Antonio Ferrante – författare

Plant Signaling Molecule: Role and Regulation under Stressful Environments explores tolerance mechanisms mediated by signaling molecules in plants for achieving sustainability under changing environmental conditions. Including a wide range of potential molecules, from primary to secondary metabolites, the book presents the status and future prospects of the role and regulation of signaling molecules at physiological, biochemical, molecular and structural level under abiotic stress tolerance. This book is designed to enhance the mechanistic understanding of signaling molecules and will be an important resource for plant biologists in developing stress tolerant crops to achieve sustainability under changing environmental conditions.

Focuses on plant biology under stress conditions Provides a compendium of knowledge related to plant adaptation, physiology, biochemistry and molecular responses Identifies treatments that enhance plant tolerance to abiotic stresses Illustrates specific physiological pathways that are considered key points for plant adaptation or tolerance to abiotic stresses

Plant Signaling Molecule: Role and Regulation under Stressful Environments explores tolerance mechanisms mediated by signaling molecules in plants for achieving sustainability under changing environmental conditions. Including a wide range of potential molecules, from primary to secondary metabolites, the book presents the status and future prospects of the role and regulation of signaling molecules at physiological, biochemical, molecular and structural level under abiotic stress tolerance. This book is designed to enhance the mechanistic understanding of signaling molecules and will be an important resource for plant biologists in developing stress tolerant crops to achieve sustainability under changing environmental conditions.- Focuses on plant biology under stress conditions- Provides a compendium of knowledge related to plant adaptation, physiology, biochemistry and molecular responses- Identifies treatments that enhance plant tolerance to abiotic stresses- Illustrates specific physiological pathways that are considered key points for plant adaptation or tolerance to abiotic stresses

The Plant Hormone Ethylene: Stress Acclimation and Agricultural Applications presents current knowledge on our understanding of ethylene perception and signaling, its role in the regulation of plant physiological processes, and its contribution to acclimation in stressful environments.

Plants regularly face environmental constraints due to their immobile nature. In persistently changing environmental conditions, several stress factors influence cellular metabolism, ultimately causing reduced plant growth and development with a significant loss in agricultural productivity. Sustainable agriculture depends on the acclimation of plant processes to the changing environment through altered physiological and molecular responses, which are controlled by plant hormones, including ethylene. Ethylene interacts with other plant hormones and signaling molecules to regulate several cellular processes, plant growth and development, and, ultimately, crop productivity.

This book begins with an introduction to ethylene before providing a detailed study of the latest findings on the role of ethylene in plants, including its role in photosynthetic processes, flower development, leaf senescence, nutrients acquisition, and regulation of abiotic stress responses as well as its application in agriculture. The book is an ideal guide for researchers exploring plant physiology and biochemistry as well as for those investigating the use of ethylene knowledge in agriculture in persistently changing environmental conditions.

Provides state-of-the art insights into ethylene-regulated photosynthesis, growth, and productivity in crop plants Presents regulatory mechanisms of ethylene action Assists in developing physiomolecular strategies for augmenting crop performance in persistently changing environmental conditions

The Plant Hormone Ethylene: Stress Acclimation and Agricultural Applications presents current knowledge on our understanding of ethylene perception and signaling, its role in the regulation of plant physiological processes, and its contribution to acclimation in stressful environments.Plants regularly face environmental constraints due to their immobile nature. In persistently changing environmental conditions, several stress factors influence cellular metabolism, ultimately causing reduced plant growth and development with a significant loss in agricultural productivity. Sustainable agriculture depends on the acclimation of plant processes to the changing environment through altered physiological and molecular responses, which are controlled by plant hormones, including ethylene. Ethylene interacts with other plant hormones and signaling molecules to regulate several cellular processes, plant growth and development, and, ultimately, crop productivity.This book begins with an introduction to ethylene before providing a detailed study of the latest findings on the role of ethylene in plants, including its role in photosynthetic processes, flower development, leaf senescence, nutrients acquisition, and regulation of abiotic stress responses as well as its application in agriculture. The book is an ideal guide for researchers exploring plant physiology and biochemistry as well as for those investigating the use of ethylene knowledge in agriculture in persistently changing environmental conditions.- Provides state-of-the art insights into ethylene-regulated photosynthesis, growth, and productivity in crop plants- Presents regulatory mechanisms of ethylene action- Assists in developing physiomolecular strategies for augmenting crop performance in persistently changing environmental conditions

Nitric Oxide in Developing Plant Stress Resilience presents a strong focus on genetics and molecular mechanisms, examining crosstalk with other signaling molecules and the role this plays in the alleviation of oxidative damage. Abiotic stress negatively impacts plants productivity and alters the metabolism at the cellular or whole plant level, disturbing the mineral nutrients status, enzyme activities and osmotic homeostasis. Beginning with the biosynthesis of NO and its mode of action, chapters review various molecular interactions, including phytohormonal crosstalk, ROS metabolism, post-translational modification, and nutrients homeostasis.

In addition, the book also highlights genome editing and proteomic approaches that can be used to manipulate NO responses. This is an essential resource for students and researchers interested in plant physiology, biochemistry and genetics.

Highlights how Nitric Oxide acts as a signaling molecule and the ways in which this can help plants develop stress tolerance Discusses how NO interacts with other signaling molecules, including crosstalk Considers the advances and future implications of NO in agriculture

Nitric Oxide in Developing Plant Stress Resilience presents a strong focus on genetics and molecular mechanisms, examining crosstalk with other signaling molecules and the role this plays in the alleviation of oxidative damage. Abiotic stress negatively impacts plants productivity and alters the metabolism at the cellular or whole plant level, disturbing the mineral nutrients status, enzyme activities and osmotic homeostasis. Beginning with the biosynthesis of NO and its mode of action, chapters review various molecular interactions, including phytohormonal crosstalk, ROS metabolism, post-translational modification, and nutrients homeostasis.In addition, the book also highlights genome editing and proteomic approaches that can be used to manipulate NO responses. This is an essential resource for students and researchers interested in plant physiology, biochemistry and genetics.- Highlights how Nitric Oxide acts as a signaling molecule and the ways in which this can help plants develop stress tolerance- Discusses how NO interacts with other signaling molecules, including crosstalk- Considers the advances and future implications of NO in agriculture

This contributed volume provides a comprehensive understanding of the complex interplay between signaling molecules and ROS-scavenging systems in the adaptation of plants to climate change. Plants produce reactive oxygen species (ROS) like superoxide radicals (O2.-) and hydrogen peroxide (H2O2), especially under stress, which can cause oxidative damage and cell death. ROS homeostasis is maintained by a ROS-scavenging system, consisting of enzymatic antioxidants and non-enzymatic antioxidants. This system is vital for physiological processes and stress tolerance in plants.Signaling molecules are crucial in plant growth, development, and environmental responses. The abiotic stress perception triggers signaling events involving calcium ions (Ca²⁺), ROS, and phytohormones like abscisic acid (ABA). Mitogen-activated protein kinase (MAPK) cascades also play a key role, where a series of phosphorylation events activate genes involved in antioxidant defense. ROS scavenging is regulated by phytohormones and signaling molecules, including auxins, gibberellins, cytokinins, ABA, ethylene, salicylic acid, melatonin, H2S, H2O2, nitric oxide, and brassinosteroids. These molecules interact to enhance stress resilience through ROS scavenging. Additionally, plant growth-promoting rhizobacteria (PGPR) work with phytohormones to alleviate stress. Integrative approaches combining molecular biology, genomics, and systems biology are needed to understand the crosstalk between stress signaling and ROS regulation. CRISPR/Cas9 gene editing dissects gene functions in ROS regulation, while omics approaches (transcriptomics, proteomics, metabolomics) provide insights into plant stress responses. This book focusses on the mechanisms that drive plant responses to changing environmental conditions, and the potential to harness this knowledge to develop resilient crop varieties.This book is an essential read for academicians, researchers, and scientists working in the field of plant biology, plant physiology, plant stress physiology, plant molecular biology and agronomy.