[1] Fujii, Y., Isobe, D., Saito, S., Fujimoto, H., & Miki, Y. (2000). A method for determining the impact force in crash testing. Mechanical Systems and Signal Processing, 14(6), 959–965. https://doi.org/10.1006/mssp.1999.1272
[2] Fujii, Y. (2003). A method for calibrating force transducers against oscillation force. Measurement Science and Technology, 14(8), 1259–1264. https://doi.org/10.1088/0957-0233/14/8/310
[3] Hjelmgren, J. (2002). Dynamic Measurement of Force – A Literature Survey (SP Report 2002:34). SP Swedish National Testing and Research Institute SP Measurement Technology.
[4] Jun, Y., Yiqing, C., Xuan, H., & Xiao, Y. (2017). Impulse force calibration with dropped weight and laser vibrometer. IMEKO 23rd TC3, 13th TC5 and 4th TC22 International Conference, Finland, 19. https://www.imeko.org/publications/tc3-2017/IMEKO-TC3-2017-030.pdf
[5] Kobusch, M., Link, A., Buss, A., & Bruns, T. (2007). Comparison of shock and sine force calibration methods. IMEKO 20th TC3, 3rd TC16 and 1st TC22 International Conference, Maxico. https://www.imeko.org/publications/tc3-2007/IMEKO-TC3-2007-007u.pdf
[6] Satria, E., Takita, A., Nasbey, H., Prayogi, I. A., Hendro, H., Djamal, M., & Fujii, Y. (2018). New technique for dynamic calibration of a force transducer using a drop ball tester. Measurement Science and Technology, 29(12). https://doi.org/10.1088/1361-6501/aaeb71
[7] Schlegel, C., Kieckenap, G., Glöckner, B., Buß, A., & Kumme, R. (2012). Traceable periodic force calibration. Metrologia, 49(3), 224–235. https://doi.org/10.1088/0026-1394/49/3/224
[8] Sivaselvan, M. V., Reinhorn, A. M., Shao, X., & Weinreber, S. (2008). Dynamic force control with hydraulic actuators using added compliance and displacement compensation. Earthquake Engineering and Structural Dynamics, 37(15), 1785–1800. https://doi.org/10.1002/eqe.837
[9] Stanford, A. L., & Tanner, J. M. (1985). Work, Power, and Energy. In Physics for Students of Science and Engineering (pp. 109–144). Elsevier Inc. https://doi.org/10.1016/b978-0-12-663380-1.50008-2
[10] Vlajic, N., & Chijioke, A. (2017). Traceable calibration and demonstration of a portable dynamic force transfer standard. Metrologia, 54(4), S83–S98. https://doi.org/10.1088/1681-7575/aa75da
[11] Yang, Y., Zhao, Y., & Kang, D. (2016). Integration on acceleration signals by adjusting with envelopes. Journal of Measurements in Engineering, 4(2), 117–121. https://www.jvejournals.com/ article/16965/pdf
[12] Zhang, L., & Kumme, R. (2003). Investigation of interferometric methods for dynamic force measurement. In XVII IMEKO World Congress, Metrology in the 3rd Millennium, Croatia, 315–318.
[13] Zhang, L.,Wang, Y., & Zhang, L. (2010). Investigation of calibrating force transducer using sinusoidal force. AIP Conference Proceedings, 1253, 395–401. https://doi.org/10.1063/1.3455481

[1] Liu, Z.,&Kleiner,Y. (2013). State of the art reviewof the inspection technologies for condition assessment of water pipes. Measurement, 46(1), 1–15. https://doi.org/10.1016/j.measurement.2012.05.032
[2] Kishawy, H. A., & Gabbar, H. A. (2010). Review of pipeline integrity management practices. International Journal of Pressure Vessels and Piping, 87(7), 373–380. https://doi.org/10.1016/ https://j.ijpvp.2010.04.003
[3] Zhang, T.,Wang, X., Chen, Y., Shuai, Y., Ullah, Z., Ju, H., & Zhao, Y. (2019). Geomagnetic detection method for pipeline defects based on ceemdan and WEP-TEO. Metrology and Measurement Systems, 26(2), 345–361. https://doi.org/10.24425/mms.2019.128363
[4] Ju, H.,Wang, X., Zhang, T., Zhao, Y., & Ullah, Z. (2019). Defect recognition of buried pipeline based on approximate entropy and variational mode decomposition. Metrology and Measurement Systems, 26(4), 735–755. https://doi.org/10.24425/mms.2019.129587
[5] Piao, G., Guo, J., Hu, T.,&Deng, Y. (2019). High-sensitivity real-time tracking system for high-speed pipeline inspection gauge. Sensors, 19(3), 731. https://doi.org/10.3390/s19030731
[6] De Araújo, R. P., De Freitas, V. C. G., De Lima, G. F., Salazar, A. O., Neto, A. D. D., & Maitelli, A. L. (2018). Pipeline inspection gauge’s velocity simulation based on pressure differential using artificial neural networks. Sensors, 18(9), 3072. https://doi.org/10.3390/s18093072
[7] Chowdhury, M. S., & Abdel-Hafez, M. F. (2016). Pipeline inspection gauge position estimation using inertial measurement unit, odometer, and a set of reference stations. ASCE-ASME Journal of Risk and Uncertainty in Engineering Systems Part B: Mechanical Engineering, 2(2), 021001-1-10. https://doi.org/10.1115/1.4030945
[8] Coramik, M., & Ege, Y. (2017). Discontinuity inspection in pipelines: a comparison review. Measurement, 111, 359–373. https://doi.org/10.1016/j.measurement.2017.07.058
[9] Idroas, M., Abd Aziz, M. F. A., Zakaria, Z., & Ibrahim, M. N. (2019). Imaging of pipeline irregularities using a PIG system based on reflection mode ultrasonic sensors. International Journal of Oil, Gas and Coal Technology, 20(2), 212–223. https://doi.org/10.1504/IJOGCT.2019.097449
[10] Li, Z., Wang, J., Li, B., & Gao, J. (2014). GPS/INS/Odometer integrated system using fuzzy neural network for land vehicle navigation. Journal of Navigation, 67(6), 967–983. https://doi.org/ 10.1017/S0373463314000307
[11] Jiang, Q., Wu, W., Jiang, M., & Li, Y. (2017). A new filtering and smoothing algorithm for railway track surveying based on landmark and IMU/odometer. Sensors, 17(6), 1438. https://doi.org/ 10.3390/s17061438
[12] Georgy, J., Karamat, T., Iqbal, U., & Noureldin, A. (2011). Enhanced MEMS-IMU/odometer/GPS integration using mixture particle filter. GPS Solutions, 15(3), 239–252. https://doi.org/10.1007/s10291-010-0186-4
[13] Zhao, Y. (2015) Cubature plus extended hybrid Kalman filtering method and its application in PPP/IMU tightly coupled navigation systems. IEEE Sensors Journal, 15(12), 6973–6985. https://doi.org/10.1109/JSEN.2015.2469105
[14] Guan, L., Cong, X., Zhang, Q., Liu, F., Gao, Y., An, W., & Noureldin, A. (2020). A comprehensive review of micro-inertial measurement unit based intelligent PIG multi-sensor fusion technologies for small-diameter pipeline surveying. Micromachines, 11(9), 840. https://doi.org/10.3390/mi11090840
[15] Wang, L., Wang, W., Zhang, Q., & Gao, P. (2014). Self-calibration method based on navigation in high-precision inertial navigation system with fiber optic gyro. Optical Engineering, 53(6), 064103. https://doi.org/10.1117/1.OE.53.6.064103
[16] Usarek, Z., &Warnke, K. (2017). Inspection of gas pipelines using magnetic flux leakage technology. Advances in Materials Science, 17(3), 37–45. https://doi.org/10.1515/adms-2017-0014
[17] Sasani, S., Asgari, J., & Amiri-Simkooei, A. R. (2016). Improving MEMS-IMU/GPS integrated systems for land vehicle navigation applications. GPS solutions, 20(1), 89–100. https://doi.org/10.1007/s10291-015-0471-3
[18] Hyun, D., Yang, H. S., Park, H. S., & Kim, H. J. (2010). Dead-reckoning sensor system and tracking algorithm for 3-D pipeline mapping. Mechatronics, 20(2), 213–223. https://doi.org/10.1016/ j.mechatronics.2009.11.009
[19] Lee, D. H., Moon, H., Koo, J. C., & Choi, H. R. (2013). Map building method for urban gas pipelines based on landmark detection. International Journal of Control, Automation, and Systems, 11(1), 127–135. https://doi.org/10.1007/s12555-012-0049-6
[20] Li, T., Zhang, H., Niu, X., & Gao, Z. (2017). Tightly-coupled integration of multi-GNSS singlefrequency RTK and MEMS-IMU for enhanced positioning performance. Sensors, 17(11), 2462. https://doi.org/10.3390/s17112462
[21] Sahli, H., & El-Sheimy, N. (2016). A novel method to enhance pipeline trajectory determination using pipeline junctions. Sensors, 16(4), 567. https://doi.org/10.3390/s16040567
[22] Guan, L., Cong, X., Sun, Y., Gao, Y., Iqbal, U., & Noureldin, A. (2017). Enhanced MEMS SINS aided pipeline surveying system by pipeline junction detection in small diameter pipeline, IFACPapersOnLine, 50(1), 3560–3565. https://doi.org/10.1016/j.ifacol.2017.08.962
[23] Crassidis, J. L., & Junkins, J. L. (2011). Optimal Estimation of Dynamic Systems. CRC press. https://doi.org/10.1201/b11154
[24] Noureldin, A., Karamat, T. B., & Georgy, J. (2012). Fundamentals of Inertial Navigation, Satellite- Based Positioning and their Integration. Springer Science & Business Media. https://doi.org/ 10.1007/978-3-642-30466-8
[25] Xu, L., Li, X. R., Duan, Z., & Lan, J. (2013). Modeling and state estimation for dynamic systems with linear equality constraints. IEEE Transactions on Signal Processing, 61(11), 2927–939. https://doi.org/10.1109/TSP.2013.2255045

[1] Szplet, R., Jachna, Z., Kwiatkowski, P.,&Rózyc K. (2013). A 2.9 ps equivalent resolution interpolating time counter based on multiple independent coding lines. Measurement Science and Technology, 20(3), 1–15. https://doi.org/10.1088/0957-0233/26/7/075002
[2] Wu, J., & Shi, Z. (2008). The 10-ps wave union TDC: Improving FPGA TDC resolution beyond its cell delay. Proceedings of the IEEE Nuclear Science Symposium Conference Record, Dresden. 3440–3446. https://lss.fnal.gov/archive/2008/conf/fermilab-conf-08-498-e.pdf
[3] Szplet, R. (2014). Time-to-digital converters. In Carbone P., Kiaei, S., & Xu, W. (Eds.). Design, Modeling and Testing of Data Converters (pp. 211–246). Springer-Verlag. https://doi.org/10.1007/ 978-3-642-39655-7_7
[4] Cova, S. & Bertolaccini, M. (1970). Differential linearity testing and precision calibration of multichannel time sorters. Nuclear Instruments and Methods, 77(2), 269–276.
[5] Szplet, R., Szymanowski, R., & Sondej, D. (2019). Measurement Uncertainty of Precise Interpolating Time Counters. IEEE Transactions on Instrumentation and Measurement, 68(11), 4348–4356. https://doi.org/10.1109/TIM.2018.2886940
[6] Frankowski, R., Chaberski, D., & Kowalski, M. (2015). An optical method for the time-to-digital converters characterization. Proceedings of the International Conference on Transparent Optical Networks, Budapest. https://doi.org/10.1109/ICTON.2015.7193659
[7] Rivoir J. (2006). Statistical Linearity Calibration of Time-to-Digital Converters Using a Free- Running Ring Oscillator. Proceedings of the 15th Asian Test Symposium, Fukuoka, Japan. 45–50. https://doi.org/10.1109/ATS.2006.260991
[8] Chaberski, D., Frankowski, R., Gurski, M., & Zielinski, M. (2017). Comparison of interpolators used for time-interval measurement systems based on multiple-tapped delay line. Metrology and Measurement Systems, 24(2), 401–412.
[9] Mota, M. (2000). Design and Characterization of CMOS High-Resolution TDCs. [Doctoral dissertation, Inst. Superior Técnico, Tech. Univ. of Lisbon].
[10] Wu, J. (2014). Uneven BinWidth Digitization and a Timing Calibration Method Using Cascaded PLL. Proceedings of 19th IEEE-NPSS Real-Time Conference 2014, Japan
[11] Xie, W., Chen, H., & Li, D. D. U. (2021). Efficient time-to-digital converters in 20 nm FPGAs with wave union. IEEE Transactions on Industrial Electronics (Early Access). https://doi.org/10.1109/ TIE.2021.3053905
[12] Frankowski, R., Gurski, M., & Płóciennik, P. (2016). Optical methods of the delay cells characteristics measurements and their applications. Optical and Quantum Electronics, 48, 188. https://doi.org/10.1007/s11082-016-0465-6
[13] Kalisz, J., Orzanowski, T., & Szplet, R. (2000). Delay-locked loop technique for temperature stabilisation of internal delays of CMOS FPGA devices. Electronics Letters, 36(14), 1184–1185.

[1] Michalski, L., Eckersdorf, K., Kucharski, J., & McGhee, J. (2001). Temperature Measurement. John Wiley & Sons, Ltd. https://doi.org/10.1002/0470846135
[2] Webster, J., & Eren, H. (2014). Measurement, Instrumentation, and Sensors Handbook: Spatial, Mechanical, Thermal, and Radiation Measurement. CRC Press. https://doi.org/10.1201/b15474
[3] Vishay. (2020). NTC Thermistors, Mini Epoxy PVC Twin Insulated Leads. [Datasheet NTCLE413, Document Number: 29078]. https://www.vishay.com/docs/29078/ntcle413.pdf
[4] Jeong, D. H., Kim, J. D., Song, H. J., Kim, Y. S., & Park, C. Y. (2015). Efficient calibration tool for thermistor temperature measurements. Applied Mechanics and Materials, 764–765, 1304–1308. https://doi.org/10.4028/www.scientific.net/amm.764-765.1304
[5] Webster, J. G. (1999). The Measurement, Instrumentation and Sensors Handbook. CRC Press LLC. https://doi.org/10.1201/9781003040019
[6] Stankovic, S. B., & Kyriacou, P. A. (2011). Comparison of thermistor linearization techniques for accurate temperature measurement in phase change materials. Journal of Physics: Conference Series. 307(1), 1–6. https://doi.org/10.1088/1742-6596/307/1/012009
[7] Lukic, J., & Denic, D. (2015). A novel design of an NTC thermistor linearization circuit. Metrology and Measurement Systems, 22(3), 351–362. https://doi.org/10.1515/mms-2015-0035
[8] Oladimeji, I., Sabo Miya, H., Abdulkarim, A., Mudathir, A., & Amuda, S. (2019). Design of Wheatstone bridge based thermistor signal conditioning circuit for temperature measurement. Journal of Engineering Science and Technology Review. 12(1), 12–17. https://doi.org/10.25103/jestr.121.02
[9] Nagarajan, P. R., George, B., & Kumar, V. J. (2017). A linearizing digitizer for Wheatstone bridge based signal conditioning of resistive sensors. IEEE Sensors Journal, 17(6), 1696–1705. https://doi.org/10.1109/JSEN.2017.2653227
[10] Nenova, Z., & Nenov T. (2009). Linearization circuit of the thermistor connection. IEEE Transactions on Instrumentation and Measurement, 58(2), 441–449. https://doi.org/10.1109/TIM.2008.2003320
[11] Maiti, T. (2008). A new hardware approach for the linearization of remote thermistor temperaturevoltage characteristic. International Journal of Electronics, 95(2), 169–176. https://doi.org/10.1080/00207210801915642
[12] Sarkar, A., Dey, D., & Munshi, S. (2013). Linearization of NTC thermistor characteristic using opamp based inverting amplifier. IEEE Sensors Journal, 13(12), 4621–4626. https://doi.org/10.1109/JSEN.2013.2267332
[13] Lopez-Martin, A. J., & Carlosena, A. (2013). Sensor signal linearization techniques: A comparative analysis. Proceedings of the IEEE 4th Latin American Symposium on Circuits and Systems (LASCAS), Peru, 1–4. https://doi.org/10.1109/LASCAS.2013.6519013
[14] Dias Pereira, J. M., Postolache, O., & Silva Girao, P. M. B. (2007). A digitally programmable A/D converter for smart sensors applications. IEEE Transactions on Instrumentation and Measurement, 56(1), 158–163. https://doi.org/10.1109/TIM.2006.887771
[15] Santos, M., Horta, N., & Guilherme, J. (2014). A survey on nonlinear analog-to-digital converters. Integration, the VLSI Journal, 47(1), 12–22. https://doi.org/10.1016/j.vlsi.2013.06.001
[16] Mohan, N. M., Kumar, V. J., & Sankaran, P. (2011). Linearizing dual-slope digital converter suitable for a thermistor. IEEE Transactions on Instrumentation and Measurement, 60(5), 1515–1521. https://doi.org/10.1109/TIM.2010.2092875
[17] Mahaseth, D., Kumar, L., & Islam, T. (2018). An efficient signal conditioning circuit to piecewise linearizing the response characteristic of highly nonlinear sensors. Sensors and Actuators A: Physical, 280(2018), 559–572. https://doi.org/10.1016/j.sna.2018.08.001
[18] Lukic, J., Živanovic, D.,&Denic, D. (2015). A compact and cost-effective linearization circuit used for angular position sensors. Facta Universitatis Series: Automatic Control and Robotics, 14(2), 123–134.
[19] Lopez-Martin, A. J., Zuza, M., & Carlosena, A. (2003). A CMOS A/D converter with piecewise linear characteristic and its application to sensor linearization. Analog Integrated Circuits and Signal Processing, 36(1–2), 39–46. https://doi.org/10.1023/A:1024437311497
[20] Bucci, G., Faccio, M., & Landi, C. (2000). New ADC with piecewise linear characteristic: case studyimplementation of a smart humidity sensor. IEEE Transactions on Instrumentation and Measurement, 49(6), 1154–1166. https://doi.org/10.1109/19.893250
[21] Chio, U. F.,Wei, H. G., Zhu, Y., Sin, S. W., U. S. P., Martins, R. P.,&Maloberti, F. (2010). Design and experimental verification of a power effective flash-SAR subranging ADC. IEEE Transactions on Circuits and Systems – II: Express Briefs, 57(8), 607–611. https://doi.org/10.1109/TCSII.2010.2050937
[22] Jovanovic, J., & Denic, D. (2016). A cost-effective method for resolution increase of the two-stage piecewise linear ADC used for sensor linearization. Measurement Science Review, 16(1), 28–34. https://doi.org/10.1515/msr-2016-0005
[23] Lee, J. I., & Song, J. (2013). Flash ADC architecture using multiplexers to reduce a preamplifier and comparator count. Proceedings of the IEEE International Conference of IEEE Region 10 (TENCON 2013), China, 1–4. https://doi.org/10.1109/TENCON.2013.6718487
[24] Lee,W., Huang, P., Liao,Y.,&Hwang,Y. (2007).Anewlowpower flashADCusing multiple-selection method. Proceedings of the IEEE Conference on Electron Devices and Solid-State Circuits, Taiwan, 341–344. https://doi.org/10.1109/EDSSC.2007.4450132
[25] International Electrotechnical Commission. (2015). Preferred number series for resistors and capacitors (IEC 60063:2015). https://webstore.iec.ch/publication/22011
[26] Fraden, J. (2010). Handbook of Modern Sensors: Physics, Designs, and Applications. Springer Science + Business Media. https://doi.org/10.1007/978-1-4419-6466-3
[27] Regtien, P., & Dertien, E. (2018). Sensors for Mechatronics. Elsevier. https://doi.org/10.1016/ C2016-0-05059-3

[1] Zhai, J., Li, W., Zha, J., Cheng, Q., Bian, X., & Dang, Z. (2020). Space charge suppression of polyethylene induced by blending with ethylene-butyl acrylate copolymer. CSEE Journal of Power and Energy Systems, 6(1), 152–159. https://doi.org/10.17775/CSEEJPES.2019.01150
[2] Wang, G., & Kil, G. (Sep. 2017). Measurement and analysis of partial discharge using an ultra-high frequency sensor for gas-insulated structures. Metrology and Measurement Systems, 24(3), 515–524. https://doi.org/10.1515/mms-2017-0045
[3] Ren, H., Takada, T., Uehara, H., Iwata, S., & Li, Q. (Feb. 2021). Research on charge accumulation characteristics by PEA Method and Q(t) method. IEEE Transactions on Instrumentation and Measurement, 70, 6004209. https://doi.org/10.1109/TIM.2021.3055288
[4] Dong, L., Gan, J., Zhang, P., Zhao, Z., Cheng, B., & Han, D. (2018). An improved resonant thermal converter based on micro-bridge resonator. Metrology and Measurement Systems, 25(4), 715–725. https://doi.org/10.24425/mms.2018.124882
[5] Kuparowitz, M., Sedlakova, V., & Grmela, L. (2017). Leakage current degradation due to ion drift and diffusion in tantalum and niobium oxide capacitors. Metrology and Measurement Systems, 24(2), 255–264. https://doi.org/10.1515/mms-2017-0034
[6] Takada, T., Maeno, T., & Kushibe, H. (1987). An electric stress-pulse technique for the measurement of charge in a plastic plate irradiated by an electron beam. IEEE Transactions on Electrical Insulation, EI-22(4), 497–502. https://doi.org/10.1109/TEI.1987.298914
[7] Gao, C., Qi, B., Gao, Y., Zhu, Z., & Li, C. (2019). Kerr electro-optic sensor for electric field in largescale oil-pressboard insulation structure. IEEE Transactions on Instrumentation and Measurement, 68(10), 3626–3634. https://doi.org/10.1109/TIM.2018.2881803
[8] Chen, G., Chong, Y., & Fu, M. (2006). Calibration of the pulsed electroacoustic technique in the presence of trapped charge. Measurement Science and Technology, 17(7), 1974–1980. https://doi.org/ 10.1088/0957-0233/17/7/041
[9] Zhou, Y., Dai, C., & Huang, M. (2016). Space charge characteristics of oil-paper insulation in the electro-thermal aging process. CSEE Journal of Power and Energy Systems, 2(2), 40–46. https://doi.org/10.17775/CSEEJPES.2016.00020
[10] Wu, J., Huang, R., Wan, J., Chen, Y., & Yin, Y. (2016). Phase identification for space charge measurement under periodic stress of an arbitrary waveform based on the Hilbert transform. Measurement Science and Technology, 27(4), 045004. https://doi.org/10.1088/0957-0233/27/4/045004
[11] Ghorbani, H., Abbasi, A., Jeroense, M., Gustafsson, A., & Saltzer, M. (2017). Electrical characterization of extruded DC cable insulation - the challenge of scaling. IEEE Transactions on Dielectrical and Electrical Insulation, 24(3), 1465–1475. https://doi.org/10.1109/TDEI.2017.006124
[12] Mazzanti, G., Chen, G., Fothergill, J. C., Hozumi, N., Li, J., Marzinotto, M., Mauseth, F., Morshuis, P., Reed, C., & Tzimas, A. (2015). A protocol for space charge measurements in full-size HVDC extruded cables. IEEE Transactions on Dielectrical and Electrical Insulation, 22(1), 21–34. https://doi.org/10.1109/TDEI.2014.004557
[13] Escurra, M. G., Mor, R. A., & Vaessen, P. (2020). Influence of the pulsed voltage connection on the electromagnetic distortion in full-size HVDC cable PEA measurements. Sensors, 20(11), 3087. https://doi.org/10.3390/s20113087
[14] Imburgia, A., Romano, P., Chen, G., Rizzo, G., Sanseverino, R. E., Viola, F., & Ala, G. (2019). The industrial applicability of PEA space charge measurements for performance optimization of HVDC power cables. Energies, 12(21), 4186. https://doi.org/10.3390/en12214186
[15] Rizzo, G., Romano, P., Imburgia, A., & Ala, G. (2019). Review of the PEA method for space charge measurements on HVDC cables and mini-cables. Energies, 12(18), 3512. https://doi.org/10.3390/en12183512
[16] Jung, H., Kim, H., Choi, T., Hwangbo, S. (2019). Automatic measurement system of the space charge distribution by a two-step deconvolution. Journal of Electrical Engineering and Technology, 14(5), 2049–2055. https://doi.org/10.1007/s42835-019-00169-y
[17] International Electrotechnical Commission. (2021). Calibration of space charge measuring equipment based on the pulsed electro-acoustic (PEA) measurement principle (Technical Specification No. IEC/TS 62758:2012). https://webstore.iec.ch/publication/7418
[18] Zhu, Y., Li, S., Min, D., Li, S., Cui, H., & Chen, G. (2018). Space charge modulated electrical breakdown of oil impregnated paper insulation subjected to AC-DC combined voltages. Energies, 11, 1547. https://doi.org/10.3390/en11061547
[19] Tian, F.,&Hou, C. (2018).Atrap regulated space charge suppression model for LDPE based nanocomposites by simulation and experiment. IEEE Transactions on Electrical Insulation, 25(6), 2169–2177. https://doi.org/10.1109/TDEI.2018.007282
[20] Li, J., Liang, H., Xiao, M., Du, B.,&Takada, T. (2019). Mechanism of deep trap sites in epoxy/graphene nanocomposite using quantum chemical calculation. IEEE Transactions on Electrical Insulation, 26(5), 1577–1580. https://doi.org/10.1109/TDEI.2019.008178
[21] Li, J., Zhao, R., Du, B., Su, J., Han, C., & Takada, T. (2020). Application progress of quantum chemical calculation in the field of HVDC insulation. High Voltage Engineering, 46(3), 722–781. https://doi.org/10.13336/j.1003-6520.hve.20200331003
[22] Takada, T., Sakai, T., & Toriyama, Y. (1972). Estimation method of charge distribution in polymeric films. IEEJ Transactions on Fundamental Materials, 92(12), 537–544. https://doi.org/10.1541/ ieejfms1972.92.537
[23] Hanazawa, D., Sonoda, K., Miyake, H., Tanaka, Y.,&Takada, T. (2018). Development of measurement system forDCintegrated charge at high temperature. 2018 Condition Monitoring and Diagnosis (2018), Australia. https://doi.org/10.1109/CMD.2018.8535946
[24] Takada, T., Tohmine, T., Tanaka, Y., & Li, J. (2019). Space charge accumulation in double-layer dielectric systems-measurement methods and quantum chemical calculations. IEEE Electrical Insulation Magazine, 35(3), 36–46. https://doi.org/10.1109/MEI.2019.8804333
[25] Sekiguchi, Y., Hosomizu, K., & Yamazaki, T. (2020). Conduction phenomena of AC- and DC-XLPE analyzed by Q(t) method. 2020 International Symposium on Electrical Insulating Materials (ISEIM), Japan, 166–168. https://ieeexplore.ieee.org/document/9275786
[26] Wang, W., Sonoda, K., Yoshida, S., Takada, T., Tanaka, Y., & Kurihara, T. (2018). Current integrated technique for insulation diagnosis of water-tree degraded cable. IEEE Transactions on Dielectrical and Electrical Insulation, 25(1), 94–101. https://doi.org/10.1109/TDEI.2018.006738
[27] Fuji, M., Matsushita, K., Fukuma, M.,&Mitsumoto, S. (2020). Study on characteristics of electrical tree in epoxy resin measured by current integrated charge method. 2020 International Symposium on Electrical Insulating Materials (ISEIM), Japan, 305–308. https://ieeexplore.ieee.org/document/9275799
[28] Fan, L., Tu, Y., Chen, B., Yi, C., Qin, S., Wang, S. (2020). Space charge behavior of polyimide at cryogenic temperatures. IEEE Transactions on Dielectrical and Electrical Insulation, 27(3), 891–899. https://doi.org/10.1109/TDEI.2020.008704
[29] Li, J., Wang, Y., Ran, Z., Yao, H., Du, B., & Takada, T. (2020). Molecular structure modulated trap distribution and carrier migration in fluorinated epoxy resin. Molecules, 25(3), 3071. https://doi.org/10.3390/molecules25133071

[1] Schwenke, H., Knapp, W., & Haitjema, H. (2008). Geometric error measurement and compensation of machines – an update. CIRP Annals, 57(2), 660–675. https://doi.org/10.1016/j.cirp.2008.09.008
[2] Chen, Z., & Liu, X. (2020). A Self-adaptive interpolation method for sinusoidal sensors. IEEE Transactions on Instrumentation and Measurement, 69(10), 7675–7682. https://doi.org/10.1109/ TIM.2020.2983094
[3] Acosta, D., & Albajez, J. A. (2018). Verification of machine tools using multilateration and a geometrical approach. Nanomanufacturing and Metrology, 1(1), 39–44. https://doi.org/10.1007/ s41871-018-0006-y
[4] Chen, B. Y., Zhang, E. Z., & Yan, L. P. (2009). A laser interferometer for measuring straightness and its position based on heterodyne interferometry. Review of Scientific Instruments, 80(11), 115113. https://doi.org/10.1063/1.3266966
[5] Zhu, L. J., Li, L., Liu, & J. H. (2009). A method for measuring the guideway straightness error based on polarized interference principle. International Journal of Machine Tools and Manufacture, 49(3–4), 285–290. https://doi.org/10.1016/j.ijmachtools.2008.10.009
[6] Lin, S. T. (2001). A laser interferometer for measuring straightness. Optics & Laser Technology, 33(3), 195–199. https://doi.org/10.1016/S0030-3992(01)00024-X
[7] Jywe, W. Y., Liu, C. H., Shien, W. H., Shyu, L. H., & Fang, T. H. (2006). Development of a multidegree of freedoms measuring system and an error compensation technique for machine tools. Journal of Physics Conference Series, 48(1), 761–765. https://doi.org/10.1088/1742-6596/48/1/144
[8] Feng, Q. B., Zhang, B. & Cui, C. X. (2013). Development of a simple system for simultaneous measuring 6DOF geometric motion errors of a linear guide. Optics Express, 21(22), 25805–25819. https://doi.org/10.1364/OE.21.025805
[9] Liu, C. H., Chen, J. H., & Teng, Y. F. (2009). Development of a straightness measurement and compensation system with multiple right-angle reflectors and a lead zirconate titanate-based compensation stage. Review of Scientific Instruments, 80(11), 115105. https://doi.org/10.1063/1.3254018
[10] Fan, K. C. (2000). A laser straightness measurement system using optical fiber and modulation techniques. International Journal of Machine Tools Manufacture, 40(14), 2073–2081. https://doi.org/ 10.1016/S0890-6955(00)00040-7
[11] Hsieh, T. H., Chen, P. Y., & Jywe, W. Y. (2019). A geometric error measurement system for linear guideway assembly and calibration. Applied Sciences, 9(3), 574. https://doi.org/10.3390/app9030574
[12] Ni, J., & Huang, P. S. (1992). A multi-degree-of-freedom measuring system for CMM geometric errors. Journal of Manufacturing Science and Engineering, 114(3), 362–369. https://doi.org/10.1115/1.2899804
[13] Rahneberg, I., & Büchner, H. J. (2009). Optical system for the simultaneous measurement of twodimensional straightness errors and the roll angle. Proceedings of the International Society for Optics and Photonics, the Czech Republic, 7356. https://doi.org/10.1117/12.820634
[14] Chou, C., Chou, L. Y. & Peng, C. K. (1997). CCD-based CMM geometrical error measurement using Fourier phase shift algorithm. International Journal of Machine Tools and Manufacture, 37(5): 579–590. https://doi.org/10.1016/S0890-6955(96)00078-8
[15] Sun, C., Cai, S., & Liu, Y. (2020). Compact laser collimation system for simultaneous measurement of five-degree-of-freedom motion errors. Applied Sciences, 10(15), 5057. https://doi.org/10.3390/app10155057
[16] Huang, Y., Fan, Y., Lou, Z., Fan, K. C., & Sun, W. (2020). An innovative dual-axis precision level based on light transmission and refraction for angle measurement. Applied Sciences, 10(17), 6019. https://doi.org/10.3390/app10176019
[17] Born M., & Wolf E. (2013). Principles of Optics: Electromagnetic Theory of Propagation, Interference and Diffraction of Light. Elsevier. https://www.sciencedirect.com/book/9780080264820/ principles-of-optic

[1] Schwartz, R. (2000). Automatic weighing-principles, applications and developments. Proceedings of XVI IMEKO, Austria, 259–267.
[2] Yamazaki, T., & Ono, T. (2007). Dynamic problems in measurement of mass-related quantities. Proceedings of the SICE Annual Conference, Japan, 1183–1188. https://doi.org/10.1109/SICE.2007.4421164.
[3] Mettler-Toledo GmbH. (2021, June 13). https://www.mt.com/.
[4] Yamakawa, Y., Yamazaki, T., Tamura, J., & Tanaka, O. (2009). Dynamic behaviors of a checkweigher with electromagnetic force compensation. Proceedings of the XIX IMEKO, Portugal, 208– 211. https://www.imeko.org/publications/wc-2009/IMEKO-WC-2009-TC3-184.pdf.
[5] Yamakawa, Y., & Yamazaki, T. (2010). Dynamic behaviors of a checkweigher with electromagnetic force compensation (2nd report). Proceedings of the XIX IMEKO, Portugal. https://www.imeko.org/publications/tc3-2010/IMEKO-TC3-2010-001.pdf.
[6] Yamakawa, Y., & Yamazaki, T. (2013). Simplified dynamic model for high-speed checkweigher. International Journal of Modern Physics. 24, 1–8. https://doi.org/10.1142/S2010194513600367.
[7] Yamakawa, Y., & Yamazaki, T. (2015). Modeling and control for checkweigher on floor vibration. Proceedings of the XXI IMEKO, Czech Republic. https://www.imeko.org/IMEKO-WC-2015- TC3-093.pdf.
[8] Yamazaki, T., Sakurai, Y., Ohnishi, H., Kobayashi, M., & Kurosu, S. (2002). Continuous mass measurement in checkweighers and conveyor belt scales. Proceedings of the SICE Annual Conference, 470–474. https://doi.org/10.1109/SICE.2002.1195446.
[9] Sun, B., Teng, Z., Hu, Q., Lin, H., & Tang, S. (2020). Periodic noise rejection of checkweigher based on digital multiple notch filter. IEEE Sensors Journal, 20(13), 7226–7234. https://doi.org/10.1109/JSEN.2020.2978232.
[10] Piskorowski, J., & Barcinski, T. (2008). Dynamic compensation of load cell response: A timevarying approach. Mechanical Systems and Signal Processing, 22(7), 1694–1704. https://doi.org/10.1016/j.ymssp.2008.01.001.
[11] Pietrzak, P., Meller, M., & Niedzwiecki, M. (2014). Dynamic mass measurement in checkweighers using a discrete time-variant low-pass filter. Mechanical Systems and Signal Processing, 48(1–2), 67–76. https://doi.org/10.1016/j.ymssp.2014.02.013.
[12] Umemoto, T., Sasamoto, Y., Adachi, M., Kagawa, Y. (2008). Improvement of accuracy for continuous mass measurement in checkweighers with an adaptive notch filter. Proceedings of the SICE Annual Conference, 1031–1035. https://doi.org/10.1109/SICE.2008.4654807.
[13] Boschetti, G., Caracciolo, R., Richiedei, D., & Trevisani, A. (2013). Model-based dynamic compensation of load cell response in weighing machines affected by environmental vibrations. Mechanical Systems and Signal Processing, 34(1–2), 116–130. https://doi.org/10.1016/j.ymssp.2012.07.010.
[14] Sun, B., Teng, Z., Hu, Q., Tang, S., Qiu, W., & Lin, H. (2020). A novel LMS-based SANC for conveyor belt-type checkweigher. IEEE Transactions on Instrumentation and Measurement, 70, 1– 10. https://doi.org/10.1109/TIM.2020.3019618.
[15] Niedzwiecki, M., Meller, M., & Pietrzak, P. (2016). System identification -based approach to dynamic weighing revisited. Mechanical Systems and Signal Processing, 80, 582–599. https://doi.org/10.1016/j.ymssp.2016.04.007.
[16] Choi, I. M., Choi, D. J., & Kim, S. H. (2001). The modelling and design of a mechanism for micro-force measurement. Measurement Science and Technology, 12(8), 1270–1278. https://doi.org/10.1088/0957-0233/12/8/339.
[17] Hilbrunner, F., Weis, H., Fröhlich, T., & Jäger, G. (2010). Comparison of different load changers for EMFC-balances. Proceedings of the IMEKO TC3, TC5, and TC22 Conferences Metrology in Modern Context, Thailand. https://www.imeko.org/publications/tc3-2010/IMEKO-TC3-2010-016.pdf.
[18] Yoon, K. T., Park, S. R., & Choi, Y. M. (2020). Electromagnetic force compensation weighing cell with magnetic springs and air bearings. Measurement Science and Technology, 32(1). https://doi.org/10.1088/1361-6501/abae8e.
[19] Zhang, H., Kou, B., Jin, Y., & Zhang, H. (2014). Modeling and analysis of a new cylindrical magnetic levitation gravity compensator with low stiffness for the 6-DOF fine stage. IEEE Transactions on Industrial Electronics, 62(6), 3629–3639. https://doi.org/10.1109/TIE.2014.2365754.
[20] Choi, Y. M., & Gweon, D. G. (2010). A high-precision dual-servo stage using Halbach linear active magnetic bearings. IEEE/ASME Transactions on Mechatronics, 16(5), 925–931. https://doi.org/10.1109/TMECH.2010.2056694.
[21] Lijesh, K. P., & Hirani, H. (2015). Design and development of Halbach electromagnet for active magnet bearing. Progress in Electromagnetics Research C, 56, 173–181. https://doi.org/10.2528/PIERC15011411.

[1] Polish Committee for Standardization. (2010). Paper and cardboard – Determination of tensile properties – Part 2: Test at constant tensile speed (20 mm / min) (ISO Standard No. PN-EN ISO 1924-2). (in Polish)
[2] Laermann, K. H. (Eds.). (2000). Optical Methods in Experimental Solid Mechanics. Springer. https://doi.org/10.1007/978-3-7091-2586-1
[3] Zhu, C., Wang, H., Kaufmann, K., & Vecchio, K. S. (2020). A computer vision approach to study surface deformation of materials. Measurement Science and Technology, 31(5), 055602. https://doi.org/10.1088/1361-6501/ab65d9
[4] Sutton, M. A. (2008). Digital Image Correlation for Shape and Deformation Measurements. In: Sharpe, W. (Eds.). Springer Handbook of Experimental Solid Mechanics. Springer Handbooks (pp. 565-600). Springer. https://doi.org/10.1007/978-0-387-30877-7_20
[5] Sutton, M. A., Orteu, J. J., & Schreier, H. (2009). Image correlation for shape, motion and deformation measurements: basic concepts, theory and applications. Springer Science & Business Media. https://doi.org/10.1007/978-0-387-78747-3
[6] Khoo, S. W., Karuppanan, S., & Tan, C. S. (2016). A review of surface deformation and strain measurement using two-dimensional digital image correlation. Metrology and Measurement Systems, 23(3), pp. 461–480. https://doi.org/10.1515/mms-2016-0028
[7] Debella-Gilo, M., & Kääb, A. (2010). Sub-pixel Precision Image Matching for Displacement Measurement of Mass Movements Using Normalised Cross-Correlation. ISPRS TC VII Symposium – 100 Years ISPRS, Austria, XXXVIII, Part 7B.
[8] White, D. J., Take, W. A., & Bolton, M. D. (2003). Soil deformation measurement using particle image velocimetry (PIV) and photogrammetry. Geotechnique, 53(7), 619–631. https://doi.org/10.1680/geot.2003.53.7.619
[9] Take, W. A. (2015). Thirty-Sixth Canadian Geotechnical Colloquium: Advances in visualization of geotechnical processes through digital image correlation. Canadian Geotechnical Journal, 52(9), 1199–1220. https://doi.org/10.1139/cgj-2014-0080
10] Stanier, S. A., Blaber, J., Take, W. A., & White, D. J. (2016). Improved image-based deformation measurement for geotechnical applications. Canadian Geotechnical Journal, 53(5), 727–739. https://doi.org/10.1139/cgj-2015-0253
[11] Chivers, K. & Clocksin, W. (2000). Inspection of Surface Strain in Materials Using Optical Flow, In Mirmehdi, M. & Barry T., (Eds.). Proceedings of the British Machine Conference. BMVA Press. https://doi.org/10.5244/C.14.41
[12] Lyubutin, P. S. (2015). Development of optical flow computation algorithms for strain measurement of solids. Computer Optics, 39(1), 94–100. https://doi.org/10.18287/0134-2452-2015-39-1-94-100
[13] Hartmann, C., & Volk,W. (2019). Digital image correlation and optical flow analysis based on the material texture with application on high-speed deformation measurement in shear cutting. International Conference on Digital Image & Signal Processing, United Kingdom.
[14] Jiao,W., Fang, Y.,&He, G. (2008). An integrated feature -based method for sub-pixel image matching. The International Archives of the Photogrammetry, China, XXXVII, Part B1.
[15] Zwick Roell. Product Information videoXtens 2-120 HP. https://www.zwickroell.com
[16] Narita, G., Watanabe, Y., & Ishikawa, M. (2016). Dynamic projection mapping onto deforming nonrigid surface using deformable dot cluster marker. IEEE Transactions on Visualization and Computer Graphics, 23(3), 1235–1248. https://doi.org/10.1109/TVCG.2016.2592910
[17] Mishra, S. R., Mohapatra, S. R., Sudarsanan, N., Rajagopal, K., & Robinson, R. G. (2017). A simple image-based deformation measurement technique in tensile testing of geotextiles. Geosynthetics International, 24(3), 306–320. https://doi.org/10.1680/jgein.17.00003
[18] Duda, A., & Frese, U. (2018). Accurate Detection and Localization of Checkerboard Corners for Calibration. 29th British Machine Vision Conference (BMVC-29), United Kingdom. https://bmvc2018.org/contents/papers/0508.pdf
[19] Jones, A. R. (1968). An Experimental Investigation of the In-Plane Elastic Moduli of Paper. Tappi, 51(5), 203–209.
[20] Szewczyk, W. (2008). New methods of assessing the load capacity of multilayer laminates of paper and cardboard. Science Notebooks Lodz University of Technology, 1027. (in Polish).
[21] Cao, X., Bi, Z.,Wei, X.,&Xie,Y. (2012). Determination of Poisson’s Ratio of Kraft Paper Using Digital Image Correlation. In: Zhang T. (Eds.). Mechanical Engineering and Technology. Advances in Intelligent and Soft Computing (pp. 51-57), 125. Springer. https://doi.org/10.1007/978-3-642-27329-2_8

[1] Gbur, G. (2016). Singular Optics. CRC Press. https://doi.org/10.1201/9781315374260
[2] Vasnetsov, M. & Staliunas, K. (1999). Optical vortices. Nova Science.
[3] Andrews, D. (2008). Structured light and its applications, Academic Press.
[4] Wang, W., Ishii, N., Hanson, S., Miyamoto, Y., & Takeda, M. (2005). Pseudophase information from the complex analytic signal of speckle fields and its applications. Part II: Statistical properties of the analytic signal of a white-light speckle pattern applied to the microdisplacement measurement. Applied Optics, 44(23), 4916–4921. https://doi.org/10.1364/AO.44.004916
[5] Wang,W., Yokozeki, T., Ishijima, R., & Takeda, M. (2006). Optical vortex metrology based on the core structures of phase singularities in Laguerre- Gauss transform of a speckle pattern. Optics Express, 14(22), 10195–10206. https://doi.org/10.1364/OE.14.010195
[6] Popiołek-Masajada, A., Borwinska, M., & Frączek, W. (2006). Testing a new method for small-angle rotation measurements with the optical vortex interferometer. Measurement Science and Technology, 17(4), 653–658. https://doi.org/10.1088/0957-0233/17/4/007
[7] Frączek E., & Mroczka, J. (2009). An accuracy analysis of small angle measurement using the optical vortex interferometer. Metrology and Measurement System, 15(1), 3–8.
[8] Eastwood, S. A., Bishop, A. I., Petersen, T. C., Paganin, D. M., & Morgan, M. J. (2012). Phase measurement using an optical vortex lattice produced with a three-beam interferometer. Optics Express, 20(13), 13947–13957. https://doi.org/10.1364/OE.20.013947
[9] Bouchal, P., Štrbková, L., Dostál, Z., & Bouchal, Z. (2017). Vortex topographic microscopy for full-field reference-free imaging and testing. Optics Express, 25(18), 21428–21443. https://doi.org/10.1364/OE.25.021428
[10] Schovanek, P., Bouchal, P., & Bouchal, Z. (2020). Optical topography of rough surfaces using vortex localization of fluorescent markers. Optics Letters, 45(16), 4468–4471. https://doi.org/10.1364/ OL.392072
[11] Rockstuhl, C., Märki, I., Scharf, T., Salt, M., Herzig, H. P., & Dändliker, R. (2006). High Resolution Interference Microscopy: A Tool for Probing Optical Waves in the Far-Field on a Nanometric Length Scale, Current Nanoscience, 2(4), 337–350. https://doi.org/10.2174/157341306778699383
[12] Symeonidis, M., Nakagawa,W., Kim, D. C., Hermerschmidt, A., & Scharf, T. (2019). High-resolution interference microscopy of binary phase diffractive optical elements. OSA Continuum, 2(9), 2496– 2510. https://doi.org/10.1364/OSAC.2.002496
[13] Spektor, B., Normatov, A., & Shamir, J. (2008). Singular beam microscopy. Applied Optics, 47(4), A78–A87. https://doi.org/10.1364/AO.47.000A78
[14] Masajada, J., Leniec, M., Drobczynski, S., Thienpont, H., & Kress, B. (2009). Micro-step localization using double charge optical vortex interferometer. Optics Express, 17(18), 16144–1615. https://doi.org/10.1364/OE.17.016144
[15] Serrano-Trujillo, A., & Anderson, M. E. (2018). Surface profilometry using vortex beams generated with a spatial light modulator. Optics Communications, 427, 557–562. https://doi.org/10.1016/ j.optcom.2018.07.003
[16] Doster, T., &Watnik, A. T. (2017). Machine learning approach to OAM beam demultiplexing via convolutional neural networks. Applied Optics, 56(12), 3386–3396. https://doi.org/10.1364/AO.56.003386
[17] Zhao, Q., Hao, S., Wang, Y., Wang, L., Wan, X., & Xu, C. (2018). Mode detection of misaligned orbital angular momentum beams based on convolutional neural network. Applied Optics, 57(35), 10152–10158. https://doi.org/10.1364/AO.57.010152
[18] Knutson, M., Lohani, S., Danac, O., Huver, S. D., & Glasser, R.T. (2016). Deep learning as a tool to distinguish between high orbital angular momentum optical modes. Proceedings SPIE, 9970, 997013. https://doi.org/10.1117/12.2242115
[19] Frączek, E., Popiołek-Masajada, A., & Szczepaniak, S. (2020). Characterization of the Vortex Beam by Fermat’s Spiral. Photonics, 7(4), 102. https://doi.org/10.3390/photonics7040102
[20] Płocinniczak, Ł., Popiołek-Masajada, A., Masajada, J., & Szatkowski, M. (2016). Analytical model of the optical vortex microscope. Applied Optics, 55(12), B20–B27. https://doi.org/10.1364/AO.55.000B20
[21] Popiołek-Masajada, A., Masajada, J., & Szatkowski, M. (2018). Internal scanning method as unique imaging method of optical vortex scanning microscope. Optics and Laser in Engineering, 105, 201– 208. https://doi.org/10.1016/j.optlaseng.2018.01.016
[22] Popiołek-Masajada, A., Masajada, J., & Kurzynowski, P. (2017). Analytical model of the optical vortex scanning microscope with the simple phase object. Photonics, 4(2), 38. https://doi.org/ 10.3390/photonics4020038
[23] Takeda, T. M., Ina, H., Kobayashi, S. (1982). Fourier-transform method of fringe-pattern analysis for computer-based topography and interferometry. Journal of the Optical Society of America, 72(1), 156–60. https://doi.org/10.1364/JOSA.72.000156
[24] Larkin, K. G., Bone, D. J., & Oldfield, M. A. (2001). Natural demodulation of two-dimensional fringe patterns. I.General background of the spiral phase quadrature transform. Journal of the Optical Society of America A, 18(8), 1862–1870. https://doi.org/10.1364/JOSAA.18.001862
[25] Frączek, E., & Idzkowski, W. (2020). Artificial intelligent methods for the location of vortex points. In Rutkowski, L., Scherer, R., Korytkowski, M., Pedrycz, W., Tadeusiewicz R., & Zurada, J. M. (Eds.). Artificial Intelligence and Soft Computing (pp. 71–77). Springer. https://doi.org/10.1007/978-3-030-61401-0_7

[1] Khan,W., Hong, H. H., Satar, T., Ahmed, M., Khan, Z. A.,& Khan, M. Z. (2016). The KRISS primary vacuum gauge calibration standards:Areview. Journal of the Vacuum Society of Japan, 59(8), 222–235.
[2] Astrua, M., Mari, D., & Pasqualin, S. (2019). Improvement of INRiM static expansion system as vacuum primary standard between 10(-4) Pa and 1000 Pa. 19th International Congress of Metrology, 27007. https://doi.org/10.1051/metrology/201927007
[3] Semwal, P., Khan, Z., Dhanani, K. R., Pathan, F. S., George, S., Raval, D. C., Thankey, P. L., Paravastu, Y., & Himabindu, M. (2012). Spinning rotor gauge based vacuum gauge calibration system at the Institute for Plasma Research. Journal of Physics: Conference Series, 390, 012027. https://doi.org/10.1088/1742-6596/390/1/012027
[4] Bergoglio, M., & Calcatelli, A. (2004). Uncertainty evaluation of the IMGC-CNR static expansion system. Metrologia, 41, 278–284. https://doi.org/10.1088/0026-1394/41/4/009
[5] Greenwood, J. C. (2006). Simulation of the operation and characteristics of static expansion pressure standards. Vacuum, 80, 548–553. https://doi.org/10.1016/j.vacuum.2005.09.003
[6] Soriano Cardona, B., Torres Guzmán, J., & Santander Romero, L. (2001). Sistema de referencia nacional para la medición de vacío. Simposio de Metrología CENAM 2001, México.
[7] Bergoglio, M., Calcatelli, A., Marzola, L., & Rumiano, G. (1988). Primary pressure measurements down to 10(-6) Pa. Vacuum, 38(8–10), 887–891. https://doi.org/10.1016/0042-207X(88)90486-1
[8] Fedchak, J. A., Abbott, P. J., & Hendricks, J. H. (2018). Review Article: Recommended practice for calibrating vacuum gauges of the ionization type. Journal of Vacuum Science & Technology A, 36, 030802. https://doi.org/10.1116/1.5025060
[9] Torres Guzmán, J. C., Santander, L. A., & Jousten, K. (2005). Realization of the medium and high vacuum primary standard inCENAM,Mexico.Metrologia, 42(6), S157–S160. https://doi.org/10.1088/0026-1394/42/6/S01
[10] Jousten, K., Röhl, P., & Aranda Contreras, V. (1999). Volume ratio determination in static expansion systems by means of a spinning rotor gauge. Vacuum, 52(4), 491–499. https://doi.org/10.1016/S0042-207X(98)00337-6
[11] Herranz, D., Ruiz, S., & Medina, N. (2009). Volume ratio determination in static expansion systems by means of two pressure balances. XIX IMEKO World Congress, Fundamental and Applied Metrology, Portugal. https://www.imeko2009.it.pt/Papers/FP_280.pdf
[12] Phanakulwijit, S.,&Pitakarnnop, J. (2019). Establishment of Thailand’s national primary vacuum standard by a static expansion method. Journal of Physics: Conference Series, 1380, 012003. https://doi.org/10.1088/1742-6596/1380/1/012003
[13] Jitschin, W. (2002). High-accuracy calibration in the vacuum range 0.3 Pa to 4000 Pa using the primary standard of static gas expansion. Metrologia, 39(3), 249–261. https://doi.org/10.1088/0026-1394/39/3/2
[14] Kangi, R., Ongun, B., & Elkatmis, A. (2004). The new UME primary standard for pressure generation in the range from 9 × 10 ^-4 Pa to 103 Pa. Metrologia, 41(4), 251–256. https://doi.org/10.1088/ 0026-1394/41/4/005
[15] International Organization for Standardization. (2011). Vacuum gauges – Calibration by direct comparison with a reference gauge ISO Standard No. 3567:2011. https://www.iso.org/standard/59372.html
[16] Antsukova, A. I., Gorobei, V. N., Liubomirov, A. B., Pimenova, A. A.,&Chernyshenko, A. A. (2019). Calibration of measuring instruments of low absolute pressures. IOP Conference Series: Journal of Physics: Conference Series, 1313, 012002. https://doi.org/10.1088/1742-6596/1313/1/012002
[17] Ruiz González, S. (2011). Desarrollo de un nuevo patrón nacional de presión. Desde la columna de mercurio a patrones primarios de vacío [Doctoral dissertation, Universidad de Valladolid]. UVaDOC Repositorio Documental de la Universidad de Valladolid. https://doi.org/10.35376/10324/830
[18] Joint Committee for Guides in Metrology. (2008). Evaluation of measurement data – Guide to the expression of uncertainty in measurement (JCGM 100:2008). http://www.bipm.org/utils/common/ documents/jcgm/JCGM_100_2008_E.pdf
[19] Joint Committee for Guides in Metrology. (2008). Evaluation of measurement data – Supplement 1 to the “Guide to the expression of uncertainty in measurement” – Propagation of distributions using a Monte Carlo method (JCGM 101:2008). https://www.bipm.org/documents/20126/2071204/ JCGM_101_2008_E.pdf

[1] Sangwal, K. (2007). Additives and Crystallization Processes: From Fundamentals to Applications. Wiley. https://doi.org/10.1002/9780470517833
[2] Shah, P. B.,&Jones, K. A. (1998). Two-dimensional numerical investigation of the impact of materialparameter uncertainty on the steady-state performance of passivated 4H–SiC thyristors. Journal of Applied Physics, 84(8), 4625–4630. https://doi.org/10.1063/1.368689
[3] Pas, J., & Rosinski, A. (2017). Selected issues regarding the reliability-operational assessment of electronic transport systems with regard to electromagnetic interference. Eksploatacja i Niezawodnosc, 19(3), 375–381. https://doi.org/10.17531/ein.2017.3.8
[4] Makowski, L., Dziadak, B., & Suproniuk, M. (2019). Design and development of original WSN sensor for suspended particulate matter measurements. Opto-Electronics Review, 27(4), 363–368. https://doi.org/10.1016/j.opelre.2019.11.005
[5] Górecki, P., & Górecki, K. (2015). The analysis of accuracy of selected methods of measuring the thermal resistance of IGBTs. Metrology and Measurement Systems, 22(3), 455–464. https://doi.org/10.1515/mms-2015-0036
[6] Matsuura, H., Komeda, M., Kagamihara, S., Iwata, H., Ishihara, R., Hatakeyama, T., Watanabe, T., Kojima, K., Shinohe, T., & Arai, K. (2004). Dependence of acceptor levels and hole mobility on acceptor density and temperature in Al-doped p-type 4H–SiC epilayers. Journal of Applied Physics, 96(5), 2708–2715. https://doi.org/10.1063/1.1775298
[7] Kagamihara, S., Matsuura, H., Hatakeyama, T., Watanabe, T., Kushibe, M., Shinohe, T., & Arai, K. (2004). Parameters required to simulate electric characteristics of SiC devices for n-type 4H–SiC. Journal of Applied Physics, 96(10), 5601–5606. https://doi.org/10.1063/1.1798399
[8] Matsuura, H., Komeda, M., Kagamihara, S., Iwata, H., Ishihara, R., Hatakeyama, T., Watanabe, T., Kojima, K., Shinohe, T., & Arai, K. (2004). Dependence of acceptor levels and hole mobility on acceptor density and temperature in Al-doped p-type 4H–SiC epilayers. Journal of Applied Physics, 96(5), 2708–2715. https://doi.org/10.1063/1.1775298
[9] Suproniuk, M., Pawłowski, M., Wierzbowski, M., Majda-Zdancewicz, E., & Pawłowski, Ma. (2018). Comparison of methods applied in photoinduced transient spectroscopy to determining the defect center parameters: The correlation procedure and the signal analysis based on inverse Laplace transformation. Review of Scientific Instruments, 89(4). https://doi.org/10.1063/1.5004098
[10] Suproniuk, M., Kaczmarek, W., & Pawlowski, M. (2019). A New Approach to Determine the Spectral Images for Defect Centres in High-Resistive Semiconductor Materials. Proceedings of the 23rd International Conference Electronics 2019, Lithuania. https://doi.org/10.1109/ELECTRONICS.2019.8765694
[11] Piwowarski, K. (2020). Comparison of photoconductive semiconductor switch parameters with selected switch devices in power systems. Opto-electronics Review, 28(2), 74–81. https://doi.org/10.24425/opelre.2020.132502
[12] Suproniuk, M. (2020). Effect of generation rate on transient photoconductivity of semi-insulating 4H–SiC. Scientific Reports, 10(1). https://doi.org/10.1038/s41598-020-68898-z
[13] Suproniuk, M., Piwowarski, K., Perka, B., Kaminski, P., Kozlowski, R., & Teodorczyk, M. (2019). Blocking characteristics of photoconductive switches based on semi-insulating GAP and GaN. Elektronika ir Elektrotechnika, 25(4), 36–39. https://doi.org/10.5755/j01.eie.25.4.23968
[14] Sze, S. M.,&Kwok, K. Ng. (2006). Physics of Semiconductor Devices.Wiley. https://doi.org/10.1002/ 0470068329
[15] Colinge, J. P., & Colinge C. A. (2002). Physics of Semiconductor Devices. Springer. https://doi.org/10.1007/b117561
[16] Kozubal, M. (2011). Effect shallow impurities on the properties and concentrations of deep-level defect centres in SiC. Ph.D. Dissertation. https://rcin.org.pl/dlibra/publication/29712
[17] Zvanut, M. E., & Konovalov, V. V. (2002). The level position of a deep intrinsic defect in 4H–SiC studied by photoinduced electron parametric resonance. Applied Physics Letters, 80(3), 410–412. https://doi.org/10.1063/1.1432444
[18] Kaminski, P., Kozubal, M., Caldwell, J. D., Kew, K. K., Van Mil, B. L., Myers-Ward, R. L., Eddy, C. R. Jr., & Gaskill, D. K. (2010). Deep-level defects in epitaxial 4H–SiC irradiated with low-energy electrons. Electron Mater, 38(3–4), 26–34.
[19] Danno, K., & Kimoto, T. (2006). Deep hole traps in as-grown 4H–SiC epilayers investigated by deep level transient spectroscopy. Materials Science Forum, 527–529, 501–504. https://doi.org/10.4028/ www.scientific.net/MSF.527-529.501
[20] Kaminski, P., Kozłowski, R., Strzelecka, S., Hruban, A., Jurkiewicz-Wegner, E., & Piersa, M. (2011). High-resolution photoinduced transient spectroscopy of defect centres in semi-insulating GaP. Physica Status Solidi (C) Current Topics in Solid State Physics, 8(4), 1361–1365. https://doi.org/10.1002/ pssc.201084009
[21] Ioffe.ru. GaP – Gallium Phosphide, Band structure and carrier concentration. http://www.ioffe.ru/ SVA/NSM/Semicond/GaP/bandstr.html
[22] Kennedy, T. A., & Wilsay, N. D. (1984). Electron paramagnetic resonance identification of the phosphorus antisite in electron-irradiated InP. https://doi.org/10.1063/1.94654
[23] Baber, N., & Iqbal, M. Z. (1987). Field effect on thermal emission from the 0.85-eV hole level in GaP. Journal of Applied Physics, 62(11), 4471–4474. https://doi.org/10.1063/1.339036
[24] Panish M. B., & Casey, H. C. Jr. (1969). Temperature dependence of the energy GaP in GaAs and GaP. Journal of Applied Physics, 40(1), 163–167. https://doi.org/10.1063/1.1657024

[1] Rosado, L. S., Gonzalez, J. C., Santos, T. G., Ramos, P. M., & Pieda, M. (2013). Geometric optimization of a differential planar eddy currents probe for non-destructive testing. Sensors and Actuators A: Physical., 197, 96–105. https://doi.org/10.1016/j.sna.2013.04.010
[2] Su, Z., Efremov, A., Safdarnejad, M., Tamburrino, A., Udpa, L., & Udpa, S. (2015). Optimization of coil design for near uniform interrogating field generation. AIP Conference Proceedings, 1650, 405–413. https://doi.org/10.1063/1.4914636
[3] Su, Z.,Ye, C., Tamburrino, A., Udpa, L.,&Udpa, S. (2016). Optimization of coil design for eddy current testing of multi-layer structures. International Journal of Applied Electromagnetics and Mechanics, 52(1–2), 315–322. https://doi.org/10.3233/JAE-162030
[4] Liu, Z., Yao, J., He, C., Li, Z., Liu, X., & Wu, B. (2018). Development of a bidirectional-excitation eddy-current sensor with magnetic shielding: Detection of subsurface defects in stainless steel. IEEE Sensors J., 18(15), 6203–6216. https://doi.org/10.1109/JSEN.2018.2844957
[5] Ye, C., Udpa, L., & Udpa, S. (2016). Optimization and Validation of Rotating Current Excitation with GMR Array Sensors for Riveted Structures Inspection. Sensors, 16(9), 1512. https://doi.org/10.3390/s16091512
[6] Rekanos, I. T., Antonopoulos, C. S., & Tsiboukis, T. D. (1999). Shape design of cylindrical probe coils for the induction of specified eddy current distributions. IEEE Transactions Magnetics, 35(3), 1797–1800. https://doi.org/10.1109/20.767380
[7] Li, Y., Ren, S., Yan, B., Zainal Abidin, I. M., & Wang, Y. (2017). Imaging of subsurface corrosion using gradient-field pulsed eddy current probes with uniform field excitation. Sensors, 17, 1747. https://doi.org/10.3390/s17081747
[8] Hashimoto, M., Kosaka, D., Ooshima, K., & Nagata, Y. (2002). Numerical analysis of eddy current testing for tubes using uniform eddy current distribution. International Journal of Applied Electromagnetics and Mechanics, 15(1–4), 27–32. https://doi.org/10.3233/JAE-2002-511
[9] Repelianto, A. S., Kasai, N., Sekino, K., & Matsunaga, M. (2019). A Uniform Eddy Current Probe with a Double-Excitation Coil for Flaw Detection on Aluminium Plates. Metals, 9(10), 1116. https://doi.org/10.3390/met9101116
[10] Halchenko, V. Ya., Trembovetskaya, R. V., & Tychkov, V. V. (2020). Surface eddy current probes: excitation systems of the optimal electromagnetic field (review). Devices and Methods of Measurements, 11(2), 91–104. https://doi.org/10.21122/2220-9506-2020-11-2-91-104
[11] Trembovetska, R. V., Halchenko, V. Ya., Tychkov, V. V., & Storchak, A. V. (2020). Linear Synthesis of Uniform Anaxial Eddy Current Probes with a Volumetric Structure of the Excitation System. International Journal “NDT Days”, 3(4), 184–190. https://www.bg-s-ndt.org/journal/ vol3/JNDTD-v3-n4-a01.pdf (in Russian)
[12] Halchenko, V. Ya., Yakimov, A. N., & Ostapuschenko, D. L. (2010). Global optimum search of functions with using of multiagent swarm optimization hybrid with evolutional composition formation of population. Information Technology, 10, 9–16. http://novtex.ru/IT/it2010/It1010.pdf (in Russian)
[13] Itaya, T., Ishida, K., Kubota, Y., Tanaka, A., & Takehira, N. (2016). Visualization of Eddy Current Distributions for Arbitrarily Shaped Coils Parallel to a Moving Conductor Slab. Progress In Electromagnetics Research M, 47, 1–12. https://doi.org/10.2528/PIERM16011204
[14] Itaya, T., Ishida, K., Tanaka, A., Takehira, N., & Miki, T. (2012). Eddy Current Distribution for a Rectangular Coil Arranged Parallel to a Moving Conductor Stab. IET Science, Measurement & Technology, 6(2), 43–51. https://doi.org/10.1049/iet-smt.2011.0015
[15] Kozieł, S., & Bekasiewicz, A. (2017). Multi-objective design of antennas using surrogate models, World Scientific Publishing Europe Ltd. [16] Forrester, A. I. J., Sóbester, A., & Keane, A. J. (2008). Engineering design via surrogate modelling: a practical guide. Chichester: Wiley.
[17] Burnaev, E. V., Erofeev, P., Zaitsev, A., Kononenko, D., & Kapushev E. (2015). Surrogate modeling and optimization of the airplane wing profile based on Gaussian processes. http://itas2012.iitp.ru/pdf/ 1569602325.pdf (in Russian)
[18] Koziel, S., Echeverría Ciaurri, D., & Leifsson L. (2011). Surrogate-based methods. In Koziel S., Yang XS. (Eds.), Computational Optimization, Methods and Algorithms. Studies in Computational Intelligence, 356, Springer-Verlag. https://doi.org/10.1007/978-3-642-20859-1_3
[19] Halchenko, V. Ya., Trembovetska, R. V., Tychkov, V. V., & Storchak, A. V. (2019). Nonlinear surrogate synthesis of the surface circular eddy current probes. Przegla˛d Elektrotechniczny, 9, 76–82. https://doi.org/10.15199/48.2019.09.15
[20] Halchenko,V. Ya., Trembovetska, R. V.,&Tychkov, V. V. (2019). Linear synthesis of non-axial surface eddy current probes. International Journal “NDT Days”, 2(3), 259–268. https://www.ndt.net/article/ NDTDays2019/papers/JNDTD-v2-n3-a03.pdf (in Russian)
[21] Trembovetska, R. V., Halchenko, V. Y., & Tychkov, V. V. (2019). Multiparameter hybrid neural network metamodel of eddy current probes with volumetric structure of excitation system. International Scientific Journal Mathematical Modeling, 4(3), 113–116. https://stumejournals.com/journals/ mm/2019/4/113
[22] Koshevoy, N. D., Gordienko, V. A., & Sukhobrus, Ye. A. (2014). Optimization for the design matrix realization value with the aim to investigate technological processes. Telecommunications and radio engineering, 73(15), 1383–1386. https://doi.org/10.1615/TelecomRadEng.V73.i15.60 (in Russian)
[23] Halchenko, V. Ya., Trembovetska, R. V., Tychkov, V. V., & Storchak, A. V. (2020). The Construction of Effective Multidimensional Computer Designs of Experiments Based on a Quasi-random Additive Recursive Rd–sequence. Applied Computer Systems, 25(1), 70–76. https://doi.org/10.2478/ acss-2020-0009
[24] Brink, H., Richards, J., & Fetherolf, M. (2017). Real-World Machine Learning. Manning Publications Co.
[25] Kuznetsov, B. I., Nikitina, T. B.,& Bovdui, I. V. (2020). Active shielding of magnetic field of overhead power line with phase conductors of triangle arrangement. Tekhnichna elektrodynamika, 4, 25–28. https://doi.org/10.15407/techned2020.04.025

ACIA. 2005. Impacts of a warming Arctic: Arctic Climate Impact Assessment. Cambridge University Press, New York.

BEERMANN J. and FRANKE H.D. 2012. Differences in resource utilization and behaviour between coexisting Jassa species (Crustacea, Amphipoda). Marine Biology 159: 951–957.

BERGE J., HEGGLAND K., LØNNE O.J., COTTIER F., HOP H., GABRIELSEN G.W., NØTTESTAD L. and MISUND O.A. 2015. First records of Atlantic Mackerel (Scomber scombrus) from the Svalbard Archipelago, Norway, with possible explanations for the extension of its distribution. Arctic 68: 54–61.

BERGE J., JOHNSEN G., NILSEN F., GULLIKSEN B. and SLAGSTAD D. 2005. Ocean temperature oscillations enable reappearance of blue mussels Mytilus edulis in Svalbard after a 1000 year absence. Marine Ecology Progress Series 303: 167–175.

BOER den P.J. 1980. Exclusion or coexistence and the taxonomic or ecological relationship between species. Netherlands Journal of Zoology 30: 278–306.

BURROWS M.T., BATES A.E., COSTELLO M.J., EDWARDS M., EDGAR G.J., FOX C.J., HALPERN B. S., HIDDINK J.G., PINSKY M.L., BATT R.D., MOLINOS J.G., PAYNE B.L., SCHOEMAN D.S., STUART-SMITH R.D. and POLOCZANSKA E.S. 2019. Ocean community warming responses explained by thermal affinities and temperature gradients. Nature Climate Change 9: 959– 963.

COTTIER F., SKOGSETH R., DAVID D. and BERGE J. 2019. Temperature time-series in Svalbard fjords. A contribution from the integrated marine observatory partnership (iMOP). In: E. Orr, G. Hansen, H. Lappalainen, C. Hübner and H. Lihavainen (eds) Svalbard Integrated Arctic Earth Observing System. SESS report 2018, Longyearbyen: 108–118.

CROKER R.A. 1967. Niche diversity in five sympatric species of intertidal amphipods (Crustacea; Haustroiddae). Ecological Monograph 37: 174–200.

CSAPÓ H.K., GRABOWSKI M. and WĘSŁAWSKI J.M. 2021. Coming home — boreal ecosystem claims Atlantic sector of the Arctic. Science of the Total Environment 771: 144817.

GERHARDT A., BLOOR M. and MILLS C.L. 2011. Gammarus: important taxon in freshwater and marine changing environments. International Journal of Zoology 2011: 524276.

GERLAND S., PAVLOVA O., DIVINE D., NEGREL J., DAHLKE S., JOHANSSON A.M., MATURILLI M. and SEMMLING M. 2020. Long-term monitoring of landfast sea ice extent and thickness in Kongsfjorden, and related applications (FastIce). In: F. Van den Heuvel, C. Hübner, M. Błaszczyk, M. Heimann and H. Lihavainen (eds) Svalbard Integrated Arctic Earth Observing System. SESS report 2019, Longyearbyen: 160–167.

GRABOWSKI M., JABŁOŃSKA A., WEYDMANN-ZWOLICKA A., GANTSEVICH M., STRELKOV P., SKAZINA M. and WĘSŁAWSKI J.M. 2019. Contrasting molecular diversity and demography patterns in two intertidal amphipod crustaceans reflect Atlantification of High Arctic. Marine Biology 166: 155.

GRABOWSKI M., KONOPACKA A., JAŻDŻEWSKI, K. and JANOWSKA E. 2006. Invasions of alien gammarid species and retreat of natives in the Vistula Lagoon (Baltic Sea, Poland). Helgoland Marine Research 60: 90–97.

GUERRA-GARCIA J.M., BAEZA-ROJANO E., CABEZAS M.P. and GARCIA-GOMEZ J.C. 2011. Vertical distribution and seasonality of peracarid crustaceans associated with intertidal macroalgae. Journal Sea Research 65: 256–264. HERVÉ M. 2021. RVAideMemoire: Testing and Plotting Procedures for Biostatistics. https://cran.r- project.org/web/packages/RVAideMemoire/index.html

HILL C. and ELMGREN R. 1987. Vertical distribution in the sediment in the co-occurring benthic amphipods Pontoporeia affinis and P. femorata. Oikos 49: 221–229.

IKKO N.V. and LYUBINA O.S. 2010. Distribution of the genus Gammarus (Crustacea, Amphipoda) along the coast of Arctic fjords as an indicator of prevailing environmental conditions. Doklady Biological Sciences 431: 149–15.

INGÓLFSSON A. 1977. Distribution and habitat of some intertidal amphipods in Iceland. Acta Naturalia Islandica 25: 1–28.

INGÓLFSSON A. 1995. Dynamics of macrofaunal communities of floating seaweed clumps off western Iceland: a study of patches on the surface of the sea. Journal of Experimental Marine Biology and Ecology 231: 119–137.

JERMACZ Ł., ANDRZEJCZAK J., ARCZYŃSKA E., ZIELSKA J. and KOBAK J. 2017. An enemy of your enemy is your friend: Impact of predators on aggregation behavior of gammarids. Ethology 123: 627–639.

KIESSLING T., GUTOW L. and THIEL M. 2015. Marine litter as habitat and dispersal vector. In: M. Bergmann, L. Gutow and M. Klages (eds) Marine anthropogenic litter. Springer, Cham.

KOLDING S. and FENCHEL T.M. 1979. Coexistence and life cycle characteristics of five species of amphipod genus Gammarus. Oikos 33: 323–327.

KORPINEN S. and WESWTERBOM M. 2010. Microhabitat segregation of the amphipod genus Gammarus (Crustacea, Amphipoda) in the Northern Baltic Sea. Marine Biology 157: 361–370.

KOTTA J., ORAV-KOTTA H., JÄNES H., HUMMEL H., ARVANITIDIS C., VAN AVESAATH P., BACHELET G., BENEDETTI-CECCHI L., BOJANIĆ N., COMO S., COPPA S., COUGHLAN J., CROWE T., DAL BELLO M., DEGRAER S., DE LA PENA J.A.J., FERNANDES DE MATOS V.K., ESPINOSA F., FAULWETTER S., FROST M., GUINDA X., JANKOWSKA E., JOURDE J., KERCKHOF F., LAVESQUE N., LECLERC J.-C., MAGNI P., PAVLOUDI C., PEDROTTI M.L., PELEG O., PÉREZ- RUZAFA A., PUENTE A., RIBEIRO P., RILOV G., ROUSOU M., RUGINIS T., SILVA T., SIMON N., SOUSA-PINTO I., TRONCOSO J., WARZOCHA J. and WĘSŁAWSKI J.M. 2016. Essence of the patterns of cover and richness of intertidal hard bottom communities: a pan-European study. Journal of the Marine Biological Association of the United Kingdom 97: 525–538.

KOTWICKI L., WĘSŁAWSKI J.M., WŁODARSKA-KOWALCZUK M., MAZURKIEWICZ M., WENNE R., ZBAWICKA M., MINCHIN D. and OLENIN S. 2021. The re-appearance of the Mytilus spp. complex in Svalbard, Arctic, during the Holocene: The case for an arrival by anthropogenic flotsam. Global and Planetary Change 202: 103502.

KRAFT A., NÖTHIG E.M., BAUERFEIND E., WILDISH D.J., POHLE G.W., BATHMANN U.V., BESZCZYŃSKA-MÖLLER A. and KLAGES M. 2013. First evidence of reproductive success in a southern invader indicates possible community shifts among Arctic zooplankton. Marine Ecology Progress Series 493: 291–296.

LANCELOTTI D.A. and TRUCCO R.G. 1993. Distribution patterns and coexistence of six species of the amphipod genus Hyale. Marine Ecology Progress Series 93: 131–141.

LYDERSEN C., GJERTZ I. and WĘSŁAWSKI J.M. 1989. Stomach contents of autumn feeding marine invertebrates from Hornsund, Svalbard. Polar Records 25: 107–114.

MACNEIL C., DICK J.T.A. and ELWOOD R.W. 1999. The dynamics of predation on Gammarus spp. (Crustacea: Amphipoda). Biological Reviews 74: 375–395.

NILSEN F., COTTIER F., SKOGSETH R. and MATTSSON S. 2008. Fjord–shelf exchanges controlled by ice and brine production: The interannual variation of Atlantic Water in Isfjorden, Svalbard. Continental Shelf Research 28: 1838–1853.

PIECHURA J. and WALCZOWSKI W. 2009. Warming of the West Spitsbergen Current and sea ice north of Svalbard. Oceanologia 51: 147–164.

POLYAKOV I.V., ALKIRE M.B., BLUHM B.A., BROWN K.A., CARMACK E.C., CHIERICI M., DANIELSON S.L., ELLINGSEN I., ERSHOVA E.A., GÅRDFELDT K., INGVALDSEN R. B., PNYUSHKOV A.V., SLAGSTAD D. and WASSMANN P. 2020. Borealization of the Arctic Ocean in response to anomalous advection from Sub-Arctic Seas. Frontiers in Marine Science 7: 491.

R CORE TEAM. 2021. R: A language and environment for statistical computing. https://www.r- project.org

SIMBERLOFF D. 1982. The status of competition theory in ecology. Annales Zoologici Fennici 19: 241–253.

SKADSHEIM A. 1983. The ecology of intertidal amphipods in the Oslofjord. Distribution and responses to physical factors. Crustaceana 44: 225–244.

SKOGSETH J., OLIVIER L.L.A., NILSEN F., FALCK E., RASER N., TVERBERG V., LEDANG A.B., VADER A., JONASSEN M.O., SØREIDE J., COTTIER F., BERGE J., IVANOV B.V. and FALK- PETERSEN S. 2020. Variability and decadal trends in the Isfjorden (Svalbard) ocean climate and circulation – An indicator for climate change in the European Arctic. Progress in Oceanography 187: 102394.

SØREIDE J.E., PITUSI V., VADER A., DAMSGÅRD B., NILSEN F., SKOGSETH R., POSTE A., BAILEY A., KOVACS K. M., LYDERSEN C., GERLAND S., DESCAMPS S., STRØM H.; RENAUD P. E., CHRISTENSEN G., ARVNES M.P., MOISEEV D., SINGH R. K., BÉLANGER S., ELSTER J., URBAŃSKI J., MOSKALIK M., WIKTOR J. and WĘSŁAWSKI J.M. 2020. Environmental status of Svalbard coastal waters: coastscapes and focal ecosystem components (SvalCoast). In: M. Moreno-Ibáñez, J.O. Hagen, C. Hübner, H. Lihavainen and A. Zaborska (eds) Svalbard Integrated Arctic Earth Observing System. SESS report 2020, Longyearbyen: 142–175.

STEELE D.H. and STEELE V.J. 1974. The biology of Gammarus (Crustacea, Amphipoda) in the north-western Atlantic. VIII. Geographic distribution of the northern species. Canadian Journal of Zoology 52: 1115–1120.

STEELE V.J. and STEELE D.H. 1970. The biology of Gammarus (Crustacea, Amphipoda) in the northwestern Atlantic. II. Gammarus setosus Dementieva. Canadian Journal of Zoology 48: 659–671.

STEELE V.J. and STEELE D.H. 1972. The biology of Gammarus (Crustacea, Amphipoda) in the north-western Atlantic. V. Gammarus oceanicus Segerstråle. Canadian Journal of Zoology 50: 801–813.

THYRRING J., BLICHER M.E., SØRENSEN J.G., WEGEBERG S. and SEJR M.K. 2017. Rising air temperatures will increase intertidal mussel abundance in the Arctic. Marine Ecology Progress Series 584: 91–104.

TZVETKOVA N.L. 1975. Pribrejnye gammaridy severnyh i dal’nevostochnyh morei SSSR i sopredel’nyh vod. Leningrad University, Leningrad.

URBAŃSKI J.A. and LITWICKA D. 2021. Accelerated decline of Svalbard coasts fast ice as a result of climate change. Cryosphere Discuss: 1–15.

VADER W. and TANDBERG A.H. 2019. Gammarid amphipods (Crustacea) in Norway, with a key to the species. Fauna norvegica 39: 12–25.

WALCZOWSKI W., PIECHURA J., GOSZCZKO I. and WIECZOREK P. 2012. Changes in Atlantic water properties: an important factor in the European Arctic marine climate. ICES Journal of Marine Science 69: 864–869.

WĘSŁAWSKI J.M. 1994. Gammarus (Crustacea, Amphipoda) from Svalbard and Franz Josef Land. Distribution and density. Sarsia 79: 145–150.

WĘSŁAWSKI J.M. and KOTWICKI L. 2018. Macro-plastic litter, a new vector for boreal species dispersal on Svalbard. Polish Polar Research 39: 165–174.

WĘSŁAWSKI J.M. and KULIŃSKI W. 1989. Notes on fishes in Hornsund fjord area (Spitsbergen). Polish Polar Research 10: 241–250.

WĘSŁAWSKI J.M. and LEGEŻYŃSKA J. 2002. Life cycles of some Arctic amphipods. Polish Polar Research 23: 253–264.

WĘSŁAWSKI J.M., DRAGAŃSKA-DEJA K., LEGEŻYŃSKA J. and WALCZOWSKI W. 2018. Range extension of a boreal amphipod Gammarus oceanicus in the warming Arctic. Ecology and Evolution 8: 7634–7632.

WĘSŁAWSKI J.M., KENDALL M.A., WŁODARSKA-KOLWALCZUK M., IKEN K., KĘDRA M., LEGEŻYŃSKA J. and SEJR M.K. 2011. Climate change effects on Arctic fjord and coastal macrobenthic diversity—observations and predictions. Marine Biodiversity 41: 71–85.

WĘSŁAWSKI J.M., LEGEŻYŃSKA J. and WŁODARSKA-KOWALCZUK M. 2020. Will shrinking body size and increasing species diversity of crustaceans follow the warming of the Arctic littoral? Ecology and Evolution 10: 10305–10313.

WĘSŁAWSKI J.M., WIKTOR J., ZAJĄCZKOWSKI M. and SWERPEL S. 1993. Intertidal zone of Svalbard. Macroorganism distribution and biomass. Polar Biology 13: 73–79.

WĘSŁAWSKI J.M., ZAJĄCZKOWSKI M., WIKTOR J. and SZYMELFENIG M. 1997. Intertidal zone of Svalbard 3. Littoral of a subarctic oceanic island, Bjornøya. Polar Biology 18: 45–52.

WILLIS K., COTTIER F., KWASNIEWSKI S., WOLD A. and FALK PETERSEN S. 2006. The influence of advection on zooplankton community composition in an Arctic fjord (Kongsfjorden, Svalbard). Journal of Marine Systems 61: 39–54.

[1] B. Uddeholm, Bohler-Uddeholm H13 tool steel, 2013.
[2] J . Wang, Z. Xu, and X. Lu, J. Mater. Eng. Perform. 29 (3), 1849- 1859 (2020).
[3] G .A. Roberts, R. Kennedy, G. Krauss, Tool steels, 1998 ASM international.
[4] S. Jhavar, C.P. Paul, N.K. Jain, Eng. Fail. Anal. 34, 519-535 (2013).
[5] R .A. Meaquita, C.A. Barbosa, Proceedings of Machining, 2004 Sao Paulo.
[6] R .A. Mesquita, R. Schneider, Exacta. 8 (3), 307-318 (2010).
[7] W.T. Preciado, C.E.N. Bohorquez, Mater. Process. Technol. 179 (1-3), 244-250 (2006).
[8] A. Skumavc, J. Tušek, M. Mulc, D. Klobčar, Metalurgija. 53 (4), 517-520 (2014).
[9] J . Chen, S.-H. Wang, L. Xue, Mater. Sci. 47 (2), 779-792 (2012).
[10] A. Košnik, J. Tušek, L. Kosec, T. Muhič, Metalurgija. 50 (4), 231-234 (2011).
[11] S. Thompson, Handbook of mould: Tool and die repair welding, 1999 Elsevier.
[12] T. Branza, A. Duchosal, G. Fras, F. Deschaux-Beaume, P. Lours, Mater. Process.
[13] P. Peças, E. Henriques, B. Pereira, M. Lino, M. Silva, Build Futur. Innov. (2006).
[14] L.E.E. Jae-Ho, J. Jeong-Hwan, J.O.O. Byeong-Don, Y.I.M. Hong- Sup, M. Young-Hoon, Trans. Nonferrous Met. Soc. China. 19, 284-287 (2009).
[15] S.U.N. Yahong, S. Hanaki, H. Uchida, H. Sunada, N. Tsujii, Mater. Sci. Technol. 19, 91-93 (2009).
[16] R .H.G. e Silva, L.E. dos Santos Paes, C. Marques, K.C. Riffel, M.B. Schwedersky, J. Brazilian Soc. Mech. Sci. Eng. 41 (1), 38 (2019).
[17] K . Somlo, G. Sziebig, Ifac-papersonline. 52 (22), 101-107 (2019). [18] J .-L. Desir, Eng. Fail. Anal. 8 (5), 423-437 (2001).
[19] J .C. Lippold, Welding metallurgy and weldability, 2015 Wiley Online Library.
[20] J .R. Davis, Corrosion of weldments, 2006 ASM international.
[21] R .G. Buchheit Jr, J.P. Moran, G.E. Stoner, Corrosion. 46 (8), 610- 617 (1990).
[22] K .A. Chiang, Y.C. Chen, Mater. Lett. 59 (14-15), 1919-1923 (2005).
[23] C.F.G. Baxter, J. Irwin, R. Francis, The Third International Offshore and Polar Engineering Conference, 1993.
[24] M . Liljas, Glas. Scotland, Keynote Pap. V. 2, 13-16 (1994).
[25] J . Lippol, J.K. Damian, Welding metallurgy and weldability of stainless steels, 2005 John Wiley & Sons, New York.
[26] J .C. Lippold, S.D. Kiser, J.N. DuPont, Welding metallurgy and weldability of nickel-base alloys, 2011 John Wiley & Sons.
[27] R .M. Rasouli I, Metall. Eng. 21 (1), 54-71 (2018). [28] S. Kou, Welding metallurgy, 2003 John Wiley & Sons, New Jersey.
[29] M . Stern, A.L. Geary, Electrochem. Soc. 104 (1), 56-63 (1957).
[30] Y. Zhang, J. You, J. Lu, C. Cui, Y. Jiang, X. Ren, Surf. Coatings Technol. 204 (24), 3947-3953 (2010).
[31] E .E. Stansbury, R.A. Buchanan, Fundamentals of electrochemical corrosion, 2000 ASM international.
[32] M . Yeganeh, M. Saremi, Prog. Org. Coatings. 79, 25-30 (2015).
[33] P. Langford, J. Broomfield, Constr. Repair. 1 (2), (1987).
[34] A. Aguilar, A.A. Sagüés, R.G. Powers, Corrosion Rates of Steel in Concrete, 1990 ASTM International.

[1] Y. Tamura, B.M. Moshtaghioun, D.G. Garcia, A.D. Rodriguez, Ceram. Int. 43, 658-663 (2017).
[2] Y. Wang, F. Luo, W. Zhou, D. Zhu, J. Electron. Mater. 46 (8), 5225-5231 (2017).
[3] G.M. Asmelash, O. Mamat, F. Ahmad, A.K.P. Rao, J. Adv. Ceram. 4 (3), 190-198 (2015).
[4] S. Ghanizadeh, S. Grasso, P. Ramanujam, B. Vaidhyanathan, J. Binner, P. Brown, J. Goldwasser, Ceram. Int. 43, 275-281 (2017).
[5] E .S. Gevorkyan, M. Rucki, A.A. Kagramanyan, V.P. Nerubatskiy, Int. J. Refract. Met. H. 89, 336-339 (2019).
[6] C. Sun, Y. Li, Y. Wang, L. Zhu, Q. Jiang, Y. Miao, X. Chen, Ceram. Int. 40, 12723-12728 (2014).
[7] U .S. Radloff, F. Kern, R. Gadow, J. Eur. Ceram. Soc. 38, 4003- 4013 (2018).
[8] C. Tuzemen, B. Yavas, I. Akin, O. Yucel, F. Sahin, G. Goller, J. Alloy. Compd. 781, 433-439 (2019).
[9] I. Farias, L. Olmos, O. Jimenez, M. Flores, A. Braem, J. Vleugels, Trans. Nonferrous Met. Soc. China 29, 1653-1664 (2019).
[10] L.M. Luo, J.B. Chen, H.Y. Chen, G.N. Luo, X.Y. Zhu, J.G. Cheng, X. Zan, Y.C. Wu, Fusion Eng. Des. 90, 62-66 (2015).
[11] J . Zhang, L. Wang, W. Jiang, L. Chen, Mat. Sci. Eng. A. 487, 137-143 (2008).
[12] H . Istgaldi, M.S. Asl, P. Shahi, B. Nayebi, Z. Ahmadi, Ceram. Int. (2019). DOI: https://doi.org/10.1016/j.ceramint.2019.09.287
[13] A.S. Namini, Z. Ahmadi, A. Babapoor, M. Shokouhimehr, M.S. Asl, Ceram. Int. 45, 2153-2160 (2019).
[14] D. Chakravarthy, S. Roy, P.K. Das, Bull. Mater. Sci. 28, 3, 227-231 (2005).
[15] L. Wang, X. Shu, X. Lu, Y. Wu, Y. Ding, S. Zhang, Mater. Lett. 196, 403-405 (2017).
[16] L. Cheng, Z. Xie, G. Liu, W. Liu, W. Xue, J. Eur. Ceram. Soc. 32, 3399-3406 (2012).
[17] N. Shanbhog, K. Vasanthakumar, N. Arunachalam, S.R. Bakshi, Int. J. Refract. Met. H. 84, 104979-104988 (2019).
[18] B.L. Madej, D. Garbiec, M. Madej, Vacuum. 164, 250-255 (2019).
[19] Y.F. Zhou, Z.Y. Zhao, X.Y. Tan, L.M. Luo, Y. Xu, X. Zan, Q. Xu, K. Tokunaga, X.Y. Zhu, Y.C. Wu, Int. J. Refract. Met. H. 79, 95- 101 (2019).
[20] P. Zhanga, C. Chena, Z. Chena, C. Shena, P. Fenga, Vacuum 164, 286-292 (2019).
[21] C. Luo, Y. Wang, J. Xu, G. Xu, Z. Yan, J. Li, H. Li, H. Lu, J. Suo, Int. J. Refract. Met. H. 81, 27-35 (2019).
[22] B.B. Bokhonov, M.A. Korchagin, A.V. Ukhina, D.V. Dudinaa, Vacuum, 157, 210-215 (2018).
[23] A. Teber, F. Schoenstein, F. Tetard, M. Abdellaoui, N. Jouini, Int. J. Refract. Met. H. 30, 64-70 (2012).
[24] M . Demuynck, J.P. Erauw, O.V. Biest, F. Delannay, F. Cambier, J. Eur. Ceram. Soc. 32, 1957-1964 (2012).
[25] Y.W. Kim, J.G. Lee, J. Am. Ceram. Soc. 12, 1333-37 (1989).
[26] R .A. Cutler, A.C. Hurford, Mat. Sci. Eng. A., 105/106, 183-192 (1988).
[27] J .H. Zhang, T.C. Lee, W.S. Lau, J. Mater. Process. Tech. 63, 908- 912 (1997).
[28] Z. Fu, R. Koc, Ceram. Int. 43, 17233-17237 (2017).
[29] R . Kumar, A.K. Chaubey, S. Bathula, K.G. Prashanth, A. Dhar, J. Mater. Eng. Perform. 27, 997-1004 (2018).
[30] O . Guillon, J.G. Julian, B. Dargatz, T. Kessel, G. Schierning, J. Rathel, M. Herrmann. Adv. Eng. Mater. 16, 830-849 (2014).
[31] D. Zhang, L. Ye, D. Wang, Y. Tang, S. Mustapha, Y. Chen, Composites: Part A. 43, 1587-1598 (2012).
[32] T. Fujii, K. Tohgo, P.B. Putra, Y. Shimamura, J. Mech. Behav. Biomed. 19, 45-53 (2019).
[33] T. Thomas, C. Zhang, A. Sahu, P. Nautiyal, A. Loganathan, T. Laha, B. Boel, A. Agarwal, Mat. Sci. Eng. A. 728, 45-53 (2018).
[34] L.K. Singh, A. Bhadauria, T. Laha, J. Mater. Res. Technol. 8, 503-512 (2019).
[35] T. Fujii, K. Tohgo, M. Iwao, Y. Shimamura, J. Alloy. Compd. 744, 759-768 (2018).
[36] S. Xiang, S. Ren, Y. Liang, X. Zhang, Mat. Sci. Eng. A. 768, 138459 (2019).
[37] M .R. Akbarpour, S. Alipour, Ceram. Int. 43, 13364-13370 (2017).
[38] W.R. Ilaham, L.K. Singh, T. Laha, Fusion Eng. Des. 138, 303-312 (2019).
[39] U . Sabu, B. Majumdar, Bhaskar P. Saha & D. Das, Trans. Ind. Ceram. Soc. 77, 1-7 (2018)
[40] L. Zhang, R.V. Koka, Mater. Chem. Phys. 57, 23-32 (1998).
[41] J . Langer, M.J. Hoffmann, O. Guillon, Acta. Mater. 57, 5454-5465 (2009).
[42] A. Babapoor, M.S. Asl, Z. Ahmadi, A.S. Namini, Ceram. Int. 44, 14541-14546 (2018).
[43] F. Balima, A. Largeteau, Scr. Mater. 158, 20-23 (2019).
[44] W.H. Lee, J.G. Seong, Y.H. Yoon, C.H. Jeong, C.J.V. Tyne, H.G. Lee, S.Y. Chang, Ceram. Int. 45, 8108-8114 (2019).

[1] L. Pawlowski, The science and engineering of thermal spray coatings, J. Willey & Sons Ltd, Chichester, II ed. (2008).
[2] D. Tejero-Martin, M. Rezvani Rad, A. McDonald, T. Hussain, J. Therm. Spray Technol. 28 (4), 598-644 (2019).
[3] G. Di Girolamo, E. Serra, Thermally Sprayed Nanostructured Coatings for Anti-wear and TBC Applications: State-of-the-art and Future Perspectives, Anti-Abrasive Nanocoatings, Ed., Woodhead Publishing Limited, 513-541 (2015). DOI: https://doi.org/10.1016/B978-0-85709-211-3.00020-0
[4] A . Góral, L. Lityńska-Dobrzyńska, W. Żórawski, K. Berent, J. Wojewoda-Budka, Arch. Metall. Mater. 58 (2), 335-339 (2013).
[5] C.M. Kay, J. Karthikeyan, High Pressure Cold Spray, ASM International 2016.
[6] H. Assadi, H. Kreye, F. Gartner, T. Klassen, Acta Materialia 116, 382-407 (2016).
[7] M.R. Rokni, S.R. Nutt, C.A. Widener, G.A. Crawford, V.K. Champagne, Springer. 5, 143-192 (2018).
[8] A . Góral, W. Żórawski, P. Czaja, L. Lityńska-Dobrzyńska, M. Makrenek, S. Kowalski, J. Mater. Res. 110, 49-59 (2019), DOI: 10.3139/146.111698
[9] Q. Wang, N. Birbilis, X. Zahang, Metall. Mater. Trans. A Phys. Metall. Mater. Sci. 43, 1395-1399 (2012),
[10] C.W. Ziemian, M.M. Sharma, B.D. Bouffard, T. Nissly, T. Eden, Mater. Des. 54, 212-221(2014)
[11] L. Ajdelsztajn, B. Jodoin, J.M. Schoenung, Surf. Coat. Tech. 201, 1166-1172 (2006).
[12] M. Scendo, W. Żórawski, A. Góral, Metals 9, 890-910 (2019). DOI: 103390/met9080890
[13] E. Qin, B. Wang, W. Li, Ma, H. Lu, S. Wu, J. Therm. Spray Technol. 28, 1072-1080 (2019).
[14] D. Kong, B. Zhao, J. Alloys Compd. 705, 700-707 (2017).
[15] T . Otmianowski, B. Antoszewski, W. Żórawski, Proceesing of 15th International Thermal Spray Conference, 25-29 May, Nice, France, 1333-1336 (1998).
[16] B . Antoszewski, P. Sęk, Proc. SPIE 8703, 8703-8743 (2012). DOI: https://doi.org/10.1117/12.2015240
[17] P. Sęk, Open Eng. 10, 454-461 (2020).
[18] M. Tlotleng, M. Shukla, E. Akinlabi, S. Pityana, Surface Engineering Techniques and Application: Research Advancements 177- 221 (2014). DOI: https://doi.org/10.4018/978-1-4666-5141-8.ch006
[19] D.K. Christoulis, M. Jeandin, E. Irissou, J.G. Legoux, W. Knapp, Laser-Assisted Cold Spray (LACS) InTech. 59-96 (2012). DOI: https://doi.org/10.5772/36104
[20] S.B. Mishra, K. Chandra, S. Prakash, J. Tribol. 128, 469-475 (2006) DOI: 10.1115/1.2197843
[21] A. Mangla, V. Chawla, G. Singh, Int. J. Eng. Sci. Res. Technol. 6, 674-686 (2017).
[22] N. Abu-Warda, A.J. López, M.D. López, M.V. Utrilla, Surf. Coat. Tech. 381, 125133 (2020).
[23] EN ISO 6507-1: 2018.
[24] https://www.scribd.com/document/423195204/DSMTS-0109-2- Ni20Cr-Powders

[1] T. Irie, Developments of zinc-based coatings for automotive sheet steel in Japan, in: G. Krauss, D. Matlock (Eds.), Zinc-Based Steel Coating Systems: Metallurgy and Performance, TMS/AIME, Warrendale, PA, USA (1990).
[2] Y. Hisamatsu, Proc. 1st Int. Conf. on Zinc and Zinc Alloy Coated Steel Sheet (Galvatech’89), ISIJ, Tokyo, Japan (1989).
[3] A.R. Marder, Prog. Mater. Sci. 45, 191-271 (2000).
[4] N. Bandyopadhyay, G. Jha, A.K. Singh, T.K. Rout, N. Rani, Surf. Coat. Tech. 200, 4312-4319 (2006).
[5] M .A. Ghoniem, K. Lohberg, Metall. 26 (10), 1026-1030 (1972).
[6] O . Kubaschewski, Iron-Binary Phase Diagrams, Springer-Verlag Berlin Heidelberg GmbH, Aachen, Germany (1982).
[7] J. Nakano, D.V. Malakhov, G.R. Purdy, Calphad, 29 (4), 276-288 (2005).
[8] R . Kainuma, K. Ishida, Tetsu To Hagane 91, 349-355 (2005).
[9] G. Beranger, G. Henry, G. Sanz, The Book of Steel, Lavoisier Publishing with the participation of SOLLAC-Usinor Group, Paris, France (1996).
[10] T. Nakamori, Y. Adachi, T. Toki, A. Shibuya, ISIJ Int. 36 (2), 179-186 (1996).
[11] I . Hertveldt, B.C. De Cooman, J. Dilewijns, 39th MWSP Conference Proceedings, ISS-AIME, ISS, Indianapolis, IN, USA (1997).
[12] M . Chida, H. Irie, U.S. Patent Number 10,597,764 B2 (2020).
[13] S. Sriram, V. Krishnardula, H. Hahn, IOP Conf. Ser-Mat. Sci. 418 (1), 012094 (2018).
[14] M . Sakurai, J.I. Inagaki, M. Yamashita, Tetsu-to-Hagane, 89 (1), 18-22 (2003).
[15] S. Sepper, P. Peetsalu, M. Saarna, Agron. Res., Special Issue 1, 229-236 (2011).
[16] K .I.V. Vandana, M. Rajya Lakshmi, Int. J. Innov. Eng. Tech. 5 (2), 359-363 (2015).
[17] M . Urai, M. Arimura, M. Terada, M. Yamaguchi, H. Sakai, S. Nomura, Tetsu To Hagane 43 (19), 27-30 (1996).
[18] C.S. Lin. M. Meshii, C.C. Cheng, ISIJ Int. 35 (5), 503-511 (1995).
[19] F.E. Goodwin, T. Indian I. Metals 66, 5-6 (2013).
[20] G. Moréas, Y. Hardy, Rev. Met. Paris 98 (6), 599-606 (2001).
[21] A. van der Heiden, A.J.C. Burghardt, W. van Koesveld, E.B. van Perlstein, M.G.J. Spanjers, Galvanneal Microstructure and Anti- Powdering Process Windows, in: A.R. Marder (Ed.), The Physical Metallurgy of Zinc Coated Steel, TMS/AIME Conf. Proc., San Francisco, CA, USA (1994).
[22] P .M. Hale, R.N. Wright, F.E. Goodwin, SAE Technical Paper 2001-01-0084, 2001.
[23] J. Inagaki, M. Sakurai, T. Watanabe, ISIJ Int. 35 (11), 1388-1393 (1995).
[24] S.P. Carless, G.A. Jenkins, V. Randle, Ironmak. Steelmak. 27 (1), 69-74 (2000).

[1] J.R. Szczech, J.M. Higgins, S. Jin, Enhancement of the thermoelectric properties in nanoscale and nanostructured materials, J. Mater. Chem. 21 (12), 4037-4055 (2011).
[2] Y. Pei, X. Shi, A. Lalonde, H. Wang, L. Chen, G.J. Synder, Convergence of electronic bands for high performance bulk thermoelectrics, Nature 473, 66-69 (2011).
[3] R . Deng, X. Su, S. Hao, Z. Zheng, M. Zhang, H. Xoe, W. Liu, Y. Yan, C. Wolverton, C. Uher, M.G. Kanatzidis, X. Tang, High thermoelectric performance in Bi0.46Sb1.54Te3 nanostructured with ZnTe, Energy Environ. Sci. 11, 1520-1535 (2018).
[4] H . Mamur, M.R.A Bhuiyan, F. Korkmaz, M. Nil, A review on bismuth telluride (Bi2Te3) nanostructure for thermoelectric applications, Renew. Sust. Energ. Rev. 82, 4159-4169 (2018).
[5] I . Chowdhury, R. Prasher, K. Lofgreen, G. Chrysler, S. Narasimhan, R. Mahajan, R. Venkatasubramanian, On-chip cooling by superlattice-based thin-film thermoelectrics, Nat. Nanotechnol. 4 (4), 235-238 (2009).
[6] Z. Xiao, X. Zhu, On-Chip Sensing of Thermoelectric Thin Film’s Merit, Sensors 15 (7), 17232-17240 (2015).
[7] X. Hu, X. Fan, B. Feng, D. Kong, P. Liu, R. Li, Y. Zhang, G. Li, Y. Li, Microstructural refinement, and performance improvement of cast n-type Bi2Te2.79Se0.21 ingot by equal channel angular extrusion, Met. Mater. Int. (2020). DOI: https://doi.org/10.1007/s12540-020-00699-5
[8] M. Sabarinathan, M. Omprakash, S. Harish, M. Navaneethan, J. Archana, S. Ponnusamy, Y. Hayakawa, Enhancement of power factor by energy filtering effect in hierarchical BiSbTe3 nanostructures for thermoelectric applications, Appl. Surf. Sci. 418, 246-251 (2017).
[9] B . Madavali, H.S. Kim, K.H. Lee, S.J. Hong, Enhanced Seebeck coefficient by energy filtering in Bi-Sb-Te based composites with dispersed Y2O3 nanoparticles, Intermetallics 82, 68-75 (2017).
[10] J. Hu, B. Liu, H. Subramanyan, B. Li, J. Zhou, J. Liu, Enhanced thermoelectric properties through minority carriers blocking in nanocomposites, J. Appl. Phys. 126 (9), 095107 (2019).
[11] S. Foster, N. Neophytou, Effectiveness of nano inclusions for reducing bipolar effects in thermoelectric materials, Comput. Mater. Sci. 164, 91-98 (2019).
[12] L.D. Hicks, T.C. Harman, X. Sun, M.S. Dresselhaus, Experimental study of the effect of quantum-well structures on the thermoelectric figure of merit, Phys. Rev. B 53 (16), R10493-R10496 (1996).
[13] I .V. Zaporotskova, N.P. Boroznina, Y.N. Parkhomenko, L.V. Kozhitov, Carbon nanotubes: Sensor properties, A review, Mod. Electron. Mater. 2 (4), 95-105 (2016).
[14] P.A. Tran, L. Zhang, T.J. Webster, Carbon nanofibers and carbon nanotubes in regenerative medicine, Adv. Drug Deliv. Rev. 61 (12), 1097-1114 (2009).
[15] M. Gurbuz, T. Mutuk, P. Uyan, Mechanical, Wear and Thermal behaviors of graphene reinforced titanium composites, Met. Mater. Int. (2020). DOI: https://doi.org/10.1007/s12540-020-00673-1
[16] D.W. Jung, J.H. Jeong, B.C. Cha, J.B. Kim, B.S. Kong, J.K. Lee, E.S. Oh, Effects of ball-milled graphite in the synthesis of SnO2/graphite as an active material in lithium-ion batteries, Met. Mater. Int. 17 (6), 1021-1026 (2011).
[17] A comparison of Carbon Nanotubes and Carbon Nanofibers, Pyrograf products, Inc, An affiliate of Applied surface sciences, Inc.
[18] K.M. Nam, K. Mees, H.S. Park, M. Willert-Porada, C.S. Lee, Electrophoretic Deposition for the Growth of Carbon nanofibers on Ni-Cu/C-fiber Textiles, Bull. Korean Chem. Soc. 35 (8), 2431- 2437 (2014).
[19] S .J. Jung, S.Y. Park, B.K. Kim, B. Kwon, S.K. Kim, H.H. Park, S.H. Baek, Hardening of Bi-Te based alloys by dispersing B4C nanoparticles, Acta Mater. 97, 68-74 (2015).
[20] C. Marquez, N. Rodriguez, R. Ruiz, F. Gamiz, Electrical characterization and conductivity optimization of laser reduced graphene oxide on insulator using point-contact methods, RSC Adv. 6 (52), 46231-46237 (2016).
[21] P. Sharief, B. Madavali, J.M. Koo, H.J. Kim, S. Hong, S.J. Hong, Effect of milling time parameter on the microstructure and the thermoelectric properties of N-type Bi2Te2.7Se0.3 alloys, Arch. Metall. Mater. 2, 585-590 (2019).
[22] P . Slobodian, P. Riha, R. Olejnik, M. Kovar, P. Svoboda, Thermoelectric properties of carbon nanotube and nanofiber based ethylene-octene copolymer composites for thermoelectric devices, J. Nanomater 2013, 1-7 (2013).
[23] Q. Lognoné, F. Gascoin, On the effect of carbon nanotubes on the thermoelectric properties of n-Bi2Te2. 4Se0. 6 made by mechanical alloying, J. Alloys Compd. 635, 107-111 (2015).
[24] B. Feng, G. Li, X. Hu, P. Liu, R. Li, Y. Zhang, Z. He, Improvement of thermoelectric and mechanical properties of BiCuSeO-based materials by SiC nanodispersion, J. Alloys Compd. 818, 152899 (2020).

[1] W.D. Klopp, J. Less-Common Met. 42, 261 (1975).
[2] V. Philipps, J. Nucl. Mater. 415, S2 (2011).
[3] L. Veleva, Z. Oksiuta, U. Vogt, N. Baluc, Fusion Eng. Des. 84, 1920 (2009).
[4] Z. Dong, N. Liu, Z. Ma, C. Liu, Q. Guo, Y. Liu, J. Alloys Compd. 695, 2969 (2017).
[5] C. Ren, Z.Z. Fang, M. Koopman, B. Butler, J. Paramore, S. Middlemas, Int. J. Refract. Met. Hard Mater. 75, 170 (2018).
[6] M.H. Nguyen, S.-J. Lee, W.M. Kriven, J. Mater. Res. 14, 3417 (1999).
[7] S. Yan, J. Yin, E. Zhou, J. Alloys Compd. 450, 417 (2008).
[8] T.R. Wilken, W.R. Morcom, C.A. Wert, J.B. Woodhouse, Met. Trans. B 7, 589 (1976).
[9] S.C. Cifuentes, M.A. Monge, P. Pérez, Corros. Sci. 57, 114 (2012).

[1] H. Bhadeshia, Prog. Mater. Sci. 57, 304 (2012).
[2] Q . Dong, J. Zhang, B. Wang, X. Zhao, J. Mater. Process. Technol. 81, 238 (2016).
[3] K. Liu, Q. Sun, J. Zhang, C. Wang, Metall. Res. Technol. 113, 504 (2016).
[4] S. Luo, M. Zhu, C. Ji, Ironmak. Steelmak. 41, 233 (2014).
[5] N. Zong, H. Zhang, Y. Liu, Z. Lu, Ironmak. Steelmak. 46, 872 (2019).
[6] S. Ogibayashi, M. Uchimura, K. Isobe, H. Maede, Y. Nishihara, S. Sato, Proc. of 6th Int. Iron and Steel Cong, ISIJ, Tokyo, 271 (1990).
[7] H.M. Chang, S.O. Kyung, D.L. Joo, J.L. Sung, L. Youngseog, ISIJ Int. 52, 1266 (2012).
[8] J. Zhao, L. Liu, W. Wang, H. Lu, Ironmak. Steelmak. 46, 227 (2017).
[9] N. Zong, H. Zhang, Y. Liu, Z. Lu, Metall. Res. Technol. 116, 310 (2019).
[10] N. Zong, H. Zhang, L. Wang, Z. Lu, Metall. Res. Technol. 116, 608 (2019).
[11] C. Li, B. Thomas, Metall. Mater. Trans. B. 35B, 1151 (2004). [12] B. Li, H. Ding, Z. Tang, Int. J. Miner. Metall. Mater. 19, 21 (2012).
[13] K.O. Lee, S.K. Hong, Y.K. Kang, Int. J. Automot. Technol. 10, 697 (2009).
[14] K. Demons, G.C. Lorraine, S.A. Taylor, Mater. Eng. Perform. 16, 592 (2007).

[1] LS-Nikko copper inc., Private Communication. 2012 Ulsan, Korea.
[2] Korea Zinc Co., Ltd., Onsan Refinery, Private Communication. 2012 Ulsan, Korea.
[3] S .W. Ji, C.H. Seo, J. of Korean Inst. of Resources Institute. 2, 68-72 (2006).
[4] J.P. Wang, K.M. Hwang, H.M. Choi. Indian J. Appl. Res. 2, 977-982 (2018).
[5] J.P. Wang, K.M. Hwang, H.M. Choi. Indian J. Appl. Res. 2, 973-976 (2018).
[6] A.A. Lykasov, G.M. Ryss, Steel Trans. 46 (9), 609-613 (2016).
[7] M.K. Dash, S.K. Patro and etc., Int. J. Sustain. Built. Environ. 5, 484-516 (2016).
[8] B. Gorai, R.K. Jana and etc., Resour. Converv. Recy. 39, 299-313 (2003).
[9] I . Alp, H. Deveci, H. Sungun. J. Hzard. Mater. 159, 390-395 (2008).
[10] P. Sarfo, G. Wyss and etc., J. Min. Eng. 107, 8-19 (2017).
[11] U. Yuksel, I. Tegin. J. Environ. Sci. Eng. Eng. Technol. 6, 388-394 (2017).
[12] Z.X. Lin, Z.D. Qing and etc. ISI J Int. 55, 1347-1352 (2015).
[13] Z. Guo, D. Zhu and etc., J. Met. 86 (6), 1-17 (2016).
[14] A.A. Lykasov, G.M. Ryss and etc., Steel Transl. 46 (9), 609-613 (2016).
[15] Z. Cao, T. Sun and etc., Minerals. 6 (119), 1-11 (2016).
[16] A.Es. Nassef. A. Abo Ei-Nasr, Influence of Copper Additions and Cooling Rate on Mechanical and Tribological Behavior of Grey Cast Iron, 7th Int. Saudi Engineering Conference (SEC7), KSA, Riyadh 2-5, 2-5 Dec 2007, p. 307
[17] G . Gumienny, B. Kacprzyk, Arch. Foundry Eng. 17, 51-56 (2017).
[18] Z. Slovic, K.T. Raic, L. Nedeljkovic, etc., Mater. Technol. 46 (6), 683-688 (2012).
[19] U. Erdenebold, H.M. Choi. J.P. Wang. Arch. Metal. Mater. 63 (4), 1793-1798 (2018).
[20] Ye.A. Kazachkov, Calculations on the theories of metallurgical processes. Metallurgy, Moscow (1988).
[21] G .I. Silman, V.V. Kamynin and etc., Met. Sci. Heat. Treat. 45 (2003), 254-258.
[22] A.A. Razumakov, N.V. Stepanova and etc., Proceedings of MEACS2015. IOP conference series: materials science and engineering, Tomsk Polytechnic University, Tomsk, 1-4 December 2015, 124, 012136 (2016).
[23] E. Konca, K. Tur and etc., Metals 7 (320), 1-9 (2017).
[24] J.O. Agunsoye, S.A. Bello and etc., J. Miner. Mater. Character. Eng. 2, 470-483 (2014).
[25] A.A. Rahman, S.A. Abo-El-Enein and etc., Arab. J. Chem. 9, 8138-8143 (2016).
[26] D .E. Angulo-Ramirez, R.M. de Gutierrez and etc., Constr. Build. Mater. 140, 119-128 (2017).
[27] Y. Maeda. Nippo steel and Sumitomo metal technical report. 109, 114-118 (2015).
[28] Y. Ueki. Nippo steel and Sumitomo metal technical report. 109, 109-113 (2015).
[29] https://www.snmnews.com/news/articleView.html?idxno= 447525, accessed: 05.06.2019.
[30] M. Fleischer. Geological survey professional paper 440-L, 6th edition. Washington, 1964, p. 21-23.
[31] V erlag Stahleisen GmbH. Slag atlas. 2nd edition, Germany, 1995, p. 127.

[1] M. Noordin, V. Venkatesh, S. Sharif, J. Mater. Process. Tech. 185 (1-3), 83-90 (2007). DOI: https://doi.org/10.1016/j.jmatprotec.2006.03.137
[2] C. Moganapriya, M. Vigneshwaran, G. Abbas, A. Ragavendran, V.C. Harissh Ragavendra, R. Rajasekar, Mater. Today, Proceeding (2020).
[3] A.M. Ravi, S.M. Murigendrappa, P.G. Mukunda, T. Indian I. Metals 67 (4), 485-502 (2014). DOI: https://doi.org/10.1007/s12666-013-0369-0
[4] A.P. Kulkarni, V.G. Sargade, Mater. Manuf. Process 30 (6), 748- 755 (2015). DOI: https://doi.org/10.1080/10426914.2014.984217
[5] C. Moganapriya, R. Rajasekar, K. Ponappa, R. Venkatesh, S. Jerome, Mater. Today. Proceeding 5 (2), 8532-8538 (2018). DOI: https://doi.org/10.1016/j.matpr.2017.11.550
[6] G .C. Rosa, A.J. Souza, E.V. Possamai, H.J. Amorim, P.D. Neis, Wear 376, 172-177 (2017). DOI: https://doi.org/10.1016/j.wear.2017.01.088
[7] A. Alok, M. Das, Measurement 133, 288-302 (2019). DOI: https://doi.org/10.1016/j.measurement.2018.10.009
[8] R . Yigit, E. Celik, F. Findik, S. Koksal, Int. J. Refract. Hard. Met. 26 (6), 514-524 (2008). DOI: https://doi.org/10.1016/j.ijrmhm.2007.12.003
[9] R . Horváth, Á. Drégelyi-Kiss, G. Mátyási, Acta Polytech. Hung. 11 (2), 137-147 (2014).
[10] R . Kumar, P.S. Bilga, S. Singh, J. Clean Prod. 164, 45-57 (2017). DOI: https://doi.org/10.1016/j.jclepro.2017.06.077
[11] M.K. Gupta, P. Sood, V.S. Sharma, J. Clean Prod. 135, 1276-1288 (2016). DOI: https://doi.org/10.1016/j.jclepro.2016.06.184
[12] S . Pai, T. Nagabhushana, Handbook of Research on Emerging Trends and Applications of Machine Learning, 2020 IGI Global.
[13] A.K. Jain, B.K. Lad, J. Intell. Manuf. 30 (3), 1423-1436 (2019). DOI: https://doi.org/10.1007/s10845-017-1334-2
[14] R . Teti, K. Jemielniak, G. O’Donnell, D. Dornfeld, CIRP Ann. 59 (2), 717-739 (2010). DOI: https://doi.org/10.1016/j.cirp.2010.05.010
[15] C. Moganapriya, R. Rajasekar, K. Ponappa, R. Venkatesh, R. Karthick, Arch. Metall. Mater. 62 (3), 1827-1832 (2017). DOI: https://doi.org/10.1515/amm-2017-0276
[16] H .B. Ulas,T. Indian I. Metals 67 (6), 869-879 (2014). DOI: https://doi.org/10.1007/s12666-014-0410-y
[17] S . Thangarasu, S. Shankar, T. Mohanraj, K. Devendran, P. I. Mech. Eng. C.-J. Mec. 234 (1), 329-342 (2019).
[18] J .A. Ghani, M. Rizal, M.Z. Nuawi, C.H. Che Haron, M.J. Ghazali, M.N.A. Rahman. Trans. Tech. Publ. 2010.
[19] S . Oraby, D. Hayhurst, Int. J. Mach. Tools Manuf. 44 (12-13), 1261-1269 (2004). DOI: https://doi.org/10.1016/j.ijmachtools.2004.04.018

[1] K . Pal, R. Rajasekar, D.J. Kang, Z.X. Zhang, S.K. Pal, C.K. Das, J.K. Kim, Mater. Des. 31 (2), 677-686 (2010). DOI : https://doi.org/10.1016/j.matdes.2009.08.014
[2] K . Pal, R. Rajasekar, T. Das, D. Kang, S. Pal, J. Kim, C. Das, Plast., Rubber Compos. 38 (7), 302-308 (2009). DOI : https://doi.org/10.1179/174328909X435393
[3] K . Pal, R. Rajasekar, D.J. Kang, Z.X. Zhang, J.K. Kim, C. Das, Mater. Des. 30 (10), 4035-4042 (2009). DOI : https://doi.org/10.1016/j.matdes.2009.05.021
[4] K . Roy, S.C. Debnath, P. Potiyaraj, J. Elastomers Plast., (2019).
[5] S .J. He, Y.Q. Wang, J. Lin, L.Q. Zhang, Adv. Mater. Res. 28-31 (2012).
[6] S . Ahmadi Shooli, M. Tavakoli, J. Macromol. Sci., Part B, 55 (10), 969-983 (2016). DOI : https://doi.org/10.1080/00222348.2016.1230464
[7] R . Sengupta, S. Chakraborty, S. Bandyopadhyay, S. Dasgupta, R. Mukhopadhyay, K. Auddy, A. Deuri, Polym. Eng. Sci. 47 (11), 1956-1974 (2007). DOI: https://doi.org/10.1002/pen.20921
[8] A. Malas, C.K. Das, J. Mater. Sci. 47 (4), 2016-2024 (2012). DOI : https://doi.org/10.1007/s10853-011-6000-z
[9] Q.-X. Jia, Y.-P. Wu, P. Xiang, Y. Xin, Y.-Q. Wang, L.-Q. Zhang, Polym. Polym. Compos. 13 (7), 709-719 (2005).
[10] H. Nabil, H. Ismail, Int. J. Polym. Anal. Charact. 19 (2), 159-174 (2014). DOI: https://doi.org/10.1080/1023666X.2014.873597
[11] R . Rajasekar, G. Heinrich, A. Das, C.K. Das, J. Nanotechnol. 2009, 1-5 (2009). DOI: https://doi.org/10.1155/2009/405153
[12] Y.-W. Mai, Z.-Z. Yu, Polym. Nanocompos., Woodhead publishing, (2006).
[13] R . Rajasekar, G. Nayak, C. Das, Plast., Rubber Compos. 40 (3), 146-150 (2011). DOI : https://doi.org/10.1179/1743289810Y.0000000010
[14] Y. Liang, Y. Wang, Y. Wu, Y. Lu, H. Zhang, L. Zhang, Polym. Test. 24 (1), 12-17 (2005). DOI : https://doi.org/10.1016/j.polymertesting.2004.08.004
[15] K . Pal, R. Rajasekar, S.K. Pal, J.K. Kim, C.K. Das, J. Nanosci. Nanotechnol. 10 (5), 3022-3033 (2010). DOI: https://doi.org/10.1166/ jnn.2010.2170
[16] R . Iyer, S. Suin, N.K. Shrivastava, S. Maiti, B. Khatua, Polym.- Plast. Technol. Eng. 52 (5), 514-524 (2013). DOI : https://doi.org/10.1080/03602559.2012.762024
[17] P. Saramolee, K. Sahakaro, N. Lopattananon, W.K. Dierkes, J.W. Noordermeer, J. Elastomers Plast. 48 (2), 145-163 (2016). DOI: https://doi.org/10.1177/0095244314568469
[18] N. Hayeemasae, I. Surya, H. Ismail, Int. J. Polym. Anal. Charact. 21 (5), 396-407 (2016). DOI : https://doi.org/10.1080/1023666X.2016.1160970
[19] R . Rajasekar, C. Das, Plast., Rubber Compos. 40 (8), 407-412 (2011). DOI: https://doi.org/10.1179/1743289810Y.0000000039
[20] A. Malas, C.K. Das, Mater. Des. 49, 857-865 (2013). DOI : https://doi.org/10.1016/j.matdes.2013.02.040
[21] R . Rajasekar, G. Nayak, A. Malas, C. Das, Mater. Des. 35 (1), 878-885 (2012). DOI: https://doi.org/10.1016/j.matdes.2011.10.018
[22] R . Mahaling, S. Kumar, T. Rath, C. Das, J. Elastomers Plast. 39 (3), 253-268 (2007). DOI: https://doi.org/10.1177/00952443070 76495
[23] P. Teh, Z.M. Ishak, A. Hashim, J. Karger-Kocsis, U. Ishiaku, Eur. Polym. J. 40 (11), 2513-2521 (2004). DOI : https://doi.org/10.1016/j.eurpolymj.2004.06.025
[24] H. Ismail, H. Chia, Eur. Polym. J. 34 (12), 1857-1863 (1998). DOI: https://doi.org/10.1016/S0014-3057(98)00029-9
[25] T. Mohan, J. Kuriakose, K. Kanny, J. Ind. Eng. Chem. 17 (2), 264-270 (2011). DOI: https://doi.org/10.1016/j.jiec.2011.02.019
[26] M.S. Kim, G.H. Kim, S.R. Chowdhury, Polym. Eng. Sci. 47 (3), 308-313 (2007). DOI: https://doi.org/10.1002/pen.20709
[27] A. Khalil, S.N. Shaikh, Z.R. Nudrat, S. Khaula, Adv. Mater. Phys. Chem. 2012, (2012).
[28] G .C.N. R. Rajasekar, C.K. Das, Materials Science & Technologies, 575-590, (2011).
[29] B.P. Kapgate, C. Das, D. Basu, A. Das, G. Heinrich, J. Ela-stomers Plast. 47 (3), 248-261 (2015). DOI: https://doi.org/10.1177/0095244313507807
[30] K . Pal, T. Das, R. Rajasekar, S.K. Pal, C.K. Das, J. Appl. Polym. Sci. 111 (1), 348-357 (2009). DOI: https://doi.org/10.1002/app.29128
[31] M. Balachandran, S. Bhagawan, J. Polym. Res. 19 (2), 9809 (2012). DOI: https://doi.org/10.1007/s10965-011-9809-x
[32] Y. Liu, L. Li, Q. Wang, Plast., Rubber Compos. 39 (8), 370-376 (2010). DOI: https://doi.org/10.1179/174328910X12691245469871