

Slide Preparation System with Integrated Coverslipper
带集成封片机的制片系统
- SKU SPS-0004
- Slide Preparation Systems
- CE (to be confirmed)
- IEC 61010-1 compliance (to be confirmed)
- ISO 13485 manufacturing (to be confirmed)
Price on request — FOB / CIF quoted per order
Prices depend on configuration, quantity and destination port.
Key specifications
| Samples per run | 1–24 slides |
|---|---|
| Spot diameter | about 10–20 mm |
| Mounting medium | Resin or film |
| Coverslip type | Glass 0.13–0.17 mm or film |
| Cycle time | about 30–60 min per batch |
| Solvent | Xylene or substitute compatible |
By Lab Manufacturers China Technical TeamLast reviewed Standards: IEC 61010-1, IEC 61010-2-101, IEC 61326-1
What is the Slide Preparation System with Integrated Coverslipper?
A slide preparation system with an integrated coverslipper deposits cells and then applies a coverslip automatically in one workflow. It is chosen to cut manual handling and protect staff from mounting medium and solvent vapour.
What is the Slide Preparation System with Integrated Coverslipper?
A slide preparation system with an integrated coverslipper deposits cells and then applies a coverslip automatically in one workflow. It is chosen to cut manual handling and protect staff from mounting medium and solvent vapour.
Overview
Combining preparation and coverslipping addresses the last manual step in slide production. After cells are deposited, dried and stained, the integrated coverslipper dispenses a defined volume of resin or applies a film coverslip, places a glass coverslip, and cures or presses it so the mount is free of bubbles. Because slides move directly from stainer to coverslipper inside the instrument, handling is minimal and throughput is higher than with separate units. Solvent and mounting medium exposure is reduced, which matters where xylene or its substitutes are used. Barcode continuity is preserved, so the finished slide remains linked to the sample. Check that the mounting medium is compatible with your staining protocol and that coverslip thickness suits the objectives and any automated scanner used for digital pathology.
How does it work?
A slide preparation system combines sample handling with deposition and, often, downstream slide processing. Depending on the design, it may dilute and mix the sample, deposit a measured volume onto a slide, spread or settle cells into a defined area, dry the slide, transfer it to a stainer and finally apply a coverslip. Many systems use barcode tracking so each sample, slide and reagent event is linked in a record. Motors, syringes or peristaltic pumps move fluid, and heated or ventilated zones control drying. Consistency comes from fixed volumes, timings and motions, which reduce operator-dependent variation. The quality of the output depends on correct sample collection, adequate cell numbers and complete reagent removal, because residual fluid or fixative causes uneven staining and poor adhesion.
What are the key features?
- Automatic coverslip application after preparation
- Defined resin volume or film mounting
- Bubble-free mounting under controlled pressure
- Continuous barcode link from sample to slide
- Reduced manual handling and solvent exposure
- Higher throughput than separate units
What are the technical specifications?
A typical slide preparation system with integrated coverslipper configuration offers samples per run of 1–24 slides, spot diameter of about 10–20 mm, mounting medium of Resin or film, coverslip type of Glass 0.13–0.17 mm or film, cycle time of about 30–60 min per batch and solvent of Xylene or substitute compatible. Values are indicative of the product class; the exact figures for each configuration are confirmed on the quotation and the calibration documents supplied with the instrument.
Which applications is it used for?
The Slide Preparation System with Integrated Coverslipper is used in high-throughput cytology services, digital pathology workflows, cervical screening and pathology laboratories with solvent exposure concerns. Across the wider Slide Preparation Systems class, laboratories also deploy it for cytology slide preparation, cervical screening programmes and body fluid cytology.
Which standards and certifications apply?
Relevant standards and methods include IEC 61010-1, IEC 61010-2-101, IEC 61326-1, ISO 15189 and CLSI GP41. Certification candidates for this model are CE, IEC 61010-1 compliance and ISO 13485 manufacturing; each is to be confirmed for the specific configuration before shipment, and certificates are supplied only where they have been issued.
Install the system on a stable bench with power and, if required, a drain, and keep the working area organised so tubes and slides cannot be mismatched. Follow the specified reagent volumes and timings, since too little fixative causes poor adhesion and too much leaves residue. Clean fluid lines and nozzles on schedule to prevent blockage and carryover, and check that barcodes are readable so records remain complete. Verify performance with control samples and record reagent lot numbers and run conditions. Train staff in safe handling of preservative fluids and in recognising preparation faults, and keep maintenance and quality records for accreditation.
How do I select the right Slide Preparation System with Integrated Coverslipper?
Choose an integrated coverslipper when throughput is high, manual mounting is a bottleneck, or staff exposure to mounting medium and solvents must be reduced. Confirm coverslip thickness compatibility with objectives and scanners, mounting medium type and bubble rate. Check that the final mount is stable for long-term archiving.
How does it compare with other Slide Preparation Systems variants?
Choose a preparation system by the level of automation you need and the output you must produce. A semi-automated system suits laboratories that want control over sample selection while automating deposition. A fully automated system gives standardised monolayers at throughput, often with integrated staining and coverslipping. Liquid-based systems define the reagent and consumable architecture, while cell block systems target ancillary testing. Compare samples per run, cycle time, spot size, barcode and record capability, consumable cost and compatibility with existing stainers. Check whether the system is open to third-party reagents, and confirm validation, training and service support before committing to a platform.
Full specifications
| Samples per run | 1–24 slides |
|---|---|
| Spot diameter | about 10–20 mm |
| Mounting medium | Resin or film |
| Coverslip type | Glass 0.13–0.17 mm or film |
| Cycle time | about 30–60 min per batch |
| Solvent | Xylene or substitute compatible |
| Traceability | Barcode on vial and slide |
| Power supply | 220 V, 50 Hz, about 1 kW |
Indicative values for this product class. Final specifications are confirmed on the quotation and in the calibration documents supplied with the instrument.
Applications
- High-throughput cytology services
- Digital pathology workflows
- Cervical screening
- Pathology laboratories with solvent exposure concerns
Key features
- Automatic coverslip application after preparation
- Defined resin volume or film mounting
- Bubble-free mounting under controlled pressure
- Continuous barcode link from sample to slide
- Reduced manual handling and solvent exposure
- Higher throughput than separate units
Frequently asked questions about Slide Preparation System with Integrated Coverslipper
Glass gives the optical quality and stability expected for archiving and high-resolution imaging, while film mounting is cheaper and needs no solvent. For digital pathology and long-term storage, glass with a controlled thickness is usually preferred.
Not always. The dispenser is designed for a specific viscosity and solvent base, so confirm compatibility with your resin or film. Using the wrong medium can cause bubbles, incomplete curing or eventual fading of the stain.
Usually yes, provided the coverslip thickness, mounting medium and label position meet the scanner specification. Confirm the requirements of your digital pathology system, because slight variations in mount thickness can affect focus.
It automates fluid handling and cell deposition, and often drying, staining and coverslipping. Sample dilution, mixing, measured deposition and barcode tracking are typical functions, so the output is a standardised, traceable slide ready for microscopy.
Only if daily volume is high or standardisation is critical. Semi-automated systems that automate deposition while leaving sample selection to the operator often suit moderate volumes and cost considerably less, with simpler maintenance.
Through barcoded sample vials and slides linked in the instrument software, so every preparation step is recorded against the correct specimen. Manual systems rely on labels and written logs, which are more error-prone at high volume.
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