Affinity Control of Inorganic/Organic Hybrid Materials toward Molecule for Sensors
スポンサーリンク
概要
- 論文の詳細を見る
In order to control the affinity control of inorganic/organic hybrids toward a molecule for the application to sensors, the solid acid-base properties of inorganic/organic hybrids were generated by the incorporation of inorganic components other than siloxanes. The solid acid-base strength was varied from basic (H0=9) to acidic (H0=1) regions by the incorporation of various inorganic components into methylsiloxane-based inorganic/organic hybrid. The basic methylsiloxane-based inorganic/organic hybrid containing a Ca inorganic component tended to adsorb an acidic molecule of NO2 and the acidic methylsiloxane-based inorganic/organic hybrid containing a Ti inorganic component tended to adsorb a basic molecule of pyridine. The Al-containing methylsiloxane-based inorganic/organic hybrid with acid-base strength between the Ti- and Ca-containing hybrids adsorbed both a basic molecule of pyridine and an acidic molecule of NO2. On the basis of the affinity control by verify the solid acid-base strength, the inorganic component derived from Nb(OC2H5)5 was incorporated into the aminopropylsilane-based inorganic/organic hybrid to weaken the strong basicity resulting from amino groups. The aminopropylsiloxane-based inorganic/organic hybrid containing an Nb inorganic component resulted in a detectable change in the optical properties and acted as a reversible sensitive film toward NO2 for an optical sensor.
- 公益社団法人 日本セラミックス協会の論文
公益社団法人 日本セラミックス協会 | 論文
- Ferromagnetism in Fe doped ZnO synthesized by co-precipitation method
- Study on structural, magnetic and transport properties of La_Ca_Mn_Co_xO_3 (x = 0.01-0.05) thin films
- Fabrication of the finestructured alumina materials with nanoimprint method
- Correlation between the temperature of molten state and the SH intensity of 30BaO・15TiO_2・55GeO_2 crystallized glass
- Preparation of Pt particles dispersing nanocomposites by thermal treatment of tetrachloroplatinate/layered double hydroxide (LDH)