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Implementation and Application of High-Performance Empirical Dynamic Modeling
学際大規模情報基盤共同利用・共同研究拠点 第15回シンポジウム での発表
Keichi Takahashi
July 06, 2023
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18 slides
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౦େֶαΠόʔαΠΤϯεηϯλʔߴڮܛஐ Gerald M. Pao, Salk Institute for Biological Studies Implementation
and Application of High- Performance Empirical Dynamic Modeling ֶࡍେنใج൫ڞಉར༻ɾڞಉݚڀڌ ୈճγϯϙδϜ ݄ jh220050ࠃࡍڞಉݚڀ՝ -
&NQJSJDBM%ZOBNJD.PEFMJOH &%. w ඇઢܗ࣌ܥྻσʔλͷੳɾ༧ଌͷͨΊͷ৽͍͠ख๏܈ w ϞσϧϑϦʔͳख๏Ͱ͋Γɼ؍ଌσʔλͷΈʹΑΓσʔλۦಈతʹੳ w 5BLFOTͷຒΊࠐΈఆཧ< >ʹج͖ͮԆ࠲ඪܥΛ༻͍ͯྗֶܥΛ෮ݩ 2
ݩͷྗֶܥ ࠶ߏ͞Εͨྗֶܥ ؍ଌ࣌ܥྻσʔλ ඍಉ૬ ˺ہॴతͳ͕ۙؔҡ࣋ [1] Floris Takens, “Detecting strange attractors in turbulence,” LectureNotes in Mathematics, vol. 898, 1981, pp. 366-381. [2] Ethan Deyle and George Sugihara, “Generalized theorems for nonlinear state space reconstruction,” PLoS One, vol. 6, no.3, 2011. -
&%.ͷద༻ྫҨࢠൃݱྔͷ࣌ؒมԽ 3 300 250 200 150 100 50 0 180
160 140 120 100 80 60 90 80 70 60 50 40 30 20 10 0 YHP1 YHP1 CLN3 YOX1 0 10 20 30 40 50 60 70 80 90 :)1 :09 $-/ Ҩࢠͷൃݱྔ ૬ؔඇৗʹऑ͍ $-/ͱ:09ͷ ຒΊࠐΈ $-/ͱ:)1ͷ ຒΊࠐΈ :)1 :09 $-/ͷ ຒΊࠐΈ Ҩࢠൃݱྔͷଞʹɼੜଶܥͷಈଶɼਆܦ׆ಈɼಓ࿏ަ௨ͷަ௨ྔɼͳͲɼ ඇઢܗྗֶܥͱͯ͠ϞσϧԽͰ͖ΔγεςϜͷଟ͘Ͱ༗ޮͰ͋Δ͜ͱ͕ࣔ͞Ε͍ͯΔɽ -
4JNQMFY1SPKFDUJPOʹΑΔظ༧ଌ 4 ࣌ܥྻΛ࣌ؒΕ࠲ඪܥΛ༻͍ͯঢ়ଶۭؒʹຒΊࠐΉ ݱࡏͷঢ়ଶͷ͕ۙɼ࣍ͷ࣌ؒεςοϓͰͲͷΑ͏ʹಈ͍͔ͨௐΔ ঢ়ଶ͕ྨࣅ͍ͯ͠Δɼ࣍ͷ࣌ؒεςοϓͰঢ়ଶ͕ྨࣅ͍ͯ͠Δͱߟ͑ΒΕΔ
࣍ͷ࣌ؒεςοϓʹ͓͚Δ֤ۙͷঢ়ଶͷॏΈ͖ฏۉ͔Βɼݱࡏͷঢ়ଶͷ ࣍ͷ࣌ؒεςοϓʹ͓͚Δঢ়ଶΛ༧ଌ͢Δ ࣍ͷ ࣌ؒεςοϓ -
4JNQMFY1SPKFDUJPOʹΑΔظ༧ଌ 5 ؍ଌ࣌ܥྻͷ࣌ؒΕΛ ࣍ݩͷঢ়ଶۭؒʹຒΊࠐΈ ঢ়ଶۭؒʹ͓͚Δ ͷ
ݸͷۙΛ୳ࡧ ۙͷ εςοϓޙͷࢦॏΈ͖ฏۉΛܭࢉ ͍ۙۙॏΈ͕େ͖͍ E X(t) x(t) = (X(t), X(t − τ), …, X(t − (E − 1)τ)) x(t) E + 1 x(t1 ), x(t2 ), …, x(tE+1 ) Tp ̂ x(t + Tp ) = E+1 ∑ i=1 wi ∑E+1 j=1 wj ⋅ x(ti + Tp ) wi = exp { − ∥x(t) − x(ti )∥ min ∥x(t) − x(ti )∥ } εςοϓޙ Tp x(t1 + Tp ) x(t2 ) x(t1 ) x(t2 + Tp ) x(t3 ) x(t3 + Tp ) -
࣌ܥྻ ͱ ΛͦΕͧΕঢ়ଶۭؒʹຒΊࠐΉ ঢ়ଶۭؒʹ͓͚Δ ͷۙΛ୳ࡧ ͷۙͷใΛ༻͍ɼ
ͷະདྷΛ༧ଌ ͕ Λߴ͍ਫ਼Ͱ༧ଌͰ͖ΔͳΒɼ l$$.DBVTFTz X(t) Y(t) x(t) x(t1 ), x(t2 ), …, x(tE+1 ) x(t) y(t) X(t) Y(t) Y(t) X(t) $POWFSHFOU$SPTT.BQQJOH $$. ʹΑΔҼՌੳ 6 ̂ y(t + Tp ) = E+1 ∑ i=1 wi ∑E+1 i=1 wi ⋅ y(ti + Tp ) wi = exp { − ∥x(t) − x(ti )∥ min ∥x(t) − x(ti )∥ } ˞࣮ࡍ࠷దͳຒΊࠐΈ࣍ݩɾ࣌ؒΕͷܾఆɼσʔλͷ૿ՃʹΑͬͯ ༧ଌਫ਼্͕͢Δ͔ͷऩଋੑఆͳͲ͕͞Βʹඞཁ -
λʔήοτΞϓϦέʔγϣϯ w $$.ҼՌੳʹΑΓɼΧϧγϜΠϝʔδϯάʹΑΓܭଌͨ͠શͷ ਆܦࡉ๔ؒͷҼՌؔωοτϫʔΫΛੳ w ສ࣌ؒεςοϓͷສݸͷ࣌ܥྻؒͷશମશͰ$$.ҼՌੳΛߦ͏ͱɼ ԯ࣌ܥྻରͷ$$.ܭࢉ͕ඞཁ 7
θϒϥϑΟογϡ༮ੜ ޫγʔτܬޫݦඍڸ ਆܦ׆ಈ ਆܦࡉ๔ؒͷҼՌؔ -
Dataset # of time series # of time steps cppEDM
512 nodes mpEDM 1 node mpEDM 512 nodes Fish1_Normo 1,450 53,053 8.5h 1,973s 20s Subject6 3,780 92,538 176h* 13,953s 101s Subject11 8,528 101,729 1,081h* 39,572s 199s ։ൃͨ͠ฒྻࢄ$$.ͷੑೳ 8 1,530x ߴԽ 7,941x ࢿݯݮ (8,704 USD→1.1 USD) 'JTI@/PSNPσʔληοτͷॲཧ࣌ؒΑΓ֎ૠ [1] Wassapon Watanakeesuntorn et al., “Massively Parallel Causal Inference of Whole Brain Dynamics at Single Neuron Resolution,” 26th International Conference on Parallel and Distributed Systems (ICPADS 2020), Dec. 2020. ۙ୳ࡧΛ(16্ʹΦϑϩʔυ͠ɼෳϊʔυɾ(16ʹରԠͨ͠$$.࣮Λ։ൃ<> ࢈૯ݚ"#$* 7ϊʔυ ͰੑೳධՁ -
ۙࣅLۙ୳ࡧʹΑΔେنσʔλͷରԠ w ϕΫτϧ୳ࡧϥΠϒϥϦ'"*44Λ༻͍ɼҎԼͷۙࣅతLۙ୳ࡧΞϧΰϦζϜ Λ&%.ʹ࣮͠ɼൺֱධՁ w *OWFSUFE'JMF*OEFYσʔλΛΫϥελϦϯά͠ɼΫΤϦͷۙͷΫϥ ελͷσʔλͷΈ୳ࡧ w LE5SFFۭؒΛ࠶ؼతʹฏ໘Ͱׂ͠ɼΫΤϦؚ͕·ΕΔ෦ۭؒͷ पลͷΈ୳ࡧ
w )JFSBSDIJDBM/BWJHBCMF4NBMM8PSME )/48 σʔλΛͱ͢Δάϥ ϑߏΛߏங͠ɼΫΤϦʹྨࣅͨ͠Λᩦཉతʹ୳ࡧ w ςετσʔλͱͯ͠-PSFO[ํఔࣜͷղΛ༻ 10 -
ۙࣅL//୳ࡧΛద༻ͨ͠ࡍͷ࣮ߦ࣌ؒ 11 1×10-1 1×100 1×101 1×102 1×103 1×104 1×104 1×105
1×106 Runtime [ms] L CPU Exact GPU Exact CPU IVF GPU IVF CPU HNSW CPU K-D Tree 1×10-1 1×100 1×101 1×102 1×103 1×104 1×104 1×105 1×106 Runtime [ms] L CPU Exact GPU Exact CPU IVF GPU IVF CPU HNSW CPU K-D Tree E = 1 E = 20 $16ຒΊࠐΈ࣍ݩ͕࣍ݩͷ߹LE5SFFɼߴ࣍ݩͷ߹)/48͕ߴ (16࣌ܥྻ͕͍߹શ୳ࡧɼ͍߹*7'͕ߴ ສεςοϓͰ ඵະຬ YߴԽ YߴԽ -
ۙࣅL//୳ࡧΛద༻ͨ͠ࡍͷ༧ଌਫ਼ 12 0.001 0.01 0.1 1 10 1×104 1×105 1×106
MAPE L Exact IVF HNSW K-D Tree 0.001 0.01 0.1 1 10 1×104 1×105 1×106 MAPE L Exact IVF HNSW K-D Tree 0 0.2 0.4 0.6 0.8 1 1×104 1×105 1×106 Recall L Exact IVF HNSW K-D Tree 0 0.2 0.4 0.6 0.8 1 1×104 1×105 1×106 Recall L Exact IVF HNSW K-D Tree Lۙ୳ࡧͷਫ਼ ۙͷ3FDBMMͰධՁ 4JNQMFY1SPKFDUJPOͷਫ਼ ."1& .FBO"CTPMVUF1FSDFOUBHF&SSPS ͰධՁ E = 1 E = 20 E = 1 E = 20 L//ͷ3FDBMM͕Լͯ͠ɼ4JNQMFYͷ."1&ఔͷ૿ՃˠۙࣅL//͕ޮՌత ۙࣅL//ݫີͳUPQLͰͳͯ͘ɼۙͷΛฦ͢Մೳੑ͕ߴ͍͔Β͔ σʔλ͕ີʹ͍ͯ͠Δ͜ͱ͕લఏͳͷͰɼ࣮σʔλͰͷධՁ͕ඞཁ શ୳ࡧͱͷࠩ 3FDBMMԼ -
جιʔτ 14 330 100 010 212 030 323 021 102
002 121 330 100 010 030 212 102 002 323 021 121 -4%جιʔτ O E 100 102 002 010 212 021 121 323 330 030 002 010 021 030 323 330 100 102 121 212 330 100 010 212 030 323 021 102 002 121 010 030 021 002 100 102 121 212 330 323 002 010 021 030 100 102 121 100 102 .4%ج෦ιʔτ O E L 7&ɼ(16ͰฒྻԽɾϕΫτϧԽ͕༰қͳجιʔτͷ༻͕Ұൠత (16ͰɼL͕খ͍͞߹ʹώʔϓιʔτΛ༻ -
5PQL୳ࡧͷ࣮ߦ࣌ؒ 15 0.01 0.1 1 10 100 1000 1000 10000
100000 1x106 Runtime [ms] Length of vector STL full sort STL partial sort ASL full sort LSD radix full sort MSD radix partial sort L 0.001 0.01 0.1 1 10 100 1000 1×103 1×104 1×105 1×106 Runtime [ms] Array length (N) STL partial sort (VE) MSD radix partial sort (VE) STL full sort (Xeon) STL partial sort (Xeon) LSD radix full sort (Xeon) MSD radix partial sort (Xeon) w $ 45-ιʔτ TUETPSU ɼ$ 45-෦ιʔτ TUEQBSUJBM@TPSU ɼ/&$"4-ιʔτ BTM@TPSU@ ɼ-4%جιʔτ /&$ͷ044 ɼ.4%ج෦ιʔτ ಠ࣮ࣗ Λൺֱ w 7FDUPS&OHJOF5ZQF#ͱ*OUFM9FPO4JMWFSͷίΞಉ࢜Λൺֱ 9FPOͰͷ TUEQBSUJBM@TPSU͕ ৗʹ࠷ -
࣮σʔλͰͷੳ݁Ռ 16 /PSNPYJB ਖ਼ৗࢎૉೱڥ )ZQPYJB ࢎૉೱڥ θϒϥϑΟογϡ ΧϧγϜΠϝʔδϯά
ܭଌ݁Ռ ສχϡʔϩϯ ࣌ܥྻ Ͱग़ྗ(#ఔ -
ݚڀۀҰཡ ֶज़จ ࠪಡ͋Γ • Keichi Takahashi, Kohei Ichikawa, Joseph
Park, Gerald M. Pao, “Scalable Empirical Dynamic Modeling with Parallel Computing and Approximate k-NN Search,” IEEE Access. (in print) ࠃࡍձٞൃද ࠪಡͳ͠ • Keichi Takahashi and Gerald M. Pao, “Challenges in Scaling Empirical Dynamic Modeling,” 34th Workshop on Sustained Simulation Performance, October 24-25, 2022. ެ։ιϑτΣΞ • kEDM: https://github.com/keichi/kEDM ͦͷଞ • Keichi Takahashi, Kohei Ichikawa and Gerald M. Pao, “Toward Scalable Empirical Dynamic Modeling,” Sustained Simulation Performance 2022, Springer Cham, 2023. (in print) 17 -
·ͱΊͱࠓޙͷ՝ w ۙࣅLۙ୳ࡧ&%.ʹ༗ޮͰ͋Γɼ3FDBMM͕ͯ͘&%.ͷ݁ՌͷӨڹগ w σʔλͷಛੑʹґଘ͢ΔՄೳੑ͕͋ΔͷͰɼ࣮σʔλΛ༻͍ͯධՁ w 7FDUPS&OHJOF্Ͱͷ5PQL୳ࡧ9FPOΑΓੑೳ͕͍ w ڑܭࢉͱ5PQL୳ࡧΛͦΕͧΕ7&ͱ$16Ͱ୲͢Δ w
ۭؒॆరۂઢΛ༻͍ͨ7FDUPS&OHJOF্ͰͷۙࣅL//୳ࡧख๏<>ΛධՁ w ଟมͷ4JNQMFY1SPKFDUJPOΛωοτϫʔΫ্ʹΈ߹ΘͤͨɼੜతϞσϧ ͷߏஙͱݕূ<> 18 [1] খࣉխ࢘Β, “ۭؒॆరۂઢΛ༻͍ͨϕΫτϧϓϩηοαʹ͓͚Δkۙ๏ͷߴԽ,” ୈ185ճHPCݚڀձ, 2022. [2] Gerald M. Pao et al., “Experimentally testable whole brain manifolds that recapitulate behavior,” arXiv:2106.10627, 2021.