IP Library › Granted Patent US 10,790,603
Granted Patent B2
US 10,790,603 · App. 16/264,944 · Granted Sep 29, 2020

Connector with relaxation mechanism for latch

Inventors: Phil Geng (Portland, OR); Xiang Li (Portland, OR); George Vergis (Portland, OR); Mani Prakash (University Place, WA)
Assignee: Intel Corporation
H01R12/7023H01R12/7005H01R12/737H01R12/707
View Patent ↗
Loading inventors, assignments & file history…
Monitor This Case
Get email alerts when status or documents change.
Order Certified Copies
Most orders are placed with the USPTO same day — all within 24 business hours.
Order via The Patent Place →
Pre-filled with this patent's details
Quick Facts
Patent No.
US 10,790,603
App. No.
16/264,944
Granted
Sep 29, 2020
Kind
B2
Abstract

An embodiment of a connector housing for a circuit board may include a connector body to receive the circuit board, and a relaxation mechanism mechanically coupled to the connector body to relax stress on the connector housing and maintain the circuit board received in the connector body under a load which exceeds a load threshold. Other embodiments are disclosed and claimed.

Claims (38)

1. An electrical connector housing for a circuit board, comprising:

a connector body to receive the circuit board; and

a relaxation mechanism mechanically coupled to the connector body, the relaxation mechanism comprising:

a groove comprising a pair of pivot points connected via a constriction region,

a latch comprising a pin, wherein the pin is operatively associated with the groove,

wherein the relaxation mechanism is to relax stress on the connector housing,

wherein the constriction region is configured to maintain the circuit board received in the connector body under a load which exceeds a load threshold, wherein the pin will stay positioned at either of the pivot points unless acted on with sufficient load to overcome the constriction region to translate the latch and pin from one pivot point to the other pivot point; and

wherein a lengthwise centerline of the groove is substantially perpendicular to a lengthwise centerline of the slot.

2. The electrical connector housing of claim 1 , wherein the relaxation mechanism comprises:

the latch to retain the circuit board in the connector body when the latch is in a first position, wherein the latch is translatably mechanically coupled to the connector body with a translation of the latch from the first position to a second different position under the load which exceeds the load threshold.

3. The electrical connector housing of claim 2 , wherein the structure that allows translation of the latch under the load which exceeds the load threshold comprises:

the groove disposed in one of the connector body and the latch to allow translation of the latch relative to the connector body under the load which exceeds the load threshold.

4. The electrical connector housing of claim 3 , wherein the groove comprises:

a first pivot point of the pair of pivot points to retain the circuit board fully seated in the connector when a load on the latch is less than or equal to the load threshold; and

a second pivot point of the pair of pivot points to retain the circuit board partially seated in the connector body when the load on the latch exceeds the load threshold.

5. The electrical connector housing of claim 4 , further comprising:

the constriction configured to allow the translation of the latch from the first pivot point to the second pivot point only when the load on the latch exceeds the load threshold.

6. The electrical connector housing of claim 3 , wherein the connector body includes a slot to receive the circuit board.

7. The electrical connector housing of claim 6 , wherein the circuit board comprises a memory card.

8. The electrical connector housing of claim 6 , wherein the circuit board comprises a dual-inline memory module.

9. An electrical connector for a memory card, comprising: a connector housing including an elongated slot to receive the memory card, the connector housing including:

a first set of opposed grooves at a first end of the elongated slot, wherein a lengthwise centerline of the first set of opposed grooves is transverse to a lengthwise centerline of the elongated slot, and

a second set of opposed grooves at a second end of the elongated slot opposite to the first end wherein a lengthwise centerline of the second set of opposed grooves is transverse to the lengthwise centerline of the elongated slot, wherein at least a portion of one or more of the first set or the second set comprising a pair of pivot points connected via a constriction region, and wherein the constriction region is configured to maintain the memory card received in the connector housing under a load which exceeds a load threshold;

a first latch received within the first set of opposed grooves of the connector housing; and

a second latch received within the second set of opposed grooves of the connector housing, wherein at least a portion of one or more of the first latch or the second latch comprising a pin, wherein the pin is operatively associated with the pair of pivot points connected via the constriction region, wherein the pin will stay positioned at either of the pivot points unless acted on with sufficient load to overcome the constriction region to translate the latch and pin from one pivot point to the other pivot point; and

wherein the respective lengthwise centerlines of the first and second sets of opposed grooves are substantially perpendicular to the lengthwise centerline of the elongated slot.

10. The electrical connector of claim 9 , wherein the first set of opposed grooves include a first pivot point at a first end of the first set of opposed grooves and a second pivot point at a second end of the first set of opposed grooves, and the second set of opposed grooves include a first pivot point at a first end of the second set of opposed grooves and a second pivot point at a second end of the second set of opposed grooves.

11. The electrical connector of claim 10 , wherein the first set of opposed grooves have a first constriction therein to allow translation of the first latch between the first and second pivot points of the first set of opposed grooves only when a load on the first latch exceeds the load threshold, and the second set of opposed grooves have a second constriction therein to allow translation of the second latch between the first and second pivot points of the second set of opposed grooves only when a load on the second latch exceeds the load threshold.

12. The electrical connector of claim 10 , wherein the respective second pivot points of the first and second sets of opposed grooves are positioned relative to the respective first pivot points of the first and second sets of opposed grooves to relax stress on the respective first and second latches under a shock load when the first and second latches are positioned at the respective second pivot points.

13. The electrical connector of claim 9 , wherein the memory card comprises a dual-inline memory module.

14. An electrical connector housing for a circuit board substrate, comprising:

a first housing portion including an elongated slot to receive the circuit board substrate;

a second housing portion mechanically coupled to the first housing portion at an end of the elongated slot, the second housing portion including a first groove to receive a latch, wherein a lengthwise centerline of the first groove is transverse to a lengthwise centerline of the elongated slot; and

a third housing portion mechanically coupled to the first housing portion at an end of the elongated slot and opposed to the second housing portion, the third housing portion including a second groove to receive the latch, wherein a lengthwise centerline of the second groove is aligned to the lengthwise centerline of the first groove and the second groove is directly opposed to the first groove, wherein at least a portion of one or more of the first groove or the second groove comprising a pair of pivot points connected via a constriction region, and wherein the constriction region is configured to maintain the circuit board substrate received in the first housing portion under a load which exceeds a load threshold, wherein a pin portion of the latch is operatively associated with the pair of pivot points connected via the constriction region, wherein the pin will stay positioned at either of the pivot points unless acted on with sufficient load to overcome the constriction region to translate the latch and pin from one pivot point to the other pivot point; and

wherein the respective lengthwise centerlines of the first and second grooves are substantially perpendicular to the lengthwise centerline of the elongated slot.

15. The electrical connector housing of claim 14 , wherein the first groove includes a first pivot point at a first end of the first groove and a second pivot point at a second end of the first groove, and the second groove includes a first pivot point at a first end of the second groove and a second pivot point at a second end of the second groove.

16. The electrical connector housing of claim 15 , wherein the first and second grooves have a constriction therein to allow translation of the latch between the respective first and second pivot points of the first and second grooves only when a load on the latch exceeds the load threshold.

17. The electrical connector housing of claim 15 , wherein the respective second pivot points of the first and second grooves are positioned relative to the respective first pivot points of the first and second grooves to relax stress on the latch under a shock load when the latch is positioned at the respective second pivot points.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Feb 1, 2019
From: GENG, PHIL; LI, XIANG; VERGIS, GEORGE; PRAKASH, MANI
To: INTEL CORPORATION
Reel/Frame 048217/0546 →
Continuity (1)
Related Publication 20190165503A1 · May 30, 2019