Abstract: The invention is a method and a system for autonomous motion control and motion planning of a vehicle, wherein the vehicle is defined as a hybrid system having hybrid modes.

Abstract: A tuneable clamping device (1) is envisaged which comprises a stationary part (2) which is fixed to a table of a machine tool (10) or being part of a table of a machine tool (10), and a moving table (3) on which the actual flexible workpiece (11) is clamped. The tuneable clamping device (1) achieves tuning between the standing part (2) and the machine tool table (10) in order to damp a dominant mode of the workpiece (11) by playing the role of a device that provides serial dynamic coupling or coupling through the process to dissipate indirectly kinetic energy related to the workpiece (11).

Abstract: The subject matter of the invention is a communication method comprising the establishment of a communication route to a target partner not reachable by direct addressing by by-passing a node blocking the direct connection, further comprising the steps of setting up a TURN server at one or more users of the communication network in response to a definite and pre-granted request or in advance, and implementing the communication route to be established via at least one mentioned TURN server, with the effective mutual authorization management of the users involved in the communication session.

Abstract: A method for source selective real-time monitoring and mapping of environmental noise, comprising the steps of ? identifying sources in the area; ? designing places for the monitoring stations; ? creating a data collecting and data processing centre; ? measuring the noise impact, and observation of the sources with the sensors; ? defining the noise propagation; ? assemblying the monitoring stations including a sound measuring device, a computing unit and a communication unit; ? determining the resultant noise impact prevailing in the respective measurement points; ? determining the sources dominant in the individual moments on the basis of the data of the sensors; ? determining the average noise impact of the respective sources for a longer period; ? obtaining an average noise impact; ? extending the measurement into a noise impact map; ? calculating the effective noise impact of every noise source in every point of the area for every period; ? producing the effective noise impact map of the respective period

Abstract: The invention is based on a method for hand disinfection quality control comprising the steps of providing a hand disinfection medium comprising a light reflecting particles responsive to light mostly outside the visible spectral range of light, applying the hand disinfection medium comprising the light reflecting particles in a prescribed manner for a prescribed time, illuminating the hands disinfected this way with a light source providing light in a spectral range for activating the reflecting particles. The method according to the invention further comprises the steps of providing digital images of the hands from both sides, and evaluating the images by a computer program in order to determine the cleanness of the hands. The invention also relates to an apparatus for implementing the method and assessing hand disinfection quality.

Abstract: The invention relates to a microfluidic channel (6) with shifted levels comprising a channel pillar (2a, 2b) and a channel bridge (3) which microfluidic channel (6) connects a channel (4a, 4b), situated in a first level of a base plate (1, 11) which contains a microfluidic system, with a second level of said base plate (1, 11). A longitudinal hollow with an edgeless cross-section is connected, as a channel pillar (2a, 2b), with one end, to the ending of the channel (4a, 4b) to be connected and formed in the first level of the base plate (1, 11), furthermore, the channel bridge (3) created at the second level of the base plate (1, 11) and having a cross-section fitting to the channel pillar (2a, 2b) is surrounded by a filling-up material (7) filled in subsequently, and a rounding-off is formed at the junction of the connecting end of the channel bridge (3) and the end of the channel pillar (2a, 2b) extending to the second level.