Production of Cosmetics and Personal Care Products
EKATO SYSTEMS offers state of the art vacuum processing units for decades, with long term experience in the cosmetic industry to meet todays and tomorrows demands. As one of the technology leader for production equipment in the cosmetic business, the EKATO product lines UNIMIX and SOLIDMIX are able to produce various product formulations.
The production of cosmetic products is demanding different component properties to a production unit. Besides mixing and dispersing, short heating and cooling phases, degassing and different dosing methods are very important to reach the requested product quality.
The processing steps to produce ointments and creams can be divided into the following basic operations:
Dosing
Draw in liquids and solids by vacuum
Dispersing / Homogenizing
Dispersing of liquids during emulsification
Dispersing of non-reactive and reactive solids
Mixing
Incorporation of components
Degassing of products at the end of the production process by high vacuum
Heating and cooling
Melting of waxes and fats
Controlled cooling
Cleaning
CIP (cleaning-in-place)
SIP (sterilization-in-place)
EKATO Mixers for Range of Viscosity Levels
The mixing process generally starts with the liquid having a very low viscosity but ends with a very high viscosity so that the production equipment and also the mixing and homogenizing equipment must be able to work optimally over a wide viscosity range. EKATO SYSTEMS processing units are fully equipped and, with the EKATO PARAVISC and EKATO S-JET, offer multiple options to produce all kinds of cosmetics for highest customer demands.
Typical Products which can be Produced with an EKATO UNIMIX
Creams & Lotions
High and reproducible quality combined with s
small droplet sizes and narrow droplet size distributions, EKATO comes up with several technical solutions to meet the needs of the cosmetical industry and allows to produce almost every kind of product with different requirements and properties.
hort batch times are challenging demands often seen in the cosmetical industry. To reach the required texture of the products with
Types
Emulsion types O/W (lotions) and O/W (creams)
Body lotion, body milk, care lotion
Car cream, day cream, night cream, skin cream, hand cream, foot cream, sun cream, pharmaceutical cream
A lot of different ingredients with various shapes, viscosities, consistencies, and appearances are used for the manufacturing of creams and lotions
In order to reach a high-quality cream or lotion, the mixing unit must be able to handle all the ingredients
Throughput References
3000 L body lotion in 2.5 h (clean to clean: 4 h)
20,000 L shampoo or conditioner in 8 h (clean to clean: 10 h)
Process Steps – Their Challenges & How EKATO Handles Them
Melting Fat Phase Ingredients
Avoid energy losses during melting of low volumes
Divided double jacket with two separate heating and cooling zones
Fast dispersion of powders in melted fat phase
S-JET Homogenizer allows immediate dispersion
In a pre-phase vessel, a fast-running mizer disc is used
Phase Transfer and Emulsifying
Avoid splashing and air entrapment
Internal recirculation to pump product back into the vessel sub-surface
Immediate dispersion of incoming phase
Incoming material added directly into high shear zone of S-JET homogenizer
Realize short homogenizing times
Various homogenizer sizes provide ideal pump rates for all available vessel sizes
Reaching small and narrow droplet size distributions
Best possible energy density through highest shear rates inside S-JET homogenizer
Heating & Cooling
Fast heating and cooling to significantly reduce batch time
Effective mixing with PARAVISC agitator in axial and radial direction to shorten heating and cooling times
Increased number of scrapers possible to further optimize heating and cooling steps
Equal temperature distribution all over the product
Effective mixing with PARAVISC agitator in axial and radial direction allows equal temperature distribution
Two temperature probes (baffle & bottom) to verify ideal temperature distribution
Deaeration
Assure fast and full deaeration of the product
The axial mixing characteristic of the PARAVISC agitator transports entrapped air to the surface even at highest viscosities
Vacuum up to -950 mbar possible
Prevent foam of rising too high
Degassing in multiple steps
Foam detector possible
Discharge
Fast discharge with adjustable shearing
Variable S-JET homogenizer speed to adapt discharge flow and avoid over-shearing
Overpressure possible to support discharging
Achieving high yield
Internal homogenization to avoid residues in the external recirculation line
Scrapers actively remove material from vessel wall
Overpressure can be used to discharge residues between S-JET homogenizer and outlet valve as well
Mascara
Efficient Homogenization & Cooling
Efficient homogenization and a well-controllable cooling step after emulsification are key factors to guarantee a well-working mascara process with perfect and repeatable batch qualities. These topics are addressed by some of EKATO UNIMIX’s USP and help to produce a wide range of various mascara types no matter what scale of production capacity.
Types
Volume
Waterproof
Cream
Long lash
Thickening
Throughput References
Strongly depends on formulation and site conditions
Process Steps – Their Challenges & How EKATO Handles Them
Addition of Material
Addition of small material amounts without losses
Small amounts can be added through the sight glass or a separate addition port on the lid
Fast distribution of reactive powders without creating lumps
Sub-surface addition with vacuum directly into high shear zone
Axial and radial mixing for equal distribution inside the vessel
Fast addition of large, non-reactive powder quantities without dust formation
Sub-surface addition with vacuum via bottom valve for fast and dust-free intake
Avoid air entrapment during addition
Adjustable amount of false air during sub-surface addition
Quick degassing after addition to prevent micronization of air in subsequent homogenizing steps
Avoid fine powders of being dragged into the vacuum line
Materials are mostly added sub-surface and therefore immediately mixed with the liquids
Adjustable vacuum levels and opening angles of addition valves allow precise control over addition
Heating & Cooling
Fast heating and cooling to significantly reduce batch time
Effective mixing with PARAVISC agitator in axial and radial direction to shorten heating and cooling times
Increased number of scrapers possible to further optimize heating and cooling steps
Equal temperature distribution all over the product
Effective mixing with PARAVISC agitator in axial and radial direction allows equal temperature distribution
Two temperature probes (baffle & bottom) to verify ideal temperature distribution
Homogenizing
Short homogenizing times even at large scale vessels
Six different S-JET homogenizer sizes provide suitable pump rates for all vessel volumes
Achieving small droplet sizes
Small shear gaps between rotor and stator result in maximum shear rates that allow droplet sizes down to few microns
Create narrow droplet size distribution for stable emulsion
All product which enters the homogenizer is forced to pass the high shear zone between rotor and stator
The PARAVISC agitator actively feeds the homogenizer by pushing down the product in the upper part of the vessel to avoid unhomogenized spots
Internal and external homogenization allows constant exchange of product over the whole liquid column
Adjustable shear rates to control energy input
Wide range of homogenizer speeds possible to control shearing
Minimum speed or interval mode is used for cooling to shorten cooling times
Discharge
Fast discharge with adjustable shearing
Variable S-JET homogenizer speed to adapt discharge flow and avoid over-shearing
Overpressure possible to support discharging
Achieving high yield
Internal homogenization to avoid residues in the external recirculation line
Scrapers actively remove material from vessel wall
Overpressure can be used to discharge residues between S-JET homogenizer and outlet valve as well
Shampoo & Conditioner
High Throughput & Flexibility
Highest throughputs with maximum flexibility in regards to the product variety and process sequence are typically the most important objectives for manufacturers in the personal care branch. Often manufacturers deal with insufficient mixing and homogenizing capabilities and as a result need lots of production machines to achieve their production goals. Ensuring short batch times no matter what machine size with the PARAVISC’s axial and radial mixing and the wide range of homogenizer sizes, EKATO’s UNIMIX plant delivers solutions for every process and provides best possible productivity.
Throughput References
1000 L in 2 h (clean to clean 3 h)
20000 L in 8-10 h (clean to clean 11-13 h)
Process Steps – Their Challenges & How EKATO Handles Them
Dosing Liquids
Fast addition of large liquid quantities
Fast addition with vacuum into homogenizer liquid port or from utility line
Accurate dosing
Flow meters or load cells for precise dosing
Melting Fat Phase Ingredients
Avoid energy losses during melting of low volumes
Divided double jacket with two separate heating and cooling zones
Fast dispersion of powders in melted fat phase
S-JET Homogenizer allows immediate dispersion
In a pre-phase vessel a fast running mizer disc is used
Phase Transfer and Emulsifying
Avoid splashing and air entrapment
Internal recirculation to pump product back into the vessel sub surface
Immediate dispersion of incoming phase
Incoming material added directly into high shear zone of S-JET homogenizer
Realize short homogenizing times
Various homogenizer sizes provide ideal pump rates for all available vessel sizes
Addition of Material
Avoid air entrapment during addition
Adjustable amount of false air during sub-surface addition
Quick degassing after addition to prevent micronization of air in subsequent homogenizing steps
Avoid fine powders of being dragged into the vacuum line
Materials are mostly added sub surface and therefore immediately mixed with the liquids
Adjustable vacuum levels and opening angles of addition valves allow precise control over addition
Heating & Cooling
Fast heating and cooling to significantly reduce batch time
Effective mixing with PARAVISC agitator in axial and radial direction to shorten heating and cooling times
Increased number of scrapers possible to further optimize heating and cooling steps
Equal temperature distribution all over the product
Two temperature probes (baffle & bottom) to verify ideal temperature distribution
Homogenizing
Short homogenizing times even at large scale vessels
Six different S-JET homogenizer sizes provide suitable pump rates for all vessel volumes
Achieving small droplet sizes
Small shear gaps between rotor and stator result in maximum shear rates that allow droplet sizes down to few microns
Create narrow droplet size distribution for stable emulsion
The PARAVISC agitator actively feeds the homogenizer by pushing down the product in the upper part of the vessel to avoid unhomogenized spots
Mixing
Short mixing times at all viscosities and vessel sizes
Axial and radial mixing shortens needed mixing time even at high viscosities and largest vessel volumes
Fast mixing of small material amounts which are added from top
Curved blades of the PARAVISC agitator actively push down material lying on the surface
Deaeration
Assure fast and full deaeration of the product
The axial mixing characteristic of the PARAVISC agitator transports entrapped air to the surface even at highest viscosities
Vacuum up to -950 mbar possible
Prevent foam of rising too high
Degassing in multiple steps
Foam detector possible
Discharge
Achieving high yield
Internal homogenization to avoid residues in the external recirculation line
Scrapers actively remove material from vessel wall
Overpressure can be used to discharge residues between S-JET homogenizer and outlet valve as well
Softgel - Capsules
Main Task of a Softgel Mixer
The main task of a softgel mixer is to provide short mixing times and high reproducible quality with best possible yields. Besides that, lump formation is one of the main problems many softgel producers have to deal with. To tackle all these challenges, EKATO’s unique PARAVISC agitator allows an ideal axial and radial mixing while avoiding lump formation effectively. This improved mixing behavior also further optimizes the heat transfer and reduces heating and cooling times significantly.
Types
Traditional gelatin shell based on animal gelatin (porcine or bovine)
Improved performance: harder and more resistant to higher temperatures
Throughput References
1000 L in 1.25 h (clean to clean: 2.5 h)
2000 L in 2 h (clean to clean: 3 h)
Process Steps – Their Challenges & How EKATO Handles Them
Addition of Material
Addition of small material amounts without losses
Small amounts can be added through the sight glass or a separate addition port on the lid
Fast addition of large, non-reactive powder quantities without dust formation
Sub-surface addition with vacuum via bottom valve for fast and dust-free intake
Avoid air entrapment during addition
Adjustable amount of false air during addition
Avoid fine powders of being dragged into the vacuum line
Materials are mostly added sub surface and therefore immediately mixed with the liquids
Adjustable vacuum levels and opening angles of addition valves allow precise control over addition
Heating & Cooling
Fast heating and cooling to significantly reduce batch time
Effective mixing with PARAVISC agitator in axial and radial direction to shorten heating and cooling times
Equal temperature distribution all over the product
Two temperature probes (baffle & bottom) to verify ideal temperature distribution
Mixing
Short mixing times at all viscosities and vessel sizes
Axial and radial mixing shortens needed mixing time even at high viscosities and largest vessel volumes
Fast mixing of small material amounts which are added from top
Curved blades of the PARAVISC agitator actively push down material lying on the surface
Deaeration
Assure fast and fully deaeration of the product
The axial mixing characteristic of the PARAVISC agitator transports entrapped air to the surface even at highest viscosities
Vacuum up to -950 mbar possible
Prevent foam of rising too high
Degassing in multiple steps
Foam detector possible
Discharge
Fast discharge with adjustable shearing
Variable S-JET homogenizer speed to adapt discharge flow and avoid over-shearing
Overpressure possible to support discharging
Achieving high yield
Internal homogenization to avoid residues in the external recirculation line
Scrapers actively remove material from vessel wall
Overpressure can be used to discharge residues between S-JET homogenizer and outlet valve as well
Additional Information
Traditional gelatin is shear sensitive – no homogenizer required
No agglomerates: no filter needed
Flexible system for different recipes and batch sizes (30-100% of usable machine volume)
Many applications possible: drugs, minerals, vitamins, or supplements (e.g., Omega 3)
License fees and the cost of raw materials and manufacturing are currently higher than the cost of traditional gelatin. Optimized processes like on EKATO equipment, however, narrows the cost gap significantly and make the non-animal based formulations very competitive.
Toothpaste
The Production of Toothpaste
The production of toothpaste is a very shear-intensive process with a highly abrasive and complex product. Short homogenization times, extensive foaming, harsh CIP conditions are only a few of the challenges that need to be solved when it comes to toothpaste production. EKATO offers solutions for each of these challenges and is able to produce every kind of toothpaste within the required product specification, batch by batch.
Types
Aqueous pastes
Non-aqueous pastes
Clear gel
Silica based
Calcium carbonate based
etc.
Throughput References
Throughput Details
Machine Size
Batch Size [t/batch]
Production Time [h]
SRA 2000
3.0
≈1.5
SRA 3000
4.5
≈2
SRA 5000
7.5
≈4
SRA 10000
15.0
≈8
Specified times may vary due to formulations and process conditions.
Additional cleaning after every 10th batch: ca. 2.5 h
Process Steps – Their Challenges & How EKATO Handles Them
Dosing Liquids
Fast addition of large liquid quantities
Fast addition with vacuum into homogenizer liquid port or from utility line
Accurate dosing
Flow meters or load cells for precise dosing
Addition of Material
Addition of small material amounts without losses
Small amounts can be added through the sight glass or a separate addition port on the lid
Fast distribution of reactive powders without creating lumps
Sub-surface addition with vacuum directly into high shear zone
Axial and radial mixing for equal distribution inside the vessel
Fast addition of large, non-reactive powder quantities without dust formation
Sub-surface addition with vacuum via bottom valve for fast and dust-free intake
Avoid air entrapment during addition
Adjustable amount of false air during sub-surface addition
Quick degassing after addition to prevent micronization of air in subsequent homogenizing steps
Avoid fine powders of being dragged into the vacuum line
Materials are mostly added sub surface and therefore immediately mixed with the liquids
Adjustable vacuum levels and opening angles of addition valves allow precise control over addition
Homogenizing
Short homogenizing times even at large scale vessels
Six different S-JET homogenizer sizes provide suitable pump rates for all vessel volumes
Achieving small droplet sizes
Small shear gaps between rotor and stator result in maximum shear rates that allow droplet sizes down to few microns
Create narrow droplet size distribution for stable emulsion
All product which enters the homogenizer is forced to pass the high shear zone between rotor and stator
The PARAVISC agitator actively feeds the homogenizer by pushing down the product in the upper part of the vessel to avoid unhomogenized spots
Internal and external homogenization allows constant exchange of product over the whole liquid column
Adjustable shear rates to control energy input
Wide range of homogenizer speeds possible to control shearing
Minimum speed or interval mode is used for cooling to shorten cooling times
Deaeration
Assure fast and fully deaeration of the product
The axial mixing characteristic of the PARAVISC agitator transports entrapped air to the surface even at highest viscosities
Vacuum up to -950 mbar possible
Prevent foam of rising too high
Degassing in multiple steps
Foam detector possible
Discharge
Fast discharge with adjustable shearing
Variable S-JET homogenizer speed to adapt discharge flow and avoid over-shearing
Overpressure possible to support discharging
Achieving high yield
Internal homogenization to avoid residues in the external recirculation line
Scrapers actively remove material from vessel wall
Overpressure can be used to discharge residues between S-JET homogenizer and outlet valve as well
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