mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: directing a currency validation device (330 or 400) to illuminate a currency bill located in proximity to an imager using a selected one or more of a plurality of different light sources (411 to 413), wherein each light source is configured to emit a different wavelength of light (step 210); wherein directing (step 210) further includes obtaining a selection for the one or more light sources (411 to 413) (step 211), wherein obtaining (step 211) further includes identifying the one or more light sources (411 to 413) from: an ultraviolet light source , an infrared light source , and a white light source (step 212); instructing the imager to take an image of the illuminated currency bill (step 220); presenting the image in a screen of a display for currency validation (step 230), wherein the screen of the display shows known security features that were not present when viewing the currency bill before illuminating the bill by the selected one or more light sources; and using, by a cashier, the resulting image presented on the screen of the display for a Point-Of-Sale device that includes a dark and whited out vertical line to validate the bill. directing a currency validation device (330 or 400) to illuminate a currency bill located in proximity to an imager using a selected one or more of a plurality of different light sources (411 to 413), wherein each light source is configured to emit a different wavelength of light (step 210); wherein directing (step 210) further includes obtaining a selection for the one or more light sources (411 to 413) (step 211), wherein obtaining (step 211) further includes identifying the one or more light sources (411 to 413) from: an ultraviolet light source , an infrared light source , and a white light source (step 212); instructing the imager to take an image of the illuminated currency bill (step 220); presenting the image in a screen of a display for currency validation (step 230), wherein the screen of the display shows known security features that were not present when viewing the currency bill before illuminating the bill by the selected one or more light sources; and using, by a cashier, the resulting image presented on the screen of the display for a Point-Of-Sale device that includes a dark and whited out vertical line to validate the bill.
A method for reporting channel state information, CSI, from a user equipment to a base station in a wireless communication system, the method comprising: configuring a first feedback chain corresponding to a first channel state information-reference signal, CSI-RS, and a second feedback chain corresponding to a second CSI-RS through higher layer signaling; generating a first partial CSI and a second partial CSI corresponding to each of the feedback chains using the first and second CSI-RSs received from the base station; reporting the first partial CSI to the base station periodically in accordance with the first feedback chain; and reporting the second partial CSI to the base station aperiodically in accordance with the second feedback chain, wherein periodically reporting the first partial CSI comprises transmitting a triggering request message for reporting of the second partial CSI to the base station, and wherein aperiodically reporting the second partial CSI comprises receiving a triggering message for reporting of the second partial CSI from the base station. configuring a first feedback chain corresponding to a first channel state information-reference signal, CSI-RS, and a second feedback chain corresponding to a second CSI-RS through higher layer signaling; generating a first partial CSI and a second partial CSI corresponding to each of the feedback chains using the first and second CSI-RSs received from the base station; reporting the first partial CSI to the base station periodically in accordance with the first feedback chain; and reporting the second partial CSI to the base station aperiodically in accordance with the second feedback chain, wherein periodically reporting the first partial CSI comprises transmitting a triggering request message for reporting of the second partial CSI to the base station, and wherein aperiodically reporting the second partial CSI comprises receiving a triggering message for reporting of the second partial CSI from the base station.
Conveying device, comprising: - an axle which extends along a longitudinal axis , - a drum body which is mounted on the axle such that it can rotate about the longitudinal axis, - a drive unit having an electric drive motor, which is arranged inside the drum body and which comprises a rotor and a stator , the rotor is coupled in a torque-transmitting manner to an drive output shaft that is mounted such that it can rotate about a drive axle, and the stator represents a torque support and is coupled to the axle in a torque-resistant manner, - a connecting element, which is arranged inside the drum body and is coupled in a torque-transmitting manner to the drum body and the drive output shaft of the drive motor, characterized in that a first flexible coupling is inserted between the torque support and the axle , and in that a second flexible coupling is inserted between the drive output shaft and the drum body. - an axle which extends along a longitudinal axis , - a drum body which is mounted on the axle such that it can rotate about the longitudinal axis, - a drive unit having an electric drive motor, which is arranged inside the drum body and which comprises a rotor and a stator , the rotor is coupled in a torque-transmitting manner to an drive output shaft that is mounted such that it can rotate about a drive axle, and the stator represents a torque support and is coupled to the axle in a torque-resistant manner, - a connecting element, which is arranged inside the drum body and is coupled in a torque-transmitting manner to the drum body and the drive output shaft of the drive motor,
A method to produce a building panel , comprising - providing a substrate , - applying a thermosetting binder in dry form on the substrate for forming a sub-layer , wherein the sub-layer comprises at least 90 wt% of the thermosetting binder, preferably at least 95 wt% of the thermosetting binder, - controlling the moisture content of the sub-layer when arranged on the substrate to be 5-35 wt%, - applying a sheet on the sub-layer , wherein the sheet comprises one or more of a paper sheet, a non-woven, a woven fibre sheet, or a fibre sheet and wherein the sheet is unimpregnated when applied on the sub-layer , and - pressing the substrate , the sub-layer and the sheet together to form a building panel , thereby the thermosetting binder of the sub-layer impregnates the sheet . - providing a substrate , - applying a thermosetting binder in dry form on the substrate for forming a sub-layer , wherein the sub-layer comprises at least 90 wt% of the thermosetting binder, preferably at least 95 wt% of the thermosetting binder, - controlling the moisture content of the sub-layer when arranged on the substrate to be 5-35 wt%, - applying a sheet on the sub-layer , wherein the sheet comprises one or more of a paper sheet, a non-woven, a woven fibre sheet, or a fibre sheet and wherein the sheet is unimpregnated when applied on the sub-layer , and - pressing the substrate , the sub-layer and the sheet together to form a building panel , thereby the thermosetting binder of the sub-layer impregnates the sheet .
A method for use in power generation, the method comprising: bringing a first target matter via wave resonance into a higher energy state by exposing the first target matter to electromagnetic radiation input energy, provided by a first wave source, for producing a first isotope shift in the first target matter and neutrons resulting from the first isotope shift, the method being characterized by : capturing the neutrons by a second target matter , having a nuclear binding energy which is smaller than the nuclear binding energy of the isotope, or isotopes, into which it is shifted after the process of neutron capture, for producing a second isotope shift in the second target matter and electromagnetic radiation output energy. bringing a first target matter via wave resonance into a higher energy state by exposing the first target matter to electromagnetic radiation input energy, provided by a first wave source, for producing a first isotope shift in the first target matter and neutrons resulting from the first isotope shift, the method being characterized by : capturing the neutrons by a second target matter , having a nuclear binding energy which is smaller than the nuclear binding energy of the isotope, or isotopes, into which it is shifted after the process of neutron capture, for producing a second isotope shift in the second target matter and electromagnetic radiation output energy.
A light guide assembly for an electron microscope system, comprising a mirror that includes a pressure limiting aperture through which an electron beam from an electron source passes, wherein the mirror is configured to reflect light from the sample to a light detector , to collect back scattered electrons and secondary electrons from the sample , and to convert the back scattered electrons to secondary electrons , and one or more detectors configured to collect the converted secondary electrons .
A composition comprising a hydrophobic monomer having the structure: CH 2 =CR 4 C(O)NHC(R 1 R 1 )(C(R 1 R 1 )) n C(O)XR 3 wherein n is an integer of 0 or 1; R 1 is independently selected from at least one of: alkyls, aryls, and alkylaryls, wherein the alkyls, aryls, and alkylaryls have a total of 10 carbon atoms or less; R 3 is a hydrophobic group selected from at least one of alkyls, aryls, alkylaryls and ethers, wherein the alkyls, aryls, alkylaryls and ethers have a total number of carbon atoms ranging from 4 to 30; R 4 is H or CH 3 ; and X is NH; wherein the hydrophobic monomer is derived from an amine (HXR 3 ) that has a hydrophilicity index of 25 or less, wherein the hydrophilicity index (HI) is defined as: HI = total molecular weight of the hydrophilic groups in HXR 3 molecular weight of HXR 3 × 100
Method for manufacturing rod-shaped components of composite material, comprising the steps of: layering a laminate of substantially constant thickness, by automatically laying up on a flat surface , a plurality of plies of composite material, cutting the laminate along parallel cutting lines, so as to divide the laminate in rods of composite material having substantially the same cross-sectional shape, wherein the step of cutting the laminate is carried out in an automatic cutting machine , and simultaneously conforming a set of the rods obtained in the previous step, by applying heat and pressure to obtain rods with a desired cross-sectional shape. layering a laminate of substantially constant thickness, by automatically laying up on a flat surface , a plurality of plies of composite material, cutting the laminate along parallel cutting lines, so as to divide the laminate in rods of composite material having substantially the same cross-sectional shape, wherein the step of cutting the laminate is carried out in an automatic cutting machine , and simultaneously conforming a set of the rods obtained in the previous step, by applying heat and pressure to obtain rods with a desired cross-sectional shape.
A computer-implemented method for at least partially replicating a primary application cache in a secondary application cache , the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method , and the computer-implemented method comprising: identifying at least some cache portion identifiers for cache portions that are within a primary application cache of a primary application operating at a first network node , wherein each of the at least some cache portion identifiers is associated with one cache portion of the cache portions; transferring the identified cache portion identifiers to a secondary application cache of a secondary application operating at a second network node ; and retrieving from a storage node into the secondary application cache at least one of the cache portions identified by the transferred cache portion identifiers , characterized in that : an average frequency of transferring the identified cache portion identifiers is greater than an average frequency of retrieving into the secondary application cache at least one of the cache portions by at least twice. identifying at least some cache portion identifiers for cache portions that are within a primary application cache of a primary application operating at a first network node , wherein each of the at least some cache portion identifiers is associated with one cache portion of the cache portions; transferring the identified cache portion identifiers to a secondary application cache of a secondary application operating at a second network node ; and retrieving from a storage node into the secondary application cache at least one of the cache portions identified by the transferred cache portion identifiers ,
A method of producing drimenol comprising: i) contacting an acyclic farnesyl diphosphate (FPP) precursor with a polypeptide having drimenol synthase activity and having at least 70%, 75%, 80%, 85%, 90%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 2 or comprising SEQ ID NO:2 to produce the drimenol; and ii) optionally isolating the drimenol. i) contacting an acyclic farnesyl diphosphate (FPP) precursor with a polypeptide having drimenol synthase activity and having at least 70%, 75%, 80%, 85%, 90%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 2 or comprising SEQ ID NO:2 to produce the drimenol; and ii) optionally isolating the drimenol.
A pneumatic tire having a bead apex , a bead reinforcing filler , a sidewall and a chafer in the bead portion , or having a bead apex , a sidewall and a chafer in the bead portion , in which the outer end of the chafer in the tire radial direction is located on the tire surface, and, which is characterized in that , when the loss tangents of the sidewall and the chafer measured under the conditions of 70°C, 1% elongation and frequency of 10 Hz are set to tan δ 70°C -SW and tan δ 70°C -C , respectively, the complex elastic moduli of the sidewall and the chafer measured in MPa under the same conditions are set to E*70°C .SW and E*70°C .C , respectively, and the loss tangents of the sidewall and the chafer measured under the conditions of 150°C, 1% elongation and frequency of 10 Hz are set to tan δ 150°C -SW and tan δ 150°C -C , respectively, the following formula are satisfied. tan δ 70 ° C − SW + tan δ 70 ° C − C ≦ 0.25 tan δ 70 ° C − SW − tan δ 70 ° C − C ≦ 0.07 E * 70 ° C − C − E * 70 ° C − SW ≦ 6.5 MPa tan δ 150 ° C − SW + tan δ 150 ° C − C ≦ 0.20 in which the outer end of the chafer in the tire radial direction is located on the tire surface, and, which is characterized in that , when the loss tangents of the sidewall and the chafer measured under the conditions of 70°C, 1% elongation and frequency of 10 Hz are set to tan δ 70°C -SW and tan δ 70°C -C , respectively, the complex elastic moduli of the sidewall and the chafer measured in MPa under the same conditions are set to E*70°C .SW and E*70°C .C , respectively, and the loss tangents of the sidewall and the chafer measured under the conditions of 150°C, 1% elongation and frequency of 10 Hz are set to tan δ 150°C -SW and tan δ 150°C -C , respectively, the following formula are satisfied. tan δ 70 ° C − SW + tan δ 70 ° C − C ≦ 0.25 tan δ 70 ° C − SW − tan δ 70 ° C − C ≦ 0.07 E * 70 ° C − C − E * 70 ° C − SW ≦ 6.5 MPa tan δ 150 ° C − SW + tan δ 150 ° C − C ≦ 0.20
A pressure deck assembly for an aircraft fuselage , the pressure deck assembly extending a length along a roll axis of the fuselage and dividing a height of the fuselage into different compartments along at least a portion of the length of the fuselage , said pressure deck assembly comprising: a plurality of longitudinal beams extending a length along said roll axis of the fuselage , the longitudinal beams comprising a central member and opposing first and second flanges extending from the central member , the first flange comprising a first upper side and a first lower side , the second flange comprising a second upper side and a second lower side , a pressure deck extending along the length of the plurality of longitudinal beams and laterally along a pitch axis of the fuselage between each pair of adjacent longitudinal beams , the pressure deck comprising first and second deck segments , wherein the first deck segment is joined to the first flange of the longitudinal beam along the first lower side of the first flange , and wherein the second deck segment is joined to the second flange of the longitudinal beam along the second lower side of the second flange . a plurality of longitudinal beams extending a length along said roll axis of the fuselage , the longitudinal beams comprising a central member and opposing first and second flanges extending from the central member , the first flange comprising a first upper side and a first lower side , the second flange comprising a second upper side and a second lower side , a pressure deck extending along the length of the plurality of longitudinal beams and laterally along a pitch axis of the fuselage between each pair of adjacent longitudinal beams , the pressure deck comprising first and second deck segments , wherein the first deck segment is joined to the first flange of the longitudinal beam along the first lower side of the first flange , and wherein the second deck segment is joined to the second flange of the longitudinal beam along the second lower side of the second flange .
A machine tool for cutting a workpiece (W) having an inclined surface (Wa), comprising: a main spindle configured to hold and rotate the workpiece (W); a moving device (M1, M2, M3) configured to move a cutting tool (T1) relative to the workpiece (W) in a direction obtained by combining a Z direction parallel with an axis of the main spindle , an X direction that is perpendicular to the Z direction and determines an amount of cutting of the workpiece (W), and one of a Y direction perpendicular to the Z direction and the X direction and an axis rotation direction (AX3) parallel with the Z direction, the cutting tool (T1) having a linear cutting blade for cutting the workpiece (W); and a tool disposition unit configured to cause a direction of an edge (Ta) of the cutting tool (T1) to match the inclined surface of the workpiece (W) by inclining a direction of the edge with respect to the Z direction when seen from the Y direction in a state in which the direction of the edge (Ta) is inclined with respect to the Z direction when seen from the X direction, and wherein the moving device (M1, M2, M3) is configured to move the cutting tool (T1) such that a cut portion of the workpiece (W) is gradually shifted from a first end (Ta1) toward a second end (Ta2) of the edge (Ta), and such that the edge (Ta) of the cutting tool (T1), while it moves in the Y direction and the Z direction, contacts the inclined surface (Wa) of the workpiece (W) along a straight line (L). a main spindle configured to hold and rotate the workpiece (W); a moving device (M1, M2, M3) configured to move a cutting tool (T1) relative to the workpiece (W) in a direction obtained by combining a Z direction parallel with an axis of the main spindle , an X direction that is perpendicular to the Z direction and determines an amount of cutting of the workpiece (W), and one of a Y direction perpendicular to the Z direction and the X direction and an axis rotation direction (AX3) parallel with the Z direction, the cutting tool (T1) having a linear cutting blade for cutting the workpiece (W); and a tool disposition unit configured to cause a direction of an edge (Ta) of the cutting tool (T1) to match the inclined surface of the workpiece (W) by inclining a direction of the edge with respect to the Z direction when seen from the Y direction in a state in which the direction of the edge (Ta) is inclined with respect to the Z direction when seen from the X direction, and wherein the moving device (M1, M2, M3) is configured to move the cutting tool (T1) such that a cut portion of the workpiece (W) is gradually shifted from a first end (Ta1) toward a second end (Ta2) of the edge (Ta), and such that the edge (Ta) of the cutting tool (T1), while it moves in the Y direction and the Z direction, contacts the inclined surface (Wa) of the workpiece (W) along a straight line (L).
A screen plate, comprising: a frame , a mesh fixed onto the frame and a masking film arranged on the mesh , wherein a printing area is formed in a portion of the mesh that is not masked by the masking film , at least one masking line is arranged in the printing area along edges of the masking film , and a width of each of the at least one masking line is greater than a width of each mesh line of the mesh ; characterized in that there is one masking line between each edge of the frame and the corresponding edge of the masking film , and a distance between the masking line and each edge of the frame corresponding to the masking line is equal to a distance between the masking line and each edge of the masking film corresponding to the masking line . a frame , a mesh fixed onto the frame and a masking film arranged on the mesh , wherein a printing area is formed in a portion of the mesh that is not masked by the masking film , at least one masking line is arranged in the printing area along edges of the masking film , and a width of each of the at least one masking line is greater than a width of each mesh line of the mesh ; characterized in that there is one masking line between each edge of the frame and the corresponding edge of the masking film , and a distance between the masking line and each edge of the frame corresponding to the masking line is equal to a distance between the masking line and each edge of the masking film corresponding to the masking line .
System having a sensor for detecting an object in a monitored zone and at least one additional sensor , wherein the sensor for detecting the object comprises at least one sensor element configured to detect a sensor signal, a switch output configured to output a binary object determination signal and an evaluation unit , wherein the evaluation unit is configured to generate the object determination signal from the sensor signal in dependence on the detected object and to determine, in a teaching phase, a switching point that determines the association between the sensor signal and the object determination signal, wherein the evaluation unit is further configured to detect a respective sensor signal for a plurality of detection situations in the teaching phase, with the associated object determination signal being preset for the respective detection situation and with the switching point being derived therefrom, wherein the associated object determination signal is preset by the at least one additional sensor and the at least one additional sensor is configured to generate the preset object determination signal, to evaluate the detection situation of the teaching phase and to preset this evaluation to the sensor for detecting the object for its teaching phase that is a training phase for a supervised training of the switching point.