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The Carterra LSA is a versatile, fully integrated, high throughput monoclonal antibody (mAb) characterization platform that combines patented flow printing microfluidics with high throughput surface plasmon resonance (SPR) detection to deliver up to 100x the data in 10% of the time and with 1% of the sample requirements and consumable costs of other systems.
The LSA enables the following automated applications in single unattended runs:
The LSA’s throughput, flexibility, and applications are enabled by three core system modules:
The Carterra LSA is covered by one or more of the following U.S. Patents: 8,210,119; 8,211,382; 8,383,059; 8,488,120; 8,999,726; 9,682,372; 9,682,396; 10,300,450
Cartridge consisting of a 96 array for:
Single Flow Cell:
Cartridge covers the entire chip surface for:
The 96-channel printhead enables a 96 protein array to be immobilized in parallel from flow onto a sensor chip surface in a single step. This can be repeated up to 4 times to build a 384 array on the SPR surface.
The sample deck adds another layer of throughput and flexibility.
96 or 384-well plates can be used in the LSA sample deck with 96-channel access in 3 bays and single flow cell access in 2 bays. The sample block has the capacity for 3 x 50ml conical tubes, 5 x 15ml conical tubes, and 8 x 1.5ml tubes.
Automated switching between the single flow cell and 96-channel printhead cartridges.
Quickly and efficiently setup experiments using Navigator’s streamlined interface and purpose-built assay wizards. Fully automated experiments allow unparalleled throughput and real-time binding data richness. Queue up to six assays to maximize throughput for up to 7 days of unattended run time.
Hands-on time is further reduced via automated data analysis which enables rapid processing and initial curation of large experiments. Dedicated application-focused analysis software follows intuitive, simple-to-use workflows and powerful visualization tools.
Complete kinetic data processing and analysis can be automated, with referencing, zeroing, cropping, blank subtraction, and kinetic model fitting all executed as a single operation for up to 1152 samples per unattended run.
In the binning tool, data are linked across panels to facilitate review of sensorgrams, heat maps, networks, and a dendrogram.
The ability to merge orthogonal data and view networks by color options provides a powerful and intuitive way of assessing your antibody panel’s diversity, while keeping an epitope-centric view.
The network plots above provide an alternate view of the data, where chords represent the blocking relationships, envelopes inscribe the bins, and colors depict merged data.
A binning dendrogram, showing an adjustable custom cut-height (red line at 4.1) next to a community plot that is clustered by the custom cut height, which provides a less granular view than the four network plots above where the cut height was zero.
Selection of the appropriate sensor chip surface is essential for robust data quality when designing a high throughput SPR assay. Carterra offers a broad range of chip surfaces to support the diverse applications available on the LSA. Described here are the standard chip offerings for the LSA. Custom surfaces may be available upon request. Always consult with a Carterra Applications Scientist when selecting sensor chips.
|HC30M||Polycarboxylate hydrogel, medium charge density, 30nm coating thickness||Moderate ligand capacity for general use|
|HC200M||Polycarboxylate hydrogel, medium charge density, 200nm coating thickness||Higher ligand capacity for general use|
|CMDP||2D planar carboxymethyldextran surface, <5nm coating thickness||Lower ligand capacity for high resolution analysis|
|CMD50M||Carboxymethyldextran hydrogel, medium charge density, 50nm coating thickness||Moderate ligand capacity for general use|
|CMD200M||Carboxymethyldextran hydrogel, medium charge density, 200nm coating thickness||Higher ligand capacity for general use|
|SAD200M||Streptavidin, immobilized in a carboxymethyldextran hydrogel, medium charge density, 200nm coating thickness||High capacity for biotinylated ligand captures|
|SAHC30M||Streptavidin, immobilized in polycarboxylate hydrogel, medium charge density,
30nm coating thickness
Lower capacity for biotinylated ligand kinetic lawns
Streptavidin immobilized on 2D planar carboxymethyl dextran surface, <5nm coating thickness
Very low capacity for arraying of biotinylated ligands
|NiHC200M||Poly – NTA derivatized linear polycarboxylate hydrogel, medium charge density, 200nm coating thickness||High capacity for His-tagged ligand captures|
|PAGHC30M||Protein A/G derivatized linear polycarboxylate hydrogel, medium charge density, 30nm coating thickness||
Moderate capacity for kinetics of multi-species IgG
|PAGHC200M||Protein A/G derivatized linear polycarboxylate hydrogel, medium charge density, 200nm coating thickness||
High capacity for quantitation of multi-species IgG
|PAHC200M||Protein A derivatized linear polycarboxylate hydrogel, medium charge density, 200nm coating thickness||
High capacity for quantitation of human IgG
While CMD is a well described chemistry for use in biosensors, the linear polycarboxylate chemistry of HC chips provides an alternate surface chemistry to that of CMD in instances of non-specific binding or when differential diffusion characteristics are warranted.
CMD and HC sensor chips can be used to build custom capture surfaces such as anti-mouse or Protein A/G via amine coupling of capture molecules.
When stored at -20 °C CMD and HC surfaces are good for two years after purchase, while protein derivatized coatings such as SAD should be used within one year.