Abstract:
This concerns a device whose filtering membrane (4) is gripped annularly at the periphery between an annular transverse wall (32) forming part of a drainage body and an axially oriented cylindrical wall (9) of an intake body, which lateral wall has an elastomer seal (13) which forms the edge thereof and by means of which this wall comes into contact with the membrane (4), this device being provided with a second seal (55) which has an arched profile, the external annular end (61) of which bears against said annular transverse wall (32) radially beyond said membrane (4), and the internal annular end (57) of which is connected to said seal (13) on the lateral wall (9) of said reservoir (5), hereinafter referred to as the first seal.
Abstract:
The method includes the step of positioning the device on a sheath (94) having, for each latching tab (7), a portion adapted to be housed between this tab and a cylindrical wall of the device; the step of making the sheath enter between each tab and the cylindrical wall until means preventing the withdrawal of the tabs are released; and the step of moving the two bodies (2, 3) away from each other. The instrument has, in addition to the sheath (94), a guidance slide (77).
Abstract:
The sensor device is intended to be implemented at the vicinity or inside a nuclear magnetic resonance apparatus, and more particularly on a patient inside the canal of the magnet of a magnetic resonance imager (MRI), characterized in that it is essentially comprised of, on the one hand, at least two non-metal electrodes (1) intended to be applied to the skin of a patient (2), and on the other hand, of an electro-optical conversion, amplification and filtering module (3) for the electric signals received from the heart by means of the electrodes (1), said module being arranged in a shielded casing (4) forming a Faraday cage, and optically connected to a display and/or monitoring apparatus and, finally, comprising a support body (6) made of non-magnetic material, carrying the electrode (1) and the shielded casing (4) containing the module (3).