mhurhangee/patent-ind-claim-en huggingface dataset:
A pipe clip for attaching a pipe or a similar object to a support, the pipe clip comprises two clip segments which are connected to each other by means of at least one hingeable section of the pipe clip, wherein each end of the two clip segments remote from the at least one hingeable section comprises a connection section which connection sections are configured to be connected with each other for connecting the pipe clip around a pipe or a similar object, wherein opposite ends of the two clip segments are connected to the at least one hingeable section, wherein each opposite end comprises, seen from the center line of the pipe clip 1, an outwardly extending flange comprising at least one hole , wherein the at least one hole of one of the two flanges is alignable by means of the at least one hingeable section with the at least one hole of the other of the two flanges for receiving a fastener element (70; 270) through the two holes for attaching a pipe or a similar object to a support, characterized in that the hingeable section comprises at least two hinge portions connected to each other by a connecting element , wherein the connecting element has an outwardly extending portion comprising a receiving member for receiving the fastener element.
An adapter manifold for a multi-barrel syringe applicator, comprising: an adapter body having substantially parallel inlet ports and substantially parallel exit ports , the inlet ports spaced an axial distance apart (d 1 ) which is different from an axial distance (d 2 ) between the exit ports , and substantially parallel syringe connectors in fluid communication with the inlet ports and having Luer-type receivers on proximal ends thereof, characterised in that the syringe connectors have cylindrical tubes on distal ends thereof, slidably positioned within said inlet ports of the adapter body , wherein the syringe connectors are biased toward a proximal end of the adapter body .
A microphone assembly , comprising: a transducer assembly including a first enclosure defining a first acoustic volume and a Micro-Electrical-Mechanical-System ("MEMS") microphone transducer disposed within the first enclosure such that the first acoustic volume surrounds a rear end of the MEMS microphone transducer , a substrate and a first sound inlet , wherein the first sound inlet is formed through the substrate and positioned at a front end of the transducer ; a second enclosure disposed adjacent to a back end of the first enclosure opposite the first sound inlet , the second enclosure defining a second acoustic volume in acoustic communication with the first acoustic volume , and the second enclosure including an acoustic resistance adjacent to a second sound inlet positioned at a back end of the second enclosure opposite the back end of the first enclosure , wherein the first and second acoustic volumes, in cooperation with the acoustic resistance, create an acoustic delay for producing a directional polar pattern; and circuitry electrically coupled to the transducer assembly and comprising a shelving filter configured to correct a portion of a frequency response of the MEMS microphone transducer , so as to flatten the frequency response across all frequency values within a predetermined bandwidth. a transducer assembly including a first enclosure defining a first acoustic volume and a Micro-Electrical-Mechanical-System ("MEMS") microphone transducer disposed within the first enclosure such that the first acoustic volume surrounds a rear end of the MEMS microphone transducer , a substrate and a first sound inlet , wherein the first sound inlet is formed through the substrate and positioned at a front end of the transducer ; a second enclosure disposed adjacent to a back end of the first enclosure opposite the first sound inlet , the second enclosure defining a second acoustic volume in acoustic communication with the first acoustic volume , and the second enclosure including an acoustic resistance adjacent to a second sound inlet positioned at a back end of the second enclosure opposite the back end of the first enclosure , wherein the first and second acoustic volumes, in cooperation with the acoustic resistance, create an acoustic delay for producing a directional polar pattern; and circuitry electrically coupled to the transducer assembly and comprising a shelving filter configured to correct a portion of a frequency response of the MEMS microphone transducer , so as to flatten the frequency response across all frequency values within a predetermined bandwidth.
Method for applying at least one electric contact element to an aluminium rail for a vehicle electrical system of a motor vehicle, in which the electric contact element is arranged with its bottom side on a predetermined contact surface of the aluminium rail and is connected in a materially bonded manner by means of friction welding to the aluminium rail in a joining region arranged within the contact surface , characterized in that - at least one friction welding mandrel is placed onto a top side of the electric contact element , the top side facing away from the aluminium rail , and the electric contact element is connected in a materially bonded manner to the aluminium rail by rotation of the friction welding mandrel , wherein at least one guide bore is introduced into the electric contact element before the friction welding and a protrusion of the friction welding mandrel is then inserted into the guide bore ; - a further friction welding mandrel is placed onto a side of the aluminium rail facing away from the contact surface opposite the other friction welding mandrel and the electric contact element is connected in a materially bonded manner to the aluminium rail by rotation of the two friction welding mandrels . - at least one friction welding mandrel is placed onto a top side of the electric contact element , the top side facing away from the aluminium rail , and the electric contact element is connected in a materially bonded manner to the aluminium rail by rotation of the friction welding mandrel , wherein at least one guide bore is introduced into the electric contact element before the friction welding and a protrusion of the friction welding mandrel is then inserted into the guide bore ; - a further friction welding mandrel is placed onto a side of the aluminium rail facing away from the contact surface opposite the other friction welding mandrel and the electric contact element is connected in a materially bonded manner to the aluminium rail by rotation of the two friction welding mandrels .
A polymer comprising greater than or equal to 70 wt% units derived from ethylene, units derived from propylene which are present in the polymer in an amount of less than or equal to 30 wt%, and less than 5 wt% of units derived from C 4 -C 20 alpha-olefins, and having the following properties: a. crystallinity derived from ethylene; b. a heat of fusion of 20 to 85 J/g; c. a polydispersity index (Mw/Mn) of less than 2.5; d. a reactivity ratio of 0.5 to 1.5; e. a proportion of inversely inserted propylene units based on 2, 1 insertion of propylene monomer in all propylene insertions, as measured by 13 C NMR of less than 0.5 wt%; and f. a branching index greater than 0.5. a. crystallinity derived from ethylene; b. a heat of fusion of 20 to 85 J/g; c. a polydispersity index (Mw/Mn) of less than 2.5; d. a reactivity ratio of 0.5 to 1.5; e. a proportion of inversely inserted propylene units based on 2, 1 insertion of propylene monomer in all propylene insertions, as measured by 13 C NMR of less than 0.5 wt%; and f. a branching index greater than 0.5.
An image bearing member for an image forming apparatus, comprising: a base material layer ; and a surface layer disposed on the base material layer and including an inorganic oxide containing an organic component, wherein a ten-point average roughness of the surface layer is 69% or more of a wavelength of incident light emitted from a sensor for detecting an amount of toner adhering to the image bearing member and less than 20% of an average particle diameter of the toner, characterized in that the inorganic oxide is silicon dioxide containing an alkyl group, and the ten-point average roughness is 0.6 μm or more and 1.3 μm or less. a base material layer ; and a surface layer disposed on the base material layer and including an inorganic oxide containing an organic component, wherein a ten-point average roughness of the surface layer is 69% or more of a wavelength of incident light emitted from a sensor for detecting an amount of toner adhering to the image bearing member and less than 20% of an average particle diameter of the toner, characterized in that the inorganic oxide is silicon dioxide containing an alkyl group, and the ten-point average roughness is 0.6 μm or more and 1.3 μm or less.
A gas distribution system for supplying gas to a plasma processing chamber including a gas distribution member having inner and outer zones which are flow insulated from each other, the gas distribution system comprising: a first gas passage adapted to be in fluid communication with a first process gas source , the inner zone of the gas distribution member of the plasma processing chamber and a by-pass line ; a second gas passage adapted to be in fluid communication with the first process gas source , the outer zone of the gas distribution member of the plasma processing chamber and the bypass line ; a third gas passage adapted to be in fluid communication with a second process gas source , the inner zone and the by-pass line ; a fourth gas passage adapted to be in fluid communication with the second process gas source , the outer zone and the by-pass line ; and a plurality of fast switching valves adapted to receive signals to open or close so that (i) the first process gas is supplied to the inner and outer zones via the first and second gas passages , while the second process gas is supplied to the by-pass line via the third and fourth gas passages , and (ii) to change the flows of the first and second process gases so that the second process gas is supplied to the inner and outer zones via the third and fourth gas passages , while the first process gas is supplied to the by-pass line via the first and second gas passages. a first gas passage adapted to be in fluid communication with a first process gas source , the inner zone of the gas distribution member of the plasma processing chamber and a by-pass line ; a second gas passage adapted to be in fluid communication with the first process gas source , the outer zone of the gas distribution member of the plasma processing chamber and the bypass line ; a third gas passage adapted to be in fluid communication with a second process gas source , the inner zone and the by-pass line ; a fourth gas passage adapted to be in fluid communication with the second process gas source , the outer zone and the by-pass line ; and a plurality of fast switching valves adapted to receive signals to open or close so that (i) the first process gas is supplied to the inner and outer zones via the first and second gas passages , while the second process gas is supplied to the by-pass line via the third and fourth gas passages , and (ii) to change the flows of the first and second process gases so that the second process gas is supplied to the inner and outer zones via the third and fourth gas passages , while the first process gas is supplied to the by-pass line via the first and second gas passages.
A voltage detection and measurement circuit, comprising: a first Zener diode configured to be operatively coupled to an AC power input line ; a second Zener diode configured to be operatively coupled to a reference voltage line that is different to the AC power input line , wherein the first and second Zener diodes are configured to pass portions of input AC voltage from the AC power input line to generate output waveforms; an optocoupler coupled to the first and second Zener diodes to receive the output waveforms from the first and second Zener diodes to detect the input AC voltage; and a processing circuit configured to receive the output waveforms from the optocoupler and to determine presence and/or magnitude of the input AC voltage based upon the output waveforms, characterized in that : the processing circuit is further configured to generate sampled output waveforms from the received output waveforms and to rectify the sampled output waveforms for generating reconstructed waveforms , and wherein the reconstructed waveforms are indication of the magnitude of the input AC voltage . a first Zener diode configured to be operatively coupled to an AC power input line ; a second Zener diode configured to be operatively coupled to a reference voltage line that is different to the AC power input line , wherein the first and second Zener diodes are configured to pass portions of input AC voltage from the AC power input line to generate output waveforms; an optocoupler coupled to the first and second Zener diodes to receive the output waveforms from the first and second Zener diodes to detect the input AC voltage; and a processing circuit configured to receive the output waveforms from the optocoupler and to determine presence and/or magnitude of the input AC voltage based upon the output waveforms, characterized in that : the processing circuit is further configured to generate sampled output waveforms from the received output waveforms and to rectify the sampled output waveforms for generating reconstructed waveforms , and wherein the reconstructed waveforms are indication of the magnitude of the input AC voltage .
Nebulizing system for a motor vehicle, comprising: - a first reservoir of liquid water, - a second reservoir of liquid water in hydraulic communication with the first reservoir , the second reservoir being removably fixed to the first reservoir , and - a nebulizing nozzle , in hydraulic communication with the first reservoir and including a piezoelectric element for emitting acoustic waves and a concentrator for the acoustic waves emitted by the piezoelectric element configured so that the water coming from the first reservoir forms a water jet and a water droplet mist at the outlet of the concentrator, the mist being capable of leaving the nebulizing nozzle in order to reach a passenger compartment of the motor vehicle, characterized in that the second reservoir and the nebulizing nozzle are arranged, with reference to a vertical direction (Z), above the first reservoir when the system is in the normal position of use, so that the water coming from the nebulizing nozzle falls into the first reservoir , the second reservoir comprising a non-return valve arranged in the liquid water intake so as to enable water from outside the nebulizing system to reach the second reservoir and to prevent the water from the second reservoir from leaving the second reservoir through the liquid water intake , the nebulizing system comprising a non-return valve arranged between the first reservoir and the second reservoir so as to enable the water to circulate from the second reservoir to the first reservoir but prevent the water from circulating from the first reservoir to the second reservoir . - a first reservoir of liquid water, - a second reservoir of liquid water in hydraulic communication with the first reservoir , the second reservoir being removably fixed to the first reservoir , and - a nebulizing nozzle , in hydraulic communication with the first reservoir and including a piezoelectric element for emitting acoustic waves and a concentrator for the acoustic waves emitted by the piezoelectric element configured so that the water coming from the first reservoir forms a water jet and a water droplet mist at the outlet of the concentrator, the mist being capable of leaving the nebulizing nozzle in order to reach a passenger compartment of the motor vehicle,
Ophthalmological apparatus for working on eye tissue , comprising a laser source that is configured to produce a pulsed laser beam (L); a focusing optical unit that is configured to focus the pulsed laser beam into the eye tissue ; a scanner system that is configured to steer the pulsed laser beam onto work target points (F) in the eye tissue ; and a circuit that is configured to control the scanner system in such a way that the scanner system steers the pulsed laser beam onto work target points (F) in an area to be cut in a cornea , in work trajectories that extend next to one another, in order, initially, to produce cut trajectories , separated by remaining tissue bridges , of a tissue cut to be undertaken in the area and thereafter steers the pulsed laser beam onto work target points (F) in the remaining tissue bridges between the cut trajectories in the area in order to complete the tissue cut, characterized in that the ophthalmological apparatus comprises a measurement system that is configured to optically capture structures in the eye tissue ; and in that the circuit is configured to control the measurement system in such a way that the measurement system captures the produced cut trajectories and positions the work target points (F) in the remaining tissue bridges on the basis of the captured cut trajectories .
A method for controlling delivery of power to a plurality of servers , comprising: energizing a control circuit ; transmitting, from the control circuit , to a first power source , a first signal indicating that the control circuit is energized; after transmitting the first signal indicating that the control circuit is energized, receiving, at the control circuit , a second signal indicating that the first power source is ready to provide power; receiving, at the control circuit , from a server , a third signal indicating that the server is energized; after receiving, at the control circuit , the second signal indicating that the first power source is ready to provide power and after receiving, at the control circuit , the third signal indicating that the server is energized, transmitting, from the control circuit to the server , a fourth signal indicating that the server may start receiving power from the first power source ; the method being characterized in that it further comprises: after transmitting the fourth signal indicating that the server may start receiving power from the first power source : receiving, at the control circuit , from an additional server , a fifth signal indicating that the additional server is energized; and transmitting, from the control circuit to the additional server, a sixth signal indicating that the additional server may start receiving power from the first power source . energizing a control circuit ; transmitting, from the control circuit , to a first power source , a first signal indicating that the control circuit is energized; after transmitting the first signal indicating that the control circuit is energized, receiving, at the control circuit , a second signal indicating that the first power source is ready to provide power; receiving, at the control circuit , from a server , a third signal indicating that the server is energized; after receiving, at the control circuit , the second signal indicating that the first power source is ready to provide power and after receiving, at the control circuit , the third signal indicating that the server is energized, transmitting, from the control circuit to the server , a fourth signal indicating that the server may start receiving power from the first power source ; receiving, at the control circuit , from an additional server , a fifth signal indicating that the additional server is energized; and transmitting, from the control circuit to the additional server, a sixth signal indicating that the additional server may start receiving power from the first power source .
A floor board, comprising a four-sided base board and a four-sided surface board fixed and connected to the four-sided base board, wherein the four-sided base board comprises a four-sided base board body and board-shaped hooking tongues that are provided on the edges of the four-sided base board body; each edge of the four-sided base board body is uniformly provided with several board-shaped hooking tongues ; the underside of the edge of the four-sided base board body is provided with buckles beside the board-shaped hooking tongues, corresponding to the board-shaped hooking tongues ; the positions of the board-shaped hooking tongues on two edges of the four-sided base board body and the positions of the board-shaped hooking tongues on two other edges of the four-sided base board body are arranged in a staggered manner, and the positions of the buckles on two edges of the four-sided base board body and the positions of the buckles on two other edges of the four-sided base board body are arranged in a staggered manner wherein the hooking tongues comprise an upwardly extending projection at their distal end.
A method of operating a wind energy installation, wherein the wind energy installation comprises a bearing which is lubricated with a first lubricant, and wherein a valve is provided for building up a pressure (P) up to an upper pressure limit in a supply line of a second lubricant to the bearing, wherein the bearing is additionally flushed in a flushing interval with the second lubricant at the pressure (P), the upper limit and lower limit of which can be specified, by the valve being opened when the upper pressure limit is reached, so that the second lubricant is introduced into the bearing, wherein the second lubricant has a higher mobility than the first lubricant and wherein the quantity of the second lubricant introduced into the bearing per unit of time is at least twice as great as the quantity of the first lubricant introduced into the bearing per unit of time.
A method for triggering sending of a sounding reference signal, SRS, comprising: sending , by a base station, a physical downlink control channel, PDCCH, signal, characterized in that , the PDCCH signal carries identifier information corresponding to a plurality of user equipments, UEs, and carries a plurality of pieces of indication information corresponding to the plurality of UEs, wherein each of the plurality of pieces of indication information is for instructing whether the corresponding UE is required to send the SRS, and the identifier information is a SRS radio network temporary identifier, each of the plurality of pieces of indication information corresponding to the plurality of UEs is a 1-bit indication. sending , by a base station, a physical downlink control channel, PDCCH, signal, characterized in that , the PDCCH signal carries identifier information corresponding to a plurality of user equipments, UEs, and carries a plurality of pieces of indication information corresponding to the plurality of UEs, wherein each of the plurality of pieces of indication information is for instructing whether the corresponding UE is required to send the SRS, and the identifier information is a SRS radio network temporary identifier, each of the plurality of pieces of indication information corresponding to the plurality of UEs is a 1-bit indication.
Piezoelectric device comprising at least one upper layer of piezoelectric material, based on alkali metal niobate, one lower layer of metal located above a substrate , and a barrier layer of material that is a barrier to the diffusion of alkali metals into said metal and that is inert to the alkali metals of said niobate, said barrier material layer being located between the lower layer of metal and the upper layer of piezoelectric material, characterised in that said diffusion barrier material is a conductive oxide or a conductive nitride. one lower layer of metal located above a substrate , and a barrier layer of material that is a barrier to the diffusion of alkali metals into said metal and that is inert to the alkali metals of said niobate, said barrier material layer being located between the lower layer of metal and the upper layer of piezoelectric material, characterised in that said diffusion barrier material is a conductive oxide or a conductive nitride.