In Re: Meza

CourtCourt of Appeals for the Federal Circuit
DecidedAugust 14, 2019
Docket18-2219
StatusUnpublished

This text of In Re: Meza (In Re: Meza) 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: Meza, (Fed. Cir. 2019).

Opinion

NOTE: This disposition is nonprecedential.

United States Court of Appeals for the Federal Circuit ______________________

IN RE: HUMBERTO VALENZUELA MEZA, JEFFREY BRIAN SCHOPPERLE, JESUS ESTRADA, Appellants ______________________

2018-2219 ______________________

Appeal from the United States Patent and Trademark Office, Patent Trial and Appeal Board in No. 12/755,766. ______________________

Decided: August 14, 2019 ______________________

WILLIAM J. BARBER, Ware, Fressola, Maguire & Barber LLP, Monroe, CT, for appellants.

SARAH E. CRAVEN, Office of the Solicitor, United States Patent and Trademark Office, Alexandria, VA, for appellee Andrei Iancu. Also represented by THOMAS W. KRAUSE, JOSEPH MATAL, MOLLY R. SILFEN. ______________________

Before REYNA, WALLACH, and TARANTO, Circuit Judges. REYNA, Circuit Judge. Humberto Valenzuela Meza, Jeffrey Brian Schopperle, and Jesus Estrada appeal from a decision by the Patent 2 IN RE: MEZA

Trial and Appeal Board affirming an examiner’s rejection of their patent application claims as obvious. Because sub- stantial evidence supports the Board’s determination of ob- viousness, we affirm. BACKGROUND I. The ’766 Application Inventors Meza, Schopperle, and Estrada (together, “Meza”) filed U.S. Patent Application No. 12/755,766 (“the ’766 application”) with the United States Patent and Trademark Office (“USPTO”). The ’766 application is di- rected to an improved method and pump apparatus for re- moving water from pool covers and sumps while avoiding ice formation in the impeller cavity of the pump. The ’766 application discloses that the ability for pumps to operate at temperatures near or below the freez- ing point of water is beneficial in the pool and sump pump industries. J.A. 22. To provide for such operation, the ’766 application teaches cycling a pump impeller to avoid ice buildup in the impeller cavity during low ambient temper- atures. J.A. 23. The preferred embodiment of the inven- tion includes a pump motor, an impeller, a sensor controller, and two types of sensors: a temperature sensor and a set of high and low water level sensors. J.A. 26–27. The temperature sensor signals the controller to rotate the pump impeller to prevent water from freezing in the impel- ler cavity when the ambient temperature nears freezing. J.A. 26–27. The water level sensors signal the controller to turn on the pump when the water reaches a high limit and turn off the pump when the water reaches a low limit. J.A. 27. Figure 1 of the ’766 application depicts the claimed pump apparatus: IN RE: MEZA 3

J.A. 61. The claims at issue require the temperature sensor to operate independently from the water level sensors. J.A. 15–17. Independent claim 14 is representative and recites: 14. A method for removing water from a pool cover or sump and avoiding ice formation in an impeller cavity of a pump, comprising: receiving in a signal processor of a control- ler in a pump arranged on a pool cover or in a sump first signaling from a tempera- ture sensing device containing information about the ambient temperature in relation to the pump during a temperature sensing, and second signaling from a field effect level sensing device during a level sensing containing information about a high water level sensed in order to turn the pump on when the water is at a higher level, and also about a low water level sensed in order to turn the pump off when the water is at a lower level; and 4 IN RE: MEZA

providing from the signal processor of the controller to a motor in the pump corre- sponding signaling containing information for initiating cycling of an impeller of the pump at low operating temperatures to avoid ice formation in an impeller cavity, but not for level sensing, for turning the pump on when the water is at the higher level to rotate the impeller for removing water from the pool cover or in the sump, and for turning the pump off when the wa- ter is at the lower level; the temperature sensing being independent of the level sensing. J.A. 15 (emphasis added). II. Prior Art References A. Mayleben U.S. Patent Application Publication No. 2008/0229819 (“Mayleben”) relates to a method and apparatus for control- ling a pump using a capacitive sensor that detects the level of a liquid. J.A. 467, 485. Mayleben discloses a preferred embodiment in which a sump pump system includes a pump, a sensor, and a liquid discharge pipe. J.A. 486. Ac- cording to Mayleben, the sensor “monitors the level of a liq- uid” and “serves as a switch for activating and deactivating the pump . . . based on that level.” Id. When the level reaches a predetermined high limit, the sensor activates the pump, which begins to remove the liquid via the dis- charge pipe. Id. According to Mayleben, its pump system may include additional features, including a temperature sensor that “monitor[s] the temperature of the [pump]” and signals the controller to turn off the pump when the device becomes too hot. J.A. 491. IN RE: MEZA 5

B. Leone U.S. Patent Application Publication No. 2005/0095150 (“Leone”) relates to centrifugal multistage pumps. J.A. 462. Leone discloses a microcontroller that includes software to control the pump motor. J.A. 463. Leone teaches that the software can “include limitations of the pump’s functioning in relation to temperature.” J.A. 464. Leone also teaches that the microcontroller is combined with a water temperature sensor and can “start the pump when the temperature is about 0° C[,] causing an inten- tional increase in water temperature . . . [and] assuring therefore an efficient protection against the fluid in the pump freezing and damaging the pump.” J.A. 465. III. Proceedings Before the USPTO On October 23, 2014, an examiner issued a Final Office Action rejecting claims 14 and 16–21 of the ’766 applica- tion. J.A. 272–79. Relevant to this appeal, the examiner rejected independent claims 14 and 21 as obvious over Mayleben in view of Leone. 1 J.A. 273. The examiner found that Mayleben discloses every limitation of claims 14 and 21 except for “cycling the impeller at a low operating tem- perature to avoid ice formation in the impeller cavity.” J.A. 273–74. The examiner relied on Leone to fill this gap, finding that Leone “teaches a water pump having impel- lers . . . and a temperature sensor which monitors the

1 Congress amended § 103 when it passed the Leahy- Smith America Invents Act (“AIA”) in 2011. Pub. L. No. 112–29, § 3(c), 125 Stat. 284, 287 (2011). Because the ’766 application does not contain a claim having an effective fil- ing date on or after March 16, 2013 (the effective date of the AIA amendments), or a reference under 35 U.S.C. §§ 120, 121, or 365(c) to any patent or application that ever contained such a claim, pre-AIA § 103 applies. Id. § 3(n)(1), 125 Stat. at 293. 6 IN RE: MEZA

ambient temperature and cycles the pump when the tem- perature reaches 0°C” to avoid ice formation in the impeller cavity Id. The examiner found that Mayleben teaches that “additional or supplemental features and processes are within the scope of [Mayleben’s] invention.” J.A. 274. On this basis, the examiner determined that it would have been obvious to a person of ordinary skill in the art to mod- ify Mayleben’s controller to include the additional feature of Leone’s temperature sensor. Id. The examiner deter- mined that this combination met the limitation of “[t]he temperature sensing being independent of the level sens- ing” because “separate devices would be used to measure the water level and ambient temperature.” Id. The examiner rejected Meza’s argument that Mayleben’s fluid-level sensor is dependent on its tempera- ture sensor. Meza argued that this dependency is demon- strated by Mayleben’s teaching that the pump is deactivated when the device gets too hot. J.A. 276.

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