Jingxin ultrasonic systems are designed for cell disruption, homogenization, extraction, dispersion, emulsification and molecular sample preparation.
Choose from direct-probe, integrated and non-contact systems according to your sample type, processing volume, throughput and contamination-control requirements.
Jingxin offers different ultrasonic processing configurations. The main difference is how ultrasonic energy reaches the sample and how the system is configured for different laboratory workflows.
The probe transfers ultrasonic energy directly into the liquid sample, producing concentrated cavitation for efficient cell disruption, homogenization, dispersion, emulsification and extraction.
Jingxin integrated sonicators combine ultrasonic processing, instrument control and acoustic isolation in one system, providing a more convenient configuration for routine and repeatable laboratory sonication.
Ultrasonic energy is transmitted through the surrounding liquid and sample vessel without inserting a probe directly into the sample.
The closed-tube format reduces direct probe handling and is suited to parallel and contamination-sensitive workflows.
Start with the sonication method that best matches your sample and workflow. Exact specifications vary by model.
| System Type | Energy Delivery | Sample Format | Typical Throughput | Typical Applications |
|---|---|---|---|---|
| Probe Sonicator | Direct probe contact | Open vessel / tube | Individual sample | Cell disruption, homogenization, dispersion, extraction |
| Integrated Probe Sonicator | Direct probe contact | Integrated instrument enclosure | Individual sample | Routine sonication, protein extraction, dispersion |
| Non-Contact Sonicator | Indirect through vessel | Closed tubes | Parallel samples depending on model | DNA fragmentation, ChIP and molecular workflows |
An ultrasonic cell disruptor uses high-frequency mechanical vibration to generate cavitation in a liquid.
In a probe system, electrical energy is converted into mechanical vibration by the transducer and transmitted through a titanium probe into the sample.
As microscopic cavitation bubbles form and collapse, they create localized shear forces that can disrupt cells, break up particle agglomerates, homogenize suspensions and accelerate extraction or emulsification.
Terms such as ultrasonic cell disruptor, probe sonicator, ultrasonic homogenizer and ultrasonic processor are often used for closely related ultrasonic processing systems.
All three use ultrasound, but the way energy reaches the sample is different.
| Factor | Probe Sonicator | Bath Sonicator | Non-Contact Sonicator |
|---|---|---|---|
| Energy delivery | Probe directly enters sample | Through bath liquid and vessel | Through surrounding liquid and sealed vessel |
| Energy concentration | High and localized | Lower and distributed | Indirect and controlled |
| Sample contact | Direct probe contact | No probe contact | No probe contact |
| Typical throughput | Usually one vessel | Multiple vessels possible | Parallel tubes depending on model |
| Typical uses | Cell disruption, homogenization, dispersion, extraction | Cleaning, degassing and gentle ultrasonic treatment | DNA fragmentation, sealed-tube and parallel processing |
Do not choose a sonicator by maximum wattage alone. The final result depends on the sample, processing objective, volume, probe configuration, operating conditions and temperature control.
Different cells, microorganisms, suspensions and chemical systems respond differently to ultrasonic energy.
Common objectives include cell disruption, protein extraction, DNA fragmentation, homogenization, dispersion, emulsification and extraction.
Sample volume helps determine the appropriate instrument and probe configuration. Use the specifications of the actual Jingxin model instead of generic industry volume ranges.
Direct probe systems are suited to individual vessels, while non-contact systems can be more convenient for compatible multi-tube workflows.
Ultrasonic processing generates heat. Temperature-sensitive samples may require pulse operation, external cooling or a temperature-controlled system.
Probe diameter influences how ultrasonic energy is distributed into the sample.
Smaller probes concentrate energy into a smaller processing area and are generally selected for smaller volumes.
Larger probes transfer energy across a wider area and are generally used for larger sample volumes.
Always match the probe to the working range specified for the actual Jingxin instrument.
View Probe & Volume Guide →Controls ultrasonic intensity and affects the energy delivered to the sample.
Alternating ON and OFF periods can help control heat accumulation.
Total ultrasonic exposure affects the amount of energy applied to the sample.
Influences energy concentration and suitable processing volume.
Temperature control becomes important for heat-sensitive samples.
Viscosity, concentration, vessel geometry and composition influence ultrasonic energy transfer.
Different applications require different ultrasonic methods and configurations. Explore the processing approaches below and discuss sample-specific requirements with our team.
Ultrasonic cavitation can disrupt cellular structures and release intracellular material for downstream laboratory workflows.
Probe sonication provides concentrated ultrasonic energy for bacterial cell disruption and subsequent extraction workflows.
Ultrasonic processing can assist cell disruption and the release of intracellular proteins while temperature control remains an important method consideration.
Controlled sonication can be used for DNA and chromatin fragmentation. Non-contact systems are particularly useful for closed-tube and parallel workflows.
Ultrasonic cavitation can break down agglomerates and improve particle dispersion in liquid systems.
Ultrasonic shear forces can support laboratory-scale emulsification and homogenization.
Ultrasound can assist extraction and mass-transfer processes in laboratory sample preparation.
Dedicated ultrasonic reactor systems can support reaction-oriented applications, extraction, emulsification and related sonochemical workflows.
Need a sample-specific method? Discuss your application with our sample testing team →
Match the sonicator with the appropriate probe, holder, enclosure and cooling configuration for the sample and workflow.
Probe configurations for different compatible processing volumes and applications.
View Probes →Smaller probe configurations for compatible low-volume applications.
View Micro Probes →Cooling and temperature-control configurations for temperature-sensitive sonication.
View Cooling Options →Compatible holders and adapters for selected non-contact systems.
View Accessories →The terms ultrasonic cell disruptor, probe sonicator, ultrasonic homogenizer and ultrasonic processor are often used for closely related ultrasonic-processing systems. The preferred term usually depends on the equipment configuration and application.
A probe sonicator transfers ultrasonic energy directly into the sample through a probe, producing concentrated energy around the probe tip. A bath sonicator transfers energy indirectly through the bath liquid and sample vessel, resulting in a more distributed ultrasonic field.
A probe sonicator places the ultrasonic probe directly inside the sample. A non-contact sonicator transmits ultrasonic energy through the surrounding liquid and sample vessel, allowing the sample to remain closed during processing.
Yes. Ultrasonic cell disruption is one of the applications supported by Jingxin probe and selected non-contact ultrasonic systems. The appropriate instrument and operating method depend on the sample and processing volume.
Yes. Jingxin lists protein extraction among the applications of its ultrasonic processing systems. Temperature and processing conditions should be selected according to the sample and downstream workflow.
Yes. Jingxin offers dedicated non-contact ultrasonic systems designed for DNA fragmentation and related molecular sample-preparation workflows.
Probe selection should be based on the compatible processing range of the specific instrument, sample volume and vessel. Always use the actual Jingxin model specifications rather than a universal probe-size chart.
Yes. Ultrasonic processing can increase sample temperature. Temperature-sensitive applications may require pulse operation, cooling or a system with temperature-control capabilities.
Not by wattage alone. Sonication performance also depends on probe configuration, sample volume, amplitude, processing time, sample properties and temperature control.
Tell us your sample type, processing volume, application and throughput. Jingxin can help match your workflow to an appropriate ultrasonic processing system and configuration.
Compare Sonicator Models →