Abstract: In a sterilisation system for sterilising and/or neutralising the activity of micro-organisms in liquids and gasses, and in a sterilisation and/or neutralisation process, sterilisation is carried out by exposing the micro-organisms to a potential difference ranging from 200 to 1000 mV.

Abstract: Disclosed is a method for carrying out a reaction in a microreaction chamber. Nanoparticles which have been advantageously subjected to specific reactions in the microreaction chamber are used for carrying out the reaction. The obtained reaction product, which is preferably also provided in the form of nanoparticles. can then be removed from the microreaction chamber. Advantageously, the ongoing reaction can be specifically influenced by using the microreaction chamber. Both endothermic and exothermic reactions can be carried out with an accurately predictable result by feeding energy in a dosed manner into/out of the reaction chamber.

Abstract: Disclosed is a method for carrying out a reaction in a microreaction chamber. Nanoparticles which have been advantageously subjected to specific reactions in the microreaction chamber are used for carrying out the reaction. The obtained reaction product, which is preferably also provided in the form of nanoparticles. can then be removed from the microreaction chamber. Advantageously, the ongoing reaction can be specifically influenced by using the microreaction chamber. Both endothermic and exothermic reactions can be carried out with an accurately predictable result by feeding energy in a dosed manner into/out of the reaction chamber.

Abstract: The invention relates to a method for verification of particles, in particular of nanoparticles (16), in which a sensor area (15) is made available for this purpose, on which the particles can accumulate. The invention also relates to a sensor arrangement having a sensor area (15) which is suitable for carrying out the method mentioned. The invention provides for a plurality of sensor areas (15) to be arranged, on which particles which each have different characteristics can accumulate. For example, this makes it possible to classify nanoparticles (16) of different size, thus advantageously allowing a statement to be made on the size distribution of the nanoparticles (16) in a nanopowder.

Abstract: In a sterilisation system for sterilising and/or neutralising the activity of micro-organisms in liquids and gasses, and in a sterilisation and/or neutralisation process, sterilisation is carried out by exposing the micro-organisms to a potential difference ranging from 200 to 1000 mV.

Abstract: A catalyst system for an internal combustion engine with at least one cylinder and/or piston is characterized in that the catalyst is arranged in the form of nanoparticles on the cylinder and/or piston.

Abstract: A reactor with a reaction chamber (14), which is produced for example by etching or other micro-mechanical production processes. An agitating device (20) is formed for example by an electrical field generator (18), which acts on electrical charge carriers (21) of the sample fluid, and consequently leads to circulation or mixing of the sample fluid. As an alternative, a magnetic field generator which acts on magnetic particles in the sample fluid may also be used. The reactor permits the extensive miniaturization of test reactors for bioprocesses, since circulation of the fluid to achieve a quasi steady-state bioprocess is possible the agitating devices even under extremely confined spatial conditions.

Abstract: The invention relates to a method for verification of particles, in particular of nanoparticles (16), in which a sensor area (15) is made available for this purpose, on which the particles can accumulate. The invention also relates to a sensor arrangement having a sensor area (15) which is suitable for carrying out the method mentioned. The invention provides for a plurality of sensor areas (15) to be arranged, on which particles which each have different characteristics can accumulate. For example, this makes it possible to classify nanoparticles (16) of different size, thus advantageously allowing a statement to be made on the size distribution of the nanoparticles (16) in a nanopowder.

Abstract: A microreactor in which interaction partners (14) are immobilized on the reactor wall (15) and a catalyst (21) is bound to these interaction partners. The catalyst (21) is preferably bound to the interaction partners (14) by hybridization of corresponding oligonucleotides. Furthermore, catalyst particles (21) which can be attached to fixed interaction partners (14) by a coupling-on partner (23) provided for this purpose are disclosed. The microreactor is suitable and advantageous for flexible use since a multiplicity of different catalyst particles can be attached to the tube walls of the reaction space (12) without any great difficulty. These compounds can be detached again, so that the microreactor can be used in succession for different reactions. The microreactor is suitable, for upstream processing of a bioprocess.

Abstract: A reactor with a reaction chamber (14), which is produced for example by etching or other micro-mechanical production processes. An agitating device (20) is formed for example by an electrical field generator (18), which acts on electrical charge carriers (21) of the sample fluid, and consequently leads to circulation or mixing of the sample fluid. As an alternative, a magnetic field generator which acts on magnetic particles in the sample fluid may also be used. The reactor permits the extensive miniaturization of test reactors for bioprocesses, since circulation of the fluid to achieve a quasi steady-state bioprocess is possible the agitating devices even under extremely confined spatial conditions.