#Artificial Photosynthesis System Market
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aniketshelar-1907 · 2 years ago
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news24-amit · 12 days ago
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Agriculture Lighting Sees Strong Demand as Food Security and Urban Farming Rise
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The global agriculture lighting market is poised for robust expansion, expected to grow from USD 1.3 Bn in 2022 to an estimated USD 5.4 Bn by 2031, registering a compelling CAGR of 16.8% from 2023 to 2031. The market is witnessing accelerated growth driven by rising demand for indoor farming, greenhouse cultivation, and sustainable agricultural practices.
Market Overview: Agriculture lighting, a cornerstone of modern controlled-environment agriculture (CEA), plays a critical role in optimizing plant growth through artificial light. These lighting systems enable precise control over light spectrum, intensity, and duration essential for boosting crop yield and quality in indoor, greenhouse, vertical, and hydroponic farming setups. Key advantages include year-round crop production, photoperiod management, and energy efficiency, making agriculture lighting an indispensable tool for high-tech farming.
Market Drivers & Trends
The growth trajectory of the agriculture lighting market is fueled by several key factors:
Boom in Indoor Farming and Greenhouse Cultivation: Rising demand for locally grown food and declining arable land have increased the adoption of indoor farming methods. Controlled lighting systems allow farmers to regulate plant growth conditions year-round.
Energy Efficiency of LED Lighting: LEDs consume less power and produce less heat compared to traditional sources like HPS and incandescent lamps. They also offer tailored light spectra for various plant stages.
Sustainability Trends: Growing emphasis on sustainable farming practices is leading to the widespread use of smart and eco-friendly lighting solutions.
Poultry Industry Expansion: Advanced lighting helps improve reproductive health and uniformity among poultry flocks, enhancing overall productivity.
Latest Market Trends
Shift Toward Hybrid Lighting Solutions: Companies are merging LED with high-pressure sodium lighting to enhance efficiency in large-scale greenhouse operations.
Smart Controls & Automation: Integration of IoT and AI in lighting systems for real-time monitoring and automated control is gaining traction.
Customized Spectrum Solutions: Manufacturers are developing crop-specific lighting systems that optimize photosynthesis and plant development across growth phases.
Key Players and Industry Leaders
The agriculture lighting market is moderately fragmented, with global and regional players contributing to technological innovation and market penetration. Leading companies include:
AKVA Group
ams OSRAM AG
California LightWorks
CBM Lighting
Current Lighting Solutions, LLC
DeLaval
Gavita International B.V
HATO Agricultural Lighting
Heliospectra AB
Hubbell Incorporated
Lely
Luminus, Inc.
Samsung
Signify Holding
Sunbird
Other Key Players
These companies focus on R&D, mergers & acquisitions, global distribution partnerships, and smart technology integration to stay competitive.
Recent Developments
Signify Acquires Fluence (2022): Signify expanded its footprint by acquiring Fluence from ams OSRAM, adding specialized horticulture lighting to its portfolio.
Purdue University (2023): Researchers unveiled innovative LED strategies aimed at lowering energy usage while boosting yields in vertical farming systems.
AppHarvest Collaboration (2019): Signify's collaboration with AppHarvest implemented hybrid LED lighting in a massive U.S. greenhouse to enhance sustainability and yield.
Market Opportunities
With agriculture lighting's integral role in CEA systems, multiple high-growth opportunities are emerging:
Vertical Farming: Increasing urbanization is fueling vertical farming setups in urban centers, creating demand for compact and efficient lighting.
Hydroponics and Aeroponics: These soil-less farming methods rely heavily on artificial lighting, offering an untapped niche.
Emerging Markets: Asia Pacific, Latin America, and parts of Africa present fertile ground for adoption, thanks to rising food demand and government initiatives.
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Future Outlook
The agriculture lighting market is set to evolve rapidly, supported by technological advancements, sustainability mandates, and food security concerns. From 2023 to 2031, players in this space are expected to innovate in areas such as:
Smart lighting automation
AI-enabled crop monitoring
Flexible power solutions
R&D into crop-specific LED spectrum customization
These innovations are anticipated to push the agriculture lighting industry into mainstream agri-tech investments, making it central to global food system resilience.
Market Segmentation
By Component:
Lamps
Luminaries
Lighting Controls
Sensing Devices
Others (Timers, Accessories)
By Light Source:
LEDs
Incandescent Lamps
Fluorescent Lamps
High Intensity Discharge Lamps
Others (Halogen, Metal-halide)
By Wattage:
Up to 100W
100W - 300W
300W - 500W
Above 500W
By Application:
Horticulture
Livestock
Aquaculture
Vertical Farming
Hydroponics
Aeroponics
Aquaponics
Regional Insights
Asia Pacific led the global market in 2022 with a 31.7% share, driven by rapid advancements in agricultural infrastructure and strong presence of lighting manufacturers.
Europe, accounting for 28.4%, follows closely with robust R&D investment and adoption of smart greenhouse practices.
North America is witnessing growing adoption of vertical farming technologies, particularly in urban settings, which is boosting demand for energy-efficient lighting systems.
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Detailed market size & forecast analysis from 2017 to 2031
Insights into top market drivers, restraints, and trends
Company profiles of 15+ key players
Comprehensive segmentation by component, light source, wattage, and application
Regional and country-level analysis for major markets
Competitive landscape and recent strategic developments
Smart lighting trends and future market opportunities
Delivered in PDF + Excel format for customization and presentation
Frequently Asked Questions
1. What is the current size of the global agriculture lighting market? As of 2022, the market is valued at US$ 1.3 Bn.
2. What is the projected value of the market by 2031? It is estimated to reach US$ 5.4 Bn by the end of 2031.
3. What is the expected CAGR for the forecast period? The market is projected to grow at a CAGR of 16.8% from 2023 to 2031.
4. Which region dominates the agriculture lighting market? Asia Pacific held the largest share in 2022, followed by Europe.
5. What are the key growth drivers for the market? Rising adoption of indoor farming, LED technology, and sustainable agriculture practices.
6. Who are the top players in the market? Notable players include Signify Holding, Heliospectra, Samsung, California LightWorks, and Gavita International.
7. What are the key applications of agriculture lighting? Primary applications include horticulture, vertical farming, hydroponics, livestock, and aquaponics.
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market-trends-bykr · 16 days ago
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Urban Agriculture Drives 30% CAGR in North America Grow Lights Demand
The Grow Lights market is undergoing a rapid transformation as global food systems shift toward sustainable and technologically enabled agriculture. From a valuation of $1.5 billion in 2022, the market is expected to reach $7.2 billion by 2028 and surpass $14.3 billion by 2030. Key growth drivers include advancements in LED technology, the proliferation of vertical farming, the global push toward food security, cannabis legalization in North America, and increasing adoption in the Asia-Pacific region.
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Key Market Drivers
LED and Full-Spectrum Technology LED grow lights remain the most preferred lighting option due to their efficiency, longer lifespan, and spectrum customization. Full-spectrum LEDs that replicate sunlight are particularly popular in high-yield vertical farms and research applications. The segment is growing at over 40% CAGR, supported by a combination of declining LED prices and high energy savings.
Growth of Vertical Farming and Greenhouses Urban population expansion and climate-related challenges have spurred a wave of investment in controlled-environment agriculture (CEA). Commercial greenhouses currently account for nearly 59% of market share. However, vertical farming is the fastest-growing segment, with projected CAGR exceeding 30% through 2030. Vertical farms are prevalent in urban centers across the United States, Japan, South Korea, and parts of Europe, where land scarcity and resource efficiency are critical.
Cannabis Legalization in North America Legal cannabis cultivation is a powerful tailwind for the grow lights market. In states like California, Colorado, and Michigan, demand for high-efficiency lighting systems has skyrocketed. LED-based systems designed for cannabis are increasingly preferred due to their precise light output and ability to influence plant morphology. This niche is expected to grow at a CAGR of more than 36%.
Rising Retrofit and Inter-Lighting Applications Upgrading traditional greenhouse setups with modern LED systems is gaining momentum. Retrofit solutions offer a cost-effective path to improved yields and energy efficiency. The retrofit segment is experiencing nearly 39% CAGR. Meanwhile, inter-lighting, which provides targeted light within the crop canopy, is enhancing photosynthesis rates and flower production in fruiting crops.
Expansion of Direct-to-Consumer Sales Manufacturers are increasingly focusing on direct-to-grower models, bypassing traditional distribution channels. This shift improves profit margins and allows for better customization and service. The direct sales channel is growing rapidly, with a CAGR of 44.6%, driven by online platforms, smart devices, and DIY farming trends.
Regional Growth Analysis
North America The U.S. and Canada account for over 30% of the global grow lights market. The region is a pioneer in integrating AI, IoT, and data-driven farming. Cannabis legalization has been a key catalyst, alongside a growing number of indoor urban farms and research facilities. Government initiatives such as the USDA’s urban farming grants and support for sustainable infrastructure provide added momentum.
Asia-Pacific and Japan Asia-Pacific is the fastest-growing region, with a forecasted CAGR of 19%. Japan leads innovation through smart vertical farming systems backed by companies like Panasonic and Toshiba. These corporations invest in plant factories with artificial lighting (PFALs), capable of producing crops in completely enclosed, controlled environments. Government incentives for food security and technology adoption further accelerate regional demand.
Trends and Innovations
Smart and Connected Lighting Modern grow light systems incorporate sensors, automation software, and IoT platforms that adjust light spectra, intensity, and duration based on real-time plant needs. These technologies offer energy savings and enhance crop quality, and are becoming essential for large-scale CEA operations.
Energy-Efficiency Regulations Governments are rolling out new mandates for sustainable agriculture. LED systems that meet efficiency standards not only cut electricity costs but also qualify for subsidies and green certifications, further driving adoption.
Modular and Customizable Lighting Solutions Flexible lighting systems that can be customized for specific crop types or growth stages are gaining traction. These solutions enable growers to experiment with spectrum combinations and tailor outputs for better yield and quality.
Software and Analytics Integration Data-backed agriculture is becoming the norm. Grow lights integrated with analytics platforms offer growers insights into energy usage, plant growth cycles, and predictive yield models. This service-based approach, coupled with equipment, is driving recurring revenue models in the industry.
Future Outlook
The grow lights market is set to benefit from megatrends in urbanization, climate-smart agriculture, and precision farming. Emerging economies in Latin America, Africa, and Southeast Asia offer new growth potential as food security and sustainable infrastructure take priority.
Investment in research, product differentiation, and hybrid systems combining sunlight with artificial lighting will be critical. Manufacturers focusing on smart lighting ecosystems, modular designs, and software integration will be best positioned to lead.
Conclusion
From $1.5 billion in 2022 to a projected $14.3 billion by 2030, the grow lights market is transitioning from a niche industry to a cornerstone of modern agriculture. As demand for year-round, pesticide-free, and locally grown produce rises, the integration of advanced lighting technologies will become essential. Both established players and startups have significant room to grow by aligning with sustainability goals, regulatory frameworks, and technological innovations.
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business-market-insight · 1 month ago
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North America Horticulture Lighting Market Trends, Size, Segment and Growth by Forecast to 2030
North America's Horticulture Lighting Market: A Bright Future Fueled by Vertical Farming
The horticulture lighting market in North America is set for substantial growth, projected to surge from US$ 830.5 million in 2019 to US$ 3597.2 million by 2027, demonstrating a robust Compound Annual Growth Rate (CAGR) of 20.7% from 2020 to 2027. This significant expansion is largely attributed to the increasing adoption and importance of vertical farming across the region.
The escalating global population is driving an immense demand for food that traditional outdoor farming methods alone cannot meet. In response, North American countries are increasingly embracing vertical farms, which cultivate crops on vertically stacked layers. These technologically advanced farms leverage innovations like robotics, big data analytics, and Artificial Intelligence (AI) to produce healthy crops efficiently and without the constraints of traditional agriculture. 📚Download Full PDF Sample Copy of Market Report @ https://www.businessmarketinsights.com/sample/TIPRE00014169
Furthermore, with growing concerns about environmental degradation caused by conventional farming, vertical farming offers a more sustainable solution. It helps reduce pollution, boosts food production, and optimizes resource utilization. The numerous benefits of vertical farming over other cultivation methods are expected to continue propelling the growth of the North America horticulture lighting market.
Market Introduction
Horticulture lighting refers to artificial lighting systems designed to support plant growth by facilitating photosynthesis, especially in environments lacking sufficient natural sunlight. This technology plays a vital role in enhancing plant development in applications such as urban agriculture, multi-layer cultivation, supplemental lighting, and daylight-free cultivation. Among the various lighting technologies, LED horticulture lighting is gaining significant traction due to its energy efficiency, low power consumption, and cost-saving capabilities.
The growing emphasis on sustainable farming practices has led governments, researchers, and organizations to actively promote the adoption of advanced horticultural lighting systems. This rising awareness has spurred initiatives aimed at improving agricultural productivity through more efficient lighting solutions. In North America, these developments are contributing to the expansion of the horticulture lighting market.
Additionally, the growing trend of vertical farming is fueling market growth. Several companies are now offering financial and technical support to farmers looking to adopt vertical farming practices, which rely heavily on artificial lighting for crop cultivation in controlled environments.
Government initiatives and public-private partnerships are expected to further drive demand for horticulture lighting solutions across the region. As a result, the North America horticulture lighting market is poised for significant growth in the coming years.
The COVID-19 pandemic had a mixed impact on the market. While it severely disrupted supply chains, logistics, and agricultural labor—especially in the US, the region most affected—the crisis also highlighted the benefits of indoor and vertical farming. These farming methods, which utilize LED lighting to enable year-round cultivation with minimal resources, presented a resilient solution during the pandemic. However, temporary shutdowns of factories and businesses in the US, Canada, and Mexico led to a decline in the production and sales of horticulture lighting products such as LED and fluorescent lamps. Despite these challenges, the long-term outlook for the North America horticulture lighting market remains positive, driven by the growing demand for sustainable and technologically advanced farming practices.
North America Horticulture Lighting Strategic Insights
Strategic insights for the North America Horticulture Lighting provides data-driven analysis of the industry landscape, including current trends, key players, and regional nuances. These insights offer actionable recommendations, enabling readers to differentiate themselves from competitors by identifying untapped segments or developing unique value propositions. Leveraging data analytics, these insights help industry players anticipate the market shifts, whether investors, manufacturers, or other stakeholders. A future-oriented perspective is essential, helping stakeholders anticipate market shifts and position themselves for long-term success in this dynamic region. Ultimately, effective strategic insights empower readers to make informed decisions that drive profitability and achieve their business objectives within the market.
key company profiles   Agrolux
  Bridgelux, Inc.
  General Electric Company
  Heliospectra AB
  Hubbell, Inc.
  Lumileds Holding B.V.
  OSRAM Licht AG
  PARsource
  Signify N.V. North America Horticulture Lighting – Regional Insights
The geographic scope of the North America horticulture lighting market encompasses the diverse regions where businesses operate and compete. Recognizing local differences—such as varying consumer preferences (e.g., plug types, battery backup requirements), economic conditions, and regulatory standards—is essential for developing region-specific strategies. By identifying underserved areas and customizing products or services to meet local needs, companies can effectively broaden their market presence. A well-defined regional focus enables more efficient resource allocation, targeted marketing efforts, and stronger positioning against local competitors, ultimately supporting sustainable growth in key markets.
North America Horticulture Lighting Market: Key Insights and Opportunities
In 2019, the North American horticulture lighting market was significantly shaped by a few key areas:
Technology: LED lights dominated the market, holding the largest share due to their efficiency and effectiveness in plant cultivation.
Application: Greenhouses represented the largest application segment, highlighting their widespread adoption of specialized lighting solutions.
Cultivation: The fruits & vegetables segment held the leading share, indicating a strong demand for horticulture lighting in producing these crops.
Understanding the Market and Driving Business Decisions
This report provides a comprehensive analysis of the North America horticulture lighting market, drawing insights from a range of sources including company financials, government documents, and statistical databases. It features key industry players like Agrolux, Bridgelux, Inc., General Electric Company, Heliospectra AB, Hubbell, Inc., Lumileds Holding B.V., OSRAM Licht AG, PARsource, and Signify N.V.
By exploring this report, you can:
Identify High-Growth Segments: Understand which market segments offer the strongest potential for returns.
Gain Competitive Advantage: Stay informed about the evolving competitive landscape to make strategic business decisions.
Optimize M&A and Partnerships: Pinpoint promising market segments to efficiently plan mergers, acquisitions, and partnerships.
Make Informed Business Choices: Leverage perceptive and comprehensive analysis of market performance to guide your business strategies.
Access Market Forecasts: Obtain revenue forecasts for various market segments in North America from 2020 to 2027.
About Us: Business Market Insights is a market research platform that provides subscription service for industry and company reports. Our research team has extensive professional expertise in domains such as Electronics & Semiconductor; Aerospace & Défense; Automotive & Transportation; Energy & Power; Healthcare; Manufacturing & Construction; Food & Beverages; Chemicals & Materials; and Technology, Media, & Telecommunications Author’s Bio Akshay Senior Market Research Expert at Business Market Insights
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Exploring Different Types of Irrigation and Their Impact on Agriculture Development
Irrigation systems play a fundamental role in agricultural development by ensuring that crops receive sufficient water to grow and thrive, regardless of natural rainfall patterns. These systems have been instrumental in transforming arid and semi-arid regions into productive agricultural zones, contributing to food security, economic growth, and environmental resilience.
Understanding the 3 Types of Irrigation Systems in Agriculture
Irrigation allows farmers to cultivate crops throughout the year, even during dry seasons or prolonged droughts.
By providing a consistent water supply, irrigation reduces dependency on unpredictable rainfall patterns.
Proper irrigation improves soil moisture levels, leading to healthier crops and higher productivity.
Studies show that irrigated farmland tends to produce significantly higher yields compared to rain-fed agriculture.
With the implementation of advanced irrigation techniques, previously unused or underutilized lands can be converted into arable fields.
This contributes to expanding food production capacity globally.
Controlled watering ensures optimal growth conditions for various crops, improving not only quantity but also quality (size, color, taste).
Understanding the Benefits of Agricultural Irrigation Systems
Benefit
Description
Example
Enhanced Productivity
Ensures consistent water supply for optimal plant growth
Higher wheat yields
Reduced Risk
Protects crops from drought-related losses
Safeguards farmer income
Efficient Water Use
Modern systems like drip irrigation minimize wastage
Conserves freshwater
Climate Adaptation
Helps farmers adapt to changing weather patterns
Sustainable farming
Understanding the Economic Contribution of Each Type of Irrigation
Increased Employment Opportunities: The proliferation of irrigated farming generates jobs across various stages of the agricultural supply chain—from planting and harvesting to processing and distribution.
Boosting Rural Economies: Irrigation often leads to higher farm incomes as farmers achieve greater marketable surpluses due to improved yields.
Facilitating Export Growth: In many countries, irrigated agriculture forms the backbone of export-oriented sectors such as fruits, vegetables, and grains.
Understanding the Environmental Impact of Different Types of Irrigation
While irrigation has numerous advantages, it is essential to address potential environmental challenges such as waterlogging or salinization caused by improper management practices. Sustainable approaches such as precision irrigation technologies can mitigate these risks while maximizing benefits.
By understanding and leveraging the potential of effective irrigation systems, global agriculture can continue its advancement toward greater efficiency and sustainability while addressing rising food demands worldwide.
Exploring Irrigation: What Are the 3 Types of Irrigation and Their Importance for Agriculture
Irrigation is the artificial application of water to soil or land to support agricultural activities, ensuring crops receive sufficient moisture for healthy growth. This process is vital, especially in areas with irregular rainfall or arid climates where natural water availability is insufficient to sustain agriculture.
Why Irrigation Matters in Agriculture
Ensures Crop Growth Water is a fundamental requirement for photosynthesis, the process that enables plants to grow and produce food. By supplying adequate and consistent water through irrigation, farmers can prevent crop failure due to drought or insufficient rainfall.
Improves Productivity Regular irrigation allows multiple growing cycles within a year (multi-cropping), increasing agricultural productivity. This stability supports not only local markets but also broader supply chains.
Supports Nutrient Absorption Water aids in dissolving essential nutrients in the soil, making them accessible to plant roots. Irrigation ensures these nutrients are delivered evenly across a farm, optimizing crop yields.
Combats Unpredictable Weather Patterns Climate change has made rainfall patterns increasingly erratic. Reliable irrigation minimizes dependence on inconsistent weather and provides farmers with greater control over their harvest cycles.
Key Benefits of Irrigation Systems
Food Security: Stable crop production helps combat food shortages and ensures communities have consistent access to essential food resources.
Economic Growth: Agriculture contributes significantly to economies worldwide, particularly in developing countries that rely heavily on farming as the primary livelihood.
Efficient Land Use: By enabling cultivation in regions with poor rainfall or arid conditions, irrigation transforms otherwise unproductive land into fertile farmland.
How Does Irrigation Work?
Irrigation System
Description
Best Suited For
Drip Irrigation
Delivers water directly to plant roots through tubing.
High-value crops requiring precision
Sprinkler Systems
Distributes water via overhead spray mechanisms
Large fields and diverse terrains
Surface Irrigation
Relies on gravity flow over a field's surface
Crops like rice; areas with leveled land
Subsurface Irrigation
Supplies water below ground level near root zones
Arid regions; reduces evaporation loss
Challenges Addressed by Modern Irrigation
Water Scarcity Management: Advanced systems like drip irrigation minimize wastage by directing minimal amounts of water precisely where it’s needed.
Cost Reduction: Automated systems reduce labor costs associated with manual watering techniques.
Sustainable Practices: Integration of smart technologies enhances efficiency while conserving natural resources like freshwater.
Irrigation remains indispensable for meeting global food demands while fostering resilience against environmental challenges. By understanding its value and implementing efficient systems tailored to specific needs, agriculture becomes more reliable and sustainable over time.
Exploring the Different Types of Irrigation Systems and Their Importance for Agricultural Development
Irrigation is the process of artificially applying water to crops, land, or pastures to aid in growth, especially in areas where rainfall is insufficient or unreliable. As an essential component of modern agriculture, irrigation ensures consistent crop yields and supports food security across the globe. This practice plays a vital role in increasing productivity, improving soil conditions, and addressing challenges posed by climate variability.
The Role of Irrigation in Agriculture
Enhancing Crop Growth: By providing crops with the right amount of water at critical stages of their growth cycle, irrigation ensures healthier plants and higher yields.
Addressing Seasonality: In areas prone to dry seasons or erratic rainfall patterns, irrigation allows farmers to grow crops year-round rather than relying on natural precipitation alone.
Improving Soil Fertility: Properly managed irrigation helps maintain soil moisture levels, preventing issues such as soil compaction or salinity that can hinder plant development.
Increasing Food Security: With sufficient water supply through irrigation systems, farmers can produce reliable harvests that contribute to local and global food markets.
Benefits of Irrigation for Agricultural Development
Higher Productivity Farmers using irrigation often see significant improvements in yield compared to rain-fed agriculture. Crops like rice, cotton, wheat, and vegetables thrive under controlled water applications.
Water Resource Management Modern irrigation techniques like drip or sprinkler systems promote better utilization of available water resources by minimizing wastage.
Climate Adaptation Irrigation provides a buffer against unpredictable weather patterns caused by climate change. It ensures agricultural stability even during prolonged periods of drought.
Economic Growth Increased productivity due to improved water management translates into higher income for farmers and greater opportunities for rural economic development.
Common Challenges with Irrigation Systems
Challenge
Description
Water Scarcity
Overextraction from rivers or aquifers can lead to resource depletion.
High Initial Costs
Installing advanced systems like drip or sprinkler can be expensive upfront.
Poor Maintenance
Lack of upkeep can reduce system efficiency over time.
Soil Degradation
Over-irrigation may cause problems such as erosion or increased salinity.
To overcome these challenges, it is important for farmers and policymakers alike to focus on sustainable practices while adopting modern technologies tailored to regional needs.
Summary
Irrigation remains an indispensable part of agricultural development worldwide. By ensuring adequate water availability throughout the growing season, it enables farmers to cultivate a diverse range of crops while promoting sustainability in food production practices. Alongside proper management strategies and technological innovations, irrigation helps meet the growing demand for food in an increasingly uncertain global environment.
Understanding the Various Types of Irrigation System for Effective Water Management
Irrigation systems are essential for modern agriculture, ensuring crops receive adequate water to thrive, especially in regions with irregular rainfall or arid climates. There are various types of irrigation systems designed to meet specific agricultural needs. Below is an exploration of the main types of irrigation systems and their practical applications.
Surface Irrigation
Surface irrigation is one of the oldest methods, relying on gravity to distribute water across agricultural fields. It involves flooding or furrow techniques where water flows freely over the soil surface.
Practical Applications: - Suitable for flat terrains with permeable soil. - Primarily used for crops like rice, wheat, and barley. - Economical method but requires careful planning to prevent water wastage.
Advantages: - Low initial setup cost. - Simple operation with minimal technology required.
Disadvantages: - High water loss through evaporation and runoff. - Uneven water distribution if terrain is not properly leveled.
Drip Irrigation
Drip irrigation involves delivering water directly to the roots of plants using a network of pipes, tubing, and emitters. This system provides precise watering while minimizing waste.
Practical Applications: - Ideal for horticultural crops such as fruits, vegetables, and flowers. - Frequently used in areas where water conservation is critical.
Advantages: - Reduces water usage by 30–50%. - Helps prevent weed growth by limiting surface wetting.
Disadvantages: - Higher initial installation costs compared to other systems. - Requires regular maintenance to prevent clogging in emitters.
Sprinkler Irrigation
Sprinkler systems mimic natural rainfall by distributing water through a network of pipes connected to sprinklers or nozzles that spray water over the crops evenly.
Practical Applications: - Widely used for cereals, pulses, and fodder crops on medium-to-large farms. - Suitable for both flat and slightly uneven terrains.
Types of Sprinklers
Use Cases
Key Features
Fixed Sprinklers
Permanent farm setups
Cost-effective but lacks mobility
Portable Sprinklers
Temporary installations
Flexible but requires labor during setup
Advantages: 1. Ensures uniform distribution of water across large areas. 2. Reduces soil erosion compared to surface methods.
Disadvantages: 1. High energy requirements for pumping water. 2. Not effective in windy conditions as it affects spray patterns.
Subsurface Irrigation
Subsurface irrigation involves placing a network of pipes beneath the soil surface to deliver moisture directly at root zones without wetting the upper layers significantly.
Practical Applications: 1. Commonly used in greenhouses or high-value crop farming. 2. Works well in environments where preventing surface evaporation is vital.
Advantages: 1. Minimal evaporation losses due to delivery below ground. 2. Promotes deep root growth by directing moisture precisely at root zones.
Disadvantages: 1. Difficult installation requiring expertise. 2. Repairs can be costly if underground lines get damaged or clogged.
Choosing Among Different Types of Irrigation Systems for Agriculture
System Type
Best Suited For...
Cost Efficiency
Surface Irrigation
Large-scale cereal farming
Low-cost option
Drip Irrigation
High-value perennial plants
Water-efficient but expensive upfront
Sprinkler Irrigation
Diverse field sizes
Moderately cost-intensive
Subsurface Irrigation
Controlled environments
High efficiency with steep costs
By understanding each system's unique advantages and applications, farmers can make informed decisions that ensure sustainable use of resources while maximizing productivity levels effectively.
Exploring Irrigation Methods for Sustainable and Cost-Effective Agricultural Practices
Irrigation systems play a critical role in fostering sustainable and cost-effective agricultural practices. By efficiently managing water resources, these systems enable farmers to maximize crop yields, reduce waste, and promote environmental stewardship. Below is a detailed exploration of how irrigation systems support sustainability while minimizing costs.
1. Water Efficiency and Conservation
Drip Irrigation: Delivers water directly to the root zone of plants, minimizing evaporation and runoff.
Sprinkler Systems: Distribute water uniformly across fields, ensuring equitable moisture penetration.
Smart Irrigation Controllers: These devices use weather data and soil conditions to automatically adjust watering schedules for optimal efficiency.
Efficient water use prevents over-irrigation, reduces resource depletion, and sustains groundwater levels over time.
2. Enhanced Crop Productivity
Reduced risk of drought-related losses.
Improved nutrient uptake due to consistent soil moisture.
Increased ability to grow crops in dry or arid regions previously unsuitable for farming.
Table: Comparison of Yield Increases with Advanced Irrigation Systems
Crop Type
Traditional Methods (Yield per Acre)
Modern Irrigation (Yield per Acre)
Maize
120 bushels
180 bushels
Rice
3 tons
5 tons
Tomatoes
20 tons
30 tons
3. Cost Savings Through Resource Optimization
Lower Water Bills: Smart irrigation minimizes unnecessary water usage.
Energy Efficiency: Systems like gravity-fed drip irrigation reduce energy demands compared to pumping-heavy methods.
Fertilizer Reduction: Controlled watering prevents nutrient leaching from over-irrigation.
While initial setup costs can be high for modern systems, their ability to lower recurring expenses makes them an economically viable solution.
4. Environmental Benefits Supporting Sustainability
Reduction in Soil Erosion: Proper water management prevents over-saturation that leads to runoff.
Protection of Local Ecosystems: By conserving freshwater sources and limiting excessive withdrawals from rivers or aquifers, ecosystems stay balanced.
Carbon Footprint Reduction: Integrating renewable-powered pumping systems (like solar pumps) further lowers greenhouse gas emissions tied to farming activities.
5. Adaptation for Climate Resilience
Changing climate patterns require adaptive strategies in agriculture. Advanced irrigation systems help mitigate risks associated with unpredictable rainfall or prolonged droughts by providing reliable access to water when needed most.
Rainwater harvesting integrated with drip irrigation networks
Use of IoT-enabled sensors for real-time adjustments during extreme weather events
Drought-resistant cropping supported by targeted supplemental watering
By addressing both immediate productivity goals and long-term sustainability challenges, modern irrigation solutions pave the way for resilient agricultural practices globally.
Fruit Growers 866-477-7414 https://fruitgrowers.com/irrigation-system-design/ https://maps.app.goo.gl/7BMwgGCrPKxeDArx5
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abhijeet1233 · 1 month ago
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globalinsight678 · 8 months ago
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Solar fuel market: $1.2B (2023) to $5.8B (2033), CAGR: 17.2%
Solar Fuel Market: A Bright Future for Sustainable Energy 🌞⚡️
The Solar Fuel Market is on the cusp of a significant breakthrough, projected to expand from $1.2 billion in 2023 to an impressive $5.8 billion by 2033, reflecting a robust CAGR of 17.2%. This growth is fueled by the increasing global emphasis on renewable energy sources and the urgent need to transition away from fossil fuels. Solar fuels, generated through innovative processes such as solar-to-hydrogen and artificial photosynthesis, present a sustainable alternative to traditional fuels, helping to reduce greenhouse gas emissions and combat climate change. As governments and industries invest in research and development, the potential for solar fuels to revolutionize energy systems becomes increasingly apparent.
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Moreover, the rising demand for clean energy solutions across various sectors, including transportation and electricity generation, is propelling advancements in solar fuel technologies. As efficiency improves and production costs decline, solar fuels are becoming more accessible and attractive for widespread use. The integration of solar fuels into existing energy infrastructures holds the promise of creating a sustainable and resilient energy future. With growing awareness and support for innovative energy solutions, the solar fuel market is set to play a crucial role in shaping a greener world. 🌍🌱
#SolarFuel #CleanEnergy #RenewableEnergy #SustainableEnergy #HydrogenEnergy #GreenTechnology #ClimateAction #EnergyTransition #SolarPower #ArtificialPhotosynthesis #EcoFriendly #CarbonNeutral #SustainableFuture #InnovativeSolutions #EnergyInnovation
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tamanna31 · 11 months ago
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Solar PV Panels Market Size, Share, Growth, Analysis Forecast to 2030
Solar PV Panels Industry Overview
The global solar PV panels market size was estimated at USD 170.25 billion in 2023 and is expected to grow at a compound annual growth rate (CAGR) of 7.7% from 2024 to 2030. Growing demand for renewables-based clean electricity coupled with government policies, tax rebates, and incentives to install solar panels is expected to drive the growth of solar PV panels industry in the coming years. Companies in the commercial and industrial sectors are among the major consumers of solar photovoltaic panels owing to the large-scale demand for green energy. Installation economies of scale in these sectors compensate for any loss in panel efficiency, making solar PV systems profitable for large-scale generation. The residential sector is gaining momentum in solar PV panel installations due to net metering schemes for grid-connected systems and the availability of energy storage systems for off-grid systems.
The U.S. market is expected to witness a prominent growth rate on account of robust federal schemes such as solar investment tax credit, rising demand across public and private sectors for green electricity, and declining panel cost. According to the Solar Energy Industries Association, the U.S. solar industry generated an investment of USD 33 billion in 2021 and achieved an installed capacity of 23.6 GW across the nation. The U.S. government has implemented various new incentive schemes to promote the adoption of solar and other renewable technologies. For instance, in August 2022, the U.S. government launched the Inflation Reduction Act (IRA) which allotted USD 369 billion for promotion of the renewable energy sector.
Gather more insights about the market drivers, restrains and growth of the Solar PV Panels Market
Many companies have started to construct new solar PV plants and are increasing capacity of their existing plants. For instance, in February 2023, Silicon Ranch announced that it will increase its solar power plant’s energy generation capacity. Also, First Solar will supply 1.5 GW of advanced American thin-film solar modules. This is in addition to its prior agreements which include installation of a total of 4 GW of solar PV panels by 2027.
The value chain of solar PV panels includes raw material suppliers, equipment suppliers, module manufacturers, distributors, and buyers that function in industrial, commercial, and residential markets. The majority of manufacturers in the solar PV panels industry are heavily backward integrated. First Solar, Solar World, and Yingli are among the key companies practicing vertical integration.
However, the COVID-19 outbreak disrupted the global solar PV panel supply chain, resulting in increasing panel prices with manufacturers facing labor shortages, material supply shortages, and stagnant international trading impacting the export market. Delayed projects due to supply chain disruption will further impede the solar industry.
Browse through Grand View Research's Renewable Energy Industry Research Reports.
The global train battery market size was estimated at USD 275.00 million in 2023 and expected to grow at a CAGR of 5.7% from 2024 to 2030. 
The global artificial photosynthesis market size was estimated at USD 80.8 million in 2023 and is estimated to grow at a CAGR of 13.2% from 2024 to 2030.
Key Companies & Market Share Insights
The global solar PV panels industry is competitive with key participants involved in R&D and constant innovation. It has become one of the most important factors for companies to perform in this industry. The high degree of forward integration, security of raw material feedstock, technology sourcing, skilled manpower, and strong R&D are among the prominent factors governing the competitiveness of solar PV panel industry. Globally, rising renewable energy demand in addition to growing energy security concerns is driving market growth.
Key Solar PV Panels Companies:
JinkoSolar
JA Solar
Trina Solar
LONGi Solar
Canadian Solar
Hanwha Q-CELLS
Risen Energy
GCL-SI
First Solar
SunPower Corporation
Order a free sample PDF of the Solar PV Panels Market Study, published by Grand View Research.
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samikshadtg · 1 year ago
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Future Trends in Hydroponics: Innovations and Emerging Technologies
As we continue to navigate the complexities of modern agriculture and address the challenges of food security, hydroponic farming stands out as a beacon of innovation and sustainability. The future of hydroponics is bright, with cutting-edge developments and emerging technologies poised to revolutionize the way we grow food. From automation and artificial intelligence to vertical farming and smart hydroponic systems, let’s explore the trends shaping the future of hydroponic farming.
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   Automation and Robotics
Automation is set to play a significant role in the future of hydroponics, streamlining operations, optimizing resource use, and increasing productivity. Robotic systems can perform tasks such as seeding, transplanting, harvesting, and monitoring environmental conditions with precision and efficiency, reducing labor costs and minimizing human error.
For example, automated nutrient delivery systems can adjust nutrient levels in real-time based on plant needs, ensuring optimal growth and maximizing yield. Similarly, robotic harvesting systems can identify ripe fruits and vegetables, picking them at the peak of freshness to minimize waste and ensure quality.
·       Artificial Intelligence (AI) and Data Analytics
Artificial intelligence and data analytics are revolutionizing the way we manage hydroponic systems, enabling growers to make data-driven decisions and optimize growing conditions for maximum yield and quality. AI-powered algorithms can analyze vast amounts of data collected from sensors, cameras, and environmental monitors to predict plant growth patterns, detect diseases or nutrient deficiencies, and recommend optimal growing parameters.
Furthermore, AI-driven predictive models can anticipate changes in weather patterns, market demand, and crop prices, allowing growers to adjust production schedules and crop selection accordingly. By harnessing the power of AI and data analytics, hydroponic farmers can enhance efficiency, reduce risk, and stay ahead of the curve in an ever-changing agricultural landscape.
For More Info Visit: https://yaarihydroponics.com/
·       Vertical Farming
Vertical farming is poised to become a game-changer in the future of hydroponics, offering a scalable and space-efficient solution for urban agriculture. By stacking multiple growing layers vertically, vertical farms can maximize growing space in densely populated cities, utilizing unused vertical real estate such as warehouses, shipping containers, and skyscrapers.
Vertical farming systems often incorporate advanced lighting, climate control, and irrigation technologies to create ideal growing conditions for plants. LED lighting systems, for example, can mimic natural sunlight, providing plants with the right spectrum of light for photosynthesis while minimizing energy consumption.
·       Smart Hydroponic Systems
Smart hydroponic systems integrate technology such as sensors, actuators, and IoT (Internet of Things) connectivity to monitor and control various aspects of the growing environment in real-time. These systems can adjust lighting, temperature, humidity, nutrient levels, and water flow based on predefined parameters or feedback from plant sensors, ensuring optimal growing conditions and maximizing yield.
Additionally, smart hydroponic systems can be remotely monitored and managed via mobile apps or web-based platforms, allowing growers to access critical data and make adjustments from anywhere in the world. This level of automation and remote control enables greater flexibility, efficiency, and scalability in hydroponic farming operations.
·       Conclusion
The future of hydroponics is filled with promise and potential, driven by innovations in automation, artificial intelligence, vertical farming, and smart hydroponic systems. These cutting-edge technologies are revolutionizing the way we grow food, making hydroponic farming more efficient, sustainable, and accessible than ever before.
As we look ahead to a world with growing population pressures, climate change, and limited arable land, hydroponics offers a beacon of hope for a more resilient and sustainable food system. By embracing emerging trends and harnessing the power of technology, hydroponic farmers can lead the way towards a brighter future where fresh, nutritious produce is available to all, regardless of geography or environmental constraints.
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priyanshisingh · 1 year ago
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Indoor Farming Market Overview: Growth Factors and Future Trends (2023-2032)
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The indoor farming market, valued at USD 38.4 million in 2023, is projected to reach USD 116.06 million by 2032, reflecting a significant CAGR of 10.65%.
The indoor farming market is a rapidly evolving sector within the agricultural industry, characterized by the use of controlled-environment agriculture (CEA) techniques to grow crops indoors. This market is driven by the increasing demand for sustainable and efficient food production methods, particularly in urban areas where arable land is scarce. Indoor farming involves various technologies such as hydroponics, aeroponics, aquaponics, and vertical farming, which enable the cultivation of a wide range of crops, including leafy greens, herbs, fruits, and vegetables, in controlled environments like greenhouses, warehouses, and even urban skyscrapers.
One of the primary drivers of the indoor farming market is the need to enhance food security and reduce dependency on traditional farming, which is vulnerable to climate change, pests, and fluctuating weather conditions. Indoor farming offers a solution by providing stable growing conditions year-round, leading to higher crop yields and reduced crop loss. Additionally, indoor farming uses significantly less water compared to conventional farming methods, making it a more sustainable option in regions facing water scarcity.
Technological advancements play a crucial role in the growth of the indoor farming market. Innovations in LED lighting, climate control systems, and automation have improved the efficiency and scalability of indoor farming operations. LED grow lights, for instance, provide optimal wavelengths for photosynthesis, promoting faster plant growth and higher yields. Automation technologies, including robotic systems and AI-driven monitoring, enhance precision in nutrient delivery, pest control, and overall farm management, reducing labor costs and increasing productivity.
Urbanization is another significant factor contributing to the market's expansion. As the global population continues to urbanize, the demand for locally grown, fresh produce is rising. Indoor farming allows for the cultivation of crops closer to urban centers, reducing transportation costs and the carbon footprint associated with food distribution. This proximity to consumers also enables the delivery of fresher products with a longer shelf life.
The indoor farming market is influenced by several trending factors that are shaping its growth and development. Here are the key trending factors:
1. Technological Innovations
Advanced LED Lighting: Development of energy-efficient LED grow lights that optimize light spectra for plant growth, improving yield and reducing energy costs.
Automation and Robotics: Use of automated systems and robotics for planting, harvesting, and monitoring crops, enhancing precision and reducing labor costs.
IoT and AI Integration: Implementation of Internet of Things (IoT) sensors and Artificial Intelligence (AI) for real-time monitoring and data analysis, leading to better crop management and resource optimization.
2. Sustainability and Environmental Concerns
Water Conservation: Indoor farming techniques such as hydroponics and aeroponics use significantly less water than traditional farming, addressing water scarcity issues.
Reduced Carbon Footprint: Proximity to urban centers reduces transportation emissions, and energy-efficient technologies lower the overall carbon footprint of food production.
Sustainable Practices: Increasing focus on using renewable energy sources, biodegradable materials, and eco-friendly practices within indoor farming operations.
3. Urbanization and Food Security
Urban Farming Solutions: Vertical farming and rooftop gardens in urban areas help address the lack of arable land and bring food production closer to consumers.
Year-Round Production: Controlled environments allow for continuous crop production throughout the year, enhancing food security and reducing reliance on seasonal crops.
Local Food Movement: Growing consumer preference for locally sourced, fresh produce drives demand for urban indoor farming solutions.
4. Health and Wellness Trends
Organic and Chemical-Free Produce: Increasing consumer demand for organic, pesticide-free, and non-GMO products drives the adoption of indoor farming methods that can guarantee these standards.
Nutrient-rich foods: Focus on growing nutrient-dense crops to meet the health-conscious consumer’s preferences.
5. Investment and Funding
Venture Capital and Private Equity: Significant investments from venture capitalists and private equity firms into indoor farming startups and technologies.
Government Support and Subsidies: Government initiatives and subsidies promoting sustainable agriculture and food security boost the indoor farming market.
6. Research and Development
Crop Diversification: Ongoing R&D efforts to expand the variety of crops that can be grown indoors, including staple crops and exotic plants.
Enhanced Plant Breeding: Development of crop varieties specifically bred for indoor growing conditions, optimizing yield and resilience.
7. Consumer Awareness and Education
Educational Campaigns: Increased efforts to educate consumers about the benefits of indoor farming and sustainable agriculture.
Transparency and Traceability: Consumers’ demand for transparency in food production processes leads to the adoption of traceability technologies within indoor farms.
8. Economic and Social Factors
Rising Food Prices: As traditional farming faces challenges such as climate change and resource depletion, indoor farming offers a more stable and potentially cost-effective alternative.
Employment Opportunities: Creation of new job opportunities in high-tech farming sectors and related industries.
Key player:
Argus Control Systems Ltd.
Certhon
Richel Group
Netafim
General Hydroponics
Hydrodynamics International
Illumitex
Lumigrow
Signify Holding
Bowery Farming Inc.
More About Report- https://www.credenceresearch.com/report/indoor-farming-market
Here are the major types of indoor farming:
1. Hydroponics
Nutrient-Rich Water Solution: Plants are grown in a soilless medium with their roots submerged in a nutrient-rich water solution.
Efficiency: Uses less water than traditional soil farming and allows for precise control over nutrient delivery.
Scalability: Suitable for various scales, from small home setups to large commercial operations.
2. Aeroponics
Mist-Based Nutrient Delivery: Plants are suspended in the air with their roots exposed and periodically misted with a nutrient solution.
High Efficiency: Uses even less water than hydroponics and provides excellent oxygenation to plant roots.
Space Utilization: Ideal for vertical farming setups, maximizing space usage.
3. Aquaponics
Combination of Aquaculture and Hydroponics: Integrates fish farming (aquaculture) with hydroponic plant growing.
Symbiotic Relationship: Fish waste provides nutrients for the plants, while plants help filter and clean the water for the fish.
Sustainability: Creates a closed-loop system that is environmentally sustainable and resource-efficient.
4. Vertical Farming
Stacked Layers: Plants are grown in vertically stacked layers or shelves, often in controlled environments like warehouses or skyscrapers.
Space Efficiency: Maximizes space utilization, making it ideal for urban areas with limited horizontal space.
Controlled Environment: Allows for precise control over light, temperature, and humidity.
5. Greenhouses
Protected Environment: Plants are grown in glass or plastic-covered structures that protect from the elements.
Climate Control: Allows for some control over environmental factors such as temperature and humidity, extending growing seasons.
Versatility: Suitable for a wide range of crops and can be used in various climates.
6. Container Farming
Repurposed Shipping Containers: Uses modified shipping containers equipped with hydroponic or aeroponic systems.
Mobility: Containers can be easily transported and set up in different locations.
Space Efficiency: Ideal for urban settings and areas with limited space.
7. Warehouse Farming
Large-Scale Indoor Facilities: Utilizes large indoor spaces like warehouses for growing crops using hydroponic, aeroponic, or aquaponic systems.
Automation and Technology: Often incorporates advanced technologies like automated lighting, climate control, and robotics.
High Production Capacity: Capable of producing large quantities of crops year-round.
8. Rooftop Farming
Urban Rooftops: Utilizes the roofs of buildings to set up small to medium-sized farming operations.
Urban Integration: Provides fresh produce to urban areas, reducing transportation costs and emissions.
Green Infrastructure: Contributes to building insulation and urban green spaces.
9. Plant Factories
Fully Controlled Indoor Environments: Highly controlled environments where all aspects of plant growth (light, temperature, humidity, CO2) are managed.
High Efficiency: Designed for high productivity and resource efficiency, often using vertical farming techniques.
Technology-Driven: Employs advanced technologies such as LED lighting, automation, and AI for optimal growth conditions.
Segments:
Based on Facility Type
Greenhouses
Vertical farms
Shipping Container
Building-based
Others
Based on Component
Hardware
Climate Control Systems
Lighting Systems
Sensors
Irrigation Systems
Software
Web-Based
Cloud-Based
Services
System Integration & Consulting
Managed Services
Assisted Professional Services
Browse the full report –  https://www.credenceresearch.com/report/indoor-farming-market
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casyoo · 1 year ago
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Is LED Grow Light Useful
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Introduction to LED Grow Light
LED Grow Light is an artificial light source that uses LED (Light Emitting Diode) as the light source to meet the lighting conditions required for plant photosynthesis. Classified by type, it belongs to the third generation of plant supplementary lighting fixtures!
In environments lacking sunlight, this type of lighting fixture can act as sunlight, allowing plants to grow and develop normally or better.
This type of lighting fixture has the function of strengthening roots, promoting, adjusting flowering period and color, promoting fruit ripening and coloring, and improving taste and quality!
When planting plants indoors, lighting is indeed a problem, especially for plants that have a high demand for light. At this point, using plant lights to provide the necessary light energy for photosynthesis to plants is an ideal way, but many farmers may wonder if plant growth lights are useful?
There is a reason for the problem. On the one hand, traditional plant lights have high power consumption, low lighting efficiency, and relatively short lifespan. LED plant lights are an ideal plant supplementary light source, breaking many limitations that traditional plant lights cannot break through, but the price is relatively high.
There are Many Benefits to LED plant growth lights
According to the latest market research report "Global LED Plant Lighting Market Share, Strategy and Forecast from 2015 to 2021", LED lights have lower costs and are more energy-efficient compared to other similar products. Therefore, LED lighting is rapidly being adopted. Due to the effective promotion of plant growth by LED lighting systems, LED plant growth lights are also widely adopted worldwide.
Compared with previous high-pressure sodium lamps and metal halide lamps, LED plant growth light are more powerful, large, and efficient. They can save electricity and generate less heat. Less heat allows the plant light to be closer to the plants without worrying about them being burnt.
The next generation of LED plant growth lights can activate a dramatic "power-saving mode", providing unparalleled product reliability. As demonstrated by the Everlight GL Flora LED plant lighting fixtures, LED plant growth lights are undergoing a transformation. They can accurately provide low-power, high-efficiency uniform light patterns and light distribution with appropriate wavelengths and color ratios, which are exactly what efficient photosynthesis requires.
LED plant growth lights are different. Plant growth lamps can be used as artificial light sources for plant growth. The spectrum of the growth lamp is adjusted according to the needs of plant growth. The spectral range required for plant growth light is 400nm~700nm, ranging from blue light to red light. Horticultural lamps play an important role in the growth and development of plants. Plant growth is one of the functions of photosynthesis.
There are three different ways in which plant growth lights work:
Provide all the necessary lighting for plant growth
Supplement sunlight during short periods of winter sunshine
Increase the duration of "daytime" to promote special growth and flowering
LED plant growth lights control plant growth by regulating lighting. The ability to consistently grow food locally represents a significant breakthrough for humanity. Growth lamps allow people to grow food indoors, and making full use of waste space is also an efficient way of producing food.
Removing transportation costs from the food chain is also a major breakthrough. The ability to consistently provide fresh and hygienic food represents a significant shift in people's lifestyles and the achievement of quality of life. Growth lamps increase the density of food production by a factor of ten. This is of great significance.
In certain places such as Japan, there are still shortcomings in the environment. The plant factory will continue to expand and use LED plant growth lights as large warehouse entities to provide food for the public and those in need of special nutrition.
Susan Eustis, the main leader of the research team, said, "Solid state electronics will bring the same advantages to agriculture, just as it brings benefits to other industries. Growers have found that they can quickly achieve investment returns, using plant growth lamps can significantly reduce energy costs, prolong growth seasons, eliminate chemical pollution in food supply, and significantly reduce transportation costs in food production."
As more and more people realize the importance of health and try to avoid the harmful effects of pesticides in food, greenhouse operators have found that plant growth lamps will have more potential markets. Large plant factories will focus on seedling cultivation work.
Whether a plant lamp is useful or not depends on the correct use of the entire process before making a final decision.
when choosing a light, it is important to pay attention to the specific needs of the plants. If it is a light loving plant, buying a low-power ordinary plant light cannot meet the growth needs of the plants. If it is a shade tolerant plant, using a plant light that consumes too much energy is not cost-effective; In addition, if choosing LED plant growth lights, it is necessary to customize the lamp bead ratio according to the needs of the plants, and use the most energy-saving way to provide the best growth conditions for the plants.
Secondly, when using plant lamps, attention should be paid,
Regularly turn on and off plant lights, such as plants from 9am to 5pm, sunlight can meet the needs of plant growth, and the time for supplementing light can be around 7:00-9:00 and 17:00-21:00;
Set a reasonable lighting distance. If the distance from the plant is too far and the lighting is insufficient, the best plant supplementary lighting effect cannot be achieved. If the distance is too close to the plant, only local supplementary lighting can lead to uneven light reception of the plant, resulting in growth conditions not meeting expectations.
it is important to pay attention to the maintenance of plant lamps: following the instructions provided by the seller when purchasing plant lamps, installing, inspecting, and maintaining them may not be of great significance in the short term, but if they are not cleaned over time and are not cleaned in the correct way, it can cause significant harm to the lamp itself.
Is LED plant growth light useful?
Numerous studies by scientists and experiments by biologists have proven that LED plant lights are excellent plant supplementary light sources.
You should know that red, clear, yellow, green, blue, and purple, the shorter the wavelength of the backward light, and the longer the wavelength, the more it can promote plant growth. Pink light is long wave light, which can promote plant growth and achieve supplementary lighting effects.
In fact, you can use incandescent lamps or similar light to illuminate day and night, which is also long wave light. On the contrary, the light emitted by fluorescent tubes is short wave light. You can use two types of light together. In order to welcome the Olympics, Beijing has used this method to allow many flowers to bloom in advance.
However, the composition of light is very complex. Plants have evolved for so long and have adapted to each component of light, with demands and dependencies. Therefore, the supplementary light you buy may only be able to supplement one aspect, and artificial lighting cannot fully imitate the effect of natural sunlight on plants. Just as no matter how good a perfume manufacturer is, it is impossible to completely simulate and produce a perfume with the fragrance of natural orchids. The best designer and manufacturer is nature.
Moreover, different plants have different demands for light.
Light can inhibit the growth of plant internodes, and this effect increases with the increase of light intensity and light duration. Therefore, seedlings are prone to internode growth and elongation under weak light and short light duration, while internodes tend to shorten under strong light and long light duration. Moreover, different light qualities can also affect the growth of seedlings and stems. Generally, red orange light is the most effective light for photosynthesis, which can accelerate the growth rate of seedlings, but the internodes are long and the stems are thin and weak; Blue and purple light can make seedlings grow shorter and stronger, among which ultraviolet light has the strongest effect on inhibiting seedling elongation and promoting seedling shorter and stronger.
So, if you are a friend who is truly interested in plants or wants your own plants to grow better, there is actually no need to dwell on the question of whether LED plant lights are useful. Instead, you should understand the preferences of plants and master the correct lighting methods!
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rupalic · 1 year ago
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Exploring the Lucrative Indoor Farming Technology Market
Indoor farming technology encompasses a range of innovative methods and tools designed to facilitate the cultivation of crops in controlled indoor environments. This approach is gaining popularity due to its potential to address challenges such as limited arable land, water scarcity, and climate variability.
The indoor farming technology market size is expected to grow at a compound annual growth rate (CAGR) of 9.7% in terms of value, from USD 20.3 billion by 2023 to USD 32.3 billion by 2028.
North America is expected to increase its market share in the indoor farming technology market during the forecast period.
North America is expected to increase its market share in the market for indoor farming technology and is projected to grow at the 2nd highest CAGR from 2023 to 2028. Because of the increasing rise of greenhouses and vertical farms in the United States and Canada, North America is one of the greatest indoor farming technology marketplaces. This agricultural concept, which is supported by the US government, has been promoted by cultivators. Hydroponic gardening techniques and technology are becoming increasingly popular in cities to help grocery stores produce fresh veggies. The years 2021 and 2022 were great for indoor agriculture and vertical farming. Private funding resulted in over USD 1.6 billion in investments in the United States, M&A activity increased, and several indoor farms went public. Following a decline in investments due to the epidemic in 2020, investments have now rebounded to higher levels than before.
Key components and technologies associated with indoor farming:
LED Lighting Systems:Advanced LED (Light Emitting Diode) lighting is crucial for providing the right spectrum of light for photosynthesis in plants. These systems are energy-efficient and allow growers to customize light conditions for specific crops.
Hydroponics and Aeroponics:Hydroponic systems involve growing plants in nutrient-rich water without soil, while aeroponics involves suspending plant roots in a misty environment. Both methods provide precise control over nutrient delivery and optimize resource utilization.
Vertical Farming:Vertical farming involves stacking crops in layers or vertically inclined surfaces. This maximizes space utilization and allows for higher crop yields in smaller areas. Vertical farms often integrate controlled environmental conditions.
Automation and Robotics:Automation and robotics play a significant role in indoor farming, assisting in tasks such as seeding, planting, harvesting, and even monitoring environmental parameters. This leads to increased efficiency and reduced labor costs.
Climate Control Systems:Indoor farms use sophisticated climate control systems to regulate temperature, humidity, and airflow. These systems create an optimal environment for plant growth, regardless of external weather conditions.
IoT (Internet of Things) and Sensors:IoT devices and sensors are employed to monitor and collect data on various factors such as temperature, humidity, nutrient levels, and crop health. This data is then analyzed to make informed decisions and adjustments for optimal crop growth.
Biotechnology and Genetic Engineering:Biotechnological advancements, including genetic engineering, are employed to develop crops with desirable traits such as resistance to pests, diseases, or improved nutritional content.
Artificial Intelligence (AI) and Machine Learning:AI and machine learning algorithms are used to analyze vast amounts of data collected from indoor farms. This helps in predicting optimal cultivation conditions, disease detection, and overall farm management.
Container Farming:Containerized farming involves growing crops in repurposed shipping containers. These compact, portable units can be placed in various locations, making them suitable for urban farming and addressing space constraints.
Aquaponics:Aquaponics combines aquaculture (fish farming) with hydroponics. The nutrient-rich water from fish tanks is used to fertilize plants, and the plants help purify the water, creating a symbiotic relationship between fish and plants.
Major players profiled in the indoor farming technology industry:
EVERLIGHT ELECTRONICS CO., LTD (Taiwan)
Heliospectra AB (Sweden)
Argus Control Systems Limited (Canada)
Lumigrow, Inc (Canada)
weisstechnik (US)
LOGIQS.B.V. (Netherlands)
 Illumitex (US)
Market Driver: Rising demand for fresh foods with higher nutritive value
Indoor farming refers to the cultivation of crops or plants of both large and small sizes. Indoor farming is used on a wide scale to supplement local food sources and give consumers nutritious, fresh products. Because this farming method manages plant-fertilizing nutrients, the food generated using this technology is extremely nutritious. Indoor farming allows for the cultivation of a wide range of crops, including leafy vegetables, herbs, vegetables, fruits, micro greens, and flowers. Indoor vertical farming methods produce organic food that is free of agrochemical contamination. As a result, the increasing consumer demand for pesticide and herbicide-free food, as well as the growing need to reduce the carbon footprint of traditional agricultural practices, are driving forces for indoor vertical farming. For example, in 2016, Fujitsu Limited (Japan) established a vertical farming initiative in which lettuce with a low potassium level was cultivated, resulting in exceptionally nutritious lettuce with no unpleasant taste for people with kidney disease.
Key Questions Addressed by the Report:
How big is the indoor farming technology market?
What are the drivers and opportunities for the Indoor farming technology market?
Which region is expected to hold the highest market share?
What is the most profitable crop for indoor farming?
Book a meeting with our experts to discuss your business needs:
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yaorong · 4 years ago
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LED plant lights bring opportunities for the development of vertical agriculture
Vertical agriculture is a revolutionary and sustainable agricultural method that does not require so much space and water demand, and has no impact on the ecological environment. However, the demand for light has never changed, so LED plant lights are needed to supplement light. The emergence of LED plant lights brings unlimited possibilities for the development of vertical agriculture.
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Why is there vertical agriculture?
In a linear system, feeding the urban population is particularly challenging. Agriculture is limited by the amount of space for growing crops. This may limit the total output of the farm, making it difficult to expand and produce more food. This is also the reason for the emergence of vertical agriculture. Vertical agriculture is carried out indoors, eliminating the possibility of environmental damage such as weather, pests and diseases. This agricultural method ensures that all plants receive the same amount of light, water and nutrients.
"LED plant lights in agriculture will be ubiquitous, and all fields of modern agriculture are closely related to light," said Yang Qichang, a senior expert in the field of agriculture and a researcher at the Institute of Agricultural Environment and Sustainable Development of the Chinese Academy of Agricultural Sciences. The planting industry of modern agriculture ( For example, facility gardening, urban agriculture, open field production, plant protection and trapping, etc.), livestock and poultry breeding, aquaculture, and other (edible fungi, microalgae, etc.) all require artificial light sources to supplement light, so the role of LED plant lights will increase. Bigger.
The LED plant light can be designed to emit a specific wavelength of vertical agricultural planting light source, which can be used as an alternative light source for sunlight. Plants do not use the entire spectrum. Plants mainly absorb only part of the spectrum. The peak wavelength of chlorophyll absorption is about 450 nanometers and 650 nanometers (blue and red, respectively). Vertical agricultural growth lights using LED plant lights can be designed to emit only these wavelengths, thus providing only the light needed by plants.
We can know from the above that the growth of plants has nothing to do with soil. What plants need is light. The development of vertical agriculture is to break through the limitation of land space. As long as the light demand is met, plants can grow.
The following are several innovative cultivation methods for vertical agriculture:
1. Hydroponics
Hydroponics is a new method of plant cultivation, and it is also the most widely used method in vertical agriculture. This method does not require soil, but uses nutrient solution to cultivate, which is more convenient to cultivate and the plants are safer.
2. Aerosol cultivation
Aerosol cultivation technology is a new type of cultivation method. Aerosol cultivation is similar to hydroponics. The difference is that the nutrient solution is atomized and sprayed directly onto the roots of plants in the form of spray to provide the water and nutrients needed for plant growth. , And there is the ability to reduce water consumption.
3. Fish and vegetable symbiosis
The fish and vegetable symbiosis system is very similar to the hydroponic system, but one more is to integrate fish and plants together and use each other. The water purified by the plants is used for the fish ponds, and the waste generated by the fish can serve as the nutritional needs of the plants. .
4. Lokal-a self-sufficient small household vegetable system
Lokal technology is the combination of hydroponics and LED plant lights. Nutrient solution replaces soil and LED plant lights replace sunlight, so that plants can also be grown indoors without being restricted by environmental or geographical conditions.
5. AeroFarms-Intelligent Vertical Agriculture Innovation
AeroFarms technology combines the latest technologies such as LED plant light supplement light, aerosol cultivation technology and climate control to control and regulate various factors in line with the growth of plants, giving plants the best growth environment, but the investment cost may be higher. But now there are many successful cases abroad.
Features of LED plant lights:
1. Increase yield: The energy needed for plant growth comes from the photosynthesis of plants, and photosynthesis requires sunlight, and LED plant lights can supplement light to plants when the light is insufficient, and promote the accumulation of plant dry matter, thus achieving the purpose of increasing yield. .
2. Early market: LED plant lights can shorten the growth cycle of plants, promote the growth of plants, can make crops go on the market 7-15 days in advance, greatly increasing the economic income of users.
3. High luminous efficiency: 90% of the light emitted by LED plant lights can be absorbed by plants. Traditional plant lights such as high-pressure sodium lamps and metal halide lamps can only absorb 8-10% of the light during photosynthesis.
4. Low power consumption: LED plant lights consume very little power, so users do not have to worry about the cost of supplementary lights.
5. Long lifespan: LED plant lights have an extremely long lifespan, with an ultra-long lifespan of 50,000 hours to ensure long-term safe and efficient operation of the product.
6. Environmental protection: LED plant lights are safe, environmentally friendly and do not contain toxic mercury. Our LED grow lights use 10%-30% more energy than traditional lights. Consuming less energy can reduce greenhouse gas emissions into our environment.
Vertical agriculture is growing as an increasingly accepted mode of production. These innovative technologies will become more and more popular and will completely change the face of agriculture in the future! The development of agricultural planting is inseparable from light, and the same is true for vertical agriculture, and most of them are indoor planting, so it is natural to need supplementary light. LED plant lights are now the most popular plant supplement light for indoor planting. The development of vertical agriculture will bring a wave of new markets and opportunities to LED plant lights.
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plant-lights-yr · 4 years ago
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Nine characteristics of Yaorong LED plant light
LED plant light is a kind of plant growth lamp, which is a plant growth lamp made of LED (light emitting diode) material.
The plant growth lamp is a light source that adopts artificial supplementary light measures when the natural light is insufficient during the growth process of the plant. Fluorescent lamps and sodium lamps are widely used, but because of the light efficiency and pollution, they are gradually being used by LED plant growth lamps. Replaced. Research on LED as supplementary lighting for plant photosynthesis. Traditional artificial light sources generate too much heat. For example, LED plant growth lights are used to supplement lighting and hydroponic systems. Air can be recycled, excess heat and water can be removed, and electricity It can be quickly transformed into effective photosynthetic radiation, and finally into plant matter. Studies have shown that the use of LED lighting can increase the growth rate and photosynthesis rate of lettuce by more than 20%, and it is feasible to use LEDs in plant factories.
Compared with fluorescent lamps, LED plant light sources with mixed wavelengths can significantly promote the growth and development of spinach, radish and lettuce, and improve morphological indicators; it can maximize the bioaccumulation of sugar beet, and the betatin accumulation in the hair root is the most significant, and it is in the hair root. Produces the highest sugar and starch accumulation.
Compared with the metal halide lamp, the anatomical morphology of the stems and leaves of the pepper and perilla plants grown under the LED plant lamp with the corresponding wavelength has undergone significant changes, and as the optical density increases, the photosynthetic rate of the plants increases. .
Principle of LED grow light It is made according to the principle of sunlight required for plant growth and photosynthesis. Plant photosynthesis is mainly based on absorbing red and blue light, and LED plant lights are mainly based on red and blue lamp beads.
In the case of insufficient light, plants will develop stunted, yellow leaves, and stop growing. If the corresponding artificial light supplement measures are not taken, it will directly bring huge economic losses. As a new type of light source for plants, LED plant lights can not only supplement light for plants, but also completely replace sunlight to provide plants with the necessary photosynthesis. The spectrum.
When using LED plant lights, you must first determine three points: one is that plants need supplementary light, the other is that plants are worth supplementing light, and the third is that plants are suitable for supplementing light with LED plant growth lights. Need to add light needless to say, almost all plant growth and photosynthesis require the participation of light, that is, almost all plants can use LED plant lights to fill light; plants worthy of supplementing light requires the plant itself to have a higher value or The future has a higher value, which is to engage in scientific research; suitable for using LED plant lights mainly refers to clusters of dwarf bead plants. If it is a tall and strong plant like adult yew, it is not very suitable to use LED plant growth lights to supplement light. If it is used to cultivate seedlings, it is also a good choice.
Features of LED grow lights
(1) High light conversion efficiency, energy saving and environmental protection (2) LED plant growth lamps generate less heat, have relatively slow light decay, and have a service life of more than 50,000 hours (3) Use LED plant lights to induce and adjust the photoperiod of plants, so that plants can grow in a controlled manner (4) LED plant lights can provide plants with the wavelength range required for specific plant growth, (5) LED plant lights can supplement light for plants with insufficient light and help plants grow normally (6) The use of LED plant lights can make plants completely separated from the outdoors and realize indoor planting, which is of great significance to the space planting industry (7) The LED plant light has a wide variety of wavelengths and can be made into the spectrum required by the plant that is consistent with the spectral range of the plant's light morphology. (8) Use the spectrum provided by LED plant lights for flowering and fruiting plants to allow plants to perform photosynthesis, which can increase their yield and quality (9) The use of LED plants in the nursery stage can effectively prevent plants from growing excessively
      LED plant growth lights have opened up a new world in the field of plant lighting supplement light. Although many advantages are integrated, due to the current indoor planting technology and cost constraints, it is still in the budding stage. There are still many market and technical problems. To solve it.
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chemicalsmaterialsnews · 2 years ago
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Unleashing the Power of Sunlight: Exploring the Artificial Photosynthesis Market
The total revenue generated by the artificial photosynthesis market was USD 63.1 million in 2022, and it will reach USD 188.9 million by 2030, proceeding at a compound annual growth rate of 14.70% in the years to come, as said by a report published by P&S Intelligence.
The co-electrolysis category had the largest share of revenue in the past, and it will maintain its position in the years to come at a rate of 15.6%. This is due to the fact that this technology is employed for the production of electricity, manufacturing of agricultural fertilizers, and production of hydrogen.
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Moreover, integrated artificial photosynthesis combines extremely productive and selective CO2 electrolysis with high-efficiency solar energy for providing best systems for recycling of carbon.The increasing population and the snowballing purchasing power of consumers because of the increasing per capita income are powering the increasing requirement for crops.
Though, decreasing levels of arable land because of a variety of environmental, climatic, and human factors, inspire farmers and governments to competently make use of the available land for production of crops. Therefore, the requirement for fertilizers is on the rise, as they advance the productivity and growth of crops. Nitrogen fertilizer is the utmost common fertilizer used in agrarian activities. Ammonia is a building block for the making of nitrogen fertilizers.The hydrocarbons dominated the artificial photosynthesis market and it will maintain its position in the years to come with a rate of 14.9%. This is as a result of the large-scale acceptance of artificial photosynthesis that can offer society storable and renewable energy in the form of valued fuels.
The requirement for green hydrogen and clean fuel has progressively increased recently, powered by increasing number of grants and funding. For example, the U.S. has promised the usage of renewable energy to for the production of green hydrogen, more economical than natural gas. North America dominated the industry, and it will continue the same way in the future too. This is because of the increasing government initiatives for provide funding for research and the increasing influence to the net zero emission plan.
APAC will have the fastest growth. This will be because of the increasing demand eco-friendly liquid fuels and green hydrogen, the increasing economy together with per capita income, the increasing company count, the snowballing acceptance of technologies for production of renewable energy, the growing concern of the government regarding emissions of carbon, the increasing need for fuel, and ammonia from the agriculture industry.
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westlandplantlighting · 3 years ago
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Are led grow lights useful? -Westland
Introduction to LED Grow LightsLED grow light is an artificial light source that uses LED (Light Emitting Diode) as the illuminant to meet the lighting conditions required for plant photosynthesis. According to the type, it belongs to the third generation of plant fill light lamps! In the absence of sunlight, the luminaire can act as sunlight, allowing plants to grow and develop normally or better. This kind of lamp has the functions of strengthening roots, promoting, regulating flowering period and color, promoting fruit ripening and coloring, and improving taste and quality! Are led grow lights useful? When growing plants indoors, light is indeed a problem, especially for some plants that have a high demand for light. At this time, it is an ideal way to use plant lights to provide plants with the light energy required for photosynthesis, but many farmers will wonder a question, are plant growth lights useful? There are reasons for the problems. On the one hand, traditional plant lights have high power consumption, low lighting efficiency and short lifespan. LED plant lights are very ideal light sources for plants, breaking many limitations that traditional plant lights cannot break through. But the price is relatively high. The benefits of LED grow lightsAccording to the latest market research report "2015~2021 Global LED Plant Lighting Market Shares, Strategies and Forecasts", compared with other similar products, LED lights have lower cost and more power saving. Therefore, LED lighting is being rapidly adopted. Since LED lighting systems can effectively promote plant growth, LED grow lights are also widely used around the world. Compared with previous high pressure sodium lamps and metal halide lamps, LED grow lights are more powerful and efficient. They save power and generate less heat. Less heat allows grow lights to get closer to the plants without worrying about scorching them. The next generation of LED grow lights turn on a dramatic "power saving mode" for unmatched product reliability. As shown by Taiwan's Everlight GL-Flora LED Grow Lighting Fixtures, LED grow lights are transforming. They can precisely deliver the low-power, high-efficiency uniform light pattern and light distribution required for efficient photosynthesis at the right wavelength and color ratio. LED grow lights are different. Grow lights can be used as artificial light sources for plant growth. The spectrum of grow lights is adjusted according to plant growth needs. The spectral range required for plant grow lights is 400nm~700nm, that is, from blue light to red light. Garden lights play an important role in the process of plant growth and development. Plant growth is one of the functions of photosynthesis. Are led grow lights useful? Grow lights work in three different ways:Provides all the light the plant needs to grow · Supplement sunlight in winter when the sunshine hours are short Increase the length of the "day" to promote special growth and flowering
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