Micromotion Gmbh

King Fahd University of Petroleum and Minerals

Nanjing Tech University

Kai Shen

Huan Liu

Fengchuan Gao

Richard L Maginnis

Mei Zhang

Muhammad Ashraf Gondal

Ke Wang

Haitao Xu

Da Shen

Yingxue Xu

Jianjun Jiang

Lingjun Wang

Heng Zhao

Qiang Li

Chengjun Liu

Meng Ge

Xiafeng Chang

Zain Hasan Abdallah Yamani

Changcheng Zhou

Jian Zou

Determining a white plume control line of smoke after wet desulphurization includes: drawing a saturated air enthalpy humidity curve or equivalent; obtaining annual temperature and humidity change data of located cities or regions along with the time at the frequency of at least one datum every day; drawing the data obtained in the saturated air enthalpy humidity curve; and drawing a tangent line on the saturation curve by using each meteorological point in a chart, the right lower side of the tangent line is a de-pluming control region, the de-pluming effect superior to that at the feature meteorological point can be realized when the smoke enters the region after regulation, a region defined by the de-pluming control line and the saturation curve at a low-temperature side forms a de-pluming day number control region, and the point number falling within the region is the white plume generating day number.

Method for determining white plume control line of smoke after wet desulphurization

A method of communicating with two or more hosts is provided. The method includes transmitting a first communication between a first host and a meter electronics and transmitting a second communication between a second host and the meter electronics.

Communicating with two or more hosts

A method of limiting a current drawn by two or more meter assemblies () is provided. The method includes driving a first meter assembly () with a first drive signal, comparing one or more operating parameters of the first meter assembly () to an operating threshold, and driving a second meter assembly () with a second drive signal based on the comparison to prevent a current drawn by the first meter assembly) and the second meter assembly () from exceeding a current threshold.

Limiting a current drawn by two or more meter assemblies

A meter electronics () for two or more meter assemblies (). The meter electronics () includes a processor () and one or more signal processors () communicatively coupled to the processor (). The one or more signal processors () are configured to communicatively couple to a first meter assembly () and a second meter assembly (). Accordingly, only one meter electronics can be employed to control the two or more meter assemblies, which may reduce the costs associated with employing two meter electronics.

Meter electronics for two or more meter assemblies

A method of limiting a drive signal is provided. The method includes providing a drive signal for a meter assembly, wherein the meter assembly has a resonance frequency. The method also includes interrupting the drive signal after a first drive time-period, wherein the first drive time-period is based on an expected time for the drive signal to reach the resonance frequency.

Limiting a drive signal

A method for temperature compensation of a signal in a vibratory meter is provided. The method includes obtaining one or more signals from a meter assembly in the vibratory meter, providing the one or more signals to a meter electronics of the vibratory meter, and compensating the one or more signals with a signal parameter offset, wherein the signal parameter offset is based on a temperature of the meter electronics.

Temperature compensation of a signal in a vibratory meter

A capacitive touch sensor () is provided. The capacitive touch sensor () includes an electrode () disposed between a plate () and a spring () wherein the spring () presses the electrode () towards the plate () in a direction that is substantially parallel to a longitudinal length (L) of the spring () and the electrode () has a flat sensing surface () parallel with the plate ().

Capacitive touch sensor

A method for degrading Rhodamine B including: mixing BiOBr and Rhodamine B; and irradiating the mixture with a radiation having a wavelength of from 440 nm to 554 nm. The Rhodamine B may be in an aqueous solution. The BiOBr may be added to the aqueous solution of Rhodamine B in an amount of from 0.2 to 0.5 mg/ml. The BiOBr may have a sheet-like structure with particles having a diameter of from 3 &#x3bc;m to 5 &#x3bc;m. The BiOBr may be in a pure crystal tetragonal phase.

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Nanjing, China

Kai Shen