Latch with magnetically-assisted operation for information handling systems (IHSs)
A latch with magnetically-assisted operation is described. In some embodiments, a latch may include: a first magnetic device fixedly coupled to a first portion of an Information Handling System (IHS); a second magnetic device coupled to a second movable portion of the IHS; and a carrier, comprising: a compression bracket fixedly coupled to the first portion of the IHS, the compression bracket having a slot configured to accommodate the second magnetic device, at least one guidepost configured to receive a return spring, and at least one stopping pin; and a actuator bracket movably coupled to compression bracket, the actuator bracket having a button configured to translate the second magnetic device with respect to the first magnetic device, at least one orifice configured to engage with the at least one guidepost, and at least one detent configured to engage with the at least one stopping pin.
1. A latch, comprising:
a first magnetic device fixedly coupled to a first portion of an Information Handling System (IHS);
a second magnetic device coupled to a movable second portion of the IHS; and
a carrier, comprising:
a compression bracket fixedly coupled to the first portion of the IHS, the compression bracket having a surface configured to accommodate the second magnetic device, at least one guidepost configured to receive a return spring, and at least one stopping pin; and
an actuator bracket coupled to the compression bracket, the actuator bracket having a button configured to translate the second magnetic device with respect to the first magnetic device, at least one orifice configured to engage with the at least one guidepost, and at least one detent configured to engage with the at least one stopping pin.
2. The latch of claim 1 , wherein the first magnetic device and the second magnetic device have a same polarity orientation.
3. The latch of claim 1 , wherein the first magnetic device translates in response to operation of the button.
4. The latch of claim 3 , wherein when the actuator bracket is in a first position, the first magnetic device and the second magnetic device interact under a predominantly attractive force.
5. The latch of claim 4 , wherein when the actuator bracket is in the first position, a first portion of the first magnetic device having a first polarity is aligned with a first portion of the second magnetic device having a second polarity opposite the first polarity.
6. The latch of claim 4 , wherein when the actuator bracket is in a second position, the first magnetic device and the second magnetic device interact under a predominantly repulsive force.
7. The latch of claim 6 , wherein when the actuator bracket is in the second position: (i) a first portion of the first magnetic device having a first polarity is aligned with a second portion of the second magnetic device having a second polarity opposite the first polarity, and (ii) a second portion of the first magnetic device having the second polarity is aligned with a first portion of the second magnetic device having the first polarity.
8. The latch of claim 3 , wherein the second portion of the IHS includes a kickstand.
9. The latch of claim 8 , wherein the actuator bracket is operated in response to physical contact of the button with a surface perpendicular to the first portion.
10. The latch of claim 3 , wherein the second portion of the IHS is coupled to the first portion via a spring-loaded hinge.
11. The latch of claim 3 , wherein the first portion of the IHS includes one or more clamping magnets, and wherein the second portion of the IHS includes a corresponding set of one or more clamping magnets.
12. The latch of claim 11 , wherein when the first magnetic device is in a first position, forces applied to the second portion by the spring-loaded hinge are smaller than a sum of: (i) attractive forces between the first and second magnetic devices, and (ii) attractive forces between the clamping magnets, wherein when the first magnetic device is in a second position, the attractive forces between the clamping magnets are equal to a sum of: (i) the forces applied to the second portion by the spring-loaded hinge, and (ii) repulsive forces between the first and second magnetic devices, and wherein when the first magnetic device is in a third position, the attractive forces between the clamping magnets is smaller than a sum of: (i) repulsive forces between the first and second magnetic devices, and (ii) the forces applied to the second portion by the spring-loaded hinge.
13. The latch of claim 1 , wherein the second distance is zero.
14. The latch of claim 1 , wherein at least one of the first or second magnetic devices includes an electromagnetic coil.
15. A carrier, comprising:
an actuator bracket having a button configured to translate a second magnet movably coupled to an Information Handling System (IHS) with respect to a first magnetic device fixedly coupled to a kickstand, wherein the actuator bracket further comprises: at an orifice configured to engage with a guidepost, and a detent configured to engage with a stopping pin; and
a compression bracket fixedly coupled to the IHS, wherein the compression bracket further comprises: a surface configured to accommodate the second magnet, the guidepost, and the stopping pin, wherein the guidepost is configured to receive a return spring.
16. The carrier of claim 15 , wherein the first magnet and the second magnet have a same polarity orientation, wherein the first magnet translates in response to operation of the button.
17. The carrier of claim 16 , wherein when the actuator bracket is in a first position, a first portion of the first magnet having a first polarity is aligned with a first portion of the second magnet having a second polarity opposite the first polarity, and the first magnet and the second magnet interact under a predominantly attractive force.
18. The carrier of claim 16 , wherein when the actuator is in a second position: (i) a first portion of the first magnet having a first polarity is aligned with a second portion of the second magnet having a second polarity opposite the first polarity, (ii) a second portion of the first magnet having the second polarity is aligned with a first portion of the second magnet having the first polarity, and (iii) the first magnet and the second magnet interact under a predominantly repulsive force.
19. A method, comprising:
operating an actuator of a carrier coupled to a chassis of an Information Handling System (IHS), wherein the carrier holds a first magnet that is movable relative to the chassis by operation of the actuator; and
supporting at least a portion of the IHS using a kickstand coupled to the chassis, wherein the kickstand holds a second magnet fixed relative to the kickstand, wherein the chassis includes one or more clamping magnets and the kickstand includes a corresponding set of one or more clamping magnets, wherein when the first magnet is in a first position, forces applied to the kickstand by a spring-loaded hinge coupling the kickstand to the chassis are smaller than a sum of: (i) attractive forces between the first and second magnets, and (ii) attractive forces between the clamping magnets, wherein when the first magnet is in a second position, the attractive forces between the clamping magnets are equal to a sum of: (i) the forces applied to the kickstand by the spring-loaded hinge, and (ii) repulsive forces between the first and second magnets, and wherein when the first magnet is in a third position, the attractive forces between the clamping magnets is smaller than a sum of: (i) repulsive forces between the first and second magnets, and (ii) the forces applied to the kickstand by the spring-loaded hinge.