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A High Temperature Measuring Device Development for Die Casting Molten Metal Deposition
Background/Objectives: International market competitive power but also to expect importing substitution effect. Methods/Statistical Analysis: A temperature measuring device connected to a R-type thermocouple (temperature range 0℃ to 1,700℃) displays detected temperature using Flexible Number Display (FND). The device not only can use an external power employing an external adapter (9Vdc constant voltage, 400mA) but also can be operated by a built-in battery (four AA size, 1.2Vdc). Findings: A high temperature measuring device for die casting molten metal deposition is designed a firm-ware in this study by adapting Marvel Cinematic Universe (MCU) that is the core part of operation control using Cortex-40. For the purpose of targeted corporate clients domestic or abroad, the device using Cortex-M0 as a MCU is designed with the capability of measuring temperature having an accuracy range ±1℃ between 400℃ and 1700℃ within 6 minutes. This makes it possible for customers to purchase at lower cost. A measuring error must be necessary to reduce within ±1℃ when measured high temperature (400℃ ~ 1700℃). Also the additional function of measuring temperature ranging from a communication functional circuit, a detecting function for the short circuit and removal of sensor, a correction function for the temperature, an error detecting function, to a testing function is developed.
Cortex, Die Casting, Measure of Temperature, Molten Metal, R-Type, Thermocouple.
- Gagné M. Online Resources for Zinc Die Casting Design. Die Casting Engineer. 2015; 59(2).
- Lowery A.Truths and Falsehoods of Molten Metal Explosions in the Aluminium Industry. Light Metals 2015, Ed. M. Hyland, John Wiley & Sons, Inc., Hoboken, NJ, USA. 2015, 2. DOI: 10.1002/9781119093435.ch152.
- Arnold F, DeMallie I, Florence L, Kashinski DO. Method for collecting thermocouple data via secured shell over a wireless local area network in real time. Review of Scientific Instruments. 2015; 86(3).
- Franzosi R. Journal of statistical physics, Microcanonical Entropy and Dynamical Measure of Temperature for Systems with Two First Integrals. Journal of Statistical Physics. 2011; 143(4):824−30.
- Alte J, Mateo D, Gomez D, Gonzalez Jimenez JL, Martineau B, Siligaris A, Aragones X. Temperature Sensors to Measure the Central Frequency and 3 dB Bandwidth in mmW Power Amplifiers. Ieee Microwave and Wireless Components Letters. 2014; 24(4): 272−74.
- Rudolf A, Walther T. Laboratory demonstration of a Brillouin lidar to remotely measure temperature profiles of the ocean. Optical Engineering. 2014; 53(5). DOI: 10.1117/1.OE.53.5.051407
- Rota-Rodrigo S, Lopez-Amo M, Kobelke J, Schuster K, Santos JL, Frazao O. Simultaneous strain and temperature measure based on a single suspended core photonic crystal fiber, Proceedings - Spie The International Society for Optical Engineering. 2014 June 2; 9157(1). DOI:10.1117/12.2059019.
- Bin-gjie Z, Mu L, Jing G, Yong Z, Fei Y, Lu-ning Z. The Study on Local Thermo-therapy with CT Measure Temperature: the Pharmacokinetics Study of Iohexolthermosensitive Liposomes During Local Thermotherapy. Journal of Pure and Applied Microbiology. 2013; 7(Spll.1).
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