Abstract: A microfluidic chip for conducting microbiological assays, comprises a substrate in which incubation segments, a sample reservoir and microfluidic channels connecting said sample reservoir with said incubation segments are arranged. Said microfluidic chip further comprise a non-aqueous liquid reservoir for containing non-aqueous liquid wherein said reservoir is connectable via a releasable airtight and liquid-tight valve with said microfluidic channels connecting said sample reservoir with said incubation segments each incubation segment comprises an incubation well (113) connected by a gas-exchange channel (115) to an unvented gas cavity (111).

Abstract: Disclosed are methods and systems for rapidly testing antimicrobial susceptibility, wherein the qualitative and quantitative susceptibility of an inoculated microorganism against an antimicrobial agent or a combination of antimicrobial agents is determined as a function of one or more slopes of linear trends ? of data of readouts.

Abstract: A microfluidic chip for partitioning a liquid composition into multiple aliquots has a processing compartment including an inlet and an outlet, wherein the outlet of the processing compartment is connected either to an inlet of the compression compartment or wherein in case a compression channel is present, the outlet of the processing compartment is connected to the compression channel, which is connected to the inlet of the compression compartment, preferably wherein each of the compression compartments exhibits the same volume.

Abstract: The present invention relates to a microfluidic chip and valve, production process and uses thereof according to the independent claims.

Abstract: Disclosed are methods and systems for rapidly testing antimicrobial susceptibility, wherein the qualitative and quantitative susceptibility of an inoculated microorganism against an antimicrobial agent or a combination of antimicrobial agents is determined as a function of one or more slopes of linear trends ? of data of readouts.

Abstract: An incubation segment in a microfluidic chip for microbiological assays, wherein said incubation segment is formed in a substrate with an upper major face and a lower major face, said segment includes an incubation well, an inlet channel through which a sample may be inputted into said incubation well, and a gas cavity connected to said incubation well by a microfluidic communication channel, wherein said gas cavity is unvented and the base of the gas cavity is connected to the base of the incubation well by the communication channel.

Abstract: A microfluidic chip for conducting microbiological assays, comprises a substrate in which incubation segments, a sample reservoir and microfluidic channels connecting said sample reservoir with said incubation segments are arranged. Said microfluidic chip further comprise a non-aqueous liquid reservoir for containing non-aqueous liquid wherein said reservoir is connectable via a releasable airtight and liquid-tight valve with said microfluidic channels connecting said sample reservoir with said incubation segments each incubation segment comprises an incubation well (113) connected by a gas-exchange channel (115) to an unvented gas cavity (111).

Abstract: The present invention relates to a method for determining an estimate of a concentration of analyte particles E(C) as well as an apparatus for use in the inventive method, uses of the inventive method or the inventive apparatus, a sample holder and a kit for use in the inventive method.

Abstract: The present invention relates to a method for determining an estimate of a concentration of particles E(C), wherein a sample of predetermined volume is divided into a number (N) of compartments, the (N) compartments comprise or consist of different sample volumes (vi) and/or different dilution factors (di) of the sample, at least part of the particles that are present in any of the (N) compartments provide a measurable signal and the estimated concentration of particles E(C) is a function of measured signals, as well as an apparatus for use in the inventive method, uses of the inventive method, a sample holder and a kit for use in the inventive method.

Abstract: The invention relates to thermal cycling device comprising: a sample location; a first heating means, wherein advantageously said first heating means is a contact heating means; a second heating means, wherein said second heating means is configured to bring said sample to a second temperature by directing electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation through its second end to the sample location, its uses and methods based thereon.

Abstract: The invention relates to thermal cycling device comprising: a sample location; a first heating means, wherein advantageously said first heating means is a contact heating means; a second heating means, wherein said second heating means is configured to bring said sample to a second temperature by directing electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation through its second end to the sample location, its uses and methods based thereon.

Abstract: The invention relates to a system (1) for supplying a microfluidic subsystem with liquids, comprising a first valve (14, 29, 46) and a first fluidic duct (10, 25, 28), for connecting said first valve (14, 29, 46) with said microfluidic subsystem and supplying a first liquid, and a second fluidic duct (11), for connecting with said microfluidic subsystem and supplying a second liquid characterized in that said first valve (14, 29, 46) is suitable for closing with time resolution not worse than 100 msec, and parameters of said first fluidic duct (10, 15, 28) are chosen such that the value of X1[Pa?1], defined as: X1[Pa?1]=(0.

Abstract: The present invention relates to a method for determining an estimate of a concentration of analyte particles E(C) as well as an apparatus for use in the inventive method, uses of the inventive method or the inventive apparatus, a sample holder and a kit for use in the inventive method.

Abstract: The invention provides a new microfluidic device and method for performing operations on droplets. The invention extends to microfluidic systems comprising one or more of the microfluidic devices.

Abstract: A microfluidic method and device for focusing and/or forming discontinuous sections of similar or dissimilar size in a fluid is provided. The device can be fabricated simply from readily-available, inexpensive material using simple techniques.

Abstract: The invention relates to a method for determining biochemical parameters of a body fluid, wherein a sample of said body fluid in the form of a droplet is transported through a channel of a microfluidic system using a carrier liquid, mixed with a reagent thus initiating a chemical reaction between the sample and the reagent, and the result of the chemical reaction is measured, preferably with a spectrophotometer, whereby the said biochemical parameters of the body fluid are determined, characterised in that the material used for fabrication of the microfluidic system and the said carrier liquid is pair of Teflon and Fluorinert HFE-7100.

Abstract: The present invention relates to a method for determining an estimate of a concentration of particles E(C), wherein a sample of predetermined volume is divided into a number (N) of compartments, the (N) compartments comprise or consist of different sample volumes (v1) and/or different dilution factors (di) of the sample, at least part of the particles that are present in any of the (N) compartments provide a measurable signal and the estimated concentration of particles E(C) is a function of measured signals, as well as an apparatus for use in the inventive method, uses of the inventive method, a sample holder and a kit for use in the inventive method.

Abstract: The invention relates to a method for splitting droplets on demand in a microfluidic junction, comprising the supply channel, the first drain channel and the second drain channel, the method comprises the following steps: a. delivering a droplet (1) to the said microfluidic junction (3) through said supply channel (2) by means of a flow of continuous liquid through the supply channel (2) and said first drain channel, b. stopping the flow in said first drain channel and opening the flow in said second drain channel until a fraction (7) of the droplet (1) is present in the second drain channel, c. resuming the flow in the first drain channel and closing the flow in the second drain channel, at least until the fraction (7) of the said droplet (1) being present in the first drain channel separates from the rest of the droplet.

Abstract: A microfluidic method and device for focusing and/or forming discontinuous sections of similar or dissimilar size in a fluid is provided. The device can be fabricated simply from readily-available, inexpensive material using simple techniques.

Abstract: A microfluidic method and device for focusing and/or forming discontinuous sections of similar or dissimilar size in a fluid is provided. The device can be fabricated simply from readily-available, inexpensive material using simple techniques.