Method, in particular, for producing snow, and a device for performing the method
A method, in particular for generating snow from water, using a low-pressure hydraulic device having a pump unit, to which a purification system is connected, and a distribution device having at least one high-pressure pump, to which a high-pressure unit having a snow cannon and/or a different snow-generating unit is connected. In order for the bonding of the water molecules in the supermolecular water structure of the process water to change and the generation of snow to improve, according to the invention at least part of the water used is exposed to an ionization field and/or a polarization field while simultaneously being exposed to the effects of an alternating electromagnetic field so that a weaker bonding of the water molecules in the supermolecular water structure is achieved, resulting in an improvement in the absorption and transfer of heat. The invention further relates to a device for carrying out the method.
1. An apparatus for producing snow from water, the apparatus comprising:
a low-pressure hydraulic device ( 2 ) having a pumping device ( 2 . 1 );
a cleaning device ( 2 . 1 ) to which a high-pressure device ( 3 ) with a snow cannon ( 3 . 3 ) is attached;
wherein some of the water is exposed to an ionization field, the ionization field comprising an alternating electromagnetic polarization field, thereby weakening molecular bonds in molecules of the water, and improving the transmission of heat therein; and
a primary excitation device ( 2 . 3 ) including a hydraulic inlet branch having a controlled opening and closing mechanism ( 2 . 31 );
wherein the hydraulic inlet branch discharges into a distribution branch having a thermometer ( 2 . 32 ) and a pressure gauge ( 2 . 33 );
wherein the primary excitation device ( 2 . 3 ) comprises the hydraulic inlet branch and a hydraulic outlet branch, with an excitation device ( 2 . 35 ) secured between them, and the excitation device ( 2 . 35 ) discharges into a controlled main opening and closing mechanism ( 2 . 36 ); and
wherein the excitation device ( 2 . 35 ) has a common chamber ( 2 . 42 ) having a film ( 2 . 421 ) and a control electrode ( 2 . 42 ), the film ( 2 . 421 ) and the control electrode ( 2 . 43 ) being connected to a power source ( 8 ), the power source emitting an alternating electromagnetic signal of from 100 to 500 MHz, with an intensity of from 0.1 to 100 W.
2. An apparatus for producing snow from water, the apparatus comprising:
a low-pressure hydraulic device ( 2 ) having a pumping device ( 2 . 1 );
a cleaning device ( 2 . 1 ) to which a high-pressure device ( 3 ) with a snow cannon ( 3 . 3 ) is attached;
wherein some of the water is exposed to an ionization field, the ionization field comprising an alternating electromagnetic polarization field, thereby weakening molecular bonds in molecules of the water, and improving the transmission of heat therein; and
a primary excitation device ( 2 . 3 ) including a hydraulic inlet branch having a controlled opening and closing mechanism ( 2 . 31 );
wherein the hydraulic inlet branch discharges into a distribution branch having a thermometer ( 2 . 32 ) and a pressure gauge ( 2 . 33 );
wherein the primary excitation device ( 2 . 3 ) comprises the hydraulic inlet branch and a hydraulic outlet branch, with an excitation device ( 2 . 35 ) secured between them, and the excitation device ( 2 . 35 ) discharges into a controlled main opening and closing mechanism ( 2 . 36 ); and
wherein a pressure excitation block ( 3 . 5 ) disposed on the high pressure device ( 3 ) comprises a pressure excitation device ( 3 . 51 ), the pressure excitation device ( 3 . 51 ) having a common chamber ( 2 . 42 ) with an inlet opening ( 3 . 45 ) and an outlet opening ( 3 . 51 ) having a common chamber ( 2 . 42 ) with an inlet opening ( 3 . 45 ) and an outlet opening ( 3 . 46 ), a control electrode ( 3 . 43 ) adjacent the inlet opening ( 3 . 45 ) and a polarization electrode ( 3 . 44 ) adjacent the outlet opening ( 3 . 46 ), further comprising an inlet film ( 3 . 490 ) connected to the inlet opening ( 3 . 45 ) and an outlet film ( 3 . 491 ) connected to the outlet opening ( 3 . 46 ), the inlet film ( 3 . 490 ) and the outlet film ( 3 . 491 ) connected by a deformation film ( 3 . 47 ), and wherein the control electrode ( 3 . 43 ) is connected to a power source ( 8 ), the power source emitting an alternating electromagnetic signal of from 100 to 500 MHz, with an intensity of from 0.1 to 100 W.
3. The apparatus of claim 2 wherein the control electrode ( 3 . 43 ) has a casing in the form of a tube with a spiral antenna ( 3 . 42 ) disposed therein and the polarization electrode ( 3 . 44 ) has a casing in the form of a tube with a polarization material ( 3 . 44 ) disposed therein, wherein the control electrode ( 3 . 43 ) and the polarization electrode ( 3 . 44 ) tubes have a predominant proportion of SiO 2 , with a tensile strength of 30 MPa and a density of 2.53 g cm −3 .
4. The apparatus of claim 2 , wherein the control electrode ( 3 . 43 ) has a casing in the form of a tube with a spiral antenna ( 3 . 42 ) disposed therein and the polarization electrode ( 3 . 44 ) has a casing in the form of a tube with a polarization material ( 3 . 44 ) disposed therein, wherein the control electrode ( 3 . 43 ) and the polarization electrode ( 3 . 44 ) tubes comprise oxidic sintered ceramic having an Al 2 O 3 content of at least 99.7%, a tensile modulus of elasticity of from 380 to 400 GPa, a bending strength of 300 MPa, and a density of 3.8 g cm −3 .
5. The apparatus of claim 2 , wherein the control electrode ( 3 . 43 ) has a casing in the form of a tube with a spiral antenna ( 3 . 42 ) disposed therein and the polarization electrode ( 3 . 44 ) has a casing in the form of a tube with a polarization material ( 3 . 44 ) disposed therein, wherein the control electrode ( 3 . 43 ) and the polarization electrode ( 3 . 44 ) tubes comprise composite ceramic C/SiC, a density of 2.65 g cm −3 , a modulus of elasticity of from 250 to 350 GPa, and a bending strength of at least 160-200 MPa.
6. The apparatus of claim 2 wherein the pressure excitation device ( 3 . 51 ) includes a common chamber ( 2 . 42 ), the chamber at least partially coated by a coating ( 2 . 421 ), the coating ( 2 . 421 ) comprising an electrochemical material chosen from the list of C, Cu, Al, and Fe.
7. The apparatus of claim 2 wherein control electrode ( 2 . 43 ) is a platinum electrode with an electrode potential of −3.04 V (lithium) to +1.52 V (gold).
8. An apparatus for producing snow from water, the apparatus comprising:
a low-pressure hydraulic device ( 2 ) having a pumping device ( 2 . 1 );
a cleaning device ( 2 . 1 ) to which a high-pressure device ( 3 ) with a snow cannon ( 3 . 3 ) is attached;
wherein some of the water is exposed to an ionization field, the ionization field comprising an alternating electromagnetic polarization field, thereby weakening molecular bonds in molecules of the water, and improving the transmission of heat therein; and
a primary excitation device ( 2 . 3 ) including a hydraulic inlet branch having a controlled opening and closing mechanism ( 2 . 31 );
wherein the hydraulic inlet branch discharges into a distribution branch having a thermometer ( 2 . 32 ) and a pressure gauge ( 2 . 33 );
wherein the primary excitation device ( 2 . 3 ) comprises the hydraulic inlet branch and a hydraulic outlet branch, with an excitation device ( 2 . 35 ) secured between them, and the excitation device ( 2 . 35 ) discharges into a controlled main opening and closing mechanism ( 2 . 36 ); and
further comprising a sheath ( 16 ) having a heat insulator, the sheath ( 16 ) containing a first pressure excitation device ( 3 . 511 ) and a second pressure excitation device ( 3 . 512 ) in hydraulic communication with each other, the first pressure excitation device ( 3 . 511 ) and the second pressure excitation device ( 3 . 512 ) each having its own high-power source ( 8 ).