Mechanical connectors for contactless communication units

1. A first device comprising:

a first connector configured to interface with a second connector associated with a second device, the first connector comprising:

an integrated power and alignment cavity structure configured to establish an electrical connection and to align at least one extreme high frequency (EHF) electromagnetic (EM) signal transmission path between the first device and the second device, the integrated power and alignment cavity structure comprising:

an alignment cavity to receive the second connector, the alignment cavity including a plurality of vertical walls extending vertically from a surface of the alignment cavity;

a first electrical contact coupled to a first one of the plurality of vertical walls; and

a second electrical contact coupled to a second one of the plurality of vertical walls, the first electrical contact and the second electrical contact configured to establish electrical connection with the second connector; and

at least one contactless communications unit (CCU) arranged in a position external to the integrated power and alignment cavity structure, the at least one CCU of the first device positioned to be aligned to a respective one of at least one CCU of the second device to establish alignment of the at least one EHF EM signal transmission path.

2. The first device of claim 1 , wherein the alignment cavity is configured to accommodate one of a symmetric and asymmetric connection between the first and second connectors.

3. The first device of claim 1 , wherein each of the first electrical contact and the second electrical contact comprises a retention receiving portion designed to interface with a retention engagement member of the second connector, wherein the retention receiving portion comprises an undercut.

4. The first device of claim 1 , wherein the first vertical wall is opposite of the second vertical wall.

5. The first device of claim 1 , wherein the first electrical contact is a power contact and the second electrical contact is a ground contact.

6. The first device of claim 1 , wherein the first connector further comprises at least one magnet operative to provide a retention force that secures the first and second connectors together.

7. The first device of claim 6 , wherein the at least one magnet is positioned within the alignment cavity.

8. The first device of claim 6 , wherein the at least one magnet is positioned outside the alignment cavity.

9. A first connector comprising:

an integrated power and alignment structure configured to establish an electrical connection and to align at least one extreme high frequency (EHF) electromagnetic (EM) signal transmission path between the first connector and a second connector, the integrated power and alignment structure comprising:

an alignment member operative to interface with a counterpart alignment member of the second connector; and

a plurality of contacts arranged in an N×M matrix within the alignment member, wherein the plurality of contacts exhibit a contact force in the same direction as a coupling direction between the first and second connectors, wherein N is an integer of 1 or higher and M is an integer of 1 or higher between the first and second connectors;

at least one contactless connector unit (CCU) arranged in a position external to the integrated power and alignment structure, the at least one CCU of the first connector positioned to be aligned to a respective one of at least one CCU of the second connector to establish alignment of the at least one EHF EM signal transmission path; and

at least one magnet configured to provide a retention force that secures the first and second connectors together and to overcome the contact force of the plurality of contacts.

10. The first connector of claim 9 , wherein the alignment member is a protrusion member, and wherein the plurality of contacts are spring biased pogo pins.

11. The first connector of claim 9 , wherein the alignment member is a channel cavity, and wherein the plurality of contacts are flat metal contacts.

12. A multiple protrusion connector for use in being connected to a multiple cavity connector, the multiple protrusion connector comprising:

a plurality of integrated power and alignment structures configured to establish an electrical connection and to align extreme high frequency (EHF) electromagnetic (EM) signal transmission paths between the multiple protrusion connector and the multiple cavity connector, wherein the plurality of integrated power and alignment structures comprise two integrated power and alignment structures that are aligned along a center axis of the multiple protrusion connector and that are spaced apart by a fixed distance along the center axis, and each of the integrated power and alignment structures comprising:

a protrusion member operative to interface with a counterpart cavity of the multiple cavity connector; and

a contact integrated within the protrusion member, the contact configured to establish the electrical connection with the multiple cavity connector;

at least two contactless communication units (CCUs) arranged along an axis that is parallel to and offset with respect to the center axis such that the at least two CCUs of the multiple protrusion connector are aligned to respective ones of at least two CCUs of the multiple cavity connector, wherein the at least two CCUs arranged in a position external to the integrated power and alignment structures; and

at least one magnet configured to provide a retention force that secures the multiple protrusion and multiple cavity connectors together.

13. The multiple protrusion connector of claim 12 , wherein the at least one magnet is aligned along an axis perpendicular to the center axis.

14. A multiple cavity connector for use in being connected to

a multiple protrusion connector, the multiple cavity connector comprising:

a plurality of integrated power and alignment structures configured to establish an electrical connection and to align extreme high frequency (EHF) electromagnetic (EM) signal transmission paths between the multiple protrusion connector and the multiple cavity connector, wherein the plurality of integrated power and alignment structures comprise two integrated power and alignment structures that are aligned along a center axis of the multiple cavity connector and that are spaced apart by a fixed distance along the center axis, and each of the integrated power and alignment structures comprising:

a cavity operative to interface with a counterpart protrusion member of the second connector; and

a contact integrated within the cavity;

at least two contactless communication units (CCUs) arranged along an axis that is parallel and offset with respect to the center axis such that the at least two CCUs of the multiple protrusion connector are aligned to respective ones of at least two CCUs of the multiple cavity connector, wherein the at least two CCUs arranged in a position external to the integrated power and alignment structures; and

at least one magnet configured to provide a retention force that secures the multiple protrusion and multiple cavity connectors together.