Abstract: A method for obtaining metal oxides supported on mesoporous silica particles includes a) providing a solution of at least one metal salt, b) providing a solution of at least one template forming agent of the general formula (I) Y3Si(CH2)n—X (I), wherein X is a complexing functional group; Y is —OH or a hydrolysable moiety selected from the group containing halogen, alkoxy, aryloxy, acyloxy, c) mixing the metal salt solution and the complex forming agent solution to obtain a metal precursor; d) adding at least one solution containing at least one pore structure directing agent to the metal precursor to obtain a metal precursor template mixture; e) adding at least one alkali silicate solution to the metal precursor template mixture at room temperature to obtain a silica-supported metal complex; and f) calcination of the silica-supported metal complex under air to obtain the supported metal oxide mesoporous silica particles.

Abstract: In a method for setting up a pipeline section of a pipe system in a heat network, which is provided for transferring a heat transfer fluid between a heat provider and a heat consumer, the pipeline section is subdivided into segments in a segmentation step. A segment characteristic variable is determined for each segment based on a physical soil characteristic variable. The determined segment characteristic variables of two adjacent segments differ by more than a predefined segment characteristic variable difference value. In a bedding determination step, segment embedding of a pipeline segment, introduced in the trench in this segment, in a water-permeable segment bedding material is predefined for each segment such that a heat loss of the heat transfer fluid transferred in the pipeline segment, which is averaged over the segment and is based on a unit of length, is lower than a predefined heat loss limit value.

Abstract: The present invention relates to a novel method for stabilizing nucleic acid nanostructures by curing with ultraviolet light, particularly by crosslinking pyrimidine nucleotides.

Abstract: A manufacturing device for manufacturing an object in layers includes at least one transfer platform with a transfer platform surface, at least one application unit configured to apply at least one treatment layer and at least one material layer which together form a pre-material layer of the object, to the transfer platform surface, wherein the pre-material layer extends at least in a first direction (x) and/or in a second direction (y), and a construction platform configured to receive at least the at least one material layer of the pre-material layer from the transfer platform so that the object is manufactured in layers on the construction platform in a third direction (z).

Abstract: This disclosure relates to a method for the additive manufacturing of an object, including supplying a strand-shaped starting material to a friction arrangement, and accelerating the starting material along an output direction through the friction arrangement, to apply the starting material onto a construction platform and/or onto already manufactured areas of the object for manufacturing the object, wherein the starting material is at least partially liquefied and/or at least partially plasticized and/or at least partially broken down into particles by the friction arrangement. This disclosure also relates to a manufacturing device to perform such methods.

Abstract: The present invention is related to a method for recycling a composite material comprising inorganic fibers and an epoxy-resin in a one pot reaction, wherein the method comprises reacting the composite material with a boron halide in a solvent.

Abstract: A fluidic device, a fluidic system and a method for developing a cellular starting material into a three-dimensional cellular structure. The fluidic device includes a base body which includes a chamber in which a matrix is received, into which the cellular starting material to be developed can be introduced, and at least two fluid reservoirs. Each fluid reservoir includes a fluid inlet, a fluid outlet and a separating device which is partially permeable to a fluid medium and which separates the associated fluid reservoir from the chamber and forms a common plane interface with the chamber, via which the fluid medium can diffuse into the matrix.

Abstract: The invention refers to an electronic component, in particular an organic electrochemical transistor (OECT) which comprises at least one gate electrode, a source electrode, a drain electrode, a channel and an electrolyte. The electrolyte is a solid electrolyte comprising a polymer, and the channel comprises an organic semiconductor as channel material. The electrolyte has a low water content and/or a low C1-C3-alcohol content as well as a low maximum halogen alkaline salt or alkaline earth or acetate salt content. The invention further refers to the use of this electronic component as a Schmitt-Trigger or a Muller-C-element or a flip-flop or a 1-bit memory. Further, the invention provides a method for forming such an electronic component.

Abstract: An absorber device for absorbing a force acting thereon includes an absorber housing which encloses an interior space and a hydraulic medium arranged in the interior space. An absorber piston rod has an absorber piston arranged thereon. The absorber piston divides the interior space into a first chamber and a second chamber. The absorber piston rod has a spring device for resiliently supporting the absorber piston relative to a quasi-static component. The absorber piston is mounted axially movably on the absorber piston rod. A first spring and a second spring of the spring device are arranged in each case on both sides of the absorber piston and resiliently connect the absorber piston rod to the absorber piston and counteract a movement of the absorber piston in the axial direction, relative to the absorber piston rod. The absorber device can be arranged in a hollow damper piston rod of a damper.

Abstract: An apparatus for promoting a mass transfer reaction having a flow distributor and a drive unit. The flow distributor has a top end surface, a bottom end surface and a peripheral surface that are axisymmetric with respect to a rotation axis. The flow distributor is configured to submerge in a fluid medium and to generate a flow of the fluid medium through at least one of the top end surface and the bottom end surface and through the peripheral surface by rotating around the rotation axis. The drive unit is configured to move the flow distributor perpendicular to the rotation axis.

Abstract: Device for performing an interferometric measurement having a source for generating at least two coherent waves, an overlap apparatus for overlapping the at least two coherent waves and for generating an interference pattern, a measuring apparatus for measuring the interference pattern so as to form measured interference values, a disturbance apparatus for disturbing the interference pattern and an analyzer for analyzing the measured interference values, wherein the overlap apparatus comprises a passage region that is delimited at its edge by an edge element and is passed through by the at least two overlapping coherent waves, and comprises a beam-splitting element in the center region of the passage region.

Abstract: An apparatus for determining a response of a device under test to an electrical pulse generated by a pulse generator. The apparatus can include a conductor for coupling the electrical pulse generator to the device under test and at least two sensing probes connected to the conductor. Each of the at least two sensing probes can be positioned at one of at least two measurement points and can be configured to generate a signal in direct proportion to a current flowing in or a voltage applied to the conductor at the corresponding measurement point. A determination device can be configured to determine the response of the device under test to the electrical pulse based on the signals generated by the at least two sensing probes nd the transit times of the electrical pulse between these different measurement points.

Abstract: A method of stabilising a biological sample including glutathione (GSH) and glutathione disulfide (GSSG), including a) providing the biological sample having GSH and GSSG; b) contacting GSH and GSSG of the sample with a maleimide to obtain maleimide-alkylated GSH; c) separating excess maleimide from maleimide-alkylated GSH and GSSG; d) contacting maleimide-alkylated GSH and GSSG with a reducing agent such as TCEP under conditions which allow reduction of GSSG by the reducing agent such as TCEP to obtain further GSH; and e) contacting maleimide-alkylated GSH and GSH with a heavy isotopologue of the maleimide to obtain a heavy isotopologue of the maleimide-alkylated GSH. A stabilised biological sample is provide containing maleimide-alkylated GSH and a heavy isotopologue thereof, as well as a mass-spectrometric method for quantifying maleimide-alkylated GSH and a heavy isotopologue thereof in a sample and a kit for stabilising a biological sample including GSH and GSSG for mass spectrometric analysis.

Abstract: An optical system and an imaging method are disclosed, wherein the optical system comprises a multifilament conductor and an optical diffuser for imaging an intensity pattern onto the multifilament conductor, the intensity pattern representing phase information of light emitted from one or more three-dimensional objects; wherein the multifilament conductor is configured to transmit the intensity pattern in the form of a plurality of pixels to an evaluation system, and wherein the evaluation system is configured to generate an image based on the intensity pattern transmitted by the multifilament conductor, the image representing the one or more three-dimensional objects.

Abstract: A method of making a porous or non-porous three-dimensional structure is provided in which silicate-water solution is first formed and then contacted with a first alcohol, whereby a gel can be provided. Thereafter, the gel is transferred to an additive manufacturing apparatus and a build part is created Finally, drying and/or heat treatment takes place, in particular to obtain a desired porosity and/or phase composition. A structure so produced is also provided and the use thereof as a bone implant, in tissue engineering, for thermal insulation, fire prevention, heat protection, gas or blood filters, light weight parts and/or catalyst supports or other scenarios where the porosity is necessary. The non-porous parts can be used as packaging, construction parts or other scenarios where the pores should be avoided.

Abstract: The invention relates to a method for solvent-free production of an electrode. By means of the method it is possible to produce an electrode which has high mechanical stability and which provides a high specific capacitance. The method also enables the production of an electrode which can be used as an anode in a lithium-ion battery, without giving rise to unstable operation with undesirable and irreversible degradation reactions. An electrode is also provided, which has the above-mentioned advantages. In addition, uses of the electrode according to the invention are proposed.

Abstract: A wafer includes a substrate and at least one intermediate layer formed on a surface of the substrate. The at least one intermediate layer covers the surface of the substrate at least partially. An outer surface of the at least one intermediate layer is directed away from the surface of the substrate. The wafer further includes nanostructures grown on the outer surface of the at least one intermediate layer. The at least one intermediate layer is formed in such a way that positions of growth of the nanostructures are predetermined on the outer surface of the at least one intermediate layer. At least one nanostructure material of the nanostructures is assembled at the positions of growth of the nanostructures.

Abstract: The present invention relates to polymeric particles comprising a biodegradable polymer, and at least one microorganism in a total concentration of at least 108 CFU/g dry weight that is stable for at least 35 weeks at 30° C. and optionally additional carriers and additives as well as to methods for producing polymeric particles and use thereof.

Abstract: A method for aggregating a cluster of particles having a target cluster constitution in a channel comprising a retention section comprises the steps of establishing a fluid stream comprising a fluid carrier medium and particles of at least one type through said channel; controlling a supply of said particles of at least one type into the fluid stream; operating a retention mechanism to aggregate at least part of said particles in an aggregation region within said retention section, to thereby form said cluster of particles; monitoring, while operating said retention mechanism, the particles in at least part of said channel for obtaining a monitoring signal associated with the cluster and/or with the particles moving in the fluid stream; determining a current cluster constitution from the monitoring signal; comparing said current cluster constitution with said target cluster constitution; and controlling at least one of said particle retention mechanism and said supply of said particles of at least one type, s

Abstract: Methods, apparatus and techniques for acquiring output signals associated with different sources (such as audio sources) are presented. A first input signal is combined with a delayed and scaled version of a second input signal, to acquire a first output signal. A second input signal is combined with a delayed and scaled version of the first input signal, to acquire a second output signal. Using a random direction optimization, scaling values (forming a candidates' vector) are determined by iteratively modifying the candidates' vector. A Kullback-Leibler divergence is measured. The first output signal and the second output signal are selected to be those measurements associated with the candidate parameters associated with Kullback-Leibler divergence which indicates lowest similarity.