Built for consistent batches: A 500L jacketed mixing tank designed to heat and blend with repeatable temperature and mixing results.
Cleaner production feel: Smooth stainless surfaces and sanitary-style connections help reduce residue traps and shorten cleanup time.
Process-friendly heating: Electrical heating with water or oil as the heating medium—stable warmth without flame or steam dependency.
Gentle, uniform agitation: A paddle mixer at 63 rpm promotes even circulation and reduces localized “hot spots.”
B2B-ready integration: Clear piping points for inlet/outlet/CIP, plus a control cabinet concept for daily operation.
Industries served: Food processing, pharmaceuticals, and chemical production where hygienic, controlled mixing matters.
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Some production problems don’t look dramatic on paper, but operators feel them every day: a tank that heats unevenly, a batch that needs “extra time” to reach uniformity, a product that clings to corners and costs you minutes on every cleanup. This 500L stainless steel electrical heating mixing blending tank is built to remove that friction from the shift.
You’ll notice it first in the way it runs: the paddle mixer turns at a steady 63 rpm—quiet, predictable, and easy to trust when you’re building a routine around temperature ramps and timed additions. Heat comes from electrical elements while water or oil acts as the heat-transfer medium, helping you avoid sudden scorching at the wall. The vessel’s stainless body stays cool to the touch on the outside compared with direct-contact heating designs, while inside the process surface is made for hygiene-focused workflows. The result is a tank that behaves like a reliable “warm mixing room” for your batch—steady temperature, steady circulation, and fewer surprises between day shift and night shift.
Electrical heating with water/oil medium
Helps deliver controlled, even heat distribution for recipes sensitive to temperature swings
Suitable for sites that prefer electric utilities over steam infrastructure
Paddle mixer designed for blending
Paddle-style agitation supports uniform mixing and stable circulation
Fixed speed reference: 63 rpm for predictable shear and repeatability
Hygienic manufacturing principles
Manufactured and tested to a stated fabrication standard
Weld seams are described as argon welded, supporting cleanability and corrosion resistance goals
Designed to meet GMP-oriented expectations in hygiene-focused industries
Surface finish choices aligned with production reality
Inside surface finish: 2B (smooth, production-friendly)
Outside surface finish: 300# (clean appearance, easier wipe-down)
Operator-friendly layout
Dedicated piping points for product inlet/outlet, venting, washing inlet, manhole access, drain, and temperature gauge
Tank geometry and height support common plant workflows—loading, mixing, discharge, and cleaning
A mixing tank earns its value in the “in-between” moments: changeovers, sanitation checks, and the daily routine of keeping quality stable. This unit uses stainless steel construction and a connection layout that supports hygienic process habits.
The inside surface finish is 2B, which is commonly chosen for process-contact surfaces where you want a clean, smooth feel when rinsing—less drag from residue, fewer stubborn films, and fewer “just scrub it again” loops. The outside surface finish is 300#, giving the vessel a tidy industrial look and making wipe-downs quicker in busy rooms.
Connection design matters just as much as surface finish. This tank includes a practical set of ports and access features: product inlet/outlet points, a washing inlet for rinse or CIP-style workflows, a vent for pressure/air management, a DN100 manhole for inspection and manual interventions, and a drain for complete emptying. In food, pharma, and chemical facilities, this layout helps standardize SOPs—load, seal, heat, mix, discharge, clean—without improvising hardware on every batch.
Heating is where many tanks quietly fail: uneven heat creates localized thickening, scorching near walls, or long waiting times for the “last 10%” of the batch to reach target temperature. This design uses electrical heating while water or oil functions as the heat-transfer medium, which is a practical approach when you want steady thermal behavior and straightforward site utilities.
Because the heat is mediated by a transfer fluid, the tank can help reduce sharp temperature gradients compared with direct-contact approaches. For B2B buyers, this translates into measurable outcomes: fewer temperature overshoots, more consistent viscosity at discharge, and better repeatability when scaling recipes from pilot runs into regular production. The included temperature gauge connection supports real-time monitoring so operators can correlate heat input with actual batch response.
If your process needs controlled ramps—warming for dissolution, holding for reaction time, or maintaining a narrow band for blending—this tank’s heating method is designed to support that workflow. It’s not just “heating”; it’s heating that behaves predictably enough to become part of your standard operating rhythm.
Paddle mixing is often chosen when you care about uniform blending without aggressive shear. In practical terms, it supports stable mixing for liquid blends, moderate-viscosity products, and formulations where you want ingredients to combine smoothly rather than be “beaten” into shape.
This tank’s paddle mixer reference is 63 rpm, a speed that tends to feel calm and controlled on the floor: you can hear it run, you can watch vortex behavior at the surface, and you can standardize batch timing without constant manual adjustments. For multi-step recipes, that consistency matters—operators can add powders or liquids at defined times, allow a predictable dispersion period, and then move to heating/holding/discharge steps with confidence.
The payoff is less rework: fewer “mix longer just in case” moments, fewer off-spec density pockets, and a more uniform product appearance. When production lines depend on stable upstream mixing—filling, packaging, downstream pumping—predictable agitation becomes a quality tool, not just a mechanical function.
B2B production rarely runs as a standalone tank. Real facilities need piping compatibility, cleaning access, instrumentation, and safe operation. This unit’s connection layout supports those realities.
Key connections are configured around common plant logic: product in, product out, wash in, vent, drain, temperature measurement, and manway access for inspection. Materials for listed pipe connections are specified as SUS316L, which is widely selected for corrosion resistance in hygienic service. The concept of a control cabinet is also included, supporting a clear separation between process hardware and operator interface.
To help engineering teams plan integration, here is a simplified view of the connection map presented for this tank design:
| Connection | Size | Connection style | Material | Typical use |
|---|---|---|---|---|
| N1 | Ø50.8 | Clamp | SUS316L | Product outlet |
| N2 | Ø38.1 | Clamp | SUS316L | Washing inlet |
| N3 | Ø38.1 | Clamp | SUS316L | Vent |
| N4 | Ø38.1 | Clamp | SUS316L | Product inlet |
| N5 | Ø50.8 | Clamp | SUS316L | Product inlet |
| N6 | DN100 | — | SUS316L | Manhole |
| N7 | M27×2 | Thread | SUS316L | Temperature gauge |
| N8 | DN32 | Thread | SUS316L | Hot oil inlet |
| N9 | DN32 | Thread | SUS316L | Drain |
If your process requires upgrades—additional sensors, alternative impeller geometry, custom voltage, insulation strategy, or automated recipe control—those are typically specified at RFQ stage. A good tank is not only well-built; it’s also easy to “fit” into your existing line without expensive rework.

| Model | Effective volume (L) | Dimension of tank D×H (mm) | Total height (mm) | Motor power | Agitator type and speed |
|---|---|---|---|---|---|
| LNT-500 | 500 | Ø900×900 | 2200 | 2.2 | Paddle, 63 rpm |
| Model | Effective volume (L) | Dimension of tank D×H (mm) | Total height (mm) | Motor power | Agitator type and speed |
|---|---|---|---|---|---|
| LNT-100 | 100 | Ø600×500 | 1650 | 0.75 | Paddle, 63 rpm |
| LNT-200 | 200 | Ø800×600 | 1850 | 1.1 | Paddle, 63 rpm |
| LNT-300 | 300 | Ø800×700 | 2050 | 1.5 | Paddle, 63 rpm |
| LNT-500 | 500 | Ø900×900 | 2200 | 2.2 | Paddle, 63 rpm |
| LNT-1000 | 1000 | Ø1000×1200 | 2900 | 3 | Paddle, 63 rpm |
| LNT-1500 | 1500 | Ø1200×1300 | 3250 | 3 | Paddle, 63 rpm |
| LNT-2000 | 2000 | Ø1300×1500 | 3550 | 4 | Paddle, 63 rpm |
| LNT-3000 | 3000 | Ø1400×2000 | 4150 | 5.5 | Paddle, 63 rpm |
| LNT-5000 | 5000 | Ø1800×2000 | 4650 | 7.5 | Paddle, 63 rpm |
We design for the factory floor, not just the brochure
Practical port layout, inspection access, and a mixing/heating concept aligned with daily SOPs
Parameters presented in a clear series so your team can scale capacity without reinventing the setup
Hygiene and durability are treated as engineering requirements
Argon-welded seams and stainless process surfaces support long-term corrosion resistance goals
Inside/outside finishing choices are aligned with cleanability and visual inspection needs
Process repeatability is the goal
Paddle agitation at a defined speed helps standardize batch timing
Electric heating with water/oil heat-transfer medium supports stable temperature behavior
B2B support mindset
RFQ-driven customization for ports, controls, instrumentation, and integration
Documentation-ready structure that helps engineering, QA, and procurement align faster
What products is this 500L heating mixing tank best suited for?
It’s a strong fit for liquids and blend-focused formulations in food, pharma, and chemical production—especially when you need controlled heating and steady circulation rather than aggressive high-shear emulsification. Typical uses include syrups, base solutions, heated blends, pre-mixes, and temperature-sensitive ingredient combining. If your product is extremely high-viscosity or requires droplet-size reduction, a high-shear system can be added upstream or specified as an alternative configuration.
Can the tank run with water heating or oil heating?
Yes. The heating method is electrical, and the heat-transfer medium can be water or oil, giving you flexibility depending on your target temperature range and plant practices. Many buyers prefer water for simpler processes and oil when higher temperature stability or higher setpoints are needed.
What cleaning approach does the connection layout support?
The vessel includes a washing inlet, drain, vent, and manway access—useful for rinse routines, CIP-style circulation planning, and inspection. The inside surface finish is specified as 2B, supporting easier release of residue during cleaning cycles.
Is 500L the only option if we plan to scale later?
No. The same series is presented from 100L to 5000L with published dimensions, heights, and motor power references. This helps buyers scale capacity while keeping a familiar operating concept, training approach, and maintenance logic.
What information should we include in an RFQ to get an accurate quote?
Provide your product type (viscosity range, solids content), target temperature and ramp time, utility details (voltage, available heating medium preference), required sanitary level, desired port sizes/standards, automation expectations (basic control vs recipe control), and discharge method (gravity, pump-assisted, valve type). This ensures the final configuration matches your process instead of forcing your process to adapt to the tank.


Some production problems don’t look dramatic on paper, but operators feel them every day: a tank that heats unevenly, a batch that needs “extra time” to reach uniformity, a product that clings to corners and costs you minutes on every cleanup. This 500L stainless steel electrical heating mixing blending tank is built to remove that friction from the shift.
You’ll notice it first in the way it runs: the paddle mixer turns at a steady 63 rpm—quiet, predictable, and easy to trust when you’re building a routine around temperature ramps and timed additions. Heat comes from electrical elements while water or oil acts as the heat-transfer medium, helping you avoid sudden scorching at the wall. The vessel’s stainless body stays cool to the touch on the outside compared with direct-contact heating designs, while inside the process surface is made for hygiene-focused workflows. The result is a tank that behaves like a reliable “warm mixing room” for your batch—steady temperature, steady circulation, and fewer surprises between day shift and night shift.
Electrical heating with water/oil medium
Helps deliver controlled, even heat distribution for recipes sensitive to temperature swings
Suitable for sites that prefer electric utilities over steam infrastructure
Paddle mixer designed for blending
Paddle-style agitation supports uniform mixing and stable circulation
Fixed speed reference: 63 rpm for predictable shear and repeatability
Hygienic manufacturing principles
Manufactured and tested to a stated fabrication standard
Weld seams are described as argon welded, supporting cleanability and corrosion resistance goals
Designed to meet GMP-oriented expectations in hygiene-focused industries
Surface finish choices aligned with production reality
Inside surface finish: 2B (smooth, production-friendly)
Outside surface finish: 300# (clean appearance, easier wipe-down)
Operator-friendly layout
Dedicated piping points for product inlet/outlet, venting, washing inlet, manhole access, drain, and temperature gauge
Tank geometry and height support common plant workflows—loading, mixing, discharge, and cleaning
A mixing tank earns its value in the “in-between” moments: changeovers, sanitation checks, and the daily routine of keeping quality stable. This unit uses stainless steel construction and a connection layout that supports hygienic process habits.
The inside surface finish is 2B, which is commonly chosen for process-contact surfaces where you want a clean, smooth feel when rinsing—less drag from residue, fewer stubborn films, and fewer “just scrub it again” loops. The outside surface finish is 300#, giving the vessel a tidy industrial look and making wipe-downs quicker in busy rooms.
Connection design matters just as much as surface finish. This tank includes a practical set of ports and access features: product inlet/outlet points, a washing inlet for rinse or CIP-style workflows, a vent for pressure/air management, a DN100 manhole for inspection and manual interventions, and a drain for complete emptying. In food, pharma, and chemical facilities, this layout helps standardize SOPs—load, seal, heat, mix, discharge, clean—without improvising hardware on every batch.
Heating is where many tanks quietly fail: uneven heat creates localized thickening, scorching near walls, or long waiting times for the “last 10%” of the batch to reach target temperature. This design uses electrical heating while water or oil functions as the heat-transfer medium, which is a practical approach when you want steady thermal behavior and straightforward site utilities.
Because the heat is mediated by a transfer fluid, the tank can help reduce sharp temperature gradients compared with direct-contact approaches. For B2B buyers, this translates into measurable outcomes: fewer temperature overshoots, more consistent viscosity at discharge, and better repeatability when scaling recipes from pilot runs into regular production. The included temperature gauge connection supports real-time monitoring so operators can correlate heat input with actual batch response.
If your process needs controlled ramps—warming for dissolution, holding for reaction time, or maintaining a narrow band for blending—this tank’s heating method is designed to support that workflow. It’s not just “heating”; it’s heating that behaves predictably enough to become part of your standard operating rhythm.
Paddle mixing is often chosen when you care about uniform blending without aggressive shear. In practical terms, it supports stable mixing for liquid blends, moderate-viscosity products, and formulations where you want ingredients to combine smoothly rather than be “beaten” into shape.
This tank’s paddle mixer reference is 63 rpm, a speed that tends to feel calm and controlled on the floor: you can hear it run, you can watch vortex behavior at the surface, and you can standardize batch timing without constant manual adjustments. For multi-step recipes, that consistency matters—operators can add powders or liquids at defined times, allow a predictable dispersion period, and then move to heating/holding/discharge steps with confidence.
The payoff is less rework: fewer “mix longer just in case” moments, fewer off-spec density pockets, and a more uniform product appearance. When production lines depend on stable upstream mixing—filling, packaging, downstream pumping—predictable agitation becomes a quality tool, not just a mechanical function.
B2B production rarely runs as a standalone tank. Real facilities need piping compatibility, cleaning access, instrumentation, and safe operation. This unit’s connection layout supports those realities.
Key connections are configured around common plant logic: product in, product out, wash in, vent, drain, temperature measurement, and manway access for inspection. Materials for listed pipe connections are specified as SUS316L, which is widely selected for corrosion resistance in hygienic service. The concept of a control cabinet is also included, supporting a clear separation between process hardware and operator interface.
To help engineering teams plan integration, here is a simplified view of the connection map presented for this tank design:
| Connection | Size | Connection style | Material | Typical use |
|---|---|---|---|---|
| N1 | Ø50.8 | Clamp | SUS316L | Product outlet |
| N2 | Ø38.1 | Clamp | SUS316L | Washing inlet |
| N3 | Ø38.1 | Clamp | SUS316L | Vent |
| N4 | Ø38.1 | Clamp | SUS316L | Product inlet |
| N5 | Ø50.8 | Clamp | SUS316L | Product inlet |
| N6 | DN100 | — | SUS316L | Manhole |
| N7 | M27×2 | Thread | SUS316L | Temperature gauge |
| N8 | DN32 | Thread | SUS316L | Hot oil inlet |
| N9 | DN32 | Thread | SUS316L | Drain |
If your process requires upgrades—additional sensors, alternative impeller geometry, custom voltage, insulation strategy, or automated recipe control—those are typically specified at RFQ stage. A good tank is not only well-built; it’s also easy to “fit” into your existing line without expensive rework.

| Model | Effective volume (L) | Dimension of tank D×H (mm) | Total height (mm) | Motor power | Agitator type and speed |
|---|---|---|---|---|---|
| LNT-500 | 500 | Ø900×900 | 2200 | 2.2 | Paddle, 63 rpm |
| Model | Effective volume (L) | Dimension of tank D×H (mm) | Total height (mm) | Motor power | Agitator type and speed |
|---|---|---|---|---|---|
| LNT-100 | 100 | Ø600×500 | 1650 | 0.75 | Paddle, 63 rpm |
| LNT-200 | 200 | Ø800×600 | 1850 | 1.1 | Paddle, 63 rpm |
| LNT-300 | 300 | Ø800×700 | 2050 | 1.5 | Paddle, 63 rpm |
| LNT-500 | 500 | Ø900×900 | 2200 | 2.2 | Paddle, 63 rpm |
| LNT-1000 | 1000 | Ø1000×1200 | 2900 | 3 | Paddle, 63 rpm |
| LNT-1500 | 1500 | Ø1200×1300 | 3250 | 3 | Paddle, 63 rpm |
| LNT-2000 | 2000 | Ø1300×1500 | 3550 | 4 | Paddle, 63 rpm |
| LNT-3000 | 3000 | Ø1400×2000 | 4150 | 5.5 | Paddle, 63 rpm |
| LNT-5000 | 5000 | Ø1800×2000 | 4650 | 7.5 | Paddle, 63 rpm |
We design for the factory floor, not just the brochure
Practical port layout, inspection access, and a mixing/heating concept aligned with daily SOPs
Parameters presented in a clear series so your team can scale capacity without reinventing the setup
Hygiene and durability are treated as engineering requirements
Argon-welded seams and stainless process surfaces support long-term corrosion resistance goals
Inside/outside finishing choices are aligned with cleanability and visual inspection needs
Process repeatability is the goal
Paddle agitation at a defined speed helps standardize batch timing
Electric heating with water/oil heat-transfer medium supports stable temperature behavior
B2B support mindset
RFQ-driven customization for ports, controls, instrumentation, and integration
Documentation-ready structure that helps engineering, QA, and procurement align faster
What products is this 500L heating mixing tank best suited for?
It’s a strong fit for liquids and blend-focused formulations in food, pharma, and chemical production—especially when you need controlled heating and steady circulation rather than aggressive high-shear emulsification. Typical uses include syrups, base solutions, heated blends, pre-mixes, and temperature-sensitive ingredient combining. If your product is extremely high-viscosity or requires droplet-size reduction, a high-shear system can be added upstream or specified as an alternative configuration.
Can the tank run with water heating or oil heating?
Yes. The heating method is electrical, and the heat-transfer medium can be water or oil, giving you flexibility depending on your target temperature range and plant practices. Many buyers prefer water for simpler processes and oil when higher temperature stability or higher setpoints are needed.
What cleaning approach does the connection layout support?
The vessel includes a washing inlet, drain, vent, and manway access—useful for rinse routines, CIP-style circulation planning, and inspection. The inside surface finish is specified as 2B, supporting easier release of residue during cleaning cycles.
Is 500L the only option if we plan to scale later?
No. The same series is presented from 100L to 5000L with published dimensions, heights, and motor power references. This helps buyers scale capacity while keeping a familiar operating concept, training approach, and maintenance logic.
What information should we include in an RFQ to get an accurate quote?
Provide your product type (viscosity range, solids content), target temperature and ramp time, utility details (voltage, available heating medium preference), required sanitary level, desired port sizes/standards, automation expectations (basic control vs recipe control), and discharge method (gravity, pump-assisted, valve type). This ensures the final configuration matches your process instead of forcing your process to adapt to the tank.
