`571-272-7822
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`Paper No. 23
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`UNITED STATES PATENT AND TRADEMARK OFFICE
`____________
`
`BEFORE THE PATENT TRIAL AND APPEAL BOARD
`____________
`
`DATASPEED INC.
`
`Petitioner,
`
`v.
`
`SUCXESS LLC.
`
`Patent Owner.
`____________
`
`IPR2020-00268
`Patent 10,454,707 B2
`____________
`
`Record Oral Hearing
` Held: February 11, 2021
`____________
`
`
`
`Before TREVOR M. JEFFERSON, MINN CHUNG, and
`NATHAN A. ENGELS, Administrative Patent Judges.
`
`
`
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`IPR2020-00268
`Patent 10,454,707 B2
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`
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`APPEARANCES:
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`ON BEHALF OF THE PETITIONER:
`
`
`PETER GOWDEY, ESQ.
`WAYNE HELGE, ESQ.JAMES WILSON, ESQ.
`Davidson Berquist Jackson & Gowdey, LLP
`8300 Greensboro Drive, Suite 500
`McLean, Virginia 22102
`(571) 765-7700
`
`
`
`ON BEHALF OF THE PATENT OWNER:
`
`
`ALEX NIX, ESQ.
`MAXWELL GOSS, ESQ.
`Millman IP
`401 Bay Street, Suite 2108
`Box 60, Toronto, Ontario
`Canada M5H 2Y4
`(416) 363-2775
`
`
`
` The above-entitled matter came on for hearing on Thursday, February
`11, 2021, commencing at 2:52 p.m. EDT, by video/by telephone.
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`IPR2020-00268
`Patent 10,454,707 B2
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`PROCEEDINGS
`- - - - -
` JUDGE JEFFERSON: Good afternoon. This is Judge Jefferson.
`With me are Judges Chung and Engels. I had a little brief interruption of my
`video feed so I’m going to proceed under the guise that I think everybody
`can hear me and see me. So I will continue; is that correct?
`MR. WILSON: We can hear you, Your Honor.
`JUDGE JEFFERSON: Okay. Thank you. So we’re back on the
`record. We’re here for IPR 2020-00268. This will conclude our sort of joint
`proceeding that we held earlier with IPR 2020-00116 and 00147. This is a
`separate transcript for just the 00268 case for Patent Number 10,454,707.
`We’ve discussed the sort of housekeeping matters so I’m going to
`jump straight to having the parties again introduce themselves on the record.
`And we will start with Petitioner.
`MR. WILSON: Thank you, Your Honor. James Wilson for
`Petitioner. In the room with me is Pete Gowdey, lead counsel for this IPR,
`and also Mr. Wayne Helge.
`JUDGE JEFFERSON: Thank you, and welcome, Mr. Wilson. And
`for the Patent Owner, make your appearances, please.
`MR. NIX: This is Axel Nix again for the Patent Owner. And with me
`also again my co-counsel, Maxwell Goss.
`MR. GOSS: Good afternoon, Your Honor.
`JUDGE JEFFERSON: Thank you. Thank you, Mr. Goss, thank you,
`Mr. Nix. Appreciate that, getting everybody in on the record.
`Each party will have 30 minutes to present their case with respect to
`IPR 2020-00268. Petitioner has the burden of showing patentability of the
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`challenged claims, and will proceed first. And Patent Owner then follows,
`and each party may reserve rebuttal time as we did in our prior hearing.
`Obviously, let me repeat for clarity again, please state which slide
`exhibit you’re on and page number. The parties did an excellent job and I’m
`sure will continue. Then again, if there is any technical difficulties that
`everybody’s been given information, but please let us know if there’s
`anything that impedes your ability to hear or see the proceedings, and
`obviously protect the record that you are creating.
`And I think we should be able to proceed straight through. And we’ll
`start with Petitioner. You may begin when you’re ready, and tell me how
`much time you’d like to reserve.
`MR. WILSON: Thank you, Your Honor. This is James Wilson. Five
`minutes for rebuttal, is what we’d ask for. Thank you.
`JUDGE JEFFERSON: You’re welcome. And you may proceed
`when you’re ready.
`MR. WILSON: May it please the Board. When the 707 patent was
`filed, it was filed and issued, there was issues with 20 claims. Petitioner
`challenged those 20 claims based on nine grounds, as shown in Slide 3. And
`Patent Owner chose not to file a preliminary response. And as shown in
`Slide 4, of course the Board instituted the IPR after reviewing the 20 claims,
`and that’s the situation where it then called for Patent Owner’s response.
`And the Patent Owner, in response, as shown in Slide 5, disclaims,
`essentially cancelling 18 of the 20 claims of the 707 patent.
`Shown in Slide 6, this is the 20 claims of the 707 patents and shown
`without the gray highlighting are the claims, two dependent claims that were
`made.
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`As shown in Slide 7, focusing in on those two dependent claims, they
`are both each ultimately dependent from Claim 6. And Claim 15 recites that
`a first electrical interface claim, and actually by virtue of Claim 13, two
`electrical interfaces are CAN vehicle data bus interfaces. And then Claim 20
`claims a relay and says again the relay in Claim 19 has already been found,
`or admitted to be un-patentable, and it states the relay is electrically
`controlled in response to the presence of electrical failure.
`Neither of those limitations in 15 and 20 lend to any patentability for
`the claims of the 707 patent. In particular there’s nothing special about a
`CAN vehicle data bus.
`In Patent Owner’s surrebuttal Brief they indicated that this was like a
`kind of a patent case where there was a large genus and there’s something
`special about one of those species. That’s not this record. This record is
`vehicle data buses were known and they were alternatives. And we know
`that from the 707 patent itself.
`The 707 patent, in Column 7, Lines 30 to 34, equate different types of
`data buses. Column 7, Lines 30 to 44 state that the data bus of the 707
`patent can be either a Class 2 data bus, it can be a CAN vehicle data bus, or
`“any other suitable data bus.” So this argument that there’s some genus and
`something special about a CAN vehicle data bus doesn’t hold up. It is for
`the person of ordinary skill in the art, they are equivalent. And they are
`equivalent in view of the 707 patent.
`So the better case to look at instead of a case in chemical analysis,
`would be Hoover Technologies versus X1. In that case, the specifications
`indicated there was nothing special about the particular alternatives of this
`claim, and when there are alternatives they are obvious even if there’s
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`modifications in the different designs. So there’s nothing special about a
`vehicle data bus. And I’ll get into that, that’s the short answer for Claim 14.
`I’ll get into some more details as we go to Claim 13.
`And Claim 13 I want to direct, to the combination or asserting,
`asserting a combination of Walker in view of CAN bus references. Those
`CAN bus references are SAE, Negley, and Bosch. And also, and I
`appreciate the Board to not think we would succeed on this but the way the
`evidence is coming out I think we will, the Dietz reference.
`And the question is, would someone take Walker’s trickster circuits,
`which if you look at Slide 12, Claim 6 is calling for a real signal to be sent to
`a controller and a fake signal to be sent to a controller. So it’s a way of
`spoofing or tricking the control unit to act in a way that’s different than the
`real sensor signal that’s receiving by sending a fake sensor signal that
`mimics some features of the real signal.
`And then again, that Claim 6, that’s un-patentable and clearly shown
`in, again Slide 13 of Walker as a different embodiment of trickster circuits
`that Walker envisions in Claim 24a and 24b there are real sensory inputs
`coming in, and then output, if you look at the top of the Slide 13, there is
`either real sensor output going out or there’s a mimicked sensor output going
`out. And 24b is a different type of trickster circuit where the trickster circuit
`is, instead of being a bearing in on that voltage, is a pulse with a false signal.
`So the question is, would a person of ordinary skill in the art look at
`Walker and envision different trickster circuits. And Walker answers that
`himself. In Slide 14, we have some citations that says any circuit that tricks
`the control unit is within the scope or the skill of POSITA in this field. And
`I’m encouraging the POSITAs to look at systems and envision systems that
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`will trick the controller. And it could be in circuitry, it could be immigrant
`circuit, it could be a software embodiment. Any of these types of
`embodiments, you know, it’s very broad disclosure of trickster circuits and
`we relied on this in our Petition. We cited to in particular the Column 117,
`Lines 38 to 55 that is calling out the broad disclosure of the trickster circuit.
`That’s what we relied on in our Petition, that’s our theory.
`And Walker says, you know, how do you get it, so we know right now
`that if a POSITA would want to design a trickster circuit just based solely on
`Walker’s teaching. So then Walker says well how would you go about
`determining or designing a trickster circuit? And Walker says well just look
`at what you have. Reverse engineer a system.
`Another data point. Again, CAN bus isn’t special, but the CAN bus
`technology was being increasingly adopted in this period. At the time, as the
`testimony reflects, at the time that CAN bus was, Walker was being
`developed, CAN bus wasn’t widely implemented in a vehicle. But it
`became a governmental requirement, and by the time the 707 patent was
`filed, CAN bus was practically in every vehicle on the road. I was a U.S.
`government requirement.
`So what you see for reverse engineering is you see a bunch of cars
`coming into the garage that have CAN bus. It’s obvious, and it’s a natural
`extension, and KSR supports this, to then design a CAN bus circuit that
`takes advantage of that. And again, this is Walker saying when you’re
`looking at the trickster circuit, just look at the physical connections you
`need. A half-way physical connection and then you can have a trickster
`circuit.
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`So that is Petitioner’s theory and it’s a known alternative arranged as
`you would find in vehicles, and more vehicles at the time, and we’ve added
`that as we’ve said. Not only is it an alternative, which this may go beyond
`the Gober Technologies v XI, but it’s an alternative with an advantage.
`With a CAN bus you would have the ability to send multiple sensor
`signals over the CAN bus. And there are CAN buses out there, showing in
`the SAE, Negley, Bosch, that have multiple sensor signals on the CAN bus.
`And the advantage of that is with a signal retrofit you could trick multiple
`controllers or if it’s a controller using two sets of input you could trick both
`of them. It extends the functionality and that’s perfectly consistent with
`KSR and the advantage of that. There’s definitely a POSITA would want to
`implement a retrofit to match the technology that was in the system and to
`obtain these advantages. It’s a clear case of obviousness.
`Now Patent Owner’s expert came in and said well, maybe, you know,
`you couldn’t design a CAN bus retrofit that was in series between two
`different CAN bus, or two different CAN bus nodes. You couldn’t place
`this CAN bus in series, and that’s incorrect. If you look at Negley, Negley’s
`door node controller is, you know, series between two CAN buses. If you
`look at SAE you’ll see there’s a gateway which is between two CAN buses.
`Providing a node between two CAN buses was something that was known in
`the art. So a POSITA would have wanted to do it, and they could do it.
`And as if there’s any question that remains about this, when you look
`at Dietz, I mean just look at Dietz as a black box, and this is on Slide 21 of
`the presentation. It is uncontroverted when you look at Dietz as a black box,
`it is a retrofit that is between two CAN buses. It has a CAN bus interface on
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`one side, CAN bus interface on the other, and that’s all that’s required in
`Slide 15 is a retrofit that has two CAN bus interface.
`So again, not only would a POSITA have wanted to do it, to obtain
`the advantages, they could have done it, and they in fact did do it when you
`look at the Dietz and you read Dietz in the context of Walker. And, you
`know, that’s our presentation regarding the obviousness of Claim 15. If you
`don’t have any questions about that I’d like to move to Claim 20.
`JUDGE JEFFERSON: Please continue.
`MR. WILSON: Your Honor, Claim 20 is directed to a relay. And it
`says a relay is flexibly controlled in response to presence of electrical
`failure. There’s a difference in interpretation of this claim, but also the way
`we feel that it doesn’t matter, doesn’t change the outcome. So under
`Petitioner’s interpretation of the claim the relay, almost by definition, has to
`two states. It has a state one on or state one off. And the whole Claim 20 is
`confirming that reality, that a relay has two states of evidence. It says the
`relay is selectively controller, you know, selectively controlled, has two
`states in response to electrical failure. And that’s why one of those states is
`a state where there is no voltage applied, a low state. And that’s a Smart
`Roadster. The state of the relay explicitly on Slide 26, and by Smart
`Roadster for the state of the relay depends on the emergency circuit, namely
`the level of the NOTAUS_SENSE line.
`The level of the line, the presence of electrical failure, if it’s low,
`again Slide 27 we explain this in more detail with regard to Mr. Leale’s
`declaration in Paragraph 176, that when the relay is controlled to have a
`NOTAUS_SENSE signal that is low, the relay sets the retrofit of the Smart
`Roadster into a condition where it has a path for a vastly origin state and that
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`is a control of the relay, the selective controlled. This claim is only directed
`to the relay itself. That fully satisfies that limitation.
`And not only because it now offsets the signal which is low just by
`virtue of the emergency circuit driving it low. If the system allows power in
`response to the system losing power, the relay would drop to low level in
`same state. So it fully satisfies that limitation.
`Patent Owner has come in and said well, wait a second, maybe there’s
`a, like in the 707 patent, there’s a controller that’s sensing electrical failure
`and then causing the relay to act. That position, there is no controller that’s
`recited in Claim 6, there’s no controller in 18, there’s no controller in 19,
`there’s no controller in 20. That theory reads the limitation to specification
`into play.
`But that dispute is irrelevant because Smart Roadster has such a
`controller that performs that function. If you look on Slide 29 it indicates
`that there is an emergency circuit, the same emergency circuit the Petitioner
`has been relying on in this case, that is set in two states. One of the states is
`to set the vehicle back to the origin state, and the other is if all the
`emergency components are working and in case of proper operation, the
`high signal, without outsets being high, then you connect in the drive by
`wire features, the added feature of Smart Roadster. So the safer origin state
`and then the state of proper operation. So a low state and a high state, that’s
`in Slide 29.
`Slide 30, it’s a little bit more detail, describes this emergency circuit.
`And the emergency circuit has buttons. And importantly, it has DSPs that
`are monitoring the CAN bus functionality and the other DSP, and saying are
`you working correctly, I’m going to send out a ping pong message. And
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`then ping this, you know, my friend, and see if I get a response. If I don’t
`get a response then it says you cut the emergency circuit. Or, Your Honors,
`and Mr. Leale testified to this, that means that the emergency circuit is set to
`the low level. That’s the NOTAUS_SENSE signal being dropped to a low
`level based on a signal from a controller, a DSP module that has looked for
`an electrical failure. It looks to its friend to not respond because, you know,
`something went wrong electrically with that.
`And that monitoring of the bus is exactly, if you look at Slide 31, is
`how the 707 patent has a controller that monitors its vehicle data bus
`interface in order to determine if there’s electrical failure. So that feature
`from the preferred embodiment, even if it’s read into the claims of the 707
`patent, is present in Smart Roadster.
`And, Your Honor, that concludes my presentation with regard to the
`patentability of Claim 20.
`JUDGE JEFFERSON: Thank you. If there are no further questions, I
`don’t think there are, we will move to the Patent Owner’s presentation. And
`you have 13 and a half minutes left, which you are always welcome not to
`use all of it, as we go through. Let’s turn to Patent Owner. You can tell me
`how much time you want to reserve, and begin when you’re ready.
`MR. NIX: Thank you, Your Honor. I would like to reserve about
`five minutes if that is all right.
`JUDGE JEFFERSON: You are certainly welcome to. Thank you.
`MR. NIX: Let’s start with Slide 2, Your Honor. The one common
`theme relating to both Claims 15 and 20 or in the Petitioner’s Reply is that
`they taint their theory of why they think the 707 patent is obvious. But
`they’ve done it by -- so they haven’t crystalized their position, but rather I
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`think they’ve conceded that the Petition, as originally argued, doesn’t show
`obviousness. So they’re trying to take a turn and now take a different angle,
`a different approach, which we submit is impermissible.
`With respect to Claim 15, we say the Petitioner’s new theory lacks
`analysis. Originally they had a very detailed step-by-step analysis. Now
`they’re saying no, we’re just relying on a broad idea. But that broad idea
`doesn’t teach specific limitations. They return to the KSR arguments,
`recognizing a design incentive that we think we can show doesn’t exist, and
`characterizing something as a predictable variation when their own expert
`couldn’t predict what a CAN bus trickster circuit would look like.
`With respect to Claim 20, the new theory introduces a fundamental
`problem, and that is it doesn’t work. It addresses some of the issues of their
`earlier theory but it introduces a fundamental new problem that it contradicts
`the wiring of Smart Roadster and simply doesn’t work. And we believe they
`misunderstand Smart Roadster.
`Slide 3 is just showing the Claim 15 which depends on 13 which
`depends on 6. And as such includes a number of limitations. Some I think
`Mr. Wilson was trying to say, or argue that if a dependent claim can only
`tweak the scope of the claim. But in this case by saying the first electrical
`interface is a CAN data bus, we are significantly changing the scope from
`the way they have previously argued. We may refer to Slide 4. The original
`theory was based on an analog signal being modified, very simple circuit.
`There’s an analog sensor that has a variable hold to output that goes to an
`OEM controlled module, and the trickster circuit includes a relay that can
`disconnect the original sensor and reconnect the OEM module to a proven
`geometer. The simplest kind of trickster circuit you can imagine.
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`And then the argument is well, you can apply that to a CAN bus. And
`the Patent Owner, in the response, pointed out no, you cannot. Modifying
`this circuit that Walker discloses, to make it work with a CAN bus means
`you have to delete every single piece of that Figure 24, which the Petitioner
`relies on extensively. I think I counted 13 times variations of this Figure 24a
`shown in the Petition. You would have to remove every piece from that
`figure and basically start from scratch to create the CAN bus trickster circuit.
`That is not obvious.
`Now, in their Reply they’re saying all the cake walk, it’s just for the
`broad idea of a deceiving in processor. So, according to the Petitioner,
`Walker makes obvious any type of solution that has been invented in the
`past or that may ever be invented in the future to deceive a processor
`because Walker already has established the general idea covered. And that
`again is not permissible, there is no path from the broad idea of deceiving a
`processor to every single limitation of Claims 6, 13, and then 15.
`In Slide 5, I’m trying to discuss the idea of a design incentive. So,
`Mr. Wilson says this is a design incentive to move away from Walker. But
`that is not correct. Walker emphasis repeatedly that his trickster circuit is
`inexpensive. He also repeatedly throughout the specification uses, I find it a
`terrible acronym, COTS, Commercial off the Shelf component. That’s what
`he wants the invention to be based on. Inexpensive circuitry, commercial
`off the shelf. To the point with respect to Figure 24, that he even gives us
`the Radio Shack part numbers of the potentiometer and the relay that they
`can use to build this inexpensive circuitry.
`Now when I talk with Mr. Leale during cross exam, I asked him how
`much do you think this cost. He said probably less than a dollar for these
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`Radio Shack components. Then I asked him, after we discussed a CAN bus
`trickster circuit and a commercial implementation of that, how much would
`that cost? He said about $100. I submit there is no design consensus to
`make a circuit 100 times more expensive than it needs to be.
`Moving on to Slide 6, the Petitioner says, “Oh, that’s a predictable
`variation.” And it’s also referred to the specification in our patent where we
`say there are variations of serial data networks, Class 2 and the CAN bus,
`and there are different types of digital serialized communication. We
`certainly never ever said that an analog voltage, the potentiometer is a part
`of that. That is not compatible with a CAN bus or any other kind of
`serialized data communication.
`So, I try to explore, “how obvious is it?” Mr. Leale said, “A POSITA
`could easily get from Walker’s disclosure to a CAN bus trickster circuit”.
`So with a remote deposition it’s a little difficult. I tried to have him walk me
`through the steps, take Walker, start with Walker and now get to the CAN
`bus trickster circuit. It was a painful couple of minutes and this really didn’t
`get anywhere. And eventually, and I think that’s rather significant. He said,
`“Well, I have to ask you an infinite large number of questions, you know,
`before he can create the circuit.”
`So their expert says to design a CAN bus trickster circuit first requires
`asking me an infinite number of questions. But let’s assume he was
`exaggerating, not an infinite number, but a very large number of questions.
`And then I asked him, “So, depending on the answers I give you, I asked
`you to design a CAN bus trickster circuit based on Walker. You are now
`going to ask me many, many questions. Based on my answers are you going
`to come up with different designs?” And his answer was “yes.” And I think
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`that directly contradicts the predictable variation argument. If there’s an
`infinite number of inputs, questions that you have to ask before you can
`create the CAN bus trickster circuit, and then depending on those answers,
`come to different circuits, different results, there is no prediction that what
`you will come up with. As part of the CAN bus trickster circuit we’ll
`implement every single limitation of Claims 6, 13, and then be on a canvas
`as required by Claim 15.
`And the Smart Roadster reference. Now referring to Slide 7, I think
`it’s kind of revealing because the sciences that modify Smart Roadsters
`faced a very similar goal that Walker describes. Walker wants the ability to
`slow down a vehicle, Smart Roadster, the researchers wanted to modify the
`vehicle so they could control it and control the longitude and movement,
`which includes of course slowing it down.
`So following the Petitioner’s logic, it would say since Smart Roadster
`has a CAN bus he would have arrived at a CAN bus trickster circuit that
`reads on Claim 15. But they did not. So even though they modified a car
`with a CAN bus and even though the trickster circuit includes a CAN bus, it
`does not read on Claim 15 because the trickster circuit, just like Walker,
`spoofs or mimics an analog signal and the CAN bus is only used to control
`this trickster circuit.
`So with that, Claim 15, I’m concluding my presentation. If there’s
`any questions maybe we should address them now. If there are not I will
`move on to Claim 20, which starts with Slide 8 of the demonstratives?
`Here the Petitioner also changed the angle of attack on the patent quite
`a bit because the original Petition didn’t address that the relays in Smart
`Roadster are electronically controlled. And even though Mr. Wilson says
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`well, we shouldn’t be held to the electronically controlled limitation of the
`claim, he does ultimately change his approach and does accept it.
`So the new theory is now based on multiple DSPs in Smart Roadster
`being able to control the relays. Previously they only said it’s a dead battery
`or someone pushes the NOTAUS button. Now they’re saying well, it’s
`actually DSPs that can control the state of the relays. I asked Mr. Leale did
`you discuss these DSPs anywhere, originally his answer was no. I didn’t
`find any specific reference to the DSPs in his original declaration.
`On Slide 9, I’m trying to compare the original theory with the new
`theory. And on the left side you see these red Xs. That is where the original
`theory failed to read on Claim 20. And there are numerous Xs. But there’s
`one green check mark, at least it was consistent with the wiring of Smart
`Roadster. The new theory has a couple of green check marks where I can
`see how they applied their new theory to this particular claim element but,
`and that’s important, the one claim element that says the factory installed
`second apparatus receives the mimicked electrical signal. Even the new
`theory does not meet that limitation. And with the bottom line, the new
`theory is inconsistent with the wiring, wouldn’t even work in Smart
`Roadster.
`Let me on Slide 10 walk you through a little more why that claim
`element wherein the factory installed second apparatus receives the
`mimicked electrical signal and, keeping in mind Claim 20 says in the
`presence of an electrical failure, isn’t met. And if this is really based on a
`fundamental functional difference which leads to a structural difference of
`what is claimed versus what is in Smart Roadster.
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`The 707 patent is concerned with a defect which prevents the first
`apparatus from communicating with the second apparatus. It envisions there
`could be a crash, the CAN bus is shorted to ground and now these two
`factory installed apparatuses can no longer communicate with each other.
`So what it does, the retrofit apparatus recognizes this defect and it switches
`the relay so that now the retrofit apparatus can again talk to the
`telecommunication apparatus. So it is disconnecting the damaged part of the
`bus in order to maintain communication with the telecommunication
`apparatus. It prioritizes the mimic signal. That is the one that we want the
`second apparatus to receive. And that is exactly what the claim says. The
`factory installed second apparatus receives the mimicked electrical signal
`even though the CAN bus is damaged downstream of the retrofit apparatus.
`Smart Roadster operates 180 degrees opposite. Smart Roadster
`prioritize the factory installed signals. They’ve modified the vehicle, they’re
`putting some kind of research software in the retrofit apparatus so they can
`control the steering and braking and loss of turning control, which could be
`dangerous. So there’s a way to easily disconnect the retrofit and give
`control back to the driver. And that is the entire opposite. So on the left side
`you have a structure that prioritizes the mimic signal, on the right side you
`have one that explicitly, in the presence of an electrical failure, does not
`want the factory installed second apparatus to receive the mimicked signal.
`And that’s why we think they are still failing to show the obviousness of
`Claim 20.
`Now moving on to Slide 11. What I did there is sort of stretched out,
`I think it is Figure 4 of, Figure 3 of Smart Roadster. Smart Roadster shows
`sort of like an S shape safety chain. And if we stretch that out, and I have
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`Mr. Leale walk me through it to make sure I got it right. There’s a control
`box on one end of that safety chain and then there is emergency buttons on
`the opposite, yeah, on the right hand of the safety chain, and in between are
`the relays that are being controlled, that need to be powered in order for
`them to make the signal reaching the second apparatus.
`So if we now go to Slide 12, that’s what illustrates the Petitioner’s
`dilemma. This chain where they say, oh, the DSPs can now control the
`NOTAUS_SENSE line, somewhere along that wire we have to connect it to
`power so that power can flow through the NOTAUS_SENSE line and then
`through the relays, power the relays, and go back to ground. And I asked
`Mr. Leale, “Where would you connect power?” And initially he said, “Well,
`anywhere along the line.” Well that would allow power to be connected in
`the middle, between the control box and the emergency box. But that
`doesn’t work. If I connect power there then my relays are always powered
`and it doesn’t matter what I do to the emergency box on the right or to the
`DSPs on the left, the relays would always be powered and always go to the
`mimic signal.
`So it’s like no, it really needs to be on the right side. I hope that
`makes sense. Because now the power comes from the right. If I interrupt,
`push one of the emergency buttons, power will no longer go to the relays.
`The relays are no longer powered, and that is what they say indicates the
`presence of an electrical failure and disconnects the mimic signal.
`And that is good. But the fundamental problem is now the switches
`that are on the other end that the Petitioner now relies on being in the control
`box, they no longer work. It doesn’t matter whether the DSPs turned these
`switches on and off because the relays already were powered before
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`anything can be interrupted. So just looking at the wiring of Smart Roadster
`shows it is inconsistent with this new theory which we think exceeds the
`permissible scope in the first place.
`Now Mr. Wilson will point out that they say the emergency circuit
`can be cut and the relays can somehow, the DSPs can somehow hand control
`that t