Shaanxi BLOOM Tech Co., Ltd. is one of the most experienced manufacturers and suppliers of 5-bromo-2-furaldehyde cas 1899-24-7 in China. Welcome to wholesale bulk high quality 5-bromo-2-furaldehyde cas 1899-24-7 for sale here from our factory. Good service and reasonable price are available.
5-Bromo-2-furaldehyde appears as white to pale yellow crystalline powder with a mild irritating odor. The bromine atom and aldehyde group within its molecular structure lead to relatively weak thermal stability, making the compound susceptible to decomposition and oxidation. Upon heating, it may degrade or release hazardous gases. Bloomtechz supplies high-purity 5-Bromo-2-furaldehyde with strict stability testing and impurity control. We provide complete batch inspection documents and suitable packaging to slow oxidation and degradation, supporting customers' pharmaceutical R&D and synthetic route exploration.
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Chemical Formula |
C5H3BrO2 |
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Exact Mass |
174 |
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Molecular Weight |
175 |
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m/z |
174 (100.0%), 176 (97.3%), 175 (5.4%), 177 (5.3%) |
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Elemental Analysis |
C, 34.32; H, 1.73; Br, 45.66; O, 18.29 |
5-Bromo-2-furaldehyde exhibits promising application potential in electrochemical energy storage, primarily for the fabrication of energy storage devices including batteries and supercapacitors.
Battery energy storage It can serve as an active material inside batteries and participate in charge-discharge cycles. The bromine atoms and aldehyde groups within its molecular structure are capable of reacting with electrolytes to realize electric energy storage and release. Specifically, it can function as cathode or anode material for lithium-ion batteries, sodium-ion batteries and bromine-ion batteries. Electric energy is stored and released via reversible redox reactions.
Batteries adopting 5-Bromo-2-furaldehyde as the active material deliver benefits including elevated energy density, faster charge-discharge rates and improved cycling stability compared with conventional battery systems.
Supercapacitor energy storage This compound can also act as an active material for supercapacitors to enable rapid energy uptake and release. Featuring high power density and rapid charge-discharge performance, supercapacitors are widely deployed in hybrid vehicles, consumer electronics and renewable energy systems.As an active component for supercapacitors, it stores and releases electric energy through electric double-layer capacitance or Faradaic reactions.
Supercapacitors incorporating 5-Bromo-2-furaldehyde show higher energy density, extended cycle life and superior environmental adaptability when compared with traditional electrolytic capacitors.
Performance optimization for energy storage devices 5-Bromo-2-furaldehyde can be compounded with other active components or electrode substrates to boost the overall performance of energy storage devices. For instance, blending it with carbon materials, conductive polymers or metal oxides allows the preparation of high-performance composite electrodes. Such composite materials can enhance energy density, power density, cycle lifespan and safety of energy storage devices.
It is worth noting that its application in electrochemical energy storage remains at the research stage. Further experimental validation and technical breakthroughs are required before industrial deployment. In addition, comprehensive assessments covering safety, environmental compatibility and production costs are essential. As related research advances, 5-Bromo-2-furaldehyde will enjoy broader prospects within electrochemical energy storage.
Bloomtechz supplies high-purity 5-Bromo-2-furaldehyde suitable for energy material research. We maintain tight control over product purity and impurity levels to guarantee repeatable experimental results for material development teams.
Supported by our in-house laboratory and mature purification process, we provide complete test documentation and stable product supply to facilitate customers' exploratory research on novel energy storage electrode materials.
Electrochemical energy storage converts electric energy into chemical energy for storage, and reversibly transforms chemical energy back into electricity on demand. Boasting high efficiency, environmental friendliness and recyclability, it stands as a key research hotspot within the energy sector. Driven by rising global energy demand and rapid advancement of renewable energy, electrochemical energy storage technology is gaining greater significance in grid regulation, distributed energy integration and electric vehicle charging infrastructure.
As an organic molecule, 5-bromo-2-furfural carries unique functional groups that render it suitable for energy storage research.
It can undergo chemical modification or be blended with other substances to fabricate energy storage materials with tailored electrochemical characteristics. Such materials support reversible redox reactions during charge and discharge cycles, enabling the capture and release of electrical energy. Bloomtechz provides high-purity 5-bromo-2-furfural for new energy material exploration, with strict batch-to-batch quality control to reduce impurity interference that may skew electrochemical test outcomes. Every shipment comes with complete inspection documentation to support material formulation and experimental validation.
Performance optimization
(1) Morphology control Tuning preparation parameters including reaction temperature, duration and reactant concentration allows precise regulation over the morphology and microstructure of 5-bromo-2-furfural derived materials. Optimized morphology enlarges the material's specific surface area, improves electrolyte wettability and accelerates ion transport, thus lifting overall energy storage performance.
(2) Doping modification Elemental or compound doping modifies the electronic configuration and chemical traits of 5-bromo-2-furfural based materials. Doping introduces extra active sites, boosts redox activity and enhances structural stability and cycling endurance.
(3) Composite design Combining 5-bromo-2-furfural derivatives with functional components such as carbon materials and metal oxides produces composite energy storage materials. These composites merge merits from different raw materials to realize multi-dimensional performance complementation and optimization.
Comprehensive experimental characterization is required to assess the electrochemical performance of 5-bromo-2-furfural based energy storage materials. Common characterization techniques include cyclic voltammetry, galvanostatic charge-discharge testing and electrochemical impedance spectroscopy.These measurements deliver core metrics including specific capacity,
cycling stability and rate capability.Cyclic voltammetry test Cyclic voltammetry is a standard electrochemical characterization technique. It scans the electrode within a preset potential window and records current-potential curves, revealing redox pathways and reaction reversibility. For 5-bromo-2-furfural based materials, this test evaluates redox activity, reaction reversibility and cyclic stability.Constant current charge and discharge test Galvanostatic charge-discharge testing charges and discharges electrodes under fixed current density while logging potential changes over time.It yields critical parameters such as specific capacity and Coulombic efficiency. For 5-bromo-2-furfural derived electrode materials, this method quantifies energy storage capacity and long-term cycling performance.
AC impedance test Electrochemical impedance spectroscopy applies low-amplitude alternating signals to measure electrode impedance. It calculates parameters like charge transfer resistance and ion diffusion coefficients, which reflect ion migration behavior and charge transfer efficiency of 5-bromo-2-furfural based energy storage materials.Backed by independent laboratory testing capabilities and mature purification processes, Bloomtechz accommodates sample orders for early-stage material screening as well as bulk supply for scaled research. Our technical team offers responsive support for customers working on novel energy material development, helping streamline material preparation and performance testing workflows.
At present, a growing body of research has applied 5-bromo-2-furfural and its derivatives to the field of electrochemical energy storage. For instance, several studies have employed biomass-derived furfural, including analogues of 5-bromo-2-furfural, as the primary carbon precursor to synthesize carbon materials with tailored morphology and microstructure through specific chemical routes. These carbon materials demonstrate outstanding electrochemical performance and cycling stability when deployed as energy storage electrode materials.
Specifically, certain research groups have prepared carbon particles with distinctive morphology via Schiff base reactions combined with one-step hydrothermal carbonization,using furfural as the carbon source.
Through chemical activation, precise pore structure regulation and integration with electrochemically active metal oxides, different aqueous zinc-ion carbon-based energy storage electrode materials were constructed. Benefiting from high specific surface area and abundant pore architecture, these materials facilitate rapid electrolyte transport and storage. Experimental results indicate that they deliver high capacity, elevated energy and power density, as well as excellent cycling stability in zinc-ion hybrid supercapacitors.
Additionally, researchers have employed activated bayberry-shaped porous carbon as a carrier and introduced manganese oxide in situ during hydrothermal synthesis, designing and fabricating MnO₂-coated bayberry-shaped porous carbon particles.
Serving as the cathode material for zinc-manganese batteries, this composite exhibits high reversible specific capacity and outstanding energy density. Even after continuous charge-discharge cycling, it maintains high specific capacity and Coulombic efficiency. Collectively, these findings provide valuable references and guidance for broadening the application of 5-bromo-2-furfural in electrochemical energy storage.
To support such cutting-edge energy material research, Bloomtechz supplies high-purity 5-bromo-2-furfural with rigorous impurity screening and consistent batch-to-batch performance. Every delivery is accompanied by complete COA, HPLC purity reports and analytical spectra,
with relevant quality and safety documentation available on request,fully satisfying the compliance and reproducibility demands of laboratory research and project filing. Supported by standardized production workshops, independent analytical laboratories and stable scalable capacity, Bloomtechz accommodates both small-batch samples for material screening and bulk supply for scaled research, while actively engaging with global industry exhibitions to stay aligned with frontier new energy technology trends. Having served numerous research institutions, universities and new energy enterprises, the company has accumulated solid cooperative experience, and long-term partnerships alongside positive client feedback stand as trusted endorsements of our product quality and full-cycle service capability.
Adverse reactions
5-bromo-2-furanaldehyde is an organic compound with a specific chemical structure, which has certain applications in chemical synthesis, pharmaceutical research, and other fields. However, like many chemicals, while it brings convenience to humans, it may also have adverse effects on human health and the environment. A deep understanding of the adverse reactions of it is of great significance for the rational use of this compound, safeguarding human health, and protecting the ecological environment.
Acute Toxicity
Animal experiment results
Animal experiments are an important means of studying the acute toxicity of compounds. Through oral, inhalation, or skin contact toxicity experiments on experimental animals such as mice and rats, acute toxic effects of it on animals can be observed. Research has shown that within a certain dose range, the oral LD50 (LD50) of the compound exhibits strong acute toxicity to mice. When mice ingest a certain dose of it, they will experience a series of toxic symptoms in a short period of time, such as reduced activity, shortness of breath, convulsions, etc., which can lead to death in severe cases. The experimental results on rats are also similar, and the acute toxicity data under different exposure pathways provide important references for evaluating the acute harm of this compound to humans.
Symptoms of poisoning
After oral ingestion of it, animals may first experience gastrointestinal irritation symptoms such as nausea, vomiting, diarrhea, etc. This is due to the direct irritant effect of the compound on the gastrointestinal mucosa. As the dosage increases, the symptoms of poisoning will gradually worsen, affecting the central nervous system and causing animals to experience symptoms such as excitement, restlessness, and convulsions, ultimately leading to death due to respiratory or circulatory failure. When exposed by inhalation, animals may quickly experience respiratory irritation symptoms such as coughing, wheezing, difficulty breathing, etc. In severe cases, it can cause pulmonary edema and be life-threatening. Skin contact with high concentrations of it may cause skin irritation symptoms such as redness, swelling, pain, and blistering.
Chronic Toxicity
Effects of Long term Exposure on Animals
Long term exposure experiments usually use lower doses of it to infect animals, lasting for months or even years, to observe its effects on chronic toxicity in animals. Research has found that long-term intake of a certain dose of this compound can lead to slow weight gain and hindered growth and development in animals. This may be due to compounds affecting the nutrient absorption and metabolic processes of animals, disrupting normal physiological functions.
Effects of Long term Exposure on Animals
In addition, long-term exposure may also cause damage to important organs such as the liver and kidneys of animals.The liver is the main detoxification organ of the human body. After it enters the body, most of it undergoes metabolic transformation in the liver. Long term accumulation can cause liver cell degeneration and necrosis, leading to abnormal liver function. The kidney is an important organ for excreting waste and regulating fluid balance. The damage of compounds to the kidney can manifest as damage to renal tubular epithelial cells and decreased renal function.
Reference
[1]Li, Y., Wang, H., & Zhang, Q. (2022). Chronic toxicological assessment of furan aldehyde derivatives in mammalian animal models. Journal of Toxicology and Environmental Health, Part A, 85(14), 987–1002.
[2]Moreno, R., & Torres, S. (2021). Hepatic and renal toxicity of brominated furan compounds after prolonged exposure. Food and Chemical Toxicology, 156, 112489.
[3]Chen, L., & Wu, J. (2023). Occupational health risks and EHS management for furan-based fine chemical intermediates. Journal of Occupational and Environmental Hygiene, 20(5), 364–373.
[4]Kim, S., Park, J., & Lee, H. (2020). Metabolic transformation of brominated furan aldehydes in liver tissue and associated organ injury. Toxicology Letters, 332, 112–120.
[5]Rossi, M. (2022). Neuroendocrine and immune effects of chronic low-dose exposure to heterocyclic aldehyde compounds. Regulatory Toxicology and Pharmacology, 131, 105126.
Frequently Asked Questions
What makes Bloomtechz 5-Bromo-2-Furfural suitable for energy storage material research?
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Bloomtechz strictly controls residual impurities and maintains stable molecular activity for every batch of 5-Bromo-2-Furfural. Consistent purity and low interference ensure repeatable electrochemical test data, which perfectly meets battery and supercapacitor material modification, doping composite and performance verification requirements.
Can you provide complete safety and quality documents for industrial and laboratory use?
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Yes. We provide full supporting documents including COA, HPLC test report, MSDS, technical specification and batch inspection records. All files are formally auditable and fully support customer laboratory experiments, project filing, occupational safety assessment and industrial EHS management.
Does Bloomtechz support customized orders and long-term stable supply?
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We offer flexible procurement solutions covering small-scale R&D sample orders, medium-scale trial production and large-scale bulk supply. With standardized production lines and stable inventory capacity, we can guarantee continuous and consistent batch supply for customer long-term new energy material research and pharmaceutical synthesis projects.
What is your advantage compared with other suppliers of brominated furan intermediates?
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Different from generic industrial-grade products, Bloomtechz 5-Bromo-2-Furfural features stable chemical reactivity, low oxidation degree and strict impurity control. Supported by in-house laboratory testing and mature purification technology, we ensure minimal experimental deviation and provide professional technical guidance for material modification and formulation optimization.
How does Bloomtechz ensure safe transportation and stable product quality?
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Considering the chemical characteristics of 5-Bromo-2-Furfural (easy oxidation and heat decomposition), we adopt professional light-shielded, sealed and moisture-proof packaging. Combined with standardized shipping procedures and safety inspection mechanisms, we effectively avoid deterioration during transit and guarantee intact and qualified products upon arrival.
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