2026/6/18 21:51:19 2026/6/18 21:51:20 2026/6/18 21:51:22 2/g， 0.56 cm³/g， and 2.52 nm， respectively. Under the conditions of IMI solution initial concentration of 200 mg/L， adsorbent dosage of 10 mg， adsorption temperature of 35 ℃ and adsorption time of 120 min， the maximum adsorption capacity of KP9@MBC@N towards IMI could reach 294.4 mg/g. It was hypothesized that the adsorption mechanism towards IMI mainly involved pore filling and some mild chemical reactions.]]> 2026/6/18 21:51:23 2026/6/18 21:51:24 2/g，0.300， 0.373 cm³/g， and 2.849， 3.195 nm， respectively， and they exhibited optimal electrochemical performance， with specific capacitance of 219.0 and 221.8 F/g， respectively， and excellent capacitance rentention rate of 73.3% and 74.8%， respectively. After 4 000 cycles of charge-discharge tests， the specific capacitance retention rate of LC@FeA-2 was 72.0%， demonstrating a good cycle stability.]]> 2026/6/18 21:51:25 2+ resulted in a global warming potential of only 0.10 kg CO₂ eq， whereas the high-temperature pyrolysis processes enhanced the adsorption performance at the cost of higher environmental impacts.]]> 2026/6/18 21:51:26 75 derived from sugarcane pith microparticles with a particle size of ≤75 μm exhibited the highest water contact angle of 152.12°. When HMSP₇₅ was incorporated into the polyurethane system， it markedly improved the pore structure and mechanical properties of the prepared HMSP/polyurethane composite foam materials. The HMSP-10-PUF prepared with a 10% HMSP₇₅ mass fraction exhibited the highest water contact angle， reaching 135.02°. At strain of 70%， the compressive stress of HMSP-10-PUF was approximately 0.35 MPa. It exhibited excellent oil-water separation performance in both “floating oil-water” and “sinking oil-water” mixed systems， with an oil absorption capacity of approximately 25 g/g for dichloromethane as simulated oil phase. Moreover， its oil absorption capacity remained at over 80% of the initial value even after 10 times of adsorption-desorption cycles.]]> 2026/6/18 21:51:26 2026/6/18 21:51:27 2026/6/18 21:51:29 2026/6/18 21:51:29 2026/6/18 21:51:31 2026/6/18 21:51:31 in-situ construct bacterial cellulose (BC) networks on the surface of river silt， to prepare a green and low-cost papermaking fillers， and investigating its application effect in paper. The results showed that the composite filler (EW-BC/SP) prepared with the distiller’s grains enzymatic hydrolysate medium achieved a BC loading of 109.1 mg/g， exhibiting an excellent BC loading capacity with superior in-situ modification performance compared with the traditional medium group (68.6 mg/g). When the filler dosage was fixed at 40%， the retention rate of EW-BC/SP in paper reached as high as 88.2%， which was significantly higher than that of SP group (54.7%). The tensile index of the paper added EW-BC/SP reached 31.2 N·m/g， which was 30.6% higher than that of SP group， and the burst index was 1.81 kPa·m²/g， showing basically no difference from SP group， and demonstrated the remarkable enhancement effect of the BC network.]]> 2026/6/18 21:51:32 2026/6/18 21:51:34 2/g）， with silicon removal performance significantly superior to that of other desilication agents. When the molar ratio of CHAC to silicon was 1∶0.8 and the silicon removal time was 1 h， the silicon removal rate could reach 80.1%， and the settling time could be controlled within 10 min. The Ca²⁺ and Al³⁺ in CHAC form Ca—O—Al complexes that reacted with SiO₃²⁻ in the green liquor to generate insoluble calcium silicoaluminate precipitates （primarily composed of 2CaO·Al₂O₃·2SiO₂）， thereby achieving efficient silicon removal.]]> 2026/6/18 21:51:35 2026/6/18 21:51:36 2026/6/18 21:51:38 2026/6/18 21:51:38 2026/6/18 21:51:39 2026/6/18 21:51:40 2026/6/18 21:51:41