In Re Holness

612 F. App'x 999
CourtCourt of Appeals for the Federal Circuit
DecidedMay 20, 2015
Docket2014-1824
StatusUnpublished

This text of 612 F. App'x 999 (In Re Holness) is published on Counsel Stack Legal Research, covering Court of Appeals for the Federal Circuit primary law. Counsel Stack provides free access to over 12 million legal documents including statutes, case law, regulations, and constitutions.

Bluebook
In Re Holness, 612 F. App'x 999 (Fed. Cir. 2015).

Opinion

*1001 WALLACH, Circuit Judge.

Appellant Wilfred Holness appeals the Patent Trial and Appeal Board’s (“PTAB”) affirmance (“PTAB Decision”), J.A.5-18, of the United States Patent and Trademark Office’s (“Director”) rejection of claims 1-35 and 37-88 of patent application No. 11/204,754 (“the '754 Application”) as anticipated and obvious primarily in light of U.S. Patent No. 4,765,613 (“Voris”) and additional prior art references including: 1) U.S. Patent No, 7,160,042 (“Burrell”); 2) U.S. Patent No. 6,234,939 (“Moser”); 3) Pub. No. U.S.2003/0211916 (“Capuano”); and 4) U.S. Patent No. 5,556,362 (“Whipps”). For the reasons set forth below, this court affirms.

BACKGROUND

'A. The '754 Application

The '754 Application is titled “Apparatus for Isometric and Incremental Muscle Contractions” and is directed to resistance exercise machines such as leg extension machines found in many fitness centers. For example, with respect to leg extension machines, when a person is exercising on the machine, the exerciser will move the pad up to a certain point, and upon reaching that point, the pad will stop moving for a fixed period of time. The restriction of movement allows the user to work the muscles isometrically or by holding the weight in a fixed position.

According to the '754 Application, as the user applies external force “to a movable surface[ 1 ] linked to a resistance source,” 2 a sensing mechanism detects the distance the movable surface has traveled “in the direction of the applied force and opposite the direction of the resistance source force.” '754 Application; at 3 ll. 19-23. Upon determining this position along the range of motion of the exercise being performed, the sensing mechanism dispatches an activation signal to a timer. The timer controls the duration of an activation signal sent to a halting effector mechanism which inhibits movement of the movable surface. .The halting effector mechanism subsequently performs one of three actions: 1) “mechanically inhibit further movement of the surface in the direction of the external applied force,” id. at 7 ll. 27-28; 2) in addition to performing action (1), simultaneously “signal[] for the cessation and immediate stasis of movement of the moveable surface for a given amount of time,” id. at 8 ll. 1-2; or 3) “signal for the cessation and immediate stasis of movement of the moveable surface for a given amount of time.” Id. at 8, ll. 2-3.

Independent claim 1 recites:
An apparatus comprising:
a mechanism which can inhibit for an amount of time,
movement of a movable surface on the apparatus in a direction caused by an external force applied to the movable surface, while the apparatus permits uninhibited movement of the movable surface in the opposite direction to the external force, and ...
wherein the movable surface is linked to a resistance source which applies force *1002 which is diametric to the external applied force, and ...
the amount of time is determined by a timer.

'754 Application, J.A. 280, ¶ 1.

B. The Prior Art

1.Voris

Voris is directed to “a progressive resistance exercise device.” Voris, col. 111. 6-7. Voris seeks to minimize injuries during resistance training by providing an exercise device which “gradually applies resistance, in accordance with a predefined resistance gradient, to the movement of a lifting mechanism by an exerciser in at least a first positive resistance direction, while reducing the resistance to substantially zero when the lifting mechanism is moved in a negative resistance direction.” Id. col. 3 11. 6-12. According to Voris, “[a] preferred time threshold limit is about two seconds.” Id. col. 5 11. 18-19. Therefore, when a user fails to move the bar in an upward or positive direction for more than two seconds, “the resistance mechanism [ ] functions to gradually reduce the supplied resistance opposing the movement of the bar [ ] to substantially zero.” Id. col. 5 11. 18-24.

The “resistance mechanism includes a brake, a torque converting transmission, a chain which is coupled to the transmission and attached to the bar, a position encoder and a microprocessor and display unit.” Id. col 6. 11. 32-36 (patent figure numbers omitted). According to Voris, “the position encoder is a suitable mechanism which can determine the relative position of the bar by directly reading the rotational position of the primary shaft of either the brake or the torque converter ... and develops an output signal corresponding to this positional movement.” Id. col. 5 11. 61-67 (patent figure numbers omitted).

The “position encoder” is an optical encoder that “determines the relative position of the bar by directly reading the rotational position of the primary axle of either the brake or the torque converting transmission in incremental units sufficient to allow for the gradual movement of the bar.” Id. col. 7 11. 30-36 (patent figure numbers omitted). The microprocessor “compares the position of the rotating shaft, by using the encoder output signal, to a resistance force gradient curve[ 3 ] to determine the amount of resistance [to be] applied to the rotating brake shaft at any given instance.” Id. col. 8 11. 3-8 (patent figure numbers omitted). If the exerciser fails to continue moving the bar forward for greater than a predetermined amount of time, the microprocessor causes the brake to reduce the resistance substantially to zero.

2. Burrell

Burrell discloses a method of controlling the movement of an object using sensors. The invention discloses the interchangeability of sensors and asserts any two binary sensors, including optical and snap action switch sensors, may be used to perform the same function.

3. Moser

Moser discloses an exercise bicycle that, in a particular mode, allows the exerciser to vary the resistance on one side without affecting the other side in order for the *1003 user to exercise both legs separately. Furthermore, an “optical encoder circuit [is] used to provide the optical data necessary ... to perform measurment of the user’s [p]ower, [distance and [s]peed values.” Moser, col. 8 11. 53-56.

4. Capuano

Capuano allows users of exercise equipments such as free weights, weight stacks, and/or sport simulation devices to monitor and record personal and/or group exercise results. Bar codes are affixed to weights and during exercise, when a user is lifting the weights, the bar code tracks the movement of the weights.

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Bluebook (online)
612 F. App'x 999, Counsel Stack Legal Research, https://law.counselstack.com/opinion/in-re-holness-cafc-2015.