Mansour Matloobi

Dr. Mansour Matloobi

orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2016 in Energy and Buildings
Verified
Journal Article
Closed access
MTMorteza Taki
Morteza Taki
YAYahya Ajabshirchi
Yahya Ajabshirchi
SRSeyed Faramarz Ranjbar
Seyed Faramarz Ranjbar
Abbas RohaniAbbas Rohani
Abbas Rohani
Mansour MatloobiMansour Matloobi
Mansour Matloobi

1 May 2019 in Renewable Energy
Verified
Journal Article
Closed access
HMHassan Ghasemi Mobtaker
Hassan Ghasemi Mobtaker
YAYahya Ajabshirchi
Yahya Ajabshirchi
SRSeyed Faramarz Ranjbar
Seyed Faramarz Ranjbar
Mansour MatloobiMansour Matloobi
Mansour Matloobi

1 October 2016 in Renewable Energy
Verified
Journal Article
Closed access
HMHassan Ghasemi Mobtaker
Hassan Ghasemi Mobtaker
YAYahya Ajabshirchi
Yahya Ajabshirchi
SRSeyed Faramarz Ranjbar
Seyed Faramarz Ranjbar
Mansour MatloobiMansour Matloobi
Mansour Matloobi

27 April 2023 in Ecological Indicators
Verified
Journal Article
Open access
MTMahsa Tarashkar
Mahsa Tarashkar
Mansour MatloobiMansour Matloobi
Mansour Matloobi
SQSalman Qureshi
Salman Qureshi
ARAkbar Rahimi
Akbar Rahimi

15 February 2012
Verified
Book Chapter
Open access
PDF file
Mansour MatloobiMansour Matloobi
Mansour Matloobi
Light Harvesting and Photosynthesis by the Canopy | InTechOpen, Published on: 2012-02-15. Authors: Mansour Matloobi

21 November 2025 in BMC Plant Biology
Verified
Journal Article
Open access
PDF file
MKMehdi Keshavarz
Mehdi Keshavarz
Mansour MatloobiMansour Matloobi
Mansour Matloobi
SASaeideh Alizadeh-Salteh
Saeideh Alizadeh-Salteh
ARAyyub Rezghiyan
Ayyub Rezghiyan
This study investigated the impact of different light spectra on growth characteristics and carotenoid accumulation—particularly lutein—in African marigold (Tagetes erecta L.) under controlled conditions. A split-plot design was employed, with four light treatments (monochromatic red, blue, and white, and a combined red–blue light at a 3:1 ratio) as the main factor and two cultivars (Antigua Orange and Antigua Yellow) as the sub-factor. Key morphological traits, photosynthetic pigments, and carotenoid levels were measured to identify the optimal light conditions among the four tested treatments for growth and specialized metabolite enhancement. Red light significantly increased root biomass, root volume, and leaf area, highlighting its positive effect on root and vegetative development. In contrast, blue light elevated the chlorophyll fluorescence index, suggesting improved photosynthetic efficiency, although it was less effective in promoting biomass accumulation. The combined red–blue light treatment promoted balanced growth of both vegetative and reproductive traits, along with the highest total chlorophyll and carotenoid content. White light, with its full-spectrum, delayed flowering but produced the largest flower diameter and the highest flower biomass. Carotenoid profiling revealed a marked increase in lutein content under red light, underscoring its potential to enhance the nutritional and pharmaceutical value of T. erecta. These findings emphasize the importance of customized light spectra in controlled-environment agriculture for optimizing growth, yield, and the production of high-value specialized metabolites. The results offer a valuable foundation for future research on light-mediated modulation of plant physiology and bioactive compound synthesis.