mhurhangee/ep-ind-claims huggingface dataset:
An electronic device assembly comprising: a master device comprising a signal reading unit, a layer identification unit, a selecting and controlling unit, and a pull-up resistor coupled to a power supply; and a plurality of peripheral devices (200A, 200B, 200C) connected in series and coupled to the master device; each peripheral device (200A/200B/200C) comprising a divider resistor (R1/R2/R3) coupled to the pull-up resistor and a switch module (300a/300b/300c) coupled between the divider resistor (R1/R2/R3) and ground; wherein the switch module of the last peripheral device is switched on, and each switch module of other peripheral devices (300a, 300b) is switched off, coupling the pull-up resistor and each divider resistor (R1, R2, R3) in series; characterized in that the signal reading unit is configured to read layer signals from the plurality of peripheral devices according to the plurality of divider resistors (R1, R2, R3); the layer identification unit is configured to identify a layer information of the plurality of peripheral devices according to the layer signals; the selecting and controlling unit is configured to select and control one or more of the plurality of peripheral devices according to the layer information. a master device comprising a signal reading unit, a layer identification unit, a selecting and controlling unit, and a pull-up resistor coupled to a power supply; and a plurality of peripheral devices (200A, 200B, 200C) connected in series and coupled to the master device; each peripheral device (200A/200B/200C) comprising a divider resistor (R1/R2/R3) coupled to the pull-up resistor and a switch module (300a/300b/300c) coupled between the divider resistor (R1/R2/R3) and ground; wherein the switch module of the last peripheral device is switched on, and each switch module of other peripheral devices (300a, 300b) is switched off, coupling the pull-up resistor and each divider resistor (R1, R2, R3) in series; characterized in that the signal reading unit is configured to read layer signals from the plurality of peripheral devices according to the plurality of divider resistors (R1, R2, R3); the layer identification unit is configured to identify a layer information of the plurality of peripheral devices according to the layer signals; the selecting and controlling unit is configured to select and control one or more of the plurality of peripheral devices according to the layer information.
A lawn mower robot, comprising: an inner body provided with casters and wheels for moving on both sides, respectively; at least one blade rotatably provided on a bottom surface of the inner body to cut grass; a drive motor mounted on the wheels, respectively, to independently drive the wheels; an outer cover configured to surround an outer side of the inner body, and mounted by support portions on the inner body to be movable in forward, backward, leftward and rightward directions with respect to the inner body when colliding with an obstacle; and and a joystick bumper provided on the inner body to be rotatable in all directions, and an upper side thereof is coupled to the outer cover, wherein the outer cover is coupled to the support portions on an inner surface of the outer cover, wherein each of the support portions comprises: a support body; a wrinkled portion extended from an outer circumferential surface of the support body along a radial direction, wherein the wrinkled portion has a structure such that the support body is supported to be movable in the forward, backward, leftward and rightward directions. an inner body provided with casters and wheels for moving on both sides, respectively; at least one blade rotatably provided on a bottom surface of the inner body to cut grass; a drive motor mounted on the wheels, respectively, to independently drive the wheels; an outer cover configured to surround an outer side of the inner body, and mounted by support portions on the inner body to be movable in forward, backward, leftward and rightward directions with respect to the inner body when colliding with an obstacle; and and a joystick bumper provided on the inner body to be rotatable in all directions, and an upper side thereof is coupled to the outer cover, wherein the outer cover is coupled to the support portions on an inner surface of the outer cover, wherein each of the support portions comprises: a support body; a wrinkled portion extended from an outer circumferential surface of the support body along a radial direction, wherein the wrinkled portion has a structure such that the support body is supported to be movable in the forward, backward, leftward and rightward directions. a support body; a wrinkled portion extended from an outer circumferential surface of the support body along a radial direction, wherein the wrinkled portion has a structure such that the support body is supported to be movable in the forward, backward, leftward and rightward directions.
Household appliance with a power supply for supplying a supply voltage to an actuator, wherein the actuator is connected upstream of an electric drive, and a controller for controlling the electric drive, wherein the controller is designed to detect a voltage value of the supply voltage, and to start the electric drive according to a first start-up procedure if the voltage value attains a threshold value, and to start the electric drive according to a second start-up procedure if the voltage value drops below the threshold value, wherein the power supply has a rectifier and a smoothing capacitor connected downstream of the rectifier, wherein the actuator is embodied as an inverter connected downstream of the smoothing capacitor, wherein the power supply has the inverter, characterised in that the controller is designed according to the first start-up procedure to position a rotor of the electric drive, and once the rotor is positioned, to energise the electric drive with a starting current corresponding to a rated current or a maximum starting current of the electric drive, wherein the controller is designed according to the second start-up procedure to energise the electric drive with a starting current that is less than a rated current or less than a maximum starting current of the electric drive, wherein prior positioning of the rotor of the electric drive is dispensed with.
A method for an automated assembly or plug-in process of at least one first contact element (11, 21) connected to a first wire and at least one second contact element (11,21) connected to a second wire, including the following steps: - gripping a first and a second wire (12, 22) with a gripping device, so that one of the two contact elements (11, 21) protrudes with respect to the other contact element (21, 11) in plug-in direction and - plugging the two contact elements (21, 11) into contact chambers (31, 32) arranged next to one another through a respective mounting opening (33, 34) of a contact support, wherein, due to the protrusion with respect to the other contact element (21,11), one of the two contact elements (11, 21) advances ahead in plug-in direction, characterized in that the gripping device comprises a servo-electrically driven parallel gripper with two driven gripping fingers and a central web extending between the gripping fingers, and a wire (12, 22) is gripped, during the gripping, by a respective gripping finger and the central web. - gripping a first and a second wire (12, 22) with a gripping device, so that one of the two contact elements (11, 21) protrudes with respect to the other contact element (21, 11) in plug-in direction and - plugging the two contact elements (21, 11) into contact chambers (31, 32) arranged next to one another through a respective mounting opening (33, 34) of a contact support, wherein, due to the protrusion with respect to the other contact element (21,11), one of the two contact elements (11, 21) advances ahead in plug-in direction, characterized in that the gripping device comprises a servo-electrically driven parallel gripper with two driven gripping fingers and a central web extending between the gripping fingers, and a wire (12, 22) is gripped, during the gripping, by a respective gripping finger and the central web.
A liquid pharmaceutical composition suitable for administration by inhalation comprising a diluent and a suspension of particles of 9,10-dimethoxy-2-(2,4,6-trimethylphenylimino)-3-(N-carbamoyl-2-aminoethyl)-3,4,6,7-tetrahydro-2H-pyrimido[6,1-a]isoquinolin-4-one or a pharmaceutically acceptable salt thereof, wherein the particles of RPL554 have a particle size distribution with a Dv50 (median particle size by volume) value of from 0.2 μm to 5 μm and wherein the liquid pharmaceutical composition does not comprise an amount of greater than 0.1 wt% total of a β 2 -adrenergic receptor agonist and a muscarinic receptor antagonist.
A bonded silicone rubber object comprising: a silicone rubber substrate which comprises and configured with silicone rubber; an adhered substrate which comprises and configured with a non-glass material and includes an oxide, a sulfide and/or a nitride exposed on a bonding surface thereof; and the silicone rubber substrate and the adhered substrate which are bonded by direct bonding through ether bonds between hydroxyl groups as reactive functional groups on a surface of the silicone rubber substrate and hydroxyl groups as reactive functional groups on a surface of the oxide, the sulfide and/or the nitride, wherein the non-glass material is at least one of metal, a polymer resin and crosslinked rubber. a silicone rubber substrate which comprises and configured with silicone rubber; an adhered substrate which comprises and configured with a non-glass material and includes an oxide, a sulfide and/or a nitride exposed on a bonding surface thereof; and the silicone rubber substrate and the adhered substrate which are bonded by direct bonding through ether bonds between hydroxyl groups as reactive functional groups on a surface of the silicone rubber substrate and hydroxyl groups as reactive functional groups on a surface of the oxide, the sulfide and/or the nitride, wherein the non-glass material is at least one of metal, a polymer resin and crosslinked rubber.
Twin screw extruder (100; 100'; 100"; 200; 200') with integrated safety couplings, at least comprising a pair of extruder screw shafts each having a drive-side shaft end (10; 210), and a transmission with two output shafts each having a shaft end (20; 220), wherein in each case an extruder screw shaft and drive shaft are arranged in alignment on a common centre axis; characterized - in that the pair of shaft ends (10; 210) of the extruder screw shafts and/or the pair of shaft ends (20; 220) of the transmission are/is cylindrically formed; - in that a plurality of bores (14; 24), which are parallel to the centre axis, for at least two shear elements (32; 32") are provided on the end sides of at least one pair of shafts ends (10, 20, 210, 220), and - the shafts ends (10, 20) are coupled to one another in a torsionally stiff manner via the shear elements (32; 32") which are inserted into the bores (14; 24) and which bridge a parting plane (T; T 1; T 2) formed at least between the shaft ends (10, 210) of the extruder screw shafts and the shaft ends (20, 220) of the transmission. wherein in each case an extruder screw shaft and drive shaft are arranged in alignment on a common centre axis; characterized - in that the pair of shaft ends (10; 210) of the extruder screw shafts and/or the pair of shaft ends (20; 220) of the transmission are/is cylindrically formed; - in that a plurality of bores (14; 24), which are parallel to the centre axis, for at least two shear elements (32; 32") are provided on the end sides of at least one pair of shafts ends (10, 20, 210, 220), and - the shafts ends (10, 20) are coupled to one another in a torsionally stiff manner via the shear elements (32; 32") which are inserted into the bores (14; 24) and which bridge a parting plane (T; T 1; T 2) formed at least between the shaft ends (10, 210) of the extruder screw shafts and the shaft ends (20, 220) of the transmission. - in that the pair of shaft ends (10; 210) of the extruder screw shafts and/or the pair of shaft ends (20; 220) of the transmission are/is cylindrically formed; - in that a plurality of bores (14; 24), which are parallel to the centre axis, for at least two shear elements (32; 32") are provided on the end sides of at least one pair of shafts ends (10, 20, 210, 220), and - the shafts ends (10, 20) are coupled to one another in a torsionally stiff manner via the shear elements (32; 32") which are inserted into the bores (14; 24) and which bridge a parting plane (T; T 1; T 2) formed at least between the shaft ends (10, 210) of the extruder screw shafts and the shaft ends (20, 220) of the transmission.
An apparatus comprising: a wavelength selective cross-connect array (406, 414) comprising a plurality of independently switched 2 × 2 wavelength selective cross-connect switches, characterized in that the apparatus further comprises: N 1 × 2 ingress tap couplers, wherein a tapped branch of each ingress tap coupler is coupled to a degree drop and wherein N > 1; a wavelength blocker array having N wavelength blocking units, each wavelength blocking unit coupled to a corresponding one of the N 1 × 2 ingress tap couplers; N 2 × 1 egress tap couplers, wherein a tapped branch of each egress tap coupler is coupled to a degree add; wherein the wavelength selective cross-connect array (406, 414) is coupled between the wavelength blocker array and the N 2 × 1 egress tap couplers. a wavelength selective cross-connect array (406, 414) comprising a plurality of independently switched 2 × 2 wavelength selective cross-connect switches, characterized in that the apparatus further comprises: N 1 × 2 ingress tap couplers, wherein a tapped branch of each ingress tap coupler is coupled to a degree drop and wherein N > 1; a wavelength blocker array having N wavelength blocking units, each wavelength blocking unit coupled to a corresponding one of the N 1 × 2 ingress tap couplers; N 2 × 1 egress tap couplers, wherein a tapped branch of each egress tap coupler is coupled to a degree add; wherein the wavelength selective cross-connect array (406, 414) is coupled between the wavelength blocker array and the N 2 × 1 egress tap couplers. N 1 × 2 ingress tap couplers, wherein a tapped branch of each ingress tap coupler is coupled to a degree drop and wherein N > 1; a wavelength blocker array having N wavelength blocking units, each wavelength blocking unit coupled to a corresponding one of the N 1 × 2 ingress tap couplers; N 2 × 1 egress tap couplers, wherein a tapped branch of each egress tap coupler is coupled to a degree add; wherein the wavelength selective cross-connect array (406, 414) is coupled between the wavelength blocker array and the N 2 × 1 egress tap couplers.
Process for preparing nitric acid by first vaporizing ammonia in at least one first ammonia vaporizer to produce an ammonia gas, oxidizing this ammonia gas to nitrogen dioxide in a plant section of the nitric acid plant and thereafter absorbing the nitrogen dioxide in water to produce nitric acid, with a residual gas containing nitrous gases being taken off from the plant section of the nitric acid plant and conveyed to a residual-gas cleaning apparatus, and the residual gas containing nitrous gases being reduced by means of ammonia in the residual-gas cleaning apparatus, characterized in that ammonia-containing wastewater obtained in the at least one first ammonia vaporizer or otherwise is conveyed to the residual-gas cleaning apparatus.
A method for producing polypeptide particles which are spherical in shape and have an average particle size of 1000 nm or less, comprising: a solution production step in which a polypeptide derived from spider silk proteins is dissolved in at least one dissolving solvent selected from the group consisting of dimethyl sulfoxide; dimethyl sulfoxide with an inorganic salt; and N, N-dimethylformamide with an inorganic salt, so as to obtain a solution of the polypeptide; a step in which the solution of the polypeptide produced in the solution production step is placed in a dialysis membrane, the dialysis membrane is immersed in a water-soluble solvent, and the water-soluble solvent is renewed at least one time so that the solution of the polypeptide is substituted with a water-soluble solvent so as to obtain an aqueous solution of the polypeptide; and a step in which the aqueous solution of the polypeptide is dried. a solution production step in which a polypeptide derived from spider silk proteins is dissolved in at least one dissolving solvent selected from the group consisting of dimethyl sulfoxide; dimethyl sulfoxide with an inorganic salt; and N, N-dimethylformamide with an inorganic salt, so as to obtain a solution of the polypeptide; a step in which the solution of the polypeptide produced in the solution production step is placed in a dialysis membrane, the dialysis membrane is immersed in a water-soluble solvent, and the water-soluble solvent is renewed at least one time so that the solution of the polypeptide is substituted with a water-soluble solvent so as to obtain an aqueous solution of the polypeptide; and a step in which the aqueous solution of the polypeptide is dried.
An electro-optical distance-measuring device, in particular laser distance-measuring device, comprising ▪ a transmitting unit, in particular comprising a laser diode and a laser diode driver, for emitting intensity-modulated optical radiation, in particular as burst-modulated radiation having a burst rate, a burst duty cycle and a pulse frequency within a burst, ▪ a receiving unit for receiving a portion of the optical radiation, said portion being reflected from a target object, by means of a photosensitive electrical component and for conversion into an electrical reception signal, in particular a photodiode, ▪ an input filter for filtering the reception signal, ▪ an analogue-to-digital converter for digitizing the filtered reception signal, and ▪ an electronic evaluation unit, which ascertains a distance from the distance-measuring device to the target object on the basis of a signal propagation time with the aid of the digitized reception signal, characterized in that the input filter is a filter structure implemented in a time-discrete and value-continuous fashion, in particular an FIR filter structure, having a time-quantifying, sampling switching stage for the reception signal, a weighting stage for weighting analogue amplitude values with coefficients, an analogue summation stage and a time-discrete output stage, wherein the input filter is embodied as an aliasing filter upstream of the analogue-to-digital converter. ▪ a transmitting unit, in particular comprising a laser diode and a laser diode driver, for emitting intensity-modulated optical radiation, in particular as burst-modulated radiation having a burst rate, a burst duty cycle and a pulse frequency within a burst, ▪ a receiving unit for receiving a portion of the optical radiation, said portion being reflected from a target object, by means of a photosensitive electrical component and for conversion into an electrical reception signal, in particular a photodiode, ▪ an input filter for filtering the reception signal, ▪ an analogue-to-digital converter for digitizing the filtered reception signal, and ▪ an electronic evaluation unit, which ascertains a distance from the distance-measuring device to the target object on the basis of a signal propagation time with the aid of the digitized reception signal,
A method comprising: receiving, at a processing module of a device, audio information detected by a microphone of the device; restricting, by the processing module, access by a device processor of the device to the audio information received by the processing module, wherein the device processor is separate to the processing module; receiving, by the processing module, data indicating that the device processor is authorized to access the audio information detected by the microphone during a limited period of time; in response to receiving data indicating that the device processor is authorized to access the audio information detected by the microphone during the limited period of time, providing the audio information to the device processor; monitoring, by the processing module, the audio information detected by the microphone during the limited period of time for the presence of a hotword; and after the end of the limited period of time, restricting, by the processing module, access by the device processor to the audio information detected by the microphone. receiving, at a processing module of a device, audio information detected by a microphone of the device; restricting, by the processing module, access by a device processor of the device to the audio information received by the processing module, wherein the device processor is separate to the processing module; receiving, by the processing module, data indicating that the device processor is authorized to access the audio information detected by the microphone during a limited period of time; in response to receiving data indicating that the device processor is authorized to access the audio information detected by the microphone during the limited period of time, providing the audio information to the device processor; monitoring, by the processing module, the audio information detected by the microphone during the limited period of time for the presence of a hotword; and after the end of the limited period of time, restricting, by the processing module, access by the device processor to the audio information detected by the microphone.
A replacement valve for use within a human body, comprising: a valve component; and a stent component for housing the valve component, the stent and valve components being capable of at least a collapsed configuration and an expanded configuration, the stent component comprising a proximal portion of the stent component comprising a first strut and a second strut with ends located at different positions along a longitudinal axis of the stent component, wherein the first strut and the second strut provide an axial resistance for anchoring the stent at an implantation site, the stent component comprising multiple installations of said first strut and said second strut located horizontally along the perimeter of the stent component, and wherein said second strut is located within said first strut. a valve component; and a stent component for housing the valve component, the stent and valve components being capable of at least a collapsed configuration and an expanded configuration, the stent component comprising a proximal portion of the stent component comprising a first strut and a second strut with ends located at different positions along a longitudinal axis of the stent component, wherein the first strut and the second strut provide an axial resistance for anchoring the stent at an implantation site, the stent component comprising multiple installations of said first strut and said second strut located horizontally along the perimeter of the stent component, and wherein said second strut is located within said first strut.