研究者詳細 - 堀部　明彦

論文 - 堀部　明彦

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バイオマス・廃棄物燃料の発熱量評価査読

森田慎一, 羽二生稔大, 山田貴延, 高井和紀, 早水庸隆, 権田岳, 堀部明彦, 春木直人

熱物性 34 ( 4 ) 147 - 153 2020年11月

糖アルコール系潜熱蓄熱材と熱媒油の直接接触凝固挙動査読

堀部明彦, 山田寛

鉄と鋼 106 ( 8 ) 518 - 526 2020年9月

Thermal properties and related core/shell structure of n-tetracosane microencapsulated by calcium carbonate 査読

Yutaka Yamada, Akihiko Horibe

Applied Thermal Engineering 178 11512 2020年9月

Evaluation of Calorific Value of Biomass Fuel and Waste Fuel 査読

Shin-ichi Morita, Toshihiro Haniu, Takanobu Yamada, Kazunori Takai, Yasutaka Hayamizu, Takeshi Gonda, Akihiko Horibe, Naoto Haruki

Netsu Bussei 34 ( 4 ) 147 - 153 2020年

Heat Transport Evaluation of Nanosuspension as Latent Heat Storage Material

Shin ichi Morita, Taiki Ito, Yasutaka Hayamizu, Takanobu Yamada, Akihiko Horibe

Lecture Notes in Mechanical Engineering 11 - 23 2020年

掲載種別：研究論文（国際会議プロシーディングス）

This paper deals with the characteristics of a straight pipe inner flow of the nanosuspension that has non-Newtonian viscosity. The parameters are set in the mass composition of 10–20 mass% of dispersoid and in the temperature range of 20–70 ℃ that includes the melting point of tetracosane. The experimental study is carried out by using the flow pressure loss measurement apparatus. The test section that made of a stainless straight pipe has an inner diameter 8 mm, and it has the length 1000 mm. The inner flow of a straight pipe is occurred by using a pump that is controlled by an inverter. The pressure drop is measured by a differential pressure gauge. The measured pressure loss is used for the calculation of the flow friction loss coefficient and the pump power. The experimental data are evaluated by the variation of the pressure loss coefficient with Reynolds number that defined by the non-Newtonian behavior. Viscosity data by previous study data that correlated by the power law method are used for Reynolds number calculation. The viscosity including non-Newtonian characteristics had been estimated by using a rotary viscosity meter. The measuring ranges are shear rate <500 1/s and temperature 10–84 ℃. The calculation data from experimental correlation equation, which was adjusted by an exponential law, are used for Reynold’s number. The flow friction loss coefficient and the pump power are estimated by measured flow pressure loss. The heat transport amount is calculated by the sensible heat and the latent heat of nanosuspension. The thermal property data (specific heat and latent heat) are the obtained data by previous study that measured by using differential scanning calorimeter. The relationship between the heat transport amount and pump power of this study is shown that the heat transport ability of nanosuspension is 1.5–2 times of water at the same value of pump power.

DOI： 10.1007/978-981-15-1892-8_2

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Sessile Droplet Freezing on Hydrophobic Structured Surfaces under Cold Ambient Conditions 査読

Yutaka Yamada, Genki Onishi, Akihiko Horibe

Langmuir 35 ( 35 ) 16401 - 16406 2019年12月

ナノサスペンション型潜熱蓄熱材の熱伝導率・密度評価査読

森田慎一, 入江史也, 平野克磨, 早水庸隆, 山田貴延, 堀部明彦

熱物性 33 ( 4 ) 151 - 158 2019年11月

粒状収着剤を用いた気流式二槽循環流動槽による気流間水分移動-第1報：システムの試作と基礎的水分移動特性- 査読

堀部明彦, 山田寛

日本冷凍空調学会論文集 36 141 - 148 2019年8月

Flow Drag and Heat Transfer Characteristics in Circular Straight Pipe Flow of Nanosuspension as Heat Transport Medium 査読

Shin-ichi MORITA, Katsuma HIRANO, Tomotaka NISHI, Yasutaka HAYAMIZU, Takanobu YAMADA, Akihiko HORIBE

Proceedings of the 14th International Symposium on Experimental Computational Aerothermodynamics of Internal Flows, ISAIF14 2019年7月

Heat Storage and Release Behavior in a Thin Vessel Heat Storage Unit Using Salt Hydrate Latent Heat Storage Material 査読

Naoto Haruki, Akihiko Horibe, Yutaka Yamada

Heat and Mass Transfer ( 55 ) 2797 - 2807 2019年4月

Thermal Conductivity and Density Evaluation of Nanosuspension as Latent Heat Storage Material 査読

Shin-ichi Morita, Fumiya Irie, Katsuma Hirano, Yasutaka Hayamizu, Takanobu Yamada, Akihiko Horibe

Netsu Bussei 33 ( 4 ) 151 - 158 2019年

Effect of physical and chemical factors on the three-phase contact line motion of droplet 査読

Yutaka Yamada, Akihiko Horibe

Proc. 7th Joint Conference on Renewable Energy and Nanotechnology (JCREN2018) 2018年12月

Fundamental study on hydration reaction of water and material for chemical thermal storage 査読

Naoki Hase, Akihiko Horibe, Yutaka Yamada

Proc. 7th Joint Conference on Renewable Energy and Nanotechnology (JCREN2018) 2018年12月

Flow Resistance and Heat Transfer Characteristics of Heat Transfer Fluid on The Rugged Heating Surface 査読

Naoto Haruki, Akihiko Horibe, Yutaka Yamada

Proc. 7th Joint Conference on Renewable Energy and Nanotechnology (JCREN2018) 2018年12月

Experimental and numerical study of melting of the phase change material tetracosane 査読

Madruga Santiago, Haruki Naoto, Horibe Akihiko

INTERNATIONAL COMMUNICATIONS IN HEAT AND MASS TRANSFER 98 163 - 170 2018年11月

Heat-Transport-Evaluation of Nanosuspension as Latent heat Storage Material 査読

Shin-ichi MORITA, Taiki ITO, Yasutaka HAYAMIZU, Takanobu YAMADA and Akihiko HORIBE

Proceedings of Asian Joint Workshop on Thermophysics and Fluid Science AJWTF 7 25 - 31 2018年11月

地床および高設栽培畝の温調冷却栽培による農作物の生育促進に関する研究査読

森田慎一,早水庸隆,中村博行,山田貴延,堀部明彦

Thermal Science & Engineering 26 ( 4 ) 73 - 84 2018年10月

Meniscus Motion and Void Generation Inside Carbon Nanotubes 査読

Yamada Yutaka, Taguchi Kanoko, Ikuta Tatsuya, Horibe Akihiko, Takahashi Koji

JOURNAL OF PHYSICAL CHEMISTRY C 122 ( 38 ) 21910 - 21918 2018年9月

EFFECT OF CHARACTERISTIC DIMENSION OF SURFACE STRUCTURE AND PARTICLES ON THE CONTACT LINE MOTION OF SESSILE SUSPENDED DROPLET EVAPORATION 査読

Yutaka Yamada, Akihiko Horibe

Proc. 16th International Heat Transfer Conference (IHTC16) 2018-August 699 - 704 2018年8月

STUDY ON FORMATION MECHANISM OF THE FLOW DRAG AND HEAT TRANSFER REDUCTION EFFECT OF THE ORGANIC BRINE WITH SURFACTANT 査読

Naoto Haruki, Akihiko Horibe, Yutaka Yamada, Touru Kawaguchi

Proc. 16th International Heat Transfer Conference (IHTC16) 2018-August 3441 - 3447 2018年8月

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