  orlov-av-pashin-el-tik-2022-2.pdf |
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- IMPROVING THE SIMULATION ALGORITHM FOR THE WORK PROCESS OF PENDULUM-BASED TENSILE STRENGTH TESTING MACHINE
- Orlov A. V., Pashin E. L. Improving the simulation algorithm for the work process of pendulum-based tensile strength testing machine. Technologies & Quality. 2022. Nr 2(56). P. 24–28. (In Russ.) https: doi 10.34216/2587-6147-2022-2-56-24-28.
- DOI: 10.34216/2587-6147-2022-2-56-24-28
- УДК: 677.02.002.56
- Publish date: 2022-05-19
- Annotation: Article considers approaches to improve the functioning of tensile strength testing machine K-1, based on modelling the mechanical and informational processes of its operation. The pendulum movement registration process is analysed in detail, resulting in a set of restrictions imposed on data processing methods used during simulation. Based on this, a set of recommendations is developed, regarding the correct way to track pendulum’s motion. It is suggested to register intervals between consecutive encoder pulses, rather than independently poll encoder’s current position using a timer. Based on this idea, a simulation algorithm is developed that allows for a close reproduction of the properties of the data gathered during experiment. This algorithm is implemented in a software system. The data produced by this system closely resembles the data gathered during experiments with a real device. As such, the model and the algorithm can be used to develop a quality control system for the K-1 machine.
- Keywords: fibre split, tensile strength, pendulum-base testing machine, pendulum, incremental encoder, angular coordinates, simulation
- Literature list: 1. Pashin E. L., Orlov A. V. Testing system for controlling tensile characteristics of fibers and threads dur-ing high-speed stretching. Zavodskaya laboratoriya. Diagnostika materialov [Industrial laboratory. Mate-rial diagnostics]. 2019;2:60–64. 2. LIR-158B. Incremental rotary encoder. URL: https://skbis.ru/catalog/rotary/incremental-rotary-encoders/lir-158b (accessed: 13.03.2022). 3. ATmega2560. URL: https://www.microchip.com/en-us/products/en/ATmega2560 (accessed: 02.03.2022). 4. Samarskij A. A., Gulin A. V. Numerical methods. Moscow, Nauka Publ., 1989. 432 p.