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As filler were used both test norm-sand (0 - 4 mm) and carbon powder Cond 896.
Components / COND Ref 1% 2% 3% 4% 5% 6% 7% 8% 9% 10% slag [g] 450 450 450 450 450 450 450 450 450 450 450 Susil [g] 90 90 90 90 90 90 90 90 90 90 90 sand [g] 1350 1350 1350 1350 1350 1350 1350 1350 1350 1350 1350 COND 896 [g] 0 4.5 9 13.5 18 22.5 27 31.5 36 40.5 45 0.5% Triton X100 [ml] 0 30 30 30 30 60 60 90 90 120 120 1% Lukosan S [ml] 0 5 5 5 5 10 10 15 15 20 20 water [ml] 185 150 155 160 165 135 140 110 115 85 90 Mixing method: Water - glass Susil and Triton treated graphite powder was put together with a part of water (about 100 ml) and stirred in a mixer for 1 min.

Properties of liquids used in the experiment Liquid type Density at 25oC (kg/m3) Kinematics viscosity (cSt) Surface tension at 20oC (N/m) Heat capacity at 40oC (J/goC) Latent heat (kJ/kg) Water 998 1.003 (20oC) 0.073 4.19 2,257 Alcohol 785.1 1.60 (20oC) 0.022 2.3 896 n-Hexane 654.8 0.683 (17.8oC) 0.018 2.26 365 Chloroform 1,465 0.38 (20oC) 0.027 1.05 247 Glycerin 1,259 0.648 (20.3oC) 0.063 2.43 974 The jet speed estimated from the shock inclination angle differs from that obtained from the video images.
The similarity between glycerin and alcohol jets may be because their latent heats are quite equal, these being 974 kJ/kg and 896 kJ/kg, respectively.

Des. 88 (2015) 889-896 [4] Z.W.
Alloys Compd.650 (2015) 896-906 [11] C.

[6] Andersen G J, Sauer C W. optical information for car following: the driving by visual angle(DVA) model[J].human factors,2007,49(5):878-896
Application of artificial neural network and particle Swarm optimization in car-following model[J].Journal of jili university: Engineering and Technology Edition, 2009, 39(4):896-899.

Maximum temperature, Tm, was varied from 882 to 896 ℃ for 0.5 h, and cooling rates of Rc1, Rc2 and Rc3 were 20 ℃/h, 10 ℃/h and 120 ℃/h, respectively, and annealing process of Ta which allows the completion of second phases consumption was performed at 835 ℃ for 36 h.
It is thought that at this wire geometry average filament diameter of 18.8 ~ 16.3 ㎛ is more favorable than that of 33.4 ~ 25.5 ㎛ on Jc. 880 882 884 886 888 890 892 894 896 898 0 500 1000 1500 2000 2500 J c (A/mm2) Tm (0 C) Fig. 4.

Table 1 Composition for chitosan/HAp composites Chitosan (g) CH3COOH solution (g) a (NH4)2HPO4 solutions (g)b Ca(NO3)2×4H2O solutions (g)c Chitosan/HAp (g/g) 1 0 0 1000 1000 0/100 2 2 133 896 896 10/90 3 4 267 796 796 20/80 4 6 400 697 697 30/70 5 10 667 498 498 50/50 a CH3COOH aq. soultion of 1 wt.%.

5440 40 Saihan Xiling Rd～Bayan Rd 4304 40 Saihan 3 Zhaowuda Rd 4435 Hailaer Rd～Qincheng Rd 1031 40 Xincheng Wulanchabu Street～Southern 2nd Ring Rd 3404 40 Saihan 4 Xiling Nan bei Rd 5351 Station～Erdos Street 3668 50 Huimin Erdos Street～Southern 2nd Ring Rd 1683 50 Yuquan 5 Bayan Rd 3540 Erdos Street～Hailaer Rd 3540 40 Huimin 6 Hailaer Rd 11731 Renhe community～Western 2nd Ring Rd 11731 50 Xincheng 7 Guangmin Street 3380 Bayan Rd～Xiling Rd 3380 30 Huimin 8 Beihen Street 6527 Hulun Rd～Tenfei Rd 6527 30 Xincheng 9 Chezhan Don Xi Street 1724 Tondao Rd～Hulun Rd 1724 30 Xincheng 10 Tondao Rd 2381 Chezhan Xi Street～Zhongshan Rd 2381 40/50 Huimin 11 Xinan Bei Rd 6380 Hailaer Rd～The 110 National Rd 6380 50 Xincheng 12 Erdos Street 6080 Danan Street～Xishuncheng ⅢStreet 1050 50 Yuquan Xishuncheng Street～Western 2nd Ring Rd 5030 50 Yuquan 13 Niu Street 662 Xishuncheng Street～Taiping Street 662 40 Huimin 14 Taiping Street 423 Taiping Xi Street～Taiping Bridge 423 40 Huimin 15 Wushijia Street 896
Danan Street～Shiyangqiao Rd 896 24 Yuquan 16 Guanghua Street 817 Xinan Rd～Donyingbei Rd 817 24 Xincheng the total length：70336m 2.

(1) From equation (1), it is indicated that CaCO3 can be completely decomposed at 896℃ under the condition that CO2 partial pressure is 1atm, which can be simplified as =1atm.
But in converter furnace, the temperature at which CaCO3, which is located between hot metal and liquid slag, can be completely decomposed is possibly lower than 896℃, because CO2 produced from the decomposition of limestone can be immediately participated in oxidizing reaction or emission, which lead to CO2 partial pressure lower than 1atm, which is < 1atm.

Projectile mass m(g) Projectile diameter dp(mm) Impact velocity v0 (m/s) Crater depth P(mm) Maximum of crater Diameter Dmax(mm) Crater diameter Dc(mm) 1 1.0 4.75 1688 5.97 9.67 7.42 2 1.0 4.75 802 1.31 8.49 8.45 3 2.0 6.00 1320 7.29 12.33 11.32 4 2.0 6.00 896 1.95 9.50 8.30 5 3.0 6.85 1259 5.99 12.80 11.26 6 3.0 6.85 581 1.33 11.64 9.21 (a) m=1 g, v0=1688 m/s (b) m=1 g, v0=802 m/s (c) m=2 g, v0=1320 m/s (d) m=2 g, v0=896 m/s (e) m=3 g, v0=1259 m/s (f) m=3 g, v0=581 m/s Fig. 2 Normal views and cross-sections views of typical experimental craters Fig. 3 Sketch of the crater size Dc Dmax P Pup dp Fig. 4 Dc/dp with the impact velocity Figure 4 and Fig. 5 show the tendencies of Dc/dp and P/Dc with the impact velocity.

Struct. 49 (1993) 885-896
Struct. 49 (1995) 885-896