Category: Jiahe

As global environmental regulations tighten and corporate sustainability awareness rises, industry deodorants have evolved from auxiliary products to core tools for green production. These specialized solutions tackle industrial odors at the source, playing a pivotal role in sectors ranging from manufacturing to waste management.
The industry’s growth is striking: the global deodorant market reached 166.865 billion RMB in 2022 and is projected to hit 256.242 billion RMB by 2028, with a 7.52% CAGR . This expansion is fueled by stringent emission standards and the “dual carbon” goals driving enterprises to adopt eco-friendly odor control.
Modern industry deodorants rely on innovative technologies rather than mere scent masking. Xiamen Tobacco Industry exemplifies this with a multi-tech system: modified air conditioning units with spray scrubbers capture dust and odor molecules, while exogenous acyl oxidase-modulated microbes decompose stubborn odors . Jiejiang Purification’s “Dejing” series uses aromatic compounds to polymerize and break down VOCs, hydrogen sulfide, and ammonia without secondary pollution . These technologies integrate with smart platforms—equipped with real-time sensors—that trigger alerts for abnormal emissions, ensuring 100% compliance .
Their applications span diverse industries: petrochemical plants, sewage treatment facilities, food processors, and leather factories all benefit from tailored formulas . Notably, water recycling is integrated into systems; Xiamen Tobacco reuses treated wastewater as deodorant solvent, saving 76,000 tons of tap water yearly .
The future lies in customization and circularity. Enterprises now demand breed-specific solutions, while 3D-printed delivery devices and AI-driven dosage optimization are emerging. As industry deodorants merge efficiency with environmental responsibility, they not only resolve “bad smell” woes but also empower businesses to achieve both ecological and economic wins .

Thermoplastics are widely used in automotive, household appliances, and food-contact applications, but their inherent or process-induced odors often pose challenges to user experience and regulatory compliance. Odor in thermoplastics typically originates from three key sources: residual volatile compounds (e.g., unreacted monomers, solvents), thermal degradation byproducts (such as aldehydes or ketones formed during extrusion or injection molding), and volatile additives (like plasticizers or stabilizers). These odorous substances not only affect product acceptability but may also raise health concerns in enclosed environments.
Effective odor control for thermoplastics requires a multi-stage approach spanning material selection to post-processing. First, raw material purification is critical: manufacturers can adopt advanced distillation or adsorption techniques to reduce residual monomers in base resins (e.g., polyethylene or polypropylene). Second, optimizing processing parameters minimizes thermal degradation—lowering melt temperatures, shortening residence times, and using vented extruders to remove volatiles during processing.
Additives also play a vital role in odor mitigation. Odor scavengers, such as activated carbon, zeolites, or metal-organic frameworks (MOFs), trap volatile compounds through physical adsorption or chemical reactions. Bio-based additives, like plant extracts, are increasingly favored for their eco-friendliness and ability to mask or neutralize odors without introducing new volatile substances. Additionally, post-processing treatments, such as vacuum degassing or plasma cleaning, further reduce residual odors in finished products.
Quality control is essential to validate odor control measures. Analytical techniques like gas chromatography-mass spectrometry (GC-MS) quantify volatile organic compounds (VOCs), while sensory evaluation by trained panels assesses subjective odor perception. By integrating these strategies, manufacturers can produce thermoplastics that meet strict odor standards, enhancing product competitiveness in markets like automotive interiors and food packaging.

Thermoplastics are widely used in automotive, household appliances, and food-contact applications, but their inherent or process-induced odors often pose challenges to user experience and regulatory compliance. Odor in thermoplastics typically originates from three key sources: residual volatile compounds (e.g., unreacted monomers, solvents), thermal degradation byproducts (such as aldehydes or ketones formed during extrusion or injection molding), and volatile additives (like plasticizers or stabilizers). These odorous substances not only affect product acceptability but may also raise health concerns in enclosed environments.
Effective odor control for thermoplastics requires a multi-stage approach spanning material selection to post-processing. First, raw material purification is critical: manufacturers can adopt advanced distillation or adsorption techniques to reduce residual monomers in base resins (e.g., polyethylene or polypropylene). Second, optimizing processing parameters minimizes thermal degradation—lowering melt temperatures, shortening residence times, and using vented extruders to remove volatiles during processing.
Additives also play a vital role in odor mitigation. Odor scavengers, such as activated carbon, zeolites, or metal-organic frameworks (MOFs), trap volatile compounds through physical adsorption or chemical reactions. Bio-based additives, like plant extracts, are increasingly favored for their eco-friendliness and ability to mask or neutralize odors without introducing new volatile substances. Additionally, post-processing treatments, such as vacuum degassing or plasma cleaning, further reduce residual odors in finished products.
Quality control is essential to validate odor control measures. Analytical techniques like gas chromatography-mass spectrometry (GC-MS) quantify volatile organic compounds (VOCs), while sensory evaluation by trained panels assesses subjective odor perception. By integrating these strategies, manufacturers can produce thermoplastics that meet strict odor standards, enhancing product competitiveness in markets like automotive interiors and food packaging.

In industries ranging from personal care to industrial manufacturing, unwanted odors often become a key barrier to product success. OEM Odor Control Additive, a customized odor-elimination solution, addresses this pain point by integrating seamlessly with clients’ existing products—offering targeted, efficient, and compatible odor management that goes beyond generic off-the-shelf alternatives.
What sets this OEM additive apart is its customization-driven design. Unlike one-size-fits-all  (deodorants), it is formulated based on clients’ specific needs: for example, adjusting ingredients to neutralize pet odors in cat litter, combat chemical fumes in industrial coatings, or eliminate mustiness in home cleaning products. This precision ensures optimal performance—targeting odor sources at the molecular level (breaking down odor-causing compounds rather than masking them) while preserving the original functionality of the host product, such as texture, durability, or cleaning power.
Its application scope is broad and versatile. In consumer goods, it enhances the appeal of items like laundry detergents, air fresheners, and pet care products by ensuring long-lasting freshness. In industrial settings, it improves workplace safety and product quality by reducing odors from wastewater treatment, rubber production, or plastic molding. Crucially, the additive boasts strong substrate compatibility—it blends smoothly with liquids, powders, and solids (e.g., resins, fabrics, or cleaning agents) without causing discoloration, clumping, or performance degradation.
For clients, the OEM model adds unique value. Manufacturers benefit from flexible production scales (from small-batch trials to large-volume orders) and end-to-end technical support: the R&D team assists in formula adjustment, compliance testing (meeting global standards like FDA or EU REACH), and even packaging customization to align with the client’s brand identity. This not only saves clients time and R&D costs but also helps their products stand out in competitive markets—turning “odor-free” into a key selling point.
In a market where consumer and industrial demand for pleasant, odor-free experiences grows daily, OEM Odor Control Additive emerges as a strategic partner. It does not just solve odor problems; it empowers clients to enhance product value, build brand trust, and capture new market opportunities.

In the realm of personal care, deodorants have become a daily essential, but consumers are increasingly seeking products that blend efficacy with eco-friendliness and comfort. This is where TPE deodorants stand out—a innovative solution that addresses both performance and sustainability needs.
TPE, a flexible and recyclable material, replaces traditional rigid plastics or harsh rubbers in deodorant components like applicators and packaging. Unlike conventional materials that often cause skin irritation due to rough edges, TPE’s soft, skin-friendly texture glides smoothly, reducing friction and discomfort during use. This flexibility also allows for precise application, ensuring the deodorant formula reaches targeted areas without waste.
Sustainability is another key advantage of TPE deodorants. TPE is fully recyclable and can be repurposed multiple times, minimizing plastic waste that clogs landfills. Many brands now use bio-based TPE, derived from renewable resources like plant oils, further lowering their carbon footprint. This aligns with the growing consumer demand for green personal care products that don’t compromise on quality.
Additionally, TPE’s durability ensures deodorant packaging   and applicators last longer, reducing the need for frequent replacements. Its resistance to moisture and chemicals also means it maintains integrity even when in contact with deodorant formulas, preventing leaks or degradation.
As the personal care industry shifts toward sustainability, TPE deodorants emerge as a forward-thinking choice. They offer the perfect balance of comfort, functionality, and environmental responsibility, proving that daily essentials can be both effective and kind to the planet. For consumers looking to make mindful choices, TPE deodorants are a small but impactful step toward a greener lifestyle.

Polymer deodorizing agents are specialized additives designed to eliminate or reduce unpleasant odors emitted by polymer materials during production, processing, or end-use. As polymers like plastics, rubbers, and composites find widespread use in daily products—from food packaging to automotive parts—controlling their inherent or residual odors has become critical for consumer acceptance and regulatory compliance.
These agents operate through two primary mechanisms: physical adsorption and chemical neutralization. Physical deodorizers, often based on porous materials like activated carbon, zeolites, or cyclodextrins, trap odor molecules within their microscopic pores, preventing their release into the air. Chemical deodorizers, such as organic amines or metal oxides, react with odor-causing compounds (e.g., volatile organic compounds, sulfur-containing gases) to form non-volatile, odorless byproducts, permanently neutralizing the source of the smell.
The choice of deodorizing agent depends on the polymer type and odor characteristics. For instance, zeolite-based agents excel in absorbing polar odors in polyolefins, while metal oxide composites are effective against sulfurous smells in rubber products. Modern formulations often combine both mechanisms to tackle complex odor profiles, ensuring broad-spectrum efficiency.
Applications span diverse industries. In food contact plastics, food-grade deodorizers eliminate residual monomer smells without compromising safety. Automotive interiors use these agents to reduce off-gassing from vinyl or polyurethane components, enhancing cabin air quality. In construction materials like PVC pipes or insulation foams, they mitigate odors during installation and long-term use.
Key advantages include compatibility with polymer processing conditions (e.g., high temperatures during extrusion), minimal impact on material properties (such as tensile strength or flexibility), and long-lasting performance. Recent advancements focus on eco-friendly formulations, using biodegradable carriers or renewable adsorbents, aligning with global sustainability trends.
As consumer demand for low-odor, high-quality polymer products grows, the development of efficient, versatile deodorizing agents continues to drive innovation, bridging material functionality with environmental and user comfort.

In the dynamic landscape of modern manufacturing, Bulk Plastic Odor Eliminator stands as a transformative solution addressing a critical challenge: the persistent, unwanted odors plaguing plastic products. These odors, often stemming from residual chemicals like solvents, plasticizers, and volatile organic compounds (VOCs), not only compromise product quality but also hinder consumer trust and regulatory compliance. By integrating advanced adsorption and neutralization technologies, this innovative formulation ensures large-scale plastic production meets the highest standards of purity and safety.

Core Technology and Formulations
Bulk Plastic Odor Eliminators operate through two primary mechanisms. Adsorption-based solutions, such as those containing activated carbon or zeolites, leverage porous structures to physically trap odor molecules. For instance, activated carbon’s high surface area efficiently captures aldehydes, benzene, and formaldehyde, common culprits in plastic off-gassing. **Reaction-based eliminators**, like Ecosorb’s plant oil–derived formulations, chemically neutralize odor-causing compounds. These formulations, free of harmful VOCs, break down volatile molecules into odorless byproducts, ensuring both effectiveness and environmental responsibility.

Manufacturers also employ specialized formulations like RT-10126, an alkaline compound that chelates harmful substances in recycled plastics while maintaining mechanical integrity. Such tailored solutions highlight the industry’s shift toward precision chemistry, balancing performance with sustainability.

Diverse Industrial Applications
The utility of Bulk Plastic Odor Eliminators spans industries:
– Packaging: Ensures food-grade plastics remain free from taints, safeguarding product integrity and consumer health.
– Automotive: Eliminates chemical smells in interior components, enhancing driver comfort and aligning with automotive quality benchmarks.
– Medical Devices: Meets stringent hygiene requirements by neutralizing odors in sterile environments, critical for patient safety.
– Recycling: Reduces foul odors in reprocessed plastics, expanding their use in applications like textiles and construction.

For example, a U.S. specialty plastics manufacturer faced neighbor complaints due to mercaptan emissions during production. By deploying Ecosorb 606 via a vapor-phase system, they achieved 95% odor reduction, resolving regulatory issues and maintaining operations. Similarly, a leading plastics producer used VOC collectors with activated carbon to eliminate flammable vapors from their office areas, ensuring worker safety and compliance.

Advantages Redefining Industry Standards
1. Efficiency: Acts rapidly, often within minutes, outperforming traditional methods like ventilation or chemical washing, which are time-consuming and resource-intensive.
2. Safety: Non-toxic formulations (e.g., plant-based Ecosorb, RoHS-compliant RT-10126) ensure compatibility with food packaging, medical devices, and sensitive environments.
3. Cost-Effectiveness: Reduces operational expenses by minimizing waste and reprocessing needs. For instance, integrating odor eliminators directly into resin during extrusion eliminates post-production treatments.
4. Sustainability: Supports circular economy goals by enhancing the viability of recycled plastics. Technologies like thermal decomposition and vacuum stripping, combined with odor eliminators, make reprocessed materials market-ready.

Market Dynamics and Future Outlook
The global odor eliminator market is projected to grow at a 5% CAGR from 2025 to 2033, reaching $9.7 billion by 2033. This growth is driven by:
– Regulatory Pressures: Stricter EU REACH and U.S. FDA standards mandate VOC reduction, pushing adoption of compliant solutions.
– Consumer Demand: Health-conscious buyers prioritize odor-free products, particularly in packaging and home goods.
– Technological Innovation: Enzyme-based formulations and smart sensors are emerging to tackle complex odor challenges in real time.

Bulk Plastic Odor Eliminators are not merely additives—they are enablers of quality, sustainability, and consumer confidence. By neutralizing harmful compounds at scale, these solutions empower manufacturers to meet regulatory demands, reduce environmental impact, and deliver products that align with modern expectations. As the industry evolves toward greener practices, Bulk Plastic Odor Eliminators will remain indispensable, bridging the gap between efficiency and responsibility. In an era where every molecule matters, this technology ensures plastics leave a positive impression—odorless, durable, and future-ready.

Volatile Organic Compounds (VOCs) pose significant environmental and health risks, prompting industries worldwide to adopt innovative solutions. Industrial VOCs removal additives have emerged as a cornerstone of modern emission control, offering efficient, cost-effective, and eco-friendly alternatives to traditional methods. These additives address the challenges of VOC off-gassing in manufacturing, packaging, and transportation, ensuring compliance with stringent regulations while enhancing product quality.

Mechanisms and Types of VOCs Removal Additives
VOCs removal additives operate through diverse mechanisms tailored to specific applications. Adsorbents, such as Clariant’s DESVOCANT, utilize naturally occurring bentonite clay to trap VOCs like benzene and formaldehyde in enclosed environments, preventing their release during shipping or storage. This non-toxic solution reduces the need for ventilation and minimizes customer returns due to lingering odors. Catalytic additives, like CAI Performance Additives’ LDV-1035T, employ surfactant-infused carriers to permanently eliminate VOCs during compounding, particularly in polypropylene (PP) and thermoplastic olefin (TPO) formulations used in automotive interiors. These additives achieve near-complete VOC removal while maintaining material integrity.

Biological additives represent another frontier. For instance, Tween 20, a non-ionic surfactant, enhances the efficiency of biotrickling filters by improving mass transfer and microbial activity, boosting the removal of hydrophobic VOCs like n-hexane by 15–20%. Such innovations highlight the integration of chemistry and biology to tackle complex pollution challenges.

Advantages Over Traditional Methods
Compared to conventional techniques like activated carbon adsorption or thermal oxidation, additives offer distinct advantages. They are cost-effective, with minimal energy consumption and low operational costs. For example, in-mold coating (IMC) technology developed by Nippon Paint and Uchihamakasei integrates resin molding and coating processes, reducing CO₂ emissions by 60% and achieving near-zero VOC release. Additives also improve product quality: DESVOCANT’s non-dusting properties make it ideal for light-colored goods, while LDV-1035T eliminates surface blooms in automotive components.

Moreover, additives align with sustainability goals. The global low-VOC coating additives market is projected to grow at a 5.5% CAGR, reaching $7.2 billion by 2032, driven by regulatory pressures and consumer demand for eco-friendly products. Companies like Imerys leverage mineral fillers (e.g., wollastonite and talc) to reduce resin demand in coatings, lowering VOC content without compromising performance.

Applications Across Industries
Industrial sectors are increasingly adopting VOCs removal additives. In automotive manufacturing, IMC technology and catalysts like LDV-1035T ensure compliance with REACH and EPA standards while enabling complex surface finishes. The packaging industry relies on DESVOCANT to mitigate VOC accumulation in enclosed shipments of textiles, furniture, and electronics, safeguarding both workers and end-users. In coating and paints, coalescing agents (e.g., Ox Film 351) and low-VOC defoamers (e.g., Tego Foamex 812) enhance film formation and reduce emissions in water-based formulations.

Future Directions
The field is evolving toward smart and sustainable solutions. Nanotechnology-based catalysts and bio-based additives (e.g., microbial-mineral blends) are being explored for higher efficiency and biodegradability. Additionally, hybrid systems—such as UV-ozone technology combined with water scrubbing, which achieves 98.5% VOC removal—demonstrate the potential of integrated approaches.

Volatile Organic Compounds (VOCs) are a major group of pollutants in industrial emissions. They are released from various industrial processes such as painting, printing, chemical manufacturing, and more. VOCs not only contribute to the formation of smog and ozone in the atmosphere but also pose significant risks to human health, causing respiratory problems, headaches, and in severe cases, even cancer. As environmental regulations become increasingly stringent worldwide, industries are under great pressure to reduce their VOCs emissions. This is where Industrial VOCs Removal Additives come into play.
These additives are specifically designed to mitigate the release of VOCs. They work through several mechanisms. Some additives act as adsorbents, like certain zeolite – based materials. Zeo Flair series, for example, has a three – dimensional open structure. Zeo Flair 100/110 is a highly active, hydrophobic adsorbent that can effectively and permanently adsorb a wide range of hydrocarbons, solvents, and other toxic and non – toxic substances down to ppm levels, even in the presence of water. It strongly selects and adsorbs a wide range of VOCs/odors from the air based on organic compositions.
In the automotive industry, VOCs emitted from interior materials such as plastics, carpets, and adhesives are a concern. Aq Fresh, a new additive technology, has been incorporated into nonwovens, coated textiles, and plastics in automotive interior parts. It contains cucurbiturils, barrel – shaped molecules that can tightly bind a wide spectrum of unwanted VOC molecules, significantly reducing VOC and odor emissions.
Industrial VOCs Removal Additives also find applications in the pharmaceutical industry. 1 – ethyl – 3 – methylimidazolium acetate ((emim)(ac)) has been used to absorb dichloromethane and ethanol, two common pharmaceutical VOCs. The results showed high removal ratios, demonstrating the effectiveness of this ionic – liquid – based additive.
The benefits of using these additives are numerous. They help industries comply with environmental regulations, avoiding potential fines and reputational damage. From an economic perspective, they can reduce the need for additional handling or “airing out” of products, such as in the case of packaged goods where VOC – related odors might otherwise lead to customer rejects and returns. For example, DES VOCANT, made from a naturally – occurring bentonite clay mineral, helps control and eliminate the accumulation of VOCs from products enclosed in packaging, reducing the need for container ventilation during shipping.
Moreover, these additives are often non – toxic and easy to handle, and can be disposed of with normal industrial waste in some cases. In the future, with the continuous development of technology, Industrial VOCs Removal Additives are expected to become even more efficient and cost – effective. New materials and formulations will be developed to target a wider range of VOCs and to work under more complex industrial conditions, contributing to a cleaner and more sustainable industrial environment.