mhurhangee/ep-ind-claims huggingface dataset:
A mixed-metallic phosphate compound which contains as the main metal copper in the divalent oxidation state in a proportion of at least 90.0 at-% and one or more doping metals in a total proportion of the doping metals of at least 0.01 to at most 10.0 at-%, wherein the doping metals are selected from the group consisting of the elements of the first and second main groups and the eighth subgroup of the elements of the periodic table, Al, Sn, Si, Bi, Cr, Mo, Mn and the lanthanides, wherein the stated metal proportions relate to the total amount of the metals in the mixed-metallic phosphate compound and wherein the mixed-metallic compound has a phosphate content expressed as P 2 O 5 in the range of 10 to 60 wt-%.
Use of a cocoa flavanol oligomer in the manufacture of a medicament, food, nutraceutical or dietary supplement for use in treating, preventing, reducing the progression of or reducing the risk of a cognitive dysfunction in a mammal that suffers or is at risk of suffering the cognitive dysfunction, wherein the oligomer is a compound of the following formula A, or a pharmaceutically acceptable salt thereof: wherein n is an integer from 2 to 18, such that there is at least one terminal monomeric unit A, and one or a plurality of additional monomeric units; R is 3-(α)-OH, 3-(β)-OH; bonding between adjacent monomers takes place at positions selected from the group consisting of 4, 6 and 8; a bond of an additional monomeric unit in position 4 has alpha or beta stereochemistry; X, Y and Z are selected from the group consisting of monomeric units A or hydrogen, with the provisos that as to the at least one terminal monomeric unit, bonding of the additional monomeric unit thereto is at position 4 and optionally Y = Z = hydrogen. n is an integer from 2 to 18, such that there is at least one terminal monomeric unit A, and one or a plurality of additional monomeric units; R is 3-(α)-OH, 3-(β)-OH; bonding between adjacent monomers takes place at positions selected from the group consisting of 4, 6 and 8; a bond of an additional monomeric unit in position 4 has alpha or beta stereochemistry; X, Y and Z are selected from the group consisting of monomeric units A or hydrogen, with the provisos that as to the at least one terminal monomeric unit, bonding of the additional monomeric unit thereto is at position 4 and optionally Y = Z = hydrogen.
A control device for a hybrid vehicle comprising an engine, a motor, an inverter that supplies AC electric power to the motor using a switching element, and a rotation speed detection unit that detects a rotation speed of the motor, characterized by a control unit comprising a first filter and a second filter, each configured to correct the rotation speed, the second filter being less responsive than the first filter, wherein the control unit is configured to calculate an amount of change in the rotation speed which is a difference between the corrected rotation speeds, the control unit being configured to: start to determine whether the amount of change is equal to or greater than a predetermined value, when the corrected rotation speed by the first filter falls below a predetermined rotation speed and a torque of the motor is equal to or greater than a predetermined motor torque; and restrict the torque of the motor upon continuing to determine, for a predetermined time period, that the amount of change is equal to or greater than the predetermined value. a control unit comprising a first filter and a second filter, each configured to correct the rotation speed, the second filter being less responsive than the first filter, wherein the control unit is configured to calculate an amount of change in the rotation speed which is a difference between the corrected rotation speeds, the control unit being configured to: start to determine whether the amount of change is equal to or greater than a predetermined value, when the corrected rotation speed by the first filter falls below a predetermined rotation speed and a torque of the motor is equal to or greater than a predetermined motor torque; and restrict the torque of the motor upon continuing to determine, for a predetermined time period, that the amount of change is equal to or greater than the predetermined value. start to determine whether the amount of change is equal to or greater than a predetermined value, when the corrected rotation speed by the first filter falls below a predetermined rotation speed and a torque of the motor is equal to or greater than a predetermined motor torque; and restrict the torque of the motor upon continuing to determine, for a predetermined time period, that the amount of change is equal to or greater than the predetermined value.
A transceiver (200, 300, 400) comprising a transmitter (202, 430); a receiver; and a signal transmission arrangement, wherein the transmitter (202, 430) comprises a power amplifier, and the signal transmission arrangement is arranged to transmit signals provided from the transmitter (202, 430) through its power amplifier, and arranged to receive signals and provide them to the receiver, wherein the transceiver (200, 300) further comprises: an auxiliary power amplifier which has controllable phase shift and gain; a first impedance element (214, 414); a second impedance element (216, 316, 416); and a controller, wherein the auxiliary power amplifier has its input connected to the input of the power amplifier of the transmitter (202, 430), the first impedance element (214, 414) is connected between an output of the auxiliary power amplifier and an input of the receiver, the second impedance element (216, 316, 416) is connected between an output of the power amplifier of the transmitter (202, 430) and the input of the receiver, and the controller is arranged to control the auxiliary power amplifier to provide a signal that has a phase and amplitude in relation to the output of the power amplifier of the transmitter and the impedances of the first and second impedance elements (214, 216, 316, 414, 416) such that the transmitter contribution at the input of the receiver is suppressed. an auxiliary power amplifier which has controllable phase shift and gain; a first impedance element (214, 414); a second impedance element (216, 316, 416); and a controller, wherein the auxiliary power amplifier has its input connected to the input of the power amplifier of the transmitter (202, 430), the first impedance element (214, 414) is connected between an output of the auxiliary power amplifier and an input of the receiver, the second impedance element (216, 316, 416) is connected between an output of the power amplifier of the transmitter (202, 430) and the input of the receiver, and the controller is arranged to control the auxiliary power amplifier to provide a signal that has a phase and amplitude in relation to the output of the power amplifier of the transmitter and the impedances of the first and second impedance elements (214, 216, 316, 414, 416) such that the transmitter contribution at the input of the receiver is suppressed.
A coated abrasive grain comprising a fused base grain covered, substantially uniformly, with a coating constituted for 100% of hydrophilic silica as a percentage by weight on the basis of the weight of the coating, the base grain comprising more than 40% of alumina, as a percentage by weight based on the weight of the base grain, said abrasive grain being obtained by a process comprising the following successive steps: 1) obtaining or producing a fused base grain comprising more than 40% of alumina, as a percentage by weight based on the weight of the base grain; 2) coating said base grain with a colloidal suspension of silica; 3) drying the base grain wetted by said suspension in order to form a coating based on silica; 4) optionally, heat treatment at a temperature of greater than 100°C and less than 1550°C, the fused base grain not undergoing any intermediate step between step 2) and step 3), the base grain having one of the following chemical analyses, as percentages by weight for a total of 100%: Al 2 O 3: 45 - 65% ZrO 2 +HfO 2: 35 - 50% Others: 0 - 12% or Al 2 O 3: 65 - 80% ZrO 2 +HfO 2: 15 - 30% Others: 0 - 12.0% or Al 2 O 3: 92.0 - 98.5% MgO: 1.5 - 6.5% Others: < 2.0%. 1) obtaining or producing a fused base grain comprising more than 40% of alumina, as a percentage by weight based on the weight of the base grain; 2) coating said base grain with a colloidal suspension of silica; 3) drying the base grain wetted by said suspension in order to form a coating based on silica; 4) optionally, heat treatment at a temperature of greater than 100°C and less than 1550°C,
Method for the production of an electrode plate (12, 13, 104, 105) of an electrochemical accumulator, comprising the steps, carried out in the following sequence, of: a) producing a substantially flat lead accumulator grid (101, 102) having a multiplicity of lattice bars, and a multiplicity of window-type clearances formed between the lattice bars; b) incorporating an active mass in the clearances and/or on the lattice bars of the lead accumulator grid (101, 102); c) generating a pattern of gap-shaped depressions in the active mass, characterized in that the pattern of gap-shaped depressions in the active mass is performed by mechanical impingement of the lead accumulator grid (101, 102) that is provided with the active mass, specifically in such a manner that the depressions run from the external surface of the active mass into the depth, and that the pattern of gap-shaped depressions forms an irregular, network-type structure. a) producing a substantially flat lead accumulator grid (101, 102) having a multiplicity of lattice bars, and a multiplicity of window-type clearances formed between the lattice bars; b) incorporating an active mass in the clearances and/or on the lattice bars of the lead accumulator grid (101, 102); c) generating a pattern of gap-shaped depressions in the active mass,
A compound comprising a structure of Formula (IIa): wherein R 1b is -(CH 2) m -X; each R 2b and R 2b' is independently selected from -(CH 2) k -Z; X is a functional group selected from amine, thiol, carboxylic acid, hydrazide, hydrazine, oxime, or hydroxylamine; Z is selected from halogen or hydroxy; and each m and k is independently an integer from 2 to 10; wherein the compound is covalently bonded to an immunogenic polymer or carrier through the functional group X of the compound, or wherein a carrier is covalently bonded to the compound through the functional group X of the compound. R 1b is -(CH 2) m -X; each R 2b and R 2b' is independently selected from -(CH 2) k -Z; X is a functional group selected from amine, thiol, carboxylic acid, hydrazide, hydrazine, oxime, or hydroxylamine; Z is selected from halogen or hydroxy; and each m and k is independently an integer from 2 to 10; wherein the compound is covalently bonded to an immunogenic polymer or carrier through the functional group X of the compound, or wherein a carrier is covalently bonded to the compound through the functional group X of the compound.
A method for sorting a mix of different cells comprising: providing a single channel with only one output; introducing a cell mix in a fluid into the channel; in a sorting region in the channel, optically deflecting one type of cells of the mix of cells to cause the deflected cells to flow into or away from a cell processing region that extends only partially across a width of the channel downstream from the channel sorting region, and killing or de-activating by means of a laser beam only cells that flow into the cell processing region or treating and/or sampling cells that flow into the cell processing region and/or measuring a characteristic of cells that flow into the cell processing region. providing a single channel with only one output; introducing a cell mix in a fluid into the channel; in a sorting region in the channel, optically deflecting one type of cells of the mix of cells to cause the deflected cells to flow into or away from a cell processing region that extends only partially across a width of the channel downstream from the channel sorting region, and killing or de-activating by means of a laser beam only cells that flow into the cell processing region or treating and/or sampling cells that flow into the cell processing region and/or measuring a characteristic of cells that flow into the cell processing region.
A piezoelectric body represented by a chemical formula Al 1-X-Y Mg X M Y N where X + Y is less than 1, X is in a range of more than 0 and less than 1, and Y is in a range of more than 0 and less than 1 (M represents any one of Cr, Mn, Fe, Co, Ni, Mo, Tc, Ru, Rh, Pd, Ag, W, Re, Os, Ir, Pt, and Au).
A system, wherein the system comprises: a data inspection module configured to: inspect data traffic originating from a mobile device assigned a first international mobile subscriber identity, IMSI, associated with a first mobile network; determine an identity of a data service the mobile device is requesting or accessing from the inspected data traffic, the identity of the data service being an identity of at least one of: (i) a software application executed by the mobile device requesting or accessing a data connection, (ii) an internet website requested by the mobile device, and (iii) an internet protocol address the mobile device has requested access to; and a switching logic module communicatively coupled to the data inspection module and configured to: select a second IMSI associated with a second mobile network to assign to the mobile device, said selecting of the second IMSI at least partially based on the identity of the data service received from the data inspection module and determined from the inspected data traffic originating from the mobile device, and assign the second IMSI to the mobile device. inspect data traffic originating from a mobile device assigned a first international mobile subscriber identity, IMSI, associated with a first mobile network; determine an identity of a data service the mobile device is requesting or accessing from the inspected data traffic, the identity of the data service being an identity of at least one of: (i) a software application executed by the mobile device requesting or accessing a data connection, (ii) an internet website requested by the mobile device, and (iii) an internet protocol address the mobile device has requested access to; and a switching logic module communicatively coupled to the data inspection module and configured to: select a second IMSI associated with a second mobile network to assign to the mobile device, said selecting of the second IMSI at least partially based on the identity of the data service received from the data inspection module and determined from the inspected data traffic originating from the mobile device, and assign the second IMSI to the mobile device. select a second IMSI associated with a second mobile network to assign to the mobile device, said selecting of the second IMSI at least partially based on the identity of the data service received from the data inspection module and determined from the inspected data traffic originating from the mobile device, and assign the second IMSI to the mobile device.
A pneumatic tire comprising: a pair of bead portions in each of which a bead core is embedded; and a carcass including a carcass ply extending on and between the bead cores, wherein in a tire meridian cross-section, the bead core includes a bead wire extending in a tire circumferential direction, in a tire meridian cross-section, the bead core includes a core outer portion in which the bead wire is stacked so as to form a tapered shape toward an outer side in a tire radial direction, and a center line that bisects a taper angle of the core outer portion is inclined toward an outer side in a tire axial direction while extending toward the outer side in the tire radial direction, characterized in that the carcass ply includes a main body portion extending between the bead cores, and turned-up portions turned up around the bead cores from the inner side to the outer side in the tire axial direction, the main body portion and each of the turned-up portions form a closed region surrounding the bead core, by contact thereof at the outer side in the tire radial direction with respect to the bead core, the closed region includes a first region occupied by the bead core, and a second region outward in the tire radial direction of the first region, and in a tire meridian cross-section, an area (Sa) of the second region is not less than 0.1 times an area (Sb) of the first region. in a tire meridian cross-section, the bead core includes a bead wire extending in a tire circumferential direction, in a tire meridian cross-section, the bead core includes a core outer portion in which the bead wire is stacked so as to form a tapered shape toward an outer side in a tire radial direction, and a center line that bisects a taper angle of the core outer portion is inclined toward an outer side in a tire axial direction while extending toward the outer side in the tire radial direction, characterized in that the carcass ply includes a main body portion extending between the bead cores, and turned-up portions turned up around the bead cores from the inner side to the outer side in the tire axial direction, the main body portion and each of the turned-up portions form a closed region surrounding the bead core, by contact thereof at the outer side in the tire radial direction with respect to the bead core, the closed region includes a first region occupied by the bead core, and a second region outward in the tire radial direction of the first region, and in a tire meridian cross-section, an area (Sa) of the second region is not less than 0.1 times an area (Sb) of the first region.
A computer-implemented method of calculating the x-coordinate, x M, of a point mapping in an elliptic curve Diffie-Hellman key exchange protocol, EC-DHKE, between two parties wherein the point mapping is defined as sG + H, where sG is a point (xs,ys) on an elliptic curve and H is a point (x H,y H) on the elliptic curve, comprising: computing V = y S 2 based upon the elliptic curve and x S; computing W = y H 2 based upon the elliptic curve and x H; computing U = sqrt ( W • V) mod p, where p is a large prime number; choosing U ' = U or U' = p - U based upon a characteristic agreed upon by the parties to the EC-DHKE; and computing x M based upon V, W, U', x S, x H, and p, wherein the elliptic curve is a Montgomery curve of the form y 2 = x 3 + Ax 2 + x mod p, wherein V = x S 3 + A ∗ x S 2 + x S mod p, wherein W = x H 3 + A ∗ x H 2 + x H mod p, and wherein x M = ((V + W - 2U') / (x S - x H) 2) - A - x S - x H mod p. computing V = y S 2 based upon the elliptic curve and x S; computing W = y H 2 based upon the elliptic curve and x H; computing U = sqrt ( W • V) mod p, where p is a large prime number; choosing U ' = U or U' = p - U based upon a characteristic agreed upon by the parties to the EC-DHKE; and computing x M based upon V, W, U', x S, x H, and p, wherein the elliptic curve is a Montgomery curve of the form y 2 = x 3 + Ax 2 + x mod p, wherein V = x S 3 + A ∗ x S 2 + x S mod p, wherein W = x H 3 + A ∗ x H 2 + x H mod p, and wherein x M = ((V + W - 2U') / (x S - x H) 2) - A - x S - x H mod p.
Liquid chromatography device comprising: a) a pump; b) a sample injector; c) a splitting device; d) a restrictor; and e) a liquid chromatography column and detection and analyzing unit; wherein the pump, the sample injector, the splitting device and the liquid chromatography column are connected in series; the sample injector and the splitting device are placed between the pump and the liquid chromatography column; and the splitting device is further connected with the restrictor; characterized in that the splitting device is placed behind the sample injector, wherein the pump is a HPLC pump with a flow rate in the range from 0.01 to 10 ml/min, wherein the restrictor is a tubing, wherein the length of the tubing is in a range from 2 to 4 mm, and the diameter of the tubing is in a range from 100 to 200 μm, wherein the length of the liquid chromatography column is in a range from 50 to 200 mm, and the diameter of the liquid chromatography column is in a range from 300 to 400 μm. a) a pump; b) a sample injector; c) a splitting device; d) a restrictor; and e) a liquid chromatography column and detection and analyzing unit;
Solid fuel stove comprising a stove body which includes or defines a combustion chamber and a cooking chamber which, in use, receives heat from said combustion chamber, said cooking chamber comprising a bottom wall and/or a top wall, a plurality of perimeter walls (6a, 6b, 6c, 6d) which define with said bottom wall and/or top wall a cooking space inside said cooking chamber, and an opening and closing element movable or rotatable between: an open operating position, in which it defines a first opening for accessing said cooking space, at least one partially open operating position, in which it defines with said bottom wall and/or top wall and with said plurality of perimeter walls (6a, 6b, 6c, 6d) a second opening for accessing said cooking space or, in use, of heat escaping from said cooking space, said second opening being spatially smaller than said first opening, and a closed operating position, in which it closes or blocks access to or, in use, prevents heat from escaping from said cooking space, characterized by the fact that it comprises at least one adjustment and control mechanism configured to adjust and control the operating position (OP, PP, CP) of said opening and closing element so that said cooking chamber is, in use, employable, when said opening and closing element is in said closed operating position, as a cooking oven while when said opening and closing element is in said open operating position or in said at least one partially open operating position as a hob with adjustable airflow. an open operating position, in which it defines a first opening for accessing said cooking space, at least one partially open operating position, in which it defines with said bottom wall and/or top wall and with said plurality of perimeter walls (6a, 6b, 6c, 6d) a second opening for accessing said cooking space or, in use, of heat escaping from said cooking space, said second opening being spatially smaller than said first opening, and a closed operating position, in which it closes or blocks access to or, in use, prevents heat from escaping from said cooking space, characterized by the fact that it comprises at least one adjustment and control mechanism configured to adjust and control the operating position (OP, PP, CP) of said opening and closing element so that said cooking chamber is, in use, employable, when said opening and closing element is in said closed operating position, as a cooking oven while when said opening and closing element is in said open operating position or in said at least one partially open operating position as a hob with adjustable airflow.