Shuangsheng Guo
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Shuangsheng Guo has a total of 23 co-authors. Here are the top co-authors by number of shared publications:
- Yongkang Tang
National Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, China
2 shared publications Bao-Gang Hu
Chinese Acad Sci, Inst Automat, Natl Lab Pattern Recognit, Beijing 100190, Peoples R China
1 shared publicationCheng-Jian Zhao
1 shared publicationGu Zeng
China Astronaut Research and Training Center
1 shared publicationGuoxin Xu
China Astronaut Research and Training Center
1 shared publication- Jialian Li
Key Laboratory of Pig Genetics and Breeding of Ministry of Agriculture & Key Laboratory of Agricultural Animal Genetics, Breeding and Reproduction of Ministry of Education, Huazhong Agricultural University, Wuhan, People’s Republic of China
1 shared publication
Latest Publications
- 1 November 2021
- Published by Elsevier in Life Sciences in Space Research
- Vol. 31, 121-130
Design and establishment of a large-scale controlled ecological life-support system integrated experimental platform
- 1 November 2021
- Published by Elsevier in Life Sciences in Space Research
- Vol. 31, 121-130
Design and establishment of a large-scale controlled ecological life-support system integrated experimental platform
- 1 August 2020
- Published by Elsevier in Life Sciences in Space Research
- Vol. 26, 77-84
Effects of LED spectra on growth, gas exchange, antioxidant activity and nutritional quality of vegetable species
- 1 August 2020
- Published by Elsevier in Life Sciences in Space Research
- Vol. 26, 77-84
Effects of LED spectra on growth, gas exchange, antioxidant activity and nutritional quality of vegetable species
- 24 April 2018
- Published by Springer Nature in Applied Microbiology and Biotechnology
- Vol. 102 (12) , 5245-5254
Performance of the mixed LED light quality on the growth and energy efficiency of Arthrospira platensis
The effect of mixed light quality with red, blue, and green LED lamps on the growth of Arthrospira platensis was studied, so as to lay the theoretical and technical basis for establishing a photo-bioreactor lighting system for application in space. Meanwhile, indexes, like morphology, growth rate, photosynthetic pigment compositions, energy efficiency, and main nutritional components, were measured respectively. The results showed that the blue light combined with red light could decrease the tightness of filament, and the effect of green light was opposite. The combination of blue light or green light with red light induced the filaments to get shorter in length. The 8R2B treatment could promote the growth of Arthrospira platensis significantly, and its dry weight reached 1.36 g L−1, which was 25.93% higher than the control. What’s more, 8R2B treatment had the highest contents of carbohydrate and lipid, while 8R2G was rich in protein. 8R0.5G1.5B had the highest efficiency of biomass production, which was 161.53 mg L−1 kW−1 h−1. Therefore, the combination of red and blue light is more conducive to the growth of Arthrospira platensis, and a higher biomass production and energy utilization efficiency can be achieved simultaneously under the mixed light quality with the ratio of 8R0.5G1.5B.
- 24 April 2018
- Published by Springer Nature in Applied Microbiology and Biotechnology
- Vol. 102 (12) , 5245-5254
Performance of the mixed LED light quality on the growth and energy efficiency of Arthrospira platensis
The effect of mixed light quality with red, blue, and green LED lamps on the growth of Arthrospira platensis was studied, so as to lay the theoretical and technical basis for establishing a photo-bioreactor lighting system for application in space. Meanwhile, indexes, like morphology, growth rate, photosynthetic pigment compositions, energy efficiency, and main nutritional components, were measured respectively. The results showed that the blue light combined with red light could decrease the tightness of filament, and the effect of green light was opposite. The combination of blue light or green light with red light induced the filaments to get shorter in length. The 8R2B treatment could promote the growth of Arthrospira platensis significantly, and its dry weight reached 1.36 g L−1, which was 25.93% higher than the control. What’s more, 8R2B treatment had the highest contents of carbohydrate and lipid, while 8R2G was rich in protein. 8R0.5G1.5B had the highest efficiency of biomass production, which was 161.53 mg L−1 kW−1 h−1. Therefore, the combination of red and blue light is more conducive to the growth of Arthrospira platensis, and a higher biomass production and energy utilization efficiency can be achieved simultaneously under the mixed light quality with the ratio of 8R0.5G1.5B.
- 9 December 2014
- Published by Springer Nature in Environmental Science and Pollution Research
- Vol. 22 (9) , 7020-7024
Study on the kinetic characteristics of trace harmful gases for a two-person-30-day integrated CELSS test
A two-person-30-day controlled ecological life support system (CELSS) integrated test was carried out, and more than 30 kinds of trace harmful gases including formaldehyde, benzene, and ammonia were measured and analyzed dynamically. The results showed that the kinds and quantities of the trace harmful gases presented a continuously fluctuating state during the experimental period, but none of them exceed the spacecraft maximum allowable concentration (SMAC). The results of the Pre-Test (with two persons without plants for 3 days) and the Test (with two persons and four kinds of plants for 30 days) showed that there are some notable differences for the compositions of the trace harmful gases; the volatile organic compounds (VOCs) such as toluene, hexane, and acetamide were searched out in the Pre-Test, but were not found in the Test. Moreover, the concentrations of the trace harmful gases such as acetic benzene, formaldehyde, and ammonia decreased greatly in the Test more than those in the Pre-Test, which means that the plants can purify these gases efficiently. In addition, the VOCs such as carbon monoxide, cyclopentane, and dichloroethylene were checked out in the Test but none in the Pre-Test, which indicates that these materials might be from the crew’s metabolites or those devices in the platform. Additionally, the ethylene released specially by plants accumulated in the later period and its concentration reached nearly ten times of 0.05 mg m−3 (maximum allowed concentration for plant growth, which must have promoted the later withering of plants). We hoped that the work can play a referring function for controlling VOCs effectively so that future more CELSS integrating tests can be implemented smoothly with more crew, longer period, and higher closure.
- 9 December 2014
- Published by Springer Nature in Environmental Science and Pollution Research
- Vol. 22 (9) , 7020-7024
Study on the kinetic characteristics of trace harmful gases for a two-person-30-day integrated CELSS test
A two-person-30-day controlled ecological life support system (CELSS) integrated test was carried out, and more than 30 kinds of trace harmful gases including formaldehyde, benzene, and ammonia were measured and analyzed dynamically. The results showed that the kinds and quantities of the trace harmful gases presented a continuously fluctuating state during the experimental period, but none of them exceed the spacecraft maximum allowable concentration (SMAC). The results of the Pre-Test (with two persons without plants for 3 days) and the Test (with two persons and four kinds of plants for 30 days) showed that there are some notable differences for the compositions of the trace harmful gases; the volatile organic compounds (VOCs) such as toluene, hexane, and acetamide were searched out in the Pre-Test, but were not found in the Test. Moreover, the concentrations of the trace harmful gases such as acetic benzene, formaldehyde, and ammonia decreased greatly in the Test more than those in the Pre-Test, which means that the plants can purify these gases efficiently. In addition, the VOCs such as carbon monoxide, cyclopentane, and dichloroethylene were checked out in the Test but none in the Pre-Test, which indicates that these materials might be from the crew’s metabolites or those devices in the platform. Additionally, the ethylene released specially by plants accumulated in the later period and its concentration reached nearly ten times of 0.05 mg m−3 (maximum allowed concentration for plant growth, which must have promoted the later withering of plants). We hoped that the work can play a referring function for controlling VOCs effectively so that future more CELSS integrating tests can be implemented smoothly with more crew, longer period, and higher closure.
- 1 January 2003
- p. 490-3
[Selection of light source used for plant cultivation in controlled ecological life support system].
To select suitable light source for higher plant cultivation in the controlled ecological life support system of the future space station. The experiment was carried out in the Space Higher Plant Cultivation Ground-based Experimental Facility (SHPCGEF); four combinations of two red and blue light-emitting diode (LED) were utilized as light sources; soilless cultivation technique with porous ceramic tubes and porous ceramic particles was utilized in the growth system. The plants grown under the shelf of pure red LED showed a lying-down state in early stage, and stood erect in later period with slender and long stems; the plants under various combinations of red and blue LED grew with nearly normal state, but the plants under the combination of 90% red and 10% blue LED possessed the best comprehensive indexes. The normal growth and development of plantlets needs two light sources of red and blue LED, and the combination of 90% red and 10% blue LED is the optimum one among those tested combinations.
- 1 January 2003
- p. 490-3
[Selection of light source used for plant cultivation in controlled ecological life support system].
To select suitable light source for higher plant cultivation in the controlled ecological life support system of the future space station. The experiment was carried out in the Space Higher Plant Cultivation Ground-based Experimental Facility (SHPCGEF); four combinations of two red and blue light-emitting diode (LED) were utilized as light sources; soilless cultivation technique with porous ceramic tubes and porous ceramic particles was utilized in the growth system. The plants grown under the shelf of pure red LED showed a lying-down state in early stage, and stood erect in later period with slender and long stems; the plants under various combinations of red and blue LED grew with nearly normal state, but the plants under the combination of 90% red and 10% blue LED possessed the best comprehensive indexes. The normal growth and development of plantlets needs two light sources of red and blue LED, and the combination of 90% red and 10% blue LED is the optimum one among those tested combinations.