HyperDrop · Application focusAvailable

Fluid-control building blocks for droplet-based screening.

Fluid-control tools for droplet-based screening workflows.

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High-Throughput Step Emulsification
Parallel shallow channels
Step / depth transitionDeeper collection region
Depth profile
Shallow channel / terraceInterfacial breakup / droplet formation
Concept illustration — Step Emulsification is shown schematically, not as experimental data or validation evidence. Channel repetition, geometry and droplet sizes are illustrative, not chip specifications.
Direct answer

What is droplet-based synthetic biology screening?

Droplet-based screening uses microscale compartments to organize or process many small reactions within a research workflow. In synthetic biology contexts, droplets can provide a physical framework for compartmentalized assays or screening steps.

HyperDrop droplet generation uses High-Throughput Step Emulsification: the dispersed phase travels through shallow parallel channels and breaks into droplets at a step into a deeper collection region.

Scientific problem

The challenge: integrating the complete workflow.

Droplet generation alone does not define a screening result. Controllers, chips, oils, biological inputs and downstream readouts must be configured as a coordinated system.

Controlled compartmentalization

Why use microscale compartments?

Compartmentalization can help structure a screening workflow around discrete reactions. The practical value depends on assay design, fluid compatibility and the downstream measurement strategy.

Scientific illustration

Discrete compartments begin with a coordinated fluidic path.

Controllers, chip geometry and carrier fluids work together to structure discrete compartments. Biological interpretation belongs to the wider assay.

Fig. 01 / Synthetic biology / screening research context. Geometry and proportions are illustrative.

High-Throughput Step Emulsification
Parallel shallow channels
Step / depth transitionDeeper collection region
Depth profile
Shallow channel / terraceInterfacial breakup / droplet formation
Concept illustration — Step Emulsification is shown schematically, not as experimental data or validation evidence. Channel repetition, geometry and droplet sizes are illustrative, not chip specifications.
Relevant Rhei platform

HyperDrop product relevance

Explore HyperDrop →

HyperDrop provides controllers, microfluidic chips and workflow consumables for relevant droplet-generation and fluid-control steps in synthetic biology or screening research.

Workflow

From the assay context to a configured system.

  1. 01

    Define the assay context

    Identify sample handling, compartment and downstream readout requirements.

  2. 02

    Configure the fluidic path

    Select a suitable controller, chip and compatible oils or consumables.

  3. 03

    Connect the downstream workflow

    Confirm application fit and interpretation through current documentation and the wider assay.

Current maturity

Commercial tools. Workflow-specific configuration.

HyperDrop is commercially positioned, while workflow suitability and detailed configuration remain subject to current product documentation.

Contact Rhei BioTech for current product documentation, compatibility and configuration guidance.