Toothpaste Mixing Machine

A toothpaste mixing machine combines powder wetting and dispersion, high-viscosity agitation, high-shear homogenization, vacuum deaeration, and controlled heating and cooling in one batch-processing system. The main vessel and mixing elements are configured to maintain bulk movement as abrasives, humectants, binders, surfactants, active ingredients, flavors, and other materials develop into a viscous paste.

URMACHINE Toothpaste Mixing Machine Solution

Specification	UR-5	UR-10	UR-20	URZRJ-30	URZRJ-50	URZRJ-100	URZRJ-150	URZRJ-200	URZRJ-350	URZRJ-500	URZRJ-750	URZRJ-1000	URZRJ-2000
Volume / Capacity	5L / 7L	10L / 15L	20L / 30L	30L	50L	100L	150L	200L	350L	500L	750L	1,000L	2,000L
Homogenizer Power	0.75 kW	0.75 kW	1.5 kW	1.5 kW	3 kW	3 kW	4 kW	4 kW	5.5 kW	7.5 kW	11 kW	11 kW	22 kW
Homogenizer Speed	3,500 rpm	3,500 rpm	3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm	0–3,500 rpm
Scraper Mixer Power	0.55 kW	0.55 kW	0.75 kW	0.75 kW	0.75 kW	1.5 kW	1.5 kW	1.5 kW	2.2 kW	2.2 kW	3.7 kW	3.7 kW	7.5 kW
Scraper Mixer Speed	0–70 rpm	0–70 rpm	0–60 rpm	0–70 rpm	0–70 rpm	0–70 rpm	0–70 rpm	0–70 rpm	0–70 rpm	0–50 rpm	0–50 rpm	0–50 rpm	0–50 rpm
Heating Options	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam	Electric or steam

Toothpaste Vacuum Emulsifying Mixer

Built for Precision Toothpaste Homogenization & Deaeration

This high-viscosity vacuum mixer integrates powder wetting, binder hydration, uniform solids dispersion, and continuous vacuum deaeration into one robust system. Engineered for oral care manufacturers requiring dense, smooth, and air-free paste formulations.

Toothpaste Products You Can Process

Share the toothpaste type, general formulation structure, powder or abrasive content, estimated viscosity, batch size, and required documentation before the final system is configured. Product trials may be needed when a formula contains unusual solids, high abrasive loading, difficult-to-wet powders, or sensitive active ingredients.

Standard Fluoride Toothpaste

Standard white toothpaste commonly combines humectants, water-soluble ingredients, binders, abrasives, surfactants, flavors, and active materials. The mixing sequence should support controlled powder incorporation, binder hydration, uniform dispersion, and vacuum deaeration without excessive air entrainment.

Whitening Toothpaste

Whitening products may contain polishing solids or other powders that increase the demand on wetting, dispersion, wear resistance, and cleaning. The selected contact materials, seal arrangement, mixer speed, and high-shear stages should be reviewed against the actual solids and target paste texture.

Gel Toothpaste

Transparent or translucent gel toothpaste requires controlled hydration and mixing so that the gel structure develops consistently. Air bubbles are particularly visible in clear products, making ingredient-addition order, vacuum timing, temperature, and low-aeration finishing agitation important configuration considerations.

Sensitive-Care Toothpaste

Sensitive-care formulas may include active ingredients and fine powders that need a defined addition stage and controlled exposure to temperature and shear. The process should allow the active components to be introduced and distributed according to the manufacturer's approved formulation procedure.

Herbal Toothpaste

Herbal toothpaste may contain extracts, colors, flavors, and plant-derived powders with different wetting and temperature sensitivities. Feeding method, dispersion time, filter or screen needs, and cleaning procedures should be assessed from the actual ingredient form and batch sequence.

Specialty Dental Pastes

Specialty dental pastes can range from soft gels to dense abrasive compounds. Mixer configuration should account for solids loading, viscosity development, required uniformity, heat sensitivity, changeover frequency, and the ability to discharge or transfer the finished paste without excessive product loss.

Schematic diagram of the Toothpaste Mixing Machine

Explore detailed structural breakdowns and component layouts

1 / 9

Toothpaste Mixing Machine Working Video

Watch a vacuum toothpaste mixer perform ingredient charging, bulk agitation, high-shear processing, vacuum deaeration, temperature control, and paste discharge. The exact sequence, speeds, vacuum stages, and process time depend on the formulation and selected equipment configuration.

How to Specify Your Toothpaste Mixer

Provide the following information so the toothpaste manufacturing equipment can be matched to the formulation, batch process, and production environment. These details allow the technical team to review vessel size, powder feeding, bulk agitation, dispersion, homogenization, vacuum, temperature control, discharge, controls, and auxiliary systems as one process.

ENQUIRY URMACHINE

Toothpaste type and general formulation description: Specify white paste, gel toothpaste, whitening toothpaste, sensitive-care toothpaste, herbal toothpaste, or another dental paste.
Powder, abrasive, and active-ingredient content: List the general type and approximate loading of solids that influence wetting, dispersion, abrasion, and cleaning.
Estimated viscosity during and after processing: Provide the expected viscosity range, preferably in cP or mPa·s, and explain how the paste changes as binders hydrate and powders are added.
Target working batch and minimum batch size: State the normal production batch and the smallest batch the equipment must process effectively.
Required finished-product characteristics: Describe appearance, texture, density, acceptable air content, and any in-house quality checks used to release the batch.

Liquid, binder, and powder addition sequence: Explain when water, humectants, binders, abrasives, surfactants, active ingredients, flavors, and colors are introduced.
Hydration, dispersion, and final processing temperatures: Provide the target temperature range for each important stage.
Heat-sensitive ingredients or temperature limits: Identify flavors, active ingredients, extracts, or other materials that require controlled late-stage addition.
Powder and liquid feeding method: Indicate whether materials will be charged manually, through a hopper, by vacuum suction, from an auxiliary vessel, or through an automated dosing interface.
Available preparation time: Share any required hydration, premixing, dispersion, cooling, or holding time that influences vessel and utility selection.

Required powder-wetting and dispersion stages: Describe which powders are difficult to wet, likely to agglomerate, or sensitive to excessive shear.
Homogenization or recirculation requirements: State whether the process needs in-vessel high-shear mixing, external circulation, a separate mill, or another project-specific arrangement.
Foaming behavior and vacuum sequence: Explain when air enters the product and whether vacuum is needed during charging, mixing, finishing, or transfer.
Preferred cleaning method and product-change frequency: State whether manual cleaning, COP, or a CIP-compatible arrangement is expected and how often formulas or colors change.
Finished-paste discharge and transfer: Identify whether the product will use a bottom outlet, hydraulic tilting, vacuum transfer, or a positive-displacement transfer pump.

Product-contact material and surface finish: Specify the required stainless-steel grade, internal polish, weld treatment, and supporting documents for the selected project.
Seal and gasket compatibility: Share the abrasive content, flavor oils, cleaning agents, operating temperature, and other information needed to review product-contact elastomers and mechanical seals.
Control preference: Choose manual controls, push-button operation, or PLC/HMI control with project-specific recipes, alarms, and batch records as required.
Instrumentation: Identify temperature, vacuum, speed, load, level, or other process values that operators must monitor or record.
Local voltage, frequency and phase: Provide the factory power standard, such as 220 V, 380 V, or 415 V; 50/60 Hz; and single- or three-phase as applicable.

Auxiliary preparation vessels: Confirm whether separate liquid, binder, gel, or premix tanks are required and describe what each vessel must prepare.
Available utilities: Provide electric-power capacity, steam pressure, cooling-water temperature and flow, compressed-air conditions, and chiller information where applicable.
Installation area and access: State doorway width, ceiling height, floor loading, maintenance clearance, and preferred equipment layout.
Destination country and receiving port: Supply the delivery location for packing, transport, and documentation review.
Required project documents: List material certificates, drawings, manuals, FAT, SAT, IQ/OQ support, CE documentation, or other project-specific requirements.
Downstream equipment: Identify the holding, transfer, tube filling, labeling, cartoning, or case-packing equipment that will receive the finished toothpaste.

Why Configure Your Toothpaste Mixing Machine with URMACHINE?

URMACHINE configures laboratory and industrial toothpaste mixing systems around the formulation, working batch, powder-loading method, viscosity development, process sequence, and factory conditions—from product trials to commercial batch manufacturing.

🧪 Laboratory to Industrial Capacity Coverage
🛡️Toothpaste-Specific Mixing Configuration
🔥 Flexible Thermal and Auxiliary Options

The published range covers 5 L, 10 L and 20 L laboratory systems as well as URZRJ industrial models from 30 L to 2,000 L. This allows buyers to discuss formulation trials, pilot work and commercial production with the same equipment supplier while keeping each machine specification separate.

URMACHINE's current laboratory model table specifies SUS316L for product-contact material and SUS304 for other structural material. Material grade for an industrial model, auxiliary vessel, pipe, valve or optional component should be confirmed in the technical proposal rather than inferred from the laboratory range.

The published laboratory and industrial model tables list electric or steam heating. The appropriate method depends on processing temperature, batch size, local utilities and the required heating profile. Cooling-water conditions should also be supplied during configuration review.

The machine should be selected from the formula outward: first the product type, viscosity, batch and process stages; then the vessel, agitation, homogenizer, vacuum, temperature control, discharge and controls. This requirements-led approach is more reliable than selecting a machine from capacity alone.

Choose the Right Capacity for Toothpaste R&D and Production

Select the toothpaste mixer capacity according to the actual working batch, minimum batch, solids loading, viscosity, changeover pattern, and production target—not only the nominal vessel volume.

R&D & Lab Scale

5 L, 10 L and 20 L Models

Laboratory toothpaste mixers support formulation development, sample preparation, ingredient-screening trials, and pilot batches. They allow teams to study powder-addition order, hydration, temperature, agitator speed, homogenization, vacuum timing, and discharge behavior before an industrial configuration is selected.

Lab Vacuum Emulsifier Mixer →

Pilot & Small Batch

30 L to 200 L Models

These industrial capacities may suit pilot manufacturing, smaller commercial batches, new product launches, and facilities that run several toothpaste formulas with frequent changeovers. Selection should be based on required working volume, minimum operating volume, powder-loading method, cleaning time, and downstream filling demand.

Full Commercial Scale

350 L to 2,000 L Models

Larger systems are intended for higher batch volumes and require project review of utilities, floor space, powder handling, vessel access, cleaning, paste discharge, transfer, and filling interfaces. Production output cannot be calculated from vessel volume alone because powder charging, hydration, deaeration, cleaning, and filling schedules vary by formula and site.

Vacuum Emulsifying Mixer Range →

Configuration	Typical Use	Capacity Coverage	Core Functions	Common Options
Laboratory toothpaste mixer	Formula development, samples, process trials, and pilot batches	5 L, 10 L, and 20 L	Scraper mixing, powder dispersion, homogenization, vacuum, heating, and cooling	Control upgrades, auxiliary heating or cooling equipment, vessel accessories
Industrial toothpaste mixer	Routine batch production of white, gel, herbal, and specialty toothpaste	30 L to 2,000 L	High-viscosity agitation, high-shear processing, vacuum deaeration, and temperature control	Powder-feeding interfaces, auxiliary vessels, homogenizer arrangement, discharge, controls, and cleaning devices
Custom toothpaste mixing system	Formulations or factory layouts requiring a tailored process	Project-dependent	Functions selected around the formulation, batch sequence, powder handling, and plant layout	Automated transfer, auxiliary preparation, external circulation or milling, recipe control, CIP-compatible devices, and downstream connections

Emulsifier Operation, Cleaning, and Maintenance Support

A high-performance vacuum emulsifying machine depends on proper operation, thorough cleaning and sanitation, routine system inspection, and timely replacement of high-shear wear parts. Before operation, operators should follow the instruction manual and verified parameters for the specific formulation.

Toothpaste Mixing Machine FAQ

A toothpaste mixing machine is a batch-processing system used to wet and disperse powders, mix high-viscosity material, homogenize the formulation, manage entrained air under vacuum, and control product temperature. A typical vacuum configuration combines a sealed main vessel, low-speed wall-scraping agitator, high-shear homogenizing or dispersing component, vacuum system, and heating/cooling jacket. The correct arrangement depends on the toothpaste type, solids content, viscosity, batch size, and manufacturing sequence.

Powder charging, high-shear processing, recirculation, and surfactant addition can introduce or retain air in a viscous paste. Vacuum helps manage this air during selected process stages and may support material transfer when the system is configured for it. The appropriate vacuum sequence depends on foaming behavior, ingredient volatility, viscosity, vessel fill level, and the selected feeding method.

Powders may be charged manually through a vessel opening, introduced through a hopper, drawn into the vessel by vacuum, or supplied by an automated feeding interface. The correct method depends on powder volume, dust control, wetting behavior, batch size, operator handling, and automation needs. Highly abrasive or difficult-to-wet materials should be reviewed before the feeding and dispersion system is selected.

It may be possible when the working volume, agitation, high-shear arrangement, vacuum control, seals, cleaning method, and discharge system suit both formulations. White toothpaste may place greater demand on powder and abrasive dispersion, while transparent gel toothpaste makes bubble control and carryover more visible. Provide process details for both products before one configuration is selected.

Choose capacity from the required working batch and minimum batch rather than nominal vessel size alone. URMACHINE supplies 5 L, 10 L, and 20 L laboratory models for development and trials, followed by industrial models from 30 L to 2,000 L. Also consider powder-loading time, viscosity, changeover frequency, cleaning, available utilities, installation space, and downstream filling capacity.

Yes. The published model range uses jacketed vessels and lists electric or steam heating options. Cooling normally uses factory cooling water or a connected chiller circuit. Buyers should provide hydration and process temperatures, final batch-temperature targets, the preferred heating medium, and cooling-water conditions.

Record ingredient order, powder-addition rate, phase temperatures, fill level, agitator speed, homogenizer speed, mixing time, vacuum sequence, cooling profile, and discharge observations during laboratory trials. Industrial scale-up must also account for vessel geometry, bulk circulation, heat-transfer area, shear exposure, powder handling, and transfer behavior. A larger vessel should not be selected by applying a simple volume ratio alone.

Provide the toothpaste type, general formulation structure, powder or abrasive content, estimated viscosity, target batch, minimum batch, process temperatures, feeding method, dispersion needs, vacuum use, cleaning method, discharge method, and preferred controls. Also include voltage, available utilities, installation space, destination country, downstream equipment, and required project documents.

Contact information

venti@urmachine.com

Tel

+86 17365104069

Address

No. 163 Wangjiang Street, Dongshan Subdistrict, Ruian City, Wenzhou City, Zhejiang Province, China

Working Hours

Monday to Friday: 9:00 - 18:00

Toothpaste Mixing Machine

URMACHINE Toothpaste Mixing Machine Solution