zenCELL OWL — 24-Channel Incubator Microscope | Live Cell Imaging | SeamlessBio
zenCELL OWL — 24-Channel Incubator Microscope | Automated Live Cell Imaging 24/7
The zenCELL OWL is a compact, 24-channel incubator microscope for fully automated, continuous live cell imaging directly inside your cell culture incubator. Using 24 independent cameras, it captures brightfield images and analyses cell confluence, morphology, and relative cell count in parallel across all wells of a 24-well plate — continuously, at user-defined intervals as short as 10 minutes, without any manual intervention.
Unlike plate readers or benchtop imagers that require removing cultures from the incubator, the zenCELL OWL stays inside throughout the entire experiment. Cells are never exposed to temperature fluctuations, CO₂ loss, or contamination risk from handling. SeamlessBio supplies the zenCELL OWL as part of the live cell imaging portfolio.
Key principle: Set up your experiment, place the zenCELL OWL in the incubator, and monitor your cells remotely from your PC — in real time, 24/7. No microscopy experience required. No interruption of cultures. No missed time points.
Key Features
| Feature | Details |
| 24 independent channels | 24 cameras image each well of a 24-well plate simultaneously — no sequential scanning, no time lag between wells |
| Incubator-compatible | Compact, lightweight design fits inside standard CO₂ incubators — operates stably at 37°C, 5% CO₂ |
| Continuous 24/7 monitoring | Minimum imaging interval: 10 minutes. Long-term experiments run for days to weeks without manual intervention |
| Remote PC access | Monitor cell cultures from any PC connected to the instrument — view live images, confluence curves, and time-lapse videos without entering the lab |
| Automated image analysis | Integrated algorithms analyse confluence and estimate relative cell numbers automatically — no manual counting or user interpretation required |
| Time-lapse video | Automatically generates time-lapse videos from captured image sequences — publication-ready outputs without post-processing |
| Small footprint | Space-saving design leaves room in the incubator for additional cell cultures or additional zenCELL OWL units running in parallel |
| Machine learning algorithms | Default algorithms optimised for L929 mouse fibroblasts — custom ML algorithms can be trained for other cell lines |
Applications
| Application | How zenCELL OWL Is Used | Advantage vs Manual |
| Cell confluence monitoring | Continuous tracking of confluence growth curves across all 24 wells simultaneously — determine optimal passage time objectively | Eliminates subjective visual estimation; reproducible passage at defined confluence |
| Cytotoxicity assays | Monitor cell viability and morphology changes in response to cytotoxic compounds over time — generate IC50 data from confluence-time curves | Kinetic data from single experiment; no need for multiple endpoint assays |
| Drug effect monitoring | Track morphological changes, detachment, and confluence loss in response to drug candidates — 24 concentrations or conditions in one plate | Full kinetic profile of drug response — when does effect appear, how does it progress |
| Cell migration assays | Monitor wound healing / scratch assays continuously — measure gap closure at defined intervals without removing plate from incubator | No disturbance of migration dynamics by repeated plate removal |
| Proliferation studies | Track cell growth curves over days to weeks — compare growth rates of different cell lines, media, or supplements in parallel | Continuous data vs single-point endpoint assays; detect growth rate changes early |
| 3D cell culture monitoring | Monitor spheroid formation, growth, and treatment response in 3D models — custom algorithms can be trained for spheroid morphology | Non-invasive monitoring of 3D structures without disruption |
| Senescence studies | Long-term monitoring of morphological changes in ageing or stressed cell populations over days to weeks | Captures slow morphological changes that manual inspection would miss |
| Stem cell differentiation | Monitor morphological changes during iPSC or MSC differentiation — detect colony formation, morphology transitions, and density changes | Continuous non-invasive documentation of dynamic differentiation processes |
Technical Specifications
| Parameter | Specification |
| Channels | 24 independent cameras — one per well of a 24-well plate |
| Imaging modality | Brightfield (transmitted light) |
| Minimum imaging interval | 10 minutes |
| Compatible plate format | Standard 24-well cell culture plates |
| Operating temperature | Stable at incubator temperature (37°C) — solid-state technology, no temperature drift |
| Incubator compatibility | Compatible with standard CO₂ incubators — small footprint, no incubator modification required |
| Software | PC-based software for image capture, real-time analysis, confluence quantification, time-lapse generation, data export |
| Image analysis | Automated confluence calculation and relative cell count estimation — ML algorithms trainable for custom cell lines |
| Data export | Image sequences, confluence data tables, time-lapse videos — CSV/image export for downstream analysis |
| Default cell line | Optimised for L929 mouse fibroblast — custom algorithm training available for other lines |
| Device weight | Compact and lightweight — fits inside incubator without modification |
zenCELL OWL vs Conventional Monitoring Methods
| Parameter | Manual Visual Inspection | Benchtop Imager / Plate Reader | zenCELL OWL |
| Cell removal from incubator | Required every inspection | Required every time point | ✅ Never — stays in incubator throughout |
| Temperature / CO₂ disruption | Every inspection | Every time point | ✅ Zero — no environmental disturbance |
| Contamination risk | Every handling event | Every handling event | ✅ Minimal — no repeated handling |
| Time resolution | 1–2× per day maximum | Defined time points only | ✅ Every 10 minutes continuously |
| Parallel wells | 1 at a time, sequential | Sequential scanning | ✅ 24 simultaneously — no time lag |
| Objectivity | Subjective visual estimate | Objective but endpoint only | ✅ Objective + kinetic — full growth curves |
| Night/weekend monitoring | ❌ Not possible | ❌ Not possible | ✅ 24/7 automated — no staff required |
| Remote access | ❌ Must be in lab | ❌ Must be in lab | ✅ Monitor from any PC |
Workflow
| Step | Action |
| 1. Setup | Place zenCELL OWL in incubator on top of 24-well plate. Connect to PC. No calibration required. |
| 2. Configure experiment | Set imaging interval (minimum 10 min), experiment duration, and analysis parameters in software. |
| 3. Start imaging | Close incubator. Imaging starts automatically. Leave lab — no further manual steps required. |
| 4. Remote monitoring | View live confluence data, images, and growth curves from PC at any time during the experiment. |
| 5. Data export | Export confluence tables, time-lapse videos, and raw images at experiment end for publication or reporting. |
Frequently Asked Questions
| Which cell lines can I use? | Standard algorithms are optimised for L929 mouse fibroblasts. For other adherent cell lines, custom ML algorithms can be trained — contact us for the algorithm training workflow. |
| Can I use it for 3D cultures / spheroids? | Yes, with custom-trained algorithms. Standard confluence algorithms are designed for 2D monolayer cultures. |
| Does it work with any 24-well plate? | Yes, standard flat-bottom 24-well cell culture plates from all major suppliers. |
| How many units can I run in one incubator? | Multiple units can run in parallel in the same incubator — the small footprint is designed for this. |
| Is fluorescence imaging possible? | The standard zenCELL OWL uses brightfield imaging. Contact us for available configurations. |
| What software is required? | PC-based software included with the device — no additional software licences required for standard use. |
Request a quote or demo
Technical consultation
Questions about device specifications, compatibility, or pricing: info@seamlessbio.de | +49 851 37932226