Wireless electric strike

1. An electric strike comprising:

casing housing components of the electric strike, including:

a power source;

a lock mechanism;

a modular electronic circuit powered by the power source, the modular electronic circuit being configured to wirelessly authenticate a user and electro-mechanically acuate the lock mechanism;

a rotor coupled to the lock mechanism, the rotor being powered by the power source and configured to situate the lock mechanism based on a lock state of the electric strike;

wherein the lock mechanism includes a keeper coupled to the rotor to provide a bi-stable operation of the electric strike, wherein the locked state includes one of: a locked state, an unlocked state, and an intermediate state; and

wherein the energy of a torsion element is configured to pull the rotor from the intermediate state without any additional motion from a motor coupled to the rotor.

2. The electric strike of claim 1 , wherein the keeper is configured to rotate about an axis such that a lip of the keeper extends beyond the casing housing when the lock mechanism is in the locked state.

3. The electric strike of claim 1 , wherein the keeper is configured to rotate out of the way of an internal locking mechanism.

4. The electric strike of claim 1 , wherein the rotor is configured to situate the keeper in the unlocked state.

5. The electric strike of claim 1 , wherein the torsion element is a spring component.

6. The electric strike of claim 1 , wherein the torsion element exerts a downward force that causes the rotor to rotate down towards a sliding plate after the power source has caused the rotor to rotate upwards.

7. The electric strike of claim 6 , wherein the sliding plate has a first end and a second end, the first end being coupled to the keeper and the second end being coupled to the rotor such that when the rotor is powered by the power source, the rotor prevents the sliding plate from sliding in a direction and causes the keeper to rotate about an axis.

8. The electric strike of claim 7 , wherein in the locked state the rotor is positioned on top of a portion of the sliding plate, wherein the rotor is passively pulled by the torsion element from an intermediate state into the locked state.

9. The electric strike of claim 8 , wherein the rotor is further configured to situate the rotor in the intermediate state, the intermediate causing the sliding plate to rotate out from under the rotor as the keeper is rotated.

10. The electric strike of claim 7 , wherein the rotor is further configured to situate the keeper in the unlocked state, the unlocked state positioning the rotor in a downward angled position and come into contact with an angled edge of the sliding plate.

11. The electric strike of claim 1 , wherein the modular electronic circuit include a wireless chip to communicate with a smartphone of a user and authenticate the user, via the smartphone of the user, as a condition to electromechanically actuate the lock mechanism.

12. An electric strike comprising:

casing housing components of the electric strike, including:

a power source;

a lock mechanism;

a modular electronic circuit including a processor, logic, and a wireless communication chip, the modular electronic circuit powered by the power source, the modular electronic circuit being configured to wirelessly communicate with a smartphone of a user and authenticate the user as a condition to electro-mechanically actuate the lock mechanism; and

a rotor coupled to the lock mechanism, wherein the lock mechanism includes a keeper coupled to the rotor to provide a bi-stable operation of the electric strike, the rotor being powered by the power source and configured to situate the lock mechanism based on a lock state of the electric strike, wherein the lock state includes one of: a locked state, an unlocked state, and an intermediate state; and

wherein energy in a torsion element of the electric strike on the rotor pulls the rotor from the intermediate state to the locked state without any additional motion from a motor coupled to the rotor.

13. The electric strike of claim 12 , wherein the keeper includes a lip that extends beyond the housing and comes into contact with an edge of a frame.

14. The electric strike of claim 12 , wherein the keeper includes a recess and the rotor is configured to come into contact with the recess when the keeper is in the locked state.

15. An electric strike comprising:

casing housing components of the electric strike, including:

a power source;

a lock mechanism;

a modular electronic circuit including a processor, logic, and a wireless communication chip, the modular electronic circuit powered by the power source, the modular electronic circuit being configured to wirelessly communicate with a smartphone of a user and authenticate the user as a condition to electro-mechanically actuate the lock mechanism; and

a rotor coupled to the lock mechanism, wherein the lock mechanism includes a keeper coupled to the rotor to provide a bi-stable operation of the electric strike, the rotor being powered by the power source and configured to situate the lock mechanism based on a lock state of the electric strike, wherein the lock state includes one of: a locked state, an unlocked state, and an intermediate state; and

wherein the keeper includes a recess and the rotor is configured to move freely within the recess as the keeper is in the intermediate state.

16. The electric strike of claim 15 , wherein the keeper includes an edge of the recess and the rotor is configured to rest against the edge of the recess when the keeper is in the unlocked state.