Spatial Biology

Below you will find technologies that enable spatial omics and multiplexing specifically for tissue pathology. If you aren’t sure about your requirements, click on the Buyer’s Guide for some tips to help you get started.

Read the Spatial Biology Buyer's Guide

Choosing the right Spatial Biology tools depends on a variety of factors, including the size of your lab, the type and volume of samples you’re handling, the research focus, your budget, and many more. There is no universally correct answer, so we encourage you to take your time and thoroughly examine all your options. Here are a few key factors to consider during your search:

  • Is the tool compliant with your regional regulatory bodies? Certain spatial biology tools might need to be cleared or approved by regulatory bodies depending on your location and their intended use. For instance, in the U.S, FDA approval might be essential for certain applications. Similar regulatory requirements may exist in your region, so make sure you’ve reviewed this aspect before making a decision.
  • What is the throughput requirement for your lab? If you are dealing with a high volume of samples, consider the speed, capacity and the ability of the tool to perform multiple operations concurrently. This is particularly important for next-generation sequencing-based spatial transcriptomics or multi-modal analysis tools.
  • Check the resolution and sensitivity of the tools. The resolution, both spatial and molecular, is important in order to capture enough detail from each tissue section or cell. In the case of spatial transcriptomics or proteomics, sensitivity of detection is equally important to ensure that you can detect low abundance transcripts or proteins.
  • Are you working with both RNA and protein targets? Many spatial biology tools now offer capabilities to study the spatial organization of both RNA and proteins simultaneously. Having this combined capability can be a great advantage for labs focusing on integrated studies of the transcriptome and proteome.
  • Consider your multiplexing requirements. Different spatial biology tools offer varying degrees of multiplexing capabilities. Be sure to consider this based on your research requirements. In general, tools with higher multiplexing capabilities tend to be more expensive but offer a more comprehensive understanding of the spatial organization.
  • Consider size and ease of use. Some high-end spatial biology tools can be large and complex to use, requiring specialized personnel. Smaller, more user-friendly tools might be a better option if you have space constraints or limited technical expertise.
  • Need for 3D reconstruction? Some spatial biology tools offer the ability to reconstruct 3D images from the collected data, which can be crucial for certain applications. Be sure to verify this feature if your research requires it.

Use the filters on this page to help you identify tools that suit your requirements. You can use the “compare” button to view specifications of up to five solutions side by side.

Remember, the specifications on this website are gathered from publicly available online resources; therefore, we cannot claim 100% accuracy. It’s always a good idea to directly contact the solution provider if you have doubts or unanswered questions. If the solution provider has registered with Pathology News, there will be a “send enquiry” button available right from the product page for your convenience.

Good luck with your search! Pathology News Team

Featured Solution Providers

Below you will find technologies that enable spatial omics and multiplexing specifically for tissue pathology. If you aren’t sure about your requirements, click on the Buyer’s Guide for some tips to help you get started.

Buyer's Guide