低圧・低酸素及び高低温暴露時の体温調節反応および循環調節反応からみた環境適応能
キーワード:生理人類学、環境適応能、耐寒性、生理的多型性
2018.04.



前田 享史(まえだ たかふみ) | データ更新日:2021.03.23 |

主な研究テーマ
寒冷曝露時の熱産生反応および循環調節反応からみた生理的多型性の検討
キーワード:生理人類学、環境適応能、耐寒性、生理的多型性
2014.04~2020.03.
キーワード:生理人類学、環境適応能、耐寒性、生理的多型性
2014.04~2020.03.
ヒト褐色脂肪活性の簡易評価手法の検討
キーワード:環境適応能、耐寒性、褐色脂肪
2015.04~2020.03.
キーワード:環境適応能、耐寒性、褐色脂肪
2015.04~2020.03.
現代人の体温調節機能の評価と影響要因の解明
キーワード:環境適応能、体温調節、生活習慣、生活環境
2000.04.
キーワード:環境適応能、体温調節、生活習慣、生活環境
2000.04.
湿度が免疫機能に及ぼす影響
キーワード:湿度、免疫、ストレス
2010.04.
キーワード:湿度、免疫、ストレス
2010.04.
気温、気流、気湿、空気質などの室内環境要因および局所温度刺激が精神作業成績に及ぼす影響
キーワード:作業成績、寒冷、暑熱、局所加温、局所冷却
2010.04.
キーワード:作業成績、寒冷、暑熱、局所加温、局所冷却
2010.04.
従事しているプロジェクト研究
高CO2・低酸素が生理応答および作業成績に及ぼす影響に関する研究
2018.03~2019.03, 代表者:前田享史, 九州大学.
2018.03~2019.03, 代表者:前田享史, 九州大学.
寒冷曝露時の熱産生反応からみた生理的多型性の検討
2014.04, 代表者:前田享史, 九州大学.
2014.04, 代表者:前田享史, 九州大学.
ヒト褐色脂肪活性の簡易評価手法の検討
2015.04, 代表者:前田享史, 九州大学.
2015.04, 代表者:前田享史, 九州大学.
高齢者施設における感染症予防対策~口腔内局所免疫機能の向上のための生活環境の検討
2012.04, 代表者:前田享史.
2012.04, 代表者:前田享史.
寝室の空調制御と照明制御の効果検討
2017.10~2019.02, 代表者:前田享史, 九州大学
冬季における寝室の空調(暖房)制御と照明制御の効果検討、夏季における寝室の空調(冷房)制御と照明制御の効果検討.
2017.10~2019.02, 代表者:前田享史, 九州大学
冬季における寝室の空調(暖房)制御と照明制御の効果検討、夏季における寝室の空調(冷房)制御と照明制御の効果検討.
CO2が人に及ぼす生理的影響に関する共同研究
2017.05~2018.02, 代表者:前田享史, 九州大学.
2017.05~2018.02, 代表者:前田享史, 九州大学.
寒冷環境における入浴行為による身体負担と血圧変動および心理反応についての研究
2016.04, 代表者:前田享史, 九州大学.
2016.04, 代表者:前田享史, 九州大学.
熱中症予防に関する研究
2017.04~2018.03, 代表者:前田享史, 九州大学.
2017.04~2018.03, 代表者:前田享史, 九州大学.
研究業績
主要著書
主要原著論文
1. | Yoshiki Yasukochi, Sora Shin, Hitoshi Wakabayashi, Takafumi Maeda, Transcriptomic Changes in Young Japanese Males After Exposure to Acute Hypobaric Hypoxia, Frontiers in Genetics, 10.3389/fgene.2020.559074, 11, 1054, 2020.09, [URL]. |
2. | Sora Shin, Yoshiki Yasukochi, Hitoshi Wakabayashi, Takafumi Maeda, Effects of acute hypobaric hypoxia on thermoregulatory and circulatory responses during cold air exposure, Journal of Physiological Anthropology, https://doi.org/10.1186/s40101-020-00237-7, 39, 28, 2020.09, [URL]. |
3. | Hitoshi Wakabayashi, Kentaro Matsumoto, Yusuke Kobori, Tasuku Ebara, Mami Matsushita, Toshimitsu Kameya, Takafumi Maeda, Masayuki Saito, Multiorgan contribution to non-shivering and shivering thermogenesis and vascular responses during gradual cold exposure in humans, European Journal of Applied Physiology, https://doi.org/10.1007/s00421-020-04496-1, 2020.09. |
4. | Shaoying Hu, Takafumi Maeda, Productivity and physiological responses during exposure to varying air temperatures and clothing conditions, Indoor air, https://doi.org/10.1111/ina.12628, 30, 2, 251-263, 2019.11. |
5. | Shaoying Hu, Takafumi Maeda, Summer clothing characteristics and indoor-outdoor thermal comfort of Japanese youth, Journal of the Human-Environment System, https://doi.org/10.1618/jhes.22.17, 22, 1, 17-29, 2019.09. |
6. | Etika Vidyarini, Takafumi Maeda, Effects of Air Temperature Step Changes on Thermal Perception and Perceived Arousal in an Actual Environment under Hot-Humid Climate Conditions, Journal of the Human-Environment System, https://doi.org/10.1618/jhes.22.7, 22, 1, 7-15, 2019.09. |
7. | Akira Yasukouchi, Takafumi Maeda, Kazuyoshi Hara, Hiroyuki Furuune, Non-visual effects of diurnal exposure to an artificial skylight, including nocturnal melatonin suppression, Journal of Physiological Anthropology, 10.1186/s40101-019-0203-4, 38, 10, 2019.08, [URL]. |
8. | Takafumi Maeda, Relationship between maximum oxygen uptake and peripheral vasoconstriction in a cold environment, Journal of Physiological Anthropology, https://doi.org/10.1186/s40101-017-0158-2, 36, 42, 2017.12, Various individual characteristics affect environmental adaptability of a human. The present study evaluates the relationship between physical fitness and peripheral vasoconstriction in a cold environment. Seven healthy male students (aged 22.0 years) participated in this study. Cold exposure tests consisted of supine rest for 60 min at 28 °C followed by 90 min at 10 °C. Rectal and skin temperatures at seven sites, oxygen consumption, and the diameter of a finger vein were measured during the experiment. Metabolic heat production, skin heat conductance, and the rate of vasoconstriction were calculated. Individual maximum oxygen consumption, a direct index of aerobic fitness, was measured on the day following the cold exposure test. Decreases in temperature of the hand negatively correlated with the changes in rectal temperature. Maximum oxygen consumption and the rate of vasoconstriction are positively correlated. Furthermore, pairs of the following three factors are also significantly correlated: rate of metabolic heat production, skin heat conductance, and the rate of vasoconstriction. The results of this study suggested that the capacity for peripheral vasoconstriction can be improved by physical exercise. Furthermore, when exposed to a cold environment, fitter individuals could maintain metabolic heat production at the resting metabolic level of a thermoneutral condition, as they correspondingly lost less heat.. |
9. | 前田享史, 暑熱環境下における身体局所冷却が精神作業成績に及ぼす影響, 空気調和・衛生工学, 88, 10, 25-29, 2014.10. |
10. | 前田 享史, 寒冷時の産熱反応における生理的多型性., 日本生理人類学会誌, 18, 1, 33-37, 2013.02, [URL], Physiological polytypism is a keyword to need an anthropological thinking most in five keywords of physiological anthropology. In this paper, I will try to show approach to physiological polytypism from physiological mechanism based on the latest knowledge and data about cold tolerance in human, which studied for a long time in the field of physiological anthropology I will show the possibility of "the brown adipose thermogenesis type", "the shivering thermogenesis type", and "the high basal metabolism type" from physiological mechanisms of the thermogenesis in cold, the recent reports about the development of skeletal muscle and brown adipose cell which are the effectors of thermogenesis, and observed data.. |
11. | Takafumi Maeda, Mitsuhiro Ohta, Shin-Ya Kaneko, Hideyuki Kanda, Tetsuhito Fukushima, Relationships between heatstroke symptoms and lifestyles in Japanese forestry workers, Journal of the Human-Environment System, http://doi.org/10.1618/jhes.13.1, 13, 1, 1-6, 2011.03, [URL], Several risk factors for heatstroke among forestry workers were previously reported, but the effects of lifestyles of the workers on heatstroke symptoms remain unknown. This study examines the effects of lifestyles on heatstroke symptoms among Japanese forestry workers during the summer. We distributed a questionnaire to 97 forestry workers about heatstroke symptoms, hydration, hotness in workplace, lifestyles including food consumption, sleep duration, exercise, alcohol consumption, and smoking, age, and years of forestry service, and measured physical characteristics. The total health score was used as an index of healthy habits. Thirty-seven workers (38.1%) experienced heatstroke symptoms. Heatstroke and asymptomatic groups significantly differed in terms of age, years of forestry service, frequency and volume of hydration, frequency of urination, and perceived hotness. Logistic regression analysis selected the following key variables associated with the development of heatstroke symptoms: years of forestry service, frequency of hydration adjusted by frequency of urination, and total health score. In conclusion, the present study revealed that one third of forestry workers develop some early symptoms of heatstroke during work, and healthy habits reduce the risk of heatstroke in forestry workers.. |
12. | Takafumi Maeda, Tetsuhito Fukushima, Keita Ishibashi, Shigekazu Higuchi, Involvement of Basal Metabolic Rate in Determination of Type of Cold Tolerance, Journal of Physiological Anthropology, http://doi.org/10.2114/jpa2.26.415, 26, 3, 415-418, 2007.07, [URL], This study aimed to assess the relationship between basal metabolic rate (BMR) and metabolic heat production, and to clarify the involvement of BMR in determining the phenotype of cold tolerance. Measurements of BMR, maximum oxygen uptake, and cold exposure test were conducted on ten males. In the cold exposure test, rectal (Trec) and mean skin temperatures (Tms), oxygen uptake, and blood flow at forearm (BFarm) were measured during exposure to cold (10°C) for 90 min. Significant correlations were observed between BMR and increasing rate of oxygen uptake, as well as between decreasing rate of BFarm and increasing rate of oxygen uptake at the end of cold exposure. These findings suggested that individuals with a lower BMR were required to increase their metabolic heat production during cold exposure, and that those with a higher BMR were able to moderate increased metabolic heat production during cold exposure because they were able to reduce heat loss. This study showed that BMR is an important factor in determining the phenotype of cold tolerance, and that individuals with a low BMR showed calorigenic-type cold adaptation, whereas subjects with a high BMR exhibited adiabatic-type cold adaptation by peripheral vasoconstriction.. |
13. | Takafumi Maeda, Shin-Ya Kaneko, Mitsuhiro Ohta, Kazuko Tanaka, Akihiko Sasaki, Tetsuhito Fukushima, Risk factors for heatstroke in Japanese forestry workers, Journal of Occupational Health, http://doi.org/10.1539/joh.48.223, 48, 4, 223-229, 2006.08, [URL], We examined the risk factors for heatstroke among forestry workers in Japan during the summer. We distributed a questionnaire to 124 forestry workers to determine heatstroke symptoms, degree of sweating and hydration, as well as perceived hotness and amount of sunlight at work sites. Forty of the workers (32.3%) reported experiencing heatstroke symptoms. Thirteen and 21 of them reported such symptoms during July and August, respectively. Eleven workers experienced heatstroke at around 14:00; 5 and 4 developed symptoms at around 11:00 and 10:00, respectively. Groups with and without heatstroke symptoms significantly differed in terms of perceived hotness (p<0.05), sunlight (p<0.05), degree of sweating (p<0.01) and frequency of hydration (p<0.05) while working. Heatstroke symptoms developed in 60.6% of workers aged up to 50 yr, but in only 22.0% of those over the age of 51 (p<0.01). Multiple regression analysis selected the following key variables associated with the development of heatstroke symptoms (R2=0.236 and p=0.006): frequency of urination, hotness, BMI and years of forestry work (standard coefficients: +0.229, +0.194, +0.280 and -0.162, respectively). The results of the present study showed that one third of forestry workers developed some symptoms of early heatstroke during summer forestry work. Furthermore, the results indicate that a short duration of forestry service was one of the risk factors contributing to the onset of heatstroke, in addition to heat stress, loss of body water and electrolytes, and obesity.. |
14. | Takafumi Maeda, Akiko Sugawara, Tetsuhito Fukushima, Shigekazu Higuchi, Keita Ishibashi, Effects of Lifestyle, Body Composition, and Physical Fitness on Cold Tolerance in Humans, Journal of Physiological Anthropology and Applied Human Science, http://doi.org/10.2114/jpa.24.439, 24, 4, 439-443, 2005.08, [URL], In the present study, we attempted to clarify the effects of lifestyle and body compositions on basal metabolism and to clarify the effects of physical training on thermoregulatory responses to cold. Basal metabolism, body compositions, and questionnaires regarding lifestyle were evaluated in 37 students. From multiple linear regression analysis, sex, muscle weight, fat intake, and diurnal temperature were selected as significant explanatory variables. In a second experiment, rectal and the skin temperature at 7 different points as well as the oxygen uptake of eight males were measured at 10°C for 90 min before and after training. The decline in rectal temperature that was observed before training was not observed after training. In addition, rectal temperature was significantly higher at post-training than at pre-training. These results suggest that some lifestyle factors affect cold tolerance; in particular, daily activity might improve our ability to control heat radiation and basal heat production.. |
15. | Takafumi Maeda, Perspectives on Environmental Adaptability and Physiological Polymorphism in Thermoregulation, Journal of Physiological Anthropology and Applied Human Science, http://doi.org/10.2114/jpa.24.237, 24, 3, 237-240, 2005.06, [URL]. |
16. | Takafumi Maeda, Akira Yasukouchi, Blood Lactate Disappearance during Breathing Hyperoxic Gas after Exercise in Two Different Physical Fitness Groups: on The Work Load Fixed at 130%AT, Applied Human Science, http://doi.org/10.2114/jpa.17.33, 17, 2, 33-40, 1998.02, This study aimed to investigate the effects of hyperoxic gas breathing on the disappearance of blood lactate after exercise in two groups having different physical fitness and to determine the most effective O2 concentration in consideration of workload. Our previous study has demonstrated that hyperoxic gas breathing brought out different effects among subjects. In respect of these effects, it was thought necessary to pay attention to exercise intensity. Therefore, the exercise intensity of this study was set by using relative workload of anaerobic threshold (AT) from the aspect of blood lactate. Ten healthy male students participated as subjects and were divided into 2 groups; a group consisting of 5 active students whose mean AT was 60.4% VO2max (Higher AT group) and the other group consisting of 5 inactive students having the mean AT of 48.8% VO2max (Lower AT group). All subjects underwent three cycles of ergometer exercise on a bicycle (workload; 130% AT) for 5 min and recovery session for 6 min. The hyperoxic gas breathing was given only for the recovery session. The conditions of breathing were air, 30, 40, 60 or 80% O2. Blood for determination of the blood lactate level was taken only in the recovery session. When compared with air-breathing, the blood lactate level was significantly reduced in the condition of more than about 60% O2 breathing in Higher AT group, but not in Lower AT one. Together with the previous findings, it was found that the blood lactate level was markedly reduced by more than 60% O2 breathing in Higher AT group without relation to the workload in the range of about 70 to 80% VO2max. In Lower AT group, however, the effects of hyperoxic gas breathing were dependent on the exercise intensity; 30% and 40% O2 breathings were effective for the subjects with more than about 65% VO2max, but not in a lower intensity than it. These results indicate that the effects of hyperoxic gas breathing on the disappearance of blood lactate are dependent on the exercise intensity and the physical capacity.. |
17. | Takafumi Maeda, Akira Yasukouchi, Blood Lactate Disappearance during Breathing Hyperoxic Gas after Exercise in Two Different Physical Fitness Groups: on The Work Load Fixed at 70%VO2max, Applied Human Science, http://doi.org/10.2114/jpa.16.249, 16, 6, 249-256, 1997.10, The purpose of this study is to evaluate effects of breathing hyperoxic gas on blood lactate disappearance after submaximal exercise in two different physical fitness groups and to clarify the most effective oxygen concentration in each group. Fourteen healthy male students participated as subjects in this study. They were divided in two groups by difference in their anaerobic threshold (AT). Seven males were treated as Higher AT group and the others as Lower AT group. Subjects wore a T-shirt, short pants and sports shoes and performed three sessions; each consisting of five minutes of exercise and six minutes of rest, at a workload of 70% VO2max On a bicycle ergometer. Hyperoxic gas was breathed only during recovery periods. Oxygen rates of 21, 30, 40, 60, 80 and 100% in inspired gas were employed. According to the results of blood lactate (BLA), the most effective oxygen condition on BLA disappearance was obtained over 60% in Higher AT group and at 30% oxygen in Lower AT group. Thus, it was especially noteworthy that the effects of hyperoxic gas in Higher AT group were different from those of Lower AT group. It is thought that the effects of breathing hyperoxic gas were dependent on physical fitness, which have caused many reports to be in conflict hitherto.. |
主要総説, 論評, 解説, 書評, 報告書等
主要学会発表等
学会活動
学協会役員等への就任
2005.05, 日本生理人類学会, 理事.
1999.05, 日本生理人類学会, 評議員.
2014.04, 日本人間工学会, 評議員.
2014.04~2016.03, 人間生活環境系学会, 評議員.
2012.06, 日本生理人類学会, 体温調節研究部会 部会長.
2013.05~2015.05, 日本人間工学会, 選挙管理委員.
2001.05~2005.04, 日本生理人類学会, 幹事.
2003.05~2005.04, 日本生理人類学会, 監事.
2011.04~2015.03, 日本人間工学会, 支部役員.
学会大会・会議・シンポジウム等における役割
2021.03.12~2021.03.12, 応用生理人類学研究センターシンポジウム「生理人類学×芸術工レジリエンス」, 第1部「これからの生理人類学」司会(Moderator).
2020.10.23~2020.10.25, 日本生理人類学会第81回大会, 座長.
2019.09.24~2019.09.27, The 14th International Congress of Physiological Anthropology, Session Chair.
2018.06.16~2018.06.17, シンポジウム 「人工環境へのヒトの適応~過去から未来へつなぐ」, コーディネーター.
2018.06.16~2018.06.17, 日本生理人類学会第77回大会, 実行委員.
2018.03.17~2018.03.17, 応用生理人類学研究センターシンポジウム「現代人の環境適応能 ~生理人類学の視点から~」, オーガナイザー・司会(Moderator).
2018.02.03~2018.02.03, 平成29年度日本生理人類学会研究奨励発表会(九州地区), アドバイザー.
2017.11.12~2017.11.17, The 17th International Conference on Environmental Ergonomics, Abstract Reviewer, Award Judge.
2017.06.24~2017.06.25, 日本生理人類学会第75回大会, 座長(Chairmanship).
2017.02.11~2017.02.11, 平成28年度日本生理人類学会研究奨励発表会(九州地区), 大会長.
2016.12.20~2016.12.20, 第6回応用生理人類学研究センター特別講演会, 企画・司会(Moderator).
2016.10.29~2016.11.02, The 5th International Conference on Human-Environment System, Organizing committee.
2016.10.22~2016.10.23, 日本生理人類学会第74回大会, 優秀発表賞審査委員長.
2016.09.04~2016.09.05, 2016年度日本生理人類学会夏期セミナー, 実行委員長.
2016.06.04~2016.06.05, 日本生理人類学会第73回大会, 座長(Chairmanship).
2016.02.05~2016.02.05, 平成27年度日本生理人類学会研究奨励発表会(九州地区), 大会長.
2016.02.05~2016.02.05, 第5回応用生理人類学研究センター特別講演会, 企画.
2015.10.27~2015.10.30, The 12th International Congress of Physiological Anthropology, Organization Committee Member.
2015.10.27~2015.10.30, The 12th International Congress of Physiological Anthropology, Session organizer.
2015.10.27~2015.10.30, The 12th International Congress of Physiological Anthropology, 座長(Chairmanship).
2015.09.08~2015.09.08, 日本生理人類学会体温調節研究部会第9回講演会, 研究部会長.
2015.09.08~2015.09.08, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2015.09.07~2015.09.08, 2015年度日本生理人類学会夏期セミナー, 実行委員長.
2015.05.30~2015.05.31, 日本生理人類学会第72回大会, 副大会長.
2015.05~2015.05.31, 日本生理人類学会第72回大会, シンポジウムの企画・司会.
2015.03.18~2015.03.18, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2015.03.14~2015.03.16, International Symposium on Human Adaptation to Environment and Whole-body Coordination, Session organizer.
2015.03.14~2014.03.16, International Symposium on Human Adaptation to Environm,ent and Whole-Body Coordination, 座長(Chairmanship).
2014.12.03~2014.12.03, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2014.10.23~2014.10.23, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2014.06.21~2014.06.22, 日本生理人類学会第70回大会, 司会(Moderator).
2014.03.11~2014.03.11, 空気調和・衛生工学会北海道支部第48回学術講演会, 司会(Moderator).
2013.11.22~2013.11.22, 平成25年度日本人間工学会北海道支部大会, 大会長.
2013.10.26~2013.10.27, 日本生理人類学会第69回大会, 座長(Chairmanship).
2013.09.03~2013.09.03, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2013.03.13~2013.03.13, 空気調和・衛生工学会北海道支部第47回学術講演会, 司会(Moderator).
2013.01.21~2013.01.21, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2012.11.17~2012.11.18, 日本生理人類学会第67回大会, 座長(Chairmanship).
2012.03.01~2012.03.01, 空気調和・衛生工学会北海道支部第46回学術講演会, 司会(Moderator).
2011.11.27~2011.11.27, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2011.10.03~2011.10.06, The 4th International Congress on Human-Environment System, 事務局長.
2011.06.11~2011.06.11, 日本生理人類学会体温調節研究部会, 司会(Moderator).
2011.03.01~2011.03.01, 空気調和・衛生工学会北海道支部第45回学術講演会, 司会(Moderator).
2010.11.27~2010.11.28, 第34回人間-生活環境系シンポジウム, 実行委員.
2010.09.09~2010.09.12, The 10th International Congress of Physiological Anthropology, 座長(Chairmanship).
2010.06.19~2010.06.20, 日本人間工学会第51回大会, 事務局長.
2010.05.15~2010.05.16, 日本生理人類学会第62回大会, 座長(Chairmanship).
2010.03.17~2010.03.17, 空気調和・衛生工学会北海道支部第44回学術講演会, 司会(Moderator).
2009.06.06~2009.06.07, 日本生理人類学会第60回大会, 事務局長.
2009.03.17~2009.03.17, 空気調和・衛生工学会北海道支部第43回学術講演会, 司会(Moderator).
2008.06.14~2008.06.15, 日本人間工学会第49回大会, 司会(Moderator).
2008.06.07~2008.06.08, 日本生理人類学会第58回大会, 座長(Chairmanship).
2008.03.01~2008.03.04, 健康・体力国際学術会議, 実行委員.
2007.06.16~2007.06.17, 日本生理人類学会第56回大会, 実行委員.
2006.10.09~2006.10.14, The 6th International Congress on Physiological Anthropology, Executive Member.
2006.06.01~2006.06.01, 日本生理人類学会第55回大会, 座長(Chairmanship).
2005.07.22~2005.07.23, 第64回日本産業衛生学会東北地方会, 事務局.
2005.06.10~2005.06.11, 日本生理人類学会第53回大会, 座長(Chairmanship).
2001.05.18~2001.05.19, 日本生理人類学会第45回大会, 座長(Chairmanship).
2002.05.10~2002.05.11, 日本生理人類学会第47回大会, 座長(Chairmanship).
2002.11.16~2002.11.17, 日本生理人類学会第48回大会, 座長(Chairmanship).
2004.10.22~2004.10.23, 日本生理人類学会第52回大会, 座長(Chairmanship).
2001.04.27~2001.04.30, 日本衛生学会第71回大会, 実行委員.
2000.06.10~2000.06.11, 日本生理人類学会第43回大会, 実行委員.
1999.07.17~1999.07.17, 第58回日本産業衛生学会東北地方会, 事務局.
1999.06.12~1999.06.13, 日本生理人類学会第41回大会, 座長(Chairmanship).
学会誌・雑誌・著書の編集への参加状況
2006.05, Journal of Physiological Anthropology, 国際, 編集委員.
2007.05, Journal of Human-Environment System, 国際, 編集委員.
2015.07~2019.12, 日本生理人類学会誌, 国内, 編集委員.
2003.05~2011.05, 日本生理人類学会誌, 国内, 編集委員.
2018.04, 人間工学, 国内, 編集委員.
2012.10~2015.01, 人間科学の百科事典, 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 |
---|---|---|---|---|---|
2020年度 | 2 | 4 | 6 | ||
2019年度 | 1 | 1 | 2 | ||
2018年度 | 1 | 3 | 4 | ||
2017年度 | 2 | 2 | 15 | 19 | |
2016年度 | 6 | 4 | 2 | 12 | |
2015年度 | 3 | 6 | 6 | 15 |
その他の研究活動
海外渡航状況, 海外での教育研究歴
National University of Singapore, Singapore, 2019.09~2019.09.
JS Luwansa Hotel, Jakarta, Indonesia, 2019.04~2019.04.
Discovery Karita Plaza Hotel Bali, Indonesia, 2017.10~2017.11.
Ramada Loughborough Hotel, UnitedKingdom, 2017.09~2017.09.
Loughborough Design School, Loughborough University, Environmental Ergonomics Research Centre, Loughborough University, UnitedKingdom, 2017.09~2017.09.
Faculty of Public Health, Mahidol University, Thailand, 2017.05~2017.05.
Faculty of Food Technology and Biotechnology, University of Zagreb, Croatia, 2016.08~2016.08.
マーストリヒト大学, Netherlands, 2016.01~2016.01.
モスクワ大学, Russia, 2014.08~2014.08.
Esplanade Hotel Fremantle, Edith Cowan University, Australia, 2010.09~2010.09.
デルフト工科大学, Netherlands, 2008.08~2008.08.
ケンブリッジ大学, UnitedKingdom, 2007.09~2007.09.
モスクワ大学, Russia, 2005.06~2005.06.
オハイオ州立大学, UnitedStatesofAmerica, 2004.08~2004.08.
ケンブリッジ大学, UnitedKingdom, 2002.08~2002.08.
ソウル大学, Korea, 2000.10~2000.10.
Old Town City Hall, Institute for Anthropological Research, Croatia, 1998.08~1998.08.
外国人研究者等の受入れ状況
2020.02~2020.06, 1ヶ月以上, Harvard Medical School, Turkey, 日本学術振興会.
2016.02~2016.02, 2週間未満, Seoul National University, Korea, 日本学術振興会.
2015.03~2015.03, 2週間未満, Maastricht University, Netherlands, 日本学術振興会.
受賞
優秀研究賞, 日本生理人類学会, 2021.03.
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)
2015年度~2017年度, 挑戦的萌芽研究, 代表, ヒト褐色脂肪活性の簡易評価手法の検討.
2015年度~2016年度, 挑戦的萌芽研究, 分担, 汗腺に関わる固有の遺伝子とヒトの発汗調節機能との関連.
2014年度~2017年度, 基盤研究(B), 代表, 寒冷曝露時の熱産生反応からみた生理的多型性の検討.
2012年度~2013年度, 挑戦的萌芽研究, 代表, 脈波波形解析による新しい血管機能評価法の開発.
2011年度~2012年度, 挑戦的萌芽研究, 分担, 単一汗腺可視化による汗腺の構造・機能の新たな評価方法 .
2011年度~2013年度, 基盤研究(B), 代表, 寒冷誘発血管拡張反応の生理的メカニズムの解明及び機能的潜在性の検討.
2008年度~2011年度, 基盤研究(A), 分担, 現代の生活環境における行動履歴が生理的多型性に及ぼす影響、及びその適応性評価.
2007年度~2008年度, 萌芽研究, 分担, 単一汗腺からみたヒト環境適応能の新しい評価法の開発.
2007年度~2009年度, 基盤研究(B), 代表, 発汗閾値および代謝閾値からみた温熱環境適応能の個体差とその影響要因の解明.
2004年度~2006年度, 若手研究(A), 代表, ヒトの体温調節機能における生理的多型性と機能的潜在性に関する研究.
2003年度~2004年度, 基盤研究(A), 分担, 現代日本人の分布に関する生理人類学的研究.
2003年度~2007年度, 基盤研究(S), 分担, 光と温熱の環境要因に対する生理的多型性とその適応能力.
2003年度~2004年度, 萌芽研究, 分担, 生理人類学デザインの研究-特に機能的潜在性の視点から.
2003年度~2003年度, 基盤研究(C), 分担, 海外における生理人類学の研究拠点の拡大にむけた企画調査.
2000年度~2001年度, 基盤研究(B), 分担, 現代生活者における寒冷適応能力の地域差に関する研究.
1999年度~2000年度, 基盤研究(C), 分担, 中高年者の防衛体力の低下傾向と対策-体温調節,適応能,内分泌系を中心にして-.
共同研究、受託研究(競争的資金を除く)の受入状況
2020.04~2021.03, 代表, 入浴行為による健康への影響.
2020.04~2021.03, 代表, 寒冷環境における入浴行為による身体負担と血圧変動および心理反応についての研究.
2019.04~2020.03, 代表, 寒冷環境における入浴行為による身体負担と血圧変動および心理反応についての研究.
2019.07~2020.06, 代表, 人の生理学的特性に基づいて環境制御を行うための評価技術と制御技術に関する研究.
2018.09~2019.06, 代表, Felisitas環境の構築ー人の生理学的特性に基づいて環境制御を行うための評価技術と制御技術に関する研究.
2018.07~2019.12, 代表, 気流が人体に与える影響の研究.
2018.08~2019.02, 代表, 夏季における寝室の空調制御と照明制御の効果検討.


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