Biomineralization of Pd nanoparticles using Phanerochaete chrysosporium as a sustainable approach to turn platinum group metals (PGMs) wastes into catalysts

Tarver, Sophie; Gray, D. J.; Loponov, Konstantin N.; Das, Diganta Bhusan; Sun, Tao; Sotenko, Maria V.

doi:10.1016/j.ibiod.2019.104724

Cited by 31 publications

(13 citation statements)

References 41 publications

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“…Pd ions can be taken up and reduced to Pd nanoparticles by living organisms, such as plants (Vishnukumar et al, 2017), fungi (Tarver et al, 2019), and microorganisms (De Corte et al, 2012). Microorganisms and especially bacteria, due to their fast growth rate and inexpensive cultivation media, are considered one of the most efficient systems for the reduction of Pd (Matsumoto et al, 2020).…”

Section: Introductionmentioning

confidence: 99%

Transcriptomic Response Analysis of Escherichia coli to Palladium Stress

et al. 2021

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Palladium (Pd), due to its unique catalytic properties, is an industrially important heavy metal especially in the form of nanoparticles. It has a wide range of applications from automobile catalytic converters to the pharmaceutical production of morphine. Bacteria have been used to biologically produce Pd nanoparticles as a new environmentally friendly alternative to the currently used energy-intensive and toxic physicochemical methods. Heavy metals, including Pd, are toxic to bacterial cells and cause general and oxidative stress that hinders the use of bacteria to produce Pd nanoparticles efficiently. In this study, we show in detail the Pd stress-related effects on E. coli. Pd stress effects were measured as changes in the transcriptome through RNA-Seq after 10 min of exposure to 100 μM sodium tetrachloropalladate (II). We found that 709 out of 3,898 genes were differentially expressed, with 58% of them being up-regulated and 42% of them being down-regulated. Pd was found to induce several common heavy metal stress-related effects but interestingly, Pd causes unique effects too. Our data suggests that Pd disrupts the homeostasis of Fe, Zn, and Cu cellular pools. In addition, the expression of inorganic ion transporters in E. coli was found to be massively modulated due to Pd intoxication, with 17 out of 31 systems being affected. Moreover, the expression of several carbohydrate, amino acid, and nucleotide transport and metabolism genes was vastly changed. These results bring us one step closer to the generation of genetically engineered E. coli strains with enhanced capabilities for Pd nanoparticles synthesis.

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Section: Introductionmentioning

confidence: 99%

Transcriptomic Response Analysis of Escherichia coli to Palladium Stress

et al. 2021

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“…83 Recently, the fungus Phanerochaete chrysosporium synthesised bio-Pd of 10-14 nm, which was assessed for the Heck coupling of iodobenzene and styrene. 68 Pd/P. chrysosporium produced 95% conversion to stilbene aer 120 minutes, which was comparable to a 5% Pd/C commercial catalyst.…”

Section: C-c Coupling Reactionsmentioning

confidence: 70%

“…The amine groups of chitosan, chitin and glucan, and amine groups more generally, have been shown to effectively complex Pd(II). 68,[78][79][80][81] Yong et al showed that the choice of Pd(II) precursor impacted biosorption by D. desulfuricans. Biosorption of [PdCl 4 ] 2À was pH-dependent from pH ¼ 1-7, suggesting an ionic biosorption mechanism, with optimal biosorption occurring at pH ¼ 4.…”

Section: Pd Biosorption By Microbesmentioning

confidence: 99%

“…Microbial cell surfaces contain a wide array of biomolecules such as chitin (in fungi), and peptidoglycan and lipopolysaccharide (in bacteria), which in turn contain many different functional groups that can bind metals. 67,68 In addition, PGMs in solution can form an array of anionic, neutral, and cationic complexes depending on the pH, ligands, and ions in solution, all of which in turn affects the cell surface chemistry. Biosorption can therefore occur through different mechanisms, including ionic interactions such as ion exchange, electrostatic forces, hydrogen bonding or van der Waals forces, or through covalent interactions such as coordination.…”

Section: Pd Biosorption By Microbesmentioning

confidence: 99%

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Biotechnological synthesis of Pd-based nanoparticle catalysts

et al. 2022

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“…Combined with excellent catalytic properties, these nanoparticles are especially efficient in cancer treatment [6]. A biological method for producing Pd nanoparticles in very large amounts is to introduce bacteria to a Pd salt solution [7]. In their exchange with the environment, bacteria can supply electrons for redox reactions, and efficiently reduce Pd salts from solution due to very high redox potential of the latter [8,9].…”

Section: Introductionmentioning

confidence: 99%

Sequential Magnetic Mapping of Bacteria Loaded with Pd-Fe Nanoparticles

Claxton

Joudeh

Røyne

et al. 2020

2020 IEEE 10th International Conference Nanomaterials: Applications &Amp; Properties (NAP)

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Magnetic nanoparticles are of widespread use in nanotechnology. One of the most unusual are magnetic palladium nanoparticles that combine magnetism with high catalytic activity. These nanoparticles could be obtained biologically by exposing bacteria to a palladium salt. Due to their small size and weak magnetism, however, it is challenging to measure their magnetic properties. One of the solutions to enhance their magnetism is to incorporate a small amount of iron atoms into them. After this procedure, the nanoparticles together with bacteria can be embedded in resin and characterized by the technique of magnetic force microscopy. This technique allows imaging cross-sections of the bacteria with nanoparticles, but cannot give information from the depth of the sample. Here we report on an approach partially solving this problem. Its novelty lies in measurements of consecutive thin slices of resin, which allows mapping cross-sections of individual bacteria and different parts of the material surrounding the same bacterium. An interesting observed feature is the formation of magnetic chains of nanoparticles outside of the bacteria.

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Biomineralization of Pd nanoparticles using Phanerochaete chrysosporium as a sustainable approach to turn platinum group metals (PGMs) wastes into catalysts

Cited by 31 publications

References 41 publications

Transcriptomic Response Analysis of Escherichia coli to Palladium Stress

Transcriptomic Response Analysis of Escherichia coli to Palladium Stress

Biotechnological synthesis of Pd-based nanoparticle catalysts

Sequential Magnetic Mapping of Bacteria Loaded with Pd-Fe Nanoparticles

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