|
HS Code |
989370 |
| Cas Number | 10222-01-2 |
| Chemical Formula | C3H2Br2N2O |
| Molar Mass | 241.87 g/mol |
| Appearance | White crystalline solid |
| Melting Point | 125-127 °C |
| Solubility In Water | 20 g/L at 25°C |
| Odor | Faint characteristic odor |
| Stability | Decomposes in alkaline conditions |
| Density | 2.17 g/cm³ |
| Ph Of 1 Solution | 5-6 |
| Boiling Point | Decomposes before boiling |
| Common Name | DBNPA |
As an accredited 2,2-Dibromo-2-cyanoacetamide DBNPA factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 2,2-Dibromo-2-cyanoacetamide (DBNPA) is packaged in a 25 kg white plastic drum, with secure tamper-evident lid. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for 2,2-Dibromo-2-cyanoacetamide (DBNPA): Typically 16-18 metric tons packed in 25 kg fiber drums or plastic bags. |
| Shipping | 2,2-Dibromo-2-cyanoacetamide (DBNPA) should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled and compliant with hazardous materials regulations. Store away from incompatible materials, moisture, and direct sunlight. Ensure appropriate hazard communication, and use secondary containment to prevent leaks during transit. Handle according to local, national, and international shipping guidelines. |
| Storage | 2,2-Dibromo-2-cyanoacetamide (DBNPA) should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong acids and bases. Keep the container tightly closed and clearly labeled. Store separately from food and drinking water. Use appropriate corrosion-resistant materials for storage containers to avoid product degradation or leakage. |
| Shelf Life | 2,2-Dibromo-2-cyanoacetamide (DBNPA) has a typical shelf life of about 1-2 years when stored in a cool, dry place. |
Competitive 2,2-Dibromo-2-cyanoacetamide DBNPA prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8618963613625 or mail to sales10@jeiferpharm.com.
We will respond to you as soon as possible.
Tel: +8618963613625
Email: sales10@jeiferpharm.com
Flexible payment, competitive price, premium service - Inquire now!
For decades, controlling microbial growth in water systems has given challenges to industry professionals. From paper mills to oilfields, the pressure to keep water systems running clean and safe takes more than just quick fixes. At our production facility, we have invested years studying real-world problems on the customer front line: biofilm buildup stopping heat exchangers, stubborn bacteria fouling papermaking circuits, even smelly outbreaks in recycled water. Through all those battles, DBNPA (2,2-dibromo-2-cyanoacetamide) has shown its strengths.
Our team produces DBNPA with careful control over purity and particle size. We have the hands-on data from field applications to modify manufacturing steps that keep impurities low. Spec sheets can list content, but on the plant floor, reliability shows up in every drum that leaves quality control. It takes real-world feedback, from operators and technicians using DBNPA daily, to refine performance over the years. We listen to the practical details: pellet flow that saves time in dosing equipment, dissolution profiles that deliver quick results, shelf stability that holds up in varied storage conditions.
We manufacture DBNPA in a range of concentrations and physical forms, from fine powder to ready-to-dispense granules. The 99% purity grade, widely used in water treatment, stands out for its consistent dissolution and low residue. Over time, plant managers have asked for solutions that limit manual handling, reduce clumping, and limit operator exposure. Our granular DBNPA offers increased dust control for safety and cleaner operation during loading, directly responding to those requests.
We see the full lifecycle of this chemistry, from production to packaging. Special requests for custom blends can be produced in-house through our flexible mixing lines. This lets us offer formulas that dissolve at a steady pace for large, continuous recirculating water systems. In paper and pulp facilities where on-and-off dosing happens frequently, our fast-acting dissolved formats dominate. In cooling towers, our slow-release blend means fewer interventions, saving both time and cost.
Users deploying DBNPA depend on rapid antimicrobial action with low environmental carryover. Compared to other biocides, DBNPA stands out with its ability to break down quickly, leaving low residues in treated water. Our in-house application engineers have measured degradation rates across different pH and temperature conditions, working closely with users to select the best feed points and dosing regimes.
In closed-loop water circuits and membrane processes, we choose DBNPA for its low tendency to form persistent byproducts. Operators have experienced fewer system cleanouts than with oxidizer-based treatments. While chlorine and glutaraldehyde can persist and cause equipment corrosion, field testing confirms DBNPA degrades efficiently, especially above neutral pH. This reduces the risk to both hard assets and discharge compliance. In sensitive papermaking processes, our clients have told us that DBNPA leaves process color and brightness unaffected, reducing secondary clean-up costs.
Across diverse industrial systems, customers face stricter effluent regulations each year. Our team works through the numbers in your discharge tests: DBNPA’s breakdown byproducts stay well within most local and international limits when dosed as recommended. That reliability matters for compliance and long-term site permits.
Not all biocides handle process conditions with the same toughness. Temperature spikes, pH swings, and organic load often break weaker blends. We run monitoring trials with partner plants over full production cycles—seasonal stress included. In steel mills and food processing wastewater, DBNPA holds its performance under demanding shifts. It quickly knocks down microbiological counts even in fluctuating process streams, so downtime for system cleaning drops.
DBNPA does not foam like some oxidizers. It integrates well with process additives without triggering unwanted chemical reactions. Many biocides leave sticky or slimy remains on pipe walls, inviting future microbial rebounds. After years of competitive benchmarking, we’ve observed cleaner surfaces in treated systems, which saves both energy and operational time.
Some older chemistries depend on operator “feel” and repeated manual interventions to adjust dose. DBNPA’s clear performance profiles allow for automated flow dosing, reducing labor requirements. Our controls engineers work on site with clients to ensure dosing pumps, lines, and sensors operate seamlessly with our product.
Every season, we field questions from customers who used other agents against biofilms in heat exchangers, only to get costly shutdowns and inconsistent results. Biofilm control isn’t just a lab test; out in processing plants, it comes down to whether a product can slice through that matrix before scale or corrosion sets in. We manufacture DBNPA to dissolve rapidly and target these hotspots. Application results show a measurable drop in microbial counts within hours, not days. This has been the difference for pulp mills keeping up with production targets or cooling plants staying efficient through summer.
Our production teams track incoming feedback from clients facing complex water chemistry mix-ups—high organic load, trace metals, or changing pH. Some competitors’ products precipitate, causing clogging and wasted product. We respond by adjusting particle size distribution, increasing minimum solubility and product shelf life. Through ongoing plant feedback, we’ve dialed in the balance of speed and stability in DBNPA manufacturing.
Industrial chemical producers carry growing responsibility to make environmental stewardship actionable, not just theoretical. DBNPA’s chemistry stands up well to scrutiny. In application, it breaks down rapidly via hydrolysis, especially in alkaline water, producing almost no halogenated residuals. Unlike many older biocides, it does not build up in the ecosystem or accumulate in discharge points.
Regulators in Europe and North America have examined DBNPA for decades, requiring rigorous field degradation studies for approval. Our research division monitors both international regulatory changes and downstream effects at treatment sites. We regularly provide discharge profile data for customer compliance filings and help audit the application of DBNPA on-site. This means users adopt a solution that can meet environmental and legal frameworks confidently, without risking unexpected compliance gaps.
Where alternatives like formaldehyde-releasing agents or isothiazolinones face persistent environmental or toxicity concerns, DBNPA’s short-acting profile means no long-lived residues in effluent. Fast breakdown helps keep discharge risk low, an essential advantage in zero-liquid-discharge (ZLD) scenarios and water-recycling operations. We show customers how DBNPA sanitation can reduce periodical wastewater testing failures and lower sludge handling costs.
In the field, differences show themselves in downtime, cleaning frequency, maintenance costs, and product loss. Many users have stories of trialing isothiazolinones or glutaraldehyde in tough applications, only to face rapid rebound growth. These alternatives often fall short in rapid “kill” scenarios and have higher toxicity persistence. We rarely see those competitors breaking down as reliably or limiting recalcitrant organic build-up in line tests.
Chlorine-based disinfectants fail especially in water systems at higher pH or in the presence of organic contamination. Complex circuits with lots of recycled water demand biocides that remain stable in storage, transport easily, and mix into water streams without exotic handling steps. DBNPA’s chemical stability, combined with its highly targeted action, set it apart in these harsher environments.
Through practical side-by-side trials, customers often report up to 25–40% longer intervals between scheduled cleanings with DBNPA treatments compared to traditional oxidizers. This comes down to a clear kill rate for bacteria, fungi, and algae, and the lack of lasting residues. By working with plant operators directly, we spot not just which product cleans a system—but which keeps working within strict operational limits.
We see the difference firsthand between direct production and reliance on outside distributors. Real transparency into our manufacturing steps means better product traceability and consistent quality. Feedback from industrial users regularly shapes our process updates. For example, to reduce drum disposal, we designed bulk refill batch systems tailored to high-volume sites, cutting site waste by up to 30% over single-use drums.
Our lab staff run frequent batch audits, not to chase perceived quality, but to catch shifts that impact what customers experience in the field—whether that’s a slightly slower dissolve at colder temperatures or a change in flowability after long-term storage. If we spot a deviation, we address it before the next production run, not months later.
By handling both production and application consulting, we see the long arc of a customer’s system alongside the daily technical hurdles. Technicians learn which DBNPA format tackles severe biofouling outbreaks versus low-dose maintenance needs. That experience translates to fine-tuning each production run, which then leads to less guesswork at the plant site and reliable results cycle after cycle.
We work side by side with maintenance crews, chemical treatment consultants, and plant superintendents in settings as varied as food factories, steel plants, and remote mining camps. One recurring lesson: static product data can’t substitute for hands-on application testing. We have walked through mill shutdowns caused by microbiological contamination where only DBNPA, freshly prepared on site, restored water flow in time to keep production on target.
By keeping a feedback loop open with plant operators, we build changes into our manufacturing process. For example, water systems with variable temperature or single-pass open circuits present a higher risk for rapid biofouling. DBNPA’s short half-life can be tuned so that it performs precisely where needed, not upstream or downstream of the target. Our teams work out the optimal dose and format for each flow scheme, balancing kill rate with minimal chemical use.
Each year, industrial clients face new microbe strains and shifting regulatory targets. Our R&D division works together with application specialists to introduce incremental improvements in DBNPA based on field sampling. This means faster dissolution profiles for critical sanitation events or slower-release forms for maintenance dosing.
We often advise end-users and technical buyers to weigh application realities against marketing claims. Safety, effectiveness, and reliability remain central. Our experience shows that direct advice on system-specific challenges yields fewer surprises and better resource management.
We don’t only supply a chemical; we enable safe and successful application. Training programs for plant staff—whether new operators or experienced engineers—cover DBNPA handling, correct dosing, and spill protocol. This practical knowledge feeds back into our packaging decisions and dispensing formats.
Users benefit from a product designed with operator day-to-day realities in mind. With DBNPA, dosing is straightforward; there’s less maintenance needed for feed lines, and short contact times solve problems quickly. Our packaging and shipping focus on safety, clear labeling, secure closures, and adequate handling instructions. This minimizes onsite exposure and helps keep accident rates low.
We keep robust records of all feedback on product handling or unexpected downtime, using incident analysis to guide both user training and batch improvement. This data-driven response translates into safer, more reliable usage.
Demand grows for water treatment options that combine safety, reliability, and environmental compliance under tighter budgets. Our role as direct manufacturer gives us the flexibility to tweak production and innovate as system needs evolve. For many clients, DBNPA is the cornerstone of their biocide program—trusted for its performance and predictable behavior.
We see every shipment as the start of a new application story, not just a transaction. Whether solving an unexpected biofilm surge or helping reduce plant cleaning intervals, we make DBNPA for the people who rely on every kilogram to do a tough job without surprises. Our approach always ties back to practice over theory, learning from each new technical challenge, and using that learning to make both our product and our customers’ operations stronger.
DBNPA has earned its reputation as a go-to antimicrobial for demanding industrial applications, from food and beverage plants to high-stress paper circuits and power utility systems. It combines what matters: rapid action, controlled breakdown, low risk to equipment, and safety for your team. As regulations and microbial trends develop, our production teams stand ready to innovate, keeping DBNPA at the front line of reliable, field-tested water system protection.