Abstract: Provided is a method for introducing a selected molecule, including: an inhibitor treatment step of allowing a target cell or a target tissue to internalizing an inhibitor of vesicular transport or lysosomal membrane fusion; and an introduction step of contacting an introduction liquid containing a selected molecule with the target cell or the target tissue to introduce the selected molecule into the target cell or the target tissue.

Abstract: Provided is a method for producing transformed cells, comprising an introduction step of contacting an introduction liquid comprising a molecule of interest with a target cell to introduce the molecule of interest into the target cell, wherein, in the introduction step, the molecule of interest is introduced via endocytosis into the target cell, a trait is conferred, deleted, or maintained by the introduction of the molecule of interest, and the molecule of interest such as a vector added exogenously does not then remain in an established cell.

Abstract: Provided is a method for introducing a selected molecule, including: an inhibitor treatment step of allowing a target cell or a target tissue to internalizing an inhibitor of vesicular transport or lysosomal membrane fusion; and an introduction step of contacting an introduction liquid containing a selected molecule with the target cell or the target tissue to introduce the selected molecule into the target cell or the target tissue.

Abstract: A coil manufacturing method for manufacturing a wave wound coil in a substantially cylindrical shape by shaping a linear conductor with a cross-sectional shape having directionality, includes: transferring a linear wave conductor shaped in a substantially rectangular waveform, and having straight side portions extending in a wave width direction, one-side connecting portions sequentially connecting every other pair of adjacent side portions at ends on a one wave width direction side, and other-side connecting portions sequentially connecting pairs of adjacent side portions that are not connected by the one-side connecting portions at ends on an other wave width direction side; first bending the one-side and second bending the other-side connection portions so that the side portions are arranged along a coil circumferential direction, and directions of cross-sectional shapes of the side portions are in a constant direction with respect to a coil radial direction; and winding the bent wave conductor on a bobbin

Abstract: A coil manufacturing method for manufacturing a wave wound coil in a substantially cylindrical shape by shaping a linear conductor with a cross-sectional shape having directionality, includes: transferring a linear wave conductor shaped in a substantially rectangular waveform, and having straight side portions extending in a wave width direction, one-side connecting portions sequentially connecting every other pair of adjacent side portions at ends on a one wave width direction side, and other-side connecting portions sequentially connecting pairs of adjacent side portions that are not connected by the one-side connecting portions at ends on an other wave width direction side; first bending the one-side and second bending the other-side connection portions so that the side portions are arranged along a coil circumferential direction, and directions of cross-sectional shapes of the side portions are in a constant direction with respect to a coil radial direction; and winding the bent wave conductor on a bobbin

Abstract: A mercury-free lamp including: a glass bulb (4) that is filled with a rare gas; a first internal electrode unit (19) and a second internal electrode unit (15) that are provided in the glass bulb (4); and an external electrode (24) that is provided on an outer surface of the glass bulb (4) in an area that corresponds to a discharge path, which is formed during lighting between the first internal electrode unit (19) and the second internal electrode unit (15), such that a positive column is generated along the discharge path and is expanded in transverse sectional area by the external electrode. The first internal electrode unit (19) is composed of internal electrodes (18) and (20), and the second internal electrode unit (15) is composed of internal electrodes (14) and (16).

Abstract: A method of fabricating a nitrogen discharge lamp includes: a first evacuation step for evacuating the gas in a glass tube, a first gas introduction step for introducing nitrogen gas into the glass tube that has undergone the first evacuation step, a preliminary discharge step for producing electric discharge in the glass tube that has undergone the first gas introduction step, a second evacuation step for evacuating the gas inside the glass tube that has undergone the preliminary discharge step, and a second gas introduction step for introducing at least nitrogen gas and a noble gas into the glass tube that has undergone the second gas introduction step.

Abstract: A photochromic material comprising a thin film of montmorillonite intercalation compound which has as a guest organic metal complex ions exhibiting a property of accepting electrons in a photo-excited state,a photochromic device comprising; (i) a transparent electrode layer 1, (ii) a transparent layer 2 of polycrystalline n-type semiconductor, (iii) the above-mentioned thin film 3 of montmorillonite intercalation compound, (iv) an electrolytic layer 6 containing an electron-donative reducing agent and (v) an opposed transparent electrode layer 4, anda method for recording and erasing information, comprising the steps of forming the above-mentioned thin film 3 of montmorillonite intercalation compound over the transparent layer 2 of polycrystalline n-type semiconductor, irradiating with light the thin film 3 in contact with the electrolyte 6 containing an electron-donative reducing agent to develop color on the irradiated site of the film and applying a bias voltage to the film being exposed to light to remove