Product Introduction

The budget-friendly entry into sonochemistry

The 2000L drives a 20 kHz probe at 1000 W with touch screen parameter setting — the generator half of a lab or small-production sonochemistry setup, at a price that lets you start processing before you scale.

It matches a wide capacitance range of probes and reactors, tolerates probe wear as tips erode, and sets process time in 0.1-minute steps — practical for extraction and dispersing runs.

20 kHz / 1000 WTouch screen settingWide capacitance range0.1 min time stepsProbe-wear tolerant

Process Fit

Five processes this generator is bought for

Process	What it does	Typical media
Dispersion	De-agglomerates particles into stable suspension	Pigments, graphene, nanomaterials
Cell disruption	Cavitation breaks cell walls for extraction	Plant tissue, algae, microbes
Homogenisation	Emulsifies immiscible phases	Oils, cosmetics, food emulsions
Degassing / defoaming	Drives dissolved gas and foam out	Liquids before filling or coating
Extraction	Accelerates mass transfer from solids	Herbal extracts, botanicals

Same generator, different probe and vessel — the process decides the tooling, not the electronics.

Scale-Up Path

Start at a beaker, grow without changing control logic

1

Lab probe

1000 W drives a lab probe in beakers and flasks.

2

Flow cell

Add an inline flow reactor for continuous batches.

3

Multi-probe train

Scale to several 2000L / WT320 units on one process line.

4

Same control

Touch screen logic stays identical across the range.

When 1000 W is not enough, the WT320 platform (to 3200 W) takes the same process up — see Related.

Technical Specification

Technical specification

Ships matched to the probe you run — capacitance checked before dispatch.

Ordering

1

Describe the process and media.

2

We match the probe / reactor and generator.

3

Ships tuned with process advice from the lab.

Probe wear is normal — tips are consumables; we stock replacements sized to your vessel.

Frequency	20 kHz
Rated power	1000 W
Dimensions	33 × 23 × 12 cm
Weight	4.25 kg
Input voltage	AC 220 V, 50 Hz
Control	Touch screen parameter setting
Capacitance	Wide range – matched to demand
Time setting	Step 0.1 min

Suitable Applications

Runs on the 2000L

Lab Extraction

Herbal and botanical extraction in beakers and flasks.

Small Flow Cells

Continuous dispersion at pilot scale.

Small Reactor Trains

First step into multi-probe processing.

Recommended Matching Components

Scale up or add on

WT320 System

Up to 3200 W with touch control and 485 link.

View details →

Processing Systems

Batch, flow and multi-probe reactor configurations.

View details →

Transducers & Converters

Piezo stacks for liquid processing probes and reactors.

View details →

Bench Homogenizer

Complete bench cell-disruption package.

View details →

Customization & Testing

Match the 2000L to your process

Describe the media and goal — we confirm the probe match and expected results, free of charge.

• Process goal (disperse / extract / homogenise / degas)
• Media and viscosity
• Batch or continuous volume
• Vessel type and size
• Probe diameter if known
• Temperature sensitivity

Send Us Your Requirement Free Process Test

1

You describe the process.

2

We match the tooling and settings.

3

You receive the configuration and quotation.

FAQ

Will it drive our existing probe?

Likely — the capacitance range is wide; send the probe label to confirm.

How long do probe tips last?

Erosion depends on media and amplitude — tips are replaceable consumables.

2000L or WT320?

1000 W lab / pilot duty → 2000L; up to 3200 W production duty → WT320.

Cooling needed?

For temperature-sensitive media, an ice bath or jacketed vessel is usual — we advise per process.

WT320 SystemHigh-power platformBench HomogenizerComplete bench packageProcessing SystemsReactor family

Describe the Process, Get the Match

Generator, probe and settings confirmed against your media — before you order.

Contact an Engineer

(function () { var main = document.getElementById('pdMainImg'); var gal = document.querySelector('.pd-gal'); var thumbs = Array.prototype.slice.call(document.querySelectorAll('#pdThumbs figure')); if (!main || !gal || !thumbs.length) return; var i = 0, timer = null; function show(n) { i = (n + thumbs.length) % thumbs.length; thumbs.forEach(function (t, k) { t.classList.toggle('active', k === i); }); main.style.opacity = 0; var src = thumbs[i].getAttribute('data-src'); var alt = thumbs[i].getAttribute('data-alt') || main.alt; setTimeout(function () { main.onload = function () { main.style.opacity = 1; }; main.src = src; main.alt = alt; if (main.complete) main.style.opacity = 1; }, 180); } function stop() { if (timer) { clearInterval(timer); timer = null; } } function play() { stop(); timer = setInterval(function () { show(i + 1); }, 4000); } thumbs.forEach(function (t, k) { t.addEventListener('click', function () { show(k); play(); }); }); gal.addEventListener('mouseenter', stop); gal.addEventListener('mouseleave', play); play(); })();