Fullerene C70

Product Details

CAS No:115383-22-7

MF:C70

Appearance:dark-brown or black-brown crystalline powder

Specification:99.0%

UN number:-

Package:1/5/10/25kgs/drum

Supply Capacity:KGS

Synonyms:FULLERENE, C60/C70;FULLERENES, C60/C70;FULLERENES C60/C70 MIXTURE;FULLERENES MIXTURE, C-60 AND C-70;FULLERENE NANOTUBE;FULLERENE PRECURSOR;FULLERITE;CARBON 70; Fullerene C70; 115383-22-7; Fullerene 70; Fullerene-C70; DTXSID90151050; RefChem:607693; DTXCID9073541; 634-223-5; C70 Fullerene; [5,6]-Fullerene-C70; [5,6]Fullerene-C70-D5h(6); (C70-D5h(6))[5,6]fullerene; [70-D5h]fullerene; (5,6)-Fullerene-C70; rugbyballene; Carbon C70; Buckminsterfullerene C70; Fullerene C70 >98%; Fullerene C70 >99%; Fullerene C70, 98%; Fullerene C70, 99%; SCHEMBL333284; SCHEMBL29353623; CHEBI:33195; [5,6]Fullerene-C70-D5h(6; ATLMFJTZZPOKLC-UHFFFAOYSA-N; Fullerene - C70, min. 98%; Fullerene powder, 98+% C{70}; Fullerene powder, 99+% C{70}; Fullerene C70 (purified by sublimation) [for organic electronics]; (5,6)Fullerene-C70-D5h (6); AKOS037648485; FF44633; Fullerene C70 [for organic electronics]; BS-14126; SY070278; B1694; F1233; NS00074155; D82998; F556448; F556449; F841024; Q3885009

Product application:Fullerene C70,115383-22-7,Carbon 70,C70 powder,High purity Fullerene C70,Rugby ball carbon,Nanocarbon cluster,PC71BM precursor,Electronic grade Fullerene C70,Perovskite solar cell electron transport material,Perovskite grain boundary passivator,Broadband light harvesting material,Thermal evaporation C70 source,Organic photodetector active material,Organic semiconductor monomer,Cosmetic grade Fullerene C70,Radical sponge active,Broad spectrum antioxidant active,Anti-photoaging cosmetic ingredient,Anti-wrinkle skincare active,High performance lubricant additive,Wear resistant nanocomposite,High purity Fullerene C70 99.5%,Fullerene C70 manufacturer China,CAS 115383-22-7 supplier,Suzhou Health Chemicals nanocarbon materials,Fullerene C70 wholesale bulk export

 

Fullerene C70 serves as an indispensable, ultra-pure cage-like carbon nanomaterial, benchmark n-type organic semiconductor electron-transport active with enhanced visible absorption, and versatile broad-spectrum free-radical scavenger extensively utilized across perovskite photovoltaics, broadband photodetectors, flexible organic electronics, clinical restorative cosmeceuticals, and advanced nanocomposite materials sectors. In organic semiconductor physics and thin-film solar energy technology, universally designated as Carbon 70, its ellipsoidal cage structure composed of seventy sp2-hybridized carbon atoms exhibits lower molecular symmetry than spherical C60, which relaxes quantum electronic dipole selection rules and induces an elevated molar extinction coefficient across the entire visible light spectrum from 300 to 650 nm; it is widely deployed as a vacuum-evaporation-grade electron-transporting, light-harvesting, and defect-passivating layer in inverted (p-i-n) planar perovskite solar cells; the conjugated carbon cage provides barrier-free extraction and high-speed conduction of photo-generated electrons while capturing residual unabsorbed solar photons to boost photocurrent, concurrently coordinating with undercoordinated surface lead ions and halide vacancies across perovskite crystal grain boundaries to eliminate deep-level trap states, suppress non-radiative recombination, and elevate operational stability under continuous illumination and thermal stress; furthermore, it functions as the irreplaceable foundational starting precursor for the commercial synthesis of the blockbuster soluble electron acceptor PC71BM. In dermatological science and cosmetic formulation, it acts as a catalytic radical sponge due to its dense network of conjugated double bonds that absorb cascading reactive oxygen species (ROS), singlet oxygen, and environmental free radicals without rapid self-degradation; this action protects the extracellular dermal matrix from ultraviolet-induced collagenase degradation, inhibits melanocyte tyrosinase synthesis, reduces hyperpigmentation, and accelerates skin barrier recovery in premium anti-photoaging formulations, broad-spectrum barrier serums, and rejuvenating post-procedure treatments. In optoelectronic device engineering, it serves as the active semiconducting channel material for high-responsivity broadband photodetectors, optical image sensors, and organic field-effect transistors. In advanced tribology and materials engineering, when incorporated into synthetic lubricants or engineering resins, its nanoscale ellipsoidal geometry imparts friction reduction, extreme-pressure load capacity, and thermo-oxidative stability under demanding industrial conditions. Furthermore, in targeted supramolecular assemblies, nanomedicine drug-delivery systems, and specialized anti-corrosive composite barrier coatings for petroleum and natural gas infrastructure, chemical architectures derived from Fullerene C70 deliver outstanding physical stability, broadband optoelectronic properties, and broad multi-industry performance.