throbber
Trials@uspto.gov
`571-272-7822
`
`
`
`
`
`
`
`
`
`
`
`
` Paper 7
`
`
`
` Entered: March 11, 2019
`
`UNITED STATES PATENT AND TRADEMARK OFFICE
`____________
`
`BEFORE THE PATENT TRIAL AND APPEAL BOARD
`____________
`
`SAMSUNG ELECTRONICS AMERICA, INC.,
`Petitioner,
`v.
`UNILOC 2017 LLC,
`Patent Owner.
`____________
`
`Case IPR2018-01757
`Patent 8,712,723 B1
`____________
`
`
`
`Before SALLY C. MEDLEY, MIRIAM L. QUINN, and
`SEAN P. O’HANLON, Administrative Patent Judges.
`
`QUINN, Administrative Patent Judge.
`
`
`
`
`DECISION
`Denying Institution of Inter Partes Review
`37 C.F.R. §§ 42.108, 42.122; 35 U.S.C. §§ 315(d), 325(d)
`
`
`
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`I.
`INTRODUCTION
`Samsung Electronics America, Inc. (“Petitioner”) filed a Petition
`requesting inter partes review of claims 1–7 and 10–19 of U.S. Patent No.
`8,712,723 B1 (Ex. 1001, “the ’723 patent”). Paper 1 (“Pet.”). Uniloc 2017
`LLC (“Patent Owner”) filed a Preliminary Response. Paper 6 (“Prelim.
`Resp.”).
`We have jurisdiction under 35 U.S.C. § 314. Upon considering the
`record, for reasons discussed below, we do not institute inter partes review.
`
`A. Related Matters
`The parties indicate that the ’723 patent is involved in Uniloc USA,
`Inc. v. Samsung Electronics America, Inc., Case No. 2-17-cv-00650 (E.D.
`Tex.) and other proceedings. Pet. 1; Paper 3.
`The ’723 patent is the subject matter of an ongoing inter partes review
`filed by Apple Inc., IPR2018-00389 (instituted June 27, 2018), which
`concerns claims 13, 57, and 1018. See IPR2018-00389 (Paper 7).1
`Apple Inc. filed another petition for inter partes review concerning claims 4
`and 19 of the ’723 patent, but we denied that petition. See IPR2018-01027
`(Paper 8).
`
`B. The ’723 Patent
`The ’723 patent relates to monitoring and counting periodic human
`motions, such as steps. Ex. 1001, 1:1214. The ’723 patent states that
`
`
`1 LG Electronics, Inc., HTC Corporation, and HTC America, Inc., have been
`joined to IPR2018-00389 via grant of the motion for joinder in IPR2018-
`01458. Paper 13, IPR2018-00389.
`
`2
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`inertial sensors (e.g., accelerometers) are used in step counting devices
`allowing an individual to track the number of daily steps. Id. at 1:1829.
`One problem recognized in the ’723 patent is the limitations of these step
`counting devices concerning the orientation of the device during use. Id. at
`1:2934. Further, motion noise often confuses these devices resulting in
`missed steps or counting false steps, with a particular problem identified of
`inaccurate step measurements for slow walkers. Id. at 1:3543.
`The ’723 patent provides for accurate counting of steps without regard
`for the orientation of the step counting device, even if that orientation
`changes during operation. Id. at 2:3338. In particular, the ’723 patent
`describes assigning a dominant axis after determining an orientation of the
`inertial sensor, where the orientation of the inertial sensor is continuously
`determined. Id. at 2:1519. In one embodiment, the ’723 patent method
`determines rolling averages of the accelerations of each axis monitored by
`the inertial sensor in the device. Id. at 6:1521. The largest absolute rolling
`average indicates the axis most influenced by gravity, which may change
`over time as the device’s orientation changes because of rotation. Id. at
`6:2025.
`With regard to the embodiment shown in Figure 8, reproduced below,
`the ’723 patent describes the method for measuring the acceleration along
`the assigned dominant axis to detect, and count, steps. See id. at 12:3035.
`
`3
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`
`Figure 8 illustrates a diagram for a method of recognizing a step. Id.
`at 12:30–32. After measurements of acceleration data (step 805) and
`filtering those measurements (step 810), the method evaluates the orientation
`of the device and assigns a dominant axis (step 812). Id. at 12:36–49. A
`processing logic determines whether a measurement is within a cadence
`
`4
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`window (step 815). Id. at 12:50–51. The cadence window is the allowable
`time window for steps to occur. Id. at 3:6566. In one embodiment, the
`cadence window is determined based on the actual stepping period or actual
`motion cycle, but default limits or other determiners may be used to set the
`cadence window. Id. at 4:727. After each step is counted, the minimum
`and/or maximum of the cadence window, or window length, may be
`adjusted based on actual cadence changes. Id. Therefore, the cadence
`window is dynamic such that it is continuously updated. Id. at 4:3133.
`If the measurement of acceleration along the dominant axis is within
`the cadence window, is greater than previous measurements, and is within
`the range of acceleration thresholds (steps 820, 825, 830), the motion is
`determined to be a step and is counted (step 835). Id. at 12:53–62, 13:37–
`14:6. Otherwise, the step is not counted (step 840) and the method continues
`to evaluate subsequent measurements. Id. at 12:51–53.
`
`C. Illustrative Claim
`Of the challenged claims, claims 1, 5, 10, and 14 are independent.
`Each of claims 2–4, 6, 7, 1113, and 1519 depends directly or indirectly
`from one of the challenged independent claims.
`Claim 1 is illustrative:
`1. A method for monitoring human activity using an inertial
`sensor, comprising:
`assigning a dominant axis with respect to gravity based on an
`orientation of the inertial sensor;
`detecting a change in the orientation of the inertial sensor and
`updating the dominant axis based on the change; and
`
`5
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`counting periodic human motions by monitoring accelerations
`relative to the dominant axis by counting the periodic human
`motions when accelerations showing a motion cycle that meets
`motion criteria is detected within a cadence window; and
`updating the cadence window as actual cadence changes.
`Ex. 1001, 15:13–24.
`
`D. Asserted Prior Art and Grounds of Unpatentability
`The Petition identifies the following references in connection with
`Petitioner’s challenge of unpatentability (Pet. 4):
`
`a) Tamura: U.S. Patent Publication No. 2006/0010699 A1, filed in
`the record as Exhibit 1005;
`
`b) Fabio: U.S. Patent No. 7,698,097 B2, filed in the record as Exhibit
`1006;
`
`c) Pasolini: U.S. Patent No. 7,463,997 B2, filed in the record as
`Exhibit 1008; and
`
`d) Richardson: U.S. Patent No. 5,976,083, filed in the record as
`Exhibit 1009.
`
`Petitioner asserts the following grounds of unpatentability based on
`the aforementioned references (Pet. 4):
`
`Basis
`Challenged Claims
`1, 2, 10–12, and 14–17 § 103(a)
`3, 4, 13, 18, and 19
`§ 103(a)
`5–7
`§ 102(e)
`4 and 19
`§ 103(a)
`
`Reference(s)
`Tamura and Fabio
`Tamura, Fabio, and Pasolini
`Fabio
`Tamura, Fabio, Pasolini, and
`Richardson
`
`
`6
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`Petitioner also relies on a Declaration of Dr. Irfan Essa, Ph.D., filed as
`Exhibit 1002 (“Essa Declaration”).
`
`II. DISCUSSION
`
`Summary of Asserted Prior Art
`A.
`1. Overview of Tamura (Exhibit 1005)
`Tamura is directed to “a mobile terminal apparatus equipped with a
`function to determine azimuth.” Ex. 1005 ¶ 1. Tamura describes using a
`three-axis magnetic sensor to determine the magnetic field strength to more
`efficiently remove the dynamic magnetic component. Id. ¶¶ 3–4. In
`particular, Tamura is concerned with detecting the azimuth accurately. Id.
`¶ 4. Tamura corrects the terrestrial magnetism vector component detected
`by the three-axis magnetic sensor with the inclination of the mobile terminal
`apparatus, measured by a tilt angle sensor. Id. The structure of Tamura’s
`mobile terminal apparatus is shown in Figure 1, reproduced below.
`
`
`
`7
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`Figure 1 depicts a mobile terminal apparatus 1, such as a cellular
`phone, that includes a processing unit 10, a detecting unit 20, and a display
`unit 36. Id. ¶¶ 18–19. Detecting unit 20 has a magnetic sensor 22, a tilt
`angle sensor 24, a barometric sensor 26, and a temperature sensor 28. Id.
`¶ 19. The processing until 10 determines an accurate azimuth using data
`from the magnetic sensor 22 and the tilt sensor 24, data which is corrected
`for any temperature drift using the temperature sensor 28. Id. ¶ 23.
`The tilt sensor 24 is “an acceleration sensor for detecting acceleration
`components in three axis directions.” Id. ¶ 21. The X axis and Y axis of the
`tilt sensor 24 “are placed orthogonally to each other in a horizontal plane,
`and the Z axis is placed in the direction of gravity.” Id. “As the posture of
`the mobile terminal apparatus 1 inclines, the gravitational acceleration
`changes, and the pitch angle and roll angle are detected by detecting this
`gravitational acceleration.” Id. When the user of the mobile terminal
`apparatus is moving, “a kinetic acceleration component will be added to
`have an effect on the tilt angle sensor 24.” Id. “By the use of three axes, the
`gravitational acceleration and the kinetic acceleration can be separated from
`each other, thereby enabling an accurate detection of the posture.” Id.
`Tamura describes an embodiment wherein the “mobile terminal
`apparatus 1 is provided with the function of a pedometer.” Id. ¶ 24. “[T]ilt
`angle sensor 24 detects acceleration components in the three-axis directions
`in accordance with the movement of the mobile terminal apparatus 1.” Id.
`While a user is walking, “the tilt angle sensor 24 detects not only the
`acceleration components corresponding to the tilt angle of the mobile
`terminal apparatus 1 but also low-frequency acceleration components in
`response to the movement of the user.” Id.
`
`8
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`“The processing unit 10 performs a frequency analysis on the
`detection results from the tilt angle sensor 24 and counts the number of
`user’s steps based on the acceleration [] components of a frequency within a
`predetermined range.” Id. ¶ 25. According to Tamura, because the user’s
`walking motion “add[s] an acceleration component mainly in the direction
`of gravity, detection results along an axis within the tilt angle sensor 24
`which most approximates the axis of gravity are used” to count the number
`of steps. Id. To determine which axis most approximates the axis of
`gravity, Tamura states that in “a stationary state,” an axis showing the
`largest gravitational acceleration component is selected. Id. Tamura also
`states that in a “dynamic state,” the axis which most approximates the axis
`of gravity is calculated “based on changes in the resistance values of the
`respective axes and the calculated values of the pitch angle and the roll
`angle.” Id.
`
`2. Overview of Fabio (Exhibit 1006)
`Fabio is directed to controlling a pedometer based on the use of
`inertial sensors. Ex. 1006, 1:1011, Abstract, Title. Fabio describes that
`pedometer reliability depends in part on “recognizing and ignoring events
`not correlated to the gait, which, however, cause perturbations resembling
`those produced by a step.” Id. at 1:2227. Pedometers that use inertial
`sensors detect accelerations along a substantially vertical axis and recognize
`a step when the pedometer detects a positive acceleration peak followed by a
`negative acceleration peak, both of these peaks within certain thresholds. Id.
`at 1:3238. Random events, however, can interfere with step recognition,
`causing “false positives” (steps are recognized when they are not steps). Id.
`
`9
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`at 1:3844. Rest periods also produce events that are detected by the
`pedometer, and “isolated” steps or brief sequences of steps are irrelevant to
`assessment of activity for which a pedometer is used. Id. at 1:4452.
`Fabio overcomes the above-described problems by detecting whether
`sequences of detected steps satisfy pre-determined conditions of regularity.
`Id. at 1:632:3. If the condition of regularity is satisfied, the valid step count
`is updated; if the condition of regularity is not satisfied, the number of valid
`steps is not updated. Id. In particular Fabio describes a method that
`involves two counting procedures, as shown in Figure 3, reproduced below.
`
`
`Figure 3 depicts a flowchart of a control method executed by a control
`unit of a pedometer. Ex. 1006, 2:1719, 3:1112. In particular, upon
`switching on the pedometer, an initialization step 100 sets to zero the
`counters for valid steps (NVT), valid control steps (NVC), and invalid steps
`(NINV). Id. at 3:1318. Then, during the first counting procedure
`(COUNT I, step 110), the acceleration signal output by the accelerometer of
`the pedometer is sampled and evaluated to recognize sequences of steps that
`
`10
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`are “close to one another, which satisfy [the] pre-determined conditions of
`regularity.” Id. at 3:1927. In particular, for each step that is validated
`during this first counting procedure, the number of valid control steps is
`increased, until the number of valid control steps matches a pre-determined
`threshold. Id. at 5:4045 (describing that regularity is sufficient when NVC
`reaches a threshold NT2). The first counting procedure terminates after
`updating the valid steps counter, NVT, to equal the number of “regular” steps
`just detected. Id. at Fig. 4, step 265 (NVT=NVT+NT2).
`Fabio describes this first counting procedure as enabling the
`pedometer to wait for a sequence of events that satisfies regularity and to
`detect events that are irregular (or when a wait time between steps is too
`long) so the counter for valid control steps NVC is decreased or reset to zero
`accordingly. Id. at 5:4049. Fabio states that programming thresholds for
`the first counting procedure, such as NT2 described above, enables
`modification of the sensitivity of the pedometer. Id. at 5:626:11. The user
`can program lower values of the threshold number of steps when regularity
`of gait is not possible, such as when in an office, enabling the pedometer to
`validate and count shorter sequences of steps as “regular” steps. Id. On the
`other hand, by programming higher values for the thresholds for intense
`activity, such as running, short step sequences can be ignored. Id.
`When the first counting procedure passes control to the second
`counting procedure, the user is considered to be moving and the second
`counting procedure counts valid steps NVT. Id. at 3:4144. The second
`counting procedure also checks for continued regularity of the sequences of
`steps by counting the number of valid control steps NVC and the number of
`
`11
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`invalid steps NINV. Id. at 6:4062. If the number of invalid steps NINV is
`lower than a threshold, the method assumes regularity of steps and continues
`counting validated steps. Id. at 7:713. Validation of steps in both counting
`procedures is described more particularly with respect to Figure 6,
`reproduced below.
`
`
`Figure 6 is a graph plotting the time of recognition TR of a sequence
`of steps (1, 2, . . . K-2, K-1, K). Id. at Fig. 6. Fabio validates a step when
`the duration of a current step K (ΔTK) is “substantially homogeneous with
`respect to the duration [] of an immediately preceding step K-1 [(ΔTK-1)].”
`Id. at 4:2835. In particular, “the last step recognized is validated if the
`instant of recognition of the current step TR(K) falls within a validation
`interval TV, defined with respect to the instant of recognition of the
`immediately preceding step TR(K-1),” according to a specific equation. Id.
`at 4:3542. Fabio describes the validation interval TV as having an
`“amplitude” equal to “3ΔTK-1/2,” but could have a different “amplitude.” Id.
`at 5053.
`
`12
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`3. Overview of Pasolini (Exhibit 1008)
`Pasolini is also directed to a pedometer for detecting and counting
`steps. Ex. 1005, Abstract. Specifically, Pasolini describes using an
`accelerometer that detects an acceleration component along axis Z of the
`vertical acceleration generated during a step. Id. at 3:1619. Pasolini
`applies positive and negative thresholds S+ and S to the acceleration signal
`for identifying the positive phase and the negative phase of a step. Id. at
`3:3541. The values of these thresholds are modified at each acquisition of
`a new sample. Id. at 3:4254. In particular, Pasolini utilizes an algorithm
`for determining positive and negative envelope values E+ and E using the
`acceleration datum for each sampled acceleration signal, and adjusting the
`thresholds S+ and S as a function of the envelope values E+ and E. Id. at
`5:4254. In this manner, the pedometer adapts to variations in the detection
`conditions due, for example, to a different type of terrain, or to an increase in
`the speed of the gait. Id. at 3:5459.
`Pasolini also states that,
`the algorithm implemented by the processing unit 3
`[of the pedometer] envisages identifying the main
`vertical axis to be used for step detection as the axis
`of detection that has the highest mean acceleration
`value Accm (on account of gravity). For example, the
`main vertical axis can be identified at each acquisition
`of a new acceleration sample, block 30 of FIG. 4, so
`as to take into account variations in the orientation of
`the pedometer device 1, and consequently of the
`accelerometer 2 arranged inside it.
`
`Id. at 8:1624.
`
`13
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`4. Overview of Richardson (Exhibit 1009)
`Richardson is directed to “a personal fitness monitoring device that
`may be worn by an individual while the individual is exercising.” Ex. 1009,
`1:6–8. Richardson’s device includes a pedometer, the components of which
`are shown in Figure 2, reproduced below.
`
`
`Figure 2 depicts pedometer 15, which uses accelerometer subsystem
`25 to take as input a user’s bodily movement data 7 and produces
`locomotion parameters signal 16. Id. at 4:20–23; 6:20–32. The pedometer
`15 monitors the accelerometer subsystem 025 at a suitable sampling
`frequency, in order to determine the occurrence of footfalls that mean a
`locomotor step has been taken. Id. at 27:60–65. During this monitoring
`process, two buffers, A and B, are maintained to hold background scans. Id.
`at 28:31–34. “While one buffer, A or B is being filled with data, the data in
`
`14
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`the other, B or A, is being analyzed.” Id. at 28:34–36. The pedometer
`computes at each sample time a moving average of acceleration, which
`serves as a baseline for describing the acceleration waveform of a locomotor
`step. Id. at 28:36–39. The pedometer then finds peaks of positive
`acceleration that indicative of footfalls, and each interval between footfalls is
`taken to be a user’s locomotive step. Id. at 28:42–45.
`
`B. Multiple Petitions
`Patent owner argues that “[t]he Board should exercise its discretion
`under 35 U.S.C. § 325(d) and deny the Petition because it relies on the same
`art and substantially the same arguments that [are] already before the Board
`[in] three other pending IPR proceedings.” Prelim. Resp. 24 (identifying
`IPR2018- 00389, IPR2018-01027, and IPR2018-01458).
`Section 325(d) states that “[i]n determining whether to institute . . .
`the Director may take into account whether, and reject the petition . . .
`because, the same or substantially the same prior art or arguments previously
`were presented to the Office.” In this proceeding, Patent Owner argues that
`the same or substantially the same prior art has been presented to the Office
`previously because Fabio, Pasolini, and Richardson have been asserted in
`multiple inter partes reviews. Prelim. Resp. 2425 (alluding to IPR2018-
`00389, IPR2018-01027, and IPR2018-01458). Specifically, Fabio and
`Pasolini have been asserted by different petitioners in IPR2018-00389 and
`IPR2018-01458, which we instituted and which also address the ’723 patent
`(“the previous IPRs”). Further, Fabio, Pasolini, and Richardson have been
`asserted by a different petitioner in IPR2018-01027, which addressed the
`’723 patent and which we did not institute.
`
`15
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`Petitioner contends that the Board should not exercise discretion to
`not institute. Specifically, Petitioner argues that it is not a party to any of the
`previous IPRs and should be given an opportunity to challenge the
`’723 patent before the Board to ensure a “just, speedy, and inexpensive
`resolution” consistent with 37 C.F.R. § 42.1(b). Pet. 68–71. Petitioner also
`argues that the instant Petition does not seek to remedy any “deficiencies in
`Apple’s prior art that were identified by the Board” or by Patent Owner’s
`Preliminary Response filed in IPR2018-00389 (“the 389 IPR”). Id. at 69
`(noting that the Board rejected Patent Owner’s arguments). Petitioner
`further argues that instituting here would be no more a burden than
`instituting on any other petition. Id. at 70. And finally, Petitioner argues
`that the Petition here asserts Tamura, which was not presented in any other
`proceeding, and that here, for certain claims, the Petition asserts Fabio in an
`anticipation ground, rather than an obviousness ground presented previously.
`Id. We are not persuaded by Petitioner’s arguments.
`There is no question that Fabio, Pasolini, and Richardson have been
`previously presented to the Office in the previous IPRs challenging the
`’723 patent. In IPR2018-00389, which was filed by Apple Inc., the ongoing
`trial concerning the ’723 patent involves a single ground: obviousness of
`claims 13, 57, and 1018 over Fabio and Pasolini. Further in IPR2018-
`01027, Apple Inc. challenged dependent claims 4 and 19 for obviousness
`over Fabio, Pasolini, and Richardson. Thus, Fabio, Pasolini, and Richardson
`have been previously presented to the Board to challenge all the claims at
`issue here. The question for us to answer is whether, based on this fact, we
`should exercise our discretion and deny the Petition.
`
`16
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`
`Applicability of § 325(d) is not limited to situations where the same
`petitioner has filed a follow-on petition. The statute allows for the exercise
`of discretion upon consideration only of whether the same or substantially
`the same prior art or arguments were presented previously to the Office.
`Further, the statutory authority to deny the petition based on the same
`previously presented prior art is not tied to the format of how that prior art is
`presented or whether every aspect of the asserted grounds is identical in both
`petitions. Therefore, we have statutory authority to deny this Petition
`because Fabio, Pasolini, and Richardson were previously presented to the
`Office in the previous IPRs, notwithstanding that Petitioner is not a party to
`the previous IPRs and that the asserted grounds here are not exactly the same
`as the previous IPRs.2
`We further note that under the current circumstances, where the
`patent-at-issue is involved in an ongoing trial,3 we also have discretionary
`authority, under 37 C.F.R. § 42.122, to issue “any appropriate order
`regarding the additional matter [i.e., this proceeding,] including providing
`for the stay, transfer, consolidation, or termination of any such matter.” See
`35 U.S.C. § 315(d). We recognize that in exercising our discretion we
`determine the proper course of conduct in a proceeding (37 C.F.R. § 42.5) in
`
`
`2 The Trial Practice Guide Update, issued August 2018, identifies certain
`non-exclusive factors to consider in evaluating whether to deny institution
`under § 325(d), and advises parties to analyze similar factors in the context
`of a trial petition involving art that is the same or substantially the same art
`as presented previously in an earlier-filed petition requesting inter partes
`review. See Trial Practice Guide Update, 1213 (accessed via
`https://go.usa.gov/xU7GP).
`3 Trial in IPR2018-00389 is pending as of the issuance of this Decision.
`17
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`a manner consistent with securing the just, speedy, and inexpensive
`resolution of the proceeding (37 C.F.R. § 42.1(b)).
`Here, our exercise of discretion to deny institution under §§ 315(d)
`and 325(d) is warranted for several reasons. To start with, Petitioner’s
`arguments for each of the claims are substantially the same as previously
`presented in the 389 IPR. For independent claims 1, 10, and 14, Petitioner
`asserts a combination of Tamura and Pasolini, whereas in the 389 IPR, these
`claims have been challenged over a combination of Fabio and Pasolini. The
`assertion of Tamura, in Fabio’s stead, however, presents the same arguments
`previously presented. For example, Petitioner alleges that Tamura teaches
`assigning a “dominant axis” as recited in the independent claims because
`Tamura discloses detecting the axis “that most approximates the axis of
`gravity,” or the “Z axis.” Pet. 18 (citing Ex. 1005 ¶¶ 21, 25). In the 389
`IPR, Fabio is alleged to select the acceleration signal corresponding to the
`detection axis nearest to the vertical, or the Z axis. 389 IPR, Paper 2, 2829
`(asserting that Pasolini also teaches the limitation because it detects the main
`vertical axis taking into account the orientation of the pedometer). Thus, the
`detection of the axis nearest the vertical has already been presented as
`teaching the “dominant axis” notwithstanding that Tamura explains other
`features of how its magnetic and tilt sensors operate in order to make that
`detection.
`The same can be said for the limitation concerning “detecting a
`change in orientation” to update the “dominant axis.” Petitioner asserts that
`Tamura teaches this limitation because the tilt sensor detects changes in
`orientation, and Tamura uses the tilt sensor’s output to determine which
`“axis most approximates the axis of gravity.” Pet. 20 (citing Ex. 1005 ¶¶ 20,
`
`18
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`25). Similarly, in the 389 IPR, Pasolini takes “into account variations in the
`orientation of the pedometer,” using the inertial sensor’s output, and Pasolini
`detects the main vertical axis at each acquisition of a new acceleration
`sample. 389 IPR, Paper 2, 30. The same argument is involved in both of
`these assertions; namely, a change in orientation of the sensor is used to
`update the vertical axis determination that each of Tamura and Pasolini are
`alleged to perform.
`Further, with regard to the “cadence window,” the same prior art is
`asserted and based on the same arguments presented in the 389 IPR.
`Petitioner here argues that Fabio’s “validation interval TV” constitutes the
`recited “cadence window.” Pet. 25. In the 389 IPR, Fabio also is asserted as
`disclosing the “cadence window” based on the “validation interval TV.”
`389 IPR, Paper 2, 3336. Thus, for the “cadence window” limitations in all
`the challenged claims Petitioner relies on the same prior art and the same
`argument previously presented.
`Accordingly, we understand the arguments presented here with
`respect to Tamura to be substantially the same as those previously presented
`concerning Fabio and Pasolini. Even though Petitioner alleges that Tamura
`is different prior art, we see the reliance on Tamura as not being materially
`different from the prior assertions concerning Fabio and Pasolini. Further,
`Fabio and Pasolini are being considered on the merits in the 389 IPR and we
`look to Petitioner to provide some reason that persuades us to institute on
`another trial that features Fabio and Pasolini as teaching the same limitations
`or providing support for the same arguments previously presented. Again, if
`there was a manner in which Petitioner here distinguishably relied on
`Tamura, Fabio, and Pasolini, Petitioner did not proffer that fact explicitly or
`
`19
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`with sufficient emphasis that would allow us to balance Petitioner’s desire to
`be heard with the duplication of the Board’s effort in determining the
`overlapping issues.
`Further, we are not persuaded that the ground concerning claims 57
`under anticipation is materially different than previously presented in the
`389 IPR. Here, Petitioner asserts that claims 57 are anticipated by Fabio.
`In the 389 IPR, claims 57 are challenged as obvious over Fabio and
`Pasolini, but the arguments presented rely on Fabio as disclosing all the
`limitations of those claims. 389 IPR, Paper 2, 4149. Therefore, we are not
`persuaded that asserting “anticipation” of claims 57 changes the nature of
`the arguments that have been previously presented over the same prior art,
`Fabio.
`As for claims 4 and 19, we note that we have determined previously
`that the same arguments and prior art presented here with regard to Fabio,
`Pasolini, and Richardson did not rise to the reasonable likelihood threshold.
`Specifically, Apple Inc. filed a Petition in IPR2018-01027 in which it
`challenged claims 4 and 19 for obviousness over Fabio, Pasolini, and
`Richardson. See IPR2018-01027, Paper 8. We denied that Petition. Id.
`The instant Petition proffers the same prior art and same arguments. Thus,
`not only have the same arguments and prior art been previously presented,
`but we have determined already that the same ground failed to show a
`reasonable likelihood of prevailing.
`Moreover, the time of filing of this Petition leads us to conclude that
`Petitioner gained the benefit of Patent Owner’s preliminary response and our
`Decision on Institution in the 389 IPR. Patent Owner filed a preliminary
`
`20
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`response in the 389 IPR on April 4, 2018, and we issued a Decision on
`Institution on June 27, 2018. Three months later Petitioner filed the instant
`petition. Petitioner alleges that it “does not seek to remedy any deficiencies
`in Apple’s prior art that were identified by the Board or Patent Owner in its
`preliminary response in IPR2018-00389.” Pet. 69. This artfully crafted
`assertion is unpersuasive. The assertion does not show that Petitioner did
`not gain the benefit of the preliminary responses in previous IPRs. We did
`not specifically address an issue for Petitioner to remedy when we instituted
`on all claims and all grounds; rather, we focused on addressing Patent
`Owner’s arguments. Nevertheless, we note that the arguments by Patent
`Owner in the 389 IPR previewed Patent Owner’s contention that Fabio’s
`vertical axis detection occurs without regard for orientation. See Ex. 1004,
`18 (stating in our Decision on Institution that Patent Owner argued Fabio’s
`lack of regard for orientation in determining the vertical axis). We do not
`see Petitioner’s reliance on Tamura to bolster the orientation issue in the
`instant case as a coincidence.
`Further, we are concerned with administrative efficiency because
`instituting here is substantially duplicative of the 389 IPR, and the Board
`would need to reconcile arguments, issues, and evidence across multiple,
`independent trials on the same patent and claims.4 Cf. Heckler v. Chaney,
`470 U.S. 821, 831 (1985) (indicating an agency, when deciding whether to
`take action in a particular matter, must determine whether its resources are
`best spent on one matter or another). On balance, we find that the same
`prior art and substantially the same arguments have been previously
`
`
`4 See MaxLinear, Inc. v. CF CRESPE LLC, 880 F.3d 1373 (Fed. Cir. 2018).
`21
`
`

`

`IPR2018-01757
`Patent 8,712,723 B1
`
`presented, and, indeed, some of those arguments have failed scrutiny of the
`reasonable likelihood threshold. Notwithstanding some differences in the
`prior art, we are persuaded that undertaking another trial on the same claims
`and on substantially the same prior art would be an inefficient use of Board
`resources and would result in substantial overlap and duplication of issues,
`arguments, and evidence. Therefore, based on the foregoing, and to secure
`the just, speedy, and inexpensive resolution of the dispute, we exercise our
`discretion under §§ 315(d) and 325(d), and deny institution.
`
`III. ORDER
`In consideration of the foregoing, it is hereby:
`ORDERED that the Petition is denied.
`
`
`
`
`22
`
`

`

`IPR2018-01757
`Patent 8,712,7

This document is available on Docket Alarm but you must sign up to view it.


Or .

Accessing this document will incur an additional charge of $.

After purchase, you can access this document again without charge.

Accept $ Charge
throbber

Still Working On It

This document is taking longer than usual to download. This can happen if we need to contact the court directly to obtain the document and their servers are running slowly.

Give it another minute or two to complete, and then try the refresh button.

throbber

A few More Minutes ... Still Working

It can take up to 5 minutes for us to download a document if the court servers are running slowly.

Thank you for your continued patience.

This document could not be displayed.

We could not find this document within its docket. Please go back to the docket page and check the link. If that does not work, go back to the docket and refresh it to pull the newest information.

Your account does not support viewing this document.

You need a Paid Account to view this document. Click here to change your account type.

Your account does not support viewing this document.

Set your membership status to view this document.

With a Docket Alarm membership, you'll get a whole lot more, including:

  • Up-to-date information for this case.
  • Email alerts whenever there is an update.
  • Full text search for other cases.
  • Get email alerts whenever a new case matches your search.

Become a Member

One Moment Please

The filing “” is large (MB) and is being downloaded.

Please refresh this page in a few minutes to see if the filing has been downloaded. The filing will also be emailed to you when the download completes.

Your document is on its way!

If you do not receive the document in five minutes, contact support at support@docketalarm.com.

Sealed Document

We are unable to display this document, it may be under a court ordered seal.

If you have proper credentials to access the file, you may proceed directly to the court's system using your government issued username and password.


Access Government Site

We are redirecting you
to a mobile optimized page.





Document Unreadable or Corrupt

Refresh this Document
Go to the Docket

We are unable to display this document.

Refresh this Document
Go to the Docket