Table of Contents
Overview
Definition of Botany
Botany, also known as plant biology, is defined as the branch of biology that focuses on the scientific study of plants and plant-like organisms. This discipline encompasses various aspects of plant life, including their structure, growth, reproduction, and interactions with the environment.[4.1] The study of botany is crucial for understanding the biochemical processes and properties of plants, as well as their classification and the diseases that affect them.[5.1] Furthermore, the principles and findings of botany have laid the foundation for applied sciences such as agriculture, horticulture, and forestry.[5.1] Botanists, the scientists who specialize in this field, play a vital role in advancing our knowledge of plant life and its significance in various sectors.[4.1] The significance of botany extends beyond theoretical knowledge; it serves as the foundation for applied sciences such as agriculture, horticulture, and forestry, which are crucial for food production and ecosystem management.[5.1] Furthermore, botany plays a vital role in understanding the ecological importance of plants, as they are essential for initiating food and energy chains, providing oxygen, and offering medicinal resources.[6.1] Historically, botany originated from herbalism, which involved the study and utilization of plants for their medicinal properties. The early development of botany is marked by significant contributions from figures such as Theophrastus, often referred to as the "Father of Botany," whose works laid the groundwork for botanical science for centuries.[7.1]Importance of Botany
Botany plays a crucial role in understanding the natural world and addressing contemporary challenges. As the systematic and scientific study of plants, botany encompasses various aspects including plant anatomy, structure, genetics, ecology, distribution, and taxonomy, which are essential for comprehending the complexities of plant life and its interactions with the environment.[8.1] The historical roots of botany trace back to ancient civilizations, where early naturalists laid the groundwork for modern botanical sciences, highlighting the discipline's longstanding significance in the natural sciences alongside chemistry, physics, and geology.[9.1] In recent years, advancements in technology have further enhanced the importance of botany, particularly through the integration of precision agriculture. This modern approach utilizes artificial intelligence (AI), machine learning (ML), and the Internet of Things (IoT) to optimize agricultural practices, thereby promoting sustainable farming. Precision agriculture improves resource efficiency, minimizes environmental impact, and maximizes crop health, which is vital in the face of climate change and resource scarcity.[13.1] By employing data-driven decision-making, farmers can enhance crop production while ensuring environmental sustainability.[12.1] The field of botany has been significantly transformed by advancements in genetic engineering, which allows scientists to alter an organism's DNA to achieve desired traits, leading to the creation of genetically modified organisms (GMOs) with specific characteristics.[14.1] This innovative approach is crucial for enhancing agricultural productivity and improving the quality of available genetic stocks, particularly in the context of increasing pressures from climate change and population growth.[17.1] One of the most notable developments in this area is the use of CRISPR-Cas9 technology, which enables precise gene editing, facilitating the development of plants that can withstand harsh environmental conditions and resist pests.[15.1] Furthermore, the integration of precision agriculture, which employs AI, machine learning, and IoT technologies, optimizes agricultural practices by improving water management, nutrient management, and pest control, ultimately leading to reduced chemical usage and enhanced biodiversity preservation.[11.1] These advancements collectively underscore the importance of botany in addressing contemporary agricultural challenges and promoting sustainable farming practices. The exploration of traditional practices surrounding plants is a significant area of study that connects anthropology, botany, and pharmacology. Since ancient times, humans have relied on plants for their medicinal properties, utilizing nature for healing long before the emergence of modern medicine.[24.1] This historical context of medicinal plant use, when examined alongside contemporary scientific methodologies, highlights the strengths and limitations of both traditional wisdom and modern research.[26.1] Furthermore, current research and development in Chinese herbal medicine (CHM) and other complementary and alternative medicine (CAM) practices aim to promote the use of natural and traditional resources in contemporary health care, including food and diet therapy.[25.1] Thus, the integration of traditional knowledge with modern scientific approaches underscores the multifaceted importance of botany in health care and the broader context of environmental stewardship.History
Ancient Civilizations and Early Studies
Botany, as a formal study, has its roots in ancient civilizations that utilized plants for medicinal purposes and other practical applications. The earliest recorded use of medicinal plants dates back to ancient cultures such as the Sumerians, Egyptians, Chinese, and Greeks, who relied heavily on the natural world for remedies and treatments. These practices have significantly influenced modern medicine, showcasing the foundational role of plants in healing traditions.[85.1] Botany, the study of plants, has its origins in herbalism, which focused on the medicinal properties of plants. The early history of botany is marked by significant writings and classifications from ancient civilizations, particularly in Greece. The Greek philosopher Aristotle contributed to this field by collecting information about plants; however, it was his student Theophrastus (371–287 BCE) who is widely recognized as the "Father of Botany".[58.1] Theophrastus inherited Aristotle's library and advanced the study of botany by developing more complex systems of plant classification. His major works, "Enquiry into Plants" and "On the Causes of Plants," represent foundational contributions to botanical science that remained influential until the Middle Ages, nearly seventeen centuries later.[57.1] Theophrastus's contributions encompassed not only plant classification but also aspects of plant physiology and ecology, solidifying his legacy in the scientific community.[58.1] Ancient civilizations relied heavily on herbal medicine for both healing and spiritual rituals, with practices that varied significantly across cultures. In ancient Egypt, the Ebers Papyrus, which dates back to 1550 BCE, documented the use of over 800 medicinal plants, showcasing the extensive knowledge Egyptians possessed regarding herbal remedies.[90.1] Similarly, Ayurveda, the ancient healing system of India, has utilized medicinal herbs for over 5,000 years, reflecting a deep understanding of plant properties and their applications in health.[90.1] Additionally, Traditional Chinese Medicine has a long history of employing plant-based remedies, contributing to a rich tapestry of knowledge that continues to influence modern herbalism.[86.1] The collective insights from these ancient practices underscore the universal reliance on plant-based healing systems, which have been integral to the medical traditions of various cultures throughout history.[90.1] Ancient civilizations, spanning from Egypt to China, significantly relied on herbal medicine for both healing and spiritual rituals, which were essential components of their medical traditions.[89.1] The Ebers Papyrus, a crucial historical document from Egypt, provides detailed accounts of various herbal treatments, including the use of aloe and garlic, thereby illustrating the early understanding of plant properties and their medicinal applications.[89.1] These practices highlight the integral role of plant-based remedies in the medical traditions of ancient societies.[89.1]Key Figures in Botany
Botany has been profoundly influenced by key figures throughout history, with Theophrastus (370-285 B.C.) often recognized as the "father of botany." A pupil of the renowned Greek philosopher Aristotle, Theophrastus was a Greek naturalist who described 480 plants in his seminal work, Historia Plantarum.[64.1] He classified plants into four groups for convenience: herbs, undershrubs, shrubs, and trees.[64.1] His major botanical works, Enquiry into Plants and On the Causes of Plants, are considered foundational references that have significantly contributed to the development of natural science and plant classification.[68.1] Theophrastus's empirical approach to studying plants was groundbreaking for his time, utilizing observation as a basis for theory development, and his impact on botanical science extends far beyond antiquity, influencing generations of botanists and underpinning a wide array of knowledge that continues to respect its ancient roots.[67.1] Asa Gray (1810-1888) was a prominent American botanist whose extensive studies of North American flora significantly unified the taxonomic knowledge of the region's plants.[61.1] His influential textbook, Elements of Botany, published in 1836, emphasized a deep understanding of plants rather than strict classification.[62.1] Gray accepted a professorship at the newly-created University of Michigan in 1842 and later contributed to the establishment of the botany department at Harvard University, where he donated a priceless collection of over 200,000 preserved plants and 2,000 botanical texts.[63.1] His collaboration with Dr. Torrey was instrumental in laying the foundation for the study of North American flora.[59.1] Additionally, Gray made early attempts to reconcile Darwinian concepts of evolution with traditional beliefs, marking a significant contribution to the field of plant geography.[60.1] Robert Brown (1773-1858) was a notable Scottish botanist best known for his discovery of Brownian motion, which describes the random movement of tiny particles in fluids or gases.[70.1] His innovative use of the microscope allowed him to make significant contributions to botany, particularly through his detailed descriptions of the cell nucleus.[70.1] Brown was among the first scientists to study these fluctuations, which are now recognized as a fundamental phenomenon in various physical processes.[71.1] His work not only advanced the understanding of plant physiology but also laid a foundation for future research in the field of botany.[70.1] The phenomenon of Brownian motion, named in his honor, underscores his lasting impact on scientific inquiry.[71.1] Together, these figures—Theophrastus, Asa Gray, and Robert Brown—represent critical milestones in the evolution of botany, each contributing unique insights that have shaped the discipline into what it is today.Branches Of Botany
Major Branches
Botany is a vast field that encompasses various branches, each focusing on different aspects of plant life. The major branches of botany can be categorized into three primary groups: core topics, applied topics, and organismic topics. Core topics are concerned with fundamental natural phenomena and processes of plant life, as well as the classification and description of plant diversity. Applied topics explore the economic benefits of plants in areas such as horticulture, agriculture, and forestry. Organismic topics focus on specific plant groups, including algae, mosses, and flowering plants.[101.1] Among the significant branches of botany is plant taxonomy, also known as plant systematics. This branch is dedicated to the naming, describing, and classifying of plants, which is essential for organizing knowledge about plant diversity and understanding evolutionary relationships among different species.[102.1] Another important branch is bryology, which studies non-vascular plants such as mosses, liverworts, and hornworts, focusing on their morphology, ecology, and distribution.[100.1] Botany is a vast subject within biology that encompasses all plant forms and the processes related to them. It can be further divided into various branches based on specific processes or plant forms.[103.1] Two notable branches of botany are plant breeding and embryology. Plant breeding focuses on the development of improved varieties of plants, while embryology examines the processes involved from the fusion of male and female gametes to the formation of the zygote, which subsequently develops into an embryo.[104.1] These branches illustrate the complexity and significance of plant life within the broader context of biological sciences.Specialized Branches
Plant taxonomy is an ancient discipline that is currently facing new challenges due to the availability of a vast array of molecular approaches, which allow for reliable genealogy-based classifications. While the primary focus of plant taxonomy remains on the delimitation of species, these molecular techniques also enhance the understanding of evolutionary relationships among plant species and provide a better understanding of evolutionary history.[105.1] The integration of molecular data signifies a significant evolution in the field of plant taxonomy, reflecting the ongoing advancements in the methodologies used for classification.[105.1] Molecular methods have become essential tools in plant systematics, offering a comprehensive overview of major plant DNA sequences and providing guidelines for selecting appropriate sequences and techniques based on the DNA compartment (nuclear, chloroplastic, mitochondrial), evolutionary mechanisms, and the level of taxonomic differentiation of the plants under survey.[107.1] Furthermore, plant taxonomy plays a crucial role in conservation efforts; by understanding the relationships among plants, scientists can better protect vulnerable species and ecosystems.[119.1] Additionally, plant taxonomy aids in agricultural practices by helping to identify useful species for food, which is vital for guiding farmers in crop selection and breeding programs.[120.1] Agricultural botany plays a crucial role in addressing food security challenges, particularly as the global population is projected to rise from 6.7 billion to 9 billion by 2050. To meet the increased demand for food, world agricultural production must rise by 50% by 2030, despite the limitations posed by urbanization, salinization, desertification, and environmental degradation affecting arable land.[113.1] Advancements in agricultural practices, particularly through new plant breeding technologies (NPBTs) such as genetically modified organisms (GMOs) and gene-edited crops, are essential for achieving sustainable agriculture and food security.[111.1] While these technologies offer significant benefits, they also raise important social and ethical issues, including intellectual property rights and the distribution of benefits among stakeholders like farmers, consumers, and multinational corporations.[112.1] The ongoing discourse surrounding genome editing technology highlights its potential to improve food security and promote ecosystem health, making it a relevant topic in the field of sustainability.[112.1] Moreover, the integration of traditional agricultural techniques with modern practices is gaining attention as a viable strategy for sustainable farming. This approach emphasizes the importance of combining historical knowledge with contemporary scientific advancements to create resilient agricultural systems that can meet current and future demands.[124.1]Recent Advancements
Genetic Engineering in Botany
Genetic engineering, particularly through CRISPR technology, has emerged as a transformative tool in botany, significantly enhancing crop resilience and productivity. This technology enables the development of crops that are resistant to pests and diseases, thereby reducing the reliance on chemical pesticides. For instance, CRISPR has been successfully applied to create tomato varieties resistant to the tomato yellow leaf curl virus (TYLCV) and bananas that are protected against Panama disease caused by Fusarium wilt.[147.1] Moreover, CRISPR technology is instrumental in developing climate-resilient crops that can thrive in diverse agroecological environments. Various case studies illustrate the effectiveness of CRISPR-Cas in enhancing climate resilience across different crops, which is crucial given the challenges posed by climate change.[148.1] The application of CRISPR in agriculture not only aims to improve crop resilience but also holds the potential to increase overall agricultural productivity while minimizing the need for chemical fertilizers.[149.1] In particular, the use of CRISPR-Cas9 genome editing in crop breeding has significant implications for smallholder farmers, especially in low- and middle-income countries in Africa. This technology can help these farmers adapt to climate change without compromising productivity, thereby addressing food insecurity and hunger.[150.1] Despite its potential benefits, the integration of CRISPR technology into mainstream agriculture raises important ethical questions and concerns regarding biodiversity and traditional farming practices.[160.1] Public perception plays a critical role in the acceptance and adoption of CRISPR-engineered crops. Stakeholders, including consumers and scientists, express varying degrees of understanding and acceptance of genetic modification technologies.[161.1] The regulatory landscape surrounding CRISPR technology is also evolving. The existing frameworks for regulating agricultural biotechnology, established since 1986, face challenges in classifying CRISPR-engineered organisms within the current definitions of genetically modified organisms (GMOs).[163.1] Regulatory approvals for CRISPR-engineered GMOs often involve multiple agencies, such as the United States Department of Agriculture (USDA), the Food and Drug Administration (FDA), and the Environmental Protection Agency (EPA), depending on the specific GMO in question.[164.1] As CRISPR technology becomes increasingly integrated into mainstream agriculture, the role of public perception and regulatory frameworks will be crucial. The scientific consensus among major international and national organizations is that food produced from genetically modified (GM) crops is safe.[162.1] However, there are ongoing polarized debates regarding the use of biotechnology in agriculture, particularly concerning GM food, which is often viewed as more contentious than topics such as evolution, vaccination, or climate change in various regions of the world.[162.1] Furthermore, there is a widespread lack of understanding, misconceptions, and unfamiliarity among consumers regarding plant gene technologies, including genetically modified organisms (GMO), new breeding techniques (NBTs), and genetic engineering (GE).[162.1] To ensure the effective communication of the benefits of CRISPR advancements, it is essential to address these public concerns and misconceptions.Innovations in Plant Science
Recent advancements in plant science have led to significant innovations that enhance our understanding of plant biology and improve agricultural practices. One of the most notable developments is the application of CRISPR gene editing technology, which allows researchers to modify plant DNA, introducing new traits and suppressing undesirable ones, thereby enhancing crop resilience and productivity.[144.1] Additionally, the integration of nanotechnology into plant science has given rise to plant nano bionics, where nanomaterials are incorporated into plants to improve their capabilities, such as environmental sensing and pollutant removal.[157.1] The field of plant molecular biology has also seen substantial progress, particularly in understanding how plants respond to climate change. Recent studies have focused on developing novel pathways that enhance plant tolerance to various climate-induced stresses, including drought and extreme temperatures.[151.1] Techniques such as metabolomics have been employed to analyze plant metabolites, revealing biomarkers and mechanisms that underlie stress adaptation.[153.1] Furthermore, advancements in omics technologies—encompassing genomics, transcriptomics, proteomics, and metabolomics—have provided comprehensive insights into plant stress responses, facilitating targeted crop improvement strategies.[167.1] Innovative approaches, such as modulating plant microbiomes, are being explored to create "climate-smart crops" that not only improve yield but also reduce environmental impacts.[154.1] The use of plant extracts as biostimulant agents is another promising strategy, as these extracts are rich in bioactive compounds that enhance plant resistance to various stresses, thereby promoting growth and productivity.[165.1]Applications Of Botany
Agriculture and Horticulture
Botany plays a crucial role in agriculture and horticulture, serving as the foundation for various practices that enhance food production and sustainability. The principles of botany are integral to agricultural practices, influencing areas such as plant nutrition, breeding techniques, pest management, and irrigation optimization, all of which are essential for food security and agricultural productivity.[190.1] In the context of sustainable agriculture, botany contributes significantly to soil health management by identifying plant species that improve soil structure and fertility. This understanding promotes biodiversity by elucidating the relationships among plant species within ecosystems, which is vital for sustaining agricultural practices.[195.1] As climate change presents unprecedented challenges to agriculture, botanical research provides insights into plant responses to shifting climatic conditions, thereby aiding in the development of more resilient crop varieties.[195.1] Furthermore, advancements in botanical research have led to the emergence of sustainable practices, such as the use of botanical pesticides. These pesticides are considered environmentally friendly due to their rapid degradation and minimal impact on non-target organisms, making them a viable alternative to synthetic chemicals.[198.1] Botanists are also involved in developing drought-resistant crops, which are essential for maintaining food security in increasingly harsh environments.[188.1]Environmental Management
Native plants are integral to environmental management, supporting local ecosystems and enhancing soil health. They provide essential food and shelter for wildlife, thereby sustaining biodiversity and ecosystem stability.[216.1] Their extensive root systems improve soil structure, prevent erosion, and facilitate water infiltration and aeration, as seen in species like the California buckeye (Aesculus californica).[193.1][193.1] Additionally, native plants reduce reliance on chemical fertilizers by fixing nitrogen, breaking up compacted soil, and contributing organic matter.[192.1] Diverse plant communities enhance soil biodiversity through resource partitioning among soil organisms, which supports nutrient cycling and robust plant growth.[207.1][206.1] This biodiversity is linked to increased agricultural productivity, as it enhances soil functions like nutrient cycling and carbon storage, promoting nutrient availability and disease protection for crops.[208.1] The ecological importance of native plants extends to maintaining the balance of local ecosystems. They provide food, shelter, and nesting sites for wildlife, contributing to ecosystem health and stability.[216.1] By planting native species, individuals support the insects and animals that depend on them, fostering balanced ecosystems.[219.1] This mutualistic relationship underscores the significance of incorporating native species into environmental management practices. To maximize the impact of native plant gardens, it is crucial to plant keystone species and ensure that at least 70% of the garden consists of native plants, which enhances pollinator abundance and diversity.[218.1] The design of native plant gardens should reflect local environmental conditions, selecting hardy, drought-tolerant species that attract pollinators and birds. Incorporating a variety of flowering plants that bloom across different seasons provides continuous nectar sources, fostering biodiversity and enhancing ecological health.[221.1][220.1]Future Trends In Botany
Interdisciplinary Collaborations
Interdisciplinary research holds immense significance in advancing our understanding of botany and related fields. By integrating knowledge from various disciplines, researchers can tackle complex biological challenges, leading to innovative solutions for pressing issues such as climate change and food security.[264.1] The impacts of population growth and climate change on food security are profound, potentially exacerbating the environmental toll that agriculture has taken on our planet. These existential concerns highlight the necessity for a passionate, interdisciplinary, and diverse community of plant science professionals to be trained during the 21st century.[266.1] One notable example of successful interdisciplinary collaboration is an ambitious project funded by the Abdul Latif Jameel Water and Food Systems Lab (J-WAFS), which focuses on the impacts of climate change on crops and global food security.[265.1] Such initiatives highlight the importance of merging expertise from fields like climate science, agriculture, and botany to develop strategies that mitigate the adverse effects of environmental changes on food production. Workshops aimed at fostering interdisciplinary approaches have identified successful strategies that utilize physiology, genetics, and genomics to understand plant responses to environmental stressors.[267.1] These workshops also emphasize the need to bridge scientific and technological gaps through collaborative efforts, thereby enhancing the overall effectiveness of research in plant sciences.[270.1] Furthermore, interdisciplinary research has led to innovative projects, such as those involving botanists and chemists working together to develop new agricultural technologies.[268.1] These collaborations not only advance scientific knowledge but also contribute to the development of sustainable practices that are crucial for the future of agriculture and conservation efforts.[234.1]Sustainable Solutions
Sustainable solutions in botany are increasingly focused on innovative techniques that address environmental challenges while promoting biodiversity and conservation. One significant area of development is phytoremediation, which utilizes plants to mitigate environmental contamination, showcasing the potential of botanical research to contribute positively to ecological health.[235.1] The integration of advanced DNA extraction technologies is increasingly recognized as essential for enhancing plant conservation efforts. These technologies enable a more accurate assessment of the genetic quality of seeds stored in seed banks, which is crucial for the conservation of endangered plant species.[244.1] As the field of plant research expands, there is a growing demand for innovative DNA extraction techniques that can support these conservation initiatives.[245.1] By analyzing genetic diversity within plant populations, scientists can gain insights into the adaptive potential of these species in response to environmental stresses, thereby informing conservation strategies.[246.1] Additionally, botanic gardens contribute significantly to conservation by establishing seed banks and employing micropropagation techniques for endangered species, which facilitate population enhancement and reintroductions in restoration programs.[247.1] In the realm of agricultural sustainability, genomic editing technologies such as CRISPR/Cas9 are emerging as powerful tools for enhancing crop resilience to abiotic and biotic stresses. This technology has been applied to various crops, enabling the development of climate-resilient varieties that can help mitigate food insecurity, particularly in vulnerable regions like Africa.[254.1] The precise genome engineering capabilities of CRISPR allow for the introduction of disease resistance traits, addressing the challenges posed by plant diseases exacerbated by climate change.[255.1] The integration of high-throughput sequencing with CRISPR/Cas systems is significantly advancing the field of plant breeding by enabling researchers to conduct multi-level and multi-faceted studies that enhance our understanding of plant genetics.[258.1] This technological synergy allows for precise manipulation of plant genomes, making CRISPR/Cas systems transformative tools for genetic modification and the enhancement of resistance traits in plants.[260.1] However, the application of CRISPR-based genome editing also raises critical biosafety concerns, particularly regarding the potential risks associated with genetically modified organisms.[256.1] Addressing these challenges is essential to ensure the safety of genetically modified plant life for human consumption and the environment.[256.1] Therefore, while these advancements hold promise for developing climate-resilient plant varieties, it is crucial to thoroughly examine their implications for biosafety and ethical considerations as we pursue these innovations.[256.1]In this section:
References
[4] Botany - Definition, History, Branches, & Importance of Botany — Botany is the branch of biology that deals with the study of plants. Botany helps us to understand plant structure, function, and aspects of plants. Botany is the study of the structure, development, reproduction, and growth of plants and plant-like organisms. The people who study botany are known as Botanists. The study of botany has its importance in many fields like Agriculture, Medicine
[5] Botany | Definition, History, Branches, & Facts | Britannica — Botany, branch of biology that deals with the study of plants, including their structure, properties, and biochemical processes. The principles and findings of botany have provided the base for such applied sciences as agriculture, horticulture, and forestry.
[6] 1.1: Plants, Botany, and Kingdoms - Biology LibreTexts — Botany is the scientific study of plants and plant-like organisms. It helps us understand why plants are so vitally important to the world. Plants start the majority of food and energy chains, they provide us with oxygen, food and medicine. Plants can be divided into two groups: plants 1 1 and plants 2 2. Plants 1 1 contain all photosynthetic organisms which use light, H2O H 2 O, and CO2 CO 2
[7] Botany - Wikipedia — Botany originated as herbalism, the study and use of plants for their possible medicinal properties. The early recorded history of botany includes many ancient writings and plant classifications. 371–287 BCE), a student of Aristotle who invented and described many of its principles and is widely regarded in the scientific community as the "Father of Botany". His major works, Enquiry into Plants and On the Causes of Plants, constitute the most important contributions to botanical science until the Middle Ages, almost seventeen centuries later. No other cells can pass on inherited characters. The work of Katherine Esau (1898–1997) on plant anatomy is still a major foundation of modern botany.
[8] History of Botany | Complete Timeline | BioExplorer.net — Botany is the systematic and scientific study of plants. The history of botany goes back to 4th-century B.C.E. Man’s curiosity about plants led to many discoveries in Botany which shaped our current lives in many ways. Technology has helped specialists in botany to see and understand the three-dimensional nature of cells and the genetic engineering of plants. Botany is the scientific study of plants, their anatomy, structure, genetics, ecology, distribution, and taxonomy. Botany News of 2022: Explore the latest advancements in plant science, including methane emissions by trees, epigenetic changes, wearable sensors for transpiration detection, and more. e: Botany – History of botany – Plants, Plant, Study, and Century. https://www.bioexplorer.net/history_of_biology/botany/. "History of Botany" Bio Explorer, 02 February 2025, https://www.bioexplorer.net/history_of_biology/botany/. https://www.bioexplorer.net/history_of_biology/botany/.
[9] History of botany - Wikipedia — Botany (Greek Βοτάνη (botanē) meaning "pasture", "herbs" "grass", or "fodder"; Medieval Latin botanicus – herb, plant) and zoology are, historically, the core disciplines of biology whose history is closely associated with the natural sciences chemistry, physics and geology. Early natural history divided pure botany into three main streams morphology-classification, anatomy and physiology – that is, external form, internal structure, and functional operation. The most obvious topics in applied botany are horticulture, forestry and agriculture although there are many others like weed science, plant pathology, floristry, pharmacognosy, economic botany and ethnobotany which lie outside modern courses in botany.
[11] (PDF) The Role of Precision Farming in Sustainable Agriculture ... — Precision farming, leveraging AI, ML, and IoT technologies, optimizes agricultural practices by enhancing water management through soil moisture monitoring and efficient irrigation systems (Khose et al., 2023), improving nutrient management through soil testing and realtime sensing (Shekhar et al., 2021a;2021b), revolutionizing pest and disease management through remote sensing and targeted interventions (Khose et al., 2023), and promoting crop monitoring and yield prediction through satellite imagery and advanced models (Ahmad et al., 2020), ultimately leading to reduced chemical usage, soil conservation, biodiversity preservation, water conservation, and lower greenhouse gas emissions (Mekonnen et al., 2019).
[12] The Role of Precision Agriculture in Sustainable Farming Practices - SAN — Discover how precision agriculture revolutionizes sustainable farming practices. Explore the role of precision technology in optimizing resource efficiency, minimizing environmental impact, and maximizing crop health. Learn how precision agriculture empowers farmers to make data-driven decisions for a more sustainable future.
[13] Application of Precision Agriculture Technologies for Sustainable Crop ... — By optimizing every aspect of agriculture with technology and data, precision agriculture can drive sustainable development and address climate change and resource scarcity in food production . Precision farming enhances crop production and environmental sustainability across various agricultural fields (Table 1). 5.
[14] Botany and Biotechnology: Merging Fields of Science — Biotechnological Techniques in Botany Genetic Engineering and Plant Biotechnology. Genetic engineering revolutionizes how scientists approach plant breeding and development. It involves altering an organism's DNA to achieve desired traits. This technique enables the creation of genetically modified organisms (GMOs) with specific characteristics.
[15] The Future of Botany: Trends and Innovations in Plant Science — Advances in Genetic Engineering One of the most groundbreaking trends in botany is the surge in genetic engineering technologies, particularly CRISPR-Cas9. This powerful tool allows scientists to edit genes with unprecedented precision, enabling the development of plants that can withstand harsh environmental conditions, resist pests, and
[17] 7.1: Genetically Engineered Crops - Biology LibreTexts — Impact of GE Crops. Humans have been selecting plants and animals for desired traits that suited their needs since the beginnings of agriculture 10,000 years ago. GE crops are the latest advancements made in this direction, with goals of achieving agricultural productivity and improving the available genetic stocks' quality.
[24] Ethnobotany: Studying the Cultural Uses of Plants — Medicinal plants The Role of Plants in Traditional Medicine. Exploring the role of plants in traditional medicine is a fascinating area of study that bridges anthropology, botany, and pharmacology. Since ancient times, humans have relied on plants for their medicinal properties, turning to nature for healing long before the advent of modern medicine.
[25] Historical Perspective of Traditional Indigenous Medical Practices: The ... — Our earlier endeavors, which focused on discussing the current research and development of Chinese herbal medicine (CHM), and the trend in drug discovery, as well as a variety of CAM, aimed to promote the utilization of natural and traditional resources for contemporary health care, including food/diet therapy [7, 21–24]. 2. Chinese Herbal Medicine (CHM) Chinese herbal medicine (CHM) in China. While therapeutic interventions using multiple drugs in modern medicine are based on an understanding of disease processes and drug mechanisms, the use of multicomponent herbal formulae (Fu-Fang in Chinese herbal medicine) is based on CM theory and practical experience.
[26] PDF — traditional herbal wisdom and modern scientific research. By examining the rich historical context of medicinal plant use alongside contemporary scientific methodologies, this exploration underscores the strengths and limitations of each approach. Traditional practices offer a deep well of empirical knowledge,
[57] Chapter 2: Brief History - Harvard University Herbaria — The term "botany" itself probably came from the Greek words botanikos (botanical) and botane (plant or herb). The Greek philosopher Aristotle collected information about plants but it was really his student Theophrastus [371-286 B.C.] who inherited his teacher's library and began to devise more complex systems of plant classification.
[58] The Origins of Botany - Encyclopedia.com — Learn how botany, the study of plants, developed as a science in ancient Greece with Theophrastus as the father of botanical science. Explore the practical and theoretical interests in plants in different ancient civilizations and the contributions of Theophrastus to plant classification, physiology, and ecology.
[59] Asa Gray biography — Asa Gray's contributions to botany and plant systematics were significant. His "Elements of Botany" became a standard textbook, and his work with Dr. Torrey helped establish the foundation for the study of North American flora.
[60] Gray, Asa - Encyclopedia.com — Asa Gray Asa Gray (1810-1888), American botanist, pioneered in the study of plant geography and made early attempts to reconcile Darwinian concepts of evolution with traditional religious beliefs. During the 19th century botany in America emerged as a highly professional vocation involving collaboration among collectors and herbarium specialists. A new method of classification was coming into
[61] Asa Gray | Biography, Facts, Contributions, & Works | Britannica — Asa Gray, American botanist whose extensive studies of North American flora unified the taxonomic knowledge of the region's plants.
[62] Asa Gray (1810-1888) - Mount Auburn Cemetery — This led to the publication of North American Gramineae and Cyperaceae. He published Elements of Botany in 1836, a text that favored a deep understanding of plants instead of strict classification. He accepted a professorship at the newly-created University of Michigan, and published the Botanical Textbook in 1842.
[63] Asa Gray: The Father of American Botany | Britannica — Gray was elected to the American Academy of Arts and Sciences in 1841 and was offered a position at Harvard University in 1842, at age 32. He amassed a priceless collection of more than 200,000 preserved plants (many of which he named as new species) and 2,000 botanical texts, which he donated to Harvard to effectively found its botany department.
[64] PDF — Theophrastus (370-285 B.C.) History of plant classification dates back to the period of Theophrastus, who is also known as the father of botany. He was pupil of the great Greek philosopher Aristotle. Theophrastus was a Greek naturalist, described 480 plants in his book Historia Plantarum.He classified plants for convenience into four groups namely, herbs, undershrubs, shrubs and trees. Small
[67] Theophrastus: The Father of Botany and His Enduring Legacy — Theophrastus's botanical studies were ground-breaking for his time, using empirical observation as a foundation for theory development. ... The impact of Theophrastus reaches far beyond antiquity, underpinning a wide array of knowledge that has evolved yet still respects its ancient roots. ... As much as Theophrastus was a man of science, his
[68] What Are The Contributions Of Theophrastus In Botany — His major botanical works, "Enquiry into Plants" and "On the Causes of Plants", were foundational references between various fields. Theophrastus is often considered the "father of botany" due to his contributions to natural science, logic, rhetoric, and his two surviving botanical works, Enquiry into Plants and On the Causes of Plants.
[70] Robert Brown - BIOGRAPHS — Biography of Robert Brown Robert Brown was a Scottish botanist who is best known for his discovery of the random movement of tiny particles in fluids or gases, now known as Brownian motion. He made significant contributions to the field of botany, largely due to his innovative use of the microscope. Brown was one of the first scientists to provide detailed descriptions of the cell nucleus and
[71] Brownian motion | Physics, Math & History | Britannica — Brownian motion, any of various physical phenomena in which some quantity is constantly undergoing small, random fluctuations. It was named for the Scottish botanist Robert Brown, the first to study such fluctuations (1827). If a number of particles subject to Brownian motion are present in a given
[85] History of using plants as medicine: a look into different cultures ... — From the beginning of time, humans have searched for cures in leaves, barks, flowers and roots. Archeological evidence indicates the use of medical plants to the Palaeolithic age (60,000 years ago).. The earliest historical records are found in Sumerian (3000 BC) civilization. Later, the Ebers Papyrus from ancient Egypt (1550 BC) described over 800 medicinal plants.
[86] Medicinal Plants in Ancient Civilizations: Herbal Remedies Explored — From the intricate herbal practices of ancient Egyptians to the systematic approaches in Traditional Chinese Medicine and Ayurveda, the use of medicinal plants reveals a rich tapestry of knowledge. Each civilization contributed unique insights that continue to resonate in modern herbalism.
[89] The Role of Herbal Medicine in Ancient Societies — Introduction Ancient civilizations relied on herbal medicine for healing and spiritual rituals. From Egypt to China, plant-based remedies were integral to medical traditions. Key Civilizations and Their Herbal Practices Egypt : The Ebers Papyrus details herbal treatments using aloe, garlic, an
[90] Ancient Uses of Traditional Herbs Across Cultures — The Egyptians had extensive knowledge of medicinal herbs, with written records, such as the Ebers Papyrus, documenting their use of over 800 plant-based remedies. Indigenous tribes in North America have used herbs for thousands of years, developing rich traditions of plant-based healing passed down through generations. Ayurveda, the ancient healing system of India, has used medicinal herbs for over 5,000 years. The use of traditional herbs across cultures showcases the universal reliance on plant-based healing systems to support health and well-being. From the ancient Egyptians to Indigenous North American tribes, each culture has developed its own unique approach to medicinal herbs. By learning from the ancient uses of herbs, we can gain valuable insights into the power of plants in promoting health and healing.
[100] Scope of Botany with Branches and Importance - Science Info — Branches of Botany. Botany is organized into several branches which focus on various aspects of plant life. Some of the major branches or fields in botany are: Bryology is the field of botany that studies non-vascular plants, including mosses, liverworts, and hornworts. It studies their morphology, ecology, and distribution.
[101] Branches of botany - Wikipedia — Jump to content Personal tools Toggle the table of contents Article Edit Tools The main branches of botany (also referred to as "plant science") are commonly divided into three groups: core topics, concerned with the study of the fundamental natural phenomena and processes of plant life, the classification and description of plant diversity; applied topics which study the ways in which plants may be used for economic benefit in horticulture, agriculture and forestry; and organismic topics which focus on plant groups such as algae, mosses or flowering plants. Plant evolutionary developmental biology – Plant development from an evolutionary perspective Seed technology - Seed technology is the science dealing with the methods of improving physical and genetical characteristics of seed. techniques Field techniques Fields and Related articles
[102] What are the branches of botany? - Go Life Science — A. Major Branches of Botany 1. Plant Taxonomy. Plant taxonomy, also known as plant systematic, is the science of naming, describing, and classifying plants. This branch of botany is essential for organizing our knowledge of plant diversity. It helps us understand evolutionary relationships between different plant species.
[103] Branches of Botany — Biology is made up of two subjects: Botany and Zoology. It is a natural science. Branches of Botany. Botany is a vast subject that includes all plant forms and the processes related to them. Thus, botany can be further divided into different subjects or branches depending upon the special processes or plant form.
[104] What are the 26 branches of botany - PublishYourArticles.net — 10. Plant breeding : Branch of botany dealing with the development of improved varieties of plants.. 11. Embryology : The male and female gametes of a plant fuse to form the zygote. Zygote develops into an embryo (in embryophyta) with plumule, cotyledons and radicle. When germination of seed takes place, the entire plant develops from these organs.
[105] Molecular Plant Taxonomy: Methods and Protocols | SpringerLink — Plant taxonomy is an ancient discipline facing new challenges with the current availability of a vast array of molecular approaches which allow reliable genealogy-based classifications. Although the primary focus of plant taxonomy is on the delimitation of species, molecular approaches also provide a better understanding of evolutionary
[107] Guidelines for the Choice of Sequences for Molecular Plant Taxonomy — This chapter presents an overview of the major plant DNA sequences and molecular methods available for plant taxonomy. Guidelines are provided for the choice of sequences and methods to be used, based on the DNA compartment (nuclear, chloroplastic, mitochondrial), evolutionary mechanisms, and the level of taxonomic differentiation of the plants under survey.
[111] Role of New Plant Breeding Technologies for Food Security and ... — Without new types of technologies, sustainable agriculture and food security cannot become reality any time soon. New plant breeding technologies (NPBTs), including genetically modified organisms (GMOs) and gene-edited crops, could possibly be a game changer (Zilberman, Holland, and Trilnick 2018; Zaidi et al. 2019).
[112] Genome editing and sustainable agriculture - Nature Sustainability — Genome editing and sustainable agriculture | Nature Sustainability nature The application of genome editing technology in agriculture is clearly beneficial; however, it also opens doors for a host of associated social and ethical issues, such as intellectual property rights associated with the use of the technology and the question of who benefits from such crops in terms of the stakeholders involved, such as farmers, consumers and multinational corporations. The ongoing debate on the promise of genome editing technology and its associations with other approaches in agriculture towards improving food security and ecosystem and environmental health is interesting and relevant to sustainability.
[113] Plant Genetics, Sustainable Agriculture and Global Food Security — THE number of people on Earth is expected to increase from the current 6.7 billion to 9 billion by 2050. To accommodate the increased demand for food, world agricultural production needs to rise by 50% by 2030 (Royal Society 2009).Because the amount of arable land is limited and what is left is being lost to urbanization, salinization, desertification, and environmental degradation, it no
[119] Plant Taxonomy: Classifying and Naming Plant Species — Furthermore, plant taxonomy plays a crucial role in conservation efforts. By knowing which plants are related, scientists can better protect vulnerable species and ecosystems. It also aids in agricultural practices by guiding farmers on crop selection and breeding programs.
[120] Plant Taxonomy and Biodiversity: Understanding Plant Diversity — How plant taxonomy aids conservation. What is Plant Taxonomy? Plant taxonomy is the science of classifying plants based on their characteristics, evolutionary history, and genetic relationships. ... Helps in identifying endangered species, contributing to conservation efforts. Agriculture and Medicine: Identifying useful species for food
[124] Exploring Traditional Agricultural Techniques Integrated with Modern ... — Exploring Traditional Agricultural Techniques Integrated with Modern Farming for a Sustainable Future : A Review Exploring Traditional Agricultural Techniques Integrated with Modern Farming for a Sustainable Future : A Review Potential of integrating traditional agricultural techniques with modern farming practices in India, aiming to forge a path towards sustainable agriculture. The paper concludes by affirming the viability and necessity of integrating traditional and modern farming practices in India, advocating for a model of agriculture that is sustainable, resilient, and inclusive, catering to the needs of the present while safeguarding resources for future generations. Sekhar, M., Mausmi Rastogi, Rajesh C M, D R K Saikanth, Sandeep Rout, Saurabh Kumar, and Amit Kumar Patel. “Exploring Traditional Agricultural Techniques Integrated With Modern Farming for a Sustainable Future : A Review”.
[144] 15 Recent Advancements and Innovations in the field of Botany — CRISPR gene editing: This technology has been used in plant research to modify the DNA of plants, allowing for the introduction of new traits and the suppression of undesirable traits.; Plant nano bionics: This field involves the integration of nanomaterials into plants to enhance their capabilities, such as the ability to detect and remove pollutants from the environment.
[147] CRISPR in Agriculture: Revolutionizing Crop and Livestock Breeding — CRISPR enables the creation of crops resistant to pests and diseases, reducing the need for chemical pesticides. Examples: Tomatoes: Resistance to tomato yellow leaf curl virus (TYLCV). Bananas: Protection against Panama disease caused by Fusarium wilt. 4. Climate-Resilient Crops. Climate change poses significant challenges to agriculture.
[148] PDF — of creating climate-resilient crops that can thrive in diverse agroecological environments. Case Studies of Successful Gene Editing for Climate Adaptation: The effectiveness of CRISPR-Cas in enhancing climate resilience is exemplified through various case studies across different crops. One notable example is the
[149] Understanding CRISPR Technology In Agriculture — Applications in Agriculture. Farmers and scientists are exploring CRISPR to enhance crop resilience and productivity. It can potentially reduce the need for chemical pesticides and fertilizers. Furthermore, CRISPR technologies hold promise in developing climate-resilient crops.
[150] CRISPR-Cas9 genome editing in crop breeding for climate change ... — CRISPR-Cas9 genome editing in crop breeding for climate change resilience: Implications for smallholder farmers in Africa - ScienceDirect CRISPR-Cas9 genome editing in crop breeding for climate change resilience: Implications for smallholder farmers in Africa The aim of this review is to explore the use of CRISPR-Cas9 technology in developing climate resilient crops for mitigation of food insecurity and hunger and the attendant implications for small holder farmers in Africa. The adoption of CRISPR-assisted crop improvement in breeding strategies can help smallholder farmers in low-middle income countries of Africa to adapt to climate change without productivity loss.
[151] Recent Approaches in Omics for Plant Resilience to Climate Change — This edited volume summarizes the recent advancements made in plant science including molecular biology and genome editing , particularly in the development of novel pathways tolerant to climate change-induced stresses such as drought, extreme temperatures, cold, salinity, flooding, etc.
[153] Exploring Plant Resilience Through Secondary Metabolite Profiling ... — Metabolomics enables comprehensive analysis of plant metabolites, uncovering biomarkers and mechanisms underlying stress adaptation. Regulatory genes such as MYB and WRKY are central to secondary metabolite synthesis and environmental resilience.
[154] Exploring the plant microbiome: A pathway to climate-smart crops — We propose that modulating plant microbiomes can help establish "climate-smart crops" that improve yield and reduce negative impacts on the environment. Our proposed framework integrates plant genotype, root exudates, and microbes to optimize nutrient cycling, improve stress resilience, and expedite carbon sequestration.
[157] Nanotechnology in Plant Nanobionics: Mechanisms, Applications, and ... — This review explores recent advancements in plant nanobionics, focusing on nanoparticle (NP) synthesis, adhesion, uptake, transport, fate, and application in enhancing plant physiological functioning, stress mitigation, plant health monitoring, energy production, environmental sensing, and overall plant growth and productivity.
[160] Understanding CRISPR Technology In Agriculture — CRISPR technology raises significant ethical questions in agriculture. Many stakeholders express concerns about its implications for biodiversity. Additionally, the potential effects on traditional farming practices draw attention. Public Perception and Acceptance. Public perception plays a crucial role in the acceptance of CRISPR.
[161] A birds-eye-view on CRISPR-Cas system in agriculture — A critical component in accepting, adopting, and deploying genome-edited crops is the "public (consumer) perception" of CRISPR-Cas technology. The "consumers" include a broad range of people who can be categorized—(1) people directly involved in developing the technology and its products and (2) people not directly involved in
[162] Public perception of plant gene technologies worldwide in the light of ... — KEYWORDS: Food security, genetic modification, genome editing, plant biotechnology, plant gene technology, public perception The main international and national scientific organizations accept the scientific consensus that food produced from genetically modified (GM) crops is safe.9,10 Nevertheless, polarized debates about the use of biotechnology in agriculture, in particular GM food, continue to take place.11 GM food is an even more contested topic than evolution,12 vaccination or climate change in several parts of the world.13,14 Worldwide, consumers are showing limited understanding, misconceptions, and even unfamiliarity with plant gene technologies in agriculture,15 including GMO, new breeding techniques (NBTs) and GE.
[163] Regulatory framework of CRISPR-edited crops in the United States — It implemented a regulatory framework for regulating products of agricultural biotechnology, known as the Coordinate Framework, which has been adopted since 1986 for the development of new biotechnologies. However, the CRISPR/Cas9 technology has challenged classifications of genetically modified organisms (GMOs) and current regulations worldwide.
[164] A technological and regulatory outlook on CRISPR crop editing — Regulatory approvals of CRISPR-engineered GMOs. ... Indeed, in 2016, the United Stated Department of Agriculture ... The US regulatory framework also includes the Food and Drug Administration (FDA) and the Environmental Protection Agency (EPA). Depending on the GMO in question, approval of one to three agencies may be required.
[165] Plant Extracts as Biostimulant Agents: A Promising Strategy for ... — Plant Extracts as Biostimulant Agents: A Promising Strategy for Managing Environmental Stress in Sustainable Agriculture - ScienceDirect Phyton-International Journal of Experimental Botany Plant Extracts as Biostimulant Agents: A Promising Strategy for Managing Environmental Stress in Sustainable Agriculture Open access Plant extracts are rich in bioactive phytocompounds, which can enhance plant resistance to disease, pest, and abiotic stresses (e.g., drought, salinity, and extreme temperature), and promote plant growth and productivity. Given all this knowledge, exploring the growth and functional effects induced by plant extracts, as well as understanding their interactions and mechanisms in plants, is crucial for developing advantageous approaches with potential value in integrated crop management systems, ultimately contributing to sustainable production. No articles found. For all open access content, the relevant licensing terms apply.
[167] Plant Biochemistry in the Era of Omics ... - Wiley Online Library — Recent advances in omics-based approaches, including genomics, transcriptomics, proteomics and metabolomics, allow for a comprehensive understanding of plant stress responses, enabling targeted crop improvement strategies.
[188] Applied Botany: Scope and Importance - The Fact Factor — In conclusion, the study of applied botany offers a diverse scope and holds paramount importance in addressing contemporary challenges while harnessing the potential of plants to benefit society and the environment. Applied botany contributes to enhancing agricultural productivity, improving crop resilience, and promoting sustainable farming practices. By developing drought-tolerant crops
[190] Botany | Definition, History, Branches, & Facts | Britannica — Botany, branch of biology that deals with the study of plants, including their structure, properties, and biochemical processes. The principles and findings of botany have provided the base for such applied sciences as agriculture, horticulture, and forestry.
[192] 21 Plants That Naturally Improve Your Soil Without Fertilizer — Healthy soil is the foundation of a thriving garden, and the right plants can help improve it naturally—without the need for chemical fertilizers. Some plants fix nitrogen, others break up compacted soil, and many add valuable organic matter as they grow and decompose. By incorporating these beneficial species into your garden, you can enrich your soil while supporting a more sustainable and
[193] The Connection Between California Native Plants and Soil Health — How Native Plants Contribute to Soil Health 1. Enhancing Soil Structure. California native plants have extensive root systems that contribute significantly to soil structure. Deep-rooted species like the California buckeye (Aesculus californica) can penetrate compacted soils, creating channels that facilitate water infiltration and aeration.
[195] The Role of Botany in Sustainable Agriculture | Live to Plant — The Role of Botany in Sustainable Agriculture | Live to Plant Sustainable agriculture is an integrated system of plant and animal production practices that enhances the quality of life for farmers and society as a whole while maintaining the environmental health of the planet. Botany contributes to soil health management by identifying plant species that improve soil structure and fertility. Botany helps promote biodiversity by understanding relationships among plant species within ecosystems and their respective roles in sustaining agriculture. As climate change poses unprecedented challenges for agriculture globally, botany provides insights into plant responses to shifting climatic conditions. From improving crop resilience through advanced breeding techniques to promoting biodiversity via polyculture farming practices, botany offers invaluable insights into creating a more sustainable agricultural landscape.
[198] Botanical Approaches to Sustainable Pest Management in Agriculture — This paper explores the potential of botanical pesticides in sustainable agriculture, emphasizing their ecological benefits, such as biodegradability, reduced persistence in the environment, and minimal nontarget effects on beneficial organisms.The review highlights significant advances in the field, showcasing how botanical pesticides have
[206] Microbial Diversity's Impact on Soil Health and Plant Growth — Microbial Diversity’s Impact on Soil Health and Plant Growth - BiologyInsights Microbial Diversity’s Impact on Soil Health and Plant Growth Explore how microbial diversity enhances soil health, supports nutrient cycling, and promotes robust plant growth through complex interactions. Microbial diversity in soil is a key factor influencing soil health and plant growth. Microorganisms are essential to nutrient cycling within soil ecosystems, transforming organic and inorganic materials into forms that plants can absorb. Microbial diversity significantly influences plant growth, affecting nutrient availability and overall plant health. Microbial diversity impacts soil structure, shaping the physical environment in which plants grow and soil fauna thrive. The diverse microbial interactions within the soil matrix create a dynamic environment that supports robust plant growth and a resilient ecosystem.
[207] The influence of biotic interactions on soil biodiversity — For plant diversity to influence soil diversity, the most likely mechanism would involve: (i) a more diverse plant community returning a more heterogeneous mixture of resources to the soil; and (ii) this more diverse resource mixture in turn influencing soil biodiversity, e.g. through promoting greater resource partitioning among the component
[208] Linking biodiversity and biotic interactions to ecosystem functioning ... — Similarly, higher soil biodiversity is linked to increased agricultural productivity because higher soil biodiversity plays a crucial role by contributing to key soil functions such as nutrient cycling and carbon storage, which can promote increased nutrient availability for crops and foster protection against crop diseases (Bach et al., 2020
[216] Discover the Vital Role of Native Plants in Local Ecosystems — Ecological Importance of Native Plants in Local Ecosystems. Native plants maintain the balance of local ecosystems by providing food, shelter, and nesting sites for a diverse range of wildlife, contributing to the overall health and stability of the ecosystem. Support Provided by Native Plants to Local Wildlife and Biodiversity
[218] Wildlife & Biodiversity | NWF Native Plant Habitats — To have a larger impact, plant keystone plant species and aim for your garden to be a minimum of 70% native species. When you create gardens using native plants, the impact on local wildlife is immediate. Small-scale native plant gardens that incorporate blooming plants in all seasons are proven to increase pollinator abundance and diversity.
[219] Restoring Balance: The Ecological and Practical Benefits of Planting ... — Without an abundant insect population, many bird species would struggle to survive. Native plants, unlike most non-native species, have co-evolved with local insects, providing the specific food sources and habitat they need. This mutualistic relationship is what makes native plants so crucial to the success of local wildlife (Tallamy, 2020).
[220] Designing a Sustainable Native Plant ... - AIGardenPlanner — Remember, the layout native plant garden design should be a reflection of your local environment to thrive in the long run. When it comes to designing the layout of a native plant garden, several key factors should be taken into consideration to ensure a successful and sustainable design that promotes biodiversity and ecological health. Here
[221] The Impact of a Native Garden: Transforming Lawns One Home Park at a ... — Key Considerations for Designing a Native Garden Choose Hardy Plants: Opt for drought-tolerant native species that thrive in your local climate while attracting pollinators and birds. Diversify Your Garden: Incorporate a variety of flowering plants that bloom across different seasons to provide continuous nectar sources.
[234] The Future of Botany: Emerging Fields and Innovations — Collaborative efforts can lead to breakthroughs in plant research and applications, paving the way for sustainable practices in agriculture. These fields hold promise for advancing plant research, improving agriculture, and enhancing conservation efforts. By fostering innovation and collaboration, we can unlock the full potential of botany, ensuring a sustainable future for our planet and its plant life. As these technologies advance, they will continue to shape the future of plant research and monitoring, unlocking new potential in the field. Botanists can look forward to a future where technology amplifies their efforts to understand and conserve plant life. Their research focuses on understanding how climate change impacts plant health, biodiversity, and ecosystem functioning. By understanding these genetic traits, researchers can develop climate-resilient plant varieties.
[235] The Future of Botany: Trends and Innovations in Plant Science — The Future of Botany: Trends and Innovations in Plant Science | Live to Plant Botany, the scientific study of plants, has long been a crucial field of research with implications that stretch far beyond the confines of academia. Phytoremediation is an exciting area of botany focused on using plants to mitigate environmental contamination. The intersection of botany with technology is revolutionizing plant science research. The future of botany also hinges on education and public engagement efforts aimed at fostering appreciation for plant science among broader audiences. As researchers push boundaries with genetic engineering technologies while embracing ecological principles—alongside integrating AI tools—the possibilities within plant science appear limitless. How to Research Historical Uses of Plants in Botany
[244] The Future of Flora: Innovations in Plant DNA Extraction Technologies — Seed banks play an important role in plant conservation. With improved DNA extraction technologies, it is possible to better assess the genetic quality of seeds stored in seed banks. ... outside their natural habitats, such as in botanical gardens or seed banks) conservation efforts can benefit from advanced DNA extraction techniques. For in
[245] Future-Proofing DNA Extraction: Innovations in Plant DNA Buffer Technology — As plant research continues to expand in diverse fields such as genetic engineering, conservation biology, and plant breeding, there is a growing need for more advanced DNA extraction techniques. This is where the innovations in plant DNA buffer technology come into play. 2. The Need for Innovation in Plant DNA Buffer Technology 2.1 Reliability
[246] Exploring Plant DNA Analysis and Its Impact - biolecta.com — The importance of biodiversity cannot be overstated in our fast-changing world. Plant DNA analysis plays a pivotal role in conservation biology, helping identify and conserve endangered plant species. By assessing genetic diversity within populations, scientists can better understand the adaptive potential of species to environmental stresses.
[247] The impact of ex situ cultivation on the genetic variation of ... — Conservation activities of botanic gardens include the establishment of seed banks, the micropropagation of species via plant tissues and the ex situ cultivation of endangered plant species (Oseni et al., 2018), which can then be used for population enhancement and reintroductions in restoration programs (Groome and Shaw, 2015).Previous studies already pointed out that several aspects have to
[254] CRISPR-Cas9 genome editing in crop breeding for climate change ... — CRISPR-Cas9 genome editing in crop breeding for climate change resilience: Implications for smallholder farmers in Africa - ScienceDirect CRISPR-Cas9 genome editing in crop breeding for climate change resilience: Implications for smallholder farmers in Africa The aim of this review is to explore the use of CRISPR-Cas9 technology in developing climate resilient crops for mitigation of food insecurity and hunger and the attendant implications for small holder farmers in Africa. The adoption of CRISPR-assisted crop improvement in breeding strategies can help smallholder farmers in low-middle income countries of Africa to adapt to climate change without productivity loss.
[255] Engineering crops of the future: CRISPR approaches to develop climate ... — Plant diseases threaten food security and are expected to increase because of climate change. CRISPR genome-editing technology opens new opportunities to engineer disease resistance traits. With precise genome engineering and transgene-free applications, CRISPR is expected to resolve the major challenges to crop improvement.
[256] CRISPR Variants for Gene Editing in Plants: Biosafety Risks and Future ... — CRISPR Variants for Gene Editing in Plants: Biosafety Risks and Future Directions - PMC This review shows the latest developments in CRISPR/Cas9 genome editing system variants, discussing their benefits and limitations for plant improvement. Keywords: CRISPR variants, gene editing, plant genetic improvement, biosafety, off-target effects The potential of CRISPR-based genome editing technology in plant genetic improvement extends beyond crop traits. Addressing the challenges and biosafety concerns associated with CRISPR-based total gene enhancement is critical for ensuring the safety of genetically modified plant life for human consumption and the environment. Gene editing techniques such as CRISPR/Cas9 provide potent tools for modifying the genetic editing of plants. Efficient genome editing in plants using a CRISPR/Cas system. Principles, Applications, and Biosafety of Plant Genome Editing Using CRISPR-Cas9.
[258] High throughput sequencing unravels tomato-pathogen interactions ... — High throughput sequencing unravels tomato-pathogen interactions towards a sustainable plant breeding ... In this review, we summarize important research that used high-throughput RNA-seq technology to obtain transcriptome changes in tomato plants in response to a wide range of pathogens such as viruses, fungi, bacteria, oomycetes, and
[260] CRISPR/Cas genome editing in plants: mechanisms, applications, and ... — The CRISPR/Cas systems have emerged as transformative tools for precisely manipulating plant genomes and enhancement. It has provided unparalleled applications from modifying the plant genomes to resistant enhancement. This review manuscript summarises the mechanism, application, and current challenges in the CRISPR/Cas genome editing technology. It addresses the molecular mechanisms of
[264] Interdisciplinary Research: Botany and Other Sciences — Interdisciplinary research holds immense significance in advancing our understanding of botany and related fields. By integrating knowledge from various disciplines, researchers can tackle complex biological challenges. This collaborative approach leads to innovative solutions for issues like climate change and food security.
[265] Research collaboration puts climate-resilient crops in sight — Climate scientists and food systems researchers worry about the stress climate change may put on crops, and on global food security. In an ambitious interdisciplinary project funded by the Abdul Latif Jameel Water and Food Systems Lab (J-WAFS), David Des Marais, the Gale Assistant Professor in the Department of Civil and Environmental
[266] Broadening the impact of plant science through innovative, integrative ... — Population growth and climate change will impact food security and potentially exacerbate the environmental toll that agriculture has taken on our planet. These existential concerns demand that a passionate, interdisciplinary, and diverse community of plant science professionals is trained during the 21st century.
[267] Inclusive collaboration across plant physiology and genomics: Now is ... — The objectives of the workshops were to (1) identify successful strategies that use physiology, genetics, and genomics to understand how plants respond to the environment; (2) identify scientific and technological gaps that could be bridged by interdisciplinary approaches; (3) identify communication and collaboration challenges to overcome; and (4) propose solutions and directions to advance the interdisciplinary plant sciences field. The report outlines how university resources and structures can be aligned for interdisciplinary approaches through the hiring of experts in team science and collaboration to work with research groups (e.g., as members of the institutional office of research), with some focus on how to create and maintain collaborations, how to keep teams motivated and working well together, and how to nurture relationships as shared projects advance and mature.
[268] Interdisciplinary Research: Botany and Other Sciences — Specific Examples of Botany Integrated with Other Scientific Fields Interdisciplinary research fosters innovation by merging knowledge from different scientific fields. Botany, the study of plants, offers numerous examples of successful collaborations. One notable project involved botanists and chemists working together to develop new
[270] Inclusive collaboration across plant physiology and genomics: Now is ... — The objectives of the workshops were to (1) identify successful strategies that use physiology, genetics, and genomics to understand how plants respond to the environment; (2) identify scientific and technological gaps that could be bridged by interdisciplinary approaches; (3) identify communication and collaboration challenges to overcome; and (4) propose solutions and directions to advance the interdisciplinary plant sciences field. The report outlines how university resources and structures can be aligned for interdisciplinary approaches through the hiring of experts in team science and collaboration to work with research groups (e.g., as members of the institutional office of research), with some focus on how to create and maintain collaborations, how to keep teams motivated and working well together, and how to nurture relationships as shared projects advance and mature.