Original article written by LightsADMIN at aeliusled.com
In the ever-evolving landscape of agriculture, one thing remains constant: the need for innovation to sustainably feed our growing population. As we face challenges like climate change, soil degradation, and water scarcity, the importance of nurturing future plant scientists and advancing research on indoor farming becomes increasingly evident. At the heart of indoor farming innovation is the technology, like LEDs, required to maximise food security and revolutionise horticulture education and research.
THE FUSION OF SCIENCE AND PRACTICE
We’re all familiar with the fact that by cultivating crops in controlled environments, growers can optimize resource use, minimize environmental impact, and produce high-quality yields year-round regardless of external conditions.
However, realizing the full potential of indoor farming requires ongoing research and innovation.
At the university level, horticulture research encompasses a broad spectrum of topics, ranging from plant breeding and genetics to sustainable crop production and post-harvest management. LED technology lies at the forefront of this research. Unlike traditional lighting sources such as fluorescent or incandescent bulbs, LEDs offer precise control over light spectrum and intensity, allowing researchers to tailor lighting conditions to the specific needs of each crop and identify slight adjustments required for optimal output. This not only enhances growth and productivity but also reduces energy consumption and operating costs which are all vital to the longevity of indoor farming.
Furthermore, LED technology enables researchers to explore the effects of light on plant physiology in greater detail. Studies have shown that manipulating light spectrums can influence plant morphology, nutritional content, flavour, and even medicinal properties. By unravelling the complexities of plant-light interactions, researchers can unlock new strategies for optimizing crop production and enhancing food quality worldwide.
EMPOWERING CHANGE AGENTS IN HORTICULTURE
The future of horticulture hinges on the passion, creativity, and dedication of the next generation of scientists, and post-secondary education plays a vital role in nurturing the talents and skills of aspiring horticulture advocates. Through comprehensive academic programs and hands-on research experience, students are equipped with the knowledge and expertise needed to tackle pressing global issues in food security, environmental sustainability, and plant science.
The true advancements in horticulture are found at the intersection of various disciplines, including agronomy, biology, engineering, and environmental science. Post-secondary programs facilitate interdisciplinary collaboration, enabling students to come together from diverse backgrounds and gain a holistic perspective on the complex challenges facing modern agriculture.
Hands-on learning experiences in controlled environment agriculture (CEA) settings are essential to establish a foundational understanding of indoor farming practices. These environments not only offer a controlled setting for experimentation, but they also allow students to discover the significant impact of variables like light spectrum, intensity, and duration on plant growth and development. This is the leading reason Aelius LED actively seeks research partnerships in universities, to support the discovery of advancement in indoor farming and enrich the learning experience of future plant scientists.
In the quest for a more sustainable and secure food future, horticulture education and research play pivotal roles. By nurturing the next generation of plant scientists and advancing our understanding of indoor farming technologies like LED lighting, we can cultivate innovation and resilience in agriculture.
By embracing LED technology and leveraging interdisciplinary collaboration, universities empower students to become catalysts for positive change in the agricultural landscape. As they embark on their academic and professional journeys, these future horticulture scientists hold the promise of transforming challenges into opportunities and cultivating a brighter, more sustainable future for generations to come.
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Growing Equipment, LED, Lighting
Aelius 880
Photon Flux : 2640 μmol/S
Efficacy : 2.93 μmol/J
Lifetime : L90 > 50,000hrs
Dimmable : -10V
Fixture Power : 880 W
Input Voltage Range : 200-277 V
Max Voltage Range : 20-277 V
Power Factor : 0.98
Frequency : 50/60Hz
THD : 8.5%
Certifications : CE / cETLus / DLC
Coverage Area : 4X4 High-Bay
Warranty Period : 5 Years
Damp Locations : IP65
Driver : Fixture Mounted
SKU: n/a -
LED, Lighting
Aelius REDD 3.0
Efficacy : 3.0 µmol/J
Lifetime : L90 > 43,000hrs
LED Optics : 120° Primary Optics
Dimmable : 0-10V Daisy-Chainable RJ12
Power Factor : 0.95-0.99
Frequency : 50/60Hz
Certifications : CE / cETLus / RoHS / DLC Pending
Coverage Area : 5 x5
Warranty Period : 5 Years
Damp Locations : IP65
SKU: n/a -
Growing Equipment, LED, Lighting
Matrx 630F
Matrx 630F
Photon Flux : 1886 μmol/S
Efficacy : 2.81 μmol/J
Lifetime : Q90 > 50,000hr
LED Optics : 120 Primary Optics
Dimmable : 0-10V
Fixture Power : 672 W
Input Voltage Range : 100-277V
Max Voltage Range : 90-305V
Power Factor : 0.995
Frequency : 50/60Hz
THD : 8.1%
Certifications : CE / cETLus / DLC
Coverage Area : 4’X4′ / 5’X5′ Reflective
Warranty Period : 5 Years
Damp Locations : Yes
Driver : uPowerTek
SKU: n/a -
Growing Equipment, LED, Lighting
Matrx 730F
Matrx 730F LV/HV
Photon Flux : 2,044 µmol/S
Efficacy (300-800NM) : 2.90 µmol/J
Lifetime : L90 > 43,000hrs
LED Optics : 120° Primary Optics
Dimmable : 0-10V Daisy-Chainable
Fixture Power : 730 W
Low Voltage Range : 100-277V
High Voltage Range : 185-528V
Power Factor : 0.95-0.99
Frequency : 50/60Hz
THD @ 100% Power : 6.5-7.5%
Certifications : CE / cETLus / RoHS / DLC Pending
Coverage Area : 5’X5′
Warranty : 5 Years
Wet Locations : IP65
Driver : uPowerTek (Fixture Mounted)
SKU: n/a