Abstract: Methods, systems, and devices are described for fabricating and using an ANSI-SLAS compatible environmental control reservoir apparatus having one or more thermally conductive and/or magnetic aspects. In one embodiment, the apparatus may comprise a well plate containing a plurality of wells enabled to hold liquid, wherein the well plate is configured to geometrically mate with an adapter. The surface area of each well may be controlled by the addition of fins extending inwardly towards the axial center of each well volume. In some embodiments, the adapter provides a plurality of magnetized rods to which a magnetic field may be applied to enable thermal control of the well plate and associated liquid.

Abstract: A reservoir assembly having one or more troughs mounted within a reservoir frame by interconnecting the one or more troughs to a reservoir frame, which is SBS-compliant in some embodiments. In some embodiments, each of the one or more troughs provides both mounting projections and projection mounting channels, and the reservoir frame provides a plurality of projection mounting channels or mounting projections. In embodiments having multiple such troughs, the troughs can be interconnected, and mounted to the reservoir frame, via mounting projections penetrating mating mounting channels. The reservoir assembly can include one or more troughs or other components having a wide variety of shapes and sizes. One or more components in the reservoir assembly may be opaque, and troughs may be stored and moved in an interconnected fashion, stabilizing the troughs and reducing spilling or splashing of contents.

Abstract: The present invention relates to a process for the automated production of active substance beads having a gel-like carrier material, preferably a biopolymer, such as agarose, and having embedded in the carrier material a biologically active material, such as an active substance and/or a material which generates an active substance, comprising the following steps: a) provision of a flowable, solidifiable mixture comprising the carrier material and the biologically active material, b) solidification of a core bead by introducing a predetermined amount of the flowable mixture into a fluid bath, preferably a liquid bath, particularly preferably an oil bath, c) removal of the core bead from the fluid bath, wherein for carrying out step c), a bead contact surface of a bead receiving tool is used, and for this purpose step c) comprises either the following sub-step ca1) or the following sub-step cb1): ca1) creation of a locating engagement between the core bead and a preferably concave bead reduced-pressure contact

Abstract: Methods and apparatus for measuring the dielectric relaxation properties of a sample are disclosed. Methods are disclosed for amplifying or controlling the dielectric relaxation properties of a sample by adding particles, such as functionally coated particles. In certain methods, the particles amplify or control the dielectric relaxation properties of the sample by interacting with counter ions in the sample. In some embodiments, the methods use a dielectric relaxation spectroscopy apparatus with remote electrodes.

Abstract: A mass flow meter employs discrete chip-type temperature sensors to sense a fluid flow rate. The sensor can be a semiconductor chip such as SiC or silicon, or thin film tungsten on an AlN substrate. The sensors can be distributed symmetrically with respect to the conduit through which the fluid flows, and can be connected in a four-sensor bridge circuit for accurate flow rate monitoring. An output from the mass flow meter can be used to control the fluid flow.

Abstract: Methods and apparatus for measuring the dielectric relaxation properties of a sample are disclosed. Methods are disclosed for amplifying or controlling the dielectric relaxation properties of a sample by adding particles, such as functionally coated particles. In certain methods, the particles amplify or control the dielectric relaxation properties of the sample by interacting with counter ions in the sample. In some embodiments, the methods use a dielectric relaxation spectroscopy apparatus with remote electrodes.

Abstract: A mass flow meter employs discrete chip-type temperature sensors to sense a fluid flow rate. The sensor can be a semiconductor chip such as SiC or silicon, or thin film tungsten on an AlN substrate. The sensors can be distributed symmetrically with respect to the conduit through which the fluid flows, and can be connected in a four-sensor bridge circuit for accurate flow rate monitoring. An output from the mass flow meter can be used to control the fluid flow.

Abstract: A mass flow meter employs discrete chip-type temperature sensors to sense a fluid flow rate. The sensor can be a semiconductor chip such as SiC or silicon, or thin film tungsten on an AlN substrate. The sensors can be distributed symmetrically with respect to the conduit through which the fluid flows, and can be connected in a four-sensor bridge circuit for accurate flow rate monitoring. An output from the mass flow meter can be used to control the fluid flow.

Abstract: A mass flow meter employs discrete chip-type temperature sensors to sense a fluid flow rate. The sensor can be a semiconductor chip such as SiC or silicon, or thin film tungsten on an AlN substrate. The sensors can be distributed symmetrically with respect to the conduit through which the fluid flows, and can be connected in a four-sensor bridge circuit for accurate flow rate monitoring. An output from the mass flow meter can be used to control the fluid flow.