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Experimental Verification shows the outcomes of this prediction method are basically correct. 1.
Up to 75% of the overall geometrical errors of machined work pieces can be induced by the effects of temperatures [1,2].
Fig.1 shows the schematic diagram of the research object, a 4-axes horizontal machine tool.
References [1] Mayr J, Jedrzejewski J, Uhlmann E, et al.
Journal of Engineering for Industry, 1993, 115(4): 472-479

Ti3AlC2, as a member of the family of ternary carbides and nitrides M3AX2 (where M is a transition metal, A is an A-group element, and X is either C or N) that possess an unusual combination of mechanical, electrical, thermal and chemical properties [1], has been attracted attention in the last few years.
The bulk polycrystalline Ti3AlC2 has a low Vickers hardness, low thermal expansion coefficient, high modulus, high compressive strength, excellent resistances to oxidation and thermal shock, unusual brittle-to- ductile character and damage tolerance, readily machinability, and particularly a good electric and thermal conductivity [1].
emphasized that the fracture strength, even if the lowest 808 MPa, is higher considerably than either of the polycrystal Ti3AlC2 bulk (∼ 375 MPa [1]) and general Cu-alloys (400 ∼ 600 MPa).
References [1] N.V.
Vol 475-479 (2004), pp. 1251

In the test, the type of profiled steel sheet is YX-76-344-688, shown in Figure 1, the length is 3000mm.
The material properties are shown in Table 1.
Table 1 Material properties of profiled steel sheet Type Thickness [mm] Section Area[ mm2] Section Modulus[105MPa] Yield Strength [N/mm2] Ultimate Strength [N/mm2] YX-76-344-688 1.2 444.9 2.06 371 448.9 Fig.1 The section of YX-76-344-688 Lightweight aggregate concrete.
The mix proportion of lightweight aggregate concrete Type Coarse Aggregate [] Cement [] Fine Aggregate [] Water [] water: cement: coarse: fine LC25 479 440 1024 205 1：2.1：2.3：5.0 Specimen design.
References [1] Bode Helmut, Sauer born Ingeborg.

HA coated specimens achieve bone mineralization directly on the coating surface [1].
References [1] T.
Umakoshi, Bone 31 (2002) 479–487
Mech. 30 (1993) 1–66

Introductions Institutions should develop natural resources and achieve objectives of ordinary PE curriculum outdoor sports for peoples in manufacturing industry [1].
References [1] Wan Chia-Ching (2010) Outdoor airborne contamination control for semiconductor manufacturing process.
Advanced Materials Research 479: 676-679
Adult Education 1(4): 112-114

The data are tabulated in Table 1.
2.47/502(S13) 0.090 H-2®L+1 (77%) 2.87/431(S8) 0.040 H-3®L (47%) 2.64/470(S15) 0.557 H®L+1 (69%) 2.94/421(S11) 0.090 H-3®L (36%) 3.41/364(S27) 0.360 H®L+4 (77%) 3.15/393(S14) 0.593 H®L+3 (60%) RP-Co(II) 2.87/506(S20) 0.023 H-4(A)®L(A) (69%) 2.52/491(S13) 0.622 H(A)®L(A) (43%) 2.98/479(S23) 0.063 H-1(B)®L+1(B) (68%) 3.10/400(S27) 0.072 H(B)®L+2(B) (31%) 3.07/475(S25) 0.511 H(A)®L+1(A) (34%) 3.24/383(S29) 0.421 H-5(A)®L(A) (28%) 3.95/362(S49) 0.387 H-6(A)®L+1(A) (26%) 3.29/377(S31) 0.049 H-2(A)®L+1(A) (76%) RP-Ni(II) 2.07/599(S7) 0.013 H-2®L (84%) 2.49/498(S6) 0.598 H®L+1 (79%) 2.44/508(S11) 0.067 H-2®L+1 (82%) 2.66/467(S7) 0.132 H-1®L+1 (84%) 2.59/479(S13) 0.528 H®L+1 (70%) 3.30/376(S16) 0.314 H-3®L+1 (70%) 3.39/365(S21) 0.364 H®L+3 (58%) 3.36/369(S19) 0.134 H-5®L+1 (85%) RP-Cu(II) 2.02/613(S10) 0.049 H(A)®L(A) (66%) 1.92/647(S8) 0.020 H(A)®L(A) (47%) 2.11/588(S11) 0.055 H-6(B)®L(B) (66%) 2.38/521(S13) 0.236 H(B)®L+1(B) (43%) 2.70/460(S14) 0.070 H-1(B)®L+1(B) (30%) 3.18/390(S24
) 0.164 H-5(A)®L(A) (51%) 3.10/397(S25) 0.252 H-1(B)®L+1(B) (44%) 3.22/384(S26) 0.328 H-1(B)®L+1(B) (33%) RP-Zn(II) 2.62/473(S4) 0.692 H®L (91%) 2.71/457(S1) 0.871 H®L (87%) 3.22/384(S10) 0.014 H-1®L+1 (89%) 2.82/439(S2) 0.002 H-1®L (96%) 3.28/378(S11) 0.007 H-2®L+1 (83%) 3.01/411(S4) 0.006 H®L+1 (97%) 3.45/359(S12) 0.402 H®L+3 (80%) 3.13/397(S5) 0.436 H®L+2 (85%) RP-Cd(II) 2.31/538(S2) 0.050 H-1®L (78%) 2.62/473(S1) 0.538 H®L (72%) 2.44/509(S4) 0.056 H-2®L+1 (74%) 2.88/430(S2) 0.190 H-1®L (59%) 2.69/461(6) 0.503 H®L+1 (56%) 3.11/398(S5) 0.483 H®L+2 (69%) 3.43/361(S16) 0.226 H®L+3 (82%) 3.32/373(S7) 0.017 H-1®L+2 (54%) RP-Hg(II) 2.17/570(S3) 0.093 H-1®L (71%) 2.23/557(S1) 0.373 H®L (90%) 2.51/493(S7) 0.209 H®L+1 (48%) 2.57/483(S2) 0.019 H®L+1 (95%) 3.36/369(S13) 0.246 H-3®L+1 (52%) 3.21/386(S6) 0.497 H-1®L (85%) 3.42/362(S15) 0.307 H-4®L+1 (44%) 3.45/359(S8) 0.013 H-1®L+2 (55%) Conclusion Ruhemann’s purple (RP) forms complexes having distinct absorption spectra with Cr(II), Mn
References [1] E.W.
Kobus, Zinc(II) chloride-methanol complex of 2-[(1,3-Dihydro-1,3-dioxo-2H-inden-2-ylidene)amino]-1H-indene-1,3(2H)-dionate(1-)sodium salt: a complex of Ruhemann's purple, Acta Crystallogr.

Bae 1,b, J.
Lee 1,c, D.
Kang 1,d, K.
Forum Vol. 475-479 (2005), p. 521
Forum Vol. 475-479 (2005), p. 457

They are presented as equations 1 – 2.
Figure 1[3] shows the healthy gear model.
Fig. 1.
The TVMS curves are presented as figure 6 and 7 Table 1.
References [1] Z.

nm-1.
Then, the diameter of the crystal obtained from the FWHM of Fig.3 was 2.2x10 2 nm as an average for the peak at q= 11.294 nm-1, and 1.8x10 2 nm for the peak at q= 11.92 nm-1.
References [1] Park B, et al., Phys.
Letters, 91(2003)265501-1
Forum. 475-479(2005)3401

All the results are showed in Table. 1.
Table 1.
The volumetric properties of the homologous series [Cnpy][ReO4] (n= 2, 3, 4, 5, 6) at 298.15 K Ionic lquid Tdec (0C) Vm / nm3 S0/J·K-1·mol-1 UPOT/ kJ·mol-1 [C2Py][ReO4]a 360.9 0.2946 397 461 [C3Py][ReO4] b 391.6 0.3153 422 449 [C4Py][ReO4] c 393.0 0.3372 450 441 [C5Py][ReO4] d 369.5 0.3605 479 443 [C6Py][ReO4] e 324.4 0.3851 510 426 a: ref. 9, b: ref 10, c: ref. 11, d: ref. 12, e: ref.13 Volumetric properties of ionic liquids with rhenium functionality The densities of the ionic liquid [CnPy][ReO4] were measured in the same temperature range.
All the results were shown in table 1.
References [1] M.D.