High-throughput multiwell filtration

Filter Plates

Multiwell filtration devices for high-throughput clarification, sample preparation, screening and automated laboratory workflows.

Plate format, media and processing method are configuration-dependent

Laboratory multiwell filter plate product family
High-throughput filtration portfolio 24-well · 96-well · 384-well · Receiver plates
3 well formats 24-, 96- and 384-well plates
80 µL–7 mL Available well-volume range
4 media groups PES, PVDF, GF and PP
3 drive methods Vacuum, pressure or centrifugation

Process multiple samples in parallel through a defined membrane or depth medium.

Filter plates place a membrane or depth medium at the base of each well so multiple samples can be processed in parallel. Depending on the plate design, liquid can be driven through the media by vacuum, positive pressure or centrifugation and collected in a compatible receiver plate.

Selection should consider well format, recommended loading volume, sample chemistry, binding, extractables, retention, hold-up, driving method, receiver geometry and automation interface. Media and pore or retention grades differ by plate format; not every value is available in every well volume.

Format 01 · 24-well

Higher sample volume per well

The 24-well format supports larger laboratory samples while retaining the parallel-processing benefits of a multiwell device.

  • 7 mL well volume
  • Selected PES, PVDF, GF or PP media
  • Grade-dependent retention

Parallel capacity 24 samples

Format 02 · 96-well

Versatile high-throughput preparation

The 96-well portfolio provides the broadest stated choice of well volumes, media and pore or depth-retention options.

  • 300 µL, 350 µL, 1 mL and 2 mL wells
  • PES, PVDF, GF and PP media
  • Manual through automated processing

Parallel capacity 96 samples

Format 03 · 384-well

Miniaturized screening and automation

Dense 384-well layouts support low-volume, high-throughput screening where instrument and receiver compatibility are confirmed.

  • 80 µL and 100 µL well volumes
  • Selected membrane or depth media
  • Automation-oriented sample density

Parallel capacity 384 samples

Plate and process selection

Select well format, media and driving method as one operating configuration.

Throughput depends on the complete plate workflow. Sample viscosity, particulate load, membrane binding, hold-up, pressure or centrifugal force, receiver geometry and robotic handling all influence recovery and processing time.

ANSI/SLAS footprint Confirm equipment and robotic handling fit
Receiver compatibility Match outlet geometry and collection plate
01 Well format and loading volume Select 24, 96 or 384 wells around sample count, per-well volume, hold-up and required throughput Plate architecture
02 Membrane or depth medium Match PES, PVDF, glass fiber or polypropylene media to chemistry, binding, extractables and retention targets Media selection
03 Processing and collection Confirm vacuum, positive pressure or centrifugation equipment, receiver plate, operating limits and automation interface System integration

Parallel sample preparation from laboratory screening to automated analysis.

Select the plate and media around the sample matrix, required separation, downstream assay and available processing equipment.

01

Pre-analysis clarification

High-throughput clarification before chromatography or instrumental analysis.

02

Biological sample preparation

Preparation of biological samples, lysates, buffers and assay reagents.

03

Biomolecule and bead workflows

Protein, nucleic-acid, bead and precipitate separation workflows.

04

Particle removal

Filtration of aqueous or solvent-containing samples using chemically compatible media.

05

Parallel condition screening

Screening formulation, process or analytical conditions across multiple wells.

06

Automated workflows

Manual, semi-automated and robotic sample-preparation operations.

Define the complete plate workflow before selecting the product code.

A complete RFQ should connect plate format and media to the sample, required filtration result, operating method, receiver, automation and documentation package.

01

Plate and workflow

Specify 24-, 96- or 384-well format, manual or automated use and the receiver plate.

02

Sample and volume

Provide sample chemistry, particulate load, per-well loading volume and total plate count.

03

Media and performance

Select membrane or depth medium, rating, binding profile and recovery target.

04

Driving method

Identify vacuum, positive-pressure or centrifugation equipment and operating limits.

05

Quality condition

Confirm sterility, packaging, low-binding or low-extractables needs and documentation.

06

Receiver and automation

Confirm collection geometry, ANSI/SLAS footprint, robotic gripper access and instrument compatibility.

Configuration matrix

Review well format, volume, media and retention options.

Offered combinations are plate-specific. Confirm recommended loading volume, membrane or depth-medium grade, sample compatibility, hold-up, receiver geometry, operating limits and automation fit for the selected configuration.

Plate configurations Processing interfaces

Available configurations

Product type Well format Well volume Media Pore size / retention
Filter Plate 96-well 300 µL / 350 µL / 1 mL / 2 mL PES / PVDF / GF / PP 0.2 / 0.45 / 1.0 µm; 0.7–5.0 µm grade-dependent retention; 25–30 µm by grade
Filter Plate 24-well 7 mL Selected PES / PVDF / GF / PP Grade-dependent
Filter Plate 384-well 80 µL / 100 µL Selected membrane or depth media Grade-dependent

Processing and integration checkpoints

Processing method Required interface Confirm before selection
Vacuum Compatible vacuum manifold and receiver plate Vacuum range, sealing, filtrate collection and plate support
Positive pressure Compatible pressure-processing station Pressure limit, uniform loading, receiver alignment and sealing
Centrifugation Compatible plate rotor and receiver Centrifugal-force limit, balance, stack height and collection geometry

Prepare the right filter-plate configuration for your customer project.

Confirm well format, per-well volume, sample chemistry, particulate load, media, retention grade, binding and recovery requirements, processing method, receiver plate, automation interface, sterility, packaging and documentation before submitting the final RFQ for technical review.