LabOnFoil In the EU FP7 funded project LabOnFoil the objective is to develop ultra-low-cost laboratories on chips (LOC) without compromising time response, sensitivity or simplicity of use. The user will obtain the test results using a very popular interface, a smartphone, and a set of labcards and skin patches, where the sample preparation and detection take place. The device will be developed to be able to analyze DNA, RNA, proteins and chemical compounds like cocaine. The dramatic cost reduction will be based on the use of large films instead of wafer substrate for chip production.
SPIDIA In vitro diagnostics have allowed a great deal of progress in medicine but are limited by two factors: (a) the lack of guidelines in collection, handling, stabilisation and storage of biosamples which limits the reproducibility of subsequent diagnoses, and (b) its scale is restrained to the cellular level. To address this first point, the EU FP7 funded Integrated Project SPIDIA aims at developing quality guidelines for molecular in vitro diagnostics and to standardise the pre-analytical workflow in related procedures. Regarding the second point, SPIDIA aims at developing modern pre-analytical tools for diagnostics improving the stabilisation, handling and study of free biomolecules within blood, plasma, serum, tissues and tumours.
CD-MEDICS The EU FP7 funded project CD-MEDICS has the goal to develop a technology platform for point-of-care diagnostics, capable of simultaneous genomic and proteomic detection, for the management monitoring and diagnosis of coeliac disease. Coeliac disease affects 1 in 100-300 genetically predisposed individuals who develop a small intestinal inflammation (enteropathy) on exposure to dietary gluten. Accurate and reliable diagnosis together with dietary monitoring is a must for the well-being of CD patients and their social environment. The chip system developed within CD-MEDICS will enable fast and accurate diagnosis by combining serology tests with HLA-typing.
Is a Swedish center of excellence with focus on biomaterial sciences and cell therapy. Using real-time PCR and techniques that we develop for single cell expression profiling we study the growth of cells at the surface of implants. We are developing methods to study the expression of genes in individual cells, and to correlate the expression to physiologic cell properties such as membrane potential as measured by patch clamp technique on the same cell.
Single-cell and sub cell qPCR We also study heterogeneity on cellular level, and have found that expression of certain genes can differ several orders of magnitude between cells in the same seemingly homogeneous population (Genome Research 15, 1388-1392, 2005, Nature Reviews Genetics 6, 1, 2006). In particular, we discovered that expression of genes in individual cells varies according to the log normal distribution. We also developed a technique to measure intracellular mRNA gradients by real-time PCR.
Expression profiling In collaboration with MultiD Analyses we develop methods for multivariate real-time PCR expression profiling. These methods are particularly powerful for the classification of genes and samples with similar expression patterns, and they are useful for applications from the identification of expression pathways to classification of diseases based on expression profiles.
Immuno-qPCR In many cases expression of proteins is more informative than gene expression profiles. We have combined the sensitivity and accuracy of qPCR with the specificity of immunoassays in immuno qPCR (J. Immun. Meth. 304, 107-116, 2005). Binding the protein by two specific antibodies, one of which is tagged with an oligonucleotide, we can, after careful washing, determine the amount of target protein by amplifying the DNA. Immuno qPCR can be performed in most conventional standard qPCR instruments.
