mhurhangee/ep-ind-claims huggingface dataset:
A satellite communications system, comprising: a plurality of satellites each traveling about the Earth in an orbit such that all of the plurality of satellites has an orbital period that is an integer factor of a sidereal day and all of the plurality of satellites follows a single repeating ground track relative to the surface of the Earth; each of the plurality of satellites including communication equipment operable to communicate with at least one ground station and a plurality of user terminals (912, 914) to provide communication service to the plurality of user terminals (912, 914); and the orbit being oriented relative to the Earth to provide continuous satellite visibility between at least one of the plurality of satellites and a ground station in at least one targeted geographic region of the Earth on at least one repeating sky track relative to the at least one ground station, wherein the orbit for each of the plurality of satellites is oriented relative to the Earth to provide continuous satellite visibility to a ground station in a targeted geographic region of the Earth on a first repeating sky track and a second repeating sky track relative to the ground station, wherein the first repeating sky track is different than the second repeating sky track and comprise a different visible satellite in each respective one of the first sky track and the second sky track in any given time; wherein the orbit is an elliptical orbit having an eccentricity of about 0.26. a plurality of satellites each traveling about the Earth in an orbit such that all of the plurality of satellites has an orbital period that is an integer factor of a sidereal day and all of the plurality of satellites follows a single repeating ground track relative to the surface of the Earth; each of the plurality of satellites including communication equipment operable to communicate with at least one ground station and a plurality of user terminals (912, 914) to provide communication service to the plurality of user terminals (912, 914); and the orbit being oriented relative to the Earth to provide continuous satellite visibility between at least one of the plurality of satellites and a ground station in at least one targeted geographic region of the Earth on at least one repeating sky track relative to the at least one ground station, wherein the orbit for each of the plurality of satellites is oriented relative to the Earth to provide continuous satellite visibility to a ground station in a targeted geographic region of the Earth on a first repeating sky track and a second repeating sky track relative to the ground station, wherein the first repeating sky track is different than the second repeating sky track and comprise a different visible satellite in each respective one of the first sky track and the second sky track in any given time; wherein the orbit is an elliptical orbit having an eccentricity of about 0.26.
A support bracket for securing a wire basket to a threaded rod secured to a ceiling in a wire basket system, the support bracket comprising: a main member having a top, a bottom, a first end, a second end, a first side, and a second side; a first arm extending downwardly from the first side of the main member, the first arm including a J-shaped hook; and a second arm extending downwardly from the second side of the main member, the second arm including a J-shaped hook; wherein the first end of the main member has an outer edge, wherein a latch extends at an angle away from the outer edge of the first end of the main member, whereby the J-shaped hook of the first arm and the J-shaped hook of the second arm are aligned enabling the support bracket to receive a wire (104, 106, 108) of the wire basket in the wire basket system, wherein the support bracket is arranged to be positioned below the wire, when the wire is positioned against the outer edge of the main member above the J-hooks in the first and second arms, and wherein the support bracket is arranged to be raised and snapped on to the wire, the latch being arranged to engage the wire. a main member having a top, a bottom, a first end, a second end, a first side, and a second side; a first arm extending downwardly from the first side of the main member, the first arm including a J-shaped hook; and a second arm extending downwardly from the second side of the main member, the second arm including a J-shaped hook; wherein the first end of the main member has an outer edge, wherein a latch extends at an angle away from the outer edge of the first end of the main member, whereby the J-shaped hook of the first arm and the J-shaped hook of the second arm are aligned enabling the support bracket to receive a wire (104, 106, 108) of the wire basket in the wire basket system, wherein the support bracket is arranged to be positioned below the wire, when the wire is positioned against the outer edge of the main member above the J-hooks in the first and second arms, and wherein the support bracket is arranged to be raised and snapped on to the wire, the latch being arranged to engage the wire.
A compound with a general formula or formula as following: Wherein A represent a substituted or unsubstituted phenyl group, a substituted or unsubstituted naphthyl group. X 1 to X 4 independently represent a divalent bridge selected from the atom or group consisting from O, S, C(R 5)(R 6), N(Ar), Si(R 7)(R 8). p represent an integer of 0 to 10. q represent an integer of 0 to 4. R 1 to R 8, and Ar independently selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group having 1 to 30 carbon atoms, a substituted or unsubstituted aryl group having 6 to 50 carbon atoms, a substituted or unsubstituted aralkyl group having 6 to 50 carbon atoms, a substituted or unsubstituted heteroaryl group having 3 to 50 carbon atoms.
A method of repairing a core stiffened structure, the method comprising: removing a damaged portion of the core stiffened structure; bonding a shelf onto a first core member; bonding a second core member having a plurality of cells to the shelf; depositing a foam mixture into a cell of the second core member; allowing the foam mixture to expand and fill the plurality of cells in the second core member so as to form an expanded foam; trimming the expanded foam; and securing a skin patch over the second core member. removing a damaged portion of the core stiffened structure; bonding a shelf onto a first core member; bonding a second core member having a plurality of cells to the shelf; depositing a foam mixture into a cell of the second core member; allowing the foam mixture to expand and fill the plurality of cells in the second core member so as to form an expanded foam; trimming the expanded foam; and securing a skin patch over the second core member.
A heat-recoverable article having a cylindrical shape, the heat-recoverable article comprising a base material layer, wherein the base material layer contains a polyolefin-based resin, in the base material layer after being heated at 180°C for 2 minutes, a melting-point peak temperature is 115°C or higher and 128°C or lower, a heat of fusion of a total resin component is 80 J/g or more and 150 J/g or less, a storage modulus at 120°C is 4 MPa or more, a gel fraction is 40% by mass or more and 80% by mass or less, and a storage modulus at 180°C is 0.5 MPa or more and less than 3.0 MPa, wherein the polyolefin-based resin is a mixture of a first polyolefin-based resin having a melting point of 125°C or higher and 135°C or lower and a second polyolefin-based resin having a melting point of lower than 125°C, and a mass ratio of the first polyolefin-based resin to the second polyolefin-based resin is 80/20 or more and 85/15 or less, and wherein the first polyolefin-based resin is a high-density polyethylene.
A cylinder which comprises - at least one body in which a fluid fuel is stored; - at least one valve located on the body for conveying fluid fuel into or from the body; - at least one handle located on the body; - at least one collar connecting the said handle to the body; - at least one identifier located on the said collar and having thereon at least a first visual code specific to the cylinder it is connected; and - at least a second visual code; characterized in that the cylinder further comprises at least one cover on the said valve, and the first visual code is in the form of a barcode or a two-dimensional code whereas the second visual code, located on the said cover, is in the form of barcode or a two-dimensional code and in the form of a code which is different from the first visual code and to be matched with the first visual code. - at least one body in which a fluid fuel is stored; - at least one valve located on the body for conveying fluid fuel into or from the body; - at least one handle located on the body; - at least one collar connecting the said handle to the body; - at least one identifier located on the said collar and having thereon at least a first visual code specific to the cylinder it is connected; and - at least a second visual code;
A method of logging location information being performed by a terminal, comprising: determining location of the terminal; determining whether there is a change in the location of the terminal; and storing the location of the terminal if a change in location is detected, characterized in that the determining the location of the terminal is performed periodically and comprises determining the location of the terminal during paging slots in which the terminal detects for pages from a wireless network. determining location of the terminal; determining whether there is a change in the location of the terminal; and storing the location of the terminal if a change in location is detected,
Measurement system comprising (10; 30; 50; 60): a placement structure configured to hold a device under test, DuT; a sensor array configured to sense an electromagnetic radiation from the DuT at a radio frequency; and a beam pattern manipulator structure effective at the radio frequency configured to manipulate a beam of the electromagnetic radiation, the beam traveling between the DuT and the sensor array; wherein the beam pattern manipulator structure comprises a lens structure (24; 24a-e) configured to change the width of the beam when traveling along a radiation direction through the lens structure (24; 24a-e), characterized in that the lens structure (24; 24a-e) comprises a varying shape along a lens direction perpendicular to the radiation direction such that at varying positions of the lens structure along the lens direction between the DuT and the sensor array, a varying effect of the lens structure (24; 24a-e) with respect to the beam is obtained; wherein the measurement system comprises an actuator configured to move the beam pattern manipulator structure (24; 24a-e) with respect to the DuT so as to vary the change of the width of the beam. a placement structure configured to hold a device under test, DuT; a sensor array configured to sense an electromagnetic radiation from the DuT at a radio frequency; and a beam pattern manipulator structure effective at the radio frequency configured to manipulate a beam of the electromagnetic radiation, the beam traveling between the DuT and the sensor array; wherein the beam pattern manipulator structure comprises a lens structure (24; 24a-e) configured to change the width of the beam when traveling along a radiation direction through the lens structure (24; 24a-e), characterized in that the lens structure (24; 24a-e) comprises a varying shape along a lens direction perpendicular to the radiation direction such that at varying positions of the lens structure along the lens direction between the DuT and the sensor array, a varying effect of the lens structure (24; 24a-e) with respect to the beam is obtained; wherein the measurement system comprises an actuator configured to move the beam pattern manipulator structure (24; 24a-e) with respect to the DuT so as to vary the change of the width of the beam.
Method for the irreversible generation and dosage of hydrogen in a LED light bulb comprising a step of heating an irreversible hydrogen dispenser containing at least an active material for hydrogen release, characterized in that said active material for hydrogen release is: • one or more material A selected in the group consisting of LiH, NaH, MgH 2, CaH 2, LiAlH 4, LiBH 4, NaAlH 4, their sub-stoichiometric compounds containing at least one third of the hydrogen amount contained in the corresponding stoichiometric compounds, and mixtures thereof; or • a mixture between: - one or more material B selected in the group consisting of TiH 2, ZrH 4, YH 2, ZrCr (2-x) Mn (x) H 2, LaNi (5-y) Al y H (6+z), LaNi (5-y)Sn y H (6+z), and their sub-stoichiometric compounds containing at least one third of the hydrogen amount contained in the corresponding stoichiometric compounds, wherein x is comprised between 0 and 2, y is comprised between 0 and 0,25 and z is comprised between 0 and 0,5; and - one or more material C selected in the group consisting of Al, Sn, AINi, AISi, CuAl, CuSn; and/or one or more material A; characterized in that the sum of W A + W B is at least 5 mg/dm 3 of the LED light bulb volume, and in that the ratio W B /(W A +9*W C) is comprised between 0 and 0,8, more preferably between 0 and 0,6; wherein W A is the weight of materials A in mg/dm 3 of the LED light bulb volume, W B is the weight of materials B in mg/dm 3 of the LED light bulb volume and W C is the weight of materials C in mg/dm 3 of the LED light bulb volume. • one or more material A selected in the group consisting of LiH, NaH, MgH 2, CaH 2, LiAlH 4, LiBH 4, NaAlH 4, their sub-stoichiometric compounds containing at least one third of the hydrogen amount contained in the corresponding stoichiometric compounds, and mixtures thereof; or • a mixture between: - one or more material B selected in the group consisting of TiH 2, ZrH 4, YH 2, ZrCr (2-x) Mn (x) H 2, LaNi (5-y) Al y H (6+z), LaNi (5-y)Sn y H (6+z), and their sub-stoichiometric compounds containing at least one third of the hydrogen amount contained in the corresponding stoichiometric compounds, wherein x is comprised between 0 and 2, y is comprised between 0 and 0,25 and z is comprised between 0 and 0,5; and - one or more material C selected in the group consisting of Al, Sn, AINi, AISi, CuAl, CuSn; and/or one or more material A; - one or more material B selected in the group consisting of TiH 2, ZrH 4, YH 2, ZrCr (2-x) Mn (x) H 2, LaNi (5-y) Al y H (6+z), LaNi (5-y)Sn y H (6+z), and their sub-stoichiometric compounds containing at least one third of the hydrogen amount contained in the corresponding stoichiometric compounds, wherein x is comprised between 0 and 2, y is comprised between 0 and 0,25 and z is comprised between 0 and 0,5; and - one or more material C selected in the group consisting of Al, Sn, AINi, AISi, CuAl, CuSn; and/or one or more material A;
A detection system for detecting an object on a water surface, the detection system comprising: a radio detection and ranging device for coarsely detecting a target water surface area with the object; and a laser detection and ranging device for detecting the object within the target water surface area, wherein the laser detection and ranging device comprises a laser transmitter for transmitting a modulated laser beam having an oval-shaped laser beam cross-section towards the target water surface area, the modulated laser beam being modulated by a binary pseudo-random coding sequence which is modulated by a square wave sequence, wherein the rate of the square wave sequence is lower than the rate of the binary pseudo-random coding sequence, the laser transmitter being configured to transmit the modulated laser beam having the oval-shaped laser beam cross-section, a laser detector for detecting a reflected laser beam, the reflected laser beam forming a reflected version of the transmitted modulated laser beam, and a processor for detecting the object within the target water surface area upon the basis of the reflected laser beam, wherein the laser detection and ranging device is configured to scan the target water surface area along a horizontal plane for detecting an azimuth of the object within the target water surface area with respect to the detection system, and a vertical plane for detecting an elevation of the object within the target water surface area with respect to the detection system. a radio detection and ranging device for coarsely detecting a target water surface area with the object; and a laser detection and ranging device for detecting the object within the target water surface area, wherein the laser detection and ranging device comprises a laser transmitter for transmitting a modulated laser beam having an oval-shaped laser beam cross-section towards the target water surface area, the modulated laser beam being modulated by a binary pseudo-random coding sequence which is modulated by a square wave sequence, wherein the rate of the square wave sequence is lower than the rate of the binary pseudo-random coding sequence, the laser transmitter being configured to transmit the modulated laser beam having the oval-shaped laser beam cross-section, a laser detector for detecting a reflected laser beam, the reflected laser beam forming a reflected version of the transmitted modulated laser beam, and a processor for detecting the object within the target water surface area upon the basis of the reflected laser beam, wherein the laser detection and ranging device is configured to scan the target water surface area along a horizontal plane for detecting an azimuth of the object within the target water surface area with respect to the detection system, and a vertical plane for detecting an elevation of the object within the target water surface area with respect to the detection system.
A method of call establishment between user equipment operating as a client in an internet communication environment, and mobile user equipment (2, 3) operating as a client in a mobile communication environment,, characterized in that said method comprises the steps of: - emulating said mobile communication user equipment (2, 3) as a client in said internet communication environment, - representing in said internet communication environment a status of said mobile communication user equipment (2, 3) emulated as said client in said internet communication environment, - establishing a call with said mobile communication user equipment (2, 3) as a client in said internet communication environment - providing an internet communication identity adapted for identification in said internet communication environment of said mobile communication user equipment (2, 3) emulated as said client in said internet communication environment, and - binding said internet communication identity to a mobile communication identity of said mobile communication user equipment (2, 3) used for identification in said mobile communication environment, - emulating said mobile communication user equipment (2, 3) as a client in said internet communication environment, - representing in said internet communication environment a status of said mobile communication user equipment (2, 3) emulated as said client in said internet communication environment, - establishing a call with said mobile communication user equipment (2, 3) as a client in said internet communication environment - providing an internet communication identity adapted for identification in said internet communication environment of said mobile communication user equipment (2, 3) emulated as said client in said internet communication environment, and - binding said internet communication identity to a mobile communication identity of said mobile communication user equipment (2, 3) used for identification in said mobile communication environment,
An aircraft including a moisture control system, a support beam and an insulation layer positioned between an outer wall and inner wall of the aircraft, the support beam extending through the insulation layer, the moisture control system comprising: a moisture path close-out structure coupled to the insulation layer at an aperture defined through the insulation layer, the moisture path close-out structure including an opening substantially aligned with the aperture and configured to receive the support beam therethrough; and a coupling mechanism configured to secure the moisture path close-out structure to the support beam such that the moisture path close-out structure is partially pulled away from the insulation layer, the coupling mechanism and the moisture path close-out structure configured to direct liquid flow down and away from the support beam and along an outboard surface of the insulation layer; wherein the moisture path close-out structure is coupled to the insulation layer facing the outer wall, wherein the coupling mechanism is configured to partially pull the moisture path close-out structure away from the insulation layer and towards the outer wall, when the moisture path close-out structure is secured to the support beam. a moisture path close-out structure coupled to the insulation layer at an aperture defined through the insulation layer, the moisture path close-out structure including an opening substantially aligned with the aperture and configured to receive the support beam therethrough; and a coupling mechanism configured to secure the moisture path close-out structure to the support beam such that the moisture path close-out structure is partially pulled away from the insulation layer, the coupling mechanism and the moisture path close-out structure configured to direct liquid flow down and away from the support beam and along an outboard surface of the insulation layer; wherein the moisture path close-out structure is coupled to the insulation layer facing the outer wall, wherein the coupling mechanism is configured to partially pull the moisture path close-out structure away from the insulation layer and towards the outer wall, when the moisture path close-out structure is secured to the support beam.