Abstract:
A cylindrical rotor with internal blades, configured by a ring of variable diameter and length according to necessity, as well as the blade quantity, pitch, surface and angle in its interior, being the assembly made of different materials.

Description:
FIELD OF THE INVENTION 
   The present invention is in the field of rotors, specifically of cylindrical rotors. 
   BACKGROUND OF THE INVENTION 
   The cylindrical rotor of the present invention presents internal blades and is constructed and arranged for axial flows in pumps or turbines. The flows can be liquid or gas flows with or without suspended sediments or particles. 
   In the present invention there is a load and flow gain related to the current axial flow rotors due to the absence of a cube and a central axis. This absence allows gases and liquids to flow without any obstruction. 
   Furthermore, in the present invention the accumulation of debris and particles are substantially minimized in its external and in its base. These accumulations are considered one of the main causes of rotor locking in cases of drainage of fluids with suspended sediments and particles. 
   The cylindrical rotor of the present invention may be made of several different materials such, but not limited to metal, polymer and porcelain. 
   SUMMARY OF THE INVENTION 
   This application seeks to provide a cylindrical rotor with internal blades comprising a ring ( 4 ) with an internal and an external surface, including at least two blades ( 5 ) including an internal and an external edge, located in the internal surface, wherein the blades present different configurations in angle, pitches and coil number; the blade different configurations based on calculations selected from the group consisting of: speed, hydraulic charge, kinetic height and combinations thereof. 
   This application also seeks to provide a cylindrical rotor with internal blades comprising a ring with an internal and an external surface, including at least two blades including an internal and an external edge, located in the internal surface, wherein the blades present different configurations in angle, pitches and coil number selected from the group consisting of: multiple straight semicircular blades with radials equal than the cylinder diameter, positioned in opposite directions, both placed at the same height and showing the same angle in relation to a horizontal plane ( FIGS. 7-12 ); multiple straight semicircular blades with radials smaller than the cylinder diameter, positioned in opposite directions, both placed at the same height and showing the same angle in relation to a horizontal plane ( FIGS. 13-15 ); multiple coil shape blades having theirs maximal size equivalent to half of the generatrix circumference that contains them ( FIGS. 16-18 ); multiple helical blades of one long-coil pitch, with radials smaller than the cylinder diameter ( FIG. 22 ); multiple helical blades of one long-coil pitch, with radials equal than the cylinder diameter, ( FIG. 23 ); multiple layers coil-shape blades with radials smaller than the cylinder diameter ( FIG. 24 ); multiple coil-shape blades with radials equal than the cylinder diameter ( FIG. 26 ); Multiple multi-vane blades ( FIG. 25 ); multiple three-converging concave blades ( FIG. 27 ); two-converging helicoidal blades ( FIG. 28 ); and multiple-converging helicoidal blades ( FIG. 29 ), and wherein the blade different configurations based on calculations selected from the group consisting of: speed, hydraulic charge, kinetic height and combinations thereof. 
   This application also seeks to provide a cylindrical rotor with internal blades comprising a ring with an internal and an external surface, including at least two straight blades including an internal and an external edge, located in the internal surface, wherein the at least two straight blades are equidistantly positioned in opposite directions and placed at the same height and angle, wherein the straight blade is of a shape selected from the group consisting of: plain, concave, convex and helical. 

   
     BRIEF DESCRIPTION OF THE DRAWINGS 
       FIGS. 1 ,  2  and  3  show perspective views of conventional rotors to centrifuge pumps with axial or mixed flows. 
       FIGS. 4 ,  5  and  6  show perspective views of conventional rotors to centrifuge pumps with axial or mixed flows. 
       FIG. 7  shows a frontal view of a rotor with two straight blades. 
       FIG. 8  shows the A-A cross-section view of the rotor with two straight blades of  FIG. 7 . 
       FIG. 9  show a perspective view of a rotor with two straight blades. 
       FIG. 10  shows a frontal view of a rotor with three straight blades. 
       FIG. 11  shows the A-A cross-section view of the rotor with three straight blades of  FIG. 10 . 
       FIG. 12  shows a perspective view of a rotor with three straight blades. 
       FIG. 13  shows a frontal view of a rotor with two straight blades with radials smaller than the cylinder diameter. 
       FIG. 14  shows the A-A cross-section view of the rotor with two straight blades with radials smaller than the cylinder diameter of  FIG. 13 . 
       FIG. 15  shows a perspective view of a rotor with two straight blades with radials smaller than the cylinder diameter. 
       FIG. 16  shows a frontal view of a rotor with two helical blades of one coil with radials smaller than the cylinder diameter. 
       FIG. 17  shows the A-A cross-section view of the rotor with two helical blades of one coil with radials smaller than the cylinder diameter of  FIG. 16 . 
       FIG. 18  shows a perspective view of a rotor with two helical blades of one coil with radials smaller than the cylinder diameter. 
       FIG. 19  shows a frontal view of a rotor with prolonged cylindrical basis with three sets of straight blades. 
       FIG. 20  shows the A-A cross-section view of the rotor with prolonged cylindrical basis with three sets of straight blades of  FIG. 19 . 
       FIG. 21  shows a perspective view of a rotor with prolonged cylindrical basis with three sets of straight blades. 
       FIGS. 22 and 23  show perspective views of rotors with two helical blades of one long-coil pitch. 
       FIG. 24  shows a perspective view of a rotor with multiple coil-shape blades with radials equal to the cylinder diameter. 
       FIG. 25  shows a perspective view of a rotor with multiple-vane blades. 
       FIG. 26  shows a perspective view of a rotor with multiple coil-shape blades with radials equal to the cylinder diameter. 
       FIG. 27  shows a perspective view of a rotor with three-converging concave blades. 
       FIG. 28  shows a perspective view of a rotor with two-converging helicoidal blades. 
       FIG. 29  shows a perspective view of a rotor with multiple-converging helicoidal blades. 
   

   DETAILED DESCRIPTION OF THE INVENTION 
   the present invention includes a cylindrical rotor with internal blades. The cylindrical rotor of the present invention comprises multiple blades of different dispositions and shapes. These possibilities overcome the drawbacks of pumps and turbines of the prior art. Blades ( 1 ) of conventional centrifuges ( FIGS. 1-3 ) or axial pumps ( FIGS. 4-6 ), although allowing several configurations, are limited by the cube ( 2 ) and central axis ( 3 ). 
   In  FIGS. 7-9  a rotor it is shown, where a ring ( 4 ) including two internal semicircular blades ( 5 ), which may be plain, concave or convex blades. The two blades are positioned in opposite directions, both placed at the same height and showing the same angle in relation to a horizontal plane. The blades include an internal and an external edge, and a central portion of the internal edges ( 6 ) crosses the ring in a central axial position. 
   The blades being straight and the inlet and outlet angles being the same enables the efficiency of axial flow to be equivalent in both directions, taking into consideration that the potency and the speed in the opposite directions of rotation are the sense. This is also true for in rotors with three or more blades, as seen in  FIGS. 10-12 . 
   The internal edges (radial center) of the blades may also include a depression in a semicircular shape ( 7 ), also in a central position, as seen in  FIGS. 13-15 . In this case the width (radial measure) is smaller than the cylinder radius, being this rotor proper to be used with denser fluids. 
   The blades may also be in a coil shape ( 8 ), a seen in  FIGS. 16-18 . Coil shape blades are longer than straight blades, which have their maximal size equivalent to half of the generatrix circumference that contains them. 
   The possibility of prolonging the blades is a significant advantage of the present invention over conventional rotors of axial flows of the prior art, which, in general, have the size of their blades proportional to size of the cube. In the rotor of the present invention this is avoided as the cylindrical and external basis enables, when prolonged, the rotor to comport coils with extremely large pitches, as seen in  FIGS. 22-23 . The rotor of this invention also enables the rotor to comport two or more blades sets in its interior, as seen in  FIGS. 19-21 . These characteristics will simulate an axial pump of several stages, leading to a significant gain in flow pressure. 
   In  FIG. 24  it is shown that when the blades are in a coil shape the blades also enable the rotor to present a specific configuration based on speed calculations, hydraulic charge, kinetic height, and etc, increasing or decreasing the pitch, angle, coil number and other relevant factors. 
   Due to the absence of a cube and as a result an absence of a central axis, the transmission movement is made through belts, pulleys, gears, magnetic or electromagnetic induction, and also made in according to the desired use, capacity, size, potency and other determining factors. 
   These different transmission types are also applied to rotors used in turbines, where they are used to transform mechanical-rotational work in kinetic energy of a moving fluid. 
   Blades may also be defined as paddles or propellers.