`Apple Inc.
`v.
`Zentian Limited
`Patent 7,587,319
`
`Patent Owner’s Demonstratives
`
`Presented March 11, 2024
`
`1
`
`
`
`Argument Roadmap
`
`v The evidence proves a POSA would not have had a
`reasonable expectation of success
`v Petitioner’s counter-arguments rest on false logic
`v The evidence proves no motivation to combine
`
`2
`
`
`
`Argument Roadmap
`
`v The evidence proves a POSA would not have had a
`reasonable expectation of success
`v Petitioner’s counter-arguments rest on false logic
`v The evidence proves no motivation to combine
`
`3
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`The Petition’s combination of Thelen, Bailey, and Chen has key requirements
`
`Architecture
`
`1.
`
`2.
`
`3.
`
`4.
`
`Group Thelen’s recognizers into groups of recognizers all associated with
`the same context (e.g., sports)
`Port each recognizer group into a cluster of processors, each processor
`cluster connected to a dedicated cluster memory
`Store all recognition models for one context (e.g., sports) in one cluster
`memory (partial lexical data)
`Data stored across all cluster memories constitutes all recognition
`models for all contexts (complete lexical data)
`
`Sur-reply at 1-2; Pet. at 40-43; Ex. 1003 ¶ 83; Ex. 2017, 124:13-126:5, Ex. 2020 ¶¶ 43-44
`
`4
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`The Petition’s combination of Thelen, Bailey, and Chen has key requirements
`
`Architecture
`
`Sur-reply at 1-2; Pet. at 40-43; Ex. 1003 ¶ 83; Ex. 2017, 124:13-126:5, Ex. 2020 ¶¶ 43-44
`
`5
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`The Petition’s combination of Thelen, Bailey, and Chen has key requirements
`
`Operational requirements
`
`1. Every processor in a cluster must simultaneously
`request “the particular subset of vocabulary . . . that’s
`germane to its context” from the single shared cluster
`memory (e.g., golf, tennis, football, basketball). Ex.
`2017, 125:8-126:5, Ex. 2020 ¶¶ 43-44;
`2. Combination’s speech recognition must operate in
`real time, as Thelen did. Ex. 1003 ¶ 84, Ex. 2017,
`154:8-155:17, Ex. 2020 ¶ 42.
`
`Sur-reply at 1-2
`
`6
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Neither Thelen, Bailey, nor Chen enables Petitioner’s combination
`
`Thelen and Bailey do not teach groups
`of processors each connected to one
`lexical memory
`
`Thelen does not teach how to run its
`techniques (including its recognizers)
`on groups of clustered processors
`
`Sur-reply at 2; Ex. 2017, 120:8-18, 136:7-16; Ex. 2020 ¶¶30-31
`
`7
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Neither Thelen, Bailey, nor Chen enables Petitioner’s combination
`
`Chen does not teach how to implement any speech
`recognition on its hardware, much less Petitioner’s
`combination with Thelen
`
`Sur-reply at 2; Ex. 2017, 120:19-121:2; Ex. 2020 ¶¶30-31
`
`8
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Mr. Schmandt’s admissions refute a reasonable expectation of success
`
`Mr. Schmandt admitted he did not:
`
`Mr. Schmandt admitted he did not:
`
`v Explain how a POSA could
`implement parallel operation of
`Thelen’s multiple recognition
`models simultaneously within
`Chen’s clusters, Ex. 2017, 137:21-
`138:24;
`
`v Identify any challenges the POSA
`would face in making the
`combination, Ex. 2017, 141:23-
`142:2;
`
`v Identify the tasks the POSA would
`need to undertake to make the
`combination, Ex. 2017, 144:3-20;
`
`v Analyze “the tasks that would be
`required” of the POSA before he
`reached his conclusion of a
`reasonable expectation of
`success, Ex. 2017, 144:22-145:3;
`
`Sur-reply at 2-3
`
`9
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Mr. Schmandt’s admissions refute a reasonable expectation of success
`
`Mr. Schmandt admitted he has not:
`
`Mr. Schmandt admitted he has not:
`
`v Supervised anyone involved in
`mapping a speech recognition
`model to a clustered processor
`and memory architecture like
`Chen’s, Ex. 2017, 145:20-24;
`
`v Built the processor to memory
`architecture of any speech
`recognition system identified in his
`background experience, Ex. 2017,
`34:24-35:5, 32:3-9, 106:10-23;
`
`Sur-reply at 2-3
`
`10
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Dr. Anderson’s testimony disproves a reasonable expectation of success
`
`v Petitioner’s combination would
`cause extensive memory collisions
`
`v POSA would have known that the
`combination could slow down speech
`recognition compared to Thelen alone
`
`v every processor in a cluster
`would be required to
`simultaneously request “the
`particular subset of vocabulary
`. . . that’s germane to its
`context” from a single
`memory, Ex. 2017, 125:8-
`126:5, Ex. 2020 ¶¶ 43-44
`
`v Petitioner’s combination would not
`operate in real time, Ex. 2020 ¶ 45
`
`v Mathew I taught that adding
`processors to a parallel processing
`speech recognition system slowed
`down the system, Ex. 2011 at 11,
`Ex. 2020 ¶ 46
`
`v Even Dr. Anderson, a person of
`extraordinary skill, and a team of
`engineers including a DSP expert, could
`not successfully port a far simpler
`signal processing software to a parallel
`processing architecture after six
`months, Ex. 2020 ¶¶ 40-41
`
`Sur-reply at 3-4
`
`11
`
`
`
`An ordinary artisan would not have had
`a reasonable expectation of success
`
`Dr. Anderson’s testimony disproves a reasonable expectation of success
`
`v POSA could not have reasonably
`addressed the numerous
`challenges arising from the
`combination, Ex. 2020 ¶¶ 38-39
`
`v Memory conflicts, controlling task
`sharing, addressing
`communication bandwidth and
`latency problems, and developing
`a messaging strategy across
`clusters
`
`v Person of ordinary skill specialized
`in digital signal processing and
`speech recognition, not parallel
`processing architectures or high
`performance computing, Ex. 2020
`¶ 39
`
`Sur-reply at 3-4
`
`12
`
`
`
`Argument Roadmap
`
`v The evidence proves a POSA would not have had a
`reasonable expectation of success
`v Petitioner’s counter-arguments rest on false logic
`v The evidence proves no motivation to combine
`
`13
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 1: POSITA must be assumed to have requisite knowledge because
`’319 Patent did not address Petitioner’s problems
`
`The problems with Petitioner’s combination arise out of
`the combination, not the invention of the ’319 Patent
`
`The ’319 Patent does not teach Petitioner’s specific
`combination, and its silence cannot support Petitioner
`
`Sur-reply at 5-11
`
`14
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 2: A POSA’s general knowledge of parallel processing architectures
`for speech recognition would have sufficed to achieve the combination
`
`None of the cited prior art taught how to achieve real time
`recognition by porting groups of same-context recognizers
`into a clustered processor/memory architecture
`
`General knowledge of parallel processing architectures is
`not adequate knowledge to achieve the combination
`
`Sur-reply at 11-14
`
`15
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 2: A POSA’s general knowledge of parallel processing architectures
`for speech recognition would have sufficed to achieve the combination
`
`v Petitioner’s combination would
`cause extensive memory collisions
`
`v POSA would have known that the
`combination could slow down speech
`recognition compared to Thelen alone
`
`v every processor in a cluster
`would be required to
`simultaneously request “the
`particular subset of vocabulary
`. . . that’s germane to its
`context” from a single
`memory, Ex. 2017, 125:8-
`126:5, Ex. 2020 ¶¶ 43-44
`
`v Petitioner’s combination would not
`operate in real time, Ex. 2020 ¶ 45
`
`v Mathew I taught that adding
`processors to a parallel processing
`speech recognition system slowed
`down the system, Ex. 2011 at 11,
`Ex. 2020 ¶ 46
`
`v Even Dr. Anderson, a person of
`extraordinary skill, and a team of
`engineers including a DSP expert, could
`not successfully port a far simpler
`signal processing software to a parallel
`processing architecture after six
`months, Ex. 2020 ¶¶ 40-41
`
`Sur-reply at 11-14
`
`16
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 2: A POSA’s general knowledge of parallel processing architectures
`for speech recognition would have sufficed to achieve the combination
`
`Mr. Schmandt admitted he has not:
`
`Mr. Schmandt admitted he has not:
`
`v Supervised anyone involved in
`mapping a speech recognition
`model to a clustered processor
`and memory architecture like
`Chen’s, Ex. 2017, 145:20-24;
`
`v Built the processor to memory
`architecture of any speech
`recognition system identified in his
`background experience, Ex. 2017,
`34:24-35:5, 32:3-9, 106:10-23;
`
`Mr. Schmandt’s conclusion of reasonable success is not credible
`
`Sur-reply at 11-14
`
`17
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 3: Skilled persons knew of various speech recognition hardware
`architectures
`
`Prior art is only presumptively enabled for what it teaches
`
`Chen, Thelen, and Bailey do not enable the combination
`
`Chen cannot be assumed to be enabled for every speech
`recognition architecture imaginable
`
`Sur-reply at 14-15 (gathering cases); Ex. 2020 ¶¶ 30-48; Ex. 2017, 120:8-121:2, 136:7-16
`
`18
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 4: “Zentian does not argue that the combination is inoperable, [or]
`could not be done”
`
`Patent Owner need only show Petitioner’s failure of proof
`
`Patent Owner need not show impossibility
`
`Petitioner conflates ordinary skill with extraordinary skill
`
`Sur-reply at 15-16 (gathering case law)
`
`19
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 5: Zentian’s alleged complications would arise with any clustered
`processor architecture
`
`Petitioner has no evidence to support its allegation
`
`Petitioner again attempts to improperly shift its burden
`
`The combination requires real time recognition but the
`combination’s design prevents real time recognition
`
`Sur-reply at 16-19, Ex. 2020 ¶¶ 42-48, Ex. 1003 ¶¶ 83-84, Ex. 2017 at 124:13-126:5, 137:21-138:24, 141:23-142:2, 144:22-145:3, 154:8-155:17
`
`20
`
`
`
`Petitioner’s arguments rest on false logic
`
`Pet. Arg. 6: Zentian’s argument regarding memory collisions and slower
`processing does not account for multiple processors
`
`The fact of multiple processors as utilized within the
`combination causes slower processing, as in Mathew I
`
`Petitioner has no evidence that Chen’s multiple
`processors would “more than account for any memory
`contention issues” in the combination
`
`Petitioner’s expert admitted he could not say the
`combination would have more power than Thelen
`
`Sur-reply at 19-22, Ex. 2020 ¶¶ 44-46, 53-55, 59-60; Ex. 2021 at 11; Ex. 2017, 120:19-121:2, 130:23-131:4, 136:3-6
`
`21
`
`
`
`Argument Roadmap
`
`v The evidence proves a POSA would not have had a
`reasonable expectation of success
`v Petitioner’s counter-arguments rest on false logic
`v The evidence proves no motivation to combine
`
`22
`
`
`
`The evidence proves no motivation to combine
`
`Dr. Anderson’s testimony disproves a motivation to combine
`
`v The combination would cause
`extensive memory collisions that
`would cause it to be slower than
`Thelen, not faster
`
`v POSA would have known from
`Mathew I that more processors
`would not necessarily make parallel
`processing speech recognition
`faster
`
`v POSA would not have been
`motivated by a combination that
`would be slower than Thelen, and
`that would fail to achieve real time
`recognition
`
`v Thelen’s memory architecture
`would have been a poor fit for
`Chen’s multiple private memories
`
`v Petitioner’s combination requires a
`distributed memory model because
`it gives memory access across
`adjacent clusters
`
`v Petitioner’s combination would
`have required significant
`reprogramming effort that would
`have defeated a motivation to
`combine
`
`Sur-reply 22-23, 25-26, Ex. 2021 at 11, Ex. 2020 ¶¶ 51-53, 56-58, 59-60, 62, Ex. 2017 at 155:7-17, Pet. 38-39, Ex. 1005 at 9:24-28, Paper 21 at 21-22
`
`23
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 1: increased processing power
`
`Mr. Schmandt admitted he could not say the combination
`would have more power than Thelen
`
`Sur-reply at 22, 24, Ex. 2017 at 130:23-131:4, 136:3-6
`
`24
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 2: increased processing speed
`
`v POSA would have known that the
`combination could slow down
`speech recognition compared to
`Thelen alone
`
`v The combination would cause
`extensive memory collisions that
`would cause it to be slower than
`Thelen, not faster
`
`v Mathew I taught that adding
`processors to a parallel
`processing speech recognition
`system slowed down the
`system, Ex. 2021 at 11, Ex.
`2020 ¶ 46
`
`v Schmandt admitted that Thelen in
`unmodified form had no problems
`achieving real time recognition
`
`v POSA would not have been
`motivated by a combination that
`would be slower than Thelen, and
`would fail to achieve real time
`recognition
`
`Sur-reply at 22-24, Ex. 2021 at 11, Ex. 2020 ¶¶ 51-53, 59-60, 62, Ex. 2017 at 155:7-17
`
`25
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 3: cost
`
`v Mr. Schmandt admitted he did not
`perform a quantitative or
`qualitative cost-benefit analysis
`
`v He further admitted he did not
`compare the cost of Chen’s
`architecture to any other clustered
`processing architectures
`
`v Petitioner cannot state what the
`combination would have been
`cheaper than, or what costs would
`have been “reduced”
`
`v Cost alone would not suffice as a
`motivation where combination
`system would be slower than
`Thelen alone, would fail to meet
`Thelen’s real time recognition
`requirement, would require
`significant reprogramming effort,
`and would not have more power
`than Thelen alone
`
`Sur-reply at 23, 25, Ex. 2017 at 42:14-19, 63:8-15
`
`26
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 4: flexibility and scalability
`
`v Mr. Schmandt admitted that MARS
`was flexible because its pipeline
`was programmable, and scalable
`because more processors could be
`added to it
`
`v Mr. Schmandt further admitted that
`MARS was being compared to SRI-
`Berkeley, which did not have those
`features
`
`v Petitioner has no showing that
`Thelen was not already flexible
`(programmable pipeline) or
`scalable (more processors could be
`added)
`
`Sur-reply at 23, 25; Ex. 2017 at 105:8-106:4, Ex. 2020 ¶ 61
`
`27
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 5: increased benefits over a single processor
`
`Thelen is already multi-processor, thus not relevant
`
`Sur-reply at 26
`
`28
`
`
`
`The evidence proves no motivation to combine
`
`Pet. false motivation 6: reduce duplication of lexical data
`
`Petitioner’s Reply states combination would require
`duplication of lexical data. Paper 21 at 21-22.
`
`Other problems with the combination would defeat a
`motivation to combine regardless
`
`Sur-reply at 26-27
`
`29
`
`