Abstract: The present application relates to leaching chambers, for receiving, collecting and dispersing water underground, leaching assemblies and kits comprising the same, and methods and uses thereof. More particularly, provided is a leaching chamber comprising: an elongated body having a top wall, two opposing sidewalls extending downwardly from each side, said elongated body defining an internal chamber having an open bottom to allow for discharge of the water; and a distribution channel formed integrally within the top wall and configured for receiving and dispersing the water, said distribution channel being formed longitudinally and being perforated for draining the water into the internal chamber, wherein said elongated body and said distribution channel form a single unitary piece.

Abstract: The present application relates to leaching chambers, for receiving, collecting and dispersing water underground, leaching assemblies and kits comprising the same, and methods and uses thereof. More particularly, provided is a leaching chamber comprising: an elongated body having a top wall, two opposing sidewalls extending downwardly from each side, said elongated body defining an internal chamber having an open bottom to allow for discharge of the water; and a distribution channel formed integrally within the top wall and configured for receiving and dispersing the water, said distribution channel being formed longitudinally and being perforated for draining the water into the internal chamber, wherein said elongated body and said distribution channel form a single unitary piece.

Abstract: A sensor device for EIT imaging comprises an electrode array for measuring an impedance distribution, with at least one sensor for determining spatial orientation of the electrode array coupled to the electrode array. EIT imaging instrument is connectable to a sensor for determining spatial orientation of a test person, and optionally in addition connectable to a sensor for gathering information on electrical and/or acoustic activity and/or a sensor for gathering information on dilation. A computing device is connected or integrated for adjusting impedance data based on spatial data, which spatial data describe the spatial orientation of a test subject. An EIT imaging method for measuring an impedance distribution and adjusting said measured impedance distribution comprises measuring impedance distribution by using an impedance distribution measuring device comprising an electrode array, and transforming the measured impedance distribution into EIT images.

Abstract: A sensor device for EIT imaging comprises an electrode array for measuring an impedance distribution, with at least one sensor for determining spatial orientation of the electrode array coupled to the electrode array. EIT imaging instrument is connectable to a sensor for determining spatial orientation of a test person, and optionally in addition connectable to a sensor for gathering information on electrical and/or acoustic activity and/or a sensor for gathering information on dilation. A computing device is connected or integrated for adjusting impedance data based on spatial data, which spatial data describe the spatial orientation of a test subject. An EIT imaging method for measuring an impedance distribution and adjusting said measured impedance distribution comprises measuring impedance distribution by using an impedance distribution measuring device comprising an electrode array, and transforming the measured impedance distribution into EIT images.

Abstract: A sensor device for EIT imaging comprises an electrode array for measuring an impedance distribution, with at least one sensor for determining spatial orientation of the electrode array coupled to the electrode array. An EIT imaging instrument is connectable to a sensor for determining spatial orientation of a test person, and optionally in addition connectable to a sensor for gathering information on electrical and/or acoustic activity and/or a sensor for gathering information on dilation. A computing device is connected or integrated for adjusting impedance data based on spatial data, which spatial data describe the spatial orientation of a test subject. An EIT imaging method for measuring an impedance distribution and adjusting said measured impedance distribution comprises measuring impedance distribution by using an impedance distribution measuring device comprising an electrode array, and transforming the measured impedance distribution into EIT images.

Abstract: An electrode assembly for an EIT scanning device (11) including an electrode (15), a current supply unit (17), a voltage buffer unit (19), a switch logic unit (21), and lines for connecting the different elements, whereby the switch logic unit (21) comprises at least one element of a first shift register (27) and at least one element of a second shift register (29). A belt-like device comprising a plurality of said electrode assemblies. A method of measuring an EIT-image using such electrode assemblies preferably arranged in such a belt-like device.

Abstract: Intensity standardization of MRI data sets aims at correcting scanner-dependent intensity variations. An automatic technique, called STI, which shares the simplicity and robustness of histogram-matching techniques, but also incorporates tissue spatial intensity information, has been discovered. The method comprises registering a medical image to a standard image; applying one or more masks to the medical and standard images for isolating certain specific image components; determining the most common intensity data pair between the medical and standard images for each isolated image component; calculating a formula that joins the most common intensity data pair of each image component; and interpolating an intensity data adjustment using the formula and applying it to the medical image data to generate a standardized version of the medical image.

Abstract: An electrode assembly for an EIT scanning device (11) including an electrode (15), a current supply unit (17), a voltage buffer unit (19), a switch logic unit (21), and lines for connecting the different elements, whereby the switch logic unit (21) comprises at least one element of a first shift register (27) and at least one element of a second shift register (29). A belt-like device comprising a plurality of said electrode assemblies. A method of measuring an EIT-image using such electrode assemblies preferably arranged in such a belt-like device.

Abstract: A sensor device for EIT imaging comprises an electrode array for measuring an impedance distribution, with at least one sensor for determining spatial orientation of the electrode array coupled to the electrode array. An EIT imaging instrument is connectable to a sensor for determining spatial orientation of a test person, and optionally in addition connectable to a sensor for gathering information on electrical and/or acoustic activity and/or a sensor for gathering information on dilation. A computing device is connected or integrated for adjusting impedance data based on spatial data, which spatial data describe the spatial orientation of a test subject. An EIT imaging method for measuring an impedance distribution and adjusting said measured impedance distribution comprises measuring impedance distribution by using an impedance distribution measuring device comprising an electrode array, and transforming the measured impedance distribution into EIT images.

Abstract: Intensity standardization of MRI data sets aims at correcting scanner-dependent intensity variations. An automatic technique, called STI, which shares the simplicity and robustness of histogram-matching techniques, but also incorporates tissue spatial intensity information, has been discovered. The method comprises registering a medical image to a standard image; applying one or more masks to the image medical and standard images for isolating certain specific image components; determining the most common intensity data pair between the medical and standard images for each isolated image component; calculating a formula that joins the most common intensity data pair of each image component; and interpolating an intensity data adjustment using the formula and applying it to the medical image data to generate a standardized version of the medical image.