| HS Code | 564673 |
| Product Name | BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series |
| Appearance | White powder |
| Silica Content | ≥94% |
| Origin | Bio-based (from agricultural residues) |
| Ph | Alkaline |
| Loss On Ignition | ≤6% |
| Moisture Content | ≤5% |
| Bet Surface Area | 140-180 m²/g |
| Average Particle Size | 4-7 µm |
| Bulk Density | 0.20-0.30 g/cm³ |
| Oil Absorption | 210-260 ml/100g |
As an accredited BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | BIO-RHASIL AK1040 Alkaline Bio-based Silica is packaged in sturdy 25 kg plastic drums with secure, tamper-evident lids. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for BIO-RHASIL AK1040: typically 18-20 metric tons, packed in 200 kg plastic drums or IBC totes. |
| Shipping | BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series is shipped in tightly sealed, industrial-grade containers or drums to ensure safety and product integrity. Packaging complies with relevant chemical transportation regulations. Ensure storage in a cool, dry area away from incompatible substances. Handle with appropriate safety precautions during transport and unloading. |
| Storage | BIO-RHASIL AK1040 Alkaline Bio-based Silica, part of the AK Series, should be stored in tightly sealed containers, away from direct sunlight and moisture. Store in a cool, dry, well-ventilated area and avoid exposure to acids or incompatible materials. Ensure containers are properly labeled and keep away from food and drink. Follow standard chemical storage protocols and consult the safety data sheet for specific guidance. |
| Shelf Life | BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series typically has a shelf life of 12 months when stored in unopened original containers. |
As the direct manufacturer of the BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series, we supply this material to a diverse group of industrial converters and compounders. Our bio-based alkaline silica supports environmentally responsible production across multiple sectors. Below, we detail the practical downstream application scenarios, industrial usage parameters, regulatory frameworks, typical usage levels, process stages, and end product types.
Global tire manufacturers utilize alkaline bio-based silica as a reinforcing filler to enhance wear resistance, traction, and rolling resistance in tire formulations. This silica addresses increasing sustainability requirements and delivers compatibility with both natural and synthetic rubber matrices. Formulators adjust dosage in high-performance tread compounds and sidewalls to achieve precise physical properties demanded by OEM vehicle suppliers and aftermarket producers. The material’s consistent particle size and alkaline surface facilitate improved dispersion during internal mixing and vulcanization, supporting reliable batch-to-batch QC outcomes and enabling exacting mechanical behavior in the final product.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Coatings formulators leverage our alkaline bio-based silica as an anti-settling, matting, and rheology-modifying agent. The material’s controlled particle morphology and surface alkalinity enhance pigment stabilization and viscosity control in waterborne and solventborne paint systems. In high-solid architectural coatings, formulators utilize silica to improve film strength, optimize gloss level, and support thickener interaction in acrylic, polyurethane, and alkyd applications. Our QC team ensures contaminant-free batches, supporting compliance with emission, safety, and labelling directives for downstream blending houses serving industrial and commercial coatings markets.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Oral care manufacturers select our alkaline bio-based silica as a mild abrasive and thickening agent in toothpaste and dental gels. The material allows formulators to adjust RDA/Cleaning ratios, providing efficient stain removal with low enamel abrasion. Particle size and purity meet personal care regulatory guidelines. Integration with humectants and fluoride sources requires specific surface reactivity, supporting controlled viscosity, stability during shelf life, and consistent sensory attributes released during brushing.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Producers of crop protection and fertilizer blends employ our alkaline bio-based silica as a flow agent, anti-caking additive, and solid support matrix for granulation. The controlled alkalinity mitigates clumping in micronutrient premixes, allowing uniform distribution of actives in downstream field applications. Industrial mixers blend silica with urea, ammonium sulfate, or pesticide actives in dry or wet granulation, ensuring consistent particle morphology and shelf stability. The material supports compliance with current regulations restricting heavy metal or crystalline silica content.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Major cleaning product manufacturers incorporate alkaline bio-based silica as a processing aid, binder, and flow enhancer in dry laundry and automatic dishwashing powder formulations. Its alkalinity promotes efficient surfactant activation and maintains powder fluidity during handling and packaging. The particle structure supports free-flowing blends, preventing bridging in automated filling lines. Regulatory compliance for food-contact cleaning agents or household products requires specific attention to trace impurities and consistent batch quality.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Construction dry mix manufacturers adopt alkaline bio-based silica as a packing density enhancer and thickening filler in cementitious and gypsum-based formulations. The material’s high specific surface area improves water retention and workability in dry bonded mortars, tile adhesives, and plaster compounds. It enters the blending stage together with cement, sand, redispersible polymer powders, and chemical admixtures. The consistent granule size supports automated dosing and reduces mix time in high-throughput batching plants, meeting performance requirements on viscosity, strength, and open time for large construction projects.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Competitive BIO-RHASIL AK1040 Alkaline Bio-based Silica AK Series prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615380400285 or mail to sales2@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615380400285
Email: sales2@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Our team has worked hands-on with earth-derived materials for decades. We’ve seen the shift toward sustainable chemistry not as a slogan, but as a daily challenge: create more with less, cut down on petrochemicals, refine each process to make cleaner materials, and keep costs workable for real industries. BIO-RHASIL AK1040 represents the next step in this mission. As a manufacturer in the silica space, we know every product sits in a crowded marketplace, but the details and choices built into a material can make all the difference on the line, in the workshop, or out in the field.
BIO-RHASIL AK1040 borrows its backbone from agricultural residues, not oil. We start with non-food plant materials, drawing silica directly from sources that would otherwise be burned or landfilled. This upcycling takes what’s already available and turns it into a valuable input for industries needing alkaline silica—not just a green label, but a real story behind the supply chain.
The AK1040 model falls in our AK Series, set apart by its higher pH and characteristic chemistry suited for coatings, adhesives, cement and mineral composites. We produce it as a fine, free-flowing powder with carefully controlled particle size. On the shop floor, this means quicker integration into slurries and dispersions. There’s little dusting, which cuts waste and improves environmental and workplace safety. We manufacture each batch using closed-loop water systems and energy-saving calcining techniques, which reduces the carbon footprint compared to traditional fumed silicas or precipitated silicas from sand.
Hundreds of so-called green products exist today, and a surprising number are relabeled petrochemicals with little fundamental change. We believe in direct feedback from customers as well as internal process audits. BIO-RHASIL AK1040 entered the pilot stage in the paints and coatings sector in response to requests for a functional extender and rheology control agent. Our early users wanted a bio-based option for their primers and exterior coatings, but synthetic silicas pulled from sand and oil left a heavy mark on their environmental audits. We built AK1040 around their needs, refining the composition to preserve alkaline activity and compatibility with commercial resins, both water-based and solvent-based.
Other silica products on the market often use fossil origin feedstocks, which can raise red flags on an LCA report. AK1040 stands out by avoiding mined sand and synthetic silicates. Sourcing bio-silica directly from controlled agricultural side streams keeps resource cycles local, while reducing pressure on threatened sand reserves. We track origin and composition in every batch, offering traceability as well as performance data measured in our own labs.
We designed AK1040 for high surface area at an alkaline pH, balanced for dispersion and chemical reactivity. The finished powder displays consistent white color and fine particle size distribution. These may sound like generic technical details, but in production, these traits matter. In certain mineral-plastic composites, coarser silicas with low surface area can slow setting and weaken the finished part. By controlling the drying and milling conditions in-house, we keep the particle morphology tight, which aids users looking for precise dosages and quick wet-out in mixing tanks.
Our lab tracks attributes such as BET surface area, pH in slurry, and loss on ignition. As manufacturers ourselves, we know how off-spec silica can create inconsistent batches downstream—so we run parallel checks during milling, screening, and final packing. We build close partnerships with users. If a batch shows deviations in bulk density or pH, we communicate clearly before shipping, making real-time adjustments rather than passing on quality risk.
We shipped early AK1040 samples not just to research labs, but directly to factories. The feedback often surprised us. One user reported better mixing in acrylic latex formulations due to the physical handling of the powder. Another, in mortar compounds, pointed out faster early strength development than with older silica choices. These observations drove us to keep improving filtration, drying, and quality checks.
Unlike generic silicas that often fail at high pH due to breakdown or gelation, AK1040 holds structure across a broad alkaline range. This resilience traces back to its bio-origin and our mild, controlled activation process. Our quality control begins with field selection—ensuring we exclude contaminated or chemically treated raw materials—and continues with sealed bulk transport, reducing moisture and preventing cross-contamination. In effect, our product doesn’t just “plug in” to formulas, it reduces hassle and failure points during scale-up.
AK1040 works best in systems where stability, early strength, and reinforcement matter. Paint factories notice fewer viscosity drifts. Concrete makers can shift toward lower binder formulations without giving up mechanical properties. In ceramics and mineral processing, its controlled particle size keeps filtration and extrusion lines running without plugging. These are observations we accumulate directly from pilot users—feedback that shapes not only our next batch, but also plant maintenance schedules, equipment wear, and downstream costs.
There’s a common misconception that bio-based must mean compromise. With AK1040, we find lower energy use in firing cycles and wet mixing, based on real data from user partners. Because the agricultural feedstock contains fewer heavy metals and crystalline impurities than average sand sources, our post-processing requires less acid washing and filter aids. The resulting powder demonstrates consistent pH buffering in alkaline systems, helping extend shelf life and functional performance of end products.
Our own plant line operators have commented on the smooth flow and minimal caking during bagging. This wasn’t achieved by luck, but by adjusting dryer speed and atmospheric controls until we saw a marked improvement. At scale, these small gains matter; bag clogs or dust spills cost time, manpower, and can create regulatory headaches for our clients.
BIO-RHASIL AK1040 replaces fumed silicas and traditional precipitated silicas in most applications, with several key differences. Standard fumed silica often operates at neutral to slightly acidic pH and can create slip issues or incompatibility in certain adhesives and polymers. Conventional versions from sand mining leave a heavier carbon and resource footprint. Transporting high-density sand-based materials also hikes up fuel use and costs, particularly outside areas with easy access to silica sources.
We built AK1040 to integrate with today’s waterborne and solventborne chemistries. It meets needs in paper coatings, adhesives, reinforcing fillers, functional pigments, and construction mineral blends. While conventional products sometimes show poor suspension stability or agglomerate after storage, our silica exhibits better shelf life and dispersibility due to its hydrophilic—yet non-gelling—nature. This quality results from our proprietary activation approach, not simply legacy processing.
Our experience tells us batch traceability and logistical transparency are often overlooked. We offer full digital batch histories and raw material origin certification, not for marketing, but because our own procurement and QMS teams rely on the same traceability for recalls, audits, and troubleshooting. Customers have struggled with recalls tied to ambiguous suppliers; by keeping our chain of custody tight, we ensure safety and regulatory compliance.
We know all too well the headaches of inconsistent raw materials and unreliable availability. Agricultural silica sources, if managed poorly, fluctuate in output depending on region, season, and weather. To guarantee uninterrupted supply, we built partnerships with contracted growers and regional biomass processors. Our logistics system includes buffer storage and scheduled batch testing to pre-qualify incoming material before it enters the plant.
Seasonal gaps or quality drops neither catch us off guard nor disrupt downstream production. Our in-house R&D keeps a rolling performance database of every lot, tracking humidity, pH, and purity trends, and flagging risks before they reach the customer. This hands-on approach, rather than a reactive after-the-fact supplier audit, sets suppliers like us apart from traders, who sometimes dodge responsibility when surprises crop up.
In scale-up scenarios, clients tell us about running “off the shelf” silica from big distributors that fail to match test data. We respond by keeping AK1040 application-focused, produced in fixed large-scale reactors with minimal batch-to-batch drift. Our technical team can adjust activation and drying cycles to match distinct customer specs—helping clients avoid expensive reformulation or downtime.
From day one, we have chosen to take bio-based material use beyond one-off “green” certificates. Our product development cycle involves open-door conversations with researchers, process engineers, procurement teams, and sustainability officers. At several plants, clients opened their floors to our engineers for direct monitoring of performance in real formulations—leading to dual improvements in their output and our own product control.
In adhesives and composites, for example, we’ve improved shelf stability by customizing drying step duration and fine-tuning surface chemistry. Not only did this cut waste for our clients, it pushed our own yield higher, reinforcing a cycle where environmental benefit leads to savings and reliability. Early in the AK Series development, a building materials company reported faster blending with fewer stuck clumps, reducing mixing time by over 15 percent. Their feedback helped us create a tighter particle cut and faster-pouring bags.
We learn from every mistake and breakdown. If an end user flags an issue, we dispatch a field chemist, analyze the problem, and feed those results right back into plant controls. Our operations model treats downstream failures as our responsibility, not just the customer's. This approach, while resource intensive, keeps quality high and reduces repeat failures.
We continuously benchmark AK1040 against both conventional and new bio-based entrants. Ongoing studies compare performance in key areas: thickening in paints, strength in mortars, resistance to chemical degradation, and sustainability metrics such as carbon footprint and water demand. These evaluations shape our raw material sourcing, manufacturing schedules, and even plant maintenance cycles.
Unlike many bio-based products which simply comply with sustainability labels, we seek performance parity or better. We have invested in energy monitoring and water recycling systems in our facility, documenting improvements that satisfy both internal audits and downstream requirements for green procurement. As direct manufacturers, experiences from our shop floor spark changes in mill configurations, dryer temperature controls, and batch size optimization—details that keep quality consistent, reduce recalls, and build lasting trust among our partners.
Every ton of AK1040 likes to stay close to its origin. Where possible, we contract with local agricultural processors and use regional energy sources—lowering travel miles and boosting rural economies. Our own staff moves between collaborative research labs and the shop floor, learning directly from operators and customer technicians. New product versions arise from these interactions, not from top-down management directives or market “trend” chasing.
We have seen clients expand adoption of AK1040 from initial pilot applications: paint extenders in the construction sector, moisture scavengers in polymer films, flow aids in ceramics, and even specialized roles in horticulture substrates. With each new process, we gather data, tweak plant processes, and create useful documentation—not just spec sheets, but real process guides and troubleshooting logs.
Next-generation products in our AK Series aim to bridge further performance gaps while maintaining environmental benefit. Adding custom surface silanization, improving blend ratios, and closing nutrient cycles through biogenic silica recovery will keep us ahead of regulatory and market shifts. New users in battery and specialty elastomer fields challenge us to achieve higher purity and tailored functional group content.
Challenges never stop: bio-resource fluctuations, stricter regulations, rising freight costs, unpredictable weather, and the pressure to keep every batch on-spec. By keeping technical, QC, and customer service teams working as one, we keep failures low and build solutions quickly—never letting a batch out the door unless it brings real value, not just compliance checks.
BIO-RHASIL AK1040 didn’t evolve through marketing buzzwords or relabeling generic materials. Every step in its production, from field to factory gate, has been tuned for real, hard-won benefits: lower environmental impact without losing the performance industry expects from silicas, real traceability, and a supplier mindset honed by accountability instead of distance from the market. Working from the manufacturing side gives us intimate knowledge of what hits and what misses at the application level, making constant learning and improvement part of what we offer, not a side project.
In an industry where real reliability and measurable performance outweigh claims, we continue to shape materials that solve industrial challenges today while meeting the demands of a more circular future. BIO-RHASIL AK1040 stands as more than a material; it’s a product of persistent engagement and practical innovation. The journey never fully ends, but every improved batch, happier operator, and more sustainable shipment proves the effort is worth it.