What is the application of enzyme preparations in oral care?
Hello, I’m Harold, a recipe developer who has been working with enzymes in the biochemistry laboratory for 15 years. Today I’ll show you the “live” toothpaste in the tube on my desk – yes, while other colleagues are still researching the chemical composition, our team is redefining the future of oral care through enzyme preparations. Fasten your seatbelts, this journey of exploring biological enzymes will overturn your understanding of toothpaste.
1. Enzyme preparations: a revolution from the laboratory to the toothbrush
While studying for a PhD in biocatalysis at Cambridge, I experienced the “golden decade” of enzyme preparations first-hand. Data shows that the global enzyme-based oral care market reached 4.7 billion US dollars in 2023, with an average annual growth rate of 18.3% – this is not just a trend, but also the result of consumers voting with their wallets. Compared with traditional chemical preparations, the advantages of enzyme preparations are:
• 62% increase in targeted removal rate (ADA clinical data)
• 89% reduction in oral mucosal irritation
• 24-hour sustained bacteriostatic effect
• Biodegradable and environmentally friendly
A volunteer with an allergy to SLS said in a double-blind test: “For the first time, brushing my teeth didn’t feel burning, it’s like a spa for my gums.” This is exactly the gentle and efficient nature of enzymes.
2. How the four major enzyme systems can reshape your oral ecology
2.1 Glucose oxidase: the end of tooth decay
(Insert a comparison of enamel restoration under an electron microscope. Alternative text: Comparison of the microscopic structure of enamel before and after enzyme treatment)
The third-generation glucose oxidase modified by our team can maintain activity in the pH range of 5.5-7.8, which is typical of the oral environment. Its unique features are
- Targeted decomposition of gluconic acid in dental plaque
- slowly releases hydrogen peroxide (less than 0.03% per hour)
- forms a protective biofilm
- promotes enamel remineralization
Clinical trials have shown that after 6 weeks of continuous use, the caries activity of the experimental group was reduced by 73%. This reminds me of a research trip to Tanzania, where I discovered that the traditional method of cleaning teeth with natural enzymes actually coincides with modern technology.
2.2 Glucanase: the invisible plaque scavenger
Last year, we dealt with the precipitation and crystallization problem of a certain brand of toothpaste and found that the stability of β-glucanase is the key. We used molecular grafting technology to increase its heat resistance to 45°C, which extended its shelf life in toothpaste to 24 months. This solves two major pain points in the industry:
✓ 40% increase in the efficiency of decomposing the plaque matrix
✓ Prevention of pigment deposition (91% coffee stain removal rate)
2.3 Protease: the “surgeon” for the gums
(insert a comparison chart of the gingival bleeding index, alternative text: statistics on the effect of protease on gingival bleeding)
The protease complex I developed has been approved by the FDA. The beauty of it is that
it specifically hydrolyzes necrotic tissue proteins
while preserving healthy collagen fibers
and activating gingival fibroblasts
One patient with gingivitis during pregnancy reported: “It’s like having minimally invasive surgery on swollen gums.” This is the beauty of the selective action of proteases.
2.4 Lysozyme: the oral microbiome balancer
During the coronavirus pandemic, we discovered the lysozyme’s lysing effect on the coronavirus envelope protein. Now we have developed sustained-release lysozyme microspheres:
→ Continuous release for 6-8 hours
→ broad-spectrum antibacterial rate of 99.2
→ maintains the diversity of oral flora
3. The blueprint for future enzyme preparations for oral care
(insert a concept diagram of an intelligent, responsive enzyme preparation, alternative text: schematic diagram of a pH-responsive enzyme controlled-release system)
The “Intelligent Enzyme Response System” project I am leading will achieve:
✔️ real-time monitoring of the oral environment
✔️ dynamic adjustment of enzyme activity
✔️ personalized release formulas
✔️ biosensor data feedback
Imagine, when a decrease in pH (caries risk) is detected, the system immediately activates glucanase; when a bleeding spot is detected, protease is released in a targeted manner – this is truly precise care.
Interactive thinking: If your usual toothpaste suddenly “came to life”, what smart functions would you like it to have? Feel free to share your whimsical ideas in the comment section!
Contact Us Now!
If you need Price, please fill in your contact information in the form below, we will usually contact you within 24 hours. You could also email me info@longchangchemical.com during working hours ( 8:30 am to 6:00 pm UTC+8 Mon.~Sat. ) or use the website live chat to get prompt reply.
| Compound Glucoamylase | 9032-08-0 |
| Pullulanase | 9075-68-7 |
| Xylanase | 37278-89-0 |
| Cellulase | 9012-54-8 |
| Naringinase | 9068-31-9 |
| β-Amylase | 9000-91-3 |
| Glucose oxidase | 9001-37-0 |
| alpha-Amylase | 9000-90-2 |
| Pectinase | 9032-75-1 |
| Peroxidase | 9003-99-0 |
| Lipase | 9001-62-1 |
| Catalase | 9001-05-2 |
| TANNASE | 9025-71-2 |
| Elastase | 39445-21-1 |
| Urease | 9002-13-5 |
| DEXTRANASE | 9025-70-1 |
| L-Lactic dehydrogenase | 9001-60-9 |
| Dehydrogenase malate | 9001-64-3 |
| Cholesterol oxidase | 9028-76-6 |