Abstract:
A plurality of planar electrodes (5) in a microchannel (4) is used for separation, lysis and PCR in a chip (10). Cells from a sample are brought to the electrodes (5). Depending on sample properties, phase pattern, frequency and voltage of the electrodes and flow velocity are chosen to trap target cells (16) using DEP, whereas the majority of unwanted cells (17) flushes through. After separation the target cell (16) are lysed while still trapped. Lysis is carried out by applying RF pulses and/or thermally so as to change the dielectric properties of the trapped cells. After lysis, the target cells (16) are amplified within the microchannel (4), so as to obtain separation, lysis and PCR on same chip (1).
Abstract:
A semiconductor product includes, a substrate with a first dielectric layer having contact hole fillings for contacting active areas in the substrate. A second dielectric layer with contact holes is provided therein. The contact holes have a width in a first lateral direction. The product further includes conductive lines, each conductive line passing over contact holes in the second dielectric layer and contacting a plurality of contact hole fillings in the first dielectric layer. The conductive lines have a width, in the first lateral direction, that is smaller than the width of the contact holes of the second dielectric layer. The conductive lines are in direct mechanical contact with the contact hole fillings and thereby remove the need to provide any conventional “contact to interconnect” structures.
Abstract:
A communications network and corresponding method comprising topology means for detecting the topology of the network means for detecting the timing status of each node and for providing to at least one node of the communications network information on the detected topology of the network and timing status and for selecting a source of timing information on the basis of the information detected.
Abstract:
The invention relates to a module for a measuring device and to a measuring device. The inventive module for a measuring device is provided with a plug-in contact element for the electrical contact of the plug-and-socket plate of the measuring device which is used for data transfer. Said module for the measuring device comprises a main circuit card arranged in the first circuit card space. Said first circuit card space is formed by at least one first element of the body which encompasses the circuit card in a closed manner on the level of the external periphery thereof.
Abstract:
A device includes an array of memory cells, which are arranged vertically to a main substrate surface. The array is provided with lower bitlines, wordlines and upper bitlines. The lower and upper bitlines are contact-connected to lower source/drain regions and corresponding upper source/drain regions, respectively, in such a manner that a unique addressing of individual memory cells is possible.
Abstract:
The invention relates to a module for a measuring device and to a measuring device. The inventive module for a measuring device is provided with a plug-in contact element for the electrical contact of the plug-and-socket plate of the measuring device which is used for data transfer. Said module for the measuring device comprises a main circuit card arranged in the first circuit card space. Said first circuit card space is formed by at least one first element of the body which encompasses the circuit card in a closed manner on the level of the external periphery thereof.
Abstract:
A semiconductor product (1) includes a plurality of wordlines extending along a first lateral direction (x) along a substrate surface (22) and also includes contact structures (3) as well as filling structures (4) therebetween. Along the first direction (x) the contact structures (3) and the filling structures (4) are arranged in alternating order between two respective wordlines. Each contact structure (3) serves to connect two active areas (23) separated by one respective trench isolation filling (24) to a respective bitline (14). Accordingly, the width of the first contact structures (3) is much larger than the width of the bitlines (14) along the first direction (x). According to embodiments of the invention, tapered upper portions (9) of the contact structures (3) are shaped, the upper portions (9) having a width being significantly smaller than the width of the contact structures (3) along the first direction (x). Thereby, forming the bitlines (14) in direct contact to top surfaces (7) of contact structures (3) is possible without the risk of short circuits between adjacent bitlines (14).
Abstract:
Described are a method and a measuring device for measuring the impedance in a fluidic microsystem comprising a compartment (10) through which a liquid comprising at least one suspended particle (16) flows, and in which at least one impedance detector (40) is arranged, by means of which for detection of the at least one particle at least one impedance value is acquired which is characteristic for the impedance of the compartment, and which in the presence of the at least one particle changes in a predetermined way, wherein focusing of the at least one particle takes place in a predetermined space relative to the impedance detector, wherein focusing involves a movement of the at least one particle relative to the fluid flowing in the compartment as a result of dielectrophoretic forces, which forces are exerted by means of at least two focusing electrodes (30).