Publicación de AGR BIOGÁS

Ya disponible el episodio de Tierra y Mar con AGR, CanalSur, Aquí: https://lnkd.in/ev5s4U4m #biogas #biometano #agricultura #ganaderia #renovables #verde #energía

📣 Did you catch our acquisition news last week? 📣 Our CEO Tomer Tzach, CRO John Gates and EGA co-founder Mike Castellano spoke with AgFunderNews about how acquiring this new nitrogen sensing technology fits into the broader CropX vision to provide digital agronomic solutions to improve sustainability and farm profitability. #sustainableag #agtech #precisionag #precisionfarming

🌿📞 Calling All #Greenhouse Enthusiasts! Your Ultimate Solution Awaits with Agrikol group! 📞🌿 Dreaming of lush, thriving crops in your greenhouse oasis? Look no further – Agrikol is here to make it a reality, wherever and whenever you need us! With Agrikol by your side, the #possibilities are endless.  Need a new greenhouse #constructed? We've got you covered.  Seeking top-of-the-line #equipment to maximize your yields? Consider it done.  Worried about #maintenance or upgrades? Leave it to us! Wherever your greenhouse dreams take you, remember: Agrikol is your #solution. With unparalleled expertise and a passion for #cultivating success, we're dedicated to being your trusted #partner in greenhouse #farming. So, why wait? Don't just dream about your perfect greenhouse – make it a reality with Agrikol! Better call Agrikol! 📧 office@agrikol.rs 🌐 www.agrikol.rs Agrikol Norway AS Agrikol Bulgaria Agrikol Tunisie Agrikol Adria Agrikol AM Agrikol Adria

Wheat grows better in agrivoltaic facilities: New research from Italy shows lower wheat production under elevated agrivoltaic systems, but a simultaneous increase in nutritional value for livestock. pv magazine Italy spoke with the academics about their future research. #CommercialIndustrialPV #ModulesUpstreamManufacturing

This video shows real-time carbon flows inside a mycorrhizal network. Mycorrhizal fungi form a symbiotic relationship with ~ 90% of terrestrial plants and have done so for 400 million years. These specialized fungi provide plants with nutrients and water in exchange for carbon-based exudates the plant produces through photosynthesis. Current estimates say that between 4 and 20 percent of all CO2 pulled in by plants ends up stored in mycorrhizal tissues. Considering plants need to build an entire above-ground structure, a root system, and produce flowers, fruits, and seeds, this is an astounding amount of carbon to allocate to mycorrhizal biomass. A recent review study estimates that global plant communities transfer 13.1 gigatons of CO2 to the underground mycelium of mycorrhizal fungi each year – equivalent to roughly 1/3 of annual CO2 emissions from fossil fuels. The amount of time the carbon is locked up in fungi’s mycelium remains unknown. Nonetheless, the influx of such a massive amount of carbon into the soil is a boon for soil ecology, nutrient cycling, and the health of water cycles. It is no wonder the formation of terrestrial ecosystems largely started with the mycorrhizal fungi/plant partnership. Video credit: Rachael Cargill

💡 Microalgae cultivation (part 3) - Open systems Different types of cultivation systems are used for small scale and large scale cultivation of microalgae for different purposes. Based on the different importance of microalgae cultivation systems, these can be classified as open and closed cultivation systems. 🔘 Open systems Open systems are classified into stirred and unstirred ponds based on the agitation mode. These open systems offer several advantages, including lower capital and operating costs, ease of scale-up, and the ability to use natural sunlight as a light source. 🔺 Stirred ponds The most commonly stirred ponds used for microalgae cultivation at commercial scales are raceways ponds (a) and circular ponds (b). Stirred ponds are open and shallow and are usually built using a concrete material, clay, or plastic-lined with either individual or multiple ovals or race track channels in a closed circuit. Cultures are constantly mixed using paddlewheels or compressed air to prevent sedimentation. However, they present challenges such as contamination risks, lower control over environmental conditions, and lower productivity compared to closed systems. Despite these challenges, stirred ponds remain a popular choice for large-scale microalgae cultivation, especially for applications such as biofuel production, wastewater treatment, and high-value product synthesis. 🔺 Non-stirred ponds Non-stirred pond (c) is a system without mixing or devoid of stirrer unit. This system provides an inexpensive and clear way to produce some commercially available microalgae species, such as Dunaliella salina . These ponds are simple in terms of construction, without any special requirement. However, the lack of a stirrer causes poor mixing, which can sometimes be a limiting factor for large-scale biomass cultivation. Figure (Reference): Microalgae Mass Production Methods. (2009). DOI:10.13031/2013.27771)