Sajuveekanalisatsiooni ehitamise rahastamise leping

SK KOKKUVIIMINE VP Projekt OÜ tingmärgid: E PIIR V1 Projekteeritud EP staadiumis maj-joogivee torustik SK V1 Projekteeritud EP staadiumis maj-joogivee torustik kinnisel meetodil AHTUD 79.5 V13 Projekteeritud EP staadiumis toorveetorustik TÖÖM74+50 K1 Projekteeritud EP staadiumis olmekanalisatsioon PK 13 SK K1s Projekteeritud EP staadiumis survekanalisatsioon K2 Projekteeritud PP staadiumis sademevee kanalisatsioon K21 Projekteeritud PP staadiumis sademevee kanalisatsioon (kinnistu kanalisatsioon) X 1 2 RIIA TN 2 79.2 79.1 1 K2s Projekteeritud PP staadiumis sademevee kanalisatsiooni survetoru 3 3 W1.1 V12 Projekteeritud EP staadiumis maj-joogivee torustik (AS Tartu Veevärk töövõtu maht) 1 79. X W1.1 K11 Projekteeritud EP staadiumis olmekanalisatsioon (AS Tartu Veevärk töövõtu maht) X K2 K22 Projekteeritud PP staadiumis sademevee kanalisatsioon (AS Tartu Veevärk töövõtu maht) X Projekteeritud hülss torustikul 79.3 W1.1 Olemasolev olmekanalisatsioon X K K 79.2 X Olemasolev sademevee kanalisatsioon W1.1 SK SK X X X Olemasolev veetorustik X X X 2 2 79. Likvideeritav torustik .2 SK X X SK X L=43K 79.6 Projekteeritud restkaev (neeluluuk) W1.1 X Projekteeritud restkaev (nelinurkne restluuk) X W1.1 79.4 de315 Projekteeritud mururestkaev (kuppelluuk) X Riia tn K2 X GEODEETILINE MÕÕDISTUSPUNKT KAITSTA! 79.3 X 3 W1.1 X 79. X X 79.5 K2 X W1.1 X W1.1 BUSSIPAVILJON KOOS KÕIGE SINNA KUULUVAGA 1.1 TÕSTA ÜMBER NÄIDATUD ASUKOHTA 1.1 W X .1 W1.1 W11 W .1 W1.1 W1.1 W1 2 X 4 X 3 12.5 79.6 X 79.7 X W1.1 W1.1 K2 X 315 L= 4 79. K2 W1.1 79.4 X X X de 1 L=13.4 4 X de200K2 2 3 X X X 5 79.6 X 4. X 1 L= 0 2 20 K KWXs1.1X 79.3 A X X 2 79.3 .5 de =26K otsakork de110 79.7 X 79.5 W1.1 79.4 X W1.1 e315 L X X 5 .4 79. 79 X K2 d .5 otsakork de160 X W1.1 79 W1.1 79.8 W1.1 X 2 otsakork de160 L=21.5 1 K2 X Ko de200 X .6 K2 79 Kb 1 2 6 X 79. otsakork de110 X 3 W1.1 X W1.1 W1.1 .7 BUSSIPAVILJON KOOS KÕIGE SINNA KUULUVAGA 79 X 79.6 K2 TÕATA ÜMBER NÄIDATUD ASUKOHTA X X X 79.6 79 W1.1 otsakork de110 .8 X W1.1 X otsakork de110 2 W1.1 V1-2 (olev kaev 3 siibriga) K 79.7 X X 79.7 79.6 79.8 .2 X .7 W1.1 X 79 L=49 otsakork de160 79 .7 ° X 23.67 otsakork de160 de315K2 otsakork de160 X W1.1 1° W1.1 79.6 X .0 79. 33 X X W1.1 X otsakork de110 6 79 . 6 79 .7 79 79 .6 79 K2 .6 X .5 W1.1 79 W1.1 X X 79.4 .4 X 7 79.5 79.4 79. 79.4 79 79.45 79.45 RIIA TN .5 W1.1 TN X X 79 79 79. I V1 TUV 79.5 .5 79.5 79.4 .6 otsakork de110 NÄHTAVUSKOLMNURK 5 79 K2 W1.1 V71 79 X W1.1 .2 79.3 .5 9. 79.4 4 V1 X=20.6 79.4 79.4 32 1 K2 V1 L de250 79.5 79 X 4 .5 X K2 V1 X79. 79 de 4° 9 1 10079.4 3 2 .4 1 6. 79 20 15. .4 5 V1 4 79.4 79.6 =1 .1 0L 79 4 m( 79 00K2 5 =1 .3 79.3 L K2 W1.1 79.3 A TN V1 V= X W1.1 2.3 V1 X K2 50 79.3 2 W X RA 1.1 de RII 79.3 79.3 K2 W1.1 79 W1.1 HU 2 W1.1 X 79 . .4 79X 5 79 W1.1 79. .1 L .3 .1 DA D 79 W1 PROJ.LUMESTEN X V) .3 X .1 79 .1 W1 V719 79 .2 79.2 X X 78.9 39 79.3 79.1 .4 4 12 78 .8 79. WX1.1 L=42 2 .9 78 00 79 .9 79X K 0 . .1 .1 9 78. K0 X 79 .2 79 79.2 PR 2 2 .2 78.9 79.2 79 2 2 .8 2 2 3 2 2 W71.19 79.1 78. W1.1 78 7 9. .3 1 X 2 V1 1 78.8 8 2 1 V1 V1 2 0 1 1 2 79.1 1 X 1 1 X 79.1 de25 K11 79.0 1 78.7 K22 1 K11 V12 79 K22 1 K11 1 V12 K22 79 .3 79.1 K11 V1 79 V12 V1 K22 K2 79.1 .2 78.9 V1 K11 V1 P3 V12 K22 de160 L=18.5 K11 .1 K2 K11 78.7 3 X 0 L=28.0 L=14.1 K11 K22 79.2 79. de16P025 L=25 V1 50L=25 de16 .3 V1 42 5 3 1 K11 23 de315 K11 1 78.8 K2 K2 1 3 V1 3 .2 1 K2 79.2 2 V1 K11 V1 K11 25 6 1 de31 K11 K11 78.7 3 1 K2 79.0 V1 0 L=26.9 4 X V1 de16 V1 1 1 K2 K2 2 3 4 V1 P 100 L=20 de16 .6 L=22.3 3 K11 K2 2 79.2 78.8 4 79 3 2 1 K11 K2 .0 V1 0 L=28.6 V1 1 5 K11 3 2 79.2 de31 K2 78.9 2 X K11 2 3 79 0 5 4 K2 de315 L=27.9 78. 1 79. .2 1 2 79.0 78.8 de25 K2 1 1 3 K2 79 9 2 3 K2 2 1 K2 K2 de200 L=15.1 X 79.2 X X .1 . 2 79.0 1 79.1 K2 23 78.8 79. 79 X 79 79.1 W1.1 de110 L=16.6 0 79.0 78.9 W1 1 X .0 79.2 K2 78.9 .1 79.1 79.2 79.1 V1 X 79.1 .1 79 79.1 0.00° 00 0.0 .0°0° 3 2 79.1 K2 79 78.8 V1K1 78.9 K2 .1 X W1.1X .1 K2 78.9 78.8 W1.1 79.0 78.9 79 79. W1 79.1 79.1 78.9 X 0 .0 W1.1 K2 0.00° 79 9 .1 79.0 78 X 79.0 1 INN 2 it B 79.0 .1 W1.1 .9 K2 . NWi 1 78 8 W1.1 L a tn 3 W1.1 W1.1 W1.1 X X 100 m (V=50 78.9 TU PIIR . 78.9 W1.1 W1.1 W1.1 W1.1 78 7 W1.1 W1.1 .0 R R 78.9 79.0 AHULDAV) W1.1 1 79 A 1 78.8 T UDE ET 78.8 ik W1.1 W1.1 1 79. X 79.0 W1.1 . W1.1 W1.1 L=20 2 78 6 TN W1.1 W1.1 s W1.1 W1.1 X V .7 X RIIA ringr. 79.1 79.1 K AHTTEEAM 2 78.7 2 a . W1.1 it B 78 10 m 79.2 78 A a 78 X RII .3 LUMESTENDI ASUKOHT 79.2 X 78.6 79.W31.1 1 .5 M Ni 78.9 .8 m ÖÖ AAN 8 X 78 7 4 TUVI TN 79.3 e2 78.9 .2 t s T . 78.5 TARTU LINN 78.7 .0 TUVI TN 79.35 78 0 79 0 Me M VEOKI PARKLA X 78 2 78.4 de25 .3 + X 78 RIIA ringr. MAANTEEAMET 9.1 e .1 6 X 78 t 77 37 78.3 7 77 .2 K2 3 78 77 77 78 1 K1 77 .9 .2 a 79. 77.5 .8 X .5 V1 79 .0 j . .7 X .6 7 . 78.2 W1 X P P 14 X 8 .2 .6 gu 77 77.4 7 79.3 .1 it A 79 .0 78.1 8 X 78 7 7 9 1 X Ni 78.0 ' X Ko 23 X 79.2 'N X . X .1 W1.1 W1.1 W1.1 5 4 .8 W1.1 77 78 .6 W1.1 XW1 W1.1 X 77.9 .0 .8 .1 78 .5 P . 79 7 X X 78.6 79 78 4 7 7.8 Pa X 7 77.7 1 V X 1 X .7 V W1. 78. .3 79.2 X 77 6 Pa 79.1 W1.1 W1.1 78 2 79.3 W1.1 it A 79. X . 78. 4 .7 .1 77 77.6 Ni .1 78.1 X W1 78 W1.1 X .5 79 78.0 7 7 77.5 X 79.0 77.9 ' .4 'N .3 X 77.4 .0 77.8 79.3 77 3 X 79 .7 79 77.7 X 77.3 1 77 . P . 2 . 77 77.6 79 79 X Pa X 77.2 .0 77.5 .2 .1 W1.1 W1.1 W1 V W1.1 .1 7 79 .9 V1 77.4 W1 7 77X.1 78.7 Pa 78 .1 77.3 79.2 X 15Y 77 X 77.0 77.2 16Y ' X 'N .1 .0 76.X9 77.1 .1 V 77 W1 W1 X .1 77.0 .9 X W1 X 8 Pa P .9 76. 7 78.9 76 X W1.1 76 .8 Pa X X 76.X 6 X X 79.1 1.1 V1 76 .7 .8 W1.1 W Ko 79 76 76. .5 W1.1 1.1 25 de250 L= X W1.1 W 76 6 W1.1 79.2 W1.1 X it A 76 .5 .1 6 .7 76 X 4 X 78. 8 0.00° 2.54° W1.1 W 1.1 Kb K2 6.3 79 7 79. . WW1.1.11 de200 L=15.8 76 .4 . W1.W11.1 9.3 3 Ni .6 76 3X X 4 1 24.7 .0 2 76 de250 L= K2 W1.1 W1.W11.1 X 78 =1 79.3 76 6.3 7 .8 . it B 76 .2 W1.W11.1 K2 .5 79.3 X .9 78 K2 0L 76 7 79.4 Ni 76 78 K2 1 79.4 3 X .8 79 L=31.9 X 4 X 7 . K2 20 6 .1 W1.1 de250K2 2 .1 76 76.1 V1 79. W11.1 W L=13.2 X 79.4 W1.1 Va de .3 78 0 .2 L 77.7 7 6 .7 K2 W1.1 X E263. LÕIK X 1 Pä W1.1 Kb N .1 78.8 79.3 X 76.0 76 W11.1 79.2 76.2 77.6 W RIIA ringr. 77.6 W1.1 3 2 Kb . X 5.54° it A 0.00° 76 75.9 X 1 V1 de200K2 79 Ko 2 77.5 76.1 .0 75.8 1.1 W1.1 . 79.2 W1.1 it B Ni W 1 1 3 1.1.11 X N En 25W 2 W1.1 12 77.4 W.3 Ko 75.7 X K2 76.0 Wd1.e1315 L= 3 X 1 Ni X Kb W 79.1 W1.1 Lp 75. K2 V1 K2 7 .9 dWe13.1 5 6 Kb 75.9 3 77.3 X 75=159.5 78.9 2 78.9 3 W1.1 W1.1 S K2 15 79.0 'E' X W1.1 Kd X 75.8 L . 1 7 4 L=2 de250 L=28K2 77.5 78.9 78 X 85 X 78 W1.1 78. .4 76.3 78. 76.4 77.2 76.2 78. 4755 .3 79.5 76.5 8.2 78. Ko 76.6 Hb 78. .9 V1 76.7 .8 78. 75.7 de .2 76 WX1.1 78. K2 76.8 78. 77. 77. 77. 7 77.6 77.3 77.4 77.5 76.9 77.0 77.1 77.2 6 S V1 W1.1 5 K2 X 1 75 4 75 9 W1. 3 .1 Kd Kb 77.1 74 2 75.6 W1.1 1 0 .1 9 79.6 8 W1.1 7 X K2 .0 76 . W1.1 78 X 2 .0 X W1.1 1 X 1 .85 75 En .5 74.8 .1 .5 K2 75 L=23 .85 .9 79.7 3 77 Lp 2 75. e458 Ko W1.1 X 8 X X X 8 N S d W1.1 K2 75 V 7 K2 .0 Kb W1.1 Kd 75.7 X Kb 77 V1 .3a 1 74.8 74.9 75.0 79.8 75.1 2 7.3 W1. .2 75.4 2,8% W1.1 2 W1.1 de250 L= 5P .4 1 78.8 X 2 78.8 75.6 .5 1 K2 it B W71. .6 82 1 6.8 X Va 3 .7 82 15 L=3 K2 X K2 .8 82 W1.1 3 4 78.75 75.5 W1.1 82 de3 Ni .9 .91 82 .0 82 2 3 X X X 79.8 X 76 K2 X W1.1 .1 79.9 W1.1 K2 1 78.75 K2 83 75.4 .2 PRO 75.3 83 2 .3 .7 'E' =40K .8 K2 W1.1 83 80.0 .4 L sp W1.1 W1X Hb X J. P 2 4 de200 S 83 76 75.3 .5 78.7 X S 3 W1.1 2 1 83 UH .6 Kd 78.7 79.9 83 Kd 78. 2,8% S .7 En KEK K2 1 W1.1 83 2 9 Kd 3 83 V1 X OH 79. W1.1 2 T 79.8 K2 7 .8 84. K2 W1 .1 75 it B 3 o W1.1 .9 78.8 9 1 78. 83 .0 K .1 79.7 .2 77.4 83 78.6 K2 .2 78.6 .1 Ni 84 X 79.5 X Kb 2 79. W1.1 2,5% 75 84 6 79.6 W1.1 X X 1 X W1. .4 W1.1 .3 79.8 W1.1 7X 9.4 2 5 78.7 84 X 84 75.3 78.5 79.5 . 79 X 84 78.5 W1.1 3 1 .5 79.4 X 79.3 X 79 W1.1 2 75.4N K2 K2 sVp1 X X K2 Ko 79.7 W1.1 .6 .4 79.3 X79.2 Kb 79.3 7 78.4 W1.1 .8 84 .9 . 2,5% X L=49 K2 84 79.2 78 78.4 .9 E263. LÕ 0 W1.1 84 En 5. de250 2 X 75.5 Kb 79.6 X W1.1 .6 84 79.1 X .22 8 K 79.2 79. X 1 W1.1 79.1 =42K PROJ. MÜRATÕKKESEIN W1. W1.1 .1 K2 K2 79.5 X W1 t B 85 78 RIIA ring X 0 .1 W1.1 Ko TÜÜP MS 2.2 K2 78. 3 W1.1 5.2 K2 X W1 75.6 .9 78 i X 3 79.0 X 3 Ni 1 W1.1 X 2 8 Kb 77. 75.7 75 75.4 W1.1 79.4 IK 2 .8 L=160m 200 L .1 K2 W1 78 75.8 K2 V1 75.9 X 78.6 .7 .1 W1.1 .3 W1.1 76.0 .5 85 78.9 =50.0 K2 7 .3 76.1 e200 L K2 r. X 7 8.6 85 78 X 2 76.2 W1.1 85.6 W1.1 X d K2 76.3 .2 788. .7 .4 1 79.3.1 .6 1