A fully qualified run at a CRO costs weeks of turnaround, and the follow-up question needs another cycle.
Running the assay in-house puts the answer in the same week the question is asked, and the follow-up injection on the same chip.
Every microgram matters during early discovery.
Analyse up to 16 targets and controls from one small sample, with direct measurement of filtered unpurified material.
Due diligence, licensing, and IND-enabling packages ask for more than an endpoint concentration.
Licensing, partnering, and due diligence require evidence of binding quality, not just concentration. Generate sensorgrams, binding affinity, and active concentration in-house with standardized methods.
Early programmes need flexibility, not a six-figure commitment. Later stages need throughput, not an extra instrument.
The inQuiQ scales from benchtop protein characterization to 768-sample workflows using the same chemistry and methods.
Yes. The affinity range of 10 pM to 10 mM, flexible immobilization chemistry, and assays cover antibodies, peptides and fragments, degraders and ternary complexes, oligonucleotides, and particles such as EVs and LNPs on the same instrument.
The inQuiQ starts as a 4-channel benchtop system. A spotter expands the chip to 16 sensors for multi-target panels, and the inQuiQ768 adds an autosampler for 2x96 or 2x384 well plates, running up to 768 samples in series.
An ELISA returns a value at a fixed endpoint. The inQuiQ records association and dissociation continuously, so a single run gives kon, koff, and KD alongside specificity and active concentration, with no label on either binding partner.
Yes. Existing SPR assays can be readily transferred to the inQuiQ. The inQuiQ supports flexible immobilization approaches, allowing researchers to use established capture molecules, surface chemistries, and assay strategies without having to redesign their workflow around a fixed assay format.
Yes. The inQuiQ can be used with a range of sample types, from purified proteins to more complex biological samples, depending on the assay design and sample matrix. For example, an antibody workflow can use a purified antigen or Fc-binding capture surface to immobilize the target, followed by injection of antibody-containing samples to measure binding kinetics and compare antibody variants.