`Trials@uspto.gov
`571-272-7822
` Date Entered: February 3, 2017
`
`
`
`UNITED STATES PATENT AND TRADEMARK OFFICE
`_____________
`
`BEFORE THE PATENT TRIAL AND APPEAL BOARD
`____________
`
`HONEYWELL INTERNATIONAL, INC.,
`Petitioner,
`
`v.
`
`ALLURE ENERGY, INC.,
`Patent Owner.
`____________
`
`Case IPR2016-01475
`Patent 8,174,381 B2
`____________
`
`
`Before BART A. GERSTENBLITH, KEVIN W. CHERRY, and
`SCOTT C. MOORE, Administrative Patent Judges.
`
`CHERRY, Administrative Patent Judge.
`
`
`
`DECISION
`Institution of Inter Partes Review
`37 C.F.R. § 42.108
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`
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`IPR2016-01475
`Patent 8,174,381 B2
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`I. INTRODUCTION
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`
`
`
`
`Petitioner, Honeywell International, Inc., filed a Petition requesting an
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`inter partes review of claims 1–11 of U.S. Patent No. 8,174,381 B2
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`(Ex. 1002, “the ’381 patent”) under 35 U.S.C. §§ 311–319. Paper 2
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`(“Petition” or “Pet.”). Patent Owner, Allure Energy, Inc., did not file a
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`Preliminary Response. Under 35 U.S.C. § 314, an inter partes review may
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`not be instituted “unless . . . the information presented in the petition . . .
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`shows that there is a reasonable likelihood that the petitioner would prevail
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`with respect to at least 1 of the claims challenged in the petition.”
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`
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`For the reasons that follow, we institute an inter partes review of
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`claims 1–11 of the ’381 patent.
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`A. Related Proceedings
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`According to Petitioner and Patent Owner, the ’381 patent is not at
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`issue in any district court cases or proceedings before the Office. Pet. 1;
`
`Paper 5, 1.
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`B. The ’381 Patent
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`The ’381 patent relates to home systems, and more particularly to an
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`energy management system and method. Ex. 1002, 1:42–44, Figs. 2, 7, 10.
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`Figure 2 is reproduced below:
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`Figure 2 illustrates an energy management system. Id. at 6:57–58.
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`System 200 is configured for use at site 202. Id. at 6:57–59. Proximity
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`detection module 234 can detect a distance between mobile device 210 and
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`site 202. Id. at 12:47–49. Proximity detection module 234 can further
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`detect a current thermostat setting, and can determine how much to adjust
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`the thermostat’s temperature based on how close the user is to the site.
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`Id. at 12:54–67. The system can be configured to employ multiple user
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`schedules that may be linked to multiple mobile devices. Id. at 13:35–14:6.
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`For example, a second user schedule can be used or not used based on a
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`distance a second mobile device may be from site 202. Id. at 13:58–62. The
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`system can include a user interface that can be accessed using a mobile
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`device, desktop computer, or other computing device. See, e.g., id. at
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`41:28–35. The user interface can display current inside temperature, current
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`Patent 8,174,381 B2
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`thermostat set-point, and can include a proximity detection selector
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`configured to enable proximity detection of one or more mobile devices
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`associated with a residential site. See, e.g., id. at 41:36–42:24.
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`C. Illustrative Claim
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`Claims 1 and 11, both method claims, are the only independent claims
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`of the ’381 patent. Claims 2–10 depend, either directly or indirectly, from
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`claim 1. Claim 1 is illustrative of the subject matter in this proceeding and is
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`reproduced below.
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`1. A method of managing a site in a mobile environment,
`comprising:
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`detecting an availability of at least one network device at
`a site wherein the at least one network device has an
`operating condition;
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`detecting a distance of a mobile device relative to the site;
`
`providing a proximity control selector within a user
`interface of the mobile device to manage a proximity
`detection module for controlling a proximity control
`of the site wherein the proximity control selector
`having an enabled setting of the proximity detection
`module and a disabled setting of the proximity
`detection module;
`
`enabling the proximity detection module of the site in
`response to the enabled setting of the proximity
`control selector to modify the operating condition of
`the network device based on the detected distance of
`the mobile device relative to the site; and
`
`disabling the proximity detection module in response to
`the disabled setting of the proximity control selector.
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`Id. at 62:51–63:2.
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`D. Evidence Relied Upon
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`
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`Petitioner relies upon the following prior art references.
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`Rosenblatt US 2010/0081375 A1 Apr. 1, 20101
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`Trundle
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`US 8,350,697 B2
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`Petricoin US 7,973,678 B2
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`
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`Jan. 8, 20132
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`July 5, 20113
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`
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`Ex. 1004
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`Ex. 1005
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`Ex. 1007
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` Shamoon US 7,257,397 B2
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` Aug. 14, 2007
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` Ex. 1008
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`
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`Petitioner contends that Rosenblatt, Trundle, Shamoon, and Petricoin
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`are each prior art to the ’381 patent under pre-AIA 35 U.S.C. § 102(e).
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`Pet. 4. Patent Owner does not, at this stage, challenge the prior art status of
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`any reference.
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`Petitioner also relies upon the Declaration of Edwin Selker, dated
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`July 21, 2016. Ex. 1001.
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`E. Asserted Grounds of Unpatentability
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`Petitioner asserts that claims 1–11 of the ’381 patent are unpatentable
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`based on the following grounds:
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`Reference(s)
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`Basis
`
`Challenged Claims
`
`Rosenblatt
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`Rosenblatt and Trundle
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`§ 102(e)
`
`§ 103(a)
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`1, 2, 6, 10, and 11
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`1–11
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`Rosenblatt, Trundle, and Petricoin
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`§ 103(a)
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`3–5, 8, and 9
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`Rosenblatt, Trundle, and Shamoon § 103(a)
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`3 and 4
`
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`1 Rosenblatt was filed September 30, 2008. Ex. 1004, at [22].
`2 Trundle claims priority to a provisional application filed May 18, 2009.
`Ex. 1005, at [60].
`3 Petricoin was filed February 2, 2009. Ex. 1007, at [22].
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`II. ANALYSIS
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`
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`A. Asserted Anticipation by Rosenblatt
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`Petitioner contends that claims 1, 2, 6, 10, and 11 are unpatentable
`
`under 35 U.S.C. § 102(e) as anticipated by Rosenblatt. Pet. 3. To support
`
`its contention, Petitioner provides a detailed showing mapping limitations of
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`claims 1, 2, 6, 10, and 11 to structures described in Rosenblatt. Id. at 10–23.
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`Petitioner also cites the Declaration of Edwin Selker for support. See
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`Ex. 1001 ¶¶ 80–109.
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`Rosenblatt (Ex. 1004)
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`Rosenblatt, titled “System and Method for Simplified Control of
`
`Electronic Devices” (Ex. 1004, at [54]), describes systems, methods, and
`
`devices for simplified control over electronic devices (id. at Abstract).
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`Among other things, Rosenblatt discloses using a handheld device, such as a
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`mobile phone, for controlling various home utility devices, including a
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`networkable thermostat. Id. ¶ 314.
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`Figure 70 of Rosenblatt is reproduced below.
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`Figure 70 illustrates the use of handheld device 40 to control various home
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`
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`utility devices. Id. Figure 70 shows thermostat 986, which includes display
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`screen 988 displaying the ambient temperature, a temperature at which the
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`thermostat may initiate a cooling operation, and a temperature at which the
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`thermostat may initiate a heating operation. Id. Thermostat 986 may
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`represent an embodiment of electronic device 10, which is discussed
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`elsewhere in Rosenblatt. Id.
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`Electronic device 10 may be configured as a controllable device or a
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`controlling device, and may represent a handheld device, a computer, a
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`media player, a remote controller, or a game controller. Id. ¶ 92. Electronic
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`device 10 may include location sensing circuitry 22. Id. ¶ 99. Location
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`sensing circuitry 22 may represent global positioning system circuitry, but
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`also may represent one or more algorithms and databases stored in
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`non-volatile memory 14 and executed on CPU 12 of electronic device 10.
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`Id. Electronic device 10 may include one or more network interfaces to
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`communicate over a variety of types of networks, including Wi-Fi, ZigBee,
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`and Bluetooth. Id. ¶¶ 102–105, 134–138.
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`Figures 71B and 71C of Rosenblatt are reproduced below (the
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`placement of the two figures is modified slightly to allow for easier
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`presentation).
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`
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`
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`Figures 71B and 71C represent screens that may be displayed on handheld
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`device 40 following control initiation operation 984 (i.e., selecting an icon
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`on the display screen of handheld device to activate a temperature control
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`application). Id. ¶¶ 314–316.
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`Specifically, Figure 71B, above and to the left, shows screen 996 that
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`may be displayed when button 994 (not shown), labeled “Control
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`Thermostat,” is selected. Id. ¶ 317. Screen 996 displays a list of control
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`schemes for controlling thermostat 986. Id. Each of list items 998 includes
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`a corresponding check box 1000, which enables a user to determine the basis
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`for controlling thermostat 986. Id. One of the control options illustrated is
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`based on the user’s location. Id. Figure 71C, above and to the right, shows
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`screen 1002, which is displayed when the first of list items 998, labeled “Use
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`Location-Based Settings,” is selected. Id. ¶ 318. Screen 1002 includes list
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`items 1004, which represent settings for controlling thermostat 986 based on
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`the location of handheld device 40, as determined by location-sensing
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`circuitry 22. Id. Distance setting 1006 allows a user to set a number of
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`miles away from home that a user may be located for a corresponding
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`temperature setting 1008. Id. Otherwise, thermostat 986 selects temperature
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`settings 1010. Id.
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`Rosenblatt also discloses that there are a number of potential
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`communication channels over which the handheld device can communicate
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`with the network device, including, e.g., wide area network, local area
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`network, personal area network, router, and web service. Id. ¶¶ 134–44.
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`Each communication channel may be used for any data transfer that may
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`take place between the two devices, such as a transfer of control information
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`indicating how the controllable device may be controlled, a transfer of a
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`control software plug-in for controlling the controllable device, or various
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`intercommunications that may take place in a control stream for controlling
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`the controllable device using the controlling device. Id. ¶ 134. Rosenblatt
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`describes the handheld device and network devices communicating through
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`the Internet, and using Internet Protocol (“IP”) addresses of each other
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`obtained through a “web service.” Id. ¶¶ 137, 140, 141. The web service
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`may represent a dynamic domain name system (“DNS”) service. Id. ¶ 141.
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` Analysis
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`With respect to independent claim 1, the present record supports
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`Petitioner’s contention that Rosenblatt discloses: (1) “[a] method of
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`managing a site in a mobile environment,” Pet. 10–11 (citing Ex. 1004
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`¶ 315, Figs. 7, 70, 71A–71D; Ex. 1001 ¶¶ 81–83); (2) “detecting the
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`availability of at least one network device at a site wherein the at least one
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`network device has an operating condition,” id. at 11–12 (citing Ex. 1004
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`
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`¶¶ 134–144, Fig. 7; Ex. 1001 ¶¶ 84–87); (3) “detecting a distance of a
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`mobile device relative to the site,” id. at 12–13 (citing Ex. 1004
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`¶¶ 92, 99, 318, Fig. 71C; Ex. 1001 ¶¶ 88, 89); (4) “providing a proximity
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`control selector within a user interface of the mobile device to manage a
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`proximity detection module for controlling a proximity control of the site
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`wherein the proximity control selector having an enabled setting of the
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`proximity detection module and a disabled setting of the proximity detection
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`module,” id. at 14–17 (citing Ex. 1004 ¶¶ 99, 317, 318, Figs. 71B–C;
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`Ex. 1001 ¶¶ 90–93); and (5) “enabling the proximity detection module of the
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`site in response to the enabled setting of the proximity control selector to
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`modify the operating condition of the network device based on the detected
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`distance of the mobile device relative to the site” and “disabling the
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`proximity detection module in response to the disabled setting of the
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`proximity control selector,” id. at 17 (citing Ex. 1004 ¶¶ 92, 99, 302, 317,
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`318, Fig. 71B–C; Ex. 1001 ¶¶ 94–98). Petitioner also accounts for the
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`limitations of independent claim 11 and dependent claims 2, 6, and 10. Id.
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`at 19–23.
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`Accordingly, we are persuaded, on the present record, that Petitioner
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`has established a reasonable likelihood that it would prevail in showing
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`challenged claims 1, 2, 6, 10, and 11 are anticipated by Rosenblatt.
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`See Pet. 10–23.
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`B. Asserted Obviousness over Rosenblatt and Trundle
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`Petitioner contends that claims 1–11 are unpatentable under 35 U.S.C.
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`§ 103(a) as obvious over Rosenblatt and Trundle. Pet. 3–4. To support its
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`contention, Petitioner provides a detailed showing mapping the limitations
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`of claims 1–11 to structures and processes described by Rosenblatt and
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`Trundle. Id. at 28–60. Petitioner also cites the Declaration of Edwin Selker
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`for support. See Ex. 1001 ¶¶ 110–212.
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`Trundle (Ex. 1005)
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`Trundle, titled “Remote Device Control and Energy Monitoring by
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`Analyzing Data and Applying Rules” (Ex. 1005, at [54]), describes
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`techniques for providing a remote device (e.g., thermostat, lighting,
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`appliance, etc.) control or energy monitoring (id. at Abstract). Trundle
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`further discloses that
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`the method may include determining a distance of a user from a
`property based on the monitored geographic location data,
`comparing the distance of the user from the property to a
`threshold distance from the property, and determining whether
`the user is within the threshold distance from the property based
`on the comparison.
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`Id. at 3:5–10. An example of Trundle’s system is illustrated in Figure 2,
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`reproduced below.
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`11
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`Figure 2 illustrates an example of electronic system 200 configured to
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`provide remote thermostat control/energy monitoring using mobile devices.
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`Id. at 8:20–23. This embodiment includes one or more mobile devices that
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`each include a “native monitoring application.” Id. at 12:51–52. The
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`“native monitoring application” refers to “a software/firmware program
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`running on the corresponding mobile device that enables the user interface
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`and [control] features” of Trundle. Id. at 12:52–56. “[N]ative monitoring
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`application 242, 252 tracks the mobile device’s physical location using GPS
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`or other location protocols built into [the] device and uses location tracking
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`to control thermostat[s], lighting, and other energy consuming appliances.”
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`Id. at 13:20–24.
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`Trundle describes “performing an operation related to controlling one
`
`or more energy consuming devices based on inferred future occupancy.” Id.
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`at 26:12–14. The monitoring system “controls the light device 1212, the
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`oven 1214, and the thermostat 1216 in accordance [with] a geographical
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`location of a user 1220 driving toward the property 1210 in an automobile.”
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`Id. a 26:12–20.
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`Analysis
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`Claim 1
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`With respect to independent claim 1, the present record supports
`
`Petitioner’s contention that the combination of Rosenblatt and Trundle
`
`discloses: (1) “[a] method of managing a site in a mobile environment,”
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`Pet. 28 (citing Ex. 1004 ¶ 315, Figs. 7, 70, 71A–71D; Ex. 1005, Figs. 6, 11;
`
`Ex. 1006, 1; Ex. 1001 ¶¶ 81–83, 119); (2) “detecting an availability of at
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`least one network device at a site wherein the at least one network device
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`has an operating condition,” id. at (citing Ex. 1004 ¶¶ 134–44, Fig. 7;
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`Ex. 1005, 9:57–10:3, 6:40–56; Ex. 1006, 1, 3; Ex. 1001 ¶¶ 84–87, 121, 122);
`
`(3) “detecting a distance of a mobile device relative to the site,” id. at 29–30
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`(citing Ex. 1004 ¶¶ 92, 99, 318, Fig. 71C; Ex. 1005, 6:57–7:7, 24:54–27:18;
`
`Ex. 1006, 8; Ex. 1001 ¶¶ 88, 89, 124, 125); (4) “providing a proximity
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`control selector within a user interface of the mobile device to manage a
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`proximity detection module for controlling a proximity control of the site
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`wherein the proximity control selector having an enabled setting of the
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`proximity detection module and a disabled setting of the proximity detection
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`module,” id. at 30–32 (citing Ex. 1004 ¶¶ 99, 317, 318, Figs. 71B–C;
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`Ex. 1005, 6:53–56, 13:20–35, 15:52–56, 25:5–12, 27:5–18, Figs. 11, 12;
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`Ex. 1006, 8, 10, Figs. 1, 4; Ex. 1001 ¶¶ 90–93, 115, 128–30); and (5)
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`“enabling the proximity detection module of the site in response to the
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`enabled setting of the proximity control selector to modify the operating
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`condition of the network device based on the detected distance of the mobile
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`device relative to the site” and “disabling the proximity detection module in
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`response to the disabled setting of the proximity control selector,” id. at 32–
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`33 (citing Ex. 1004 ¶¶ 92, 99, 302, 317, 318, Fig. 71B–C; Ex. 1005, 13:20–
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`35, 26:25–44, Figs. 11, 12; Ex. 1006, 2–3, 8; Ex. 1001 ¶¶ 94–98, 131–33).
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`Petitioner also has made an adequate showing with respect to the
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`other challenged claims. For example, Petitioner has made the following
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`showings with respect to claims 3–5, 8, and 9.
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`Claim 3
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`With respect to claim 3, which depends from claim 1, Petitioner has
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`shown sufficiently that the combination of Rosenblatt and Trundle accounts
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`for “providing a network location configured to store distance information of
`
`a plurality of mobile devices including a first mobile device and a second
`
`mobile device.” Pet. 35–36 (citing Ex. 1004 ¶¶ 92, 99, 314–319, 334, 335
`
`(use of mobile device distance information to alter a network device such as
`
`a thermostat), Fig. 7 (showing communication channels between mobile
`
`device and network device, including server (web service 104)); Ex. 1005,
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`10:39–54 (using server to monitor multiple mobile devices), 15:52–56
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`(functions of the control system may be performed by any component of the
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`system, including the server), 24:54–25:4 (location-based control services
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`performed at server); Ex. 1006, 4, Figs. 1, 4; Ex. 1001 ¶¶ 138–143;
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`Ex. 1003, 459–461 (prosecution history discussing disclosure of Trundle)).
`
`Petitioner further has shown that Trundle discloses: (1) “detecting a distance
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`information of the [first/second] mobile device relative to the site,” id. at 37
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`(citing Ex. 1005, 3:7–12, 15:30–40, 24:54–25:4, 26:12–27:16, Fig. 11;
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`Ex. 1006, 8, 11–12; Ex. 1001 ¶¶ 144–146; Ex. 1003, 460–61 (prosecution
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`history where applicant acknowledges that Trundle discloses these
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`limitations)); (2) “communicating the distance information of the first
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`mobile device and the distance information of the second mobile device to
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`the network location to be compared,” id. at 38–39 (citing Ex. 1005, 8:25–
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`29, 10:54–61, 28:17–38, 29:42–30:30; Ex. 1006, 11–12, Figs. 1, 4;
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`Ex. 1001 ¶¶ 148–152); and (3) “initiating the change to the operating
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`condition of the network device if a change in the first distance of the first
`
`mobile device is different than a change in the second distance of the second
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`mobile device,” id. at 39–40 (citing Ex. 1005, 25:5–27:4, 28:17–38, 29:42–
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`30:30, Fig. 12; Ex. 1006, 8–9, 11–12; Ex. 1001 ¶¶ 152–158).
`
`Claim 4
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`As for claim 4, which depends from claim 3, Petitioner has shown
`
`sufficiently that the combination of Rosenblatt and Trundle teaches or
`
`suggests the additional limitations of “detecting a setting change of the
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`proximity control selector of the first mobile device” and “communicating
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`the setting change to the network location.” Pet. 42–43 (citing Ex. 1004
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`¶ 317, Fig. 71B (check box in Rosenblatt user interface); Ex. 1005, 8:25–29
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`(monitoring application server in communication with mobile devices),
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`10:51–52 (“The monitoring application server 260 also may receive
`
`information regarding events from the one or more mobile devices 240,
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`250.”), 22:4–31; Ex. 1006, Figs. 1, 4; Ex. 1001 ¶¶ 159, 160).
`
`Claim 5
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`With respect to claim 5, which depends from claim 1, Petitioner has
`
`shown adequately that Trundle teaches “initiating a reporting interval from
`
`the mobile device to a network location,” through its teaching of periodic
`
`reporting based on the distance of the mobile device from the site. Pet. 44
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`(citing Ex. 1005, 13:20–29, 25:5–27:4, Fig. 12; Ex. 1006, 8–9); Ex. 1001
`
`¶¶ 161, 162. Petitioner also has shown adequately that Trundle teaches
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`“initiating communication of a control of the operating mode using the
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`reporting interval and the distance” through its teachings that a distance
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`report can be sent at each geofence, the reporting interval is the distance
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`between two geofences, and the operating conditions of a network device are
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`altered. Id. at 45 (citing Ex. 1005, 25:44–48, Fig. 4; Ex. 1006, 8; Ex. 1001
`
`¶ 165).
`
`Claim 8
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`With respect to claim 8, which depends from claim 1, Petitioner has
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`shown that the combination of Rosenblatt and Trundle discloses:
`
`(1) “detecting the availability of a first network location and a second
`
`network location, wherein the second network location is different than the
`
`first network location,” Pet. 50–51 (citing Ex. 1004 ¶¶ 140, 141 (describing
`
`the ability of the electronic devices to locate each other), Fig. 7; Ex. 1005,
`
`Fig. 2 (showing monitoring control unit system 210 and monitoring
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`application server 260); Ex. 1006, Fig. 1; Ex. 1001 ¶¶ 178–180); and
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`(2) “initiating access of the first network location to detect the operating
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`condition of the network device,” id. at 51–52 (citing Ex. 1005, 9:57–11:33
`
`(describing monitoring system control unit 210 communications with
`
`modules 220, 222, and 230 to perform thermostat control and energy
`
`monitoring); Ex. 1006, 3; Ex. 1001 ¶¶ 181, 182). Petitioner also has shown
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`sufficiently that Trundle discloses: (1) “initiating access to a second network
`
`location to store the distance of the mobile device relative to the site,” id. at
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`52–53 (Ex. 1005, 10:39–54 (receiving information from the mobile devices),
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`15:52–56, 24:54–25:4 (describing determination of location including
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`“geographic location of one or more users relative to a geographic location
`
`of the a monitored property (e.g., within a particular number of miles”),
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`Fig. 11 (location information used to control network devices); Ex. 1006, 4,
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`8, Figs. 1, 4; Ex. 1001 ¶¶ 183–185); and (2) “initiating a communication of a
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`control action to a first network location to alter the operating condition of
`
`the network device,” id. at 53–54 (citing Ex. 1005, 9:66–10:3, 11:18–28,
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`24:54–25:4, Fig. 11; Ex. 1006, 8; Ex. 1001 ¶¶ 186, 187).
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`Claim 9
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`As for claim 9, which depends from claim 8, Petitioner has shown that
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`Trundle teaches or suggests: (1) “initiating access of the second network
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`location to detect a distance of the first mobile device relative to a distance
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`of a second mobile device associated with the site,” Pet. 54–55 (citing
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`Ex. 1005, 3:7–12, 15:30–40, 24:54–25:4, 26:12–27:16, 28:17–38, 29:42–
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`30:30, Fig. 11; Ex. 1006, 8, 11–12; Ex. 1001 ¶¶ 189–193); (2) “initiating
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`access to the first network location to alter the operating condition of the
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`network device if the first mobile device is closer to the site than the second
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`mobile device,” id. at 55–56 (citing Ex. 1005, 25:5–27:4, 28:17–38, 29:42–
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`30:30, Fig. 12; Ex. 1006, 8, 11–12; Ex. 1001 ¶¶ 194–197); and (3) “initiating
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`an update of the operating condition at the first network location,” id. at 58
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`(citing Ex. 1005, 8:60–9:7; 9:66–10:3, 13:3–19; Ex. 1006, 2–3, Fig. 1;
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`Ex. 1001 ¶ 202). Petitioner further contends that the combination of
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`Rosenblatt and Trundle teaches or suggests “storing an updated operating
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`condition within the first mobile device.” Id. at 56–57 (citing Ex. 1004,
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`Fig. 75C; Ex. 1005, 9:57–11:33, 21:17–28, 22:4–17; Ex. 1006, 4–5;
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`Ex. 1001 ¶¶ 199–201).
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`Claims 2, 6, 7, 10, and 11
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`We also determine that Petitioner has made a sufficient showing that
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`the combination of Rosenblatt and Trundle accounts for the limitations of
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`claims 2, 6, 7, and 10, which depend from claim 1, and independent
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`
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`claim 11. See Pet. 33–35, 45–50, 58–60.
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`Reasons to Combine
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`Petitioner also presents an adequate reason why a person of ordinary
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`skill in the art would have been prompted to combine Rosenblatt and
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`Trundle. Pet. 25–28. In particular, Petitioner and Dr. Selker explain that
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`both references are in the same field of endeavor (i.e., remotely controlling
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`network devices using mobile devices), and that a person of ordinary skill
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`“when looking at the disclosure of Rosenblatt would be motivated to look to
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`other systems that provide additional detail regarding the operation and
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`function of a network device at a site, including proximity based control for
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`the purposes of controlling multiple devices at the site, and further for the
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`purposes of using multiple mobile devices to control a particular site.”
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`Pet. 25–26 (citing Ex. 1001 ¶¶ 111–117). In particular, Petitioner explains
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`that a person of ordinary skill would have been motivated to combine
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`Rosenblatt’s user interface with the other “user interface functionality of
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`Trundle for additional control of network devices at the site along with the
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`functionality of Trundle that allows for proximity detection operations to
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`occur at any location within the network.” Pet. 26 (citing Ex. 1001 ¶¶ 114–
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`117). Dr. Selker testifies that users desire more coordinated control, such as
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`taught in Trundle. Id. at 26–27 (citing Ex. 1001 ¶¶ 115, 116).
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`As for incorporating Trundle’s use of a server, Petitioner notes that
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`Rosenblatt already suggests that there are multiple pathways to connect
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`mobile devices and network devices, and argues that a person of ordinary
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`skill would have understood that servers are one of those pathways and that
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`using servers would have been beneficial because they allow for device
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`interoperability and support across devices and platforms. Id. at 27 (citing
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`
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`Ex. 1001 ¶ 114). Finally, Petitioner notes that the combination of Rosenblatt
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`and Trundle represents nothing more than the combination of well-known
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`elements, in a predictable manner, to achieve a predictable result. Id. at 28
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`(citing KSR Int’l Co. v. Teleflex Inc., 550 U.S. 398, 417 (2007)).
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`Summary
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`We have reviewed the proposed ground of obviousness over
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`Rosenblatt and Trundle against claims 1–11, and we are persuaded, on the
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`present record, that Petitioner has established a reasonable likelihood of
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`prevailing in its challenge to claims 1–11 on this ground.
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`C. Asserted Obviousness over Rosenblatt, Trundle, and Petricoin
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`Petitioner contends that claims 3–5, 8, and 9 are unpatentable under
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`35 U.S.C. § 103(a) as obvious over Rosenblatt, Trundle, and Petricoin.
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`Pet. 4. To support its contention, Petitioner provides a detailed showing
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`mapping the limitations of claims 3–5, 8, and 9 to structures described by
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`Rosenblatt, Trundle, and Petricoin. Id. at 61–65. Petitioner also cites the
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`Declaration of Edwin Selker for support. See Ex. 1001 ¶¶ 213–230.
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`Petricoin (Ex. 1007)
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`Petricoin, titled “Control of Building Systems Based on the Location
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`and Movement of a Vehicle Tracking Device” (Ex. 1007, at [54]), describes
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`an automated control system where operations are automatically executed
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`based on the location and/or movement of one or more tracking devices
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`(id. at 1:29–31). In particular, Petricoin relies on a tracking device that
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`communicates with the system, located at a site, to determine if an event,
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`such as setting a thermostat, should be executed. Id. at Abstract, 2:50–53.
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`Petricoin discloses a number of possible triggers for an event, such as
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`passing through or arriving at a location, moving above or below a preset
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`speed, moving in a certain direction, the time of day, and location of the
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`tracking device. Id. at 4:22–31.
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`Petricoin further discloses a user interface that includes an interactive
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`map with one or more geographical boundary tools for creating one or more
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`event triggers on the map. Id. Petricoin illustrates this interface in Figure 2,
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`which is reproduced below.
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`
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`Figure 2 illustrates operator interface 200 for programming event triggers.
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`Id. at 5:1–2. In the embodiment shown, operator interface 200 includes
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`window 205 providing an interactive map (e.g., Google Maps), trigger tool
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`bar 210 including a plurality of trigger creation tools (i.e., geographical
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`boundary tools), tracking device selection pull down box 215, speed entry
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`box 220, time entry box 225, and a plurality of event pull down boxes 230.
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`Id. at 5:8–14. The trigger creation tools include a directionally-dependent
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`tools such as rectangle entering tool 235, rectangle leaving tool 240, circle
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`
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`entering tool 245, circle leaving tool 250, and barrier-with-direction tool
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`255; and directionally-independent tools such as a barrier tool 260. Id. at
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`5:14–19.
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`
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`Petricoin also describes that “data on the event triggers includes
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`actions of the tracking device 105 (e.g., location, direction, speed, and/or
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`time), the tracking devices 105 associated with the event trigger (e.g., a first
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`car may open a first garage door while a second car may open a second
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`garage door), and the events to execute.” Id. at 6:47–51. Petricoin also
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`discloses that a third event can be associated with the condition where both
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`triggers have occurred. Id. at 6:52–7:3. Petricoin further describes “polling
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`schemes,” which “include when and how often to poll a tracking device
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`105.” Id. at 6:38–39. Petricoin discloses that, “[f]or example, a tracking
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`device 105 that is not moving may be polled once every ten minutes while a
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`tracking device 105 that is moving at 60 mph may be polled every thirty
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`seconds.” Id. at 6:39–42.
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`
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`Analysis
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`As for claim 3, Petitioner relies on the analysis discussed above with
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`respect to the ground based on the combination of Rosenblatt and Trundle,
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`see supra, at 13–14, but additionally asserts that Petricoin further teaches the
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`limitation “initiating the change to the operating condition of the network
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`device if a change in the first distance of the first mobile device is different
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`than a change in the second distance of the second mobile device,” as recited
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`in claim 3. See Pet. 62. In particular, Petitioner relies on Petricoin’s
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`teachings that one subset of actions can take place when one device is
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`leaving the home and another subset of actions can take place when both
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`devices leave the home. Id. (citing Ex. 1007, 6:47–7:3; Ex. 1001 ¶¶ 220,
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`
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`221). We determine that Petitioner has shown adequately that the
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`combination of Rosenblatt, Trundle, and Petricoin teaches or suggests the
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`limitations of claim 3.
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`
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`With respect to claim 4, Petitioner relies on the analysis of Rosenblatt
`
`and Trundle discussed above to teach the remaining limitations of claim 4.
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`See supra, at 15. We determine that Petitioner has shown adequately that
`
`the combination of Rosenblatt, Trundle, and Petricoin teaches or suggests
`
`the limitations of claim 4.
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`
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`For claim 5, in addition to the analysis discussed above with respect to
`
`the combination of Rosenblatt and Trundle, Petitioner further relies on
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`Petricoin’s disclosure of “polling schemes” that poll the mobile device in
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`order to determine the location of the mobile device relative to the site to
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`account for the limitation of “initiating a reporting interval from the mobile
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`device to a network location in response to the distance.” Pet. 63–64 (citing
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`Ex. 1007, 3:39–48, 6:38–46; Ex. 1001 ¶ 223–25). Petitioner additionally
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`relies on Petricoin as teaching “initiating communication of a control of the
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`operating mode using the reporting interval and the distance.” Id. at 64.
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`Specifically, Petitioner identifies Petricoin’s teaching that based on the
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`polling time, the controller polling the tracking device and receiving data
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`back from the tracking device. Id. (citing Ex. 100