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The Temperature-online-measuring and Energy-saving System for Drying Cylinder Based on Network Communication Qian Chong 1, a, Wang Rongrong2,b , Wang Wei 1,c 1 College of Chemistry, Chemical Engineering and Biotechnology, Donghua University, ShangHai, 201620, China 2Inner Mongolia Technical College of Mechanics and Electrics, HuHeHaoTe, 010070, China aemail: qianchong126@126.com, bemail: zhkuaijie@126.com, cemail: wangv@dhu.edu.cn, Keywords: drying cylinder dryer; on-line technology; network communication Abstract.
Figure1 shows the data communication structure of the system, the parameters collection part and the automatic steam valve control part communicated with the remote monitoring and control part through Ethernet.
Fig.1 Data communication Fig.2 Structure of the Fig.3 Program flow chart of MCU structure diagram system in drying site As Fig.2 shows, temperature data of fabrics existed in drying cylinder dryer was collected by temperature monitoring point in drying site via infrared sensors, and then this information was transmitted to remote monitoring part and was accepted, unpacked and processed there accordingly.
The STC12C5A60S2, as a enhanced 8051 Central Processing Unit, has 2 extra I/O ports, a 10-sources, 4-priority-level interrupt structure, two UARTs.

The structure phase of the as-synthesized sample is known to be layered titanate.
This concise hydrothermal method could create 2-dimensional structured nanomaterials from Indonesian local minerals.
Titanite compounds with a layered structure are generally detected at small diffraction angles of about 2θ = ~10°[17].
The ilmenite mineral has a granular structure with diameters ranging from 160 to 400 μm.
Xu, “Composites of titanate nanotube and carbon nanotube as photocatalyst with high mineralization ratio for gas-phase degradation of volatile aromatic pollutant,” Journal of Physical Chemistry C, vol. 115, no. 16, pp. 7880–7886, Apr. 2011, doi: 10.1021/jp1115838

The vulcanization behavior, mechanical properties and microcosmic structure of the composites were investigated.
It is the ideal mineral filler which can be used in preparation of the attapulgite / NR micro-nano composites due to its excellent physical and chemistry properties and its special structure and shape.

Effects of Magnetic Powder loading on Mechanical Properties and Magnetic Properties of Natural rubber Somsak Woramongconchai 1*,Chatchawan Lohitvisat1, Aree Wichainchai2 1 Department of Chemistry, Faculty of Science, King Mongkut's Institute of Technology Ladkrabang, Bangkok 10520 THAILAND kwosomsa@kmitl.ac.th 2 Department of Physics, Faculty of Science, King Mongkut's Institute of Technology Ladkrabang, Bangkok 10520 THAILAND Keywords: Natural rubber, Mechanical Properties and Magnetic Properties Abstract-The effect of magnetic powders and powders loading on magnetic properties and mechanical properties of magnetic rubbers were studied.
Barium ferrite (BaO.6F2O3) powders had been sintered at 1285 oC for 30 hours to improve its crystal structure.
Crystal structures were analyzed by X-ray Diffractrometer, XRD (Bruker AG Model D8 Advance).

Therefore, analyzing the effect of water-rock interaction in various weathering grades of rock can offer a more accurate reference index for assessing the stability of geotechnical structures.
Analyzing the influence of water-rock interaction in different weathering grades of rock can thus provide a more accurate reference index for determining the stability of geotechnical structures.
Procedia Chemistry, 2016. 19: p. 702-708

Structure and metallurgical property dependence of pellets and agglomerate on their basicity was studied.
At that structure and metallurgical property dependence of pellets and agglomerate on their basicity, gas phase composition and fuel content in the burden was studied.
Korzh, Agglomerate and Pellet Gas Permeability, Metallurgy and Coke Chemistry 19 (1970) 46 – 51

The results indicated that the ZnS nanocrystals have cubic zinc blende structure and diameter is 3.68 nm as demonstrated by XRD.
The changes in the electronic structure as a function of particle size (quantum size effects) are intriguing and have stimulated fundamental research on various types of nanocrystalline semiconductors.
To obtain nanometer-sized particles, a variety of methods have been proposed, including microemulsion method [7], sol–gel processing [8], competitive reaction chemistry method [9].

In some cases special alloys chemistries were designed, in order to test their behaviour in specific conditions: Al content and association with inoculating elements; La use as a rare earth element; Al, Ti, FeSiZr or Al,Zr,Ca-FeSi alloys as preconditioners; oxy-sulphide forming elements alloy (S, O, Al, Ca, Mg and others), alone or with the conventional commercial inoculant.
Experimental data included the characterization of compounds as possible graphite nucleation sites [presence of simple or complex compounds, chemistry and elements distribution on the section, size, shape factors, count etc].
Research programme IX [Table 1] evaluated the effects of Fe-powder additions on the structure of slightly hypereutectic grey cast irons (CE=4.3-4.5%).
Simultaneous 0.005 - 0.01%Al and (%Mn) x (%S) = 0.03 - 0.06 conditions appear to be favourable for a structure without carbides and undercooled graphite.
*O, S, Si, Mn, Al, Zr, Ca, Sr, La, Ti elements appear to have specific distribution patterns along a cross-section of these duplex structure (Mn,X)S compounds.

One should note that the stability of oxidation state is very important in the surface chemistry of gas sensors, as they control both the types of defects that may be formed easily and the type of chemisorption that may take place.
In the nano-size structures it reduces the modulation limits of the position of the Fermi level and leads to a sharp increase in the sensing material resistance.
Studies have shown that the crystallographic structure of the metal oxides does not play a fundamental role.
Metal oxides used in gas sensors may have a cubic, hexagonal, rutile, orthorhombic and tetragonal structures [4].
Chemistry Press, Moscow (1981)

The system's morphology shows a rough surface with bundles of MWCNTs wrapped in PEDOT: PSS polymer to generate a highly porous structure.
Figure 4 (c, d,e,f) shows the nanofiber structure of the PEDOT: PSS/MWCNT nanocomposites with 2.5, 4 and 5 wt.% MWCNTs at 200 and 500 nm.
Additionally, the lengthy, hollow tube structure has been retained.
When Ea increases, additional energy is needed to move the charges inside the structure.
Kim, Enhanced thermoelectric properties of PEDOT:PSS nanofilms by a chemical dedoping process, Journal of Materials Chemistry A. 2 (2014) 6532–6539. https://doi.org/10.1039/c3ta14960a