Abstract: The invention relates to a wound dressing material with a biocompatible monofilament fabric which forms a contact face on a wound and is designed as a carrier layer on which a cover element is applied and is firmly connected at least in parts to the carrier layer. The invention further relates to a method for producing such a wound dressing material, in which method a biocompatible monofilament fabric is formed as a first web material, a cover element is formed as a second web material, and the first web material and the second web material are brought together, wherein the biocompatible monofilament fabric and the cover element are firmly connected to each other, in particular welded, and the wound dressing material is produced as a band.

Abstract: One aspect provides a loop based social networking site. An embodiment provides for loops, a loop comprising a list or group of registered users bound together as an electronic group, and provides a mechanism of pushing communications to members of a loop. As such, on joining as a member of a particular loop, the loop member will have events of the loop automatically pushed to the user's personal or individual loop site, including in some cases automatic addition of the event to the personal calendar of the loop member. In this way, a loop can ensure that each member has received particular communications. Each loop member consents to accepting loop information/communications by virtue of joining the loop. Other aspects are described and claimed.

Abstract: A method for treating the surface of a polymerio substrate, including the following steps: providing a first polymeric substrate; contracting at least one part of one face of the first substrate with some liquid solvent system, the liquid solvent system containing at least a first volatile compound and at least a second compound having a low molecular weight and able to swell and/or soften the polymeric material forming the face; letting at least the volatile compound to evaporate from the face of the first substrate and; contracting the so-treated face of first substrate with a third material.

Abstract: A method for treating the surface of a polymerio substrate, including the following steps: providing a first polymeric substrate; contracting at least one part of one face of the first substrate with some liquid solvent system, the liquid solvent system containing at least a first volatile compound and at least a second compound having a low molecular weight and able to swell and/or soften the polymeric material forming the face; letting at least the volatile compound to evaporate from the face of the first substrate and; contracting the so-treated face of first substrate with a third material.

Abstract: A method for treating the surface of a polymeric substrate, including the following steps: providing a first polymeric substrate; contracting at least one part of one face of the first substrate with some liquid solvent system, the liquid solvent system containing at least a first volatile compound and at least a second compound having a low molecular weight and able to swell and/or soften the polymeric material forming the face; letting at least the volatile compound to evaporate from the face of the first substrate and; contacting the so-treated face of first substrate with a third material.

Abstract: The present invention relates to a method for assaying the presence or the absence of at least one mutation on a strand of nucleic acid paired in a duplex form comprising at least the steps of contacting said duplex with at least one compound able to undergo a specific base pairing interaction with suspected mismatch and assaying for said mismatch by an analytical method. The invention further relates to the use in the diagnosis of predisposition to genetic diseases and cancers and in the diagnosis and prognosis of said diseases and cancers, like human breast cancer. The invention also relates to compositions including a compound able to undergo specific base pairing interaction, in association with a DNA fragment having a nucleic sequence relating to a gene on which point mutation(s) has been associated or putatively associated with a genetic disease or an increased predisposition to said disease.

Abstract: The present invention relates to a method for detecting point mutation(s) and/or large scale alteration(s) relative to at least one nucleic acid fragment said method comprising at least the steps of providing a sample liable to contain said nucleic acid fragment and at least a second nucleic acid fragment acting as a quantitative reference, subjecting said fragments to suitable conditions for obtaining a product containing homoduplexes and possible heteroduplexes, conducting on said product an analytical method suitable for obtaining at least signal(s) discriminating the existing duplex form(s) of the first nucleic acid fragment and relative quantitative data concerning said first nucleic acid fragment The invention further relates to the use of this method in the diagnosis of predisposition to genetic diseases and cancers and in the diagnosis and prognosis of said diseases and cancers, like human breast cancer.

Abstract: The system comprises a master module and slave modules able to be chain-connected and/or star-connected by means of a digital communication network, for example of the Ethernet type. The system is synchronized on the master module clock that supplies synchronization information to all the data frames it sends over the network. Each slave module reconstitutes the clock from the frames it receives. The data frames comprise data packets that can in particular be command data, audio data or video data. Each packet comprises a header describing the content of the packet. Each slave module knows at which location of a packet the data intended for it is located and at which location of a packet it can insert data.

Abstract: The system comprises a master module and slave modules able to be chain-connected and/or star-connected by means of a digital communication network, for example of the Ethernet type. The system is synchronized on the master module clock that supplies synchronization information to all the data frames it sends over the network. Each slave module reconstitutes the clock from the frames it receives. The data frames comprise data packets that can in particular be command data, audio data or video data. Each packet comprises a header describing the content of the packet. Each slave module knows at which location of a packet the data intended for it is located and at which location of a packet it can insert data.