• 1. Fate of nitrogen-15 in the subsequent growing season of greenhouse tomato plants (Lycopersicon esculentum Mill) as influenced by alternate partial root-zone irrigation
  Maomao Hou,Fenglin Zhong,Qiu Jin,Enjiang Liu,Jie Feng,Tengyun Wang,Yue Gao RSC Adv., 2017,7, 34392-34400
• 2. Evidence of pre-micellar aggregates in aqueous solution of amphiphilic PDMS–PEO block copolymer?
  Domenico Lombardo,Gianmarco Munaò,Pietro Calandra,Luigi Pasqua,Maria Teresa Caccamo Phys. Chem. Chem. Phys., 2019,21, 11983-11991
• 3. Evolutionary approaches in protein engineering towards biomaterial construction
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• Catalysts and Inorganic Chemicals Inorganic Compounds Mixed metal/non-metal compounds Alkali metal oxoanionic compounds Alkali metal silicates
• Catalysts and Inorganic Chemicals Inorganic Compounds Salt
• Catalysts and Inorganic Chemicals Inorganic Compounds

Comprehensive Guide to Lithium Orthosilicate (CAS No. 13453-84-4): Properties, Applications, and Innovations

Lithium orthosilicate (CAS No. 13453-84-4) is a specialized inorganic compound with a growing significance in advanced material science and energy storage technologies. Known for its unique chemical stability and ionic conductivity, this compound has garnered attention in industries ranging from solid-state batteries to ceramic coatings. Its molecular formula, Li₄SiO₄, highlights its lithium-rich composition, making it a candidate for next-generation lithium-ion battery electrolytes and CO₂ capture materials.

In recent years, the demand for high-performance battery materials has surged, driven by the global shift toward renewable energy and electric vehicles (EVs). Lithium orthosilicate is often discussed alongside solid electrolytes due to its ability to facilitate lithium-ion transport at elevated temperatures. Researchers are exploring its potential to replace liquid electrolytes, addressing safety concerns like thermal runaway in conventional lithium batteries. This aligns with the trending search queries such as "solid-state battery vs lithium-ion" and "future of EV battery technology."

Beyond energy storage, lithium orthosilicate exhibits remarkable properties for high-temperature applications. Its stability under extreme conditions makes it suitable for refractory ceramics and nuclear fusion reactors, where materials must withstand intense heat and radiation. A niche but growing interest lies in its role in carbon dioxide sequestration, as it reacts with CO₂ to form lithium carbonate and silica—a process relevant to climate change mitigation strategies.

Synthesis methods for CAS No. 13453-84-4 vary, with solid-state reactions and sol-gel processes being the most common. The compound’s purity and particle size significantly influence its performance, prompting studies on nanostructured lithium orthosilicate for enhanced reactivity. Industry professionals frequently search for "how to synthesize lithium orthosilicate" or "optimizing Li₄SiO₄ for CO₂ capture," reflecting the technical focus on its production.

Environmental and economic factors also play a role in the adoption of lithium orthosilicate. As lithium resources face geopolitical constraints, recycling lithium-containing materials becomes critical. Innovations in circular economy models are exploring ways to recover lithium from spent batteries or industrial byproducts, tying into broader discussions on "sustainable lithium extraction."

In summary, lithium orthosilicate (CAS No. 13453-84-4) represents a multifaceted material with applications spanning energy, environment, and advanced ceramics. Its integration into next-gen technologies hinges on continued research into cost-effective synthesis and scalability—topics dominating academic and industrial discourse today.

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