Abstract: Proposed is a device that can easily introduce a substance into cells in vitro with high efficiency and in a short time. The device may include an accommodation unit for accommodating a solution containing the cells and the substance. The device may also include a driving unit for pressurization of the solution. Regarding the pressurization of the solution, time from when the pressurization starts until pressure reaches a maximum pressure may be 2.0 msec or shorter.

Abstract: This application relates to a measurement system for measuring a behavior of an ejection liquid, which is ejected into an object from an ejection device, within the object. The system includes a container part formed of a resin material. The system also includes an imaging device disposed to image, across the object, a tip surface of the container part having an ejection port formed therein and being in contact with the object from a back side of the object in a predetermined state in which the ejection port is positioned from a front side of the object. The system further includes a first emission device that emits first near infrared light to the tip surface. In such a configuration, the behavior of the ejection liquid when the ejection liquid is ejected into the object from the ejection device can be imaged and measured by the imaging device.

Abstract: Proposed is a measurement system for measuring a behavior of an ejection liquid, which is ejected into an object from an ejection device, within the object. The system includes a container part formed of a resin material. The system also includes an imaging device disposed to image, across the object, a tip surface of the container part having an ejection port formed therein and being in contact with the object from a back side of the object in a predetermined state in which the ejection port is positioned from a front side of the object. The system further includes a first emission device that emits first near infrared light to the tip surface. In such a configuration, the behavior of the ejection liquid when the ejection liquid is ejected into the object from the ejection device can be imaged and measured by the imaging device.

Abstract: This application relates to an ultra fine bubble production apparatus for producing ultra fine bubbles. The apparatus may include a container portion including a liquid and a gas, and a drive portion for pressurization in the container portion. In the pressurization, the time required for the pressure to reach the maximum pressure from the start of the pressurization can be 2.0 milliseconds or less, and the maximum pressure can be 4.00 MPa or more.

Abstract: An object of the present disclosure is at least to provide a device that can easily introduce a substance into cells in vitro with high efficiency and in a short time, and the object is fulfilled by a device for introducing a substance into cells in vitro, the device comprising: an accommodation unit for accommodating a solution containing cells and a substance; and a driving unit for pressurization of the solution, wherein regarding the pressurization of the solution, time from when the pressurization starts until pressure reaches a maximum pressure is 2.0 msec or shorter.

Abstract: This application relates to a measurement system for measuring a behavior of an ejection liquid, which is ejected into an object from an ejection device, within the object. The system includes a container part formed of a resin material. The system also includes an imaging device disposed to image, across the object, a tip surface of the container part having an ejection port formed therein and being in contact with the object from a back side of the object in a predetermined state in which the ejection port is positioned from a front side of the object. The system further includes a first emission device that emits first near infrared light to the tip surface. In such a configuration, the behavior of the ejection liquid when the ejection liquid is ejected into the object from the ejection device can be imaged and measured by the imaging device.

Abstract: Provided is a system for calculating design specifications of an administration apparatus which administers an administration object substance to an object region using a high-energy substance as a driving source. An object administration apparatus to be an object of calculation of the design specifications is specified and substance information related to a prescribed administration object substance to be administered in the object administration apparatus is acquired. Region information related to a prescribed object region is acquired, and distribution information related to a distribution state of the prescribed administration object substance is acquired. In addition, based on the respective pieces of acquired information, design specification information related to a configuration of the object administration apparatus including energy information related to a high-energy substance to be used to administer the prescribed administration object substance is calculated.

Abstract: Provided is a system for calculating design specifications of an administration apparatus which administers an administration object substance to an object region using a high-energy substance as a driving source. An object administration apparatus to be an object of calculation of the design specifications is specified and substance information related to a prescribed administration object substance to be administered in the object administration apparatus is acquired. Region information related to a prescribed object region is acquired, and distribution information related to a distribution state of the prescribed administration object substance is acquired. In addition, based on the respective pieces of acquired information, design specification information related to a configuration of the object administration apparatus including energy information related to a high-energy substance to be used to administer the prescribed administration object substance is calculated.

Abstract: In an enclosure inspection apparatus 11, when a sealed letter 2 is inputted into a sealed letter loading station A, visual inspecting means 27 and X-ray inspecting means 33 determine thickness of the sealed letter and whether an enclosure in the sealed letter is a predetermined suspected object. The sealed letter not less than a predetermined thickness is rejected in first sorting station D, and the sealed letter which is not thicker than the predetermined thickness and in which the suspected object is not detected is conveyed as it is to second sorting station G. As for the sealed letter which is not thicker than the predetermined thickness and in which the suspected object is detected, after the suspected object in the sealed letter is positioned in a positioning station E, a suspected object inspecting station F determines whether the above-described suspected object is a predetermined object, such as an explosive or a narcotic drug, using a terahertz wave.

Abstract: In an enclosure inspection apparatus 11, when a sealed letter 2 is inputted into a sealed letter loading station A, visual inspecting means 27 and X-ray inspecting means 33 determine thickness of the sealed letter and whether an enclosure in the sealed letter is a predetermined suspected object. The sealed letter not less than a predetermined thickness is rejected in first sorting station D, and the sealed letter which is not thicker than the predetermined thickness and in which the suspected object is not detected is conveyed as it is to second sorting station G. As for the sealed letter which is not thicker than the predetermined thickness and in which the suspected object is detected, after the suspected object in the sealed letter is positioned in a positioning station E, a suspected object inspecting station F determines whether the above-described suspected object is a predetermined object, such as an explosive or a narcotic drug, using a terahertz wave.

Abstract: A process for producing for a material for an organic electroluminescent device having an emission center comprises irradiating a laser beam to implant an emission center-forming compound 3 constituting a source 1 into a target 2 having at least one function selected from an electron-transporting function and a hole-transporting function. According to the process, the laser beam and at least the target are relatively moved with irradiating the beam to form the emission center with a predetermined pattern. Moreover, the source and the target being in contact with each other may be moved relative to the laser beam for forming the emission center with a predetermined pattern. Further, the emission center at an area, corresponding to an interference pattern of an interference light, of the target may be formed by irradiating the interference light of the laser beam.

Abstract: A process for producing for a material for an organic electroluminescent device having an emission center comprises irradiating a laser beam to implant an emission center-forming compound 3 constituting a source 1 into a target 2 having at least one function selected from an electron-transporting function and a hole-transporting function. According to the process, the laser beam and at least the target are relatively moved with irradiating the beam to form the emission center with a predetermined pattern. Moreover, the source and the target being in contact with each other may be moved relative to the laser beam for forming the emission center with a predetermined pattern. Further, the emission center at an area, corresponding to an interference pattern of an interference light, of the target may be formed by irradiating the interference light of the laser beam.

Abstract: A nitrogen-containing heterocyclic compound represented by the following formula (I): 1

Abstract: A nitrogen-containing heterocyclic compound represented by the following formula (I) or (II): wherein X1 and X2 are the same or different, each representing a hydrogen atom, an alkyl group, or an electron attractive group and at least one of which being an electron attractive group; R1 and R2 are the same or different, each representing a hydrogen atom, an alkyl group, an aryl group, an aralkyl group, or an alkoxy group, and the ring Z represents a hydrocarbon ring which may have a substituent or a heterocycle which may have a substituent. The compound of the present invention is capable of emitting light or changing its color upon irradiation of light or under the action of an electric field.

Abstract: The azepine compound capable of emitting a light by light-irradiation or action of an electric field is represented by the following formula (I) or (II): 1

Abstract: An organic electroluminescence device material having emission centers is formed by bringing a source (1) containing an emission center-forming compound absorptive of laser beams into contact with a target (2) having at least one function selected from an electron-transporting function and a hole-transporting function, and irradiating a laser beam at an intensity of or below the ablation threshold value of the source (1) from the source (1) side (or the target (2) side) thereby to implant the emission center-forming compound (3) of the source (1) into the target (2). Thus, it is possible to make a fine and minute pattern on the organic electroluminescence device material.