Place of Origin:
China
Brand Name:
RPS-SONIC
Certification:
CE
Model Number:
SONO-20-P3000
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Ultrasonic Homogenizer Mixing Machine Automatic with Screw Motor Milk Cosmetics Lotion Cream
What is the ultrasonic Mixing Machine ?
Ultrasonic mixing systems are used to disperse and mill particles, to emulsify oil and water phases, to solubilize solid matter and to produce homogeneous mixtures of any kind of materials in liquids and slurries.
The process of ultrasonic mixing typically involves the use of an ultrasonic mixer or a sonicator. The mixer consists of a generator that produces high-frequency electrical signals, which are then converted into mechanical vibrations by a transducer. These vibrations are transmitted to a probe or a horn, which is immersed in the liquid or mixture to be mixed.
Ultrasonic emulsifiers are increasingly used in the cosmetic industry for their ability to create stable emulsions and enhance product formulations. Here’s an overview of their applications and benefits:
What is an Ultrasonic Emulsifier?
An ultrasonic emulsifier uses high-frequency sound waves to create intense agitation in a liquid. This process helps to break down particles and droplets, allowing for the uniform mixing of oil and water phases, which is essential for emulsions.
Applications in the Cosmetic Industry
Emulsion Formation
Creams and Lotions: Ultrasonic emulsifiers are often used to produce stable creams and lotions by effectively blending oil and water phases.
Serums: They can help create high-performance serums with fine particle sizes for better absorption.
Product Stability
Enhanced Stability: The high shear forces generated by ultrasonic waves help reduce particle size, leading to more stable emulsions with a longer shelf life.
Minimized Separation: This technology reduces the likelihood of phase separation in emulsions.
Incorporation of Active Ingredients
Better Dispersion: Ultrasonic emulsifiers allow for the even distribution of active ingredients, such as vitamins, oils, and botanical extracts, enhancing their efficacy.
Nanoemulsions: They can produce nanoemulsions, which improve the bioavailability of active compounds.
Preparation of Suspensions
Uniform Distribution: Ultrasonic emulsifiers are also used to create uniform suspensions of solid particles in liquid formulations, such as exfoliating scrubs.
Cosmetic Manufacturing
Scalability: These emulsifiers can be scaled for both small batch and large-scale production, making them suitable for various manufacturing needs.
Benefits of Ultrasonic Emulsifiers
Efficiency: The emulsification process can be faster compared to traditional methods, saving time in production.
Quality: Products typically have improved texture and stability.
Energy Savings: Ultrasonic emulsification often requires less energy than conventional mechanical mixing.
Considerations
Equipment Cost: Initial investment in ultrasonic equipment can be high, but the benefits may outweigh the costs in the long run.
Formulation Expertise: Proper formulation knowledge is essential to achieve the desired product characteristics.
Conclusion
Ultrasonic emulsifiers are a valuable tool in the cosmetic industry, offering efficient and effective methods for creating stable, high-quality emulsions and enhancing the overall performance of cosmetic products. Their ability to improve formulation stability and ingredient efficacy makes them increasingly popular among manufacturers.
Parameter:
Item | sono-20-1000 | sono-20-2000 | sono-20-3000 | sono-15-3000 |
Frequency | 20khz±0.5 | 20khz±0.5 | 20khz±0.5 | 15khz±0.5 |
Power | 1000w | 2000w | 3000w | 3000w |
Voltage | 110 or 220V | |||
Max temp | 300℃ | |||
Max pressure | 35Mpa | |||
Itensity of sound | 20W/cm² | 40W/cm² | 60W/cm² | 60W/cm² |
Capacity | 10L/min | 15L/min | 20L/min | 20L/min |
Material of probe | Titanium |
What are the typical power levels used in ultrasonic homogenizers for different applications?
The power levels used in ultrasonic homogenizers can vary significantly depending on the specific application and the volume of the sample being processed. Here are some typical power levels for various applications:
1. Laboratory Applications :
Small-scale emulsification or disruption: Power Level: 50 to 200 watts Volume: Typically used for samples ranging from a few milliliters to a few liters.
2. Pharmaceutical Applications
Cell lysis and drug formulation: Power Level: 100 to 500 watts Volume: Generally used for batches from 1 liter to 10 liters, depending on the formulation requirements.
3. Food and Beverage Industry
Emulsification and homogenization: Power Level: 200 to 1,000 watts Volume: Can handle batches from 1 liter up to several hundred liters for large-scale production.
4. Cosmetic Applications
Emulsifying creams and lotions: Power Level: 100 to 1,000 watts Volume: Typically used in small to medium batches, around 1 to 10 liters.
5. Nanoparticle Synthesis
Dispersing nanoparticles in solutions: Power Level: 200 to 1,000 watts Volume: Often used for small-scale production, around 100 milliliters to 5 liters.
6. Industrial Applications
Large-scale processing: Power Level: 1,000 to 5,000 watts (or more for very large systems) Volume: Suitable for batches from tens to hundreds of liters or more, depending on the system design.
Summary
Low Power (50-200 watts): Small-scale laboratory applications.
Medium Power (200-1,000 watts): Food, cosmetic, and some pharmaceutical applications.
High Power (1,000 watts and above): Industrial applications requiring large volumes.
Can you explain the difference between homogenization and emulsification?
Homogenization and emulsification are both processes used to mix substances, but they serve different purposes and involve distinct mechanisms. Here’s a breakdown of the differences:
Homogenization
Definition: Homogenization is the process of making a mixture uniform in composition by breaking down larger particles into smaller, more evenly distributed particles.
Purpose: The primary goal is to achieve a consistent texture and prevent separation of components. This is often used in food and cosmetic products.
Mechanism: During homogenization, a mixture is subjected to high pressure or mechanical forces, which break down particles and reduce their size. This results in a uniform dispersion of solid particles or droplets throughout the liquid.
Applications: Commonly used in dairy products (like milk), sauces, and creams to ensure a smooth texture. In cosmetics, it helps create uniform lotions and creams.
Emulsification
Definition: Emulsification is the process of mixing two immiscible liquids (typically oil and water) to form a stable emulsion.
Purpose: The main objective is to combine oil and water phases into a stable mixture where one liquid is dispersed in the other. This is crucial for products like creams, lotions, and other emulsified formulations.
Mechanism: Emulsification involves the use of emulsifiers (surfactants) that lower the surface tension between the oil and water, allowing the two phases to mix. Mechanical agitation or ultrasonic waves may also be applied to create smaller droplets of one liquid dispersed in another.
Applications: Widely used in cosmetics (creams, lotions), food products (mayonnaise, dressings), and pharmaceuticals.
Key Differences
Feature Homogenization Emulsification
Purpose Create uniformity in particle size Combine immiscible liquids into a stable emulsion
Mechanism Reduces particle size through pressure/force Uses emulsifiers to mix oil and water
Product Types Liquids with solid particles, creams Oil-in-water or water-in-oil emulsions
Stability Aims for consistent texture Aims for stable suspension of two liquids
Conclusion
While both processes aim to create stable mixtures, homogenization focuses on particle size reduction for uniformity, whereas emulsification specifically targets the stable mixing of two immiscible liquids. Understanding these differences is crucial when formulating products in the cosmetic, food, and pharmaceutical industries.
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