Abstract: An image processing device includes: an object information acquisition unit configured to acquire information on a first object; an object detection unit configured to detect from image data the first object and a second object associated with the first object; and a display mode change unit configured to change a display mode of the second object when the first object is detected and the second object is not a predetermined human face, and not change the display mode of the second object when the first object is detected and the second object is a predetermined human face.

Abstract: A communication terminal capable of determining whether or not it can perform DC, a base station, and a communication method are provided. A communication terminal (30) according to the present disclosure includes a communication unit (31) that simultaneously communicates with a master base station (10) associated with a first radio access technology and a secondary base station (20) associated with a second radio access technology, and a control unit (32) that specifies, when it is notified by the master base station (10) that it can provide dual connectivity using the second radio access technology, at least one frequency band supported by the secondary base station (20), the secondary base station being configured to provide the dual connectivity in cooperation with the master base station (10).

Abstract: One aspect of the present invention relates to a recovery method of 226Ra, and the recovery method of 226Ra includes a step (A1) of immersing a solid-state 226Ra containing substance and a carrier having a function of adsorbing 226Ra ions in a processing solution, and then irradiating the processing solution with ultrasonic waves.

Abstract: A vehicle body rear structure has a rear floor panel, a rear panel, a rear bumper beam and a plurality of floor reinforcement portions. The rear bumper beam extends along a vehicle width direction in a central region in the vehicle width direction at a rear portion of the rear panel and has a length in the vehicle width direction shorter than a length of the rear floor panel and a length of the rear panel. Each of the plurality of floor reinforcement portions extends substantially along a vehicle front rear direction and reinforces a plurality of locations of the rear floor panel spaced apart in the vehicle width direction. Rear end portions of the floor reinforcement portions are disposed inner side of the rear bumper beam in the vehicle width direction than outer end portions of the rear bumper beam in the vehicle width direction.

Abstract: A vehicle body rear structure includes a battery disposed below a floor, a battery frame that covers a periphery of the battery and that has a rear frame part configured to cover at least a rear of the battery, a rear mounted part that is disposed behind the rear frame part and that is disposed at a height in which at least a part of the rear mounted part overlaps the rear frame part in a forward/rearward direction, and a reinforcement block that is supported by any one of frame members of a vehicle and that is disposed between the rear frame part and the rear mounted part, wherein the reinforcement block includes a guide surface inclined downward toward a front side in a region facing the rear mounted part at a front side of the rear mounted part.

Abstract: A vehicle rear structure includes: a rear panel having a rear panel center member extending in a vehicle width direction and a rearward connection portion extending upward from the rear panel center member; a forward connection portion located forward of the rear panel; and a rear panel support member extending in a front rear direction above the rear panel center member and bridging between the rearward connection portion and the forward connection portion.

Abstract: A vehicle body rear structure includes a rear wheel, a rear side frame, and a collapsing member. The rear wheel is disposed on a vehicle side portion. The rear side frame is disposed substantially along a vehicle forward/rearward direction and extends to a vehicle-rear-side than a rear wheel. The collapsing member is disposed at the vehicle-rear-side of the rear wheel so that at least a part of the collapsing member overlaps the rear wheel in the forward/rearward direction. The collapsing member is fixed to the rear side frame.

Abstract: A flexible substrate includes one end portion, the other end portion, and a pattern portion formed at least between the one end portion and the other end portion. The pattern portion has a tongue piece formed by a notch. The tongue piece is configured to be electrically connected to another member.

Abstract: A method for producing an 225Ac solution includes a step (I) of irradiating a 226Ra target with particles to generate two or more actinium radioisotopes (Ac) including at least 225Ac, a step (II) of dissolving the 226Ra target after the aforementioned step to obtain a solution (1), a step (III) of separating 226Ra and Ac contained in the solution (1) to obtain a solution (2), a step (IV) of allowing Ac contained in the solution (2) other than 225Ac to decay to obtain a solution (3), and a step (V) of separating Ra and Ac contained in the solution (3) to obtain a solution (4). The solution (4) is used to produce a medicine that contains, as an active ingredient, a conjugate between a chelating agent that has formed a complex with 225Ac, and a targeting agent.

Abstract: A method for evaporatively concentrating a radioactive metal nuclide, including: a first evaporative concentration process in which a radioactive solution formed by dissolving a radioactive metal nuclide in an acidic aqueous solution is heated to evaporate a solvent in the radioactive solution so as to obtain a concentrated liquid containing the radioactive metal nuclide; and a second evaporative concentration process in which a low-boiling organic solvent having a lower boiling point than water is added to the concentrated liquid, and the concentrated liquid is heated to induce azeotropic boiling of the concentrated liquid and the low-boiling organic solvent so as to obtain an evaporative concentrate of the radioactive metal nuclide.

Abstract: A method for producing an 225Ac solution includes a step (I) of irradiating a 226Ra target with particles to generate two or more actinium radioisotopes (Ac) including at least 225Ac, a step (II) of dissolving the 226Ra target after the aforementioned step to obtain a solution (1), a step (III) of separating 226Ra and Ac contained in the solution (1) to obtain a solution (2), a step (IV) of allowing Ac contained in the solution (2) other than 225Ac to decay to obtain a solution (3), and a step (V) of separating Ra and Ac contained in the solution (3) to obtain a solution (4). The solution (4) is used to produce a medicine that contains, as an active ingredient, a conjugate between a chelating agent that has formed a complex with 225Ac, and a targeting agent.

Abstract: A solid electrolyte is composed of a compound represented by the following formula. AaEbGcXd (A is at least one element selected from Li and Cs. E is at least one element selected from the group consisting of Al, Sc, Y, Zr, Hf and lanthanoids. G is at least one group selected from the group consisting of OH, BO2, BO3, BO4, B3O6, B4O7, CO3, NO3, AlO2, SiO3, SiO4, Si2O7, Si3O9, Si4O11, Si6O18, PO3, PO4, P2O7, P3O10, SO3, SO4, SO5, S2O3, S2O4, S2O5, S2O6, S2O7, S2O8, BF4, PF6 and BOB. X is at least one element selected from the group consisting of F, Cl, Br and I. 0.5?a<6, 0<b<2, 0.1<c?6 and 0?d?6.1.).

Abstract: A circuit board 1 including: a substrate; an electrode pad on a surface of the substrate; and a projecting electrode on the electrode pad, wherein the electrode pad on which the projecting electrode is disposed is larger than the projecting electrode when viewed from above, and a coating layer covers at least a portion of an outer periphery of the electrode pad on which the projecting electrode is disposed.

Abstract: A solid electrolyte layer having a solid electrolyte and carbon, in which a dispersion degree (CV value) of the carbon measured by a quadrat method in a cross section of the solid electrolyte layer is more than zero and less than one.

Abstract: A method for producing an 225Ac solution includes a step (I) of irradiating a 226Ra target with particles to generate two or more actinium radioisotopes (Ac) including at least 225Ac, a step (II) of dissolving the 226Ra target after the aforementioned step to obtain a solution (1), a step (III) of separating 226Ra and Ac contained in the solution (1) to obtain a solution (2), a step (IV) of allowing Ac contained in the solution (2) other than 225Ac to decay to obtain a solution (3), and a step (V) of separating Ra and Ac contained in the solution (3) to obtain a solution (4). The solution (4) is used to produce a medicine that contains, as an active ingredient, a conjugate between a chelating agent that has formed a complex with 225Ac, and a targeting agent.

Abstract: A solid electrolyte contains a compound that contains an alkali metal element, a tetravalent metal element, and a halogen element as main elements, in which the compound has diffraction peaks at positions of 2?=32.0°±0.5° and 2?=34.4°±0.5° for a wavelength of CuK? rays, and a ratio IB/IA of a diffraction intensity IB of a peak with a strongest diffraction intensity at 2?=34.4°±0.5° to a diffraction intensity IA of a peak with a strongest diffraction intensity at 2?=32.0°±0.5° satisfies 0<IB/IA?3.

Abstract: A solid electrolyte includes a compound composed of an alkali metal, at least one metal element selected from Zr, Hf, Ti, Sn, Mg, Ca, Sr, Cs, Ba, Y, Al, Sc, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Cu, Ag, Au, Pb, Bi, In, Sn, Sb, Nb, Ta and W and an element belonging to Group XVII of the periodic table.

Abstract: A solid electrolyte includes a compound composed of an alkali metal, at least one of a metal element and a metalloid element having a valence of 1 to 6, an element belonging to Group XVII of the periodic table and an element belonging to Group XVI of the periodic table.

Abstract: An object of the present invention is to provide a means for detecting or quantitatively determining short-chain nucleic acids by simple double-strand formation with high specificity. The present invention relates to a polynucleobase probe including, in a sequence complementary to a target sequence having at least one sequence of any one of SEQ ID NOs: 1 to 10, a sequence in which at least one of bases in a portion complementary to any one sequence of SEQ ID NOs: 1 to 10 in the target sequence becomes abasic and/or is substituted; a method for designing the same; and a method for utilizing the same.

Abstract: A method for producing a radiopharmaceutical, the method capable of maintaining a radioactive compound retaining a chemical structure and radioactivity at the time of production and after the production, and maintaining a usable period of a radiopharmaceutical; and a radiopharmaceutical are provided. The method for producing a radiopharmaceutical that has a radioactive component containing a radioactive dithiosemicarbazone copper complex includes: a stabilization step of adding a stabilizing agent containing at least one compound selected from the group consisting of ascorbic acid, methionine, sodium ascorbate, mannitol, and butylhydroxyanisole to a solution containing the radioactive component; and a filtration step of filtering the solution containing the radioactive component or a precursor thereof with a sterilization filter. In the radiopharmaceutical, a concentration of the radioactive component is 200 MBq/mL or more in terms of radioactivity concentrations.