising, a plurality of supporting means configured for supporting the plurality of parts , a plurality of fluid injectors arranged in a fluid applying platform , the plurality of fluid injectors adapted to inject a fluid, wherein the flow measuring system comprises, a plurality of flowmeters , each of the flowmeters in fluid communication with one of the fluid injectors , the plurality of flowmeters being configured to generate, process and transmit a signal related to the flow rate of the injected fluid, at least a first signal processing device , adapted to process the flow rate signals of the plurality of flowmeters , and a fluid measuring platform , adapted to hold at least the plurality of flowmeters , wherein the fluid applying system is configured to generate one or more signals related to the application of a fluid to a part , and is operatively connected to the first signal processing device , and characterised in that the fluid measuring platform is separated from the fluid applying platform .
Fluid control arrangement for a medical device having a fluid control circuit comprising a fluid channel arrangement and at least one fluid control component that are arranged between an inlet connection and an outlet connection , having a control circuitry comprising at least one electric and/or electronic component , the control circuitry being configured to control the at least one fluid control component of the fluid control circuit , having a first carrier part comprising a first mounting surface and a first coupling surface and having a second carrier part comprising a second mounting surface and a second coupling surface , wherein the at least one fluid control component of the fluid control circuit and the at least one electric and/or electronic component of the control circuitry are arranged at the mounting surfaces of the carrier parts , characterized in that at least one first fluid channel cavity is provided in the first coupling surface and/or at least one second fluid channel cavity is provided in the second coupling surface , that the two carrier parts are connected with each other at the coupling surfaces so that the at least one first fluid channel cavity and/or the at least one second fluid channel cavity limit at least one main fluid channel of the fluid channel arrangement , and that a seal arrangement for sealing the at least one main fluid channel is arranged between the first coupling surface and the second coupling surface . having a fluid control circuit comprising a fluid channel arrangement and at least one fluid control component that are arranged between an inlet connection and an outlet connection , having a control circuitry comprising at least one electric and/or electronic component , the control circuitry being configured to control the at least one fluid control component of the fluid control circuit , having a first carrier part comprising a first mounting surface and a first coupling surface and having a second carrier part comprising a second mounting surface and a second coupling surface , wherein the at least one fluid control component of the fluid control circuit and the at least one electric and/or electronic component of the control circuitry are arranged at the mounting surfaces of the carrier parts , characterized in that at least one first fluid channel cavity is provided in the first coupling surface and/or at least one second fluid channel cavity is provided in the second coupling surface , that the two carrier parts are connected with each other at the coupling surfaces so that the at least one first fluid channel cavity and/or the at least one second fluid channel cavity limit at least one main fluid channel of the fluid channel arrangement , and that a seal arrangement for sealing the at least one main fluid channel is arranged between the first coupling surface and the second coupling surface .
A method for manufacturing a lengthy body comprising high performance polyethylene fibres having a tensile strength of at least 1.0 N/tex (measured as described in the METHODS), and a polymeric resin throughout the lengthy body comprising the steps of a) providing high performance polyethylene (HPPE) fibres having a tensile strength of at least 1.0 N/tex; b) applying an aqueous suspension of the polymeric resin to the HPPE fibres before, during or after; c) assembling the HPPE fibres to form a lengthy body; d) at least partially drying the aqueous suspension of the polymeric resin applied in step b); to obtain a lengthy body comprising the high performance polyethylene fibres and the polymeric resin throughout the lengthy body upon completion of steps a), b), c) and d); e) optionally applying a temperature in the range from the melting temperature of the resin to 153°C to the lengthy body of step c) before, during and/or after step d) to at least partially melt the polymeric resin; and f) optionally applying a pressure and/or a tension to the lengthy body obtained in step d) before, during and/or after step e) to at least partially compact and/or elongate the lengthy body, wherein the polymeric resin is a homopolymer or copolymer of ethylene and/or propylene and wherein said polymeric resin has a density as measured according to ISO1183 in the range from 860 to 930 kg/m 3 , a peak melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g. a) providing high performance polyethylene (HPPE) fibres having a tensile strength of at least 1.0 N/tex; b) applying an aqueous suspension of the polymeric resin to the HPPE fibres before, during or after; c) assembling the HPPE fibres to form a lengthy body; d) at least partially drying the aqueous suspension of the polymeric resin applied in step b); to obtain a lengthy body comprising the high performance polyethylene fibres and the polymeric resin throughout the lengthy body upon completion of steps a), b), c) and d); e) optionally applying a temperature in the range from the melting temperature of the resin to 153°C to the lengthy body of step c) before, during and/or after step d) to at least partially melt the polymeric resin; and f) optionally applying a pressure and/or a tension to the lengthy body obtained in step d) before, during and/or after step e) to at least partially compact and/or elongate the lengthy body,
A cut-resistant composite yarn structure , comprising: a core-spun yarn comprising a first cut-resistant core filament and staple fibers spun over the first cut-resistant core filament ; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament , where the first covering layer comprises a first filament; and a second covering layer wound over the core-spun yarn and the covering yarn , where the second covering layer comprises a second filament. a core-spun yarn comprising a first cut-resistant core filament and staple fibers spun over the first cut-resistant core filament ; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament , where the first covering layer comprises a first filament; and a second covering layer wound over the core-spun yarn and the covering yarn , where the second covering layer comprises a second filament.