mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a sensor module (160; 512; 812) within a sensor system (210; 212; 214) for communicating with a gateway (110; 510; 810), the method comprising: storing a timing profile for communications with the gateway; waking a radio core of the sensor module at a threshold time prior to a beacon signal being expected from the gateway; sampling (530; 622) a channel for the beacon signal at the radio core; if the beacon signal is detected: waking a processor on the sensor module ; exchanging communication with the gateway ; and powering down the processor and radio core upon completion of the exchanging communication, characterised in that the timing profile is derived from a learning state (310; 310A; 310B) on the sensor system, the learning state comprising: turning on a radio of the sensor module for a first time duration; detecting the beacon signal from the gateway in a plurality of cycles; and deriving the timing profile based on the detecting. storing a timing profile for communications with the gateway; waking a radio core of the sensor module at a threshold time prior to a beacon signal being expected from the gateway; sampling (530; 622) a channel for the beacon signal at the radio core; if the beacon signal is detected: waking a processor on the sensor module ; exchanging communication with the gateway ; and powering down the processor and radio core upon completion of the exchanging communication, waking a processor on the sensor module ; exchanging communication with the gateway ; and powering down the processor and radio core upon completion of the exchanging communication, turning on a radio of the sensor module for a first time duration; detecting the beacon signal from the gateway in a plurality of cycles; and deriving the timing profile based on the detecting.
A method for producing a compound, comprising mixing a compound having two leaving groups, a compound having two boron atom-containing leaving groups, an organic base (P), and at least one selected from the group consisting of a phase transfer catalyst and an organic base (Q) larger in the number of carbon atoms than the above-mentioned organic base in the presence of a transition metal catalyst, thereby performing a coupling reaction between the above-mentioned compound and the above-mentioned compound , wherein the transition metal catalyst is selected from dichlorobis(triphenylphosphine)palladium, dichlorobis[tris(2-methoxyphenyl)phosphine]palladium, dichlorobis[dicyclopentyl(2-methoxyphenyl)phosphine]palladium, dichlorobis[dicyclopentyl(2, 6-dimethoxyphenyl)phosphine]palladium and bis[di-tert-butyl(3, 5-di-tert-butylphenyl)phosphine]dichloropalladium, the organic base (P) is an ammonium hydroxide compound having 4 to 15 carbon atoms, the organic base (Q) is an ammonium hydroxide compound having 16 to 60 carbon atoms, and the compound is a compound represented by the formula (A) and the compound is a compound represented by the formula (B): R 1 (̵x 1 ) n (A) R 2 (̵X 2 ) m (B) wherein R 1 and R 2 each independently represent an aromatic group having 6 to 60 carbon atoms and optionally having a substituent, X 1 represents Cl, Br, I or -O-S(=O) 2 R C1 , wherein R C1 represents an alkyl group or an aryl group and these groups optionally have a substituent, X 2 represents B(R C2 ) 2 , B(OR C2 ) 2 or BF 3 T, wherein R C2 represents a hydrogen atom, an alkyl group or an aryl group and these groups optionally have a substituent, and the R C2 S may be the same or different and they may be combined together to form a ring together with the boron atom to which they are attached or together with the oxygen atoms to which they are attached and the boron atom to which the oxygen atoms are attached, and T represents Li, Na, K, Rb or Cs, and n and m represent 2. R 1 and R 2 each independently represent an aromatic group having 6 to 60 carbon atoms and optionally having a substituent, X 1 represents Cl, Br, I or -O-S(=O) 2 R C1 , wherein R C1 represents an alkyl group or an aryl group and these groups optionally have a substituent, X 2 represents B(R C2 ) 2 , B(OR C2 ) 2 or BF 3 T, wherein R C2 represents a hydrogen atom, an alkyl group or an aryl group and these groups optionally have a substituent, and the R C2 S may be the same or different and they may be combined together to form a ring together with the boron atom to which they are attached or together with the oxygen atoms to which they are attached and the boron atom to which the oxygen atoms are attached, and T represents Li, Na, K, Rb or Cs, and n and m represent 2.
A pharmaceutical composition containing nanoparticles of an average size of from 450 to 990 nm comprising protamine and RNA for use in immunostimulation.
A method for interrogating a sensor value in a system having a radio frequency identification (RFID) reader and at least one passive RFID sensor tag for communication with a backscattering principle, wherein a modulated backscattered signal carrying a digital response comprises sidebands that are offset from an interrogation frequency by a modulation signal, the method comprising on the RFID reader side of the system sending a radio frequency interrogation signal to the passive RFID sensor tag having an oscillator loaded by a sensing element (32, 32-1, 32-2, 32-3) such that a modulation frequency (fosc) outputted from the oscillator is dependent on a value of a quantity sensed by the sensing element (32, 32-1, 32-2, 32-3); receiving from the passive RFID tag a backscattered radio frequency signal modulated with the modulation frequency, wherein the offset of the sidebands of the modulated backscattered signal carrying the digital response from the interrogation frequency is arranged to be dependent on the value of the sensed quantity; identifying the passive RFID tag , converting the modulation frequency of the backscattered signal into an actual value of the sensed quantity based on predetermined sensor configuration information of the identified passive RFID sensor tag , the sensor configuration information including information on a sensor element or sensor elements (32, 32-1, 32-2, 32-3) available in the identified passive RFID sensor tag , and for each available sensor element (32, 32-1, 32-2, 32-3) information how to convert the modulation frequency of the backscattered signal into actual values of the quantity sensed by the respective sensing element. sending a radio frequency interrogation signal to the passive RFID sensor tag having an oscillator loaded by a sensing element (32, 32-1, 32-2, 32-3) such that a modulation frequency (fosc) outputted from the oscillator is dependent on a value of a quantity sensed by the sensing element (32, 32-1, 32-2, 32-3); receiving from the passive RFID tag a backscattered radio frequency signal modulated with the modulation frequency, wherein the offset of the sidebands of the modulated backscattered signal carrying the digital response from the interrogation frequency is arranged to be dependent on the value of the sensed quantity; identifying the passive RFID tag , converting the modulation frequency of the backscattered signal into an actual value of the sensed quantity based on predetermined sensor configuration information of the identified passive RFID sensor tag , the sensor configuration information including information on a sensor element or sensor elements (32, 32-1, 32-2, 32-3) available in the identified passive RFID sensor tag , and for each available sensor element (32, 32-1, 32-2, 32-3) information how to convert the modulation frequency of the backscattered signal into actual values of the quantity sensed by the respective sensing element.
A method for controlling a device comprising a blood pressure sensor for sensing blood pressure, the method comprising: determining an angle of the device with respect to the direction of gravity; identifying , in a displayed image of the user, a location of one or more anatomical features of the user holding the device relative to a displayed predefined location range; determining a height of the blood pressure sensor relative to a heart level of the user based on the determined angle of the device with respect to the direction of gravity and the identified location of the one or more anatomical features of the user in the image relative to the predefined location range; and controlling the device based on the determined height of the blood pressure sensor relative to the heart level of the user. determining an angle of the device with respect to the direction of gravity; identifying , in a displayed image of the user, a location of one or more anatomical features of the user holding the device relative to a displayed predefined location range; determining a height of the blood pressure sensor relative to a heart level of the user based on the determined angle of the device with respect to the direction of gravity and the identified location of the one or more anatomical features of the user in the image relative to the predefined location range; and controlling the device based on the determined height of the blood pressure sensor relative to the heart level of the user.
Method for synchronizing the respective local network time (tn1, tn2, tn3) of participants of a real-time network , the participants each having a local time (t1, t2, t3) and the respective local network time (tn1, tn2, tn3) of a participant is derived from the respective local time (t1, t2, t3), wherein the participants are connected to one another via ports (11 , 11 , 12 , 12 , 13 , 13 ), wherein the participants each transmit, preferably cyclically, synchronization packets (D1 , D2 , D2 , D3 ) to connected participants , wherein a participant of the real-time network is designated as a synchronization master (SM), wherein the local network time (tn1, tn2, tn3) of the other participants is synchronized with the local network time (tn1, tn2, tn3) of the synchronization master (SM) by using the synchronization packets (D1 , D2 , D2 , D3 ), wherein using the synchronization packets (D1 , D2 , D2 , D3 ) starting from the synchronization master (SM) along a synchronization path (S), the local network time (tn1, tn2, tn3) of the participants along the synchronization path (S) is synchronized with the local network time (tn1, tn2, tn3) of the synchronization master (SM), characterized in that , the participants transmit a time stamp of their local time (t1, t2, t3) with the synchronization packet (D1 , D2 , D2 , D3 ) at the time of sending the respective synchronization packet (D1 , D2 , D2 , D3 , in that the participants for a port (11 , 12 , 12 , 13 ), via which a synchronization packet (D1 , D2 , D2 , D3 ) is received, calculate a difference time (td1 , td2 , td2 , td3 ) from a difference between the time stamp received in the synchronization packet (D1 , D2 , D2 , D3 ) and a time stamp of their local time (t1, t2, t3) on receipt of the relevant synchronization packet (D1 , D2 , D2 , D3 ), in that the participants each transmit with the respective synchronization packet (D1 , D2 , D2 , D3 ) a network time deviation (td10 , td20 , td20 , td30 ) of one of their other ports, wherein the participants calculate the network time deviation (td10 , td20 , td20 , td30 ) of the ports (11 , 12 , 12 , 13 ), via which a synchronization packet (D1 , D2 , D2 , D3 ) is received, in each case as the sum of the calculated difference time (td1 , td2 , td2 , td3 ) and a network time deviation (td10 , td20 , td20 , td30 ) received in the synchronization packet (D1 , D2 , D2 , D3 ), and in that the participants calculate their local network time (tn1, tn2, tn3) from the difference between their local time (t1, t2, t3) and the network time deviation (td10 , td20 , td30 ) of the port (11 , 12 , 12 , 13 ) arranged opposite the synchronization path (S), in the direction of the synchronization master, wherein the local network time (tn1, tn2, tn3) of the participants is synchronized.
A container , wherein a bottom surface of the container is formed of a cellulose film ; the cellulose film is supported by a substrate provided on at least one of the front surface and the back surface of the cellulose film; the cellulose film has a thickness of not less than 0.5 micrometers and not more than 3.7 micrometers; and the substrate has a through hole ; the substrate has a front surface and a back surface and a thickness of not less than 1 μm and not more than 500 μm; and the front surface of the cellulose film is in contact with the back surface of the substrate .
A driving circuit for a touch display device , the touch display device comprising a plurality of first electrodes (E1) disposed separate from or within a display panel and one or more second electrodes (E2) separated from the first electrodes (E1) by a gap (G), the size of which varies depending on a touching force, the driving circuit configured to: apply a first electrode driving signal (DS1) during a touch driving period to at least one first electrode among the plurality of first electrodes (E1); apply a second electrode driving signal (DS2) different than the first electrode driving signal (DS1) to the one or more second electrodes (E2) during the touch driving period; and detect in the touch driving period a touch position and the touching force based on a signal generated responsive to both the first electrode driving signal (DS1) and the second electrode driving signal (DS2) and received from each of the first electrodes (E1). apply a first electrode driving signal (DS1) during a touch driving period to at least one first electrode among the plurality of first electrodes (E1); apply a second electrode driving signal (DS2) different than the first electrode driving signal (DS1) to the one or more second electrodes (E2) during the touch driving period; and detect in the touch driving period a touch position and the touching force based on a signal generated responsive to both the first electrode driving signal (DS1) and the second electrode driving signal (DS2) and received from each of the first electrodes (E1).
A method for creating a fan cowl with a hollow hat stiffener comprising pressing a resin film between a non-crimp fabric and a release poly-film to tack the resin film to the non-crimp fabric and the release poly-film and to create a resin-fabric sheet comprising at least a resin film layer and an non-crimp fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one of a first resin-fabric preform , a second resin-fabric preform , and a third resin-fabric preform ; draping at least the first resin-fabric preform over a tool to create an outer layer of the fan cowl; setting a mandrel over the outer layer; and draping the second resin-fabric preform over at least a portion of the mandrel and at least a portion of the first resin-fabric preform to form the hollow hat stiffener having a geometry similar to a shape of the mandrel. pressing a resin film between a non-crimp fabric and a release poly-film to tack the resin film to the non-crimp fabric and the release poly-film and to create a resin-fabric sheet comprising at least a resin film layer and an non-crimp fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one of a first resin-fabric preform , a second resin-fabric preform , and a third resin-fabric preform ; draping at least the first resin-fabric preform over a tool to create an outer layer of the fan cowl; setting a mandrel over the outer layer; and draping the second resin-fabric preform over at least a portion of the mandrel and at least a portion of the first resin-fabric preform to form the hollow hat stiffener having a geometry similar to a shape of the mandrel.
Dry filter for separating dust and other dispersible substances from industrial exhaust gases and the dust laden air in underground mine and tunnel construction, having a filter housing with filter elements and assigned raw gas duct and a clean gas duct separated from this by a partition wall , whereby the filter elements are to be pressurised from the raw gas duct and are connected with regard to climate control with the lateral feed duct of the clean gas duct and the filter housing having a discharge unit for the filtered dust, and a ventilating fan for transporting air, characterised in that the raw gas duct and clean gas duct are arranged horizontally one above the other in the filter housing and separated from each other by a partition wall that runs through the housing and forms the complete filter housing horizontal whereby the partition wall runs sloping upwards from the raw gas inlet to the roof of the filter housing , and the filter elements are connected with the partition wall and/or the frame construction of the filter housing .
A body comprising: a first phase comprising silicon carbide; a second phase comprising a metal oxide, wherein the second phase is a discrete intergranular phase located at the grain boundaries of the first phase ; wherein a majority of the second phase within the body is located at triple boundary regions between three or more grains of the first phase ; wherein the first phase has an average grain size of not greater than 2 μm (microns), as determined by the intercept method using scanning electron microscope (SEM) photomicrographs, as described in the description, wherein the first phase has a maximum grain size of not greater than 10 μm (microns), using the same technique used to measure average grain size, but the value is based on the largest line segment length measured, wherein the body comprises a second phase count index of at least 1000/100 μm (microns) of image width, based on a SEM image having a total width of 100 microns, and wherein the body comprises an average flexural strength of at least 700 MPa determined according to the four point bend test using configuration B of ASTM C1161-02C. a first phase comprising silicon carbide; a second phase comprising a metal oxide, wherein the second phase is a discrete intergranular phase located at the grain boundaries of the first phase ; wherein a majority of the second phase within the body is located at triple boundary regions between three or more grains of the first phase ; wherein the first phase has an average grain size of not greater than 2 μm (microns), as determined by the intercept method using scanning electron microscope (SEM) photomicrographs, as described in the description, wherein the first phase has a maximum grain size of not greater than 10 μm (microns), using the same technique used to measure average grain size, but the value is based on the largest line segment length measured, wherein the body comprises a second phase count index of at least 1000/100 μm (microns) of image width, based on a SEM image having a total width of 100 microns, and wherein the body comprises an average flexural strength of at least 700 MPa determined according to the four point bend test using configuration B of ASTM C1161-02C.
A method for upgrading a multi-dwelling unit, MDU, comprising: receiving , by an optical line terminal, OLT, an indication message sent by a network management system, NMS, wherein the indication message indicates a task of upgrading multiple MDUs; sending , by the OLT, at least one first message to each MDU in the multiple MDUs according to the indication message, wherein the at least one first message is used to instruct the MDU to perform pre-upgrade preparation processing; and sending , by the OLT, an upgrade file to the multiple MDUs, so that the multiple MDUs perform upgrade according to the upgrade file; wherein before the receiving, by an optical line terminal OLT, an indication message sent by a network management system NMS, the method further comprises: obtaining, by the OLT, a function component, wherein the function component is an upgrade management function used by the OLT to upgrade the MDUs, wherein the function component is dynamically loaded by the OLT to perform upgrade of the MDUs. receiving , by an optical line terminal, OLT, an indication message sent by a network management system, NMS, wherein the indication message indicates a task of upgrading multiple MDUs; sending , by the OLT, at least one first message to each MDU in the multiple MDUs according to the indication message, wherein the at least one first message is used to instruct the MDU to perform pre-upgrade preparation processing; and sending , by the OLT, an upgrade file to the multiple MDUs, so that the multiple MDUs perform upgrade according to the upgrade file; wherein before the receiving, by an optical line terminal OLT, an indication message sent by a network management system NMS, the method further comprises: obtaining, by the OLT, a function component, wherein the function component is an upgrade management function used by the OLT to upgrade the MDUs, wherein the function component is dynamically loaded by the OLT to perform upgrade of the MDUs.
An in vitro method to inhibit or disrupt a bacterial biofilm comprising contacting the biofilm with an HJ-specific endonuclease that cleaves the Holliday junction (HJ) structure in the biofilm.
Method for inhibiting calls from a mobile telephone device , the method comprising: - an acquisition phase (P2) for acquiring at least one operating signal generated after the end of a call, relating to the mobile telephone device and/or to a user interaction therewith, wherein said acquisition phase (P2) starts after said end of a call and precedes a stand-by phase; - a temporary inhibition phase (P4), wherein, based on said at least one acquired signal, any further calls through the mobile telephone device are prevented for a preset time interval, wherein said temporary inhibition phase (P4) precedes said stand-by phase. - an acquisition phase (P2) for acquiring at least one operating signal generated after the end of a call, relating to the mobile telephone device and/or to a user interaction therewith, wherein said acquisition phase (P2) starts after said end of a call and precedes a stand-by phase; - a temporary inhibition phase (P4), wherein, based on said at least one acquired signal, any further calls through the mobile telephone device are prevented for a preset time interval, wherein said temporary inhibition phase (P4) precedes said stand-by phase.
A battery support with a battery tray and a reinforcing structure , which is arranged on the outside in front of a side wall of the battery tray , which reinforcing structure comprises an inner profile and an outer profile , wherein the inner profile is configured in a U-shaped cross section with a web and two legs and an opening , wherein the legs and the opening of the inner profile point away from the battery tray and the opening of the inner profile at least in lengthwise sections is closed by the outer profile , characterised in that at least one sleeve is provided which extends between the legs , wherein the sleeve connects openings in the legs .
Packaging system suitable for filling box-shaped packaging units , comprising a bag-placing station (A) configured to place a film for forming a bag in a packaging unit , a filling station (B) configured to fill the bag placed in the packaging unit with a product, a heat-sealing station (C) to heat-seal the bag, and a conveyor device suitable for moving a packaging unit between the various stations (A,B,C), characterized in that the conveyor device comprises a number of sets of corner elements over which a part of the film is foldable, wherein each set is suitable for moving concomitantly with a packaging unit during transportation past the various stations (A,B,C), and wherein each set of corner elements serves as a support during filling of the bag.