mhurhangee/ep-ind-claims huggingface dataset:
A method of packaging an object, comprising: placing an object inside of heat-shrinkable film; sealing the heat-shrinkable film around the object to form a heat-shrinkable package; coupling a first portion of a label (88, 110, 130, 230) to the heat-shrinkable package, the label (88, 110, 130, 230) including an identifier (118, 138, 138', 234) on a second portion of the label (88, 110, 130, 230); and causing the heat-shrinkable film to shrink into heat-shrunk film and the heat-shrinkable package to form into a heat-shrunk package; wherein the label (88, 110, 130, 230) remains coupled to the heat-shrunk film after the heat-shrinkable film is caused to shrink into heat-shrunk film; and wherein the second portion of the label (88, 110, 130, 230) remains substantially undeformed after the heat-shrinkable film is caused to shrink into heat-shrunk film; optionally wherein the heat-shrunk film is opaque. placing an object inside of heat-shrinkable film; sealing the heat-shrinkable film around the object to form a heat-shrinkable package; coupling a first portion of a label (88, 110, 130, 230) to the heat-shrinkable package, the label (88, 110, 130, 230) including an identifier (118, 138, 138', 234) on a second portion of the label (88, 110, 130, 230); and causing the heat-shrinkable film to shrink into heat-shrunk film and the heat-shrinkable package to form into a heat-shrunk package; wherein the label (88, 110, 130, 230) remains coupled to the heat-shrunk film after the heat-shrinkable film is caused to shrink into heat-shrunk film; and wherein the second portion of the label (88, 110, 130, 230) remains substantially undeformed after the heat-shrinkable film is caused to shrink into heat-shrunk film; optionally wherein the heat-shrunk film is opaque.
A method of manufacturing plates comprising a carrier layer and optionally a top layer comprising the following steps in the following order: a) optional pre-laying of the top layer in a first mold; b) production of a mixture comprising a thermoplastic plastic and chopped fibers; c) heating the mixture from b) while mixing until the thermoplastic plastic melts; d) injecting the heated mixture into the first mold (on the back of the top layer); e) cooling the plate in the first mold to a temperature at which the plate is stable enough to be removed from the first mold; f) removing the plate from the first mold and placing it in a second mold, which has a bend in the opposite direction to the expected cupping of the plate; g) cooling the plate in the second mold to about 30°C; h) transferring the plate to a third mold, the third mold having a plane as a bottom, and placing the plate on this plane; and i) cooling the plate in the third mold to 15-20°C below room temperature. a) optional pre-laying of the top layer in a first mold; b) production of a mixture comprising a thermoplastic plastic and chopped fibers; c) heating the mixture from b) while mixing until the thermoplastic plastic melts; d) injecting the heated mixture into the first mold (on the back of the top layer); e) cooling the plate in the first mold to a temperature at which the plate is stable enough to be removed from the first mold; f) removing the plate from the first mold and placing it in a second mold, which has a bend in the opposite direction to the expected cupping of the plate; g) cooling the plate in the second mold to about 30°C; h) transferring the plate to a third mold, the third mold having a plane as a bottom, and placing the plate on this plane; and i) cooling the plate in the third mold to 15-20°C below room temperature.
A method of annotating an electronic map, the method comprising: at a server, receiving from a mobile device location information relating to a location of the mobile device; and determining the location of the mobile device relative to the electronic map; the method further comprising: automatically obtaining further information relating to the mobile device, characterized in that the further information includes at least one of: a time at which the mobile device is at the location, a duration for which the mobile device is at the location, a proximity of at least one further mobile device, data obtained from an application operated by the mobile device, image data obtained from the mobile device, and sound data obtained from the mobile device, determining an annotation indicating an assumed nature and/or use of a user's location relating to the electronic map using the obtained further information along with rules stored at the server; and associating the annotation with the user's location on the electronic map. at a server, receiving from a mobile device location information relating to a location of the mobile device; and determining the location of the mobile device relative to the electronic map; the method further comprising: automatically obtaining further information relating to the mobile device, characterized in that the further information includes at least one of: a time at which the mobile device is at the location, a duration for which the mobile device is at the location, a proximity of at least one further mobile device, data obtained from an application operated by the mobile device, image data obtained from the mobile device, and sound data obtained from the mobile device, determining an annotation indicating an assumed nature and/or use of a user's location relating to the electronic map using the obtained further information along with rules stored at the server; and associating the annotation with the user's location on the electronic map. automatically obtaining further information relating to the mobile device, characterized in that the further information includes at least one of: a time at which the mobile device is at the location, a duration for which the mobile device is at the location, a proximity of at least one further mobile device, data obtained from an application operated by the mobile device, image data obtained from the mobile device, and sound data obtained from the mobile device, determining an annotation indicating an assumed nature and/or use of a user's location relating to the electronic map using the obtained further information along with rules stored at the server; and associating the annotation with the user's location on the electronic map.
A crystalline p-toluenesulfonic acid salt of the compound wherein the salt exhibits an XRPD pattern having one or more peaks selected from 5.0, 10.1, 22.1, and 24.5 ± 0.2 ° 2Θ as measured on a X'PertPRO MPD diffractometer equipped with a Cu CFF X-ray tube; and wherein the crystalline salt has a particle size distribution d(0.9) of from 5 to 50 μm.
An antisense oligonucleotide 8 - 25 nucleotides in length comprising one or more nucleotide analogues, wherein said oligonucleotide is 100% complementary to a region of SEQ ID NO: 4 which comprises nucleotide position 1394 of SEQ ID NO: 4 encoding the G380R mutation and 2 or more nucleotides upstream and/or downstream from the location of the G380R mutation.
Device for bracing a fuel cell stack, comprising at least two fuel cells, in which the fuel cell stack has an outer housing 1 for accommodating the fuel cell stack as well as two end plates 2, which each have at least one passage for conducting the utility piping of the fuel cell stack, characterised in that the device has two ring-shaped clamping devices 3, in which at least one ring-shaped clamping device 3 is made so that it may connect with the outer housing 1 through a thread.
A bracket device, comprising: a bracket including an end plate; and a hook movably connected to the bracket and allowed to be at either one of a first position and a second position with respect to the bracket; wherein a hook portion of the hook extends through the end plate of the bracket when at the first position, and a hook portion of the hook is in a retracted position with respect to the end plate of the bracket when at the second position, wherein one of the hook and the bracket includes a longitudinal guiding feature, and the hook is longitudinally displaceable with respect to the bracket via the longitudinal guiding feature, and wherein the longitudinal guiding feature is a longitudinal hole, characterized in that the bracket device further comprises a pivotal connection member extending through a portion of the longitudinal hole and mounting the hook to the bracket. a bracket including an end plate; and a hook movably connected to the bracket and allowed to be at either one of a first position and a second position with respect to the bracket; wherein a hook portion of the hook extends through the end plate of the bracket when at the first position, and a hook portion of the hook is in a retracted position with respect to the end plate of the bracket when at the second position, wherein one of the hook and the bracket includes a longitudinal guiding feature, and the hook is longitudinally displaceable with respect to the bracket via the longitudinal guiding feature, and wherein the longitudinal guiding feature is a longitudinal hole, characterized in that the bracket device further comprises a pivotal connection member extending through a portion of the longitudinal hole and mounting the hook to the bracket.
Vane plate fixing apparatus for removably fixing a vane plate to a structural web in an exhaust duct of an engine, the vane plate fixing apparatus comprising: at least one fastener; a web; a vane plate; a mounting bracket attached to the vane plate; and a mounting block (20,30) carried on the web by the at least one fastener, wherein the mounting block is moveable between a first configuration in which the mounting bracket is arranged to slideably engage and slideably disengage the mounting block, and a second configuration in which the mounting block is arranged to securely retain the mounting bracket relative to the web, and wherein the mounting block is moveable between the first and second configurations by operation of the fastener, the vane fixing apparatus being provided such that, in use, it is shielded from the duct by the vane plate. at least one fastener; a web; a vane plate; a mounting bracket attached to the vane plate; and a mounting block (20,30) carried on the web by the at least one fastener, wherein the mounting block is moveable between a first configuration in which the mounting bracket is arranged to slideably engage and slideably disengage the mounting block, and a second configuration in which the mounting block is arranged to securely retain the mounting bracket relative to the web, and wherein the mounting block is moveable between the first and second configurations by operation of the fastener, the vane fixing apparatus being provided such that, in use, it is shielded from the duct by the vane plate.
An optically controlled field emission cathode, comprising a substrate (10, 20, 30, 40, 50, 60, 70, 80) having at least one conducting surface (11, 21, 31, 41, 51, 61, 71, 81) and at least one conductive emitter element (16, 26, 36, 46, 56, 66, 76, 86) in the vicinity of the conducting surface(s), - further comprising at least one photoconductive element (13, 23, 33, 43, 53, 63, 73, 83) electrically connected in series between the emitter element(s) and the conducting surface(s) of said substrate, each emitter element having a strong relationship between the dimension of its peak and its height, and the photoconductive element(s) being provided on their upper surface(s) with at least one conducting layer (15, 25, 35, 45, 55, 65, 75, 85), and characterised in that - the conducting layer(s) of the upper face of the photoconductive element(s) is/are split into zones that are isolated from each other, with each zone being associated with an emitter element and the lateral dimensions of each zone being between the diameter and the height of the emitter element. - further comprising at least one photoconductive element (13, 23, 33, 43, 53, 63, 73, 83) electrically connected in series between the emitter element(s) and the conducting surface(s) of said substrate, - the conducting layer(s) of the upper face of the photoconductive element(s) is/are split into zones that are isolated from each other, with each zone being associated with an emitter element and the lateral dimensions of each zone being between the diameter and the height of the emitter element.
A sensor network for a wireless power transfer system, the sensor network comprising: a differential voltage sensing circuit arranged within the wireless power transfer system to measure a rate of change of a voltage difference between portions of an impedance matching network and generate a first signal representing the rate of change of the voltage difference, wherein the rate of change of the voltage difference is a first derivative of the voltage difference with respect to time; and a current sensing circuit coupled to the differential voltage sensing circuit and configured to calculate, based on the first signal, a current through a resonator coil coupled to the wireless power transfer system. a differential voltage sensing circuit arranged within the wireless power transfer system to measure a rate of change of a voltage difference between portions of an impedance matching network and generate a first signal representing the rate of change of the voltage difference, wherein the rate of change of the voltage difference is a first derivative of the voltage difference with respect to time; and a current sensing circuit coupled to the differential voltage sensing circuit and configured to calculate, based on the first signal, a current through a resonator coil coupled to the wireless power transfer system.
A method for ink jet nozzle health and printing reliability of an ink jet printer, the method comprising: printing a first image onto a first substrate using a print head (300, 302, 304), wherein the print head (300, 302, 304) begins the printing of the first image from a first starting position, and wherein the print head includes a plurality of nozzles; characterised in that the method further comprises the steps of selecting a second starting position different than the first starting position; and printing a second image onto a second substrate using the print head (300, 302, 304), wherein the print head (300, 302, 304) begins the printing of the second image from the second starting position; wherein at least a portion of the first image is the same as or identical to at least a portion of the second image. printing a first image onto a first substrate using a print head (300, 302, 304), wherein the print head (300, 302, 304) begins the printing of the first image from a first starting position, and wherein the print head includes a plurality of nozzles; characterised in that the method further comprises the steps of selecting a second starting position different than the first starting position; and printing a second image onto a second substrate using the print head (300, 302, 304), wherein the print head (300, 302, 304) begins the printing of the second image from the second starting position; wherein at least a portion of the first image is the same as or identical to at least a portion of the second image.
A location transmitting device comprising: a sensor configured to detect a cellular data transmission associated with an electronic device, the sensor further configured to transmit a signal in response to detecting the cellular data transmission; a low-power transmitter communicatively coupled to the sensor and having an idle first power state and a second power state; and a processor configured to execute instructions in response to receiving the signal, wherein the instructions cause the processor to: switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter, a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state. a sensor configured to detect a cellular data transmission associated with an electronic device, the sensor further configured to transmit a signal in response to detecting the cellular data transmission; a low-power transmitter communicatively coupled to the sensor and having an idle first power state and a second power state; and a processor configured to execute instructions in response to receiving the signal, wherein the instructions cause the processor to: switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter, a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state. switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter, a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state.
A pharmaceutical composition for use in a method of modulating in vivo nitroxyl levels, wherein the pharmaceutical composition comprises a compound of formula: and at least one pharmaceutically acceptable excipient.
Thermal protection circuit comprising two electrical connection terminals (39, 40; 59, 60) for an electrical device (46; 78) to be protected from overheating and at least one temperature-dependent switch (10; 63, 64; 112), wherein the thermal protection circuit comprises at least one electronic semiconductor switch (41; 62; 94; 101), and said temperature-dependent switch (10; 112) comprises a temperature-dependent switching mechanism, two stationary contacts (31, 32) which are connected to the connection terminals (39, 40), and two counter contacts (27, 28), which counter contacts are electrically connected to one another, are in temperature-dependent bearing contact with the two stationary contacts (31, 32) and in this state connect said stationary contacts electrically to one another, characterized in that two semiconductor switches (94; 101) for DC voltage are provided, each comprising a control input (95; 102), said control inputs (95; 102) being electrically connected via the switching mechanism to the counter contacts (27, 28), at least when the temperature-dependent switch is closed, wherein each semiconductor switch (95; 101) comprises a first (96; 103) and a second (97; 104) current terminal, the first current terminal of one of the semiconductor switches being connected to the first current terminal of the other semiconductor switch, and the second current terminal of one of the semiconductor switches and the second current terminal of the other semiconductor switch are connected with one of the connection terminals (39, 40; 59, 60).
A rear spoiler with adjustable aerodynamic profiles (5, 6) for a high performance road vehicle; the rear spoiler comprises: at least one fin-shaped support; a first adjustable aerodynamic profile that is mounted onto the fin-shaped support and that rotates around a first rotational axis; and a second adjustable aerodynamic profile that is mounted onto the fin-shaped support at a different height than the first aerodynamic profile and that rotates around a second rotational axis that is parallel to the first rotational axis; the rear spoiler is characterized in that the first rotational axis is located at the trailing edge of the first aerodynamic profile and the second rotational axis is located at the leading edge of the second aerodynamic profile. at least one fin-shaped support; a first adjustable aerodynamic profile that is mounted onto the fin-shaped support and that rotates around a first rotational axis; and a second adjustable aerodynamic profile that is mounted onto the fin-shaped support at a different height than the first aerodynamic profile and that rotates around a second rotational axis that is parallel to the first rotational axis; the rear spoiler is characterized in that the first rotational axis is located at the trailing edge of the first aerodynamic profile and the second rotational axis is located at the leading edge of the second aerodynamic profile.
A power management integrated circuit, PMIC, comprising: circuitry (207, 208, 209) configured to output a voltage signal on a power output line; a peak detector implemented within the PMIC configured to monitor current associated with the voltage signal for an occurrence of a glitch; and additional circuitry configured to output a signal from the PMIC representing the occurrence of the glitch. circuitry (207, 208, 209) configured to output a voltage signal on a power output line; a peak detector implemented within the PMIC configured to monitor current associated with the voltage signal for an occurrence of a glitch; and additional circuitry configured to output a signal from the PMIC representing the occurrence of the glitch.
A method of producing a bonded wafer including a thin film on a base wafer, comprising: implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of the base wafer directly or through an insulator film; and then performing a heat treatment to separate part of the bond wafer along the layer of the implanted ion, wherein at least one of the bond wafer and the base wafer is a wafer reclaimed by performing a reclaiming process including a thickness reducing process on a by-product wafer separated when a bonded wafer is produced by the producing method, the reclaiming process including the thickness reducing process reduces the thickness of the reclaimed wafer by 5 μm or more, the bond wafer and the base wafer are silicon single crystal wafers, and before the bond wafer and the base wafer are bonded, a thickness of the bond wafer and the base wafer is measured, and a combination of the bond wafer and the base wafer is selected such that a difference in the thickness between the wafers is less than 5 μm, and the selected bond and base wafers are bonded. implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of the base wafer directly or through an insulator film; and then performing a heat treatment to separate part of the bond wafer along the layer of the implanted ion, wherein at least one of the bond wafer and the base wafer is a wafer reclaimed by performing a reclaiming process including a thickness reducing process on a by-product wafer separated when a bonded wafer is produced by the producing method, the reclaiming process including the thickness reducing process reduces the thickness of the reclaimed wafer by 5 μm or more, the bond wafer and the base wafer are silicon single crystal wafers, and before the bond wafer and the base wafer are bonded, a thickness of the bond wafer and the base wafer is measured, and a combination of the bond wafer and the base wafer is selected such that a difference in the thickness between the wafers is less than 5 μm, and the selected bond and base wafers are bonded.
Fully automatic coffee machine for domestic purposes, comprising a spindle brewing unit with a brewing apparatus composed of a brewing chamber and a brewing piston, having an elevating spindle for driving the brewing chamber via a connecting arm of the brewing chamber as a spindle nut, wherein the brewing apparatus is arranged laterally adjacent to the elevating spindle, wherein the housing serves to mount the brewing apparatus and the elevating spindle, characterised in that the elevating spindle is mounted in the housing at just one end by means of a fixed bearing.