Jayamuthunagai Jayaraman
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Jayamuthunagai Jayaraman has a total of 8 co-authors. Here are the top co-authors by number of shared publications:
- Balasubramaniyan Bharathiraja
Vel Tech High Tech Dr. Rangarajan Dr. Sakunthala Engineering College, Avadi, Chennai 600062, India
2 shared publications G. Srisowmeya
Centre for Biotechnology, Anna University, Chennai 600025, Tamilnadu, India
2 shared publicationsM. Chakravarthy
Centre for Biotechnology, Anna University, Chennai 600025, Tamilnadu, India
2 shared publicationsP. Gautam
Centre for Biotechnology, Anna University, Chennai 600025, Tamilnadu, India
2 shared publications- Chakravarthy Muninathan
Centre for Food Technology, Department of Biotechnology, Anna University, Chennai, India
1 shared publication - D. Yogendran
Vel Tech High Tech Dr. Rangarajan Dr. Sakunthala Engineering College
1 shared publication
Latest Publications
- 1 July 2017
- Published by Elsevier in Bioresource Technology
- Vol. 235, 250-255
d -Tagatose production by permeabilized and immobilized Lactobacillus plantarum using whey permeate
- 1 July 2017
- Published by Elsevier in Bioresource Technology
- Vol. 235, 250-255
d -Tagatose production by permeabilized and immobilized Lactobacillus plantarum using whey permeate
- 25 May 2017
- Published by Taylor & Francis in Critical Reviews in Food Science and Nutrition
- Vol. 57 (16) , 3430-3437
Biocatalytic production of D-tagatose: A potential rare sugar with versatile applications
D-tagatose is a naturally existing rare monosaccharide having prebiotic properties. Minimal absorption, low metabolizing energy, and unique clinical properties are the characteristics of D-tagatose. D-tagatose gained international attention by matching the purpose of alternate sweeteners that is much needed for the control of diabetes among world population. Recent efforts in understanding tagatose bioconversion have generated essential information regarding its production and application. This article reviews the evolution of D-tagatose as an important rare sugar by appreciable improvements in production results and its significant applications resulted of its unique physical, chemical, biological, and clinical properties thus considering it an appropriate product for requisite improvements in technical viability. Based on current knowledge and technology projections, the commercialization of D-tagatose rare sugar as food additive is close to reality.
- 25 May 2017
- Published by Taylor & Francis in Critical Reviews in Food Science and Nutrition
- Vol. 57 (16) , 3430-3437
Biocatalytic production of D-tagatose: A potential rare sugar with versatile applications
D-tagatose is a naturally existing rare monosaccharide having prebiotic properties. Minimal absorption, low metabolizing energy, and unique clinical properties are the characteristics of D-tagatose. D-tagatose gained international attention by matching the purpose of alternate sweeteners that is much needed for the control of diabetes among world population. Recent efforts in understanding tagatose bioconversion have generated essential information regarding its production and application. This article reviews the evolution of D-tagatose as an important rare sugar by appreciable improvements in production results and its significant applications resulted of its unique physical, chemical, biological, and clinical properties thus considering it an appropriate product for requisite improvements in technical viability. Based on current knowledge and technology projections, the commercialization of D-tagatose rare sugar as food additive is close to reality.
- 10 September 2012
- Published by Walter de Gruyter GmbH in International Journal of Chemical Reactor Engineering
- Vol. 10 (1)
Integrated Dairy Plant Effluent Treatment and Production of Biomass and Lipids using Micro Algae - "Chlorella vulgaris"
Algal biomass is a potentially inexpensive source of energy which has high lipid content. As India is the Asia’s largest milk producing country (104.8 million tons in the year 2008), the milk production terminates with an effluent production of 5.24% of the total milk produced i.e., 20 million tons of dairy waste is produced. This effluent can be broken down in many ways, but a more economical way is broken down by the growth of the algal species Chlorella vulgaris which results in the tremendous reduction in various toxic salts concentration and other complex chemicals. As the dairy effluent is hostile to the natural environment, the algae is used not only to break down the toxic substances but also to produce Biomass, which is produced at a rate of 17g/l, which contains a lipid content of 30% ( from 1:1 ratio of effluent and water). Also the treated effluent has low chemical oxygen demand [COD], hence this can be used for irrigation of farms mainly those which are heavily fed with chemical fertilizers. The biosynthesis of organics salts, alkanoates [PHAs] and other phenolic compounds, involves algal species the process is secured by using i) large inoculums ii) tolerant strain (pure strain or GM, if available). This research work uses the pure strain of Chlorella vulgaris which involves the treatment of effluent with three different dilutions and analyzing them.
- 10 September 2012
- Published by Walter de Gruyter GmbH in International Journal of Chemical Reactor Engineering
- Vol. 10 (1)
Integrated Dairy Plant Effluent Treatment and Production of Biomass and Lipids using Micro Algae - "Chlorella vulgaris"
Algal biomass is a potentially inexpensive source of energy which has high lipid content. As India is the Asia’s largest milk producing country (104.8 million tons in the year 2008), the milk production terminates with an effluent production of 5.24% of the total milk produced i.e., 20 million tons of dairy waste is produced. This effluent can be broken down in many ways, but a more economical way is broken down by the growth of the algal species Chlorella vulgaris which results in the tremendous reduction in various toxic salts concentration and other complex chemicals. As the dairy effluent is hostile to the natural environment, the algae is used not only to break down the toxic substances but also to produce Biomass, which is produced at a rate of 17g/l, which contains a lipid content of 30% ( from 1:1 ratio of effluent and water). Also the treated effluent has low chemical oxygen demand [COD], hence this can be used for irrigation of farms mainly those which are heavily fed with chemical fertilizers. The biosynthesis of organics salts, alkanoates [PHAs] and other phenolic compounds, involves algal species the process is secured by using i) large inoculums ii) tolerant strain (pure strain or GM, if available). This research work uses the pure strain of Chlorella vulgaris which involves the treatment of effluent with three different dilutions and analyzing them.