HyperDrop · Application focusAvailable

Microfluidic foundations for single-cell research workflows.

Microfluidic foundations for single-cell studies.

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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

How can microfluidic droplet workflows support single-cell research?

Microfluidic droplet workflows can compartmentalize cells or cell-derived material into small, controlled volumes for research. The fluidic system provides a workflow foundation; the biological interpretation depends on the wider assay and validated analytical methods.

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: coordinating biology with fluid control.

Cell handling, chip choice, carrier fluids and downstream readout must be considered together. HyperDrop is positioned around the microfluidic foundation rather than unsupported biological outcome claims.

Controlled compartmentalization

Why does compartmentalization matter?

Compartmentalized handling can support research questions that require individual cells or small reaction volumes to remain separated during part of a workflow.

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 / Single-cell workflows 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

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HyperDrop controllers, chips and workflow consumables provide configurable fluid-control building blocks for relevant droplet-based single-cell research contexts.

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 products are commercially positioned. Fit for a specific single-cell workflow should be confirmed through current documentation and discussion with Rhei BioTech.

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