Constant friction rotating monitor stand

Patent metadata

Field	Value
Publication number	US-10132442-B2
Application number	US-201514802676-A
Country	US
Kind code	B2
Filing date	Jul 17, 2015
Priority date	Jul 17, 2015
Publication date	Nov 20, 2018
Grant date	Nov 20, 2018

Abstract

A monitor stand for use in holding and maintaining a position of a monitor comprising a carrier adapted to removably and fixedly hold a monitor, the carrier including first and second trapezoidal shaped cubic mounting protrusions on a bottommost portion of the carrier, and wherein the carrier is further adapted to rotate between a first angular placement and a second angular placement, a base enclosure adapted to provide a substantially stable platform to hold the monitor in an upright condition and to provide a frictional engagement against which the carrier can rotate, the base enclosure including first and second base enclosure channels, a low friction insert adapted to be inserted between the carrier and the base enclosure and which is part of the frictional engagement of the base enclosure, the low friction insert including a first and second channel insertion portions adapted to fit into the first and second base enclosure channels respectively, and wherein the first and second trapezoidal shaped cubic mounting protrusions of the carrier fit into the first and second channel insertion portions, respectively, and first and second spring retention assemblies, each of which is adapted to provide a substantially constant rotational spring force against a direction of movement of the monitor due to gravity, and which are affixed to the first and second protrusions respectively.

First claim

What is claimed is:

1. A monitor stand for holding a monitor and maintaining a position of the monitor, the monitor stand comprising:
a carrier adapted to removably and fixedly hold the monitor, the carrier including first and second trapezoidal shaped cubic mounting protrusions disposed on a bottom surface of the carrier;
a base enclosure adapted to provide a substantially stable platform to hold the monitor in a variable upright condition, the base enclosure including first and second base enclosure channels;
a low friction insert adapted to be inserted between the carrier and the base enclosure and to provide a frictional engagement with the carrier, the low friction insert including first and second channel insertion portions having outer walls adapted to fit securely into the first and second base enclosure channels, respectively, and prevent movement of the low friction insert with respect to the base enclosure, and having inner walls configured to receive the first and second trapezoidal shaped cubic mounting protrusions of the carrier, respectively,
wherein a portion of the bottom surface of the carrier, at least a portion of each of top and bottom surfaces of the low friction insert, and a portion of a top surface of the base enclosure each have a substantially same curved shape so that the carrier is rotatable between a first angular placement and a second angular placement about a first non-vertical axis as a result of the first and second trapezoidal shaped cubic mounting protrusions sliding along the inner walls of the first and second channel insertion portions and the portion of the bottom surface of the carrier sliding against the at least portion of the top surface of the low friction insert; and
first and second spring retention assemblies, each of which is adapted to provide a substantially constant rotational spring force against a downward rotational movement of the monitor, and which are affixed to the first and second protrusions respectively, and which are further adapted to provide the substantially constant rotational spring force in a plane that is substantially perpendicular to the first non-vertical axis.

2. The monitor stand according to claim 1 , wherein
the first angular placement is about 20° from a vertical placement of the monitor, and
the second angular placement is about 45° from a vertical placement of the monitor.

3. The monitor stand according to claim 1 , wherein
the downward rotational movement is caused by one or more of user-induced movement and gravity.

4. The monitor stand according to claim 1 , wherein each of the first and second spring retention assemblies comprises:
a spring assembly bracket affixed to the base enclosure; and
a substantially constant force rotational spring affixed to the spring assembly bracket, extendible from a first distance when the monitor is at minimum angular displacement with respect to a substantially perpendicular displacement, to a second distance when the monitor is at a maximum angular displacement with respect to the substantially perpendicular displacement.

5. The monitor stand according to claim 4 , wherein
the spring force generated by the rotational spring is substantially constant when the rotational spring is extended to one of or between the first and second distances.

6. The monitor stand according to claim 4 , further comprising:
first and second pressure plates affixed to the first and second trapezoidal shaped cubic mounting protrusions, respectively, the first and second pressure plates each including a respective tab adapted to retain a first end of the rotational springs of the first and second spring retention assemblies, respectively, and secure that rotational spring to the carrier.

7. The monitor stand according to claim 6 , wherein the rotational springs of the first and second spring retention assemblies each comprises:
a hole located at the first end of the rotational spring, the hole being adapted to fit about the respective tab and to retain the rotational spring to the pressure plate.

8. The monitor stand according to claim 1 , wherein
the low friction insert is adapted to generate a frictional interface force between itself and the carrier, such that the generated frictional interface force combines with the spring force of the spring retention assemblies to counter rotational motion caused by a weight of the monitor.

9. The monitor stand according to claim 8 , wherein
the generated frictional interface force is a function of the frictional coefficient between a first material of which the carrier is made and a second material of which the low friction insert is made, and
the first material is selected from the group consisting of aluminum and glass filled polycarbonate,
and the second material is selected from the group consisting of nylon, delrin, and Teflon.

10. The monitor stand according to claim 8 , wherein
the generated frictional interface force is generated as a result of contact between a plurality of surfaces areas of the low friction insert and a plurality of corresponding surfaces areas of the carrier.

11. The monitor stand according to claim 10 , wherein the generated frictional interface force is generated as a result of one or more of:
contact between a plurality of exterior surface area parts of the first and second trapezoidal shaped cubic mounting protrusions and a plurality of surface area parts of the inner walls of the first and second channel insertion portions; and
contact between the portion of the bottom surface of the carrier and the at least portion of the upper surface of the low friction insert.

12. A system, comprising:
a monitor; and
a monitor stand for holding the monitor and maintaining a position of the monitor according to claim 1 .

13. The system according to claim 12 , wherein
the monitor is selected from the group consisting of: a display monitor, and a personal computer all-in-one device.

14. A monitor stand for holding a monitor and maintaining a position of the monitor, the monitor stand comprising:
a carrier adapted to removably and fixedly hold the monitor, the carrier including first and second trapezoidal shaped cubic mounting protrusions disposed on a bottom surface of the carrier;
a base enclosure adapted to provide a substantially stable platform to hold the monitor in a variable upright condition, the base enclosure including first and second base enclosure channels;
a low friction insert adapted to be inserted between the carrier and the base enclosure and to provide a frictional engagement with the carrier, the low friction insert including first and second channel insertion portions having outer walls adapted to fit securely into the first and second base enclosure channels respectively and prevent movement of the low friction insert with respect to the base enclosure, and having inner walls configured to receive the first and second trapezoidal shaped cubic mounting protrusions of the carrier, respectively,
wherein a portion of the bottom surface of the carrier, at least a portion of each of top and bottom surfaces of the low friction insert, and a portion of a top surface of the base enclosure each have a substantially same curved shape so that the carrier is rotatable between a first angular placement and a second angular placement about a first non-vertical axis as a result of the first and second trapezoidal shaped cubic mounting protrusions sliding along the inner walls of the first and second channel insertion portions and the portion of the bottom surface of the carrier sliding against the at least portion of the top surface of the low fr

Assignees

• Creston Electronics Inc
• Crestron Electronics Inc

Inventors

• Balch Howard
• Bargetzi Fred
• Feldstein Wendy
• Patel Dhirendra
• Previti Dan
• Rahek William
• Feldstein George

Classifications

• F16M2200/041

  for balancing rotational movement of the head · CPC title

• F16M11/10 Primary

  around a horizontal axis {(F16M11/12 takes precedence)} · CPC title

• F16M11/22

  with approximately constant height, e.g. with constant length of column or of legs (F16M11/42 takes precedence) · CPC title

• F16M2200/08

  Foot or support base · CPC title

• F16B2001/0021

  Mechanical Engineering · mapped topic