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T2 could indicate the interaction between water molecules and biomass [1-2], 1-10ms for the bound water, free water for more than 10ms, and 2.2s for the distilled water [3].
Results and discussion Fig1 FTIR spectra of untreated (a) and esterified (b) wood From figure 1, the original 2924 cm-1, 1423 cm-1, 1372 cm-1, 898 cm-1 absorption peaks were all the characteristic peaks of the cellulose[14]. 3342cm-1 was lignin’s OH stretching vibration, and 1734 cm-1, 1591 cm -1,1506 cm-1 were the C = O absorption peaks of hemicellulose and lignin [15].
References [1]H.
Holzforschung, 1994, 48(6):474–479 [6]Giana Almeida, Stephane Gagne, Roger E.
Carbohydrate Polymers, 2008, 71: 1-8

The chemical compositions of the three alloys are shown in Table 1.
Table 1 Chemical compositions of the investigated alloys.
As previously reported by the present author[1], three exothermic peaks responsible for the formation of cluster(2), β” and β’ were observed about 343, 533 and 573K, on the other hand another exothermic peak at ~323K responsible for the formation of cluster(1) disappears because cluster(1) was already formed during natural aging for 1.8ks.
Conclusions 1.
References [1] S.Hirosawa, T.Sato: Materials Science Forum, 475-479(2005), 357-360

Figure 1: TG curves of the blends and bio-oil and diesel oil in the ratio of 10 º C min-1 in a synthetic air atmosphere.
Table 1.
Bio-oil/diesel blends TG [ºC] TG [ºC] DTG peak Temperature [ºC] Weight loss [%] Diesel puro 339-534 456,01 100 B2 341-542 463,8 100 B5 343-554 479,61 100 B10 347-562 498,35 100 B20 353-565 522,06 100 B50 360-562 537,57 100 B100 440-573 551,63 100 Data of Table 1 shows a temperature stability of 30 °C, weight loss of 8.14% attributed to water loss in the sample and decomposition of organic matter present in fuels.
Blendas blends DE/kJ mol-1 A/s-1 DH¹/kJ mol-1 -DS¹/J mol-1 K-1 DG¹/kJ mol-1 B0 46.29 1,016 52.35 252.2 236.24 B2 48.47 1,015 54.60 252.3 240.53 B5 51.00 1,008 57.25 252.6 247.40 B10 57.54 1,020 63.95 252.7 258.91 B20 59.12 0,94 65.73 253.6 267.40 B50 91.78 0,88 98.52 254.3 304.69 B100 154.37 0,87 161.23 254.5 371.14 DE = activation energy, A = frequency factor; DH = enthalpy change, D S = entropy change, DG = free-energy change.
References [1] G.W.

At present, the sum of the recovery angle in the warp and across warp is commonly seen as the index of the WFEWR. 1.2 The Problem and Improvement Program 1.2.1 Manual Cutting’s Objective Error.
The experimental fabrics’ specification is shown as the Table 1.
The 1#, 2# samples are made from the same machine with the same organization on both sides, among which the 1# is plain woven and 2# is 4/4 twill woven.
Table 1 Specification of the Fabric Samples Sample warp weft Warp density /cm-1 Weft density/cm-1 Fabric weaves 1# 97.2dtex Cotton 97.2dtex Cotton 57 42 Plain 2# 97.2dtex Cotton 97.2dtex Cotton 57 42 4/4 twill 3# 83.3dtex PFY 83.3dtex PFY 96 52 5-end satin 4# 83.3dtex PFY 83.3dtex PFY 96 52 8-end satin 3 Results and Discussion 3.1 Compare of the Test Results of Different Sample Numbers.
Table 4 Values of α and β of the Samples on Both Sides Sample 1# 2# 3# 4# α/º 109 156 323 283 β/º 112 165 473 479 β:α 1.03 1.06 1.46 1.70 4 Conclusions The test of WFEWR calls for the exact samples’ cutting, so it’s better to cut mechanically and uniformly.

Fig.1.
References [1] R.P.
Rao, Werkst Korros 51 (2000) 1
Sreekumari, H.S.Khatak, Biofouling 19 (1) (2003) 1
Eng., 125(1997) 479.

Microstructure and Dielectric Properties of LiTiNiO Thin Films Yan Dong1, Bo-Ping Zhang1* , Ya-ru Zhang 1 and Jing-Feng Li2 1 School of Materials Science and Engineering, University of Science and Technology Beijing, 100083, P.R.
Fig. 1 XRD patterns of LiTiNiO thin film annealed at different temperatures for 1 h (a) and at 600°C for different times (b).
References [1] J.B.
Vol. 89 (2002), pp. 217601-1
Forum Vols. 475-479 (2005), pp.1595

Concentration determination results are shown in table 1.
Table 1 Pulp density determination results Number 1 2 3 Average Concentration （%） 3.79 3.92 3.81 3.84 Provided by means of determination of field average pulp concentration is 3.84%.
Table 4 Dosage of poly aluminum slurry suspended solids content test results Dosage of poly aluminum （g/m3） 8 16 24 32 40 80 200 Suspended solids content （mg/L） 5532 2420 1116 661 479 258 81 Table 4 the test results show that with the increase of dosage of poly aluminum upper lower content of suspended solids in water.
Add 210 g/m3 poly iron, can ensure the overflow water of low content of suspended solids. 1# Flocculant concentration test.1 # flocculant with concentration of 0.1%.
Table 6 1 # flocculant dosage slurry suspended solids content test results 1# Flocculant dosage （g/m3） 1 1.2 1.4 1.6 1.8 2.0 Suspended solids content（mg/L） 616 359 292 256 238 220 Table 6 test results show that with the increase of 1 # flocculant dosage reduced the upper content of suspended solids in water, add 1.6 g/m3 1 # flocculant, can ensure the overflow water with lower content of suspended solids. 2 # flocculant concentration test.2 # flocculant with concentration of 0.1%.

The calculated value for the grain size is shown in Table 1.
Table 1 Properties of ZnO thin films at different R.F power.
Sample (R.F power) Average thickness (nm) Resistivity ρ (Ω m ) Conductivity σ (Sm-1) Optical Band gap Energy, Eg (eV) grain size (Scherrer’s equation) (nm) FWHM (degree) 100 watt 355.2 979 1.02x10-3 3.241 34.8 0.249 200 watt 415.0 5.90 1.69x10-1 3.243 28.5 0.305 300 watt 648.7 1.61 6.21x10-1 3.246 27.3 0.318 400 watt 798.9 6.33 1.58x10-1 3.230 29.6 0.293 Fig. 4 show the AFM results of ZnO thin film.
References [1] N.
Ashfold: Chemical Physics Letters Vol. 479 (2009), p. 125

The composition fractions of the samples are listed in Table 1.
Table 1 The raw materials weight fraction of the two samples !
Fig. 9 was the DSC-TG curves for sample 2 and two endothermic peaks were obtained at 418℃ and 479℃ which corresponded to the decomposition of MgCO3 and SrCO3, resulting in a significant weight loss As shown in TG curve.
/°C [1] [1] [1]↑ exo DSC TG Temp./℃ TG 50 100 150 200 250 Time /min -5 -4 -3 -2 -1 0 DSC /(mW/mg) 86 88 90 92 94 96 98 100 102 104 TG /% 200 400 600 800 1000 1200 Temp.
References [1] S.M.

Zheng 1,a , X.
Qiao 1 , S.
Wu 1 , S.
References [1] Z.
Forum, Vol. 475-479 (2005), P. 469 [6] D.