Patent Analysis of the Development of Technologies Applied to the Combustion Process
Source abstract
Abstract
The use of combustion in industrial activity is of paramount importance for economic and social development. However, combustion reactions are the main sources of atmospheric pollutant emissions. Given this reality, it is necessary to study new combustion techniques, such as the application of oxygen in the process, in order to increase the efficiency and productivity of the burning process and energy production. In addition, studies have reported the use of acoustic excitation, a low-investment technique that can promote higher rates of heat and mass transfer. Thus, the goal of this study was to bring data on the current scenario related to the application of these two technologies to the combustion process where, through the reported results, they can be used as a guide for companies’ decisions about new technologies and global trends to be identified. For this, a technological prospection was carried out which focused on patents to investigate the use of oxygen-enhanced combustion and acoustic excitation coupled to the combustion process; a total of 88 documents were found. Few documents applied acoustic excitation for process improvement, indicating that its use is recent; however, according to the literature, it is a promising field to be explored. Siemens AG was the main depositor, and ten primary inventors were identified. Germany and the United States were the countries with the highest number of filings. In the prospected documents, it was possible to identify that there is a need for the further investigation of the joint use of both techniques. These investigations may lead to the development of processes and devices that can provide economic and environmental gains for the energy industry.
Source: crossref · Quality: baseline
Research context
OpenAlex topics: Combustion and flame dynamics · Combustion and Detonation Processes · Thermochemical Biomass Conversion Processes
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
Affiliations
Computational Modeling and Industrial Technology, University Center SENAI CIMATEC, Orlando Gomes Avenue, 1845-Piatã, Salvador 41650-010, BA, Brazil
SENAI Institute of Innovation (ISI) in Health Advanced Systems (CIMATEC ISI SAS), University Center SENAI CIMATEC, Orlando Gomes Avenue, 1845-Piatã, Salvador 41650-010, BA, Brazil
References (85)
Show source-provided references
1. Experimental evaluation of thermal radiation and soot concentration rates for syngas flames in lean condition and oxygen enhanced combustion10.1016/j.egyr.2021.06.096 ↗
2. Alobaid, F., and Ströhle, J. (2021). Special Issue “Thermochemical Conversion Processes for Solid Fuels and Renewable Energies”. Appl. Sci., 11.10.3390/app11041907 ↗
3. Analysis of operating limits and combustion state regulation for low-calorific value gases in industrial burners10.1016/j.ijhydene.2021.10.052 ↗
4. Baukal, C.E. (2013). Oxygen-Enhanced Combustion, CRC Press. [2nd ed.].10.1201/b13974 ↗
5. Störner, F., Lind, F., and Rydén, M. (2021). Oxygen Carrier Aided Combustion in Fluidized Bed Boilers in Sweden—Review and Future Outlook with Respect to Affordable Bed Materials. Appl. Sci., 11.10.3390/app11177935 ↗
6. Critical evaluation of the oxygen-enhanced combustion in gas burners for industrial applications and heating systems10.1590/S0103-50532011001000003 ↗
7. Pereira, A.R.B. (2017). Evaluation of the Influence of O2-Enriched Combustion Correlation and Acoustic Excitation on Natural Gas Flames. [Master’s Thesis, Centro Universitário SENAI CIMATEC].
8. The effect of oxygen enrichment on soot formation and thermal radiation in turbulent, non-premixed methane flames10.1016/j.proci.2016.06.106 ↗
9. Magnetic control of flame stability: Application to oxygen-enriched and carbon dioxide-diluted sooting flames10.1016/j.proci.2018.05.156 ↗
10. The effect of oxygen concentration in the co-flow of laminar ethylene diffusion flames10.1016/j.combustflame.2019.09.023 ↗
11. Experimental evaluation of CO, NOx, formaldehyde and acetaldehyde emission rates in a combustion chamber with OEC under acoustic excitation10.1016/j.egyr.2019.08.010 ↗
12. Soot evolution and flame response to acoustic forcing of laminar non-premixed jet flames at varying amplitudes10.1016/j.combustflame.2018.09.022 ↗
13. A state-of-the-art review of pulse combustion: Principles, modeling, applications and R&D issues10.1016/j.rser.2015.10.110 ↗
14. Martinez, S., Merola, S., and Irimescu, A. (2019). Flame Front and Burned Gas Characteristics for Different Split Injection Ratios and Phasing in an Optical GDI Engine. Appl. Sci., 9.10.3390/app9030449 ↗
15. Experimental measurements of the NOx and CO concentrations operating in oscillatory and non-oscillatory burning conditions10.1016/j.fuel.2005.05.020 ↗
16. Trevisan, B.P., and Dourado, W.M.C. (, January January). Experimental Investigation of the Acoustic Flame Interactions in a Bunsen Burner. Proceedings of the 4 Workshop em Engenharia e Tecnologia Espaciais, São José dos Campos, Brazil.
17. Effect of Acoustic Excitation toward Jet Flame: An Experimental Design
18. WIPO (2022). Obtaining IP Rights: Patents, WIPO.
19. Correa, S.M. (1998, January 2–7). Power generation and aeropropulsion gas turbines: From combustion science to combustion technology. Proceedings of the Symposium (International) on Combustion, Boulder, CO, USA.10.1016/S0082-0784(98)80021-0 ↗
20. Kamba, N. (2022). Environmental Protection and Role of Museums. Conserv. Pract. Mus., 149–172.10.1007/978-4-431-56910-7_5 ↗
21. Promotion of a green economy with the palm oil industry for biodiversity conservation: A touchstone toward a sustainable bioindustry10.1016/j.jbiosc.2022.01.001 ↗
22. Tiemann, C. (1998). Combustion Chamber Assembly. (WO1999056060A1).
23. Tiemann, C., Lenze, M., and Lenz, M. (1998). Gas-Turbine Burner Assembly with Optical Probe. (WO2000012939A1).
24. Biagiolo, F., Hakim Doisneau, L., and Palys, D.O. (2019). System and Method for High Frequency Accoustic Dampers with Caps. (EP3742050A1).
25. Leschowski, M., Lichtenstern, M., Bäßler, S., Rabus, P., and Müller, S. (2020). Method of Manufacturing a Cooking Appliance Burner System and Cooking Appliance. (DE102020106329A1).
26. Thermoacoustic Instability Considerations for High Hydrogen Combustion in Lean Premixed Gas Turbine Combustors: A Review10.3390/hydrogen2010003 ↗
27. Determination of the heat conduction transfer function within the thermoacoustic instability limit cycle in a Rijke tube10.1016/j.applthermaleng.2022.118084 ↗
28. Effects of different active control strategies on combustion instability decay time, actuator voltage, and damping ratio10.1063/5.0004180 ↗
29. A review of acoustic dampers applied to combustion chambers in aerospace industry10.1016/j.paerosci.2014.12.003 ↗
30. Active control of thermoacoustic amplification in a thermo-acousto-electric engine10.1063/1.4874743 ↗
31. Active control of thermoacoustic instability using microsecond plasma discharge10.1063/1.5129722 ↗
32. Electroacoustic control of Rijke tube instability10.1016/j.jsv.2017.07.050 ↗
33. Advances in feedback control of the Rijke tube thermoacoustic instability10.1260/1756-8250.2.4.197 ↗
34. Transient growth of acoustical energy associated with mitigating thermoacoustic oscillations10.1016/j.apenergy.2016.01.060 ↗
35. Experiments on axisymmetrically pulsed turbulent jet flames10.2514/3.10350 ↗
36. Nonlinear response of a premixed low-swirl flame to acoustic excitation with large amplitude10.1016/j.combustflame.2021.111733 ↗
37. Flow visualization study of a diffusion flame under acoustic excitation10.1016/j.fuel.2019.04.060 ↗
38. Oxygen-Enhanced Combustion
39. Evaluation of the influence of OEC on soot formation and thermal radiation in confined acetylene diffusion flames10.1016/j.icheatmasstransfer.2012.10.004 ↗
40. Experimental investigation of the natural gas confined flames using the OEC10.1016/j.energy.2011.01.011 ↗
41. Niehoff, T., Plaschke, H., Rogge, D., and Rudolph, B. (2011). Method for Manufacturing Mineral Wool. (EP2284130A1).
42. Andersson, L. (2000). Arrangement for Reduction of Acoustinc Vibrations in a Combustion Chamber. (WO2000009945A1).
43. Experimental study on NO formation and burnout characteristics of pulverized coal in oxygen enriched and deep-staging combustion10.1016/j.fuel.2020.117639 ↗
44. The study of optimal parameters of oxygen-enriched combustion in fluidized bed with optimal torrefied woody waste10.1002/er.5459 ↗
45. Skeen, S. (2009). Oxygen-Enhanced Combustion: Theory and Applications Recommended Citation, Washington University.
46. Experimental Study of Oxygen Enrichment Effects on Turbulent Non-premixed Swirling Flames10.1021/ef400843c ↗
47. Experimental Study of EGR Dilution and O2 Enrichment Effects on Turbulent Non-Premixed Swirling Flames10.1080/00102202.2020.1786375 ↗
48. Experimental and numerical study of oxidant effect on hythane combustion10.1016/j.ijhydene.2021.12.155 ↗
49. A study on acoustically modulated bunsen flame and its impingement heat transfer10.1016/j.ijhydene.2022.02.055 ↗
50. Flame structure changes resulting from hydrogen-enrichment and pressurization for low-swirl premixed methane–air flames10.1016/j.ijhydene.2012.04.017 ↗
51. Experimental investigation of thermoacoustic coupling using blended hydrogen–methane fuels in a low swirl burner10.1016/j.ijhydene.2009.10.018 ↗
52. Siemens, A.G. (2022, April 03). Available online: https://www.siemens.com/global/en.html.
53. Alstom (2022, April 03). Technology Smart Innovation for Sustainable Mobility. Available online: https://www.alstom.com/company.
54. ABB (2022, April 03). Asea Brown Boveri. Available online: https://global.abb/group/en.
55. Tiemann, C. (2001). Method of Operating a Hybrid Burner. (US20010018173A1).
56. OEC (2022, February 16). Combustion Engines in Germany. Available online: https://oec.world/en/profile/hs92/combustion-engines.
57. IEA (2020). Germany 2020: Energy Policy Review, IEA.
58. Schürg, F., and Kunze, U. (2019). Method for Monitoring a Burner and a Device Therefor. (DE102019114788A1).
59. Sigal, I., Smikhula, A., and Sigal, O. (2019). Experience of The Development Of Burners, Chambers, And Technologies For Reducing Emissions of Nitrogen Oxides By Boilers During The Combustion Of Natural Gas. Energy Technol. Resour. Sav., 70–79.10.33070/etars.3.2019.07 ↗
60. (2022, February 16). Persistence Market Research Rising Adoption of Low Nitrogen Oxide (NOx) Combustion Technology to Surge Industrial Burner Market Value to US$ 9 Bn by 2029, Finds PMR. Available online: https://www.persistencemarketresearch.com/mediarelease/industrial-burner-market.asp.
61. EPO (2022). Applying for a Patent, EPO.
62. (2022, February 16). WIPO. PCT—The International Patent System, Available online: https://www.wipo.int/pct/en/.
63. Treaty, Patent Cooperation (2001). World Intellectual Property Organization, Treaty, Patent Cooperation.
64. OEC (2022, April 03). Combustion Engines in United States. Available online: https://oec.world/en/profile/bilateral-product/combustion-engines/reporter/usa?redirect=true.
65. Effects of Acoustic Excitation on the Combustion Instability of Hydrogen–Methane Lean Premixed Swirling Flames10.1021/acsomega.0c00287 ↗
66. Investigation of flame acoustic excitation of a gas burner10.1016/j.egyr.2022.01.075 ↗
67. Analysis of combustion acoustic phenomena in compression–ignition engines using large eddy simulation10.1063/5.0011929 ↗
68. Acoustic excitation of droplet combustion in microgravity and normal gravity10.1016/j.combustflame.2005.07.013 ↗
69. Dang, N., Zhang, J., and Deguchi, Y. (2021). Numerical Study on the Route of Flame-Induced Thermoacoustic Instability in a Rijke Burner. Appl. Sci., 11.10.3390/app11041590 ↗
70. Experimental and numerical study of transcritical oxygen-hydrogen rocket flame response to transverse acoustic excitation10.1016/j.proci.2020.05.027 ↗
71. Control of a pulse combustion reactor with thermoacoustic phenomena
72. Pulse combustion: Recent applications and research issues10.1016/S0082-0784(06)80151-7 ↗
73. INPI (2022, April 03). Instituto Nacional da Propriedade Industrial, Available online: https://www.gov.br/inpi/pt-br.
74. Pereira, A., Santos, A.Á., and Neves, P.R. (2016). Dispositivo de Combustão de Gás Natural Para o Controle das Correlações Entre Radiação térmica, Formação da Fuligem, CO e NOx Com a Utilização das Técnicas de Combustão Enriquecida Com Oxigênio e Combustão Pulsante. (BR1020160229014).
75. Yang, Y., Wang, G., Zheng, Y., Fang, Y., and Zhong, L. (2017). A Measuring Acoustic Transmission Relation of Rotational Flow Burner Device. (CN207019906U).
76. Tang, G., Hu, W., Li, Z., and Wang, X. (2013). Pulsation Wire Mesh Catalytic Burning Device and Method. (CN103244958A).
77. Schuermans, B., and Güthe, F. (2007). A Pulse Metal Wire Net Catalytic Combustion Apparatus and Combustion Method, Particularly Combustion Chamber of Gas Turbine, Involves Forming Transfer Function by Two Partial Transfer Functions. (DE102008022117A1).
78. Deegan, T. (2001). Acousto Ionic Radio Antenna. (US6211617B1).
79. Gutmark, E., and Paschereit, C.O. (2002). Method and Device for Affecting Thermoacoustic Oscillations in Combustion Systems. (EP1429004A2).
80. WIPO (2022). International Patent Classification (IPC), WIPO.
81. Effects of radiation reabsorption on laminar NH3/H2/air flames10.1016/j.combustflame.2021.111699 ↗
82. Markellos, K., Perdikuri, K., Markellou, P., Sirmakessis, S., Mayritsakis, G., and Tsakalidis, A. (2002, January 4). Knowledge discovery in patent databases. Proceedings of the Eleventh International Conference on Information and Kknowledge Management-CIKM’02, Online.10.1145/584902.584915 ↗
83. Ampornphan, P., and Tongngam, S. (2020). Exploring Technology Influencers from Patent Data Using Association Rule Mining and Social Network Analysis. Information, 11.10.3390/info11060333 ↗
84. Kim, J., Choi, J., Park, S., and Jang, D. (2018). Patent Keyword Extraction for Sustainable Technology Management. Sustainability, 10.10.3390/su10041287 ↗
85. Analyzing patent topical information to identify technology pathways and potential opportunities10.1007/s11192-014-1392-6 ↗