mhurhangee/patent-ind-claim-en huggingface dataset:
Scissor-type securing element , comprising two hooks pivotably connected together by a rotary shaft , a distal part being defined in each hook on one side of the shaft and a proximal part being defined on the other side of the shaft , the distal parts being intended to be introduced in a case embedded in a structure (E), each distal part being provided with a tooth and each proximal part being provided with a penetrating slot , in which an insertion configuration (P1) is defined, in which the hooks are superposed and a securing configuration (P2) in which the teeth are in a more separated position and the hooks project so as to remain retained in an inner support surface of the case , the slots being arranged so that in the insertion configuration the ends of the slots closest to the shaft overlap and in the securing configuration the ends of the slots furthest from the shaft overlap, in which the securing element comprises a shackle , the shackle being provided with a ring for supporting the load, characterised in that said shackle further comprises two ring ends and a key supported by the two ends and inserted into the slots , and in that the ends of the shaft project laterally and the ring ends are provided with a housing having a form complementary to the ends of the shaft , such that in the insertion configuration, each of the ends of the shaft is inserted into the housing .
A system for recognizing input of multiple input types on computing devices, each computing device comprising a processor and at least one non-transitory computer readable medium for recognizing input under control of the processor, the at least one non-transitory computer readable medium having instructions stored thereon that, when executed by the processor, cause the processor to: accept an input , with respect to at least one portion of an interface surface of a computing device, said input corresponding to a plurality of different types of input (1001-1005); provide said accepted input to a handwriting recognition system and to a keyboard recognition system of an input recognition system ; cause recognition of the accepted input as a first recognized object associated with a first probability of recognition by the handwriting recognition system , said first recognized object corresponding to a handwriting type of input; cause recognition of the accepted input as a second recognized object associated with a second probability of recognition by the keyboard recognition system , said second recognized object corresponding to a touch typing type of input or a stroke typing type of input; generate a candidate list , said candidate list including at least one candidate from each of the handwriting recognition system and the keyboard recognition system , said candidates ranked based on the probability scores; and return at least one of the recognized objects, for the recognized input, based on the probabilities of the handwriting recognition system and the keyboard recognition system of the input recognition system . accept an input , with respect to at least one portion of an interface surface of a computing device, said input corresponding to a plurality of different types of input (1001-1005); provide said accepted input to a handwriting recognition system and to a keyboard recognition system of an input recognition system ; cause recognition of the accepted input as a first recognized object associated with a first probability of recognition by the handwriting recognition system , said first recognized object corresponding to a handwriting type of input; cause recognition of the accepted input as a second recognized object associated with a second probability of recognition by the keyboard recognition system , said second recognized object corresponding to a touch typing type of input or a stroke typing type of input; generate a candidate list , said candidate list including at least one candidate from each of the handwriting recognition system and the keyboard recognition system , said candidates ranked based on the probability scores; and return at least one of the recognized objects, for the recognized input, based on the probabilities of the handwriting recognition system and the keyboard recognition system of the input recognition system .
A method of managing an aggregated self-organizing network, A-SON, comprising grouping a plurality of small cells into clusters using available topology information, wherein each cluster is adapted to perform scanning and/or updating of radio frequency, RF, parameters, and characterized by further comprising: assigning a subset of clusters to groups of a first type, such that the clusters within a group of the first type have minimal RF connectivity, so that small cells within each cluster in a group of the first type are unable to detect small cells within another cluster within the same group of the first type; and coordinating scanning or updating of RF parameters by the clusters such that adjacent clusters do not scan or update simultaneously but clusters within groups of the first type do have at least partially temporally overlapping scans or updates. assigning a subset of clusters to groups of a first type, such that the clusters within a group of the first type have minimal RF connectivity, so that small cells within each cluster in a group of the first type are unable to detect small cells within another cluster within the same group of the first type; and coordinating scanning or updating of RF parameters by the clusters such that adjacent clusters do not scan or update simultaneously but clusters within groups of the first type do have at least partially temporally overlapping scans or updates.
A conveyor dishwasher , in particular commercial conveyor dishwasher , having a conveying apparatus for conveying washware through the individual treatment zones of the conveyor dishwasher , wherein the conveyor dishwasher has at least one wash zone in which wash liquid from a wash tank which is associated with the at least one wash zone can be sprayed onto the washware, at least one final rinse zone which is arranged downstream of the at least one wash zone as seen in the conveying direction of the washware and in which final rinse liquid can be sprayed onto the washware, a wash system which is associated with the at least one wash zone and has at least one wash pump and wash nozzles , wherein wash liquid from the wash tank can be supplied to the wash nozzles with the aid of the at least one wash pump , and wherein the wash liquid which is sprayable with the wash nozzles can at least partially flow back into the wash tank again due to gravity, a waste air system for discharging waste air from the conveyor dishwasher , a waste water heat recovery system for transferring at least a portion of the thermal energy in the waste water from the conveyor dishwasher as useful heat to the final rinse liquid which is to be sprayed in the at least one final rinse zone , a waste air heat recovery system for transferring at least a portion of the thermal energy in the waste air which is discharged or is to be discharged from the conveyor dishwasher as useful heat to the final rinse liquid which is to be sprayed in the at least one final rinse zone , characterized by a waste water pump for supplying wash liquid, which is produced as a waste water during operation of the conveyor dishwasher to a heat exchanger of the waste water heat recovery system in which at least a portion of the thermal energy in the supplied wash liquid is transferred to the final rinse liquid which is to be sprayed in the final rinse zone , and an auxiliary tank which forms or can form a flow connection with the wash tank in particular by means of an overflow or a bypass line, wherein the intake end of the waste water pump forms or can form a direct flow connection with the auxiliary tank . a waste water pump for supplying wash liquid, which is produced as a waste water during operation of the conveyor dishwasher to a heat exchanger of the waste water heat recovery system in which at least a portion of the thermal energy in the supplied wash liquid is transferred to the final rinse liquid which is to be sprayed in the final rinse zone , and an auxiliary tank which forms or can form a flow connection with the wash tank in particular by means of an overflow or a bypass line, wherein the intake end of the waste water pump forms or can form a direct flow connection with the auxiliary tank .
A method of cleaning a print roller , comprising: providing an ultrasonic cleaning bar having at least one ultrasonic energy source ; engaging the ultrasonic cleaning bar with an ink-carrying surface of the print roller , the ultrasonic cleaning bar and the ink-carrying surface defining a trough therebetween for containing a cleaning fluid; the method being characterized by executing a cleaning routine, the cleaning routine comprising filling the trough with the cleaning fluid so that the cleaning fluid contacts the ink-carrying surface ; activating the ultrasonic energy source for a period of time to remove contaminants from the ink-carrying surface of the print roller so that the contaminants become suspended in the cleaning fluid; preventing cleaning fluid draining from the trough whilst the ultrasonic energy source is activated; and draining the suspension of cleaning fluid and contaminants from the trough ; wherein the method comprises executing the cleaning routine at least two times in succession before cleaning of the print roller is complete. providing an ultrasonic cleaning bar having at least one ultrasonic energy source ; engaging the ultrasonic cleaning bar with an ink-carrying surface of the print roller , the ultrasonic cleaning bar and the ink-carrying surface defining a trough therebetween for containing a cleaning fluid; the method being characterized by executing a cleaning routine, the cleaning routine comprising filling the trough with the cleaning fluid so that the cleaning fluid contacts the ink-carrying surface ; activating the ultrasonic energy source for a period of time to remove contaminants from the ink-carrying surface of the print roller so that the contaminants become suspended in the cleaning fluid; preventing cleaning fluid draining from the trough whilst the ultrasonic energy source is activated; and draining the suspension of cleaning fluid and contaminants from the trough ; filling the trough with the cleaning fluid so that the cleaning fluid contacts the ink-carrying surface ; activating the ultrasonic energy source for a period of time to remove contaminants from the ink-carrying surface of the print roller so that the contaminants become suspended in the cleaning fluid; preventing cleaning fluid draining from the trough whilst the ultrasonic energy source is activated; and draining the suspension of cleaning fluid and contaminants from the trough ; wherein the method comprises executing the cleaning routine at least two times in succession before cleaning of the print roller is complete.
A method of producing multicomponent feedstock for 3D printing, comprising: advancing a first feedstock past a minimum retract line and through a merger ; advancing the first feedstock past the merger by a pre-determined length; cutting the first feedstock with a cutter to provide a length of the first feedstock having a proximal end; retracting the first feedstock to the minimum retract line; advancing a second feedstock past the minimum retract line and through the merger; advancing a leading edge of the second feedstock toward the proximal end of the length of the first feedstock; and advancing the second feedstock past the merger by a pre-determined length, the second feedstock in line with the length of the first feedstock. advancing a first feedstock past a minimum retract line and through a merger ; advancing the first feedstock past the merger by a pre-determined length; cutting the first feedstock with a cutter to provide a length of the first feedstock having a proximal end; retracting the first feedstock to the minimum retract line; advancing a second feedstock past the minimum retract line and through the merger; advancing a leading edge of the second feedstock toward the proximal end of the length of the first feedstock; and advancing the second feedstock past the merger by a pre-determined length, the second feedstock in line with the length of the first feedstock.
Austenitic, low-density, high-strength steel strip or sheet having a high ductility, consisting of, in wt.%: • 0.65 -0.9% C; • 0 - 0.5% Si; • 5.0 - 20.0% Mn; • 5.5 -11.0% Al; • 0.001-0.05% N; • 0.02% or less P; • 0.02% or less S; optionally one or more of: • 0.001 - 0.01% Ca; • 0.01 - 0.2% Ti; • 0 - 5.0% Cr; • 0 - 2.0% Cu; • 0 - 1.0 % Mo; • 0 - 0.5% V; • 0 - 0.2% Nb; • 0 - 0.2% Zr; • 0 - 0.0050% B; • 0 - 0.2% Sb; the balance Fe with unavoidable impurities, having a microstructure comprising, in area%, 70% to 100% of austenite, 30 to 0% of ferrite, and 0 to 5% of a κ-(Fe,Mn) 3 AlC-carbide phase, the strip or sheet having a yield ratio YS/UTS of at least 0.60, and a ratio of Mn/Si > 40, the steel strip or sheet having a density of less than 7.3 g/cm 3 , a tensile strength of at least 750 MPa and an elongation, for a gauge length of 50 mm, of at least 25%. • 0.65 -0.9% C; • 0 - 0.5% Si; • 5.0 - 20.0% Mn; • 5.5 -11.0% Al; • 0.001-0.05% N; • 0.02% or less P; • 0.02% or less S; • 0.001 - 0.01% Ca; • 0.01 - 0.2% Ti; • 0 - 5.0% Cr; • 0 - 2.0% Cu; • 0 - 1.0 % Mo; • 0 - 0.5% V; • 0 - 0.2% Nb; • 0 - 0.2% Zr; • 0 - 0.0050% B; • 0 - 0.2% Sb;
An insulation fault location system for an ungrounded DC power supply system , which is redundantly fed from a first diode-coupled direct voltage supply source and a second diode-coupled direct voltage supply source and to which a load is redundantly coupled via a first supply line consisting of two active conductors and a second supply line consisting of two active conductors , the insulation fault location system comprising a setting device for increasing a supply voltage of the first or the second direct voltage supply source , a test current generator for supplying a test current and an insulation fault location apparatus , to which a first measuring current transformer for capturing a first test current portion flowing in the first supply line and a second measuring current transformer for capturing a second test current portion flowing in the second supply line are coupled, characterized in that a first resistance path is arranged between the active conductors of the first supply line and a second resistance path is arranged between the active conductors of the second supply line , the electric resistance of each resistance path being dimensioned such that a compensating current (Idccomp,a, Idccomp,b) flows in the respective resistance path , said compensating current (Idccomp,a, Idccomp,b) being equal to an interfering DC differential current (Idcdiff,a, Idcdiff,b) in the respective supply line caused by increasing the supply voltage and being captured on the primary side in the opposite direction of the DC differential current (Idcdiff,a, Idcdiff,b) by the respective measuring current transformer .
A power tool comprising: - a tool , - a power source arranged to power the tool , - a throttle lever , - a circuit board , - a human machine interface comprising components arranged on the circuit board , - a magnet operably connected to the throttle lever , and - a sensor arrangement configured to sense the intensity of the magnetic field of the magnet , wherein the sensor arrangement is arranged on the circuit board . - a tool , - a power source arranged to power the tool , - a throttle lever , - a circuit board , - a human machine interface comprising components arranged on the circuit board , - a magnet operably connected to the throttle lever , and - a sensor arrangement configured to sense the intensity of the magnetic field of the magnet , wherein the sensor arrangement is arranged on the circuit board .
System comprising an insertion-type connector having a housing and at least two contact elements fixed within the housing , and a twisted-pair cable for signal and data transmission, two cores of the twisted-pair cable being electrically conductively connected to the contact elements by means of crimp connections, the housing forming a guide by which the two cores are fixed in a twist which continues the twist of the twisted-pair cable, wherein the at least two contact elements have an elongated shape and are arranged parallel to each other, wherein the housing has at least one guide pin extending transversely to a plane spanned by the longitudinal axes of the contact elements for forming the guide in a guide space, around which guide pin the cores are guided in an arc, wherein the wires are twisted directly to the contact elements, wherein the housing has two housing parts produced by injection moulding, with a division in those side walls which are crossed by the plane spanned by the longitudinal axes of the contact elements , wherein the housing parts have no undercuts with respect to a demoulding direction, and wherein the at least one guide pin is formed by the second housing part .
Wavelength sweepable laser source , wherein the laser source is a semiconductor laser source adapted for generating laser light at a lasing wavelength, the laser source comprising ∘ a substrate , ∘ a first reflector , and ∘ a second reflector , the first and second reflectors together defining an optical cavity , and being arranged to support light oscillation in the optical cavity along an optical path in a direction normal to the substrate, the optical cavity comprising a void in the optical path, the second reflector being resiliently suspended by a suspension at a distance from the first reflector and having a rest position, the second reflector and suspension together defining a microelectromechanical MEMS oscillator, the MEMS oscillator having a resonance frequency and being adapted for oscillating the second reflector on either side of the rest position, the laser source further comprising ∘ electrical connections adapted for applying an electric field to the MEMS oscillator; characterized in that the laser source is packaged so as to keep the MEMS oscillator at least under operation under a vacuum having a pressure of 200 Torr or less, 200 Torr corresponding to a pressure of 26664.5 Pascal, and wherein a mechanical quality factor of the packaged MEMS oscillator is at least 10. ∘ a substrate , ∘ a first reflector , and ∘ a second reflector , the first and second reflectors together defining an optical cavity , and being arranged to support light oscillation in the optical cavity along an optical path in a direction normal to the substrate, the optical cavity comprising a void in the optical path, the second reflector being resiliently suspended by a suspension at a distance from the first reflector and having a rest position, the second reflector and suspension together defining a microelectromechanical MEMS oscillator, the MEMS oscillator having a resonance frequency and being adapted for oscillating the second reflector on either side of the rest position, the laser source further comprising ∘ electrical connections adapted for applying an electric field to the MEMS oscillator;
A nitric oxide gas delivery apparatus for use with a ventilator , the apparatus comprising: an injector module operable to be placed in fluid communication with a breathing circuit affiliated with the ventilator, the injector module comprising: a breathing gas flow inlet; a nitric oxide (NO) flow inlet ; and a combined breathing gas and NO flow outlet operable to provide a combined flow of breathing gas and NO to a patient , in need thereof; a breathing gas flow sensor configured to sense breathing gas flow rate; the NO delivery apparatus further comprising one or more NO flow sensors operable to measure the flow of NO; and a controller comprising: a memory operable to store historical breathing gas flow rate data related to the received breathing gas flow rate data by the breathing gas flow sensor and a processor operable to detect a disruption of breathing gas flow rate data from the breathing gas flow sensor, wherein upon detection of the disruption in breathing gas flow rate data, the controller operates in a backup mode to control a delivery flow rate of the NO at a set dose based on the historical breathing gas flow data. an injector module operable to be placed in fluid communication with a breathing circuit affiliated with the ventilator, the injector module comprising: a breathing gas flow inlet; a nitric oxide (NO) flow inlet ; and a combined breathing gas and NO flow outlet operable to provide a combined flow of breathing gas and NO to a patient , in need thereof; a breathing gas flow inlet; a nitric oxide (NO) flow inlet ; and a combined breathing gas and NO flow outlet operable to provide a combined flow of breathing gas and NO to a patient , in need thereof; a breathing gas flow sensor configured to sense breathing gas flow rate; the NO delivery apparatus further comprising one or more NO flow sensors operable to measure the flow of NO; and a controller comprising: a memory operable to store historical breathing gas flow rate data related to the received breathing gas flow rate data by the breathing gas flow sensor and a processor operable to detect a disruption of breathing gas flow rate data from the breathing gas flow sensor, wherein upon detection of the disruption in breathing gas flow rate data, the controller operates in a backup mode to control a delivery flow rate of the NO at a set dose based on the historical breathing gas flow data. a memory operable to store historical breathing gas flow rate data related to the received breathing gas flow rate data by the breathing gas flow sensor and a processor operable to detect a disruption of breathing gas flow rate data from the breathing gas flow sensor, wherein upon detection of the disruption in breathing gas flow rate data, the controller operates in a backup mode to control a delivery flow rate of the NO at a set dose based on the historical breathing gas flow data.
A remote data concentrator (RDC) , comprising: an enclosure having an interior divided into a first compartment and a second compartment configured to have a first transceiver seated within the first compartment and a second transceiver seated within the second compartment such that radio frequency (RF) energy transmitted from the first transceiver is blocked from reaching the second transceiver in a direct line of sight fashion, thereby allowing operational testing of the RDC without requiring wireless transmitting or receiving devices external to the RDC ; a first antenna operatively connected to the first transceiver and arranged within the first compartment ; and a second antenna operatively connected to the second transceiver and arranged within the second compartment , wherein an antenna pattern of the first antenna overlaps an antenna pattern of the second antenna outside of the enclosure for RF communication when the first and second transceivers are switched to a common wireless channel. an enclosure having an interior divided into a first compartment and a second compartment configured to have a first transceiver seated within the first compartment and a second transceiver seated within the second compartment such that radio frequency (RF) energy transmitted from the first transceiver is blocked from reaching the second transceiver in a direct line of sight fashion, thereby allowing operational testing of the RDC without requiring wireless transmitting or receiving devices external to the RDC ; a first antenna operatively connected to the first transceiver and arranged within the first compartment ; and a second antenna operatively connected to the second transceiver and arranged within the second compartment , wherein an antenna pattern of the first antenna overlaps an antenna pattern of the second antenna outside of the enclosure for RF communication when the first and second transceivers are switched to a common wireless channel.