The static mixer has a coupling section and a mixer housing in which mixer elements are arranged consecutively in the flow direction so as to be offset relative to one another by an angle, and are designed so as to apply an alternatingly directed rotation to the mixed material during the mixing operation. A mixer element has two transversal walls that are divided into sectors, the first transversal wall comprising sectors that are separated by an inflow separating wall directed to the inlet, and a separating wall directed to the outlet, the transitions between the sectors and the separating wall forming respective breakaway edges, the separating wall being arranged at an angle relative to the inflow separating wall, and the second transversal wall, which is divided into sectors, having an outflow separating wall directed to the outlet. Such a mixer allows a more efficient mixture particularly of very quickly reacting components and is also suitable for small dimensions as used in medicine.
1. A static mixer, comprising:
a mixer housing;
a coupling section; and
mixer elements arranged in the mixer housing, the mixer elements, seen in a flow direction, being consecutively arranged so as to be offset relative to one another by an angle (γ), and a mixer element including at least one transversal wall that is divided into sectors which are separated by a separating wall directed to an inlet,
wherein a mixer element has two transversal walls that are divided into sectors, the first transversal wall including sectors that are separated by an inflow separating wall directed to the inlet, and a separating wall directed to the outlet, the transitions between the sectors and the separating wall forming respective breakaway edges, the separating wall being arranged at an angle (α) relative to the inflow separating wall, the second transversal wall, which is divided into sectors including an outflow separating wall directed to the outlet and being offset by an angle (β) relative to the first transversal wall, and the consecutive mixer elements being designed so as to apply an alternatingly directed rotation effect to a material to be mixed during a mixing operation,
wherein the inflow separating wall is divided into respective separating wall portions in front of a sector of the first transversal wall and has a triangular cross-section, one side being perpendicular to the sector and the other side being slanted.
2. The static mixer of claim 1 , wherein a restriction is formed at the transition from the surfaces of the separating walls which include the breakaway edges to the surfaces located below the sectors.
3. The static mixer of claim 1 , wherein the separating wall portions on at least two consecutive mixer elements are mirror-inverted relative to each other so that corresponding slanted sides of the respective inflow separating walls on the consecutive mixer elements are oppositely directed.
4. The static mixer of claim 1 , wherein on at least two consecutive mixer elements, corresponding parts are provided in an essentially mirror-inverted configuration relative to a plane that passes perpendicularly through the center of the respective inflow separating walls of the mixer elements.
5. The static mixer of claim 1 , wherein the angles (α, β) include a range of 20° to 160° and the angle (γ) includes a range of 1° to 179°.
6. The static mixer of claim 1 , wherein the angles (α, β, γ) are each equal to 90°.
7. The static mixer of claim 1 , wherein the separating walls are each parallel to the longitudinal center line of the mixer and the first and second transversal walls are arranged perpendicularly thereto.
8. The static mixer of claim 1 , wherein the first and second transversal walls each include two sectors having each an opening angle of 90°.
9. The static mixer of claim 1 , wherein the transversal walls each include three sectors having each an opening angle of 60°.
10. The static mixer of claim 1 , wherein the inflow separating wall is arranged in parallel to the outflow separating wall.
11. A static mixer, comprising:
a mixer housing;
a coupling section; and
mixer elements arranged in the mixer housing, the mixer elements, seen in a flow direction, being consecutively arranged so as to be offset relative to one another by an angle (γ), and a mixer element including at least one transversal wall that is divided into sectors which are separated by a separating wall directed to an inlet,
wherein a mixer element has two transversal walls that are divided into sectors, the first transversal wall including sectors that are separated by an inflow separating wall directed to the inlet, and a separating wall directed to the outlet, the transitions between the sectors and the separating wall forming respective breakaway edges, the separating wall being arranged at an angle (α) relative to the inflow separating wall, the second transversal wall, which is divided into sectors including an outflow separating wall directed to the outlet and being offset by an angle (β) relative to the first transversal wall, and the consecutive mixer elements being designed so as to apply an alternatingly directed rotation effect to the material to be mixed during a mixing operation, and
wherein the transversal walls each include three sectors having each an opening angle of 60°.
12. The static mixer of claim 11 , wherein the inflow separating wall is divided into respective separating wall portions in front of a sector of the first transversal wall and has a triangular cross-section, one side being perpendicular to the sector and the other side being slanted.
13. The static mixer of claim 12 , wherein the separating wall portions on at least two consecutive mixer elements are mirror-inverted relative to each other so that corresponding slanted sides of the respective inflow separating walls on the consecutive mixer elements are oppositely directed.
14. The static mixer of claim 11 , wherein on at least two consecutive mixer elements, corresponding parts are provided in an essentially mirror-inverted configuration relative to a plane that passes perpendicularly through the center of the respective inflow separating walls of the mixer elements.
15. A static mixer, comprising:
a mixer housing;
a coupling section; and
mixer elements arranged in the mixer housing, the mixer elements, seen in a flow direction, being consecutively arranged so as to be offset relative to one another by an angle (γ), and a mixer element including at least one transversal wall that is divided into sectors which are separated by a separating wall directed to an inlet,
wherein a mixer element has two transversal walls that are divided into sectors, the first transversal wall including sectors that are separated by an inflow separating wall directed to the inlet, and a separating wall directed to the outlet, the transitions between the sectors and the separating wall forming respective breakaway edges, the separating wall being arranged at an angle (α) relative to the inflow separating wall, the second transversal wall, which is divided into sectors including an outflow separating wall directed to the outlet and being offset by an angle (β) relative to the first transversal wall, and the consecutive mixer elements being designed so as to apply an alternatingly directed rotation effect to the material to be mixed during a mixing operation, and
wherein the inflow separating wall is arranged in parallel to the outflow separating wall.
16. The static mixer of claim 15 , wherein the inflow separating wall is divided into respective separating wall portions in front of a sector of the first transversal wall and has a triangular cross-section, one side being perpendicular to the sector and the other side being slanted.
17. The static mixer of claim 16 , wherein the separating wall portions on at least two consecutive mixer elements are mirror-inverted relative to each other so that corresponding slanted sides of the respective inflow separating walls on the consecutive mixer elements are oppositely directed.
18. The static mixer of claim 15 , wherein on at least two consecutive mixer elements, corresponding parts are provided in an essentially mirror-inverted configuration relative to a plane that passes perpendicularly through the center of the respective inflow separating walls of the mixer elements.