Connectors and cables for use with ventricle assist systems
Systems, assemblies, and related modules for connecting components of medical devices employ connector cables with electrical conductors and optical fibers. A connector assembly for coupling a battery module with a medical system including an implanted or worn medical device includes an input connector and an output connector. The input connector includes metal contact plates, has no moving parts, and is sealed to prevent water or dust ingression into the housing. The output connector includes metal pins to electrically couple to the metal plates of the input connector, a connector cable including electrical conductors coupled to the metal pins configured to transmit electrical power and an optical fiber configured to transmit data, and a latching mechanism disposed at an end of the output connector configured to physically attach the output connector to the housing. The cable body has a substantially flat cross-section.
1. A battery module for a mechanical circulatory support system, the battery module comprising:
a housing;
one or more battery cells disposed within the housing;
a connector cable extending from the housing; and
a battery module output connector connected to a distal end of the connector cable and configured to removably couple with an input connector of the mechanical circulatory support system, the connector cable including at least four connectors, the connectors being configured to transfer power from the one or more battery cells to the mechanical circulatory support system via the input connector and to transfer data between the mechanical circulatory support system and the battery module.
2. The battery module of claim 1 , wherein the at least four connectors are arranged in a linear array within the connector cable so that the connector cable has an elongated rectangular cross section.
3. The battery module of claim 1 , further comprising a spooling assembly on which the connector cable can be spooled and unspooled to vary a length by which the connector cable extends from the housing.
4. The battery module of claim 1 , wherein the connectors comprise an optical fiber and two redundant pairs of electrical conductors arranged symmetrically on opposite sides of the optical fiber to enable coupling of the battery module output connector to the input connector in each of two opposite orientations.
5. The battery module of claim 1 , wherein the battery module output connector comprises spring-loaded metal pins coupled to the at least four connectors, wherein the spring-loaded metal pins are of complementary shapes and sizes to respective metal contact plates of the input connector so as to allow electrical connection between the battery module and the mechanical circulatory support system.
6. The battery module of claim 1 , wherein the battery module output connector comprises a latching mechanism configured to physically attach the battery module to a medical device housing of the mechanical circulatory support system.
7. The battery module of claim 6 , wherein the latching mechanism comprises two latching arms, wherein each of the latching arms comprises a dimple of a complementary shape and size to a respective recess on a surface of the medical device housing.
8. The battery module of claim 6 , wherein the latching mechanism comprises a first magnetic element configured to latch to a second magnetic element mounted to the medical device housing.
9. The battery module of claim 8 , wherein the first magnetic element is configured to unlatch from the second magnetic element upon application of a particular breakaway force.
10. The battery module of claim 1 , wherein the battery module comprises a battery module input connector configured to receive electrical power from another battery module and/or a charging unit.
11. The battery module of claim 1 , wherein the connector cable is fixedly connected with the housing.
12. The battery module of claim 1 , wherein the connector cable is decoupleable from the battery module and comprises a connecting end for coupling an output connector of the battery module.
13. A base battery module for a mechanical circulatory support system, the base battery module comprising:
a housing;
one or more battery cells disposed within the housing;
a connector cable extending from the housing; and
a battery module output connector connected to a distal end of the connector cable and configured to removably couple with an input connector of the mechanical circulatory support system, the connector cable consisting of four connectors configured to transfer power from the one or more battery cells to the mechanical circulatory support system via the input connector and to transfer data between the mechanical circulatory support system and the base battery module.
14. The base battery module of claim 13 , wherein the four connectors comprise two redundant pairs of conductors arranged symmetrically to enable coupling of the battery module output connector to the input connector in each of two opposite orientations.
15. The base battery module of claim 13 , wherein the four connectors are arranged in a linear array within the connector cable so that the connector cable has an elongated rectangular cross section.
16. The base battery module of claim 13 , further comprising a spooling assembly on which the connector cable can be spooled and unspooled to vary a length by which the connector cable extends from the housing.
17. The base battery module of claim 13 , wherein the battery module output connector comprises a latching mechanism configured to physically attach the battery module to a medical device housing of the mechanical circulatory support system.
18. The base battery module of claim 13 , wherein the battery module comprises a battery module input connector configured to receive electrical power from another battery module and/or a charging unit.
19. The base battery module of claim 13 , wherein the base battery module comprises an external controller.
20. The battery module of claim 1 , wherein the at least four connectors comprise two redundant pairs of conductors arranged symmetrically to enable coupling of the battery module output connector to the input connector in each of two opposite orientations.