Abstract:
PROBLEM TO BE SOLVED: To provide a micromixer, a micromixer element and a method for producing the same, wherein branch passages can be further microminiaturized and can be smoothed.SOLUTION: The micromixer element 20 incorporated in this micromixer and forming alternately disposed branch passages includes a first plate material 21, a second plate material 22, and an intermediate plate material 23 sandwiched between the first plate material 21 and the second plate material 22. The first plate material 21, the second plate material 22 and the intermediate plate material 23 are respectively formed with prescribed-depth grooves 21B, 22B, 23B continuing from the front surfaces of the respective plate materials to the rear surfaces in main end surfaces 21A, 22A, 23A, the grooves 21B of the first plate material 21 are communicated with every other groove 23B of the intermediate plate material 23, and the grooves 22B of the second plate material 22 are communicated with the grooves with which the grooves 21B of the first plate material 21 do not communicate out of the grooves 23B of the intermediate plate material 23.
Abstract:
PROBLEM TO BE SOLVED: To provide a nonvolatile memory cell capable of electrically obtaining operation of a nonvolatile memory in simple structure by means of an organic transistor, nonvolatile memory and control method of the nonvolatile memory cell. SOLUTION: A nonvolatile memory cell 1 includes a channel 5 constituted of an organic semiconductor, a gate insulating film 3 and a transistor structure constituted of a gate electrode, a source electrode and a drain electrode, and a trap 8 of carrier is formed on or near an interface of the channel 5 and the gate insulating film 3. In particular, the channel 5 is constituted of fullerene and the gate insulating film 3 is constituted of an inorganic substance such as alumina or silicon dioxide, thereby obtaining the nonvolatile memory cell 1 in which writing, deleting and reading can electrically be performed. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a production method of a ferroelectric material layer the electrical characteristics of which can be enhanced furthermore.SOLUTION: The production method of a ferroelectric material layer includes a ferroelectric material precursor layer formation step for forming the precursor layer of a ferroelectric material by coating a substrate with a sol-gel solution, a drying step for drying the precursor layer at a first temperature in the range of 120°C-250°C, a type push step for performing type push processing of the precursor layer while heating to a second temperature higher than the first temperature and in the range of 150°C-300°C, and a ferroelectric material layer formation step for forming the ferroelectric material layer from the precursor layer.
Abstract:
The present invention provides: a novel antiviral agent containing a human antibody º light chain, a novel human abzyme containing a human antibody º light chain; a polynucleotide, a vector, and a transformant, each of which relating to the containing a human antibody º light chain of the above; a primer set for effectively obtaining a human antibody º light chain having a function as an antiviral agent or abzyme; and a method for producing a polynucleotide and a method for producing a polypeptide, each of which method utilizes the primer set.
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing a functional device which allows manufacture using raw materials and manufacturing energy far less than ever before and having steps less than even before.SOLUTION: A method of manufacturing a functional device includes, in the following order: a first step of preparing a functional liquid material, which is to be heated to be a functional solid material; a second step of applying the functional liquid material on a base material to form a precursor composition layer of the functional solid material; a third step of heating the precursor composition layer at a first temperature falling within a range of 80°C to 200°C to reduce fluidity of the precursor composition layer in advance; a fourth step of embossing the precursor composition layer while heating the precursor composition layer at a second temperature falling within a range of 80°C to 300°C to form an embossed structure on the precursor composition layer; and a fifth step of heating the precursor composition layer at a third temperature which is higher than the second temperature to form a functional solid material layer from the precursor composition layer.