Request for quotations : purchase of a personal computer for the object modernization of a part of the room on the 1st floor of the radiological building for the installation of the magnetic resonance tomograph

magneton sola, manufactured by siemens, in the uz bobruisk interdistrict oncology center at bobruisk, sosnovy lane, 40

When traveling through the field, the spin-up electrons get the additional energy [micro]H, where p stands for the Bohr

magneton, whereas the spin-down ones release the same energy.

The magnetic susceptibility data in this figure can be well fitted with the Curie law: [chi] = [[chi].sub.0] + C/T, where C= N[[mu].sup.2.sub.eff]/3[k.sub.B] is the Curie constant, N is Avogadros's number, [[mu].sub.eff] is the effective magnetic moment ([[mu].sub.eff] = [P.sub.eff][[mu].sub.B]), represents the effective Bohr

magneton number, [[mu].sub.B] is the Bohr

magneton, [k.sub.B] is the Boltzmann constant, and [[chi].sub.0] is the temperature independent susceptibility term.

The electron behaves not only as the unit of electric charge but also as the unit of magnetic charge or

magneton. Several important physicists, including Webster, Gilbert, Grondahl and Page, conducted studies that supported Parson's Ring Electron Model.

patent); the

Magneton and Noffar programs (are designed to encourage

where N, T, [k.sub.B], [[mu].sub.B] g, N, [z.sub.1], [z.sub.2] are the number of spins, temperature, Boltzmann constant, Bohr

magneton, spin factor, total number of spins, and coordination numbers, respectively [9,13].

where N is the number of paramagnetic centers per gram of the sample, [g.sub.s] is the electron spin factor (the Lande factor), [[mu].sub.B] is the Bohr

magneton, [k.sub.B] is the Boltzmann constant, T is the absolute temperature, [H.sub.z] is the magnetic field directed along the z axis of the reference-fixed frame, and s = 1/2.

Subjects were scanned in a 1.5 T scanner (Siemens,

Magneton Vision, Erlangen, Germany) with a commercially available TX/RX head coil.

H = the magnetic field; [upsilon] = the microwave frequency; h = the Planck constant and [beta] = the electron Bohr

magneton.

[[beta].sub.1] - non-dimensional slip coefficient; [epsilon] - porosity; [phi] - volume fraction of nanoparticles; [gamma] - Sommerfeld constant, [Jkg.sup.-1][K.sup.2]; [mu] - dynamic viscosity, Kg [s.sup.-1][m.sup.-1]; [[micro].sub.B] - Bohr

magneton (9.27 x [10.sup.-24]), J [T.sup.-1]; [rho] - density, kg [m.sup.-3]; [tau] - time period, s;

Images were acquired on a Siemens

Magneton Verio 3 T MRI clinical scanner (Siemens Healthcare GmbH, Erlangen, Germany).

where [g.sub.e] [approximately equal to] 2 is the loosely trapped electron g- factor (this is quite different from the DMS where instead of [g.sub.e] in (1) there is [g.sup.*], the negative g-factor of the band electron) and [g.sub.Mn] [approximately equal to] 2 is the [Mn.sup.2+] g-factor, [alpha] is the exchange integral, positive for ferromagnetic interaction between the electron and [Mn.sup.2+] ion, is the Bohr

magneton, and [chi] is the static magnetic susceptibility.