Abstract: The invention relates to a method for forming a filter medium, which is suitable for filtering fluids, for a filter element, said method having at least the following steps: —applying at least one self-contained sealant (16, 28) onto a fluid-permeable media web (14) in a specifiable direction (26), —producing a solid composite at least between parts of the sealant (16, 28) and the media web (14), —pleating the composite, thereby forming individual filter folds, —producing a hollow body such that in order to —obtain at least one seal region on the media web (14), the respective sealant (16, 28) is arranged on the inner face of the hollow body, a seal is produced for each filter fold, and an end-face seal of the media web (14) is produced. An application medium is applied as the sealant (16, 28) onto the media web (14) in a strip-shaped manner along at least one longitudinal edge (51) of the media web (14), said sealant forming the respective seal region when cured.

Abstract: The disclosure relates to a method for forming a filter medium, which is suitable for filtering fluids, for a filter element, said method comprising: applying at least one self-contained sealant onto a fluid-permeable media web in a specifiable direction, producing a solid composite at least between parts of the sealant and the media web, pleating the composite, thereby forming individual filter folds, producing a hollow body in that the two lateral edges of the media web which lie opposite each other so as to adjoin each other and which run transversely to the specified direction are connected together such that in order to obtain at least one seal region on the media web, the respective sealant is arranged on the inner face of the hollow body, a seal is produced for each filter fold, and an end-face seal of the media web is produced.

Abstract: One aspect of the invention provides an apparatus for isolating one or more subcellular components including a cell disruption reservoir that generates at least one of a phase change, a thermal change, a physical contact force, an ultrasonic frequency, an osmotic change, a pressure change, a photothermal pulse, a magnetic field, an electromagnetic field, an electric field, and an electrical pulse through the reservoir and a separation instrument configured to specifically isolate the subcellular components based on one or more parameters selected from at least one of density, charge/pH, dielectric polarization, magnetic attraction, spectral dispersion, spectral refraction, spectral diffraction, hydrophobicity, hydrophilicity, structure (presence or absence of a structural feature), function (migration), affinity or binding, and pressure.

Abstract: One aspect of the invention provides a device for delivering material into a biological tissue. The device includes: a reservoir for the material; and a material delivery unit in connection with the reservoir configured to transfer the material from the reservoir to the tissue. Another aspect of the invention provides an implantable or insertable delivery device for delivery of material across or into a biological tissue in a subject. The device includes: a reservoir for holding the material; and a tissue-penetrating member.

Abstract: Therapeutic chondrisome compositions and related methods are described.

Abstract: Therapeutic chondrisome and mitoplast compositions and related methods are described.

Abstract: A Metal Oxide Semiconductor (MOS) transistor comprising: a source; a gate; and a drain, the source, gate and drain being located in or on a well structure of a first doping polarity located in or on a substrate; wherein at least one of the source and the drain comprises a first structure comprising: a first region forming a first drift region, the first region being of a second doping polarity opposite the first doping polarity; a second region of the second doping polarity in or on the first region, the second region being a well region and having a doping concentration which is higher than the doping concentration of the first region; and a third region of the second doping polarity in or on the second region. Due to the presence of the second region the transistor may have a lower ON resistance when compared with a similar transistor which does not have the second region. The breakdown voltage may be influenced only to a small extent.

Abstract: Therapeutic chondrisome compositions and related methods are described.

Abstract: A Metal Oxide Semiconductor (MOS) transistor comprising: a source; a gate; and a drain, the source, gate and drain being located in or on a well structure of a first doping polarity located in or on a substrate; wherein at least one of the source and the drain comprises a first structure comprising: a first region forming a first drift region, the first region being of a second doping polarity opposite the first doping polarity; a second region of the second doping polarity in or on the first region, the second region being a well region and having a doping concentration which is higher than the doping concentration of the first region; and a third region of the second doping polarity in or on the second region. Due to the presence of the second region the transistor may have a lower ON resistance when compared with a similar transistor which does not have the second region. The breakdown voltage may be influenced only to a small extent.

Abstract: A computerized system and method for transforming the results of a query into a hierarchical information stream, such as an eXtensible Markup Language (XML) data stream is disclosed. A database server receives a query and generates a rowset. A rowset processor, using the mode specified in the query, processes the rowset and query to generate the XML data stream. For the “auto1” mode, the rowset processor transforms a rowset into an XML data stream using primary-foreign key information specified in the query to determine nesting. For the “auto2” mode, the rowset processor transforms a rowset into an XML data stream using table ordering information included in the query to determine nesting. For the “explicit” mode, the rowset processor transforms a rowset into an XML data stream using the explicit organizational information specified in the query.

Abstract: A computerized system and method for transforming the results of a query into a hierarchical information stream, such as an eXtensible Markup Language (XML) data stream is disclosed. A database server receives a query and generates a rowset. A rowset processor, using the mode specified in the query, processes the rowset and query to generate the XML data stream. For the “auto 1” mode, the rowset processor transforms a rowset into an XML data stream using primary-foreign key information specified in the query to determine nesting. For the “auto2” mode, the rowset processor transforms a rowset into an XML data stream using table ordering information included in the query to determine nesting. For the “explicit” mode, the rowset processor transforms a rowset into an XML data stream using the explicit organizational information specified in the query.

Abstract: A computerized system and method for transforming the results of a query into a hierarchical information stream, such as an extensible Markup Language (XML) data stream is disclosed. A database server receives a query and generates a rowset. A rowset processor, using the mode specified in the query, processes the rowset and query to generate the XML data stream. For the “auto1” mode, the rowset processor transforms a rowset into an XML data stream using primary-foreign key information specified in the query to determine nesting. For the “auto2” mode, the rowset processor transforms a rowset into an XML data stream using table ordering information included in the query to determine nesting. For the “explicit” mode, the rowset processor transforms a rowset into an XML data stream using the explicit organizational information specified in the query.