mhurhangee/ep-ind-claims huggingface dataset:
Method for using a user equipment with a first public land mobile network and with a second public land mobile network, wherein the user equipment is a DSDS user equipment, Dual SIM dual standby user equipment, wherein the first public land mobile network is a registered public land mobile network to the user equipment and wherein the second public land mobile network is also a registered public land mobile network to the user equipment, wherein a first mode of operation of the user equipment corresponds, with respect to the first public land mobile network, to the use of a discontinuous reception scheme in an idle mode of the user equipment and, with respect to the second public land mobile network, to an idle mode of the user equipment, wherein in the discontinuous reception scheme of the user equipment, a paging occasion time interval is defined by means of: -- a time interval corresponding to a discontinuous reception cycle length, and -- a paging time within the time interval such that, in the discontinuous reception scheme, the user equipment needs only to monitor a paging channel during the paging occasion time interval, said method characterized in that a second mode of operation of the user equipment corresponds, with respect to the first public land mobile network, to the use of the discontinuous reception scheme in the idle mode of the user equipment, and, with respect to the second public land mobile network, to a connected mode of the user equipment, wherein, either during changing to the connected mode of the user equipment in the second mode of operation or during the second mode of operation of the user equipment, a timing information is transmitted from the user equipment to the second public land mobile network, the timing information being indicative of the paging occasion time interval, such that in the second mode of operation of the user equipment, during the transmission of data from the second public land mobile network to the user equipment, the transmission of data is prevented during the paging occasion time interval. -- a time interval corresponding to a discontinuous reception cycle length, and -- a paging time within the time interval such that, in the discontinuous reception scheme, the user equipment needs only to monitor a paging channel during the paging occasion time interval,
A method comprising: determining by a transmission opportunity holding station (14, 15, 16) for an IEEE 802.11 based network whether said station intends to receive a notification on a channel from an access node for an IEEE 802.11 based network regarding a completion of data transmission; based upon the determining, selecting by said station a value for a parameter; and transmitting by said station an indication of completion of data transmission on the channel to the access node, wherein the indication of completion of data transmission comprises the parameter. determining by a transmission opportunity holding station (14, 15, 16) for an IEEE 802.11 based network whether said station intends to receive a notification on a channel from an access node for an IEEE 802.11 based network regarding a completion of data transmission; based upon the determining, selecting by said station a value for a parameter; and transmitting by said station an indication of completion of data transmission on the channel to the access node, wherein the indication of completion of data transmission comprises the parameter.
A game apparatus, comprising: a game execution means for executing game processing in conformity with predetermined setting information including a game program, and terminating the game processing in progress in response to a temporary interruption command from a user; a storage control means for restoring a state at the time of game termination by the game execution means and storing in a storage means interruption information allowing resumption of the game processing in conformity with the temporary interruption command from the user; and a setting changing means for changing the predetermined setting information in response to a change command from the user, wherein the storage control means deletes the interruption information stored in the storage means in accordance with setting change carried out by the setting changing means. a game execution means for executing game processing in conformity with predetermined setting information including a game program, and terminating the game processing in progress in response to a temporary interruption command from a user; a storage control means for restoring a state at the time of game termination by the game execution means and storing in a storage means interruption information allowing resumption of the game processing in conformity with the temporary interruption command from the user; and a setting changing means for changing the predetermined setting information in response to a change command from the user, wherein the storage control means deletes the interruption information stored in the storage means in accordance with setting change carried out by the setting changing means.
A composition for in-situ formation of a layer over the skin of a subject, wherein said composition is a two-part composition comprising a first and a second part; wherein said first part comprises as ingredients: Polymer A, which is one or more organopolysiloxane(s) having on average at least two alkenyl-functional groups and having a viscosity of 10,000 to 2,000,000 cSt at 25°C; Polymer B, which is one or more organopolysiloxane(s) having on average at least two Si-H units and having a viscosity of 2 to 500,000 cSt at 25°C; wherein said second part comprises as ingredients: a catalyst that facilitates crosslinking of the Polymers A and B; and Polymer C, which is one or more organopolysiloxane(s) having on average at least one alkenyl-functional group and having a viscosity of 0.7 to 10,000 cSt at 25°C. Polymer A, which is one or more organopolysiloxane(s) having on average at least two alkenyl-functional groups and having a viscosity of 10,000 to 2,000,000 cSt at 25°C; Polymer B, which is one or more organopolysiloxane(s) having on average at least two Si-H units and having a viscosity of 2 to 500,000 cSt at 25°C; a catalyst that facilitates crosslinking of the Polymers A and B; and Polymer C, which is one or more organopolysiloxane(s) having on average at least one alkenyl-functional group and having a viscosity of 0.7 to 10,000 cSt at 25°C.
An organic hydride production apparatus comprising a solid polymer electrolyte membrane having proton conductivity, a porous cathode which is provided on one surface of the solid polymer electrolyte membrane and generates a hydride by reducing a substance to be hydrogenated, a cathode chamber which houses the porous cathode and is supplied with the substance to be hydrogenated, an electrode catalyst-containing anode which is provided on the other surface of the solid polymer electrolyte membrane and generates protons by oxidizing water, an anode chamber which houses the anode and is supplied with an electrolytic solution, an inlet in the lower end of the cathode chamber through which the substance to be hydrogenated is supplied, a hydride outlet at the upper end of the cathode chamber through which a product, unreacted material of the substance to be hydrogenated and by-product hydrogen are discharged, and at least one partition is provided orthogonal to the flow channel of the porous cathode at a pitch of 1 to 5 mm and with a width of 0.1 to 1 mm inside the cathode chamber, and the partition is formed in at least the upper portion of the cathode chamber, and an area of a portion having the partition is not more than 20% of the effective projected electrode area.
A structure for a header-plate-less heat exchanger, the structure including flat tubes having a protruding part whose both ends protrude in a thickness direction, the flat tubes being in contact and secured to each other to form a core at the protruding part, and a pair of tanks having openings connected to both ends of the core, wherein each tank is formed in a square shape in cross section and formed of an upper end plate part and a lower end plate part respectively located at both upper and lower ends in a stacking direction of the flat tubes, and a pair of side plate parts orthogonal to the upper end plate part and the lower end plate part; and wherein the upper end plate part and the lower end plate part protrude towards a core side from said side plate parts to form an upper fitting part and a lower fitting part, characterized in that the upper fitting part and the lower fitting part are fitted in, in a state where an outer surface of the upper fitting part contacts with an inner surface of an upper side part of an extending and opening part of an uppermost flat tube of the core in a stacking direction and, further, an outer surface of the lower fitting part contacts with an inner surface of a lower side part of an extending and opening part of a lowermost flat tube of the core, and wherein at the upper and lower fitting parts (8, 9), the core and the tank are soldered and secured to each other.
An energy recovery device comprising: a drive mechanism; an engine comprising a plurality of Shape Memory Alloy elements or Negative Thermal Expansion elements fixed at a first end and connected at a second end to the drive mechanism characterised in that the engine defines a core with a plurality of NTE or SMA elements arranged in parallel wherein a bracket is adapted to clamp the SMA or NTE elements together at one end such that the SMA or NTE elements are arranged in a bundle friction fit configuration to ensure the SMA or NTE elements are tightly packed together. a drive mechanism; an engine comprising a plurality of Shape Memory Alloy elements or Negative Thermal Expansion elements fixed at a first end and connected at a second end to the drive mechanism characterised in that the engine defines a core with a plurality of NTE or SMA elements arranged in parallel wherein a bracket is adapted to clamp the SMA or NTE elements together at one end such that the SMA or NTE elements are arranged in a bundle friction fit configuration to ensure the SMA or NTE elements are tightly packed together.
A molecular probe comprising at least one first moiety and at least one second moiety which are each covalently bound to the molecular probe, wherein: the at least one first moiety comprises at least one binding peptide or peptidomimetic for binding the molecular probe to at least one extracellular vesicle membrane, wherein the binding is mediated by EV membrane curvature sensing; the at least one second moiety comprises at least one support binding group for binding of the molecular probe to at least one support; the at least one support binding group is bound to the at least one support; and the peptide or peptidomimetic is derived from a membrane curvature sensing peptide or protein domain, wherein the peptide or peptidomimetic is derived from Bradikinin, MARCKS, Synaptotagmin, arfgap1, Synapsin or Endophilin. the at least one first moiety comprises at least one binding peptide or peptidomimetic for binding the molecular probe to at least one extracellular vesicle membrane, wherein the binding is mediated by EV membrane curvature sensing; the at least one second moiety comprises at least one support binding group for binding of the molecular probe to at least one support; the at least one support binding group is bound to the at least one support; and the peptide or peptidomimetic is derived from a membrane curvature sensing peptide or protein domain, wherein the peptide or peptidomimetic is derived from Bradikinin, MARCKS, Synaptotagmin, arfgap1, Synapsin or Endophilin.
An internal combustion engine comprising a cylinder head; an exhaust valve; a cam shaft rotatably supported on the cylinder head with an exhaust cam; and an exhaust side rocker arm; wherein the exhaust cam includes a base face and a lift face, the base face has a shape with a partial cylindrical face that is coaxial with a rotational axis (Xc) of the cam shaft, the lift face is provided to be continuous from the base face in a rotational direction and bulges further radially outward than the base face to define an amount of lift of the exhaust valve, a cam follower is provided on the exhaust side rocker arm and causes the exhaust side rocker arm to swing while maintaining contact with the base face and the lift face, a decompression cam is provided to make a curved protruding face having a generatrix parallel to the rotational axis (Xc) of the cam shaft project from an imaginary cylindrical face coaxial with the cam shaft when the rotational speed is less than a preset value, a convex decompression follower face with a convexly curved face is provided on the exhaust side rocker arm on an outer side of the imaginary cylindrical face, that faces the imaginary cylindrical face at a position closest to the imaginary cylindrical face, and that makes contact with the curved protruding face, and a concave decompression follower face is provided on the upstream of the convex decompression follower face in a normal rotational direction of the cam shaft, that is formed as a concavely curved face having a generatrix parallel to the rotational axis (Xc) of the cam shaft, and that makes contact with the curved protruding face.
A microemulsion concentrate composition comprising (i) an aqueous carrier phase comprising at least one water-soluble pesticide in solution in the carrier phase, (ii) a surfactant phase comprising (a) a surfactant component comprising at least one surfactant and (b) at least one water-insoluble agrochemical, and (iii) a water-immiscible organic solvent, wherein at least 50% by weight of the water-insoluble agrochemical is present as a solute in the surfactant component, the water-soluble pesticide concentration is at least 400 grams active equivalent per liter of the concentrate composition, the weight ratio of the water-immiscible organic solvent to the water-insoluble agrochemical on an active equivalent basis is less than 3:1, the water-soluble pesticide comprises glyphosate, dicamba, 2,4-D, MCPA, quizalofop, glufosinate, diclofop, or a combination thereof; and the water-insoluble agrochemical comprises azoxystrobin, beflubutamide, benalaxyl, benalaxyl-M, bromuconazole, clodinafop-propargyl, coumaphos, dinitriamine, dodemorph acetate, fentrazamide, flamprop-M-isopropyl, flamprop-M-methyl, flurochloridone, flutolanil, indanofan, ipconazole, kresoxim-methyl, metconazole, picoxystrobin, pyraclostrobin, tebuconazole, thenylchlor, or thiazopyr; and the at least one surfactant comprises an amphiphilic surfactant.
A cold work tool material having an annealed structure extended by hot working and including carbides, wherein the material has a composition comprising, by mass%, C: 0.80% to 2.40%, Cr: 9.0% to 15.0%, Mo and W alone or in combination in an amount of (Mo + 1/2W): 0.50% to 3.00%, V: 0.10% to 1.50%, Si: not more than 2.00%, Mn: not more than 1.50%, P: not more than 0.050%, S: not more than 0.0500%, optionally Ni: 0% to 1.00%, optionally Nb: 0% to 1.50%, optionally Cu: 0% to 0.25%, optionally Al: 0% to 0.25%, optionally Ca: 0% to 0.0100%, optionally Mg: 0% to 0.0100%, optionally O: 0% to 0.0100%, optionally N: 0% to 0.0500%, and the balance of Fe and impurities, wherein, when viewing the annealed structure in a cross section parallel to a direction extended by the hot working and perpendicular to a transverse direction, carbides having a circle equivalent diameter of not smaller than 5.0 μm have a standard deviation of a carbide orientation degree Oc, measured according to the method defined in the description, of not less than 6.0, wherein the carbide orientation degree Oc is defined by following equation: Oc = D ∗ θ where D represents a circle equivalent diameter, by μm, of a carbide, and θ represents an angle, by radian, between the extended direction and a major axis of an approximate ellipse of the carbide.
Measuring motor comprising a star member having a first number of outer teeth and an inner bore, a ring member having a second number of inner teeth, wherein the first number is smaller than the second number, a first plate and a second plate, wherein the star member forms a first sealing zone with the first plate and a second sealing zone with the second plate, and the star member is arranged to rotate and orbit around an axis of the ring member and together with the ring member and the plates (5, 6) forms pressure chambers, characterized in that the star member comprises at least one ring groove in at least one of the first sealing zone and the second sealing zone, wherein the groove is connected to the inner bore via a leakage path and to at least one of the pressure chambers at a time via a connection arrangement.
A method comprising: applying a first liquid polymer to a first surface of a substrate, the substrate having a second surface that is opposite the first surface; illuminating the first liquid polymer with light to change at least one property of the first liquid polymer and obtain a modified polymer attached to the first surface of the substrate applying a second liquid polymer to at least a portion of a surface of a Fresnel structure; applying the second surface of the substrate to an outer surface of the second liquid polymer applied to the Fresnel structure to obtain a stacked Fresnel structure; and illuminating the stacked Fresnel structure with light to obtain an immersed Fresnel structure. applying a first liquid polymer to a first surface of a substrate, the substrate having a second surface that is opposite the first surface; illuminating the first liquid polymer with light to change at least one property of the first liquid polymer and obtain a modified polymer attached to the first surface of the substrate applying a second liquid polymer to at least a portion of a surface of a Fresnel structure; applying the second surface of the substrate to an outer surface of the second liquid polymer applied to the Fresnel structure to obtain a stacked Fresnel structure; and illuminating the stacked Fresnel structure with light to obtain an immersed Fresnel structure.
A launching system for an unmanned aerial vehicle, comprising: (a) a launcher rail; (b) a shuttle configured to travel along the launcher rail; (c) a drive mechanism for moving the shuttle along the launcher rail, the drive mechanism comprising (i) a tape running along the launcher rail, (ii) an electric drive motor that drives movement of the tape, and (iii) a drive reel to which one end of the tape is secured and around which the tape is wound during launch; and (d) a rotary assembly system and a pawl, wherein the shuttle is detachably secured to the tape via the rotary assembly system and the pawl, wherein engagement of the pawl with respect to the rotary assembly maintains attachment of the shuttle to the tape, wherein release of the pawl from the rotary assembly system allows the shuttle to release from the tape. (a) a launcher rail; (b) a shuttle configured to travel along the launcher rail; (c) a drive mechanism for moving the shuttle along the launcher rail, the drive mechanism comprising (i) a tape running along the launcher rail, (ii) an electric drive motor that drives movement of the tape, and (iii) a drive reel to which one end of the tape is secured and around which the tape is wound during launch; and (d) a rotary assembly system and a pawl, wherein the shuttle is detachably secured to the tape via the rotary assembly system and the pawl, wherein engagement of the pawl with respect to the rotary assembly maintains attachment of the shuttle to the tape, wherein release of the pawl from the rotary assembly system allows the shuttle to release from the tape.
A polymer material for a lithium secondary battery comprising a polythiophene-based polymer represented by the following Formula 1 and a conductive polymer: wherein n is 70 to 280, PEG is polyethylene glycol, and when the number of ethylene oxide units of PEG is m, m is 4 to 15; wherein the conductive polymer comprises poly-(3,4-ethylenedioxythiophene):poly(styrenesulfonate); and wherein the polythiophene-based polymer and the conductive polymer are contained in a weight ratio of 95:5 to 80:20. wherein n is 70 to 280, PEG is polyethylene glycol, and when the number of ethylene oxide units of PEG is m, m is 4 to 15; wherein the conductive polymer comprises poly-(3,4-ethylenedioxythiophene):poly(styrenesulfonate); and wherein the polythiophene-based polymer and the conductive polymer are contained in a weight ratio of 95:5 to 80:20.
Device for monitoring the consumption of electric power in an electrical installation supplied by the mains grid, the installation comprising a meter as well as electrical consumer devices connected downstream at least temporarily, said meter being able to communicate, by landline or wirelessly, so that it can at least receive information, the device being characterised in that it comprises a signal transmitter for communicating with the meter and providing information about the pricing to the electric meter, said device being designed to be fitted into the installation, at least temporarily, downstream of said meter, characterised in that it is able to transmit information which can switch the meter from a first pricing mode, where the amount of power consumed is saved in a first directory, to another pricing mode where the amount of power consumed is recorded in another directory.
A deflecting system for deflecting a primary charged particle beam and for separating the primary charged particle beam from a secondary charged particle beam whose secondary charged particles are generated through interactions of the primary charged particle beam with a specimen, the deflecting system having an optical axis and comprising: - a first magnetic deflector for deflecting said primary charged particle beam by a first deflection angle (β 1) off a first direction that coincides with the optical axis of the deflecting system; - a second magnetic deflector for deflecting the primary charged particle beam by a second deflection angle (β 2) into a second direction that is essentially equal to the first direction; - a third magnetic deflector for deflecting the primary charged particle beam by a third deflection angle (β 3); and - a fourth magnetic deflector for deflecting the primary charged particle beam by a fourth deflection angle (β 4), wherein the third magnetic deflector and the fourth magnetic deflector are positioned between the first magnetic deflector and the second magnetic deflector, wherein each of the first, second, third and fourth magnetic deflectors is formed of a pair of saddle-like deflecting coils (51a; 51b) having an opening angle between 121 degrees and 124 degrees and adapted to generate a magnetic dipole field and a magnetic hexapole field, wherein the pair of saddle-like deflecting coils of each of the first, second, third and fourth magnetic deflectors is arranged symmetric with respect to a first deflection plane so that the first, second, third and fourth magnetic deflectors deflect the primary charged particle beam within the first deflection plane. - a first magnetic deflector for deflecting said primary charged particle beam by a first deflection angle (β 1) off a first direction that coincides with the optical axis of the deflecting system; - a second magnetic deflector for deflecting the primary charged particle beam by a second deflection angle (β 2) into a second direction that is essentially equal to the first direction; - a third magnetic deflector for deflecting the primary charged particle beam by a third deflection angle (β 3); and - a fourth magnetic deflector for deflecting the primary charged particle beam by a fourth deflection angle (β 4),