Javascript must be enabled to continue!
Regulation of trehalose metabolism in insects: from genes to the metabolite window
View through CrossRef
AbstractTrehalose is a major circulatory sugar in the haemolymph of insects. It provides instant energy and protection against stress. Trehalose metabolism is associated with insect growth and development. The architecture and spatio-temporal expression dynamics of trehalose metabolism and transport genes are key for regulation. These genes are controlled by various transcription factors, largely linked to nutrition, insect development, and metamorphosis. Also, trehalose levels are affected by substrate affinities and modifications of enzymes involved in the pathway. A feedback mechanism involving the precursors and products can regulate trehalose metabolism. Further, the neuroendocrine system controls trehalose levels under normal and stressed conditions by producing different hormones. Hypotrehalosemic hormones work under surplus energy conditions to activate haemolymph trehalose uptake and degradation. In contrast, hypertrehalosemic hormones stimulate trehalose production in the fat body and its transport to the haemolymph. However, trehalose metabolism regulation in insects needs to be studied in detail. This review discusses aspects of trehalose synthesis, transport, and degradation dynamics in developmental transition and stress response. Unraveling the epigenetic factors, transcriptional control and chemical or genetic modulators can provide further insights into the intricate regulation of trehalose in a development- and tissue-specific manner. This molecular information about effectors and regulators of trehalose metabolism can be applied in developing diverse biotechnological applications.
Title: Regulation of trehalose metabolism in insects: from genes to the metabolite window
Description:
AbstractTrehalose is a major circulatory sugar in the haemolymph of insects.
It provides instant energy and protection against stress.
Trehalose metabolism is associated with insect growth and development.
The architecture and spatio-temporal expression dynamics of trehalose metabolism and transport genes are key for regulation.
These genes are controlled by various transcription factors, largely linked to nutrition, insect development, and metamorphosis.
Also, trehalose levels are affected by substrate affinities and modifications of enzymes involved in the pathway.
A feedback mechanism involving the precursors and products can regulate trehalose metabolism.
Further, the neuroendocrine system controls trehalose levels under normal and stressed conditions by producing different hormones.
Hypotrehalosemic hormones work under surplus energy conditions to activate haemolymph trehalose uptake and degradation.
In contrast, hypertrehalosemic hormones stimulate trehalose production in the fat body and its transport to the haemolymph.
However, trehalose metabolism regulation in insects needs to be studied in detail.
This review discusses aspects of trehalose synthesis, transport, and degradation dynamics in developmental transition and stress response.
Unraveling the epigenetic factors, transcriptional control and chemical or genetic modulators can provide further insights into the intricate regulation of trehalose in a development- and tissue-specific manner.
This molecular information about effectors and regulators of trehalose metabolism can be applied in developing diverse biotechnological applications.
Related Results
The stress-protectant molecule trehalose mediates fluconazole tolerance in
Candida glabrata
The stress-protectant molecule trehalose mediates fluconazole tolerance in
Candida glabrata
Abstract
The incidence of non-
albicans Candida
infections has witnessed a substantial rise in recent decades...
Trehalose increases jejunum cytoplasmic lipid droplets and suppresses adipocyte hypertrophy
Trehalose increases jejunum cytoplasmic lipid droplets and suppresses adipocyte hypertrophy
Abstract
Background: Trehalose is a functional disaccharide that has anti-metabolic activities such as suppression of adipocyte hypertrophy in mice and alleviation of impai...
Trends in bacterial trehalose metabolism and significant nodes of metabolic pathway in the direction of trehalose accumulation
Trends in bacterial trehalose metabolism and significant nodes of metabolic pathway in the direction of trehalose accumulation
SummaryThe current knowledge of trehalose biosynthesis under stress conditions is incomplete and needs further research. Since trehalose finds industrial and pharmaceutical applica...
Evolutionary analysis of Trehalose breakdown pathways
Evolutionary analysis of Trehalose breakdown pathways
Abstract
Trehalose is a widely prevalent, abundant disaccharide that acts as a cellular stress protectant, and functions as an energy source that...
The Impact of Adding Trehalose to the Diet on Egg Quality and Tibia Strength in Light-Laying Hens
The Impact of Adding Trehalose to the Diet on Egg Quality and Tibia Strength in Light-Laying Hens
Trehalose, a disaccharide consisting of two D-glucose molecules, is present in a variety of organisms, including bacteria, yeast, fungi, insects, and plants. In plants, it function...
Trehalose extends longevity in the nematode Caenorhabditis elegans
Trehalose extends longevity in the nematode Caenorhabditis elegans
SummaryTrehalose is a disaccharide of glucose found in diverse organisms and is suggested to act as a stress protectant against heat, cold, desiccation, anoxia, and oxidation. Here...
Trehalose Transport Dynamics Underpin a Metabolic Trade-Off between Exogenous Uptake and Endogenous Synthesis in Lepidopteran Insects
Trehalose Transport Dynamics Underpin a Metabolic Trade-Off between Exogenous Uptake and Endogenous Synthesis in Lepidopteran Insects
Abstract
Trehalose is the major insect hemolymph sugar and plays a diverse role. Its level is regulated endogenously by the dynamics of biosynthe...
Sucrose Metabolism
Sucrose Metabolism
Abstract
Sucrose is one of the main products of photosynthesis in plants, and the most common form of carbohydrate transported from source to si...

