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Type HazMat fee for 500 gram (Estimated)
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Limited Quantity USD 15-60
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Chemical Structure| 2595-90-6 Chemical Structure| 2595-90-6
Chemical Structure| 2595-90-6

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1-(Bromomethyl)pyrene is a pyrene derivative with a bromomethyl group, commonly used in organic synthesis as a molecular probe or reaction intermediate, and exhibits fluorescent properties.

4.5 *For Research Use Only !

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Zhang, Hongyi ; Grocke, Garrett L ; Kopfinger, Samuel S ; Wang, Yilin ; Brahmasandra, Arnav ; Ewoldt, Randy H , et al.

Abstract: Electrode fouling resulting in reduced performance is an ongoing challenge in electrochemical flow cells based on redox active polymers (RAPs). An avenue that holds substantial promise yet remains relatively unexplored involves the strategic design of RAPs capable of undergoing electrochemical stimulation to facilitate in situ electrode cleaning within a flow cell. Herein, a new electrode cleaning strategy is demonstrated through the application of redox-active poly(glycidyl methacrylate) particles crosslinked with 2-amino-1,3,4-thiadiazole disulfide (PGMA-ATDDS). The resulting particles can de-crosslink through cleavage of the disulfide bond using stimuli, such as electrochemical reduction or UV photoexcitation. Using a custom flow cell, applying such a stimulus to an ITO electrode artificially fouled with PGMA-ATDDS in the presence of a fluid flow leads to a significant particle removal (80%) that is over six times more efficient relative to the case when no stimulus is applied. Confocal fluorescence imaging of the electrochemically stimulated electrode highlighted localized disulfide reduction of particles near the electrode surface. It is posited that this selective de-crosslinking and concomitant electrolyte swelling at the particle/electrode interface facilitate particle removal in the presence of a fluid flow. In addition, the regeneration of electrode performance upon cleaning was demonstrated through charging of a redoxactive particle suspension of poly(vinylbenzyl chloride) functionalized with dimethylaminoferrocene (PVBC-Fc). Upon electrochemical cleaning of the fouled ITO electrode, the accessible charge of PVBC-Fc was statistically equivalent to the accessible charge measured using a pristine ITO electrode. Overall, this study introduces a new approach for leveraging stimulus-responsive chemistries for RAPs to impart inherent functionality to facilitate in-line electrode cleaning in electrochemical flow cells.

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Zhang, Hongyi ;

Abstract: The growing need for advanced, safe battery technologies across a spectrum of applications—from handheld devices to industrial-scale energy storage—demands innovative solutions beyond conventional metal-based systems. This dissertation investigates organic redox-active materials, with a specific focus on redox-active polymer particles (RAPs), as promising sustainable substitutes in battery technology. The application of these engineered included lithium batteries and redox flow batteries, including cutting-edge redox targeting flow battery designs. Here in this dissertation, the synthesis and characterization of a series novel RAPs are investigated. Chapter 2 synthesizes redox-active polymer particles (RAPs) by crosslinking poly(glycidyl methacrylate) with redox-responsive groups, demonstrating superior electrochemical reversibility compared to small molecule analogues due to effective spatial confinement. Optimal electrolyte conditions, identified through galvanostatic cycling, showcased that a dimethyl sulfoxide/magnesium triflate mix enhances both stability and specific capacity. Notably, smaller particle sizes correlated with higher specific capacities. These findings highlight the potential of organosulfurbased materials for advanced multi-electron energy storage beyond lithium-ion systems. Chapter 3 introduces a novel electrode cleaning strategy for electrochemical flow cells using the similar RAPs in Chapter 2, specifically targeting electrode fouling, a prevalent issue in such systems. These RAPs can de-crosslink via electrochemical reduction or UV photoexcitation. In a custom flow cell with an artificially fouled ITO electrode, applying these stimuli resulted in 80% particle removal—six times more efficient than without stimulation. Furthermore, post-cleaning electrode performance restored accessible charge to levels comparable to a pristine electrode. This approach demonstrates the potential of stimuli-responsive RAPs to enhance maintenance and functionality in electrochemical flow cells. In Chapter 4, side chain modifications were applied to RAPs to enhance cycling stability and electrochemical performanceInitial modification with non-polar N-methylbutylamine (MBA) side chains (DS-RAPMBA) improved stability, while subsequent functionalization with polar, lithium-solvating oligoethylene glycol (OEG) and glycerol carbonate (GC) side chains significantly enhanced the electrochemical responses. DS-RAPGC exhibited the highest capacity, followed by DS-RAPOEG and DS-RAPMBA, with unmodified DS-RAP showing the lowest. Enhanced swelling in DS-RAPOEG and DSRAPGC improved ion transport, contributing to their superior performance across various C rates and long-term cycling tests at 0.1C for 400 cycles, with minimal degradation. This study demonstrates the effectiveness of side chain modification adjacent to the redox center in enhancing the electrochemical properties of organic materials for energy storage applications. Chapter 5 details a novel synthetic method for creating poly-3,4-ethylenedioxythiophene (PEDOT) nanoparticles functionalized with a disulfide/thiolate redox couple, (DMcT), to produce dual redox particles for use as organic cathode materials in Li-ion batteries. The nano-sized PEDOT-DMcT-Li particles, characterized by dense crosslinking with redox-active disulfides, exhibit significantly enhanced capacity due to improved electrochemical accessibility and a semiconducting backbone that reduces internal resistance. Comprehensive evaluations, including cyclic voltammetry (CV) and galvanostatic cycling, confirm the material's dual electrochemical behavior and exceptional long-term stability without degradation. Optimized asymmetrical cycling conditions further improved capacity retention, eliminating the need for additional chemical modifications. These results underscore the potential of the PEDOT-DMcT-Li dual-redox system for advancing battery performance. Chapter 6 utilized similar molecular design from Chapter 2 and 3, changing the topic of energy storage to trainable jamming. DS-RAPs are capable of forming amorphous structures with varying degrees of percolation in response to electrochemical stimuli or UV light. This adaptiveness, inspired by biological organisms, is achieved through a dynamic crosslinker in the particles, which supports tunable mechanical properties through reductive cleavage during repeated cycling in a toggled field. Additionally, our stimulus-responsive jamming network incorporates structural memory, controlled by external small amplitude oscillatory shear, allowing the complex modulus to be adjusted over several orders of magnitude based on specific training protocols. This mechanism also permits resetting by erasing structural memory. These advancements herald a new class of materials with trainable properties at both the molecular and mesoscopic scales. Chapter 7 highlights other redox active polymeric systems to further expand the library of RAPs, including nanosized DS-RAPs, dual functionalized polymer particles containing both and moieties, RAP with diselenide as redox active components, and polyvinyl benzyl chloride (PVBC) particles with as redox active components for redox targeting flow battery.

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Product Details of 1-(Bromomethyl)pyrene

CAS No. :2595-90-6
Formula : C17H11Br
M.W : 295.17
SMILES Code : BrCC1=C(C2=C34)C=CC4=CC=CC3=CC=C2C=C1
MDL No. :MFCD00269937
InChI Key :UGMXRPVWWWDPFC-UHFFFAOYSA-N
Pubchem ID :1274043

Safety of 1-(Bromomethyl)pyrene

GHS Pictogram:
Signal Word:Danger
Hazard Statements:H315-H318-H335-H413
Precautionary Statements:P261-P264-P271-P273-P280-P302+P352-P304+P340-P305+P351+P338-P310-P321-P332+P313-P362-P403+P233-P405-P501
Class:8
UN#:3261
Packing Group:
 

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