Echo acoustic liquid handler integration connects Echo acoustic dispensing instruments to laboratory software, enabling automated control of nanoliter-scale, contact-free liquid transfers and direct capture of dispensing records. It removes manual steps from acoustic dispensing workflows by synchronizing instrument operations with sample management systems. Scientists use Echo acoustic liquid handler integration to achieve precise compound transfers at nanoliter resolution with complete auditability and zero tip waste.
The Echo liquid handler, developed by Labcyte and now part of the Beckman Coulter portfolio, uses acoustic droplet ejection (ADE) to transfer liquid droplets as small as 2.5 nanoliters using focused sound waves — with no physical contact between tip and source well. This technology has become standard in high-throughput screening, compound management, and genomics library preparation because it conserves scarce compounds, eliminates contamination risk, and dramatically increases dispensing throughput. However, its value depends on how well the instrument is connected to the surrounding lab data ecosystem.
Echo acoustic liquid handler integration bridges the gap between the instrument's dispensing operations and the lab's sample management and data management platforms. Without integration, transfer records exist only in the Echo's local software, requiring manual export and reconciliation against sample inventory — a bottleneck that undermines the throughput gains the instrument is designed to deliver. With integration, dispensing events are automatically logged, sample locations are updated in real time, and scientists maintain a complete, traceable record of every transfer.
The primary users of Echo acoustic liquid handler integration are compound management scientists, HTS teams, assay development groups, and informatics leads at pharmaceutical companies, biotech organizations, and CROs operating high-throughput compound libraries. It is particularly critical in environments where compound volumes are limited and precise, auditable consumption records are required.
Integration typically begins upstream of the instrument. When a scientist requests a compound transfer — a cherry pick from the compound library, a dose-response dilution series, or a plate replication — the sample management platform generates an Echo-compatible worklist file specifying source plate, source wells, destination plate, destination wells, and target volumes. This worklist is transferred to the Echo instrument automatically, eliminating manual worklist construction and the transcription errors it introduces.
The Echo instrument executes the transfer using acoustic droplet ejection: an ultrasonic transducer focuses sound energy beneath each source well, ejecting precisely sized droplets upward into the inverted destination plate. The instrument can transfer droplets as small as 2.5 nanoliters (source: Beckman Coulter), enabling conservation of high-value compounds that would be consumed by conventional tip-based dispensing at minimum volumes of 1–5 microlitres. An integrated connection allows the lab software to monitor run status in real time rather than waiting for a manual export.
On run completion, the Echo generates a transfer log detailing every dispensing event. In an integrated workflow, this log is automatically ingested by the sample management platform, which reconciles the actual transfers against the requested worklist, updates remaining compound volumes in the inventory, and flags any exceptions — missed transfers, low-volume source wells, or volume deviations — for scientist review. This reconciliation step, performed manually in unintegrated environments, is a primary source of inventory discrepancy in compound management operations.
Integration enables automated cherry-pick workflows at scale. A scientist or automated scheduler submits a compound request; the platform identifies the optimal source plates and wells, generates the worklist, dispatches it to the Echo, and updates the inventory when the transfer completes. Across large compound libraries, this workflow can process thousands of individual cherry picks per day without manual intervention, at a speed and accuracy that manual dispensing cannot match.
In regulated environments, Echo transfer records must be attributable, accurate, and retained as part of the experiment record. An integrated pipeline captures these records automatically, links them to the originating experiment in the LIMS or ELN, and stores them in a tamper-evident audit trail. This eliminates the compliance risk of manual record reconstruction and supports readiness for GxP audits and 21 CFR Part 11 inspections.
Acoustic liquid handling delivers throughput and precision that conventional dispensing cannot match — but that advantage is only realized when the instrument is fully connected to the lab's data infrastructure.
Labs that operate Echo instruments without integration routinely discover inventory discrepancies at the point of use — when a compound expected to be available has already been consumed, or when a partial transfer was never reconciled.
|
Dimension |
Echo acoustic integration |
Tip-based liquid handler integration |
|
Minimum transfer volume |
2.5 nanoliters |
Typically 1–5 microlitres |
|
Contact with sample |
None (acoustic droplet ejection) |
Physical tip contact |
|
Compound conservation |
Very high |
Lower, due to dead volume and minimum volumes |
|
Tip costs |
None |
Significant at scale |
|
Integration complexity |
Worklist-based + transfer log ingestion |
API or file-based, varies by platform |
|
Typical use cases |
Cherry picking, HTS, library reformatting |
General liquid handling, reagent dispensing |
The two technologies complement each other in most compound management environments; integration architecture for each differs primarily in the data formats and control interfaces involved.
Cenevo supports Echo acoustic liquid handler integration through Mosaic Sample Management, its compound and sample management platform purpose-built for high-throughput research environments. Mosaic's instrument integration framework includes pre-built connectivity for acoustic dispensers as part of its 150+ device library, enabling labs to connect Echo instruments without custom development.
Mosaic is Cenevo's sample management platform for compound management and high-throughput operations. Its Echo integration is designed for the compound library workflows where acoustic dispensing is most heavily used.
Mosaic's pre-built Echo integration connects the instrument directly to compound management workflows, ensuring that every nanoliter dispensed is recorded, reconciled, and traceable from the first transfer to final disposition.
Labguru is Cenevo's cloud-based ELN and LIMS platform for research labs that manage experimental data alongside sample operations.
Echo acoustic liquid handler integration connects the Echo dispensing instrument to lab software so that transfer operations are automatically controlled by the software and the results — which compounds moved where, in what volumes — are automatically recorded and reconciled against the compound inventory. Instead of a scientist manually building a worklist and reconciling a transfer log afterward, the integrated system handles both steps automatically.
A standalone Echo generates transfer logs that must be manually exported, reviewed, and reconciled against the compound inventory — a time-consuming process that is prone to errors and delays. Integration automates worklist generation, transfer record ingestion, and inventory reconciliation, eliminating the manual steps that limit throughput and introduce inventory discrepancy. At the scale of a compound management operation, the difference between integrated and standalone workflows is measured in hours per day and inventory accuracy rates.
A full integration captures: the source plate and well for each transfer, the destination plate and well, the actual volume dispensed (which may differ from the requested volume), the timestamp of each dispensing event, any exceptions or errors flagged by the instrument, and the post-run inventory state for every affected compound. This data is linked to the originating sample request and, where applicable, the downstream experiment or assay record.
Yes, provided the integration is implemented within a validated platform. The integration must generate attributable, accurate, contemporaneous, and complete records — the ALCOA+ requirements under 21 CFR Part 11 and GxP data integrity guidance. Platforms like Mosaic are designed for regulated environments and support the documentation and qualification activities required to deploy a GxP-compliant Echo integration.
When the Echo encounters a low-volume source well or a dispensing error, an integrated system automatically detects the exception from the transfer log and routes an alert to the responsible scientist. The partial or failed transfer is flagged in the inventory update, preventing the inventory from reflecting a transfer that did not occur. This exception-handling capability is a key advantage of integration over manual log review, which may not catch exceptions until they affect downstream experiments.
The core integration architecture is similar — both involve worklist delivery to the instrument and transfer record ingestion on completion — but the data formats and instrument control interfaces differ. Echo instruments use Labcyte/Beckman-format worklist files and generate specific transfer report formats; tip-based liquid handlers vary more widely in their communication protocols. Labs operating mixed environments need an integration platform that handles both, routing each instrument's output through the appropriate parser and into a consistent data model.
Acoustic dispensing delivers nanoliter precision — but without integration, transfer records stay locked in the instrument. Cenevo connects the Echo to your compound library, inventory, and experiment records in a single, auditable workflow.
Book a demo to see how Cenevo supports Echo acoustic liquid handler integration workflows.