mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an electronic device , the method comprising: detecting that an input for increasing a volume of the electronic device is received while the volume of the electronic device is at a maximum value; in response to the detecting, determining whether the received input for increasing the volume coincides with a preset condition; in response to determining that the received input for increasing the volume coincides with the preset condition, detecting an external device to connect with; connecting with the detected external device; and outputting an output associated with a current function of the electronic device via the connected external device. detecting that an input for increasing a volume of the electronic device is received while the volume of the electronic device is at a maximum value; in response to the detecting, determining whether the received input for increasing the volume coincides with a preset condition; in response to determining that the received input for increasing the volume coincides with the preset condition, detecting an external device to connect with; connecting with the detected external device; and outputting an output associated with a current function of the electronic device via the connected external device.
A pre-mix burner apparatus, comprising: a burner having a generally cylindrical burner surface , the burner having a central axis and having a generally circular burner inlet at one end of the burner, the burner inlet having an inlet diameter ; a blower configured to provide fuel and air mixture to the burner inlet , the blower having a blower outlet having a blower outlet cross-sectional area; wherein the burner inlet has an inlet cross-sectional area greater than the blower outlet cross-sectional area; characterized in that a flow distribution member is arranged to distribute flow of fuel and air mixture into the burner, the flow distribution member including: a closed axially central portion configured to block flow of fuel and air mixture axially centrally into the burner; and a plurality of vanes extending radially outward from the closed axially central portion, the vanes being configured to generate a swirling flow of fuel and air mixture flowing past the vanes into the burner so that that the spiral flow pattern adjacent and downstream of the burner inlet prevents flame flow back into the burner adjacent the burner inlet, the closed axially central portion being disc shaped and having a disc diameter in a range of from about 10% to about 20% of the inlet diameter of the burner inlet . a burner having a generally cylindrical burner surface , the burner having a central axis and having a generally circular burner inlet at one end of the burner, the burner inlet having an inlet diameter ; a blower configured to provide fuel and air mixture to the burner inlet , the blower having a blower outlet having a blower outlet cross-sectional area; wherein the burner inlet has an inlet cross-sectional area greater than the blower outlet cross-sectional area; a closed axially central portion configured to block flow of fuel and air mixture axially centrally into the burner; and a plurality of vanes extending radially outward from the closed axially central portion, the vanes being configured to generate a swirling flow of fuel and air mixture flowing past the vanes into the burner so that that the spiral flow pattern adjacent and downstream of the burner inlet prevents flame flow back into the burner adjacent the burner inlet, the closed axially central portion being disc shaped and having a disc diameter in a range of from about 10% to about 20% of the inlet diameter of the burner inlet .
Telecentric lens, comprising a front optical group adapted to receive rays coming from an observed object, a rear optical group , adapted to convey said rays towards an image plane of a sensor , and a lens aperture positioned between the front optical group and the rear optical group, wherein the lens aperture lies on the focal plane at least of the front optical group, wherein the front optical group is devoid of lenses and consists of a concave curved primary mirror adapted to receive and reflect the rays coming from the observed object, and at least one secondary mirror adapted to receive and reflect towards the rear optical group the rays coming from the primary mirror , wherein the reflective surface of the primary mirror is an ellipsoidal cap portion, characterized in that the primary mirror is made by electroforming in one piece and comprises, around a curve and concave reflective surface , a flat peripheral plate (202") that serves as a reference and mounting surface, said peripheral reference and mounting plate (202") being mounted on a main plate to which are fixed support arms of a secondary plate which supports the secondary mirror .
Lithium aluminium silicate glass-ceramic having a coefficient of thermal expansion in the range from 20°C to 700°C of -0.5 to 1.9 ppm/K and having a composition comprising in % by weight based on oxides SiO 2 60 - 70 Al 2 O 3 17 - 25 Li 2 O 2.0 - <3.2 MgO 0 - <0.5 ZnO 1.5 - <3 BaO 0.2 - 3 Na 2 O >0.05 - <0.6 K 2 O >0.05 - <0.5 SnO 2 0.1 - <1.0 and the conditions MgO< K 2 O MgO < Na 2 O. having a coefficient of thermal expansion in the range from 20°C to 700°C of -0.5 to 1.9 ppm/K and having a composition comprising in % by weight based on oxides SiO 2 60 - 70 Al 2 O 3 17 - 25 Li 2 O 2.0 - <3.2 MgO 0 - <0.5 ZnO 1.5 - <3 BaO 0.2 - 3 Na 2 O >0.05 - <0.6 K 2 O >0.05 - <0.5 SnO 2 0.1 - <1.0 and the conditions MgO< K 2 O MgO < Na 2 O.
Haptic feedback device for a motor vehicle, having: - a mobile part comprising a touch-sensitive surface and at least one vibratory actuator for vibrating the touch-sensitive surface , - a support bearing the touch-sensitive surface and to which the vibratory actuator is fastened, - a fixed part intended to be fastened to the motor vehicle, - at least one asymmetrical damping member (5; 15) at least partially interposed between the mobile part and the fixed part , the asymmetrical damping member (5; 15) being configured to damp the vibration generated by the vibratory actuator more in one direction than in the opposite direction, arranged in that it has an asymmetrical damping member having a first portion configured to damp the vibration generated by the vibratory actuator in one direction and a second portion configured to damp the vibration at least in the opposite direction, the first portion of the asymmetrical damping member being stiffer than the second portion of the asymmetrical damping member the asymmetrical damping member being interposed between the mobile part and the fixed part and fastened to the mobile part and to the fixed part , the asymmetrical damping member exhibiting damping properties that are different in compression to in tension, the asymmetrical damping member damping more in compression than in tension, in that the asymmetrical damping member has a central portion linking the first and the second portion , and in that the asymmetrical damping member (5; 15) is produced in a single piece. - a mobile part comprising a touch-sensitive surface and at least one vibratory actuator for vibrating the touch-sensitive surface , - a support bearing the touch-sensitive surface and to which the vibratory actuator is fastened, - a fixed part intended to be fastened to the motor vehicle, - at least one asymmetrical damping member (5; 15) at least partially interposed between the mobile part and the fixed part , the asymmetrical damping member (5; 15) being configured to damp the vibration generated by the vibratory actuator more in one direction than in the opposite direction, arranged in that it has an asymmetrical damping member having a first portion configured to damp the vibration generated by the vibratory actuator in one direction and a second portion configured to damp the vibration at least in the opposite direction, the first portion of the asymmetrical damping member being stiffer than the second portion of the asymmetrical damping member the asymmetrical damping member being interposed between the mobile part and the fixed part and fastened to the mobile part and to the fixed part , the asymmetrical damping member exhibiting damping properties that are different in compression to in tension, the asymmetrical damping member damping more in compression than in tension, in that the asymmetrical damping member has a central portion linking the first and the second portion , and in that the asymmetrical damping member (5; 15) is produced in a single piece.
A method of preparing a zeolite catalyst comprising: treating a zeolite with a phosphorus compound prior to combining any optional binder with the zeolite, wherein the phosphorus-treated zeolite has an initial phosphorus content prior to the contacting with liquid water; calcining the phosphorus-treated zeolite; contacting the phosphorus-treated zeolite with liquid water by at least one of immersing the calcined phosphorus-treated zeolite in a liquid water bath and contacting the calcined phosphorus-treated zeolite with a flowing liquid water stream; and heating the phosphorus-treated zeolite, wherein phosphorus is removed from the phosphorus treated zeolite in an amount of from 20% or more of the initial phosphorus content by contacting the phosphorus-treated zeolite with liquid water. treating a zeolite with a phosphorus compound prior to combining any optional binder with the zeolite, wherein the phosphorus-treated zeolite has an initial phosphorus content prior to the contacting with liquid water; calcining the phosphorus-treated zeolite; contacting the phosphorus-treated zeolite with liquid water by at least one of immersing the calcined phosphorus-treated zeolite in a liquid water bath and contacting the calcined phosphorus-treated zeolite with a flowing liquid water stream; and heating the phosphorus-treated zeolite, wherein phosphorus is removed from the phosphorus treated zeolite in an amount of from 20% or more of the initial phosphorus content by contacting the phosphorus-treated zeolite with liquid water.
A method of combustion knock control in a spark ignition, reciprocating piston internal combustion engine having a combustion chamber, a poppet valve at the inlet to said combustion chamber, an inlet manifold upstream of said valve, and a throttle valve at the inlet to said manifold, said engine further including an active tappet for said inlet valve whereby valve operation may be adjusted on demand, and a system of varying the timing of an ignition spark, said method comprising: a) providing a threshold operating temperature for said engine; b) below said threshold permitting treatment of combustion knock by operation of said active tappet and by operation of said system; and c) above said threshold permitting treatment of combustion knock solely by operation of said active tappet, wherein treatment of combustion knock by operation of said active tappet in b) and/or c) comprises at least re-timing the opening of the inlet valve to increase overlap with operation of at least one exhaust valve of said combustion chamber so as to increase the duration over which both of said valves are open simultaneously. a) providing a threshold operating temperature for said engine; b) below said threshold permitting treatment of combustion knock by operation of said active tappet and by operation of said system; and c) above said threshold permitting treatment of combustion knock solely by operation of said active tappet,
A wearable body harness comprising: a first shoulder strap and a second shoulder strap ; at least one adjustment strap having a first end connected to at least one of the first shoulder strap and the second shoulder strap and a free, second end opposite the first end ; a belt strap connected to at least one of the first shoulder strap and the second shoulder strap via the at least one adjustment strap ; an adjustment plate connected to the belt strap , the adjustment plate having the at least one adjustment strap routed therethrough; and an adjustment mechanism configured for selectively raising or lowering a position of the belt strap relative to the first shoulder strap and the second shoulder strap , wherein the adjustment mechanism is connected to at least one of the first shoulder strap and the second shoulder strap , and wherein the second end of the at least one adjustment strap is connected to the adjustment mechanism , characterized in that : the adjustment plate has a first slot through which the belt strap is routed and a second slot through which the at least one adjustment strap is routed. a first shoulder strap and a second shoulder strap ; at least one adjustment strap having a first end connected to at least one of the first shoulder strap and the second shoulder strap and a free, second end opposite the first end ; a belt strap connected to at least one of the first shoulder strap and the second shoulder strap via the at least one adjustment strap ; an adjustment plate connected to the belt strap , the adjustment plate having the at least one adjustment strap routed therethrough; and an adjustment mechanism configured for selectively raising or lowering a position of the belt strap relative to the first shoulder strap and the second shoulder strap , wherein the adjustment mechanism is connected to at least one of the first shoulder strap and the second shoulder strap , and wherein the second end of the at least one adjustment strap is connected to the adjustment mechanism , characterized in that : the adjustment plate has a first slot through which the belt strap is routed and a second slot through which the at least one adjustment strap is routed.
A synchronization method, comprising: setting, by a network device, a synchronization signal in a first subframe; and sending, by the network device, the first subframe or the first subframe and a second subframe to a user equipment, wherein the first subframe comprises M orthogonal frequency division multiplexing, OFDM, symbols, and the second subframe comprises N OFDM symbols, wherein M and N are positive integers, M > N , and the first subframe and the second subframe are subframes of an unlicensed carrier; characterized by the setting, by a network device, a synchronization signal in a first subframe comprises: setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS. setting, by a network device, a synchronization signal in a first subframe; and sending, by the network device, the first subframe or the first subframe and a second subframe to a user equipment, wherein the first subframe comprises M orthogonal frequency division multiplexing, OFDM, symbols, and the second subframe comprises N OFDM symbols, wherein M and N are positive integers, M > N , and the first subframe and the second subframe are subframes of an unlicensed carrier; characterized by the setting, by a network device, a synchronization signal in a first subframe comprises: setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS. setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS.
An exhaust gas purification system for an internal combustion engine, comprising: an exhaust gas purification device provided in an exhaust passage of the internal combustion engine ; a radiation device provided in the exhaust passage and configured to radiate electromagnetic waves of a specific frequency to the exhaust gas purification device ; an exhaust gas sensor located within the range of radiation of electromagnetic waves from the radiating device in the exhaust passage; and a radiation control unit configured to perform radiation of microwaves from the radiating device when a specific condition for performing the radiation is met, characterized in that the radiation control unit is configured to suspend the radiation of electromagnetic waves from the radiating device during a sampling period in which sampling of the output value of the exhaust gas sensor is performed, even while the specific condition for performing the radiation is met. an exhaust gas purification device provided in an exhaust passage of the internal combustion engine ; a radiation device provided in the exhaust passage and configured to radiate electromagnetic waves of a specific frequency to the exhaust gas purification device ; an exhaust gas sensor located within the range of radiation of electromagnetic waves from the radiating device in the exhaust passage; and a radiation control unit configured to perform radiation of microwaves from the radiating device when a specific condition for performing the radiation is met, characterized in that the radiation control unit is configured to suspend the radiation of electromagnetic waves from the radiating device during a sampling period in which sampling of the output value of the exhaust gas sensor is performed, even while the specific condition for performing the radiation is met.
A method for modulating environmental stress resistance in a plant, wherein the modulating environmental stress resistance is selected from: (a) increasing environmental stress resistance by applying to plant material, area of cultivation, or combination thereof, an effective amount of a compound selected from the following formulae vi.-xix.; and (b) decreasing environmental stress resistance by applying to plant material, area of cultivation, or combination thereof an effective amount of a compound selected from the following formulae i.-v., wherein the environmental stress is selected from the group consisting of high light intensity, high soil salinity, low soil moisture, and heat: i. ii. iii. iv. v. vi. vii. viii. ix. x. xi. xii. xiii. xiv. xv. xvi. xvii. and xviii. xix. i. ii. iii. iv. v. vi. vii. viii. ix. x. xi. xii. xiii. xiv. xv. xvi. xvii. and xviii. xix.
A method of depositing a Mn-containing layer on a substrate, the method comprising: introducing a vapor of a Mn-containing film forming composition into a reactor having a substrate disposed therein, wherein the Mn-containing film forming compositions comprises a silylamide-containing precursor selected from {Mn[N(SiMe 2 Et) 2 ] 2 } 2 or Mn[N(SiMe 3 ) 2 ] 2 (NMeEt 2 ); and depositing at least part of the silylamide-containing precursor onto the substrate to form the Mn-containing layer using a vapor deposition method. introducing a vapor of a Mn-containing film forming composition into a reactor having a substrate disposed therein, wherein the Mn-containing film forming compositions comprises a silylamide-containing precursor selected from {Mn[N(SiMe 2 Et) 2 ] 2 } 2 or Mn[N(SiMe 3 ) 2 ] 2 (NMeEt 2 ); and depositing at least part of the silylamide-containing precursor onto the substrate to form the Mn-containing layer using a vapor deposition method.
A lithium electrode comprising: a porous metallic current collector; and lithium metal inserted into pores present in the metallic current collector, wherein the lithium metal that is inserted into the pores is present in an amount of 5 to 20 wt% based on the total weight of the lithium electrode, wherein the metallic current collector has a porosity of 50 to 99%, and wherein the pores have a size of 5 to 500 μm. a porous metallic current collector; and lithium metal inserted into pores present in the metallic current collector, wherein the lithium metal that is inserted into the pores is present in an amount of 5 to 20 wt% based on the total weight of the lithium electrode, wherein the metallic current collector has a porosity of 50 to 99%, and wherein the pores have a size of 5 to 500 μm.
An apparatus to determine a synchronization time and discovery period for a cluster of devices comprising: a means for determining a synchronization time based upon a timestamp from another station and a time synchronization bit sequence; a means for determining a discovery period based upon the synchronization time and a number of bits in the time synchronization bit sequence; and a means for waking at the synchronization time for a discovery window associated with a duty cycle of a service. a means for determining a synchronization time based upon a timestamp from another station and a time synchronization bit sequence; a means for determining a discovery period based upon the synchronization time and a number of bits in the time synchronization bit sequence; and a means for waking at the synchronization time for a discovery window associated with a duty cycle of a service.
A sterilized wound dressing comprising: (a) a multi-ply knit fabric comprising: (i) a first knit ply forming the upper surface of the fabric and comprising a plurality of first yarns; (ii) a second knit ply forming the lower surface of the fabric and comprising a plurality of polytetrafluoroethylene (PTFE) yarns which have - a density of 2-2.3 g/cm 3 , - a transmission in the IR range of 8-10 μm of ≥ 40%, and - a thermal conductivity of ≥ 0.2 W/(m·K); wherein the first ply and the second ply are integrated through combined portions formed by at least one of - interlacing first yarns among the PTFE yarns of the second knit ply, - interlacing PTFE yarns among the first yarns of the first knit ply, and - interlacing a plurality of third yarns among the first yarns of the first knit ply and the PTFE yarns of the second knit ply; and (b) a composition comprising at least one silver ion-containing compound on at least the upper surface of the multi-ply knit fabric. (a) a multi-ply knit fabric comprising: (i) a first knit ply forming the upper surface of the fabric and comprising a plurality of first yarns; (ii) a second knit ply forming the lower surface of the fabric and comprising a plurality of polytetrafluoroethylene (PTFE) yarns which have - a density of 2-2.3 g/cm 3 , - a transmission in the IR range of 8-10 μm of ≥ 40%, and - a thermal conductivity of ≥ 0.2 W/(m·K); wherein the first ply and the second ply are integrated through combined portions formed by at least one of - interlacing first yarns among the PTFE yarns of the second knit ply, - interlacing PTFE yarns among the first yarns of the first knit ply, and - interlacing a plurality of third yarns among the first yarns of the first knit ply and the PTFE yarns of the second knit ply; and (i) a first knit ply forming the upper surface of the fabric and comprising a plurality of first yarns; (ii) a second knit ply forming the lower surface of the fabric and comprising a plurality of polytetrafluoroethylene (PTFE) yarns which have - a density of 2-2.3 g/cm 3 , - a transmission in the IR range of 8-10 μm of ≥ 40%, and - a thermal conductivity of ≥ 0.2 W/(m·K); wherein the first ply and the second ply are integrated through combined portions formed by at least one of - interlacing first yarns among the PTFE yarns of the second knit ply, - interlacing PTFE yarns among the first yarns of the first knit ply, and - interlacing a plurality of third yarns among the first yarns of the first knit ply and the PTFE yarns of the second knit ply; and - a density of 2-2.3 g/cm 3 , - a transmission in the IR range of 8-10 μm of ≥ 40%, and - a thermal conductivity of ≥ 0.2 W/(m·K); - interlacing first yarns among the PTFE yarns of the second knit ply, - interlacing PTFE yarns among the first yarns of the first knit ply, and - interlacing a plurality of third yarns among the first yarns of the first knit ply and the PTFE yarns of the second knit ply; and (b) a composition comprising at least one silver ion-containing compound on at least the upper surface of the multi-ply knit fabric.