Waveguides interconnected by flanges having glide symmetrically positioned holes disposed therein
The embodiments herein relate to a first waveguide comprising a first flange ( 103 a ) surrounding an end opening ( 105 a ) of the first waveguide ( 101 a ). The first flange ( 103 a ) comprises at least two holes ( 110 ) which are periodically distributed around the end opening ( 105 a ). The first waveguide ( 101 a ) is arranged to be connected to a second waveguide ( 101 b ) by connecting the first flange ( 103 a ) to a second flange ( 103 b ) of the second waveguide ( 101 b ) such that the end opening ( 105 a ) of the first waveguide ( 101 a ) faces an end opening ( 105 b ) of the second waveguide ( 101 b ) and such that the holes ( 110 ) in the first flange ( 103 a ) are at least partly glide symmetrically positioned with respect to holes ( 110 ) which are periodically distributed around the end opening ( 105 b ) of the second flange ( 103 b).
1. A method for manufacturing a waveguide assembly, the method comprising:
providing a first waveguide comprising a first flange surrounding an end opening of the first waveguide; wherein the first flange comprises at least two holes which are periodically distributed around the end opening of the first waveguide;
providing a second waveguide comprising a second flange surrounding an end opening of the second waveguide; wherein the second flange comprises at least two holes which are periodically distributed around the end opening of the second waveguide; and
connecting the first and second waveguides to each other by connecting the first flange to the second flange such that the respective end openings of the first and second waveguides face each other, and such that the at least two holes of the first flange are at least partly glide symmetrically positioned with respect to the at least two holes of the second flange.
2. A first waveguide comprising:
a first flange surrounding an end opening of the first waveguide;
wherein the first flange comprises at least two holes which are periodically distributed around the end opening; and
wherein the first waveguide is configured to be connected to a second waveguide, wherein the second waveguide comprises a second flange surrounding an end opening of the second waveguide and wherein the second flange comprises a corresponding at least two holes which are periodically distributed around the end opening of the second flange, by connecting the first flange to a second flange such that the end opening of the first waveguide faces the end opening of the second waveguide, and such that the at least two holes of the first flange are at least partly glide symmetrically positioned with respect to the corresponding at least two holes of the second flange.
3. The first waveguide of claim 2 , wherein the first flange is located around an outer circumference of the first waveguide.
4. The first waveguide of claim 2 , wherein the first waveguide is configured to be connected to the second waveguide such that a gap is located between the first flange and the second flange when the first and second flanges are connected to each other.
5. The first waveguide of claim 2 , wherein the at least two holes of the first flange are circular, squared, or hexagonal shaped.
6. The first waveguide of claim 2 , wherein the at least two holes of the first flange are periodically distributed around the end opening in a circular, a hexagonal, or a polygonal form.
7. The first waveguide of claim 2 , wherein the first waveguide is configured to be connected to the second waveguide such that no gap is located between the first flange and the second flange when the first and second flanges are connected to each other.
8. The first waveguide of claim 2 , wherein the at least two holes of the first flange are placed in a closed shape around the end opening of the first flange.
9. The first waveguide of claim 2 , wherein the at least two holes of the first flange are periodically distributed around the end opening of the first flange in at least one row.
10. The first waveguide of claim 2 , wherein the at least two holes of the first flange, when the first flange is connected to the second flange, constitute a holey and at least partly glide symmetric Electromagnetic Band Gap (EBG) structure integrated within the first and second flange.
11. A waveguide assembly, the waveguide assembly comprising:
a first waveguide comprising a first flange surrounding an end opening of the first waveguide; wherein the first flange comprises at least two holes which are periodically distributed around the end opening of the first waveguide;
a second waveguide comprising a second flange surrounding an end opening of the second waveguide; wherein the second flange comprises at least two holes which are periodically distributed around the end opening of the second waveguide;
wherein the first and second waveguides are configured to be connected to each other by connecting the first flange to the second flanges such that the end openings of the first and second waveguides face each other and such that the at least two holes of the first flange are at least partly glide symmetrically positioned with respect to the at least two holes of the second flange.
12. The waveguide assembly of claim 11 , wherein a gap is located between the first flange and the second flange when the first and second waveguides are connected to each other.
13. The waveguide assembly of claim 11 , wherein the at least two holes of each one of the first and second flanges are circular, squared, or hexagonal shaped.
14. The waveguide assembly of claim 11 , wherein the at least two holes of each one of the first and second flanges are periodically distributed around each end opening of the first and second waveguides in a circular, a hexagonal, or a polygonal form.
15. The waveguide assembly of claim 11 , wherein the at least two holes of each one of the first and second flanges are periodically distributed around the respective end openings of the first and second waveguides in at least one row.
16. The waveguide assembly of claim 11 :
wherein the first flange is located around an outer circumference of the first waveguide; and
wherein the second flange is located around an outer circumference of the second waveguide.
17. The waveguide assembly of claim 11 , wherein no gap is located between the first flange and the second flange when the first and second waveguides are connected to each other.
18. The waveguide assembly of claim 11 , wherein the at least two holes of each one of the first and second flanges constitutes a holey and at least partly glide symmetric Electromagnetic Band Gap (EBG) structure integrated within each of the first and second flanges.
19. The waveguide assembly of claim 11 , wherein the at least two holes of each one of the first and second flanges are placed in a closed shape around the respective end openings of the first and second waveguides.
20. A method for manufacturing a first waveguide, the method comprising:
providing a first flange surrounding an end opening to the first waveguide;
wherein the first flange comprises at least two holes which are periodically distributed around the end opening; and
wherein the first flange of the first waveguide is configured to be connected to a second flange of a second waveguide, wherein the second flange comprises at least two holes which are periodically distributed around an end opening of the second waveguide, by connecting the first flange to the second flange such that the end opening of the first waveguide faces the end opening of the second waveguide, and such that the at least two holes of the first flange are at least partly glide symmetrically positioned with respect to the at least two holes of the second flange.