Akcije

Journal of Applied Engineering Science
kako citirati ovaj članak
podeli ovaj članak

Metrika

  • citati u SCIndeksu: [2]
  • citati u CrossRef-u:0
  • citati u Google Scholaru:[]
  • posete u poslednjih 30 dana:3
  • preuzimanja u poslednjih 30 dana:2

Sadržaj

članak: 5 od 67  
Back povratak na rezultate
2019, vol. 17, br. 4, str. 590-598
Gap analysis and risk occurrence on the example of pressure transmitter's production processes
(naslov ne postoji na srpskom)
aUniverzitet u Beogradu, Institut za hemiju, tehnologiju i metalurgiju - IHTM, Srbija
bUniverzitet u Novom Sadu, Tehnički fakultet 'Mihajlo Pupin', Zrenjanin, Srbija
cUniverzitet u Beogradu, Mašinski fakultet, Srbija
dUniverzitet u Beogradu, Mašinski fakultet, Inovacioni centar, Srbija

e-adresavspasojevic@mas.bg.ac.rs
Projekat:
Mikro, nano-sistemi i senzori za primenu u elektroprivredi, procesnoj industriji i zaštiti životne sredine (MPNTR - 32008)
Razvoj stohastičkog modela utvrđivanja elemenata vremena rada proizvodnog ciklusa i njihova optimizacija za serijsku proizvodnju u metaloprerađivačkoj industriji i u procesima reciklaže (MPNTR - 35017)

Sažetak
(ne postoji na srpskom)
Gap analysis represents a tool for raising the level of performances of products, processes and enterprise organization which is rarely used in risk management. This paper proposes the joint application of Gap and Pareto analysis, in aim to mitigate possible risks in production processes. It is based on the facts that key points in the production process indicate some serious oversights (gaps), characterized as errors, which can grow into risky elements that disturb the manufacturing process and final transmitter assembly. In this paper, finalizing and assembling pressure transmitter elements (modules), created by a domestic manufacturer, served as an example for the Gap analysis. Each electronic transmitter is consisted of three modules: measurement cell, mechanical coupling fixture and enclosure containing the electronics and the terminal block box. Through the implementation and assembly of these modules errors (or elements of potential risks) have been identified. Later on, using the Pareto chart, it has been seen that 80% of errors made during the transmitter manufacturing process have occurred while implementing the first and the third transmitter module. Also, by analyzing the collected gaps, it has been concluded that the critical ones happen while using the existing technology and engaging workforce. In order to eliminate the above-mentioned errors, this paper decidedly presents the Gap analysis steps which should be followed, so the transmitter manufacturing process would be improved in terms of quality. Similar methodology could be applied to other products and processes.
Reference
Awasthi, M.K., Sarsaiya, S., Wang, Q., Wang, M., Chen, H., Ren, X., Kumar, S., Zhang, Z. (2018) Mitigation of global warming potential for cleaner composting, biosynthetic technology and environmental challenges. Singapore: Springer, 271-305
Baldwin, C.Y., Clark, K.B. (2000) Design rules: The power of modularity. MIT press
Branscomb, L.M., Auerswald, P.E. (2003) Taking technical risks: How innovators, managers, and investors manage risk in high-tech innovations. MIT Press
Cheng, T.C.E., Musaphir, H. (1996) Theory and practice of manufacturing strategy. International Journal of Production Research, 34(5), 1243-1259
Conrow, E.H., Shishido, P.S. (1997) Implementing risk management on software intensive projects. IEEE Software, 14(3), 83-89
Davis, R., Misra, S., van Auken, S. (2002) A gap analysis approach to marketing curriculum assessment: A study of skills and knowledge. Journal of Marketing Education, 24(3), 218-224
Elmaraghy, W., Elmaraghy, H., Tomiyama, T., Monostori, L. (2012) Complexity in engineering design and manufacturing. CIRP Annals, 61(2), 793-814
Engel, A., Browning, T.R., Reich, Y. (2017) Designing products for adaptability: Insights from four industrial cases. Decision Sciences, 48(5), 875-917
Garza-Reyes, J.A., Torres, R.J., Govindan, K., Cherrafi, A., Ramanathan, U. (2018) A PDCA-based approach to environmental value stream mapping (E-VSM). Journal of Cleaner Production, 180, 335-348
Gershenson, J.K., Prasad, G.J., Zhang, Y. (2004) Product modularity: Measures and design methods. Journal of Engineering Design, 15(1), 33-51
Govindaluri, S.M., Cho, B.R. (2007) Robust design modeling with correlated quality characteristics using a multicriteria decision framework. International Journal of Advanced Manufacturing Technology, 32(5-6), 423-433
Haron, N.Z., Kairudin, F.L.M. (2012) The application of quality function deployment (QFD) in the design phase of industrialized building system (IBS) apartment construction project. European International Journal of Science and Technology, 1(3), 56-66
Hölttä-Otto, K., de Weck, O. (2007) Degree of modularity in engineering systems and products with technical and business constraints. Concurrent Engineering, 15(2), 113-126
Kliem, R.L. (2000) Risk management for business process reengineering projects. Information Systems Management, 17(4), 66-68
Marra, M., di Biccari, C., Lazoi, M., Corallo, A. (2018) A gap analysis methodology for product lifecycle management assessment. IEEE Transactions on Engineering Management, 65(1), 155-167
Michalska, J. (2006) Quality costs in the production process. Journal of Achievements in Materials and Manufacturing Engineering, 17(1-2), 425-428
Milazzo, M.F. (2016) O značaju menadžerskih i organizacionih varijabli u kvantitativnoj proceni rizika. Journal of Applied Engineering Science, vol. 14, br. 1, str. 54-60
Miller, R., Lessard, D. (2001) Understanding and managing risks in large engineering projects. International Journal of Project Management, 19(8), 437-443
Mogos, M.F., Fredriksson, A., Alfnes, E. (2019) A production transfer procedure based on risk management principles. Journal of Global Operations and Strategic Sourcing, 12(1), 103-150
Polk, R., Plank, R.E., Reid, D.A. (1996) Technical risk and new product success: An empirical test in high technology business markets. Industrial Marketing Management, 25(6), 531-543
Rechtin, E., Maier, M.W. (2010) The art of systems architecting. CRC press
Sinha, K., Suh, E.S. (2018) Pareto-optimization of complex system architecture for structural complexity and modularity. Research in Engineering Design, 29(1), 123-141
Sokovic, M., Pavletic, D., Fakin, S. (2005) Application of Six SIGMA methodology for process design. Journal of Materials Processing Technology, vol. 162, 777-783
Sousa, S., Nunes, E., Lopes, I. (2015) Merenje i upravljanje operativnim rizikom u industrijskim procesima. FME Transactions, vol. 43, br. 4, str. 295-302
Stamenković, D., Popović, V., Spasojević-Brkić, V., Radivojević, J. (2011) Model optimizacije kombinacije garancije besplatne zamene i parcijalne garancije. Journal of Applied Engineering Science, vol. 9, br. 4, str. 457-464
Stanisavljev, S., Ćoćkalo, D., Đorđević, D., Minovski, R. (2013) Vreme proizvodnog ciklusa u serijskoj proizvodnji - smanjenje trajanja za slučaj metaloprerađivačke industrije. Journal of Applied Engineering Science, vol. 11, br. 3, str. 115-122
Tilley, P.A., McFallen, S.L., Tucker, S.N. (2000) Design and documentation quality and its impact on the construction process. AISC -IEAust Special Issue Steel Construction, 34(4), 7-14
Tsai, W.H., Hsu, W., Chou, W.C. (2011) A gap analysis model for improving airport service quality. Total Quality Management & Business Excellence, 22(10), 1025-1040
Vukelić, Đ., Budak, I., Tadić, B., Lužanin, O., Hadžistević, M., Krizan, P. (2011) Automatizovano generisanje šema baziranja radnog predmeta prilikom projektovanja pribora. Journal of Applied Engineering Science, vol. 9, br. 3, str. 383-392
Williams, T. (1995) A classified bibliography of recent research relating to project risk management. European Journal of Operational Research, 85(1), 18-38
 

O članku

jezik rada: engleski
vrsta rada: izvorni naučni članak
DOI: 10.5937/jaes17-23443
objavljen u SCIndeksu: 20.12.2019.
metod recenzije: dvostruko anoniman
Creative Commons License 4.0

Povezani članci

Nema povezanih članaka