九州大学 研究者情報
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濵中 晃弘(はまなかあきひろ) データ更新日:2024.06.03

助教 /  工学研究院 地球資源システム工学部門 資源システム工学講座


主な研究テーマ
薬液注入後の地山の安定性ならびに周辺環境への影響に関する研究
キーワード:薬液注入、地盤改良
2012.04~2024.03.
熱帯地域における露天掘り鉱山のリハビリテーションに関する研究
キーワード:酸性鉱廃水、土壌浸食、再緑化、露天掘り鉱山
2012.04~2026.03.
石炭地下ガス化(UCG)による未利用石炭の有効活用に関する研究
キーワード:未利用石炭、石炭地下ガス化、破壊音(AE)
2015.04~2026.03.
深海底資源の環境低負荷型開発システムに関する研究
キーワード:海底資源、海底シーリング材
2012.04~2022.03.
小口径推進トンネルの設計・施工に関する研究
キーワード:推進工法、推進力、泥水、泥膜、地下埋設工法
2012.04~2026.03.
フライアッシュセメントの有効利用技術の開発に関する研究
キーワード:フライアッシュセメント、有効利用技術
2012.04~2017.03.
鉱山における発破制御に関する研究
キーワード:石灰石鉱山、発破制御、粒度制御
2012.04~2026.03.
従事しているプロジェクト研究
石炭地下ガス化(UCG)利用による地域創生モデルの構築 -北海道三笠市の未利用石炭資源活用-
2013.04~2025.03, 代表者:板倉賢一, 室蘭工業大学, 室蘭工業大学環境科学・防災研究センター(日本)
これまでの石炭地下ガス化(UCG)の研究実績をもとに、UCGを活用した旧産炭地自治体の地域創生事業モデルを提案し、次のUCG実証試験計画を推進する。.
シールド掘削機のビット摩耗に関する研究
2014.04~2024.03, 代表者:島田英樹, 九州大学.
深海底資源開発における海底シーリング材の開発
2014.04~2022.03, 代表者:島田英樹, 九州大学.
インドネシア坑内掘り石炭鉱山における地山制御問題に関する研究
2013.12~2023.03, 代表者:松井紀久男, 都市基盤・環境・資源センター.
飛石発生メカニズムの解明ならびにその対策
2014.04~2026.03, 代表者:島田英樹, 九州大学.
推進工法掘削機のビット摩耗に関する研究
2010.10~2021.03, 代表者:島田英樹, 九州大学, 日本非開削技術協会.
地球環境を考慮したフライアッシュの有効利用に関する研究
2002.04~2024.03, 代表者:島田英樹, 九州大学, 都市基盤・環境・資源センター(日本)
増加の一途をたどるフライアッシュの有効利用のために、その大量消費利用方法について検討する。.
研究業績
主要原著論文
1. Tianqi JIANG, Chun ZHU, Yang QIAO, Takashi SASAOKA, Hideki SHIMADA, Akihiro HAMANAKA, Wei LI, Bingbing CHEN, Deterioration evolution mechanism and damage constitutive model improvement of sandstone–coal composite samples under the effect of repeated immersion, Physics of Fluids, https://doi.org/10.1063/5.0208619, 36, 5, 56611, 2024.05.
2. Bosong YU, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Fumihiko MATSUMOTO, Tomo MORITA, Bayesian Updating of Model Parameters for Jacking Force Prediction Using Field Observations, Tunnelling and Underground Space Technology, https://doi.org/10.1016/j.tust.2024.105810, 149, 105810, 2024.05.
3. Ian KROP, Yoshiaki TAKAHASHI, Takashi SASAOKA, Hideki SHIMADA, Akihiro HAMANAKA, Joan ONYANGO, Assessment of Selected Machine Learning Models for Intelligent Classification of Flyrock Hazard in an Open Pit Mine, IEEE Access, https://doi.org/10.1109/ACCESS.2024.3352733, 12, 8585-8608, 2024.01.
4. Fa-qiang SU, Jun-nan YANG, Xiao-long HE, Meng-jia DAI, Akihiro HAMANAKA, Yi-he YU, Wen LI, Jiao-yuan LI, Influences of removable gas injection methods on the temperature field and gas composition of the underground coal gasification process, Fuel, https://doi.org/10.1016/j.fuel.2024.130953, 363, 1, 130953, 2024.05.
5. Fa-qiang SU, Xiao-long HE, Meng-jia DAI, Jun-nan YANG, Akihiro HAMANAKA, Yi-he YU, Wen LI, Jiao-yuan LI, Estimation of the cavity volume in the gasification zone for underground coal gasification under different oxygen flow conditions, Energy, https://doi.org/10.1016/j.energy.2023.129309, 285, 129309, 2023.10.
6. Akihiro HAMANAKA, Yuma ISHII, Ken-ichi ITAKURA, Takashi SASAOKA, Hideki SHIMADA, Nuhindro Priagung WIDODO, Budi SULISTIANTO, Jun-ichi KODAMA, Gota DEGUCHI, Monitoring the gasification area and its behavior in underground coal gasification by acoustic emission technique instead of temperature measurement, Scientific Reports, https://doi.org/10.1038/s41598-023-36937-0, 13, 2023.06, Underground Coal Gasification (UCG) requires monitoring of the gasification area because the gasification process is invisible and the reaction temperature exceeds 1,000℃. Many fracturing events that occurred due to coal heating can be captured with Acoustic Emission (AE) monitoring technique during UCG. However, the temperature conditions to generate fracturing events during UCG have not yet been clarified. Therefore, the coal heating experiment and small-scale UCG experiment are conducted by measuring the temperature and AE activities in this research to examine the applicability of the AE technique instead of temperature measurement as a monitoring method during UCG. As a result, many fracturing events are generated when the temperature of coal is changed drastically, especially during coal gasification. Besides, AE events increase in the sensor near the heat source and AE sources are expanded widely with the expansion of the high-temperature region. AE monitoring is an effective technique for the estimation of the gasification area during UCG instead of temperature monitoring..
7. Bosong YU, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Fumihiko MATSUMOTO, Tomo MORITA, A jacking force study based on interpretation of box jacking records: A case study of curved rectangular box jacking in soft soil in Saitama, Japan, Tunnelling and Underground Space Technology, https://doi.org/10.1016/j.tust.2023.105228, 139, 105228, 2023.05.
8. Fa-qiang SU, Jun-bo WU, Zhang TAO, Qi-chao DENG, Yyi-he YU, Akihiro HAMANAKA, Meng-Jia DAI, Jun-Nan YANG, Xiao-long HE, Study on the monitoring method of cavity growth in underground coal gasification under laboratory conditions, Energy, https://doi.org/10.1016/j.energy.2022.126048, 2023.01.
9. Fa-qiang SU, Tao ZHANG, Jun-bo WU, Qi-chao DENG, Akihiro HAMANAKA, Yi-he YU, Meng-jia DAI, Xiao-long HE, Jun-nan YANG, Energy recovery evaluation and temperature field research of underground coal gasification under different oxygen concentrations, Fuel, https://doi.org/10.1016/j.fuel.2022.125389, 329, 2022.12, In this paper, UCG simulation experiments were carried out on selected coal samples to study the effects of the gasification agent ratio on the product gas composition and calorific value under different oxygen concentrations. Moreover, an energy recovery evaluation method based on stoichiometric theory was established based on the carbon (C) balance in the generated gas content, and the energy recovery rate and coal consumption of the underground gasification process were evaluated. Based on the composition of the produced gas and the thermodynamic law of conservation, an evaluation model of the underground coal gasification temperature field was established. The gasification chamber temperature in each stage was evaluated by calculating the reaction heat and sensible heat. The experimental and research results showed that when the volume fraction of oxygen in a gasification agent was in the range 40–70 % and the calorific value of the produced gas increased from 10.48 MJ/m3 to 12.48 MJ/m3. The calorific value of the produced gas increased with an increasing oxygen concentration. Furthermore, the energy recovery rate increased from 69.63 % to 83.88 %, indicating that the gasification efficiency of the UCG experiment can be significantly improved with an increasing oxygen concentration. The error between the theoretical value of the coal consumption and the actual monitoring value was within 10 %, which effectively evaluates the coal consumption in the gasification process. The theoretical calculation temperature was consistent with the experimental monitoring temperature results, and the reaction heat was found to also be linearly correlated with the gasification temperature. Therefore, this method can effectively determine the gasification chamber temperature. These monitoring and evaluation methods are expected to guide the analysis of subsurface field experiments..
10. Hiroto HASHIKAWA, Pisith MAO, Takashi SASAOKA, Akihiro HAMANAKA, Hideki SHIMADA, Ulaankhuu BATSAIKHAN, Jiro OYA, Numerical Simulation on Pillar Design for Longwall Mining under Weak Immediate Roof and Floor Strata in Indonesia, Sustainability, https://doi.org/10.3390/su142416508, 14, 24, 16508, 2022.12.
11. Dyson MOSES, Hideki SHIMADA, Joan A. ONYANGO, Takashi SASAOKA, Akihiro HAMANAKA, Slope design in brecciated carbonatite complexes under high-stress regimes, Bulletin of Engineering Geology and the Environment, https://doi.org/10.1007/s10064-022-02993-5, 81, Article number: 494, 2022.11.
12. Cho Thae OO, Dyson MOSES, Takashi SASAOKA, Hideki SHIMADA, Akihiro HAMANAKA, Joan Atieno OYANGO, Ulaankhuu BATSAIKHAN, Seelae PHAISOPHA, Ian Krop TSUMA, Design and Stope Stability Analysis of Multiple Concurrent Excavated Veins in Underground Mine; Case Study of Hermyingyi Tin-Tungsten (W-Sn) Mine, Geotechnical and Geological Engineering, https://doi.org/10.1007/s10706-022-02322-3, 41, 2, 1049-1072, 2022.11.
13. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Shinji MATSUMOTO, Amelioration of acidic soil using fly Ash for Mine Revegetation in Post-Mining Land, International Journal of Coal Science and Technology, https://doi.org/10.1007/s40789-022-00499-9, 9, 2022.05.
14. Ulaankhuu BATSAIKHAN, Hiroto HASHIKAWA, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Numerical Study on the Applicability of the Pipe-Jacking Method for the Main Gate of an Underground Coal Mining in Weak Rock Mass, Applied Sciences, https://doi.org/10.3390/app12031719, 12, 3, 1719, 2022.02.
15. Peng MA, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Dyson MOSES, Tumelo K.M.DINTWE, Fumihiko MATSUMOTO, Baosong MA, Sheng HUANG, A new method for predicting the friction resistance in rectangular pipe-jacking, Tunnelling and Underground Space Technology, https://doi.org/10.1016/j.tust.2021.104338, 2022.02.
16. Pisith MAO, Hiroto HASHIKAWA, Takashi SASAOKA, Hideki SHIMADA, Zhijun WAN, Akihiro HAMANAKA, Jiro OYA, Numerical Investigation of Roof Stability in Longwall Face Developed in Shallow Depth under Weak Geological Conditions, Sustainability, https://doi.org/10.3390/su14031036, 14, 3, 1036, 2022.01.
17. Akihiro HAMANAKA, Fa-qiang SU, Ken-ichi ITAKURA, Kazuhiro TAKAHASHI, Jun-ichi KODAMA, Gota DEGUCHI, Experimental study on evaluation of underground coal gasification with a horizontal hole using two different coals, Fuel, https://doi.org/10.1016/j.fuel.2021.121556, 305, 2021.12, Underground coal gasification (UCG) is a technique to extract coal energy with heat energy and combustible gases through chemical reactions in the underground gasifier. In this study, an application of a coaxial UCG system with a horizontal hole is discussed by means of the model UCG experiments with a large-scale simulated coal seam having dimensions of 550 × 600 × 2740 mm. The two types of coal having 30.18 MJ/kg of calorific value with 7.9% of ash (type 1) and 22.66 MJ/kg of calorific value with 28.3% of ash (type 2) were used for the experiments to evaluate the effect of coal quality on temperature distribution of the gasification area and product gas quality. The oxygen-enriched air was used. The injection rate of the gasification agents was elevated during the experiments to analyze the effect on the product gas. The results show that the gasification area is expanded along the wall of a coaxial hole, not upwards for the type 2 coal with high ash content. The average calorific value of product gas for types 1 and 2 is 8.05 MJ/m3 and 6.91 MJ/m3 respectively, while an increase of injection flow rate produces an improvement of the calorific value for both types of coal. Additionally, it is suggested that the reacted carbon and the product gas volume can be estimated with the volume of oxygen injected regardless of the coal quality if the gasification efficiency and the reaction temperature are similar. These results help to estimate several important parameters, e.g. reacted coal amount, recovered gas volume, and recovered energy from the coal when the actual field implementation is designed..
18. Tumelo K. M. DINTWE, Takashi SASAOKA, Hideki SHIMADA, Akihiro HAMANAKA, Dyson N. MOSES, Ma PENG, Meng FANFEI, Seifei LIU, Ronald SSEBADDUKA, Joan A. ONYANGO, Numerical Simulation of Crown Pillar Behaviour in Transition from Open Pit to Underground Mining, Geotechnical and Geological Engineering, https://doi.org/10.1007/s10706-021-02022-4, 2021.11.
19. 胡暁虎,高橋良太,島田英樹,笹岡孝司,濵中晃弘,佐藤徹,一ノ瀬政友, 推進工法を用いたパイプルーフ工法における周辺地山の安定性に関する研究, 月刊推進技術, 35, 9, 46-54, 2021.09.
20. Kai WEN, Wei ZENG, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Numerical and theoretical study on the jacking force prediction of slurry pipe jacking traversing frozen ground, Tunnelling and Underground Space Technology, https://doi.org/10.1016/j.tust.2021.104076, 115, 2021.06.
21. Peng MA, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Tumelo K. M. DINTWE, Donjiang PAN, Investigation on the Performance of Pipe Roof Method Adjacent to the Underground Construction, Geotechnical and Geological Engineering, 39, 6, 4677-4687, 2021.02.
22. Takashi SASAOKA, Pisith MAO, Hideki SHIMADA, Akihiro HAMANAKA, Jiro OYA, Numerical Analysis of Longwall Gate-Entry Stability under Weak Geological Condition: A Case Study of an Indonesian Coal Mine, Energies, https://doi.org/10.3390/en13184710, 13, 18, 2020.09.
23. Takashi SASAOKA, Akihiro HAMANAKA, Takahiro FUNATSU, Hideki SHIMADA, Keisuke TAKAHASHI, Study on Addition of Surfactants Agents to Improve the Behavior of High Water Content Sediment for Rare Earth Mining in Deep Sea, Inzynieria Mineralna, http://doi.org/10.29227/IM-2020-01-64, 1(45), 183-188, 2020.07.
24. 笹岡孝司,濵中晃弘,前原一稀, 推進工法を用いたパイプルーフ施工における地中構造物の隣接施工に関する種々の考察, 月刊推進技術, 34, 2, 53-63, 2020.02.
25. Kazuki MAEHARA, Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Seiya SAKUMA, Study on Control of Wall Deflection in Earth Stepped-Twin Retaining Wall Using Anchor Method by means of Numerical Simulation, Advances in Civil Engineering, https://doi.org/10.1155/2020/2710954, 2020, Article ID 2710954, 8 pages, 2020.01.
26. 高橋良尭, 山口耕太郎, 笹岡孝司, 濵中晃弘, 島田英樹, 一ノ瀬政友, 久保田士郎, 佐分利禎, 露天掘り鉱山における発破規格及び岩盤状態が起砕物の飛翔挙動に与える影響, Journal of MMIJ, https://doi.org/10.2473/journalofmmij.135.94, 135, 10, 94-100, 2019.10.
27. Shinji MATSUMOTO, Akihiro HAMANAKA, Kaito MURAKAMI, Hideki SHIMADA, Takashi SASAOKA, Securing Topsoil for Rehabilitation Using Fly Ash in Open-Cast Coal Mines: Effects of Fly Ash on Plant Growth, Inzynieria Mineralna, 1(43), 13-18, 2019.08.
28. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Shinji MATSUMOTO, Experimental study on soil erosion under different soil composition using rainfall simulator, Plant, Soil and Environment, 10.17221/68/2019-PSE, 65, 4, 181-188, 2019.04, Soil erosion is one of the major environmental problems in open-cut mines in tropical regions. It causes negative impacts including the removal of nutrient-rich topsoil, destroys aquatic habitat, dam and pond siltation, clog river by deposition of sediment, and water pollution in the rehabilitation process. Soil texture is an important factor to affect soil erosion. In this study, artificial rainfall experiment in laboratory scale was conducted to clarify the mechanism of soil erosion under the different soil composition and to discuss the method for minimizing soil erosion. Obtained results showed that the soil seal generated due to the presence of fine particle under high rainfall intensity is the main contributor to accelerate the soil erosion. Additionally, the surface coverage by the cover crops is most effective measures to reduce soil erosion because the both of coarse and fine contents runoff can be minimized while the arranging slope angle is effective for reducing the runoff of coarse contents and the soil compaction is effective to reduce that of fine contents. Soil erosion can be minimized by selecting prevention method considering the type of soil because the prevention effect on soil erosion is different depending on the type of soil..
29. 濵中晃弘,蘇発強,板倉賢一,高橋一弘,佐藤孝紀,児玉淳一,出口剛太, コンパクト同軸型石炭地下ガス化システムにおける燃焼・ガス化の制御に関する研究, Journal of MMIJ, https://doi.org/10.2473/journalofmmij.134.81, 134, 7, 81-90, 2018.07.
30. 児玉 淳一, 立川 多久登, 中 良介, 濱中 晃弘, 板倉 賢一, 出口 剛太, 福田 大祐, 藤井 義明, UCG 模型試験における破砕炭と塊炭の燃焼・ガス化特性の比較, Journal of MMIJ, https://doi.org/10.2473/journalofmmij.134.91, 134, 7, 90-98, 2018.07.
31. Fa-qiang SU, Akihiro HAMANAKA, Ken-ichi ITAKURA, Gota DEGUCHI, Wenyan ZHANG, Hua NAN, Evaluation of a Compact Coaxial Underground Coal Gasification System Inside an Artificial Coal Seam, Energies, doi:10.3390/en11040898, 11, 4, 2018.04.
32. Shinji MATSUMOTO, Shunta OGATA, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Ginting Jalu KUSUMA, Effects of pH-Induced Changes in Soil Physical Characteristics on the Development of Soil Water Erosion, Geosciences, doi:10.3390/geosciences8040134, 8, 4, 2018.04.
33. Fa-qiang SU, Akihiro HAMANAKA, Ken-ichi ITAKURA, Wenyan ZHANG, Gota DEGUCHI, Kohki SATOH, Kazuhiro TAKAHASHI, Jun-ichi KODAMA, Monitoring and evaluation of simulated underground coal gasification in an ex-situ experimental artificial coal seam system, Applied Energy, 223, 82-92, 2018.04, In this study, to better simulate underground coal gasification (UCG), an artificial coal seam was constructed to use as a simulated underground gasifier, which comprised coal blocks excavated from the coal seam. This study reports the process and results of three independently designed experiments using coaxial-hole and linking-hole UCG models: (a) a coaxial model using a coaxial pipeline as a gasification channel, (b) a coaxial model using the coaxial pipeline combined with a bottom cross-hole, and (c) a linking-hole model using a horizontal V-shaped cross-hole. In the present work, the fracturing activities and cavity growth inside the reactor were monitored with acoustic emission (AE) technologies. During the process, the temperature profiles, gas production rate, and gas content were measured successively. The results show that AE activities monitored during UCG process are significantly affected by operational variables such as feed gas rate, feed gas content, and linking-hole types. Moreover, the amount of coal consumed during UCG process were estimated using both of the stoichiometric approach and balance computation of carbon (C) based on the product gas contents. A maximum error of less than 10% was observed in these methods, in which the gas leakage was also considered. This demonstrates that
the estimated results using the proposed stoichiometric approach could be useful for evaluating energy recovery during UCG..
34. Zhiyi ZHANG, Hideki SHIMADA, Takashi SASAOKA, Akihiro HAMANAKA, Stability Control of Retained Goaf-Side Gateroad under Different Roof Conditions in Deep Underground Y Type Longwall Mining, Sustainability, doi:10.3390/su9101671, 9, 10, 2017.09.
35. Akihiro HAMANAKA, Fa-qiang SU, Ken-ichi ITAKURA, Kazuhiro TAKAHASHI, Jun-ichi KODAMA, Gota DEGUCHI, Effect of injection flow rate on product gas quality in underground coal gasification (UCG) based on laboratory scale experiment
Development of co-axial UCG system, Energies, 10.3390/en10020238, 10, 2, 2017.01, [URL], 同軸型UCGシステムの確立のため、室内石炭地下ガス化モデル実験を行い、注入ガスの流量が生成ガス質に与える影響に関して検討した。その結果、注入ガス量を制御することで、生成ガス質が制御し得ることが明らかとなった。.
36. Fa-qiang SU, Akihiro HAMANAKA, Ken-ichi ITAKURA, Gota DEGUCHI, Kohki SATOH, Jun-ichi KODAMA, Evaluation of coal combustion zone and gas energy recovery for underground coal gasification (UCG) process, Energy & Fuels, 10.1021/acs.energyfuels.6b01922, 31, 1, 154-169, 2017.01, [URL].
37. 加藤正剛,濵中晃弘,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政, 砂利採取跡地緑化の効率化を目的とした脱水ケーキを利用する土壌改良材の開発とその植栽試験による検証, 骨材資源, 47, 185, 24-36, 2015.06.
38. 笹岡孝司,濵中晃弘,島田英樹,松井紀久男,一ノ瀬政友, インドネシア露天掘り石炭鉱山における最終残壁法先からの坑内採掘への移行に関する検討, Journal of MMIJ, 131, 5, 195-202, 2015.05.
39. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Design of self-sustainable land surface against soil erosion at rehabilitation areas in open-cut mines in tropical regions, International Journal of Mining, Reclamation and Environment, 29, 4, 305-315, 2015.04.
40. Akihiro HAMANAKA, Naoya INOUE, Shinji MATSUMOTO, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Rehabilitation of Open Cut Coal Mine with Paper Mulberry (Broussonetia Papyrifera) in Indonesia, INZYNIERIA MINERALNA Journal of the Polish Mineral Enginering Society, 15, 2(34), 159-163, 2014.12.
41. 濵中晃弘, 宮島郁夫, 井上直也, 島田英樹, 笹岡孝司, 松井紀久男, インドネシア露天掘り鉱山の採掘跡地におけるカジノキ(Broussonetia Papyrifera(L.) Venten.)を用いた再緑化に関する研究, 農業生産技術管理学会誌, 21, 2, 33-39, 2014.09.
42. 濵中晃弘,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政友, インドネシア露天掘り石炭鉱山におけるダンピングサイトの現状と今後の課題 -酸性鉱山排水問題に着目して-, Journal of MMIJ, 130, 1, 9-15, 2014.01.
主要総説, 論評, 解説, 書評, 報告書等
1. 濵中晃弘,島田英樹,笹岡孝司,久保田士郎,高橋良尭, 機械学習を用いた鉱山発破における起砕物の粒径予測に関する研究, 石灰石, 2023.09.
2. 濵中晃弘、島田英樹、笹岡孝司、一ノ瀬政友, 露天掘り石灰石鉱山における土壌浸食を考慮した環境修復のための再緑化の検討, 石灰石, 2018.11.
主要学会発表等
1. 濵中晃弘,板倉賢一,出口剛太,高橋一弘,児玉淳一,笹岡孝司,島田英樹, 未利用資源の有効利用に向けた露頭炭層石炭地下ガス化現場実験, 資源・素材学会春季大会, 2024.03.
2. 濵中晃弘,板倉賢一,蘇発強,高橋一弘,児玉淳一,出口剛太, 石炭地下ガス化(UCG)模型実験によるガス化パラメータの予測, 資源・素材関係学協会合同秋季大会, 2023.09.
3. Akihiro HAMANAKA, Yuma ISHII, Ken-ichi ITAKURA, Takashi SASAOKA, Hideki SHIMADA, Fa-qiang SU, Jun-ichi KODAMA, Gota DEGUCHI, Assessment of Gasification Area with Acoustic Emission Instead of Temperature Monitoring in Underground Coal Gasification, 26th World Mining Congress, 2023.06.
4. 濵中晃弘, 石炭地下ガス化(UCG)におけるAE計測による炭層の破壊活動の把握, 第31回AE技術研究会, 2023.06.
5. 濵中晃弘,板倉賢一,出口剛太,Yafei Zhao,高橋一弘,児玉淳一,原田周作,濱幸雄,金志訓,山中真也,菅井裕一,江崎丈裕,笹岡孝司,島田英樹, CO2マイクロバブル水および高炉スラグの坑内炭鉱の採掘跡への注入実験, 資源・素材学会春季大会, 2023.03.
6. 濵中晃弘,板倉賢一,児玉淳一,出口剛太, 石炭地下ガス化(UCG)における炭層の破壊メカニズムと反応領域のモニタリング, 資源・素材関係学協会合同秋季大会, 2022.09.
7. 濵中晃弘,板倉賢一,蘇発強,高橋一弘,児玉淳一,出口剛太, 石炭地下ガス化(UCG)模擬実験によるガス化制御に関するこれまでの知見, 資源・素材学会春季大会, 2022.03.
8. Akihiro Hamanaka, Takashi Sasaoka, Hideki Shimada, Shinji Matsumoto, Evolution of Plant Growth with Mixture of Fly Ash to Acidic Soil for Rehabilitation of Disturbed Land in Open-cut Mines, 3rd International Symposium on Land Reclamation and Ecological Restoration, 2021.10.
9. Akihiro Hamanaka, Yoshimitsu Makabe, Ken-ichi Itakura, Takashi Sasaoka, Hideki Shimada, Nuhindro Priagung Widodo, Budi Sulistianto, Gota Deguchi, Study on Generating Acoustic Emission with Heating Coal for Application as Monitoring System for Underground Coal Gasification, The 11th Asian Rock Mechanics Symposium, 2021.10.
10. 濵中晃弘,板倉賢一,蘇発強,高橋一弘,児玉淳一,出口剛太, 最近の石炭地下ガス化(UCG)模擬実験の取り組みと水素生成に関する考察, 資源・素材関係学協会合同秋季大会, 2021.09.
11. 濵中晃弘,田頭良浩,笹岡孝司,島田英樹,松本親樹, ミャンマー北部の露天掘り金鉱山における酸性坑廃水抑制に向けた廃石の埋め戻し設計に関する実験的研究, 資源・素材学会春季大会, 2021.03.
12. 濵中晃弘,真壁良充,板倉賢一,笹岡孝司,島田英樹,出口剛太, 石炭地下ガス化におけるガス化反応領域のモニタリングのためのAE計測の適用性に関する基礎的研究, 資源・素材関係学協会合同秋季大会, 2020.09.
13. 濵中晃弘、前原一稀、笹岡孝司、島田英樹、佐久間誠也, 二段土留め施工におけるアンカー工法適用による土留め壁の変位制御に関する研究, 資源・素材学会春季大会, 2020.03.
14. Akihiro HAMANAKA, Fa-qiang SU, Ken-ichi ITAKURA, Kazuhiro TAKAHASHI, Jun-ichi KODAMA, Gota DEGUCHI , Large-scale Laboratory Experiment on Development of Underground Coal Gasification with Horizontal Well , The 5th ISRM Young Scholars' Symposium on Rock Mechanics & International Symposium on Rock Engineering for Innovative Future, 2019.12, Underground coal gasification (UCG) is a technique to recover coal energy by the in-situ conversion of coal into gaseous products. In this study, an application of co-axial UCG system with a horizontal well is discussed by means of the model UCG experiment with a large-scale simulated coal seam which the size is 550 × 600 × 2,740 mm. A horizontal well which has 45 mm diameter is used as an injection/production well. The effect of injection rate is evaluated by using the results of gas compositions, temperature profile, and acoustic emission monitoring. During the experiment, the changes of temperature field and product gas compositions were observed by changing the position of an injection pipe, meaning that it is possible to control gasification area and the quality of product gas by controlling the injection position. Additionally, the increase of injection rate attribute to improve the calorific value of product gas while the higher flow rate may cause to move the gasification area rapidly when the coal with higher ash is gasified..
15. Akihiro HAMANAKA, Han Huor OENG, Kazuki MAEHARA, Takashi SASAOKA, Hideki SHIMADA, Toru SATO, Effects of Lubricants in Over-cutting Area of Pipe Roof Method on Reducing Surface Settlement, VCRES 2019 international symposium, 2019.11.
16. 濵中晃弘、板倉賢一、蘇発強、高橋一弘、佐藤孝紀、児玉淳一、出口剛太, 水平孔を用いた石炭地下ガス化(UCG)システムにおける炭質および注入条件が生成ガス成分および反応領域に与える影響, 資源・素材関係学協会合同秋季大会, 2019.09.
17. 濵中晃弘,板倉賢一,蘇発強,児玉淳一,出口剛太, 石炭地下ガス化(Underground Coal Gasification)におけるAE計測に関する二、三の考察, 資源・素材学会北海道支部 春季講演会, 2019.06.
18. 濵中晃弘,Thant Swe WIN,山崎寛人,笹岡孝司,島田英樹,松本親樹, ミャンマーの金鉱山における酸性鉱山廃水問題の現状調査, 資源・素材学会春季大会, 2019.03.
19. Akihiro HAMANAKA, Hiroto YAMASAKI, Takashi SASAOKA, Hideki SHIMADA, Shinji MATSUMOTO, Application of Fly Ash to Acidic Soil to Improve Plant Growth in Disturbed Land of Open-cut Mining, 18th Symposium on Environmental Issues and Waste Management in Energy and Mineral Production, 2018.11, The amount of fly ash disposed as industrial wastes is increasing with increasing coal demands all over the world. Although fly ash is generally disposed by landfill, the demand of effective utilization of them is increasing because of the limitation of the disposal site. 80 % of coal ash is utilized such as a material for cements though less of them are disposed by landfill. Considering the preparation of landfill area and environmental issues, it is very meaningful to discuss the utilization of fly ash except a cement usage. Most of coal is mined by open-pit mining method in Indonesia. A broad post-mining area is built after the mining operation. The broad area has to be revegetated in terms of environmental conservation. However, soil acidification caused by mixing acid sulfate rocks or soils mined in the operation influences the revegetation. As the plant growth is inhibited under the acidic conditions, the utilization of fly ash which has higher neutralizing capacity due to its alkalinity is expected in order to improve the conditions of seedbed in the revegetation area. In this paper, the utilization of fly ash for preparation of seedbed in disturbed land in Indonesian open cut coal mine is discussed by means of laboratory pot trials by using simulated acidic soil with a mixture of pyrite, fly ash which has higher alkalinity, and Acacia mangium which is a typical species planted for fast growing tree in Indonesia. The results suggested that the appropriate mixture of fly ash to neutralize the acidic soil can be improved the plant growth under the acidic condition..
20. Akihiro HAMANAKA, Ken-ichi ITAKURA, Fa-qiang SU, Gota DEGUCHI, Jun-ichi KODAMA, Estimation of Gasification Area of Underground Coal Gasification by using Acoustic Emission Monitoring, 10th Asian Rock Mechanics Symposium, 2018.10.
21. 濵中晃弘,板倉賢一,蘇 発強,高橋一弘,佐藤孝紀,児玉淳一,出口剛太, 水平孔を用いた石炭地下ガス化(UCG)システムにおける生成ガス成分の制御および反応領域の推定, 資源・素材関係学協会合同秋季大会, 2018.09.
22. Akihiro HAMANAKA, Ken-ichi ITAKURA, Fa-qiang SU, Jun-ichi KODAMA, Gota DEGUCHI, Several Considerations on Application of Underground Coal Gasification (UCG) with High Efficiency and Safety, 25th World Mining Congress, 2018.06.
23. 濵中晃弘,山崎寛人,笹岡孝司,島田英樹,松本親樹, 露天掘り鉱山採掘跡地におけるフライアッシュの酸性土壌への適用が植物生育に与える影響, 資源・素材学会春季大会, 2018.03.
24. 濵中晃弘,板倉賢一,蘇発強,児玉淳一,出口剛太, コンパクト型石炭地下ガス化(UCG)システム開発の取り組み, 資源・素材関係学協会合同秋季大会, 2017.09.
25. Akihiro HAMANAKA, Ken-ichi ITAKURA, Fa-qiang SU, Kazuhiro TAKAHASHI, Kohki SATOH, Jun-ichi KODAMA, Gota DEGUCHI, Experimental Study on The Compact Underground Coal Gasification System with A Horizontal Well, 26th International Symposium on Mine Planning and Equipment Selection, 2017.08.
26. 濵中 晃弘, 板倉 賢一, 蘇 発強, 出口 剛太, 猪股 英紀, 辻 拓真, 三浦 涼大, 島口 慎也, 高橋 一弘, 児玉 淳一, 石炭地下ガス化(UCG)における着火および消火手法について, 資源・素材学会北海道支部 春季講演会, 2017.06.
27. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Gota DEGUCHI, Jun-ichi KODAMA, Application of Acoustic Emission Monitoring during Underground Coal Gasification, 2017 ISRM Young Scholars’ Symposium on Rock Mechanics (YSRM 2017) & 2017 International Conference on New Development in Rock Mechanics and Geotechnical Engineering (NDRMGE 2017), 2017.05.
28. Akihiro HAMANAKA, Ken-ichi ITAKURA, Fa-qiang SU, Kazuhiro TAKAHASHI, Kohki SATOH, Yukio HAMA, Wenyan ZHANG, Jun-ichi KODAMA, Gota DEGUCHI, Field Underground Coal Gasification (UCG) Experiment: Trial 1, Joint Seminar on Environmental Science and Disaster Mitigation Research 2017, 2017.03.
29. 濵中 晃弘, 板倉賢一, 蘇発強, 高橋一弘, 佐藤孝紀, 児玉淳一, 出口剛太, 水平孔を用いた同軸方式石炭地下ガス化システムの実験的検討, 資源・素材学会春季大会, 2017.03.
30. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Kazuhiro TAKAHASHI, Kouki SATOH, Gota DEGUCHI, and Jun-ichi KODAMA, Model Experiment for Co-axial Underground Coal Gasification System Development, 24th World Mining Congress (Sustainability in mining), 2016.10.
31. 濵中晃弘, 板倉賢一, 蘇発強, 児玉淳一, 出口剛太, 破壊音計測技術を利用した石炭地下ガス化の反応領域の推定, 資源・素材関係学協会合同秋季大会, 2016.09.
32. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Gota DEGUCHI, Jun-ichi KODAMA, Underground coal gasification with monitoring technique by using acoustic emission, 6th International Symposium on Energy Challenges and Mechanics, 2016.08.
33. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Numerical Simulation on Product Gas of Underground Coal Gasification Based on Laboratory Scale Experiment, First International Conference Mining in Europe, 2016.05.
34. 濵中晃弘, 板倉賢一, 蘇発強, 高橋一弘, 佐藤孝紀, 児玉淳一, 出口剛太, 石炭ブロックを用いた石炭地下ガス化模型実験によるガス化効率の評価, 資源・素材学会春季大会, 2016.03.
35. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Gota DEGUCHI, Preparation of Field Underground Coal Gasification (UCG) Test, Joint Seminar on Environmental Science and Disaster Mitigation Research 2016, 2016.03.
36. Akihiro HAMANAKA, Ken-ichi ITAKURA, Faqiang SU, Kouki SATOH, Kazuhiro TAKAHASHI, Gota DEGUCHI, Jun-ichi KODAMA, Koutarou OHGA, Development of Compact Underground Coal Gasification (UCG) System as a Local Energy Resource, International Symposium on Earth Science and Technology 2015, 2015.12.
37. Akihiro HAMANAKA, Hideki SHIMADA, Takashi SASAOKA, Yasuhiro YOSHIDA, Shuichi FUJITA, Material for construction of seabed structures using fly ash-surfactant mixtures, 23rd International Symposium on Mine Planning and Equipment Selection, 2015.11.
38. Akihiro HAMANAKA, Hideki SHIMADA, Takashi SASAOKA, Study on method for minimizing soil erosion in open-cut mines in tropical regions, 34th International Conference on Ground Control in Mining (China 2015), 2015.10.
39. 濵中晃弘,島田英樹,笹岡孝司, 熱帯地域の露天掘り石炭鉱山における採掘跡地における土壌浸食予測, 資源・素材関係学協会合同秋季大会, 2015.09.
40. 濵中晃弘,島田英樹,笹岡孝司, 熱帯地域の露天掘り鉱山における土壌の浸食抑制法に関する研究, 資源・素材学会北海道支部 春季講演会, 2015.06.
41. Akihiro HAMANAKA, Hideki SHIMADA, Shunta OGATA, Takashi SASAOKA, Ikuo MIYAJIMA, Utilization of Coal Ash for Preparation of Seedbed in Disturbed Land in Indonesian Open Cut Coal Mine, 19th Conference on Environment and Mineral Processing, 2015.06.
42. 濵中晃弘,島田英樹,笹岡孝司,松井紀久男,高橋恵輔,吉田安廣,一ノ瀬政友, 海底熱水資源開発に伴う環境擾乱のリハビリテーションに向けた海底シーリング材の適用性評価, 資源・素材学会春季大会, 2015.03.
43. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Assessment of Soil Erosion at Rehabilitation Area in Tropical Regions Based on Laboratory Experiment, International Symposium on Earth Science and Technology 2014, 2014.12.
44. Akihiro HAMANAKA, Amarsailhan TSEDENDORJ, Naoya INOUE, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Current Geotechnical Issues in Open Cut Mining in Desert Area in Mongolia, 33rd International Conference on Ground Control in Mining (China), 2014.10.
45. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, An Experimental Study for Assessment of Soil Erosion at Rehabilitation Area in Indonesian Coal Mine, Beijing International Symposium Land Reclamation and Ecological Restoration, 2014.10.
46. 濵中晃弘,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政友, インドネシア露天掘り石炭鉱山における環境修復の現状および今後の展望, 資源・素材関係学協会合同秋季大会, 2014.09.
47. 濵中晃弘,井上直也,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政友, USLE式を用いたインドネシア露天掘り鉱山における土壌浸食の評価法に関する検討, 資源・素材関係学協会合同秋季大会, 2014.09.
48. 濵中晃弘,井上直也,島田英樹,笹岡孝司,松井紀久男,宮島郁夫,一ノ瀬政友, インドネシア露天掘り鉱山の採掘跡地におけるカジノキの現場適用性に関する検討, 資源・素材学会九州支部若手研究者および技術者の研究発表会, 2014.05.
49. Akihiro HAMANAKA, Naoya INOUE, Shinji NATSUMOTO, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Revegetation for Utilization of Disturbed Land by Paper Mulberry in Indonesian Open Cut Mine, 18th Conference on Environment and Mineral Processing, 2014.05.
50. 濵中晃弘,島田英樹,笹岡孝司,松井紀久男,宮島郁夫,一ノ瀬政友, インドネシア露天掘り石炭鉱山のリハビリテーションにおける土壌浸食評価, 資源・素材学会春季大会, 2014.03.
51. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Several Considerations on Soil Erosion at the Rehabilitation Area in Indonesian Coal Mine, International Symposium on Earth Science and Technology 2013, 2013.12.
52. 濵中晃弘,井上直也,宮島郁夫,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政友, インドネシア露天掘り石炭鉱山跡地における環境修復の取り組み-カジノキ(Broussonetia Papyrifera)を用いた再緑化, 農業生産技術管理学会, 2013.10.
53. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuo MIYAJIMA, Study on Backfilling of Soil for Revegetation at the Rehabilitation Area in Indonesian Coal Mine, 22nd Mine Planning and Equipment Selection, 2013.10.
54. 濵中晃弘,井上直也,島田英樹,笹岡孝司,松井紀久男,宮島邦夫,一ノ瀬政友, インドネシア露天掘り石炭鉱山におけるカジノキを用いた再緑化に関する検討, 資源・素材関係学協会合同秋季大会, 2013.09.
55. Akihiro HAMANAKA, Naoya INOUE, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Ikuyo MIYAJIMA, Fundamental Study on Revegetation of Post Mine Surface by Paper Mullberry in Open Cut Mine, 8th International Forum on Strategic Technology 2013, 2013.06.
56. 濵中晃弘,島田英樹,笹岡孝司,松井紀久男,宮島郁夫,一ノ瀬政友, インドネシア露天掘り鉱山のリハビリテーションエリアにおける再緑化に向けた表土の埋め戻しに関する検討, 資源・素材学会春季大会, 2013.03.
57. 濵中晃弘,岡崎臣,島田英樹,笹岡孝司,松井紀久男,一ノ瀬政友, インドネシア露天掘り石炭鉱山跡リハビリテーションにおける土壌浸食予測のための実験的検討, 第13回岩の力学国内シンポジウム, 2013.01.
58. Akihiro HAMANAKA, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Shuichi FUJITA, Ikuo MIYAJIMA, Effect of Mixture Materials Using Waste Rock and Flyash for the AMD Prevention and Vegetation, 21st International Symposium on Mine Planning and Equipment Selection, 2012.11.
59. Akihiro HAMANAKA, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, Shuichi FUJITA, Ikuo MIYAJIMA, Effect of mixture materials using waste rock and flyash for the AMD prevention and vegetation, The 9th International Symposium on Novel Carbon Resource Science, 2012.11.
60. Akihiro HAMANAKA, Sri MARYATI, Jin OKAZAKI, Hideki SHIMADA, Takashi SASAOKA, Kikuo MATSUI, The Experimental Study for Prediction of Soil Erosion in the Rehabilitation Area of Indonesia Coal Mine, International Symposium on Earth Science and Technology 2012, 2012.09.
61. 濵中晃弘,Ginting Jalu KUSUMA,島田英樹,笹岡孝司,松井紀久男,宮島邦夫,一ノ瀬政友, インドネシア露天掘り石炭鉱山におけるAMD問題と廃石が植生に及ぼす影響に関する検討, 資源・素材学会春季大会, 2012.03.
62. Akihiro HAMANAKA, Ginting Jalu KUSUMA, Candra NUGRAHA, Takashi SASAOKA, Hideki SHIMADA, Ikuo MIYAJIMA, Shuichi FUJITA, Kikuo MATSUI, Fundamental Study on Application of Paper Mulberry for Rehabilitation of Surface Coal Mine in Indonesia, International Symposium on Earth Science and Technology 2011, 2011.12.
63. Akihiro HAMANAKA, Nay Zar LIN, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Eco Underground Coal Mining Systems for Ultra-Thick Coal Seam - Utilisation of Flyash and CO2 Storage, 2nd International Future Mining Conference 2011, 2011.11.
64. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Application of Punch Mining System to Indonesian Coal Mining Industry, 20th International Symposium on Mine Planning and Equipment Selection, 2011.10.
65. 濵中晃弘,Nay Zar LIN,笹岡孝司,島田英樹,松井紀久男,高本 拓,大屋二郎,一ノ瀬政友, タイ・Mae Moh炭鉱における充填厚層採炭システムに関する検討, 資源・素材関係学協会合同秋季大会, 2011.09.
66. 濵中晃弘,笹岡孝司,島田英樹,松井紀久男,高本拓, インドネシア露天掘り石炭鉱山におけるパンチマイニングシステムの適用に関する数値解析的検討, 第32回西日本岩盤工学シンポジウム, 2011.09.
67. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Pinyo MEECHUMNA, Pipat LAOWATTANABANDIT, Study on Applicable Highwall Mining System for Thick and Weak Coal Seams, 5th International Workshop and Conference on Earth Resources Technology, 2011.05.
68. 濵中晃弘,笹岡孝司,島田英樹,松井紀久男,Pinyo MEECHUMNA,Pipat LAOWATTANABANDIT,高本 拓,一ノ瀬政友, Mae Moh 炭鉱における採掘跡充填式ハイウォールマイニングシステムの厚層採炭への適用に関する検討, 資源・素材学会春季大会, 2011.03.
69. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Pinyo MEECHUMNA, Pipat LAOWATTANABANDIT, Application of Multi-Slicing Highwall Mining System with Stowing at Surface Coal Mine in Thailand, International Symposium on Earth Science and technology 2010, 2010.12.
70. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Pinyo MEECHUMNA, Pipat LAOWATTANABANDIT, Application of Multi Slicing Highwall Mining System with Stowing at Surface Coal Mine at Thailand, 19th International Symposium on Mine Planning & Equipment Selection, 2010.12.
71. 濵中晃弘,笹岡孝司,島田英樹,松井紀久男,Pinyo MEECHUMNA,Pipat LAOWATTANABANDIT,高本 拓,一ノ瀬政友, Mae Moh炭鉱におけるハイウォールマイニングシステムの適用性に関する検討, 資源・素材関係学協会合同秋季大会, 2010.09.
72. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Pinyo MEECHUMNA, Pipat LAOWATTANABANDIT, Application of Highwall Mining System at Surface Coal Mine in Thailand, 29th International Conference on Ground Control in Mining, 2010.07.
73. 濵中晃弘,笹岡孝司,島田英樹,松井紀久男,一ノ瀬政友,高本拓, Mae Moh炭鉱におけるハイウォールマイニングシステムの適用に関する二、三の検討, 資源・素材学会九州支部春季例会, 2010.06.
74. Akihiro HAMANAKA, Takashi SASAOKA, Hideki SHIMADA, Kikuo MATSUI, Hiroshi TAKAMOTO, Pinyo MEECHUMNA, Pipat LAOWATTANABANDIT, Application of Highwall Mining System at Surface Coal Mine in Thailand, 4th International Workshop and Conference on Earth Resources Technology, 2010.05.
学会活動
所属学会名
岩の力学連合会
農業生産技術管理学会
資源・素材学会
学協会役員等への就任
2022.03~2025.03, 資源・素材学会九州支部, 幹事.
2017.06~2023.06, 資源・素材学会九州支部, 常議員.
2015.06~2016.10, 資源・素材学会北海道支部, 幹事.
学会大会・会議・シンポジウム等における役割
2024.03.17~2024.03.19, 資源・素材学会2024年度春季大会, 座長(Chairmanship).
2023.11.30~2023.12.01, International Symposium on Earth Science and Technology 2023, Secretaria.
2023.08.27~2023.08.28, 第41回西日本岩盤シンポジウム, 座長(Chairmanship).
2023.03.13~2023.03.15, 資源・素材学会2023年度春季大会, 座長(Chairmanship).
2022.12.01~2022.12.02, International Symposium on Earth Science and Technology 2022, Secretaria.
2022.09.06~2022.09.08, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2022.04.01~2022.09.08, 資源・素材関係学協会合同秋季大会, 運営委員.
2022.03.07~2022.03.09, 資源・素材学会2022年度春季大会, 座長(Chairmanship).
2021.11.25~2021.11.26, International Symposium on Earth Science and Technology 2021, Secretaria.
2021.11.25~2021.11.26, International Symposium on Earth Science and Technology 2021, 座長(Chairmanship).
2021.09.14~2021.09.16, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2021.03.08~2021.03.10, 資源・素材学会2021年度春季大会, 座長(Chairmanship).
2020.11.26~2020.11.27, International Symposium on Earth Science and Technology 2020, Secretaria.
2020.11.26~2020.11.27, International Symposium on Earth Science and Technology 2020, 座長(Chairmanship).
2020.09.09~2020.09.10, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2019.12.05~2019.12.06, International Symposium on Earth Science and Technology 2019, Secretaria.
2019.12.01~2019.12.04, The 5th ISRM Young Scholars' Symposium on Rock Mechanics and International Symposium on Rock Engineering for innovative Future, 座長(Chairmanship).
2019.09.25~2019.09.25, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2019.09.01~2019.09.02, 第40回西日本岩盤工学シンポジウム, 座長(Chairmanship).
2019.03.06~2019.03.08, 資源・素材学会平成30年度春季大会, 座長(Chairmanship).
2018.11.29~2018.11.30, International Symposium on Earth Science and Technology 2018, 座長(Chairmanship).
2018.11.29~2018.11.30, International Symposium on Earth Science and Technology 2018, Secretaria.
2018.11.20~2018.11.22, 18th INTERNATIONAL SYMPOSIUM ON ENVIRONMENTAL ISSUES AND WASTE MANAGEMENT IN ENERGY AND MINERAL PRODUCTION, 座長(Chairmanship).
2018.11.20~2018.11.22, 27th International Symposium on Mine Planning and Equipment Selection, 座長(Chairmanship).
2018.09.22~2018.09.23, 第39回西日本岩盤工学シンポジウム, 座長(Chairmanship).
2018.09.10~2018.09.12, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2018.04.01~2019.12.04, The 5th ISRM Young Scholars' Symposium on Rock Mechanics and International Symposium on Rock Engineering for innovative Future, 運営委員.
2018.04.01~2018.09.12, 資源・素材関係学協会合同秋季大会, 運営委員.
2018.03.27~2018.03.29, 資源・素材学会平成29年度春季大会, 座長(Chairmanship).
2017.11.30~2017.12.01, International Symposium on Earth Science and Technology 2017, Secretaria.
2017.11.30~2017.12.01, International Symposium on Earth Science and Technology 2017, 座長(Chairmanship).
2017.09.26~2017.09.28, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2017.09.14~2017.09.14, 第38回西日本岩盤工学シンポジウム, 座長(Chairmanship).
2017.09.13~2017.09.14, 第38回西日本岩盤工学シンポジウム, 幹事.
2017.03.27~2017.03.29, 資源・素材学会平成29年度春季大会, 座長(Chairmanship).
2016.12.08~2016.12.09, International Symposium on Earth Science and Technology 2016, 座長(Chairmanship).
2016.06.18~2016.06.18, 平成28年度資源・素材学会北海道支部春季講演会, 座長(Chairmanship).
2016.03.11~2016.03.11, Joint Seminar on Environmental Science and Disaster Mitigation Research 2016, 幹事.
2015.12.03~2015.12.04, International Symposium on Earth Science and Technology 2015, 座長(Chairmanship).
2015.09.26~2015.09.28, 資源・素材関係学協会合同秋季大会, 座長(Chairmanship).
2015.09.08~2015.09.10, 資源・素材関係学協会合同秋季大会 , 座長(Chairmanship).
学会誌・雑誌・著書の編集への参加状況
2023.04~2024.03, Proceedings of International Symposium on Earth Science and Technology 2023, 国際, 編集委員.
2022.04~2023.03, Proceedings of International Symposium on Earth Science and Technology 2022, 国際, 編集委員.
2021.08~2031.09, 資源・素材学会, 国内, 編集委員.
2021.04~2022.03, Proceedings of International Symposium on Earth Science and Technology 2021, 国際, 編集委員.
2020.04~2021.03, Proceedings of International Symposium on Earth Science and Technology 2020, 国際, 編集委員.
2019.04~2020.03, Proceedings of International Symposium on Earth Science and Technology 2019, 国際, 編集委員.
2018.04~2019.03, Proceedings of International Symposium on Earth Science and Technology 2018, 国際, 編集委員.
2017.04~2018.03, Proceedings of International Symposium on Earth Science and Technology 2017, 国際, 編集委員.
2017.04~2018.03, 第38回西日本岩盤シンポジウム論文集, 国内, 編集委員.
学術論文等の審査
年度 外国語雑誌査読論文数 日本語雑誌査読論文数 国際会議録査読論文数 国内会議録査読論文数 合計
2023年度    
2022年度      
2021年度      
2020年度    
2019年度      
2018年度    
2017年度      
その他の研究活動
海外渡航状況, 海外での教育研究歴
University of Yangon, Myanmar, 2019.01~2019.01.
Technical University of Ostrava, CzechRepublic, 2019.05~2019.06.
Far Eastern Federal University, Russia, 2018.03~2018.03.
University of Yangon, Myanmar, 2017.04~2017.04.
Xi’an University of Science and Technology, China, 2017.10~2017.10.
Aachen University, Germany, 2016.05~2016.05.
Henan Polytechnic University, China, 2015.10~2015.10.
China University of Mining and Technology Beijing (CUMTB), China, 2014.10~2014.10.
Mongolian University of Science and Technology, Mongolia, 2013.06~2013.07.
Curtin University, Australia, 2013.03~2013.03.
The University of New South Wales, Australia, 2011.11~2011.11.
Technical University of Ostrava, CzechRepublic, 2011.01~2011.03.
受賞
黒瀬章(優秀論文部門), 公益社団法人日本推進技術協会, 2021.05.
奨励賞, 資源・素材学会, 2020.03.
Young Researcher Excellent Paper Award, The 5th ISRM Young Scholars' Symposium on Rock Mechanics & International Symposium on Rock Engineering for Innovative Future, 2019.12.
MITSUI MASTUSHIMA AWARD for BEST PAPER, International Symposium on Earth Science and technology 2014, 2014.12.
Young Researcher Award Kyushu, MMIJ, 資源・素材学会九州支部, 2014.05.
MITSUI MASTUSHIMA AWARD for BEST POSTER, International Symposium on Earth Science and technology 2013, 2013.12.
BEST POSTER AWARD, International Symposium on Earth Science and technology 2012, 2012.09.
BEST PAPER AWARD, International Symposium on Earth Science and technology 2010, 2010.12.
Presentation Award Kyushu, MMIJ, 資源・素材学会九州支部, 2010.05.
Outstanding Student Award Kyushu MMIJ, 資源・素材学会九州支部, 2010.03.
研究資金
科学研究費補助金の採択状況(文部科学省、日本学術振興会)
2022年度~2024年度, 基盤研究(C), 分担, 水素サプライチェーン構築を目指した低品位石炭資源採掘-CO2貯留システムの開発.
2021年度~2023年度, 若手研究, 代表, 低品位炭の有効利用に向けた石炭地下ガス化におけるAE発生メカニズムの解明.
2019年度~2020年度, 若手研究, 代表, 石炭地下ガス化における反応領域の高度モニタリング・制御に向けたAE技術の適用.
2015年度~2017年度, 基盤研究(A), 分担, コンパクト同軸型石炭地下ガス化(UCG)システムの開発.
競争的資金(受託研究を含む)の採択状況
2024年度~2024年度, 公益財団法人 大林財団 2023年度 研究助成, 代表, CO2固定に向けたナノバブルによるセメントおよび高炉スラグの炭酸塩化の促進.
2024年度~2026年度, 学会長期テーマプロジェクト 第 2 期, 代表, 低炭素社会の実現に向けた未利用地下資源からの水素生成と開発跡地への二酸化炭素の地下貯留.
2024年度~2024年度, 「西部ガスグループカーボンニュートラル2050」実現に資する研究助成, 代表, ナノバブル技術を応用した地下の採掘跡地におけるCO2固定化による脱炭素の促進.
2024年度~2024年度, 第50回(2023年度) 岩谷科学技術研究助成, 代表, 未利用地下資源の地下水素化技術の開発.
2022年度~2022年度, 石灰石鉱業協会研究奨励金, 代表, 機械学習を用いた鉱山発破における起砕物の粒径予測に関する研究.
2019年度~2019年度, 第38回(平成30年度) 東燃ゼネラル石油研究奨励・奨学財団 研究助成(奨学寄附金), 代表, 石炭地下ガス化における木質バイオマスおよび廃プラスチックの有効利用に関する研究.
2019年度~2019年度, 公益財団法人 大林財団 2018年度 研究助成, 代表, 二段土留め施工における土留め壁の挙動およびその制御に関する研究.
2018年度~2018年度, 公益財団法人 前田記念工学振興財団 平成30年度 研究助成, 分担, 産業廃棄物である石炭燃焼灰を用いた法面の酸性土壌問題への対策:金属溶出、土壌侵食、植物生育への影響.
2017年度~2017年度, 石灰石鉱業協会研究奨励金, 代表, 露天掘り石灰石鉱山における土壌浸食を考慮した環境修復のための再緑化の検討.
2016年度~2016年度, 公益財団法人 新井 科学技術振興財団 平成27 年度研究助成, 代表, 不活性気体による石炭地下ガス化の消火に関する研究.
共同研究、受託研究(競争的資金を除く)の受入状況
2020.08~2021.03, 代表, 解析ソフトFLAC3Dの使用に関する技術的指導.
寄附金の受入状況
2024年度, JFEミネラル株式会社, 脱水ケーキ堆積場の盛土施工に関する安定解析.
2023年度, JFEミネラル株式会社, 脱水ケーキ堆積場の盛土施工に関する安定解析.
2018年度, 公益財団法人 吉田科学技術財団, 平成30年度国際研究集会派遣研究者.
2018年度, 新井科学技術振興財団, 平成30年度 国際交流等助成.
学内資金・基金等への採択状況
2024年度~2024年度, エネルギー研究教育機構(Q-PIT) 若手教員への研究支援経費, 代表, ナノバブル技術を応用したCO2固定化による脱炭素の促進.
2022年度~2024年度, エネルギー研究教育機構研究推進部門, 分担, 未利用地下資源の地下CO2フリー水素化システム構築モジュール.

九大関連コンテンツ

pure2017年10月2日から、「九州大学研究者情報」を補完するデータベースとして、Elsevier社の「Pure」による研究業績の公開を開始しました。