mhurhangee/ep-ind-claims huggingface dataset:
An ink set, comprising a plurality of types of inks to be discharged from an inkjet printing device, and the ink set comprising: a color UV ink, containing an ultraviolet-curable resin and a colorant but containing no metallic particle, wherein the color UV ink is adapted to dry very quickly and form the print pattern in a different color; and a solvent UV ink, containing an ultraviolet-curable resin, a solvent, and metallic particles, wherein the solvent UV ink comprises the solvent in a content of greater than or equal to 10% by weight and less than or equal to 90% by weight, and wherein the solvent UV ink is adapted form the print pattern in the metallic color, such that the metallic particles are uniformly oriented in the print pattern after the solvent is removed from the solvent UV ink on the recording medium to form a print pattern which excels in glossiness; and wherein the metallic particles are dispersed in a solution obtained by dissolving the UV-curable resin in the organic solvent, whereby the organic solvent contained in the solvent UV ink is a solvent in which the UV-curable resin is soluble and which is volatilized by heating and drying the solvent ink. a color UV ink, containing an ultraviolet-curable resin and a colorant but containing no metallic particle, wherein the color UV ink is adapted to dry very quickly and form the print pattern in a different color; and a solvent UV ink, containing an ultraviolet-curable resin, a solvent, and metallic particles, wherein the solvent UV ink comprises the solvent in a content of greater than or equal to 10% by weight and less than or equal to 90% by weight, and wherein the solvent UV ink is adapted form the print pattern in the metallic color, such that the metallic particles are uniformly oriented in the print pattern after the solvent is removed from the solvent UV ink on the recording medium to form a print pattern which excels in glossiness; and wherein the metallic particles are dispersed in a solution obtained by dissolving the UV-curable resin in the organic solvent, whereby the organic solvent contained in the solvent UV ink is a solvent in which the UV-curable resin is soluble and which is volatilized by heating and drying the solvent ink.
A method for channel control in a wireless video area network by a coordinator apparatus, wherein the available channels include High-Rate PHY, HRP, channels which support single direction transmission and are used to transmit video data, and Low-Rate PHY, LRP, channels, which support bi-direction transmission and are used to transmit control data, wherein m HRP channels in a general frequency band are defined, and n corresponding LRP channels are defined for each of the HRP channels and in the same frequency band, wherein Time Division Multiplex, TDM, scheduling is applied to LRP and HRP communication channels; characterized by comprising the steps of: scanning LRP channels first; selectively scanning only those HRP channels within which all corresponding LRP channels have smaller LRP peak energy detection values than a specified LRP interference threshold; selecting a HRP channel having a minimum HRP peak energy detection value among the scanned HRP channels, wherein said minimum HRP peak energy detection value is smaller than a HRP interference threshold; selecting a LRP channel with a minimal LRP peak energy detection value among the n LRP channels within the selected HRP channel; determining if the selected LRP channel remains available for a listening period; and if the selected LRP channel remains available, then starting communication on the selected LRP channel. scanning LRP channels first; selectively scanning only those HRP channels within which all corresponding LRP channels have smaller LRP peak energy detection values than a specified LRP interference threshold; selecting a HRP channel having a minimum HRP peak energy detection value among the scanned HRP channels, wherein said minimum HRP peak energy detection value is smaller than a HRP interference threshold; selecting a LRP channel with a minimal LRP peak energy detection value among the n LRP channels within the selected HRP channel; determining if the selected LRP channel remains available for a listening period; and if the selected LRP channel remains available, then starting communication on the selected LRP channel.
A separator-equipped air electrode for a metal-air battery, the separator-equipped air electrode comprising: a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; an air electrode layer disposed above the separator, the air electrode layer comprising an air electrode catalyst and an electron-conductive material, or comprising an air electrode catalyst also serving as an electron-conductive material; and an intermediate layer disposed between the separator and the air electrode layer, improving the adhesion between the separator and the air electrode layer, and exhibiting hydroxide ion conductivity, wherein the intermediate layer comprises a polymer material having hydroxide ion conductivity, or the polymer material having hydroxide ion conductivity and a ceramic material, and the ceramic material has hydroxide ion conductivity, or an organic binder and a ceramic material, and the ceramic material has hydroxide ion conductivity. a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; an air electrode layer disposed above the separator, the air electrode layer comprising an air electrode catalyst and an electron-conductive material, or comprising an air electrode catalyst also serving as an electron-conductive material; and an intermediate layer disposed between the separator and the air electrode layer, improving the adhesion between the separator and the air electrode layer, and exhibiting hydroxide ion conductivity, wherein the intermediate layer comprises a polymer material having hydroxide ion conductivity, or the polymer material having hydroxide ion conductivity and a ceramic material, and the ceramic material has hydroxide ion conductivity, or an organic binder and a ceramic material, and the ceramic material has hydroxide ion conductivity.
A gear pair comprising a first gear and a second gear that are engaged and paired with each other, characterized in - that an arithmetic average roughness Ra of a tooth surface of the first gear is less than 0.10 μm, - that an arithmetic average roughness Ra of a tooth surface of the second gear is equal to or greater than 0.15 μm, and - that the number of teeth of the first gear is less than the number of teeth of the second gear. - that an arithmetic average roughness Ra of a tooth surface of the first gear is less than 0.10 μm, - that an arithmetic average roughness Ra of a tooth surface of the second gear is equal to or greater than 0.15 μm, and - that the number of teeth of the first gear is less than the number of teeth of the second gear.
A release liner comprising a paper substrate of which at least one surface is coated with a surface treating layer containing at least one water-soluble polymeric backbone characterized in that the water-soluble polymeric backbone has hydroxyl functions at least some of which have been reacted beforehand with at least one organic molecule that contains a vinylic function and an aldehyde function.
Method for controlling the divergence of a jet of particles under vacuum with an aerodynamic lens, said aerodynamic lens (100, 100') comprising: - n chambers (10 to 14) with n ≥ 2, said chambers being separated from each other by a non-removable diaphragm and having a given non-adjustable diameter; - a diaphragm, referred to as the entry diaphragm, intended to form an entry of the aerodynamic lens for a jet of particles, said entry diaphragm having a given diameter (d 1); and - another diaphragm, referred to as the exit diaphragm, intended to form an exit of the aerodynamic lens for this jet of particles, said exit diaphragm having an adjustable diameter; said method comprising: - a step of generating the jet of particles from the entry to the exit, under vacuum, of the aerodynamic lens (100, 100'); and - a step of adjusting the diameter (d s) of the exit diaphragm in order to control the divergence of the jet of particles. - n chambers (10 to 14) with n ≥ 2, said chambers being separated from each other by a non-removable diaphragm and having a given non-adjustable diameter; - a diaphragm, referred to as the entry diaphragm, intended to form an entry of the aerodynamic lens for a jet of particles, said entry diaphragm having a given diameter (d 1); and - another diaphragm, referred to as the exit diaphragm, intended to form an exit of the aerodynamic lens for this jet of particles, said exit diaphragm having an adjustable diameter; - a step of generating the jet of particles from the entry to the exit, under vacuum, of the aerodynamic lens (100, 100'); and - a step of adjusting the diameter (d s) of the exit diaphragm in order to control the divergence of the jet of particles.
A wireless local area network, WLAN, association method, comprising: receiving, by a central access point, AP, multiple association requests, wherein the multiple association requests are from at least two APs receiving the association request sent by a terminal, and the multiple association requests have a same basic service set identifier, BSSID; selecting, by the central AP, one association request from the multiple association requests as a to-be-replied association request; and sending, by the central AP, a first association response to a to-be-associated AP, wherein the first association response is a reply to the to-be-replied association request, and the to-be-associated AP is an AP in the at least two APs that sends the to-be-replied association request; wherein the selecting one association request from the multiple association requests as a to-be-replied association request comprises: obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength. receiving, by a central access point, AP, multiple association requests, wherein the multiple association requests are from at least two APs receiving the association request sent by a terminal, and the multiple association requests have a same basic service set identifier, BSSID; selecting, by the central AP, one association request from the multiple association requests as a to-be-replied association request; and sending, by the central AP, a first association response to a to-be-associated AP, wherein the first association response is a reply to the to-be-replied association request, and the to-be-associated AP is an AP in the at least two APs that sends the to-be-replied association request; wherein the selecting one association request from the multiple association requests as a to-be-replied association request comprises: obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength. obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength.
Glove for a user's hand, the glove comprising a group of tubular housings (11, 12, 13, 14) for fingers of the hand, said group of tubular housings being composed of a first housing for an index finger, a second housing for a middle finger, a third housing for a ring finger, and a fourth housing for a little finger, each of said tubular housings (11, 12, 13, 14) in a rest condition having a pre-curvature which defines a curved position for the respective finger, wherein at least one tubular housing (11, 12, 13, 14) of said group has a pre-curvature which is different from a pre-curvature of at least another tubular housing (11, 12, 13, 14) of said group, the glove having a main body which is intended to receive a metacarpal region of the hand, said tubular housings (11, 12, 13, 14) being connected to the main body, each tubular housing (11, 12, 13, 14) having an articulation region, which during use corresponds to an articulation of the respective finger with the metacarpus, and a tip region, which during use corresponds to a tip of the respective finger, the tip region of each tubular housing (11, 12, 13, 14) forming a respective pre-curvature angle with the main body, said pre-curvature angle having a vertex in the respective articulation region and being measured with respect to an alignment condition of the tubular housing (11, 12, 13, 14) with the main body, characterised in that: the glove is a glove for a left hand, - the first housing having a pre-curvature angle (α 1) which is between 6 degrees and 26 degrees; - the second housing having a pre-curvature angle (α 2) which is between 22 degrees and 42 degrees; - the third housing having a pre-curvature angle (α 3) which is between 35 degrees and 55 degrees; - the fourth housing having a pre-curvature angle (α 4) which is between 48 degrees and 68 degrees, and/or the glove is a glove for a right hand, - the first housing having a pre-curvature angle (α 1) which is between 6 degrees and 26 degrees; - the second housing having a pre-curvature angle (α 2) which is between 27 degrees and 47 degrees; - the third housing having a pre-curvature angle (α 3) which is between 48 degrees and 68 degrees; - the fourth housing having a pre-curvature angle (α 4) which is between 65 degrees and 85 degrees. - the first housing having a pre-curvature angle (α 1) which is between 6 degrees and 26 degrees; - the second housing having a pre-curvature angle (α 2) which is between 22 degrees and 42 degrees; - the third housing having a pre-curvature angle (α 3) which is between 35 degrees and 55 degrees; - the fourth housing having a pre-curvature angle (α 4) which is between 48 degrees and 68 degrees, and/or - the first housing having a pre-curvature angle (α 1) which is between 6 degrees and 26 degrees; - the second housing having a pre-curvature angle (α 2) which is between 27 degrees and 47 degrees; - the third housing having a pre-curvature angle (α 3) which is between 48 degrees and 68 degrees; - the fourth housing having a pre-curvature angle (α 4) which is between 65 degrees and 85 degrees.
A card shuffler comprising: a deck-crib configured to contain physical playing cards arranged in a stack; a receiving rack defining mutally adjacent single-card receptacles located adjacent to the deck-crib, one of the deck-crib and the receiving rack being movable in a straight line parallel with and along the other one of the deck-crib and the receiving rack; a card mover (436, 438, 442) associated with the deck-crib and selectively operable to move ones of the playing cards from the deck-crib to selected ones of the single-card receptacles, characterised by a card presentation pusher located in operative proximity to said receiving rack; a motor operably coupled to move the card presentation pusher reciprocably between retracted and extended positions relative to the receiving rack; and a controller programmed to activate the motor to move the card presentation pusher to an extended position to contact and move a portion of at least one playing card in the receiving rack a distance out of the receiving rack to enable the at least one card to be removed manually from said receiving rack. a deck-crib configured to contain physical playing cards arranged in a stack; a receiving rack defining mutally adjacent single-card receptacles located adjacent to the deck-crib, one of the deck-crib and the receiving rack being movable in a straight line parallel with and along the other one of the deck-crib and the receiving rack; a card mover (436, 438, 442) associated with the deck-crib and selectively operable to move ones of the playing cards from the deck-crib to selected ones of the single-card receptacles, characterised by a card presentation pusher located in operative proximity to said receiving rack; a motor operably coupled to move the card presentation pusher reciprocably between retracted and extended positions relative to the receiving rack; and a controller programmed to activate the motor to move the card presentation pusher to an extended position to contact and move a portion of at least one playing card in the receiving rack a distance out of the receiving rack to enable the at least one card to be removed manually from said receiving rack.
Use of a molten salt comprising aluminium trifluoride and sodium fluoride as a primary coolant for a fission reactor; wherein the molten salt is in contact with graphite and with aluminium metal during operation of the fission reactor.
A positive electrode active substance for a secondary cell, wherein 0.3 to 5 mass% of graphite, 0.1 to 4 mass% of carbon obtained by carbonizing a water-soluble carbon material, or 0.1 to 5 mass% of a metal fluoride is supported on a composite comprising: a compound comprising at least iron or manganese, the compound being represented by formula,, or: LiFe a Mn b M 1 c PO 4... wherein M 1 represents Mg, Ca, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and a, b, and c each represent a number satisfying 0≤a≤1, 0≤b≤1, 0≤c≤0.2, 2a + 2b + (valence of M 1) × c = 2, and a + b ≠ 0; Li 2 Fe d Mn e M 2 f SiO 4... wherein M 2 represents Ni, Co, Al, Zn, V, or Zr, and d, e, and f each represent a number satisfying 0≤d≤1, 0≤e≤1, 0≤f<1, 2d + 2e + (valence of M 2) × f = 2, and d + e ≠ 0; and NaFe g Mn h Q i PO 4... wherein Q represents Mg, Ca, Co, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and g, h, and i each represent a number satisfying 0≤g≤1, 0≤h≤1, 0≤i<1, 2g + 2h + (valence of Q) × i = 2, and g + h # 0; and carbon obtained by carbonizing a cellulose nanofiber. a compound comprising at least iron or manganese, the compound being represented by formula,, or: LiFe a Mn b M 1 c PO 4... wherein M 1 represents Mg, Ca, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and a, b, and c each represent a number satisfying 0≤a≤1, 0≤b≤1, 0≤c≤0.2, 2a + 2b + (valence of M 1) × c = 2, and a + b ≠ 0; Li 2 Fe d Mn e M 2 f SiO 4... wherein M 2 represents Ni, Co, Al, Zn, V, or Zr, and d, e, and f each represent a number satisfying 0≤d≤1, 0≤e≤1, 0≤f<1, 2d + 2e + (valence of M 2) × f = 2, and d + e ≠ 0; and NaFe g Mn h Q i PO 4... wherein Q represents Mg, Ca, Co, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and g, h, and i each represent a number satisfying 0≤g≤1, 0≤h≤1, 0≤i<1, 2g + 2h + (valence of Q) × i = 2, and g + h # 0; and carbon obtained by carbonizing a cellulose nanofiber.
A process for preparing a polycarbonate diol diacrylate which comprises reacting a polycarbonate diol represented by the formula: wherein R 1 is the same or different, each represents a divalent group comprising one or more linear, branched or cyclic alkylene group, the divalent group may have a substituent(s), and/or one or more non-terminal carbon atoms may be replaced by a divalent aromatic group, a divalent heterocyclic group, an oxygen atom or a sulfur atom, or represents a divalent cross-linked carbon ring group, n represents an average polymerization degree, and a number of 1 to 50, with a vinyl acrylate compound represented by the formula: wherein R 2 represents a hydrogen atom or a linear or branched alkyl group having 1 to 4 carbon atoms, R 3 represents a hydrogen atom or a linear, branched or cyclic alkyl group having 1 to 10 carbon atoms in the presence of a hydrolase. R 1 is the same or different, each represents a divalent group comprising one or more linear, branched or cyclic alkylene group, the divalent group may have a substituent(s), and/or one or more non-terminal carbon atoms may be replaced by a divalent aromatic group, a divalent heterocyclic group, an oxygen atom or a sulfur atom, or represents a divalent cross-linked carbon ring group, n represents an average polymerization degree, and a number of 1 to 50, with a vinyl acrylate compound represented by the formula: wherein R 2 represents a hydrogen atom or a linear or branched alkyl group having 1 to 4 carbon atoms, R 3 represents a hydrogen atom or a linear, branched or cyclic alkyl group having 1 to 10 carbon atoms in the presence of a hydrolase.
A method for sequencing a biomolecule having a plurality of monomers, comprising: (a) directing said biomolecule through a channel including a plurality of sets of nanogap electrodes, wherein each set of said plurality of sets of nanogap electrodes includes two directly oppositely arranged nanogap electrodes having an inter-electrode distance, the biomolecule being passed through between the two nanogap electrodes, and wherein at least a subset of said plurality of sets of nanogap electrodes has different inter-electrode distances; (b) measuring signals with said plurality of sets of nanogap electrodes that correspond to nanocurrents as said biomolecule is directed through said channel, which signals correspond to said plurality of monomers of said biomolecule; and (c) identifying with a computer processor said plurality of monomers by comparing said signals measured in (b) to one or more references. (a) directing said biomolecule through a channel including a plurality of sets of nanogap electrodes, wherein each set of said plurality of sets of nanogap electrodes includes two directly oppositely arranged nanogap electrodes having an inter-electrode distance, the biomolecule being passed through between the two nanogap electrodes, and wherein at least a subset of said plurality of sets of nanogap electrodes has different inter-electrode distances; (b) measuring signals with said plurality of sets of nanogap electrodes that correspond to nanocurrents as said biomolecule is directed through said channel, which signals correspond to said plurality of monomers of said biomolecule; and (c) identifying with a computer processor said plurality of monomers by comparing said signals measured in (b) to one or more references.
A ventricular assist device for a human heart comprising: a stent having a cylindrical stent wall with an inner surface defining a flow path and an outer surface sized for placement within a blood vessel; a rotor including an outer surface facing the inner surface of the stent wall and defined in part by at least one blade angled with respect to the flow path, a power source operatively coupled to windings; and a controller operatively coupled to the power source to selectively control the power source to vary the rotational speed of the rotor, characterised by a stator disposed within the stent, the stator having a plurality of support struts connected to the stator and disposable against the inner surface of the stent wall to position the stator within the stent; said rotor being rotatably mounted on the stator between the inner surface of the stent and the stator, one of the rotor and the stator comprising a field magnet and the other of the rotor and the stator comprising said windings. a stent having a cylindrical stent wall with an inner surface defining a flow path and an outer surface sized for placement within a blood vessel; a rotor including an outer surface facing the inner surface of the stent wall and defined in part by at least one blade angled with respect to the flow path, a power source operatively coupled to windings; and a controller operatively coupled to the power source to selectively control the power source to vary the rotational speed of the rotor, characterised by a stator disposed within the stent, the stator having a plurality of support struts connected to the stator and disposable against the inner surface of the stent wall to position the stator within the stent; said rotor being rotatably mounted on the stator between the inner surface of the stent and the stator, one of the rotor and the stator comprising a field magnet and the other of the rotor and the stator comprising said windings.