光源変化シミュレーションと深層学習による特徴量変換を用いたカメラ位置姿勢推定
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(2) Vol.2017-CVIM-207 No.19 2017/5/10. ใॲཧֶձڀݚใࠂ IPSJ SIG Technical Report. ৾ಆ. ሺݔଵ ǡ ݕଵǡ ݖଵ ሻ. ৻્ඉभ৭ল. ীഘ. ३গঞش३ঙথ. ॹॱشঋش५. ્ඉীഘभেਛ. ংॳشকঝ્ඉद ছথॲইज़ঞ५ॺ॑৾ಆ. ীഘಀ. ਖ਼. োৡ൸. ৰ્ඉ॑ংॳشকঝ ્ඉषఌ. ਤ 2. . . ীഘ. ڭ. ংॳشকঝ൸. ঽഞ࿋ಀ৲ஓभ৾ಆ. ሺݔଶ ǡ ݕଶ ǡ ݖଶ ሻ. . ਯभৰ൸ ৰ્ඉपৌૢघॊ ংॳشকঝ્ඉभ৭උ. ংॳشকঝ ્ඉীഘ. . ৌૢघॊ્ඉীഘभ . ৰ્ඉীഘ 5$16$&द3Q3ਖ॑ ੰऎ. ఏҊख๏ͷֶश࣌ɼఆ࣌ͷྲྀΕ. ͯ DB Λ࡞͢Δख๏ΛఏҊͨ͠ [1]ɽ͜ͷΑ͏ͳख๏Ͱ. ثͷֶशσʔλΛੜ͠ɼֶशΛߦ͏ɽϥϯμϜϑΥϨε. ࣮ੈքͷରͷ CG ϞσϧΛར༻ͨ͠όʔνϟϧڥ. τ DB ͷಛྔΛֶशσʔλʹֶͯ͠शΛߦ͏ɽఆ࣌. Ͱଟ༷ͳޫͰڥݯͷը૾Λੜ͢Δ͜ͱʹΑΓɼޫݯม. ೖྗը૾ͷಛྔΛࣗ߸ූݾԽʹثΑͬͯόʔνϟϧը. ಈʹରͯ͠ͳʹ݈ؤΔ [2]ɽ·ͨόʔνϟϧը૾Χϝϥ. ૾ͷಛྔʹม͠ɼϥϯμϜϑΥϨετͰಛྔϚον. ͱ CG ϞσϧͷҐஔ͕طʹڞͰ͋ΔͨΊɼ֤ըૉʹରԠ. ϯάΛߦ͏ɽͦͷϚονϯάͷத͔Β RANSAC[10] Λ༻. ͢Δ 3 ࣍ݩΛਖ਼֬ʹಛఆͰ͖Δɽ͜ΕʹΑΓಉҰͷ 3 ࣍. ͍ͯޡରԠΛഉআ͠ɼPnP Λղ͘͜ͱʹΑͬͯࣗݾҐ. ʹݩରԠ͢Δಛྔू߹Λ 1 ͭͷΫϥεͱ͕ͱ͜͢ͳݟ. ஔਪఆΛߦ͏ɽ. Ͱ͖ɼಛͷରԠ͚ΛଟΫϥεྨͱͯ͠ղ ͘͜ͱ͕Ͱ͖ΔɽͦͷҰํͰɼγϛϡϨʔγϣϯͱͱ࣮ݱ. 2.2 ࣗ߸ූݾԽثͷԠ༻ʹΑΔဃͷղܾ. ͷؒʹဃ͕ଘࡏ࣮͠ը૾ͷಛྔͱόʔνϟϧը૾ͷಛ. ࣗ߸ූݾԽͱثೖྗ x ͱग़ྗ y ͕ಉ͡ʹͳΔΑ͏ʹ. ྔʹͣΕ͕ੜ͡Δ͜ͱ͕༧͞ΕΔɽ͜ͷ߹ɼ࣮ը૾. ֶश͞ΕͨॱൖܕχϡʔϥϧωοτϫʔΫʢNeural Net-. ͱ DB ͱͷಛྔϚονϯάʹࣦഊ͢ΔͨΊɼ࣮ը૾Λର. workʣͰ͋Δɽࣗ߸ූݾԽث࣍ݩѹॖσΟʔϓχϡʔ. ͱ͢ΔࣗݾҐஔਪఆͷਫ਼͕Լ͢Δɽ. ϥϧωοτϫʔΫʢDeep Neural Networkʣͷࣄલֶशʹ. ຊͰڀݚޫݯมಈͱဃΛಉ࣌ʹղܾ͢Δɼ. ༻͍ΒΕΔɽࣗ߸ූݾԽثͷԠ༻ʹೖྗը૾ʹਓతʹ. γϛϡϨʔγϣϯͱػցֶशΛͨ͠ʹجΧϝϥࣗݾҐஔਪ. ϊΠζΛ༩ͨ͠Γมͨ͠ܗΓ͢ΔͳͲͷલॲཧΛՃ͑. ఆख๏ΛఏҊ͢Δɽ·ͣχϡʔϥϧωοτϫʔΫͷҰͭͰ. ͯɼલॲཧΛ͔͚Δલͷը૾͕ग़ྗը૾ʹಘΒΕΔΑ͏ʹ. ͋Δࣗ߸ූݾԽثʢAutoencoderʣΛԠ༻࣮͠ը૾ͷಛ. ֶश͢ΔσϊΠδϯάʢDenoisingʣ͕͋Δɽ. ྔʹରԠ͢Δόʔνϟϧը૾ͷಛྔͷࣸ૾Λֶशͤ͞. ຊͰڀݚࣗ߸ූݾԽثͷσϊΠδϯάͰͷ͍ํΛࢀ. Δ͜ͱͰɼ࣮ը૾ͷಛྔʹରԠͰ͖ΔΑ͏ʹ͢Δɽ࣍. ߟʹͯ͠ɼ࣮ը૾͔ΒಘΒΕͨಛྔΛόʔνϟϧը૾͔. ʹϥϯμϜϑΥϨετʢRandom ForestʣΛར༻ͯ͠ಛ. ΒಘΒΕͨಛྔʹม͢ΔΑ͏ʹֶशͤ͞ΔɽҎ߱ɼ࣮. ྔϚονϯάΛߦ͍ɼಛྔϚονϯάੑೳͷ্ͱॲཧ. ը૾ͷಛྔΛʮ࣮ಛྔʯͱͼݺɼόʔνϟϧը૾ͷಛ. ࣌ؒͷॖΛਤΔɽ. ྔΛʮόʔνϟϧಛྔʯͱͿݺɽγϛϡϨʔγϣϯͰ. 2. ఏҊख๏ 2.1 ύΠϓϥΠϯ. ಘΒΕͨಛྔ Dk γϛϡϨʔγϣϯۭؒʹ͓͚Δ ̏࣍࠲ݩඪ pk ͱόʔνϟϧಛྔྻ {f ki } Ͱߏ͞ΕΔɽ ࣗ߸ූݾԽث·ͣόʔνϟϧಛྔ f ki ಉ࢜Λֶशσʔ. ఏҊख๏ͷύΠϓϥΠϯΛਤ 2 ʹࣔ͢ɽ·ͣطଘख๏ [1]. λ (f ki , f ki ) ͱͯ͠ࣄલֶशͤ͞ɼͦͷޙɼ࣮ಛྔ g j. ͱಉ༷ʹγϛϡϨʔγϣϯΛߦ͏͜ͱͰଟ༷ͳޫڥݯԼ. ͱͦΕʹରԠ͢Δόʔνϟϧಛྔ f kσ(j) Λֶशσʔλ. ͷόʔνϟϧը૾Λऔಘ͢Δɽͦͷόʔνϟϧը૾ͷಛ. (g j , f kσ(j) ) ͱֶͯ͠शͤ͞ΔɽࣄલֶशΛߦ͏ͷɼόʔ. ྔͷத͔Β Kurz Βͷख๏ [9] ͰΧϝϥࢹมಈʹͳ݈ؤ. νϟϧಛྔΛࣗมͤ͞Δͱ͖ͷؔࠩޡΛ࠷খʹ. දಛྔΛબग़͠ɼ3 ࣍࠲ݩඪ͕͍ۙಛྔΛάϧʔϓ. ͢ΔॏΈͱɼ࣮ಛྔΛόʔνϟϧಛྔʹมͤ͞Δͱ. Խͯ͠ಛྔΛ࡞ͯ͠ DB Λߏங͢ΔɽDB ͷಛ. ͖ͷؔࠩޡΛ࠷খʹ͢ΔॏΈ͍ۙҐஔʹ͋Δͱ༧͞. ྔͱগͷ࣮ը૾͔ΒಘΒΕΔಛྔΛ༻͍ͯࣗ߸ූݾԽ. ΕΔ͔ΒͰ͋Δɽ͜ͷΑ͏ʹֶशͤ͞Δͱࣗ߸ූݾԽثͷ. ⓒ 2017 Information Processing Society of Japan. 2.
(3) Vol.2017-CVIM-207 No.19 2017/5/10. ใॲཧֶձڀݚใࠂ IPSJ SIG Technical Report. Virtual. Ȱ௩௧௨. Virtual ਈວ১. Ȱ. ஜ౦৲. Ԅ Ʌ. Real. ୭. ୭. ୭. Real. ୭. ୭. ܭਈວ১. ਤ 3. ࠷ۙ๏ʹΑΔಛྔͷબʢࠨʣͱന৭Խͱ K ࠷ۙ๏ʹ ΑΔಛྔͷબʢӈʣ ͷιࠃΊ. ग़ྗ y(g j ) όʔνϟϧಛྔͱಉ͡Α͏ʹѻ͏͜ͱ͕Ͱ ͖Δɽ ਤ 4. ޫํݯʢࠨ্ʣ ɼ࣮͍༻ʹݧΔޫڥݯʢӈ্ʣ ɼΧϝϥҐஔ ʢࠨԼʣ ɼ࠶ӨࠩޡΛௐΔʢӈԼʣ. 2.3 ࣮ಛྔʹରԠ͢Δόʔνϟϧಛྔͷબ ࣗ߸ූݾԽثͷֶशʹ࣮ಛྔʹରԠ͢Δόʔνϟϧ ಛྔ͕ඞཁͰ͋Δɽ͜͜Ͱ࣮ը૾ In ͱɼ֤࣮ը૾ʹର Ԡ͢Δ͚͓ʹۭ࣮ؒݱΔ 3 ࣍࠲ݩඪΛը૾࠲ඪӨ͢Δ. ఆ͞ΕΔͷͰɼطଘख๏ [1] ͱൺֱͯ͠ޫݯมಈʹରͯ͠. Өߦྻ P n ͕طͱԾఆ͢Δɽ͜ΕΒ͔Β࣮ಛྔ g j. ΑΓͳʹ݈ؤΔͱظͰ͖Δɽ. ΛಉҰ 3 ࣍ʹݩରԠ͢Δͷಉ࢜ͰάϧʔϓԽ͠ɼόʔ. ͔࣮͠͠ը૾ͷίϯτϥετͳྖҬ͔ΒಛΛݕग़. νϟϧಛྔ Dk ʹରԠ͚ͮΒΕΔɽ͔࣮͠͠ಛྔ. ͢Δ߹ɼಛྔهड़ࢠͷᮢΛऑ͘ઃఆ͢Δඞཁ͕͋Δɽ. g j ͕Ͳͷόʔνϟϧಛྔ f ki ʹਅʹରԠ͢Δ͔ෆ໌. ͦͷΑ͏ʹͨ͠߹ DB ʹଘࡏ͠ͳ͍ಛݕग़͞ΕΔ. Ͱ͋ΔͨΊɼಛྔͷରԠ͚͕ʹͳΔɽ୯७ʹ࠷ۙ. ͕ɼϥϯμϜϑΥϨετΛ༻͍Δͱ͍ͣΕ͔ͷಛྔ. ͷόʔνϟϧಛྔΛબ͢Δͱਤ 3 ࠨͷΑ͏ʹͷ. ʹϚονϯά͢Δɽ͜ΕΒͷϚονϯά݁ՌΛ RANSAC. Ґஔ͕ͣΕ͍ͯͨ߹ɼDk ͷڥքۙࣸ૾͞ΕΔͨΊɼ. ೖྗ͠ͳ͍Α͏ʹ͢ΔͨΊɼϥϯμϜϑΥϨετͰಘΒ. ޙஈͷಛྔϚονϯά͕ࠔʹͳΔɽͦ͜Ͱຊख๏Ͱ. ΕͨϚονϯάͷ͏ͪ M ݸΛબग़͢ΔɽϥϯμϜϑΥϨ. ࣮ಛྔͱόʔνϟϧಛྔʹന৭ԽΛߦͬͯಛྔ. ετೖྗ g j ͕ಛྔ Dk ʹରԠ͢Δ֬ P (Dk |g j ). ͷରԠ͚Λߦ͏ɽന৭ԽʹΑͬͯฏͱۉࢄ͕ਖ਼نԽ͞. ΛٻΊΔ͜ͱ͕Ͱ͖Δɽͦͷ࠷େ maxk P (Dk |g j ) Ͱ. Εۭͨؒʹ͓͍ͯ࠷ۙͷಛྔΛٻΊΕɼਤ 3 ӈͷΑ. શͯͷϚονϯάΛ߱ॱʹฒͼସ͑ɼ্Ґ M ݸͷϚον. ͏ʹ֤࣮ಛྔ g j όʔνϟϧಛྔ Dk ʹຬวͳ. ϯάΛ࠾༻͢Δɽ. ࣸ͘૾͞ΕΔɽ͞Βʹ K ࠷ۙ๏Λ༻͍ͯ 1 ͭͷ࣮ಛྔ. 3. ࣮ߟͱݧ. ʹ͖ͭ K ݸͷόʔνϟϧಛྔΛରԠͤ͞Δ͜ͱͰɼࣗ ߸ූݾԽثͷֶशσʔλΛΑΓଟ֬͘อͰ͖Δɽ·ͨ K. 3.1 γϛϡϨʔγϣϯڥ γϛϡϨʔγϣϯ༻ͷϞσϧʹ DTU Robot Image. ͷΛ࣍ࣜͷΑ͏ʹόʔνϟϧಛྔ Dk ͕࣋ͭόʔ. Data Set ͷ MVS Set[11] Λར༻࣮ͯ͠ݧΛߦ͏ɽ͜ͷσʔ. νϟϧಛྔ |Dk | ʹԠͯ͡ௐ͢Δɽ. K = r. |Dk |. ληοτʹ 49 ͔ॴͷΧϝϥࢹ͔ΒࡱӨͨ͠ 7 छྨͷ. (1). ͜͜Ͱ r ൺΛද͢ύϥϝʔλͰ͋Δɽલஈͷදಛ ྔͷબग़ʹΑΓɼ|Dk | ͕େ͖͍΄ͲΧϝϥࢹมಈʹ݈ؤ ͳಛྔͰ͋Δͱ͑ݴΔͨΊɼϚονϯά͍͢͠ಛྔ Λॏతʹֶश͢Δ͜ͱ͕Ͱ͖Δɽ. 2.4 ϥϯμϜϑΥϨετʹΑΔࣝผੑೳͷ্ ຊख๏ͰϥϯμϜϑΥϨετΛ༻͍ͯಛྔϚονϯ άΛߦ͏ɽϢʔΫϦουڑϚϋϥϊϏε[ ڑ1] Λ༻ ͍ͨಛྔϚονϯάͱൺֱͯ͠ɼϥϯμϜϑΥϨετʹ ΑΔϚονϯάͰಛྔͷܗঢ়͕ෳࡶͳ߹Ͱਖ਼ ͍ܾ͠ఆڥքΛֶशͯ͠Ϛονϯά͢Δ͜ͱ͕ظͰ͖ ΔɽޫݯมಈʹΑͬͯಛྔͷܗঢ়ෳࡶʹͳΔͱ ⓒ 2017 Information Processing Society of Japan. ޫ͚͓ʹڥݯΔը૾σʔλͱɼͦͷը૾͔Β Structure. from MotionʢSfMʣΛ༻͍ͯ෮܈ͨ͠ݩσʔλ͕·ؚ Ε͍ͯΔɽ܈σʔλʹ৭ใ͕ܽଛ͍ͯͨͨ͠Ίɼը ૾σʔλΛ༻͍֤ͯʹରԠ͢ΔըૉͷதԝΛ ͷ৭ͱͯ͠࠾༻ͨ͠ [12]ɽ ޫݯมԽγϛϡϨʔγϣϯ Unity 5*1 ্Ͱߦ͏ɽޫݯ ʹฏߦޫ͋ͰݯΔ Directional Light Λ༻͍Δɽਤ 4 ࠨ ্ͷΑ͏ʹରΛத৺ͱ্ͨ͠ٿͷҐஔ (θ, φ) ΛมԽ ͤ͞ɼͦͷҐஔ͔Βରத৺Λ͘ํΛޫ͢ͱํݯ ΔɽDB Λੜ͢ΔͨΊͷը૾ਤ 4 ӈ্ʹࣔ͢ θ ∈ {10}ɼ. φ ∈ {30, 60, · · · , 150} ͷޫͰڥݯɼਤ 4 ࠨԼʹࣔ͢ 16 Օ ॴͷ͔Β֯Λ 5 ͣͭมԽͤͯ͞ࡱӨ͢Δɽ *1. https://unity3d.com. 3.
(4) Vol.2017-CVIM-207 No.19 2017/5/10. ใॲཧֶձڀݚใࠂ IPSJ SIG Technical Report. 3.2 ϥϯμϜϑΥϨετͷੑೳධՁ. . ͷͨΊʹɼόʔνϟϧը૾Λ༻͍ͨࣗݾҐஔਪఆ࣮ݧΛߦ ͏ɽςετʹ༻͍Δը૾ DB ੜ༻ͷը૾ͱผʹ༻ҙ ͢ΔɽΧϝϥҐஔΛϥϯμϜʹબ͠ɼରத৺Λ͍ ͯ 1 ޫͨ͋ڥݯΓ 100 ຕͷը૾Λੜ͢ΔɽࣗݾҐஔਪ ఆͷޭɼࣦഊਤ 4 ӈԼʹࣔ͢ 12 ͔ॴͷ੨ٿͷ࠶Ө. ঽഞਜ਼઼ਛ૨. ϥϯμϜϑΥϨετʹΑΔಛྔϚονϯάͷੑೳධՁ. ࠩޡʢRe-projection ErrorʣͰධՁ͢Δɽ. 1 E= 12. 12 . . ৰ્ඉँॉ. . ৰ્ඉऩख. . ||K[R|t]ui −. x∗i ||. . . . . ⃦க>SL[HO@. (2). i=1. ਤ 5. ࣮ಛྔͷ༗ແʹΑΔࣗݾҐஔਪఆޭͷࠩҟ. ͜͜Ͱ K Χϝϥͷ෦ύϥϝʔλߦྻɼ[R|t] ਪఆ͞ ΕͨΧϝϥҐஔ࢟ɼui ੨ٿͷ 3 ࣍࠲ݩඪɼx∗i ֤ς ετը૾ʹ͓͚Δ੨ٿͷ 2 ࣍࠲ݩඪͷਅͰ͋Δɽຊ࣮ݧ Ͱ 640 × 480 ͷը૾ʹରͯ͠ E < 5.0[pixel] ͳΒࣗݾ Ґஔਪఆʹޭͨ͠ͱ͢ͳݟɽ ൺֱख๏ͱͯ͠ϢʔΫϦουʹڑΑΔϚονϯάͱɼ ࠷ۙ๏ʢNearest Neighbor; NNʣʹΑΔϚονϯάΛߦ ͏ɽϢʔΫϦουʹڑΑΔϚονϯάɼςετը૾ͷ ֤ಛྔͱ DB ͷ֤ಛྔͷฏͱۉͷϢʔΫϦου ࠷͕ڑ͍ۙʹϚονϯά͢Δɽ࠷ۙ๏ςετ ը૾ͷ֤ಛྔͱ DB ͷશಛྔͱͷϢʔΫϦουڑ ͕࠷͍ۙʹϚονϯά͢Δɽ ࣮ݧͷ݁Ռɼද 1 ͷΑ͏ʹఏҊख๏͍ͣΕͷޫڥݯ. ਤ 6. ࣮ಛྔ͋Γʢ্ʣͱ࣮ಛྔͳ͠ʢԼʣͷϚονϯά݁Ռ. ʹ͓͍ͯ 90 %Λ͑Δਫ਼Λग़͓ͯ͠ΓɼϢʔΫϦο υʹڑΑΔϚονϯά࠷ۙ๏ͱൺ͍ͯ࣌ؒͰ. Δ͜ͱͰɼͱ࣮ݱͷဃʹରͯ͠ͳʹ݈ؤΔ͜ͱΛ֬ೝ͢. ఆͰ͖ͨɽ ڥ1ɼ5 র໌͕ରͷҰ෦ʹ͔ͨ͠Β. ΔͨΊ࣮ը૾Λ༻͍ͨࣗݾҐஔਪఆ࣮ݧΛߦ͏ɽ30 ຕͷ࣮. ͳ͍ͨΊɼಛྔͷܗঢ়͕ෳࡶʹͳ͍ͬͯΔ͜ͱ͕. ը૾Λࣗ߸ූݾԽثͷֶशσʔλੜʹ༻͍ͯɼͦͷ 30 ຕ. ఆ͞ΕΔɽϢʔΫϦουʹڑΑΔϚονϯάͰͦͷෳ. ΛؚΉ 60 ຕͰࣗݾҐஔਪఆΛߦ͏ɽఏҊख๏ͷ࣮ಛྔ. ࡶ͞ʹରԠͰ͖͍ͣޭͱͳ͍ͬͯΔ͕ɼఏҊख๏. Λόʔνϟϧಛྔม͢Δࣗ߸ූݾԽثΛ༻͍ͨ߹. ͦͷෳࡶ͞ʹରԠͰ͖ͨͨΊߴ͍ޭ͕ಘΒΕͨͱߟ͑. ͱɼֶशσʔλʹ࣮ಛྔΛ༻͍ͣʹόʔνϟϧಛྔΛ. ΒΕΔɽ·ͨɼϢʔΫϦουʹڑΑΔϚονϯά 1 ͭ. ࣗʹม͢ΔΑ͏ʹֶशͨࣗ͠߸ූݾԽثΛ༻͍ͨ߹. ͷಛྔʹ͖ͭ DB ͷશಛྔͱͷϚονϯάΛ. Ͱൺֱ͢Δɽͦͷ݁ՌΛਤ 5 ʹ·ͱΊΔɽਤ 5 640 × 480. ߦ͍ɼ࠷ۙ๏ 1 ͭͷಛྔʹ͖ͭ DB ͷશಛྔͱ. ͷը૾ʹର͢Δ࠶Ө ࠩޡE ͷᮢΛมԽͤͨ͞ͱ͖ͷࣗ. ͷϚονϯάΛߦ͏ɽҰํɼఏҊख๏ͰϥϯμϜϑΥϨ. ݾҐஔਪఆޭΛදͨ͠άϥϑͰ͋ΔɽఏҊख๏ͷ࣮ಛ. ετΛ༻͍ΔͨΊɼͷਂ͞ͷ͚ͩԋࢉΛߦ͑Α͘ɼ. ྔ͋Γͷࣗ߸ූݾԽثΛ༻͍ͨ߹ɼ80 %Ҏ্ͷը૾͕. ͍࣌ؒͰఆ͕Ͱ͖Δɽ. ࠶ӨࠩޡΛ 10 pixel ະຬʹ͑ΒΕ͓ͯΓဃͷӨ͕ڹ ड͚ʹ͘͘ͳ͍ͬͯΔ͜ͱ͕͔Δɽ. 3.3 ࣗ߸ූݾԽثͷੑೳධՁ. ਤ 6 ಉҰը૾ʹର͢Δ࣮ಛྔ͋Γͷࣗ߸ූݾԽثΛ. ࣗ߸ූݾԽ࣮ͰثಛྔΛόʔνϟϧಛྔࣸ૾ͤ͞. ༻͍ͨ߹ͱ࣮ಛྔͳ͠ͷࣗ߸ූݾԽثΛ༻͍ͨ߹ ͷϚονϯά݁ՌͰ͋Δɽ֤ਤͷࠨଆ͕ೖྗը૾Ͱ͋Γɼ. ද 1. όʔνϟϧը૾ͰͷࣗݾҐஔਪఆ࣮ݧͷ݁Ռ ޭ ఆ࣌ؒ [msec]. Env. Proposed Euclid. NN. Proposed. Euclid. ӈଆ͕ DB ͷಛྔʹϚονϯάͨ͠ҐஔΛද͠ NN. ͍ͯΔɽ࣮ಛྔͳ͠ͷϚονϯά݁ՌΛݟΔͱ΄ͱΜͲ ͷϚονϯά͕ࣦഊ͍ͯ͠Δɽ͜ͷ͜ͱ͔Βόʔνϟϧಛ. 1. 92%. 77%. 88%. 275.044. 638.552 17276.0. 2. 98%. 92%. 99%. 275.689. 717.094 20169.3. 3. 99%. 98%. 100%. 275.492. 1041.90 29407.4. ྔΛਖ਼ׂ͘͢͠Δ͜ͱ͕Ͱ͖ͳ͍͜ͱ͕͔Δɽैͬ. 4. 98%. 97%. 100%. 277.485. 1296.85 37202.6. ͯɼ࣮ಛྔͷͱόʔνϟϧಛྔͷͱͷؒʹͣ. 5. 97%. 87%. 94%. 276.681. 1073.62 30180.2. Ε͕ଘࡏ͢Δͱ༧͞ΕɼͦͷͣΕΛന৭Խͱ࣮ಛྔΛ. ⓒ 2017 Information Processing Society of Japan. ྔͰֶश͞ΕͨϥϯμϜϑΥϨετͷܾఆڥքͰɼ࣮ಛ. 4.
(5) Vol.2017-CVIM-207 No.19 2017/5/10. ใॲཧֶձڀݚใࠂ IPSJ SIG Technical Report. ༻͍ͨࣗ߸ූݾԽʹثΑͬͯղܾ͢Δ͜ͱ͕Ͱ͖ͨͱߟ͑ ΒΕΔɽ. [12]. 4. ࠓޙͷ՝ ೖྗը૾͔ΒಘΒΕΔ࣮ಛྔͷத͔ΒɼDB ʹରԠ͢ Δόʔνϟϧಛྔ͕͋ΔಛྔΛબ͢ΔΈͷಋೖ. sion and Pattern Recognition (CVPR), pp. 406–413, 2014. Daniel N. Wood, Daniel I. Azuma, Ken Aldinger, Brian Curless, Tom Duchamp, David H. Salesin, and Werner Stuetzle, “Surface Light Fields for 3D Photography,” ACM Annual Conference on Computer Graphics and Interactive Techniques (SIGGRAPH), pp. 287–296, 2000.. ͢Δɽ͜ΕʹΑΓɼߴͳࣗݾҐஔਪఆ͕ՄೳʹͳΔͱظ Ͱ͖Δɽ ँࣙ. ຊ ڀ ݚͷ Ұ ෦ JSPS Պ ݚඅ JP16H02858 ͱ. JP16K16100 ͷॿΛड͚ͨɽ ࢀߟจݙ [1]. [2]. [3]. [4]. [5]. [6]. [7]. [8]. [9]. [10]. [11]. Tomohiro Mashita, Alexander Plopski, Akira Kudo, Tobias H¨oellerer, Kiyoshi Kiyokawa, and Haruo Takemura, “Simulation based Camera Localization under a Variable Lighting Environment,” International Conference on Artificial Reality and Telexistence (ICAT), 2016. ౻ জ, Alexander Plopski, Tobias H¨ ollerer, ؒԼ Ҏେ, ਗ਼ ਗ਼, ଜ ࣏༤, “ҟͳΔޫ͚͓ʹڥݯΔը૾ಛͷ ݈ؤੑͷௐࠪ”ɼใॲཧֶձڀݚใࠂɼίϯϐϡʔλϏ δϣϯͱΠϝʔδϝσΟΞʢCVIMʣ, Vol. 2015, No. 65, 2015. Hirokazu Kato and Mark Billinghurst, “Marker Tracking and HMD Calibration for a Video-based Augmented Reality Conferencing System,” IEEE and ACM International Workshop on Augmented Reality (IWAR), pp. 85–94, 1999. Ronald Azuma, Bruce Hoff, Howard Neely III, and Ron Sarfaty, “A Motion-Stabilized Outdoor Augmented Reality System,” IEEE Virtual Reality (IEEE VR), pp. 252– 259, 1999. Javier J. M. Diaz, Rodrigo de A. Mau´es, Rodrigo B. Soares, Eduardo F. Nakamura, and Carlos M. S. Figueiredo, “Bluepass: An Indoor Bluetooth-based Localization System for Mobile Applications,” IEEE Symposium on Computers and Communications (ISCC), pp. 778–783, 2010. Yukiko Shinozuka, Francois De Sorbier, and Hideo Saito, “Specular 3D Object Tracking by View Generative Learning,” Irish Machine Vision and Image Processing Conference (IMVIP), pp. 9–14, 2014. Gilles Simon, “Tracking-by-Synthesis Using Point Features and Pyramidal Blurring,” IEEE International Symposium on Mixed and Augmented Reality (ISMAR), pp. 85–92, 2011. ബ ॆ ଞ, “ϥϯυϚʔΫσʔλϕʔεʹͮ͘ج੩ࢭը ૾͔ΒͷΧϝϥҐஔɾ࢟ਪఆ”, ຊόʔνϟϧϦΞϦ ςΟֶձจࢽ, Vol. 13, No. 2, pp. 161–170, 2008. Daniel Kurz, Thomas Olszamowski, and Selim Benhimane, “Representative Feature Descriptor Sets for Robust Handheld Camera Localization,” IEEE International Symposium on Mixed and Augmented Reality (ISMAR), pp. 65–70, 2012. Martin Fischler and Robert Bolles, “Random Sample Consensus: A Paradigm for Model Fitting with Applications to Image Analysis and Automated Cartography,” Communications of the ACM, Vol. 24, No. 6, pp. 381– 395, 1981. Rasmus Jensen, Anders Dahl, George Vogiatzis, Engin Tola, and Henrik Aanaes, “Large Scale Multi-view Stereopsis Evaluation,” IEEE Conference on Computer Vi-. ⓒ 2017 Information Processing Society of Japan. 5.
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