capsule perforation or sphincter injury), we used
vaporization rather than resection to trim the tissue near the external urethral sphincter and reduced the power below 80 W.
6) Transurethral
vaporization of the prostate (TUVP) provides better hemostasis and allows for the use of isotonic irrigation fluid.
The reachable evaporated fuel is engine specific and depends on pressure and temperature course, mixture formation process and
vaporization behavior of the fuel.
Following the numbering, prostate samples took turning to go through a 40 W vaporesection, a 70 W vaporesection, a 40 W
vaporization, or a 70 W
vaporization surgery.
Thus, for deriving a cooling-heating cycle vapor pressure equation an arithmetic average of the corresponding integrated Clausius-Clapeyron equation constants of the cool-down and heat-up steps (described as the intercept, which is proportional to
vaporization entropy, and slope, which is proportional to
vaporization enthalpy or heats of
vaporization) was taken.
This warm seawater is used as a heat source and passed through the shell of the shell-and-tube vaporizers causing the
vaporization of the LNG.
In being aggressive to remove as much tissue as possible, I've certainly seen similar long-term results in patients who have undergone the
vaporization procedures.
This flux is the arithmetic sum of short-wave radiant flux, net long-wave radiant flux, sensible heat flux,
vaporization latent heat flux, and advective heat flux.
Photoselective
vaporization of the prostate: initial experience with a new 80 W KTP laser for the treatment of benign prostatic hyperplasia.
Vaporization of the prostate was carried out in a sequential manner starting at the bladder neck, with the median lobe if present, then the lateral lobes, and finally at the level of prostatic apex.
The vapour produced by the droplets is a mass source for the fluid, moreover the
vaporization process generates modification in the momentum and energy balances both phases.
All of the first edition's material has been retained, albeit reorganized into chapters discussing isolated spherically symmetric droplet
vaporization and heating; convective droplet
vaporization, heating, and acceleration; multicomponent-liquid droplets; droplet behavior under near-critical, transcritical, and supercritical conditions; droplet arrays and groups; spray equations; computational issues; spray applications; spray interactions with turbulence and vortical structures; film
vaporization; and stability of liquid streams.
