StemBond TechnologiesEarly Access

SENCE / Engineered cell-culture surfaces

More control over cell fate and function.

Hydrogel-coated plates and coverslips. Defined stiffness, with control over the ECM your cells encounter.

Conceptual cell meeting ECM proteins anchored to a hydrogel culture surface
Cell. Matrix. Material. A connected physical environment.

Conceptual illustration, not microscopy or to scale.

We supply the hydrogel and binding chemistry. You add your selected extracellular matrix (ECM), cells and medium.

Available through Early Access, with the knowledge and experience of our team.

A new set of experimental controls

Your cells respond to more than the medium.

They also encounter a mechanical environment and a matrix of proteins. SENCE brings those physical inputs into your experimental design.

Separate stiffness from ECM type and attachment. Then investigate how they work together.

Conceptual close view of a cell, its ECM protein interface and the underlying hydrogel
Mechanobiology: how cells sense and respond to physical cues. Conceptual illustration; molecular details are not a specification.
Stiffness
How strongly the material resists deformation.
ECM type
Which matrix proteins you choose.
Attachment
How the ECM is anchored to the gel.
Coating stability
How well the ECM stays attached during culture.

Design a more revealing comparison

What do you want to separate?

ChangeStiffness

Compare multiple mechanical settings.

Keep constantThe ECM coating

Use the same ECM type and attachment method.

How does stiffness affect your cells?

Compare stiffnesses using the same ECM coating protocol, cells, medium and readout.

ChangeOne ECM parameter

For example, compare different ECM protein types.

Keep constantStiffness

Use the same mechanical setting.

How does your choice of ECM affect your cells?

Change one ECM parameter at a time. When comparing protein types, keep the attachment method, coating protocol, cells, medium and readout consistent.

Illustrative experimental design
Mechanical settingECM XECM Y
Stiffness AA + XA + Y
Stiffness BB + XB + Y

Does one cue change the effect of another?

Compare combinations to investigate an interaction that a single-variable experiment could miss.

Illustrative experimental designs. Confirm that the conditions you intend to keep constant are matched in your evaluation.

What can that reveal? Start with a question about stem-cell identity.

One question. A measured result.

What helps a stem cell stay a stem cell?

In a mouse embryonic stem-cell study, a soft physical environment helped preserve self-renewal when a usual soluble support signal was removed.

Labouesse et al. · Nature Communications · 2021

The surface changed what the cells could retain.

  1. Compare the environments.

    Mouse embryonic stem cells spent five days on fibronectin-coated soft and stiff research hydrogels or culture plastic, in serum without LIF, a soluble support signal.

  2. Test what they retained.

    All groups then entered the same colony-forming assay with soluble support restored.

  3. Read the result.

    Cells from soft hydrogels formed more alkaline-phosphatase-positive colonies than those from stiff gels or plastic.

Explore the experiment
Published Figure 4b graph comparing alkaline-phosphatase-positive colony formation after mouse stem cells were cultured on plastic, stiff gels and soft gels without LIF; the soft-gel group retained more colony-forming activity
Published result, not an illustration. AP+ means alkaline-phosphatase-positive. Colony counts are relative to a separate serum + LIF/culture-plastic reference (100%), not the percentage of cells. Mean ± SD; eight independent samples. Labouesse et al., Fig. 4b, graph crop, data unchanged; CC BY 4.0.

The researchers first established independent control of hydrogel stiffness and ECM tethering. The self-renewal experiment then compared soft and stiff hydrogels at the selected tethering condition, with culture plastic as an additional comparison. The finding does not establish the same outcome for every cell line or current SENCE configuration.

Bring the question into your lab

Engineered surfaces. Familiar formats.

SENCE brings the hydrogel and ECM-binding chemistry into the plate or coverslip. You keep your biological question, chosen coating and culture workflow.

6-, 12-, 24- and 96-well plates.
Coverslips in packs of 12.

0.5 · 3.5 · 9 · 50 kPa
Current nominal stiffness range.

See formats and preparation
Illustrative six-well culture plate with a thin hydrogel surface in each well
Hydrogel-coated cultureware. Illustration, not a dimensional product specification.
  1. 01 / SUPPLIED BY STEMBOND

    Hydrogel + binding chemistry

    A prepared physical platform in your chosen format.

  2. 02 / PREPARED BY YOU

    Your ECM, cells + medium

    The coating and biological conditions for your assay.

  3. 03 / DESIGNED TOGETHER

    A useful comparison

    Selected controls and a readout tied to your question.

Take a closer look at the culture interface
Conceptual exploded view, not to scale. The ECM is a coating, not a free-standing sheet. Cells and medium are not shown.
  1. 01 / TOP

    Your ECM coating

    The aqua representation is the matrix your cells encounter.

  2. 02 / MIDDLE

    Hydrogel + binding chemistry

    The supplied violet layer provides mechanics and anchors your chosen coating.

  3. 03 / BASE

    Plate or coverslip support

    The clear base supports the gel. You add cells and medium above the ECM.

Your next experimental question

What would you like to understand?

Start with the response you need to explain. Explore example evaluations and short films for your workflow.

The SENCE Early Access Program

Bring your question. Work with our team.

Access the expanded product range and work closely with StemBond to transfer our knowledge and practical experience into your research, before full market release.

Together, we can shape the controls, preparation and readouts for an evaluation in your cell model.

Andrew Hodgson, PhD
Andrew Hodgson, PhDCo-Founder & CEO
Prof. Kevin Chalut
Prof. Kevin ChalutCo-Founder & Scientific Advisor
Meet the StemBond team

For investors

Watch the story behind the science.