Benefit from Custom Assays Built Specifically for You
With custom assays developed specifically for the Simoa® HD-X, SR-X, and SP-X, Simoa® Homebrew enables labs across the globe to:
- Screen and test a wide range of antibodies
- Rapidly achieve high-performance bead and planar immunoassay development
- Gain access to ultrasensitive Simoa® technology
View our curated lists of biomarker assays that have been developed using homebrew for research in neurology, oncology, and immunology
On-Site Customer Assay Development Training
Work closely with the dedicated scientists at Quanterix to get the most out of your custom assays. Our team of experts can provide training to:
- Introduce the basics of immunoassay optimization and validation and specifics of Simoa® assay development
- Offer expert tips and tricks on how to get increased sensitivity in your custom Simoa® assay
- Closely assist on reagent preparation and custom prototype assay optimization for your assay of choice
- Discuss the next steps for your specific Simoa® assay, including possibility of multiplexing
No matter what you need, Quanterix experts are committed to streamlining your custom immunoassay development.
The Homebrew Process
For Custom Immunoassay Development
In a matter of days, you can develop custom immunoassays with ultrasensitivity. The Quanterix Homebrew Assay Kit and your proprietary reagents work together for rapid Simoa® assay prototyping with improved biomarker detection and ease-of-use compared to standard ELISA.
The development process occurs in three basic stages as shown to the right.
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Reagent Preparation & Initial Screening: An initial lot of capture bead and detector reagents are prepared and assessed against benchmark sensitivity.
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Assay Optimization: If additional sensitivity is desired, new batches can be generated and optimized until sufficient performance is obtained.
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Reagent Batch Scale Up: If this initial batch meets performance objectives, additional batches may be prepared for a larger quantity.
Simoa® Bead Homebrew Assay Principle
A homebrew bead-based immunoassay starts with the capture and labeling of analyte with an enzyme conjugate (streptavidin ß‐galactosidase, SBG). Analyte is captured with beads, biotinylated detection antibody is added to form a captured analyte sandwich, and the immunosandwich is labeled with enzyme (SBG). Washing and incubation requirements will depend on the specific assay protocol being used. After each incubation, a magnet is used to pelletize beads. After the final wash cycle, the capture beads are re‐suspended in resorufin ß‐D‐galactopyranoside (RGP) substrate. The beads are then transferred to the entry port of a Simoa® disc in preparation for imaging and analyte quantification.
Simoa® Planar Homebrew Assay Principle
The kit provides universal assay plates spotted with an immobilized anchor antibody in 96 microwells. These antibodies are highly specific for the provided Simoa® Planar Array Homebrew tag. The kit provides all necessary materials to perform peptide tag labeling for up to 6 capture antibodies and biotinylation for up to 6 detector antibodies.
In the Simoa® planar Homebrew assay format, peptide-tagged capture antibody first binds the plate-bound anchor. The remainder of the assay workflow follows the familiar sandwich immunoassay format. Antigen is sandwiched between the peptide tagged capture. Biotinylated detector antibodies, streptavidin-HRP, and a chemiluminescent HRP substrate are then used to signal immunocomplex formation. Intensity of this signal is directly proportional to the quantity of analyte in the standard or sample of interest.
Neurology
Comparative Spatial Analyses of the Tumor Immune Landscape in Mouse Models of Glioblastoma Using the PhenoCode Discovery Mouse Neuro Panel and Customized Markers
Poster Background Developing effective therapies for glioblastoma (GBM) relies on robust preclinical animal models that enable detailed investigation of tumor biology, discovery of therapeutic targets, and evaluation of new treatment…
Oncology
Development of a Spatial Metabolic Map of Immunotherapy Sensitive and Resistant Cutaneous Skin Carcinoma
Poster Background Ultrahigh-Plex Single-cell Spatial Phenotyping has revealed valuable insights into the tumor immune microenvironment (TiME) for biomarker discovery and stratification of clinical responses. Metabolic reprogramming is a key hallmark…
Spatial Immunometabolic Profiling of Non-Small Cell Lung Cancer Reveals Distinct Immune Exclusion Patterns and Functional Niches
Analytical validation of a multiplex immunofluorescence 7-Biomarker Immunoprint® assay on the Akoya PhenoImager HT platform for stage I/II Melanoma
Neurology
Neurodegenerative biomarkers in different chambers of the eye relative to plasma: an agreement validation study
Alzheimer’s Research and Therapy | August 26, 2024 Sampani K, Ness S, Tuz-Zahra F, Aytan N, Spurlock EE, Alluri S, Chen X, Siegel NH, Alosco ML, Xia W, Tripodis Y,…
Neurology
Clinical validation of the LucentAD p-Tau 217 as a lab developed test (LDT) for clinical use
Poster The intersection of new therapeutic options for Alzheimer’s disease (AD), the emergence of accurate blood-based tests for AD, and the anticipated health system log jam for confirmatory diagnostic testing…
Neurology
Development of thresholds and a visualization tool for use of a blood test in routine clinical dementia practice
Alzheimer’s & Dementia | August 3, 2024 Verberk IMW, Jutte J, Kingma MY, Vigneswaran S, Gouda MMTEE, van Engelen MP, Alcolea D, Arranz J, Fortea J, Lleó A, Chevalier C,…
Neurology
Discovering novel plasma biomarkers for ischemic stroke: Lipidomic and metabolomic analyses in an aged mouse model
Journal of Lipid Research | August 2, 2024 Becktel DA, Frye JB, Le EH, Whitman SA, Schnellmann RG, Morrison HW, Doyle KP. J Lipid Res. 2024 https://doi.org/10.1016/j.jlr.2024.100614 Abstract Ischemic stroke…