#micropropagation

[shivchhaya]

Revolutionizing Agriculture with Our Tissue Culture Lab!

At Shivchhaya Bio-Tech, we specialize in plant tissue culture to create high-quality, disease-free, and genetically uniform plants. Our cutting-edge lab provides sustainable solutions for plant propagation, genetic research, and conservation.

Why Choose Us?

🌿 High-Quality Plants: Disease-free and genetically consistent. 🌍 Sustainable Practices: Eco-friendly and efficient plant production. 🔬 Innovative Research: Advancing plant biotechnology and genetic improvement. 💡 Custom Solutions: Tailored for nurseries, researchers, and businesses.

Transform your agricultural practices with the future of biotechnology. Contact us today to learn more!

For more information visit: https://shivchhayabiotech.com/ Contact us on: +91 77790 21916

[shastramnursery]

Tissue Culture Plants

Tissue culture is a method of growing plants from small tissue samples in a sterile environment. It produces identical, disease-free plants quickly, ensuring uniformity and fast growth, making it ideal for commercial production.

Visit: https://bit.ly/3VGGBYi For inquiries, call: +91 97730 17705

[irawhiti]

well i started looking into the best way to set up my wasabi and propagate it. found out it's incredibly difficult to bring it to seed, more so than i already thought, and most plants are propagated commercially via tissue growth culture. so i started genuinely looking into tissue culture to see if it'd be possible for me to diy some plant tissue cultures and how that'd go. you know, the sterilisation methods needed, which type of culture would be best to go with, the chemicals needed to grow the plant, that sort of thing.

anyway i got knee deep in micropropagation and biology before realising that i'm probably choosing to do something a lot more mechanically difficult than just putting in the effort to actually create a good enough environment to bring it to seed. Still Looking Into It Though because if i can figure this out i can do some really fun shit and it's always good to have backups smile

[darkprincecait]

they're micropropagating plants in here... cool shit tbh

[moleculardepot]

Agar, Micropropagation Grade

Agar, Micropropagation Grade Catalog number: B2022857 Lot number: Batch Dependent Expiration Date: Batch dependent Amount: 9 g Molecular Weight or Concentration: N/A Supplied as: Powder Applications: a molecular tool for various biochemical applications Storage: RT Keywords: Agarose, Gelatinous medium, Plant tissue culture agar, Agar medium, Micropropagation agar, Plant growth medium, Agar gel,…

[best-testing-lab-uae]

The Impact of Agricultural Laboratories on Enhancing Date Palm Cultivation in Abu Dhabi | +971 554747210

Date palm cultivation is deeply rooted in the cultural and economic landscape of Abu Dhabi and the UAE. As one of the country’s most valuable crops, date palms contribute significantly to food security, agricultural sustainability, and export revenues. However, challenges such as soil salinity, water scarcity, pests, and diseases threaten their productivity.

To tackle these challenges, agricultural laboratory in Abu Dhabi play a crucial role in advancing research, improving cultivation techniques, and ensuring the health of date palm trees. Through soil testing, pest management, irrigation optimization, and genetic improvements, these labs enhance date palm farming, ensuring higher yields and superior fruit quality.

The Importance of Date Palm Cultivation in Abu Dhabi

1. Economic Contribution

Date palm farming contributes to agricultural GDP and supports thousands of farmers, businesses, and exporters in the UAE. Abu Dhabi’s government actively promotes date farming through subsidies, research initiatives, and international trade partnerships.

2. Cultural and Historical Significance

The date palm has been a symbol of sustenance in the Arabian Peninsula for centuries. It plays a key role in Emirati traditions, festivals, and daily cuisine.

3. Environmental Benefits

Date palms help combat desertification, provide shade and habitat for various species, and support sustainable agriculture in arid regions.

Given these benefits, agricultural laboratories work to optimize farming practices and ensure sustainable date production in Abu Dhabi.

How Agricultural Laboratories Enhance Date Palm Cultivation

1. Soil Testing and Nutrient Management

Healthy soil is essential for date palm growth. Agricultural laboratories conduct detailed soil analysis to assess:

Nutrient levels (Nitrogen, Phosphorus, Potassium)

Soil pH and salinity

Organic matter content

Presence of heavy metals and contaminants

Based on test results, laboratories recommend customized fertilization plans, ensuring that date palms receive optimal nutrients for growth and fruit production.

2. Water Quality and Irrigation Optimization

Water scarcity is a major concern in Abu Dhabi’s agriculture. Agricultural laboratories monitor irrigation water quality by testing for:

Salinity levels (EC - Electrical Conductivity)

pH balance

Microbial contamination

Heavy metals and chemical residues

To improve irrigation efficiency, labs recommend techniques such as:

Drip irrigation systems to minimize water wastage

Use of treated wastewater for sustainable farming

Leaching strategies to prevent salt buildup in the soil

These measures ensure that date palms receive sufficient, high-quality water, leading to better yields and healthier trees.

3. Pest and Disease Management

One of the biggest threats to date palm cultivation is the Red Palm Weevil (Rhynchophorus ferrugineus), a destructive pest that can kill trees if left untreated. Agricultural laboratories conduct:

Early pest detection through pheromone traps and genetic screening

Biological control methods using natural predators

Eco-friendly pesticide recommendations

Regular tree health assessments

In addition to pests, fungal diseases like Fusarium wilt and Bayoud disease can devastate date plantations. Labs test soil and plant tissue samples to detect pathogens early and suggest preventive treatments.

4. Genetic Improvement and Tissue Culture

Agricultural laboratories develop superior date palm varieties through tissue culture and genetic research. This technique involves:

Micropropagation to produce disease-free, high-yielding clones

Enhancing drought and salt tolerance for better adaptability

Preserving indigenous date varieties with unique flavors and nutritional benefits

By adopting genetically enhanced date palms, farmers can achieve higher productivity and improved fruit quality.

5. Enhancing Fruit Quality and Post-Harvest Processing

To maintain Abu Dhabi’s export standards, agricultural laboratories test and improve date fruit quality by analyzing:

Sugar content (Brix level) and moisture balance

Pesticide residue levels

Microbial contamination

Storage and packaging methods

These efforts help extend shelf life, improve market appeal, and ensure compliance with international food safety standards.

6. Sustainable Farming Practices and Climate Resilience

Abu Dhabi’s climate presents challenges such as high temperatures, sandstorms, and water scarcity. Agricultural laboratories work with farmers to develop climate-resilient farming techniques, including:

Mulching to reduce soil evaporation

Intercropping to optimize land use

Organic farming practices to reduce chemical dependence

By implementing sustainable farming solutions, date palm cultivation in Abu Dhabi remains viable and profitable despite harsh environmental conditions.

Government Initiatives Supporting Date Palm Research

The Abu Dhabi government actively supports agricultural research and innovation through organizations such as:

Khalifa International Award for Date Palm and Agricultural Innovation

International Center for Biosaline Agriculture (ICBA)

UAE University’s Date Palm Research Program

Abu Dhabi Agriculture and Food Safety Authority (ADAFSA)

These institutions collaborate with agricultural laboratories to improve date palm farming through scientific advancements and sustainable policies.

The Future of Date Palm Cultivation in Abu Dhabi

1. Precision Agriculture and Smart Farming

Use of IoT-based sensors for real-time monitoring of soil moisture and salinity

AI-driven analytics to predict disease outbreaks and optimize fertilization

Drone technology for large-scale farm management

2. Expanding Organic Date Farming

Increased organic certification programs to promote pesticide-free cultivation

Research on biofertilizers and natural pest control

3. Strengthening Global Export Potential

Developing premium Emirati date brands for international markets

Ensuring compliance with global food safety and trade regulations

With ongoing research, innovation, and laboratory support, Abu Dhabi’s date palm industry is set to flourish in both local and global markets.

Conclusion

Agricultural laboratories in Abu Dhabi play a vital role in enhancing date palm cultivation by ensuring soil health, water quality, pest control, genetic improvements, and sustainable farming practices. Through continuous research and technological advancements, these labs help farmers overcome environmental challenges and increase productivity.

[santhionlineplants1]

Tissue Culture Teak Plants: A Game-Changer in Sustainable Forestry

Teak (Tectona grandis) is one of the most sought-after hardwoods in the world due to its exceptional durability, water resistance, and aesthetic appeal. However, conventional teak cultivation requires long maturity periods and is prone to diseases and inconsistent quality. Tissue culture teak plants offer a groundbreaking solution, providing faster-growing, genetically superior, and disease-resistant trees that revolutionize the timber industry.

What Are Tissue Culture Teak Plants?

Tissue culture teak plants are propagated through micropropagation, a biotechnology technique that involves growing plants from a small tissue sample in a sterile, controlled environment. This ensures that all saplings are genetically identical, robust, and free from diseases, making them a more reliable option than seed-grown teak.

Key Benefits of Tissue Culture Teak Plants

1. Accelerated Growth and Early Harvesting

Traditional teak trees take 20-25 years to mature, whereas tissue culture teak plants can be harvested in just 12-15 years, significantly reducing the waiting period and increasing timber production.

2. Uniform and Superior Timber Quality

Since these plants are cloned from elite parent trees, they exhibit consistent characteristics such as straight grain, high oil content, and dense wood—making them ideal for furniture, shipbuilding, and construction.

3. Disease-Resistant and Pest-Free

The sterile lab environment eliminates exposure to pests and pathogens, resulting in plants that are inherently resistant to common teak diseases like wilt and root rot.

4. Sustainable and Eco-Friendly Farming

By increasing efficiency and reducing the need for deforestation, tissue culture teak plantations contribute to sustainable forestry practices, helping to preserve natural ecosystems.

5. Higher Profits for Farmers and Investors

With quicker growth cycles and premium wood quality, tissue culture teak farming offers a high return on investment (ROI), making it an attractive option for commercial growers.

Cultivation Guide: How to Grow Tissue Culture Teak Plants

1. Land Selection and Soil Preparation

Choose well-drained, sandy-loam soil with a pH between 6.5 and 7.5.

Clear the land of weeds and enrich it with organic matter for optimal growth.

2. Planting and Spacing

Maintain a spacing of 10x10 feet between plants to promote healthy development.

Ensure adequate irrigation, especially during the sapling stage.

3. Fertilization and Maintenance

Apply NPK (10:10:10) or organic fertilizers to enhance growth.

Conduct regular soil testing to maintain nutrient balance.

4. Pest and Disease Control

Although tissue culture teak plants are naturally resistant to diseases, regular monitoring is essential.

Use organic pesticides if needed to deter termites and leaf-feeding insects.

5. Pruning and Tree Management

Trim lower branches to encourage a tall, straight trunk.

Remove dead or diseased branches to prevent infection spread.

FAQs

1. How do tissue culture teak plants differ from traditional teak trees?

Tissue culture teak grows faster, stronger, and more uniformly, while traditional teak trees show variation in size, quality, and resistance to diseases.

2. What is the ideal climate for growing tissue culture teak?

These plants thrive in tropical and subtropical regions with temperatures between 25°C and 38°C and annual rainfall of 1000-2500 mm.

3. How soon can I expect a return on investment?

With a maturity period of 12-15 years, tissue culture teak provides earlier and higher returns compared to traditional teak farming.

4. Can I grow tissue culture teak on any type of soil?

Teak grows best in well-drained, fertile soil. Avoid heavy clay or waterlogged areas to prevent root damage.

5. Is tissue culture teak farming profitable?

Yes, thanks to its fast growth, superior wood quality, and reduced maintenance costs, it offers high profitability for both small-scale and commercial growers.

Testimonial

"Investing in tissue culture teak has been the best decision for my farm. The trees are uniform, disease-resistant, and growing much faster than my previous teak plantations. I highly recommend it to anyone looking for a profitable and sustainable agroforestry business." – Vikram Patel, Commercial Teak Grower.

Conclusion

Tissue culture teak plants represent the future of sustainable timber farming. With their rapid growth, disease resistance, premium quality, and high profitability, they are a game-changer for farmers, investors, and environmentalists alike. By adopting tissue culture teak, growers can ensure a steady, eco-friendly supply of high-grade timber while maximizing their financial returns. If you're considering teak farming, now is the time to invest in tissue culture teak plants!

[darkmaga-returns]

Diabetes mellitus affects over 382 million adults worldwide, with rising treatment costs and healthcare burdens driving interest in traditional plant-based remedies as sustainable alternatives to modern therapies.

Dr. Appian Subramoniam's book explores the scientific basis of antidiabetic plants, examining their active principles, mechanisms of action and potential for safer, more sustainable diabetes treatments.

The book highlights the efficacy of polyherbal formulations (combinations of multiple plants) but emphasizes the need for rigorous scientific validation. It also identifies critical gaps, such as unidentified active molecules in over 30 plants and poorly understood mechanisms in more than 50 others.

Dr. Subramoniam advocates for sustainable practices like standardized cultivation, micropropagation intercropping and utilizing unproductive lands to ensure the consistent quality and scalability of antidiabetic plants.

The book urges researchers, policymakers and healthcare providers to invest in plant-based therapies, combining traditional wisdom with modern science to address the global diabetes epidemic sustainably.

[alexanderkylesworld]

Understanding the Process Behind Young Plants’ Tissue Culture Philodendrons

tissue culture philodendron culture is a modern method of plant propagation that allows for the growth of new plants from a small p of tissue taken from a parent plant. This technique is particularly beneficial for philodendrons, a popular houseplant known for its attractive foliage and ease of care. In this article, we will explore the process of tissue culture in philodendrons, its advantages, and the steps involved in creating new plants.

What is Tissue Culture?

Tissue culture, also known as micropropagation, involves growing plant cells, tissues, or organs in a controlled environment on a nutrient medium. This method allows for the rapid multiplication of plants and can produce large numbers of genetically identical individuals. Tissue culture is widely used in horticulture and agriculture to propagate various plant species, including philodendrons.

Benefits of Tissue Culture for Philodendrons

One of the main advantages of tissue culture is the ability to produce disease-free plants. Since the process starts with a small piece of tissue, it minimizes the risk of transmitting pests and diseases. Additionally, tissue culture allows for the production of uniform plants, ensuring that all new philodendrons have similar characteristics. This consistency is essential for commercial growers and hobbyists alike.

The Process of Tissue Culture

The tissue culture process involves several key steps, each crucial for the successful propagation of philodendrons. The first step is the selection of a healthy parent plant. The chosen plant should be free from diseases and pests to ensure that the new plants will be healthy.

Initiation Stage

The initiation stage begins with the extraction of tissue from the parent plant. This tissue is typically taken from the shoot tip or nodal segments. The selected tissue is then sterilized to eliminate any contaminants. This is often done using a bleach solution or alcohol. After sterilization, the tissue is placed on a nutrient medium that provides the necessary hormones and nutrients for growth.

Multiplication Stage

Once the tissue is placed in the nutrient medium, it begins to grow and multiply. This stage is known as the multiplication stage. The plant tissue develops into small shoots, which can be further divided and transferred to new culture vessels. The multiplication stage can produce a large number of shoots in a relatively short period, making it an efficient method of propagation.

Rooting Stage

After sufficient shoot development, the next step is the rooting stage. In this phase, the shoots are transferred to a different medium that encourages root formation. This medium typically contains rooting hormones and nutrients to support root growth. The shoots are monitored closely during this stage to ensure they develop healthy roots.

Acclimatization Stage

Once the new plants have developed a robust root system, they must undergo acclimatization. This stage involves gradually introducing the young plants to the external environment. Initially, the plants are kept in a controlled environment with high humidity. Over time, the humidity is reduced, and the plants are exposed to more light and air. This gradual transition helps the plants adapt to their new surroundings and reduces the shock of moving from a sterile environment to the outside world.

Challenges in Tissue Culture

While tissue culture offers many benefits, it is not without its challenges. One common issue is contamination, which can occur during any stage of the process. Even with sterilization, unwanted microorganisms can sometimes find their way into the culture vessels. This can lead to the failure of the tissue culture and the loss of the plants.

Conclusion

In conclusion, tissue culture is a valuable technique for propagating philodendrons and other plant species. It allows for the production of healthy, disease-free plants in a controlled environment. By understanding the steps involved in tissue culture, growers can successfully propagate philodendrons and enjoy the beauty of these popular houseplants. As the demand for philodendrons continues to grow, tissue culture will play an essential role in meeting this demand while ensuring the quality and health of the plants produced

[credenceresearchdotblog]

Plant Tissue Culture Market is valued at approximately USD 864.256 million and is projected to grow at a compound annual growth rate (CAGR) of 8.35% over the forecast period, reaching around USD 1,501 million by 2032. The plant tissue culture market is experiencing significant growth globally, driven by the rising demand for food security, the increasing application of tissue culture in plant breeding, and the production of high-quality crops. Tissue culture is a vital tool in modern biotechnology, enabling the production of disease-free, genetically stable, and superior-quality plantlets. This process involves the cultivation of plant cells, tissues, or organs under sterile conditions in a controlled environment, facilitating the production of large quantities of plants in a relatively short period.

Browse the full report https://www.credenceresearch.com/report/plant-tissue-culture-market

Market Overview

The global plant tissue culture market is projected to grow at a compound annual growth rate (CAGR) of 8%–12% over the next five to seven years, depending on the region and specific market trends. The market's expansion is supported by a confluence of factors, including the increasing adoption of tissue culture techniques in horticulture, floriculture, forestry, and agriculture. The rising demand for bio-based products and sustainable agricultural practices is further propelling market growth.

Applications of Plant Tissue Culture

1. Micropropagation: One of the most prominent applications of plant tissue culture is micropropagation, a technique used to multiply plants by culturing plant tissues. It enables the mass production of disease-free, genetically uniform plants, a process highly beneficial for large-scale agriculture, horticulture, and the forestry industries. Micropropagation is particularly useful for producing ornamental plants, medicinal plants, and high-value crops such as fruits and vegetables.

2. Genetic Engineering and Crop Improvement: Plant tissue culture also plays a crucial role in genetic engineering and the development of transgenic plants. Tissue culture techniques allow for the precise introduction of desirable traits, such as pest resistance, drought tolerance, and improved nutritional content, into plants. The market for genetically engineered crops is expanding, particularly in regions like North America, where biotechnology is widely embraced.

3. Germplasm Conservation: Another vital application of tissue culture is the conservation of plant genetic resources or germplasm. Tissue culture techniques provide a way to preserve endangered plant species, as well as rare and economically important plants. This method is especially significant for plants that are difficult to conserve through conventional means, such as seeds.

4. Secondary Metabolite Production: The ability to produce valuable secondary metabolites, such as alkaloids, flavonoids, and terpenoids, through plant tissue culture has opened new avenues for the pharmaceutical and cosmetic industries. These metabolites, often extracted from medicinal plants, have applications in the development of drugs, fragrances, and skincare products. Plant tissue culture offers a sustainable and scalable way to produce these bioactive compounds.

Market Challenges

Despite its many benefits, the plant tissue culture market faces several challenges. One of the primary barriers is the high initial cost of setting up tissue culture labs and maintaining sterile conditions, which can be a significant financial burden for small-scale farmers and startups. Additionally, the need for specialized skills and knowledge to manage tissue culture processes presents a challenge, particularly in developing regions where training opportunities are limited.

Moreover, concerns related to the genetic stability of tissue-cultured plants and the risk of somaclonal variation (genetic mutations that occur during the tissue culture process) can hinder market growth. Continuous R&D efforts are essential to overcome these challenges and improve the overall reliability of tissue culture techniques.

Future Outlook

The future of the plant tissue culture market looks promising, with increasing investment in biotechnology and sustainable agriculture practices. The growing emphasis on food security, coupled with advancements in tissue culture technologies, is expected to drive market growth in the coming years. Additionally, the rise of vertical farming and the use of plant tissue culture in space research are emerging trends that could reshape the industry.

Key Player Analysis:

Thermo Fisher Scientific Inc.

Merck KGaA

Agilent Technologies, Inc.

Caisson Laboratories, Inc.

Corning Incorporated

HiMedia Laboratories

Phyto Technology Laboratories

Plant Cell Technology

Sigma-Aldrich Co. LLC

DuPont

Invitrotech

Twist Bioscience

Mirus Bio LLC

Clontech Laboratories, Inc.

Biosynth Carbosynth

General Hydroponics, Inc.

Segmentation:

Based on Product Type:

Micropropagation

Somatic Embryogenesis

Organogenesis

Others

Based on Technology:

Manual Methods

Automated Systems

Bioreactor Technologies

Based on End User:

Agriculture

Horticulture

Forestry

Research Institutions

Based on Region:

North America (e.g., United States, Canada)

Europe (e.g., Germany, France, United Kingdom)

Asia-Pacific (e.g., China, India, Japan)

Latin America (e.g., Brazil, Mexico)

Middle East and Africa (e.g., South Africa, UAE)

Browse the full report https://www.credenceresearch.com/report/plant-tissue-culture-market

Contact:

Credence Research

Please contact us at +91 6232 49 3207

Email: sales@credenceresearch.com

Website: www.credenceresearch.com

[healthcare-skyquest]

Agricultural Biotechnology Market: Revolutionizing Crop Production and Sustainability

The Agricultural Biotechnology market is at the forefront of transforming global agriculture by enhancing crop yields, improving resistance to pests and diseases, and promoting sustainability. As the demand for food security and sustainable farming practices increases, the agricultural biotechnology market is experiencing significant growth. This article delves into the latest trends, market segmentation, key growth drivers, and leading companies in the agricultural biotechnology industry, offering essential insights for decision-makers.

Market Overview

According to SkyQuest’s Agricultural Biotechnology Market report, the market is currently valued at USD XX, with a projected CAGR of XX%. The growth of this market is driven by advancements in genetic engineering, increasing adoption of biotech crops, and the need for sustainable agricultural practices.

Request Your Free Sample: - https://www.skyquestt.com/sample-request/agricultural-biotechnology-market

Market Segmentation

By Product Type:

Transgenic Seeds: Includes genetically modified seeds for crops like corn, soybeans, cotton, and others, designed for higher yields and resistance to pests.

Biopesticides: Natural or genetically engineered pesticides offering an eco-friendly alternative to chemical pesticides.

Biofertilizers: Microbial inoculants that promote plant growth and improve soil fertility.

Other Biotechnological Tools: Includes molecular markers, tissue culture, and micropropagation techniques used in crop improvement.

By Application:

Crop Protection: Utilizes biotechnology for developing pest-resistant and herbicide-tolerant crops, reducing the need for chemical inputs.

Animal Biotechnology: Focuses on improving livestock breeds, enhancing resistance to diseases, and increasing productivity.

Environmental Biotechnology: Involves bioremediation techniques to clean up contaminated soils and promote sustainable land use.

Genetically Modified Organisms (GMOs): The development of GMOs for improved crop characteristics, such as drought tolerance and enhanced nutritional content.

By End-User:

Farmers: Primary users of biotech crops and products for enhanced agricultural productivity.

Agricultural Companies: Invest in R&D and commercialization of biotech products for global markets.

Research Institutes: Focus on developing innovative biotechnology solutions for agriculture.

Government and Regulatory Bodies: Play a crucial role in the approval and regulation of biotech products.

Want to customize this report? — https://www.skyquestt.com/speak-with-analyst/agricultural-biotechnology-market

Key Growth Drivers

Rising Global Food Demand: Increasing population and food security concerns drive the adoption of biotech crops for higher yields.

Technological Advancements: Innovations in genetic engineering, CRISPR, and other biotechnological tools are propelling market growth.

Sustainable Farming Practices: The shift towards sustainable agriculture, with a focus on reducing chemical inputs, supports the growth of biopesticides and biofertilizers.

Government Support and Regulation: Favorable policies and regulatory frameworks encourage the development and adoption of agricultural biotechnology.

Leading Companies in the Market

SkyQuest’s report highlights several key players in the Agricultural Biotechnology market, including:

KWS SAAT SE & Co. KGaA, ChemChina, Limagrain, Nufarm, Marrone Bio Innovations, Performance Plants Inc., Corteva, ADAMA Ltd, MITSUI & CO. LTD, Evogene Ltd., Valent BioSciences LLC, Bayer AG.

Challenges and Opportunities

The agricultural biotechnology market faces challenges such as public perception and regulatory hurdles concerning GMOs. However, these challenges also present opportunities for innovation in non-GMO biotechnologies and expanding market reach in developing regions.

Take Action Now: Secure Your Report Today - https://www.skyquestt.com/buy-now/agricultural-biotechnology-market

Future Outlook

The Agricultural Biotechnology market is poised for continued growth as advancements in genetic engineering and increasing demand for sustainable farming practices drive market dynamics. Companies that invest in cutting-edge biotechnological tools and address global food security challenges will lead the way in this dynamic market. For comprehensive insights and strategic recommendations, consult SkyQuest’s in-depth Agricultural Biotechnology Market report.

The Agricultural Biotechnology market is revolutionizing the agriculture industry by offering innovative solutions for crop production and sustainability. Decision-makers who invest in biotechnological advancements will be at the forefront of this rapidly evolving sector. For more detailed insights and emerging trends, refer to SkyQuest's Agricultural Biotechnology Market report.

[captaindomy]

Article: Preserving Nature’s Treasure: A Journey into the In Vitro Conservation and Micropropagation of the Endangered Medicinal Marvel—Podophyllum hexandrum Royle

by Zahoor Khan 1,Bushra Khan 1,Syed Tanveer Shah 2,Javaid Iqbal 3,Abdul Basit 4,Muhammad Suleman Khan 5,Waleed Iqbal 6,Mohamed Farouk Elsadek 7,Aftab Jamal 8,*,Mohammad Ajmal Ali 9 and Domenico Prisa 10,* 1Department of Environmental Sciences, University of Peshawar, Peshawar 25120, Pakistan 2Department of Agriculture, Faculty of Biological and Health Sciences, Hazara University, Mansehra…

[ismailfazil1-blog]

Grow What You Love: A Practical Guide to Cloning Plants through Layering & Tissue Culture

This comprehensive guide delves into the fascinating world of plant cloning and discover the secrets behind successful plant propagation at home. Whether you're a beginner eager to explore easy plant cloning methods or an enthusiast looking for advanced techniques, this comprehensive guide covers it all. From understanding the basics of asexual plant reproduction to mastering the intricacies of layering, tissue culture, and micropropagation, you'll learn how to propagate your favorite plants with confidence. Explore the benefits of plant cloning, discover the best plants for cloning, and unravel the techniques for cloning fruit trees, vegetables, and even ornamental roses. With practical tips on troubleshooting common problems, grafting, and cloning houseplants for thoughtful gifts, this book is your key to unlocking the full potential of plant cloning.

[oaresearchpaper]

Rapid In Vitro Clonal Propagation of Hybrid Muskmelon (Cucumis melo L.) from Seedling Explants

Abstract

An investigation was undertaken to develop a reliable strategy for large scale multiplication of a hybrid cultivar of muskmelon through in vitro clonal propagation. Best in vitro seed germination was observed in MS medium containing 0.5 mg/l GA3. Two explants excised from axenic seedlings were tested for shoot proliferation and leaf node showed better shoot proliferation than shoot tip explants. Maximum shoots (8.22±0.23) per culture were produced from leaf node explants cultured on MS medium augmented with 1.0 mg/l BA. Rooting was found best on 0.1 mg/l NAA containing medium. Rooted plantlets were acclimatized gradually and transferred to the field condition and finally, 82 % plantlets were survived well.

Introduction

Muskmelon (Cucumis melo L. cv. reticulata) is a popular fruit plant belonging to the family of Cucurbitaceae. It is native to Persia (Iran), Armenia, and adjacent areas on the west and the east and now widely grown in the tropics, subtropics and the temperate regions of the world (Keng and Hoong, 2005). Due to having high fruit value, muskmelon has recently been introduced in Bangladesh (http://www.sdnbd.org/tomato_harvest.htm). This is an annual plant and each plant can produce an average of 5-7 fruits. The fruits being rich in vitamin B, vitamin C, calcium and β-carotene have both edible and medicinal uses also. Traditionally this plant is cultivated by seeds and the commercial growers face several problems such as high market value (150 BDT/seed) of hybrid seeds, low seed germination rate and disease susceptibility.

In this context, in vitro clonal propagation of hybrid plantlets could be an alternative approach for large scale cultivation of muskmelon. Keng and Hoong, (2005) used field grown nodal explants for in vitro propagation of muskmelon while Tarsem et al., (2005) used in vitro derived plantlets for micropropagation of muskmelon mainly with a view to maintain a male sterile line. But the abovementioned reports are not supported enough for large scale clonal propagation of muskmelon as these do not have a clear concept. Moreover, in Bangladesh no report has been made yet on in vitro clonal propagation of this fruit plant. The present study, therefore, describes the first report on rapid multiplication of homogenous plantlets of a hybrid cultivar of muskmelon via in vitro raised seedling explants.

Source : Rapid in vitro clonal propagation of a hybrid muskmelon (Cucumis melo L.) cultivar from seedling explants