Results 151 to 160 of about 3,134,068 (245)
Reclaiming Ruthenium: A Comprehensive Review of Hydrometallurgical Strategies for Precious Metal Recovery. [PDF]
Rudnik E.
europepmc +1 more source
Precious metal recovery from electronic waste by a porous porphyrin polymer. [PDF]
Hong Y +7 more
europepmc +1 more source
Quarterly; Began with Mar. 31, 2004?; Description based on: Mar. 31, 2004; title from foot of p. 1 (publisher's web site, viewed Nov. 19, 2008).; Latest issue consulted: June 30, 2008 (viewed Nov.
Connecticut Resources Recovery Authority.
core
A hybrid additive manufacturing platform integrates direct droplet writing of metallic composite with VAT photopolymerization to fabricate architected soft magnetic composites. This approach enables microscale patterning of high‐viscosity materials for programmable actuators, adaptive fluidic devices, and switchable adhesives, offering tunable ...
Yeowon Yoon +4 more
wiley +1 more source
Long Chain Fatty Acid Degradation Coupled to Biological Sulfidogenesis: A Prospect for Enhanced Metal Recovery. [PDF]
Florentino AP +4 more
europepmc +1 more source
Melanin content directly controls fungal spore mechanical properties, with pigmented spores achieving rupture forces two orders of magnitude higher than hyaline spores. Environmental stress drives this quantity‐quality tradeoff; stressed species invest energy in melanin‐reinforced, mechanically superior thick‐walled, super‐hydrophobic spores, while ...
Atul Agrawal, Steven E. Naleway
wiley +1 more source
Deep eutectic solvents in E-waste recycling: preparation, properties, and hydrometallurgical metal recovery. [PDF]
Moganti LK, Dutta D.
europepmc +1 more source
Annual; Began with June 30, 2004?; Description based on: June 30, 2004; title from foot of p. 1 (publisher's web site, viewed Nov. 19, 2008).; Latest issue consulted: June 30, 2008 (viewed Nov.
Connecticut Resources Recovery Authority.
core
A gas‐fed, zero‐gap, PEM CO2 electrolyzer is realized by incorporating PDDA+ ions onto the carbonaceous Co/N‐C electrocatalyst, with gaseous H2 and CO2 fed into the anode and cathode, respectively. Operating without an aqueous electrolyte, the system sustains a peak FECO of 65.1% at 100 mA cm−2. ABSTRACT Electrochemical carbon dioxide reduction (ECO2R)
Yuen Leong Chow +6 more
wiley +1 more source

