25 research outputs found
Phosphatase activity of the periphyton under different P<sub>org</sub> concentrations.
<p>Phosphatase activity of the periphyton under different P<sub>org</sub> concentrations.</p
The removal process of P<sub>org</sub> by the periphyton. P<sub>total</sub> means total phosphorus content and P<sub>inorg</sub> means inorganic phosphorus content.
<p>The removal process of P<sub>org</sub> by the periphyton. P<sub>total</sub> means total phosphorus content and P<sub>inorg</sub> means inorganic phosphorus content.</p
Adsorption kinetic analysis, (a d) the pseudo first-order kinetic and (b e) the pseudo second-order kinetic and (c f) the intra-particle diffusion kinetic of the periphyton biofilm for the P<sub>org</sub> with different biomass content at different temperatures.
<p>Adsorption kinetic analysis, (a d) the pseudo first-order kinetic and (b e) the pseudo second-order kinetic and (c f) the intra-particle diffusion kinetic of the periphyton biofilm for the P<sub>org</sub> with different biomass content at different temperatures.</p
Kinetic parameters for P<sub>org</sub> removal by the periphyton.
<p>Kinetic parameters for P<sub>org</sub> removal by the periphyton.</p
Highly durable aqueous Zn ion batteries based on a Zn anode coated by three-dimensional cross-linked and branch-liked bismuth-PVDF layer
Rechargeable aqueous Zn ion batteries have been regarded as one of the most promising candidates for next-generation energy storage devices due to their low cost, non-toxicity and high safety. However, the dendrite growth of Zn anode and severe undesired side-reactions largely limited their practical application. Here, we developed a bismuth (Bi)-PVDF layer with unique 3D cross-linked and branch-liked structures as a protective layer on the Zn surface (Zn@Bi-PVDF) to suppress the formation of Zn dendrites and side-reactions, leading to the uniform plating and stripping of Zn during the cycles. Consequently, the symmetric cell with Zn@Bi-PVDF electrodes exhibits long cycling life over 2400 h at a current density of 1 mA cm−2 with a fixed capacity of 1 mAh cm−2. When the Zn@Bi-PVDF anode is paired with a NaV3O8·1.5H2O (NVO) cathode, the fabricated Zn@Bi-PVDF//NVO cell maintains a high reversible capacity of 175.5 mAh g−1 at 1 A g−1 after 500 cycles with an initial capacity retention of 64.1%
The kinetic parameters of P<sub>org</sub> transformation by the periphyton.
<p>The kinetic parameters of P<sub>org</sub> transformation by the periphyton.</p
The P<sub>org</sub> removal rate under different treatments.
<p>The P<sub>org</sub> removal rate under different treatments.</p
Characteristics of the the periphyton.
<p>The photo of the periphyton employed for the experiments (a), the periphyton observed under OM (b, ×2000), CLSM (c, ×2000), and SEM (d, ×2000); the microbial community diversities of the periphyton based on Biolog analyses (e).</p
The conversion process of P<sub>org</sub> (a) the change of the P<sub>total</sub> and P<sub>inorg</sub> over the time (b) the change of q<sub>c</sub> over the time (experiment conditions: light intensity = 12000 Lux, temperature = 25°C).
<p>The conversion process of P<sub>org</sub> (a) the change of the P<sub>total</sub> and P<sub>inorg</sub> over the time (b) the change of q<sub>c</sub> over the time (experiment conditions: light intensity = 12000 Lux, temperature = 25°C).</p
Amplification and Sequencing Primers for HCV NS3, NS5A and NS5B in Genotype 1b Patients.
<p>Amplification and Sequencing Primers for HCV NS3, NS5A and NS5B in Genotype 1b Patients.</p
