Enhanced implantable helical antenna system and method
As described herein vascular anchoring systems are used to position an implant in a vascular area such as a bifurcated vasculature with relatively high fluid flow, for instance, in an area of a pulmonary artery with associated left and right pulmonary arteries. Implementations include an anchoring trunk member having a first anchoring trunk section and a second anchoring trunk section. Further implementations include a first anchoring branch member extending from the anchoring trunk member. Still further implementations include a second anchoring branch member extending from the anchoring trunk member.
1. For implantation through a tubular structure into a biological structure, a system comprising:
an electronic device;
an antenna electrically coupled to the electronic device, at least a portion of the antenna being helical, the helical portion of the antenna having a uncompressed state with a measurement, Zu, along a first dimension and a compressed state with a measurement, Zc, along the first dimension, wherein the biologic structure is a blood vessel and wherein the helical antenna portion is shaped and sized to be implanted into the blood vessel.
2. The system of claim 1 wherein the helical antenna portion includes:
a p/s elastic structure;
an electrically conductive structure coupled with the p/s elastic structure; and
an electrical insulator coupled with the p/s elastic structure.
3. The helical antenna portion of claim 2 wherein the p/s elastic structure is a p/s elastic tubular structure.
4. The helical antenna portion of claim 3 wherein the electrically conductive structure fills the p/s elastic tubular structure.
5. The helical antenna portion of claim 3 wherein the p/s elastic structure is a drawn filled tube.
6. The helical antenna portion of claim 5 wherein the electrically conductive structure serves as filling material for the p/s elastic structure as the drawn filled tube.
7. The helical antenna portion of claim 2 wherein the p/s elastic structure is made from a material that is pseudoelastic in a temperature range of at least 33 degrees Celsius to 43 degrees Celsius.
8. An apparatus adapted for implantation through a tubular structure into a biological structure, the apparatus comprising:
an antenna configured to electrically couple to an electronic device, at least a portion of the antenna being helical, the helical portion of the antenna having a uncompressed state with a measurement, Zu, along a first dimension and a compressed state with a measurement, Zc, along the first dimension, the helical antenna portion including:
a plurality of p/s elastic structures;
an electrically conductive structure coupled with the p/s elastic structure; and
an electrical insulator coupled with at least one of the p/s elastic structures.
9. The helical antenna portion of claim 8 further including a plurality of electrically conductive structures wherein each of the plurality of p/s elastic structures is tubular, each of the electrically conductive structures filling a different one of the p/s elastic structures.
10. The helical antenna portion of claim 9 further including a plurality of electrical insulators, each electrical insulator of the plurality covering a different one of the plurality of the p/s elastic structures and the electrical insulator coupled with the plurality of the p/s elastic structures through the electrical insulator.
11. The helical antenna portion of claim 8 wherein each of the plurality of p/s elastic structures is coupled to the electrical insulator, further including a plurality of electrically conductive structures coupled to the p/s elastic structures through the electrical insulator.
12. The helical antenna portion of claim 11 further including a plurality of electrical insulators each covering a different one of the plurality of the electrically conductive structures.
13. The helical antenna portion of claim 8 wherein the electrically conductive structure is configured for electrical coupling with an electronic device.
14. The helical antenna portion of claim 13 wherein the electrically conductive structure is electrically isolated from the plurality of p/s elastic structures.
15. An apparatus adapted for implantation through a tubular structure into a biological structure, the apparatus comprising:
an antenna configured to electrically couple to an electronic device, at least a portion of the antenna being helical, the helical portion of the antenna having a uncompressed state with a measurement, Zu, along a first dimension and a compressed state with a measurement, Zc, along the first dimension, the helical antenna portion including:
a p/s elastic structure;
a plurality of electrically conductive structures coupled with the p/s elastic structure; and
an electrical insulator coupled with the p/s elastic structure.
16. The helical antenna portion of claim 15 , further including a plurality of p/s elastic structures wherein one of the plurality of electrically conductive structures is coupled to the p/s elastic structure and the others of the plurality of electrically conductive structures are each directly coupled to a different one of the plurality of p/s elastic structures.
17. The helical antenna portion of claim 16 , further including a plurality of electrical insulators, each electrical insulator of the plurality covering a different one of the plurality of the electrically conductive structures.
18. The helical antenna portion of claim 15 further including a plurality of p/s elastic structures coupled to the electrically conductive structures through the electrical insulator.
19. The helical antenna portion of claim 15 further including a plurality of electrical insulators each covering a different one of the plurality of the electrically conductive structures.
20. The helical antenna portion of claim 15 wherein each of the electrically conductive structures are configured for electrical coupling with an electronic device.