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Adsorption is one of the efficient methods in humic acid removal.Many solid materials as adsorbents have been investigated, which include activated carbons, natural and synthetic zeolites, clays and modified clay minerals, alumina, resins, chitosan, fly ash, aminated polyacrylonitrile fibers and Mg/Al layered double hydroxides[4-7].Moreover, Cucurbiturils are one kind of new functional materials compounds which possess a hydrophobic cavity accessible through portals surrounded by polar carbonyl groups capable of including a variety of hydrophobic and the appearance of hydrophilic[8].
El-Ashtoukhy, N.K.

Martin et al (in 1975) the experiment indicated that the relations between the plastic volumetric strain and the circulation shearing strain amplitude have nothing to do with the solidifying pressure.
The earthquake wave includes El Centro wave and Kobe wave.

Im=｛{TTP}-165 El|l=1, …{TTP}8230 , L｝{TTP}-163 , E is the basic element in a form.
[8] ZHANG Yahong, ZHANG Linlin, et al.

Al-Obaid, Mech.
El Mahallawi, Eng.

Image Diffusion Using Hyperchaotic System In the present paper, a hyperchaotic system proposed by Li et al. [14] is employed to generate the key stream for diffusion.
Faragallah, A.A.A El-Latif, “A chaotic block cipher algorithm for image cryptosystems”, Communications in Nonlinear Science and Numerical Simulation, vol. 15, no. 11, pp. 3484-3497, 2010

Nguyen et al., Hierarchical ZSM-5 materials for an enhanced formation of gasoline-range hydrocarbons and light olefins in catalytic cracking of triglyceride-rich biomass, Ind Eng Chem Res. 2015 (54) 773-782
El-Nahhal, J.K.

Parameters Metals ' 0σ (MPa), [12] Kd (MPa-mm1/2) tK 0σ (MPa) h (nm), [13] Hm (KJ-mol-1) Aluminium, Al 16.7 1301.77 1.30 15.40 0.250 10.71 Copper, Cu 33 4277.39 2.85 30.15 0.270 13.26 Table 1: Parameters used during analysis Fig.2, Fig.3 and Fig.4 show that both the mean grain size, E(d), and grain size dispersion, CV(d), together play vital roles in the design of the required materials properties, σ. 0 200 400 600 800 1000 1200 50 100 150 200 250 300 0.0 0.5 1.0 σ [MPa] E(d)[nm] CV(d) Copper 0 100 200 300 50 100 150 200 250 300 0.0 0.5 1.0 σ [MPa] E(d)[nm] CV(d) Aluminium Fig.2.
[11] E.L.

(a) driving part (b) boom part Fig. 1 Symbols of loads and dimensions for a movable crane Referring to Fig. 1(b), the equilibrium condition for moment on the basis of point O is found to be: ( ) ( ) 0cosWLLWLWL cossincossinFL:M B 6 1i E6O TCOTC iOi C P P C CP =      +++ − − ∑ ∑ = θ θθθθ (1) Where, Bθ : luffing angle of boom for a horizontal axis Pθ : angle of OP for a horizontal axis ; ( )POPO 1 BP HVtan−−=θθ Cθ : angle of hydraulic cylinder (QP ) for a horizontal axis iL : initial length between the center of gravity of i-times boom and the origin (O) TCL : initial length between the center of gravity of telescopic cylinder and the origin EL : length between the center of gravity and right edge of 6-times boom iLL : stretching length of each boom PL : length between the connecting pin of cylinder (P) and the origin OiL : length between the center of gravity of i-times
( )       −+ = − CP 2 A 2 C 2 P1 A LL2 LLL cosθ (2) Where, CL : length of hydraulic cylinder ; ( ) ( )2QPP 2 QP P C VsinLHcosLL + +− = θ θ AL : length between connecting pin of cylinder (Q) and the origin ; 2 Q 2 Q A VHL += Therefore, the load applied on cylinder ( CF ) with respect to the luffing angle of boom ( Bθ ) and the hoisting load (W) is expressed as follows: ( ) AP B 61i E6O TCOTC iOi C sinL cosWLLWLWL F θ θ      +++ = ∑= (3) The load ( CF ) derived in Eq. (3) is equal to the load applied on the pin type load cell which connects a hydraulic cylinder and a boom.

The experimental Cr stabilized ultra-clean C steel used in this work contained 0.010 % C, 0.20 % Mn, 0.011 % P, 0.002 % S, 0.050 % Al, 0.025 % Si, 0.004 % Ni, 0.035 % Cr, 0.004 % N.
Properties → Specimen ↓ YS0.2% [MPa] UTS [MPa] El [%] (r ) n Required properties 170 345 46 ≥ 2 ≥0.21 Annealed 800 oC/ Ti [15] 145±16 311±12 55.6±1.2 2.08±0.05 - Batch annealed 670 o C/Cr 169±17 318±20 43.8±2.8 1.98±0.03 0.24±0.01 Annealed 700 oC / Cr 181±23 304±18 47.0±3.7 1.35±0.09 0.32±0.02 Annealed 750 oC / Cr 234±13 378±9 50.3±1.0 1.62±0.07 0.31±0.05 Annealed 800 oC/ Cr 242±6 378±17 51.3±0.8 2.21±0.05 0.30±0.03 n: strain-hardening exponent.

[7] Zhang Jing-Tang, Li Hong-Bo el ta.
[9] Zou Lianying, Zou Xuecheng, Zhen Zhaoxia, et al.