Abstract: A fitting for providing a fluid connection between a capillary and a fluidic conduit of a fluidic component, wherein the fitting comprises a capillary reception configured for receiving the capillary, a force applicator configured for being operable to apply a fixing force for fixing the capillary within the fitting, a force limitation mechanism configured for limiting the fixing force being applicable by the force applicator to the capillary, a force splitter configured for splitting the fixing force into an advance force component for advancing the capillary received in the capillary reception towards the fluidic component and into a clamping force component for clamping the capillary received in the capillary reception within the fitting, and a biasing mechanism particularly arranged between the force applicator and the force splitter and configured for biasing the force splitter against the capillary.

Abstract: A fitting for providing a fluid connection between a capillary and a fluidic conduit of a fluidic component, wherein the fitting comprises a capillary reception configured for receiving the capillary, a force applicator configured for being operable to apply a fixing force for fixing the capillary within the fitting, a force limitation mechanism configured for limiting the fixing force being applicable by the force applicator to the capillary, a force splitter configured for splitting the fixing force into an advance force component for advancing the capillary received in the capillary reception towards the fluidic component and into a clamping force component for clamping the capillary received in the capillary reception within the fitting, and a biasing mechanism particularly arranged between the force applicator and the force splitter and configured for biasing the force splitter against the capillary.

Abstract: A fitting for providing a fluid connection between a capillary and a fluidic conduit of a fluidic component, wherein the fitting comprises a capillary reception configured for receiving the capillary, a force applicator configured for being operable to apply a fixing force for fixing the capillary within the fitting, a force limitation mechanism configured for limiting the fixing force being applicable by the force applicator to the capillary, a force splitter configured for splitting the fixing force into an advance force component for advancing the capillary received in the capillary reception towards the fluidic component and into a clamping force component for clamping the capillary received in the capillary reception within the fitting, and a biasing mechanism particularly arranged between the force applicator and the force splitter and configured for biasing the force splitter against the capillary.

Abstract: A fluidic chip device configured for processing a fluidic sample includes two outer boundary layers, and at least one reinforcing layer arranged between the two outer boundary layers and being at both of its opposing main surfaces laminated with directly adjacent layers to reinforce pressure resistance of the fluidic chip device by the lamination, in which at least a part of the layers of the fluidic chip device includes a hole forming at least a part of a fluidic conduit for conducting the fluidic sample under pressure.

Abstract: A fitting (200) for providing a fluid connection between a capillary (202) and a fluidic conduit (204) of a fluidic component (230), wherein the fitting (200) comprises a capillary reception configured for receiving the capillary (202), a force applicator (206) configured for being operable to apply a fixing force for fixing the capillary (202) within the fitting (200), a force limitation mechanism (208) configured for limiting the fixing force being applicable by the force applicator (206) to the capillary (202), a force splitter (210, 234) configured for splitting the fixing force into an advance force component for advancing the capillary (202) received in the capillary reception towards the fluidic component (230) and into a clamping force component for clamping the capillary (202) received in the capillary reception within the fitting (200), and a biasing mechanism (212) particularly arranged between the force applicator (206) and the force splitter (210, 234) and configured for biasing the force splitte

Abstract: A fluidic chip device configured for processing a fluidic sample includes two outer boundary layers, and at least one reinforcing layer arranged between the two outer boundary layers and being at both of its opposing main surfaces laminated with directly adjacent layers to reinforce pressure resistance of the fluidic chip device by the lamination, in which at least a part of the layers of the fluidic chip device includes a hole forming at least a part of a fluidic conduit for conducting the fluidic sample under pressure.

Abstract: A cover for sealing a container and preferably containers for a well plate. The cover is comprised of at least a top layer and a bottom layer structured in a way to form a recloseable aperture. Preferably, each of the layers comprise a recloseable aperture structured as flap, damper, baffle or butterfly valve respectively, wherein the recloseable apertures are arranged on top of each other. In a preferred embodiment of the invention a third moveable layer is arranged between the top and the bottom layer. By moving the middle layer, the aperture in the cover can be closed.

Abstract: A fluidic chip device adapted for processing a fluidic sample, the fluidic chip device comprising a substrate comprising a fluidic conduit for conducting the fluidic sample under pressure, and two reinforcing structures between which the substrate is arranged, wherein the two reinforcing structures are connected to one another to reinforce pressure resistance of the substrate.

Abstract: A microfluidic device comprising at least one inlet port, at least one flow path coupled to the inlet port, and at least one fluid separation element coupled to the flow path, wherein the fluid separation element comprises a packing material and is adapted for separating different components of a fluid, wherein the microfluidic device comprises at least one retaining device for keeping the packing material of the fluid separation element fixed in place and protecting the microfluidic device from debris polluting the analyte.

Abstract: A cover for sealing a container and preferably containers for a well plate. The cover is comprised of at least a top layer and a bottom layer structured in a way to form a recloseable aperture. Preferably, each of the layers comprise a recloseable aperture structured as flap, damper, baffle or butterfly valve respectively, wherein the recloseable apertures are arranged on top of each other. In a preferred embodiment of the invention a third movable layer is arranged between the top and the bottom layer. By moving the middle layer, the aperture in the cover can be closed.

Abstract: The invention relates to a fluid analyzer 20, in particular, a fluid analyzer for use in microfluid analysis, preferably for use in bioanalysis. The fluid analyzer 20 comprises a sturdy base on which instrumentation modules are rigidly mounted, said instrumentation modules include an analysis device for conducting fluid analyses which is preferably configured in the form of a microfluidic chip, and a handling device 32, by means of which a storage device, in particular, a well plate 43, incorporating wells for accommodating fluids may be repositioned from a first position to a second position, in which a transport of the fluids from the wells to the analysis device is possible. Another instrumentation module 24 in the form of a device that is also rigidly attached to the base 28 is provided for the purpose of adding fluids to, and/or extracting fluids from, the wells of the storage device 33 and/or adding fluids to, and/or extracting fluids from, the analysis device.