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https://er.chdtu.edu.ua/handle/ChSTU/8368| Title: | Створення та дослідження енергоустановки сенсорних мереж |
| Authors: | Трембовецька, Руслана Володимирівна Рижак, Олександр Володимирович |
| Keywords: | поновлювані джерела енергії;бездротові датчики газу;акумулювання енергії;сенсорний модуль;оптимізація збору енергії;бездротові сенсорні мережі |
| Issue Date: | 15-Dec-2025 |
| Abstract: | У роботі розроблено технологічні принципи створення енергоустановки на базі поновлюваних джерел енергії для живлення малопотужних бездротових датчиків вибухонебезпечних і токсичних газів у складі бездротових сенсорних мереж. The work develops technological principles for creating a renewable-energy-based power unit for supplying low-power wireless sensors of explosive and toxic gases operating within wireless sensor networks. |
| URI: | https://er.chdtu.edu.ua/handle/ChSTU/8368 |
| Appears in Collections: | 174 Автоматизація, комп'ютерно-інтегровані технології та робототехніка (Робототехнічні системи та автоматизація) |
Files in This Item:
| File | Description | Size | Format | |
|---|---|---|---|---|
| Диплом-магистр_Рижак О.pdf Restricted Access | КРМ Рижак О. | 6.77 MB | Adobe PDF | View/Open Request a copy |
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91
1. Somov A., Baranov A., Savkin A., Ivanov M., Calliari L., Passerone R., Karpov
., and Suchkov ., Energy-Aware Gas Sensing Using Wireless Sensor Networks // in
Wireless Sensor Networks Series: Lecture Notes in Computer Science, Edited by Gian Pietro
Picco, Wendi Heinzelman, Berlin Heidelberg: Springer, 2012 pp.245-260.
2. Iyer Aravind, Kulkarni Sunil S., Mhatre Vivek, Rosenberg Catherine P., A
Taxanomy - Based Approach to Design of Large Scale Sensor Networks // Wireless Sensor
Networks and Applications, Edited by Yingshu Li, My T. Thai, Springer Science & Business
Media, 2008, p. 3.
3. Obaidat Mohammad S., Misra Sudip, Principles of Wireless Sensor Networks,
Cambridge University Press, 2014. - 433 Pages.
4. How to Think About the Internet of Things (IoT) [ ].
:http://micrium.com/iot/devices/ ( : 18.10.2015)
5. Buratti Chiara, Martalo Marco, Verdone Roberto, Ferrari Gianluigi, Sensor
Networks with IEEE 802.15.4 Systems: Distributed Processing, MAC, and Connectivity,
Springer Science & Business Media, 2011. - 250 Pages.
6. Vasseur Jean-Philippe, Dunkel Adam, Interconnecting Smart Objects with IP:
The Next Internet, Morgan Kaufmann, 2012. - 432 Pages.
7. Yang Shuang-Hua, Wireless Sensor Networks: Principles, Design and
Applications, Springer Science & Business Media, 2013. - 293 Pages.
8. Dardari Davide, Falletti Emanuela, Luise Marco, Satellite and Terrestrial Radio
Position- ing Techniques: A Signal Processing Perspective, Academic Press, 2012. - 432
Pages.
9. Farahani Shahin, ZigBee Wireless Networks and Transceivers, Newnes, 2011.
- 360 Pages.
10. Espina Javier, Falck Thomas, Mülhens Oliver, Zigbee // Body Sensor Networks,
92
Edited by Guang-Zhong Yang, Springer-Verlag London Limited, 2006, p. 165.
11. Akyildiz Ian F., Can Vuran Mehmet, Wireless Sensor Networks, John Wiley &
Sons, 2012.- 520 Pages.
12. Labrador Miguel A., Wightman Pedro M .. Topology Control in Wireless
Sensor Networks: with a companion simulation tool for teaching and research, Springer
Science & Business Media, 2009. - 209 Pages.
13. Dishongh Terrance J., McGrath Michael, Wireless Sensor Networks for
Healthcare Appli- cations, Artech House, 2010. - 246 Pages.
14. Abdelgawad Ahmed, Bayoumi Magdy, Resource-Aware Data Fusion
Algorithms for Wireless Sensor Networks, Springer Science & Business Media, 2012. - 108
Pages.
15. Baranov Alexander, Spirjakin Denis, Akbari Saba, Somov Andrey, Passerone
Roberto. POCO: 'Perpetual' operation of CO wireless sensor node with hybrid power supply
// Sen- sors and Actuators A: Physical, volume 238, 2016. - Pages 112 - 121.
16. Magno Michele, Boyle David, Brunelli Davide, O'Flynn Brendan, Popovici
Emanuel, Benini Luca. Extended Wireless Monitoring Through Intelligent Hybrid Energy
Supply (Brunelli) // IEEE Transactions on Industrial Electronics, volume 61, 2014. - Pages
- 1881.
17. Husain Iqbal, Electric and Hybrid Vehicles: Design Fundamentals, Second
Edition, CRC Press, 2011. - 523 Pages.
18. Catalytic Combustible Gas Sensors [ ] . :
Adobe Acrobat Reader. /
:http://www.intlsensor.com/pdf/catalyticbead.pdf( : 27.01.2016).
19. Figaro Engineering INC [ ]. /
:http://www.figaro.co.jp/en/technicalinfo/principle/mos-type.html (
: 27.01.2016).
20. Zhang Yu, Gao Wenzhu, Song Zhenyu, An Yupeng, Li Li, Song Zhanwei, Yu
93
William W., Wang Yiding. Design of a novel gas sensor structure based on mid-infrared
absorption spectrum // Sensors and Actuators B: Chemical, Volume 147, Issue 1, 2010.
Pages 5-9.
21. Gas Detection Handbook Fifth Edition, Mine Safety Appliances Company
[ ] . : Adobe Acrobat Reader. / : http:
//www.gil- soneng.com/reference/gasdetectionhandbook.pdf ( : 27.01.2016).
22. Electrochemical Sensors [ ] . : Adobe
Acrobat Reader. / :http://www.intlsensor.com/pdf/electrochemical.pdf
( : 04.02.2016).
23. FIGARO - TGS 813 - For the Detection of Combustible Gases [
] . : Adobe Acrobat Reader. / : http: //www.figarosen-
sor.com/products/813pdf.pdf ( : 01.04.2016).
24. Nemoto Sensor Engineering Company Ltd - Operating Characteristics and
Handling Man- ual for the NAP-66A Explosive / Flammable Gas Sensor [
] . : Adobe Acrobat Reader. /
:http://www.nemoto.eu/nap-66a- manual.pdf ( 05.04.2016).
25. HANWEI Electronics CO., LTD, MC Series Catalytic (Hot Wire) Gas Sensor
[ ] . : Adobe Acrobat Reader. /
:http://www.domko.ru/pdf/pdf/m/mc101.pdf, ( : 07.04.2016).
26. Karpov EE, Karpov EF, Suchkov A., Mironov S., Baranov A., Sleptsov V.,
Calliari L. Energy efficient planar catalytic sensor for methane measurement // Sensors and
Actuators A: Physical, Volume 194, 2013. - Pages 176 -180.
27. Moon SE, Lee H.-K., Choi N.-J., Lee J., Choi CA, Yang WS, Kim J., Jong JJ,
Yoo D.-J. Low power consumption micro C2H5OH gas sensor based on micro-heater and
screen printing technique // Sensors and Actuators B: Chemical, Volume 187, 2013. - Pages
598-603.
28. Lee EB, Hwang IS, Cha JH, Lee HJ, Lee WB, Pak JJ, Lee JH, Ju BK. Microm-
achined catalytic combustible hydrogen gas sensor // Sensors and Actuators B: Chemical,
94
Volume 153, Issue 2, 2011. - Pages 392-397.
29. Bhattacharyya P., Basu P., Mondal B., Saha H. A low power MEMS gas
sensorbased on nanocrystalline ZnO thin films for sensing methane // Microelectronics
Reliability, Vol- ume 48, Issues 11-12, 2008. - Pages 1772-
' .
30. Suzuki T., Kunihara K., Kobayashi M., Tabata S., Higaki K., Ohnishi H. A
micromachined gas sensor based on a catalytic thick film / SnO2 thin filmbilayer and thin
film heater Part 1: {CH4} sensing // Sensors and Actuators B: Chemical, Volume 109, Issue
2, 2005. - Pages 185-189.
31. Zhoua Q., Sussman A., Chang J., Donga J., Zettl A., Mickelson W. Fast
response integrated MEMS microheaters for ultra low power gas detection // Sensors and
Actuators A: Physi- cal, Volume 223, 2015. - Pages 67 - 75.
32. Vasiliev AA, Pavelko RG, Gogish-Klushin S. Yu., Kharitonov D.Yu., Gogish-
Klushina OS, Sokolov AV, Pisliakov AV, Samotaev NN Alumina MEMS platform for
impulse semiconductor and IR optic gas sensors // Sensors and Actuators B : Chemical,
Volume 132, Issue 1, 2008. - Pages 216-223.
33. Ma H., Ding E., Wang W. Power reduction with enhanced sensitivity
forpellistor methane sensor by improved thermal insulation packaging // Sensors and
Actuators B: Chemical 187, Volume 187, 2013. - Pages 221-226.
34. Haridas D., Gupta V. Enhanced response characteristics of SnO2 thin filmbased
sensors loaded with Pd clusters for methane detection // Sensors and Actuators B: Chemical,
Vol- umes 166-167, 2012. - Pages 156-164.
35. Korotcenkov G., Cho BK Engineering approaches to improvement
ofconductometric gas sensor parameters. Part 2: Decrease of dissipated (consumable) power
and improvement stability and reliability // Sensors and Actuators B: Chemical, Volume 198,
2014. - Pages 316-341.
36. Ali SZ, De Luca A., Racz Z., Tremlett P., Wotherspoon T., Gardner JW, Udrea
F. Low power NDIR CO2 sensor based on CMOS IR emitter for boiler applications // IEEE
95
Sen- sors 2014 , 2-5 Nov. 2014 , pp. 934- 937.
37. Gibson Desmond, MacGregor Calum. A Novel Solid State Non-Dispersive
Infrared CO2 Gas Sensor Compatible with Wireless and Portable Deployment // Sensors,
Volume 13, Issue 6, 2013. - Pages 7079-7103.
38. Li Haitao, Mu Xiaoyi, Yang Yuning, Mason Andrew J. Low Power Multimode
Electro- chemical Gas Sensor Array System for Wearable Health and Safety Monitoring //
IEEE Sensors Journal, Volume 14, Issue 10, 2014. - Pages 3391 - 3399.
39. Makeenkov, A., Lapitskiy, I., Somov, A., Baranov, A. Flammable gases and
vapors of flammable liquids: Monitoring with infrared sensor node // Sensors and Actuators
B: Chemical, Volume 209, 2015. - Pages 1102- 1107.
40. Spirjakin Denis, Baranov Alexander M., Sleptsov Vladimir. Design of Smart
Dust Sensor Node for Combustible Gas Leakage Monitoring // Federated Conference on
Computer Sci- ence and Information Systems (FedCSIS), 13-16 Sept. 2015- , pp. 1279 -
1283.
41. Basagni S., Naderi MY, Petrioli C. and Spenza D. Wireless Sensor Networks
With Energy Harvesting. // Mobile Ad Hoc Networking: Cutting Edge Directions, Edited by
Stefano Basagni, Marco Conti, Silvia Giordano, Ivan Stojmenovic, Wiley-IEEE Press 2013,
p.12.
42. Mathna C., Donnell TO, Martinez-Catala RV, Rohan J., Flynn BO Energy
scavenging for long -term deployable wireless sensor networks // Talanta, Volume 75, Issue
3, 2008. - Pages 613-623.
43. Raju M., Grazier M., Energy Harvesting - ULP meets energy harvesting: A
game changing combination for desing engineers [ ]. . :
Adobe Acrobat Reader.
:http://www.ti.com.cn/cn/lit/wp/slyy018a/slyy018a.pdf ( :
10.04.2016).
44. Akbari S. Energy Harvesting for Wireless Sensor Networks Review // Federated
Confer- ence on Computer Science and Information Systems (FedCSIS), 7-10 Sept. 2014
96
, pp. 987- 992.
45. Khosro Pour Naser, Krummenacher François, Kayal Maher. A miniaturized
autonomous microsystem for hydrogen gas sensing applications // IEEE 10th International
New Circuits and Systems Conference (NEWCAS), 17-20 Jun. 2012 pp. 201- 204.
46. Rizzon Luca, Rossi Maurizio, Passerone Roberto, Brunelli Davide. Wireless
sensor net- works for environmental monitoring powered by microprocessors heat
dissipation // The 1st International Workshop on Energy Neutral Sensing Systems ENSSys
'13, 11-14 Nov. 2013.
47. Alippi Cesare, Camplani Romolo, Galperti Cristian, Roveri Manuel. A Robust,
Adaptive, Solar-Powered WSN Framework for Aquatic Environmental Monitoring // IEEE
Sensors Journal, Volume 11, Issue 1, 2011. - Pages 45 - 55.
48. Frezzetti A., Manfredi S., Pagano M. An implementation of a smart maximum
power point tracking controller to harvest renewable energy of wireless sensor nodes //
International Conference on Clean Electrical Power (ICCEP), 11-13 June 2013, pp. 503 -
508.
49. Kim Hoonki, Min Young-Jae, Jeong Chan-Hui, Kim Kyu-Young, Kim
Chulwoo, Kim Soo-Won. A 1-mW Solar-Energy-Harvesting Circuit Using an Adaptive
MPPT With a SAR and a Counter // IEEE Transactions on Circuits and Systems II: Express
Briefs, Vol- ume. 60, Issue 6, 2013. - Pages 331 - 335.
50. Maximizing the Output from Solar Modules. // [ ] Digi
- Key.
:http://www.digikey.com/en/articles/techzone/2013/dec/maximizing-the- output-
from-solar-modules ( : 21.02.2016).
51. Pan CT, Liu ZH, Chen YC Study of broad bandwidth vibrational energy
harvesting system with optimum thickness of PET substrate // Sensors and Actuators A:
Physical, Volume 12, Issue 3, 2012. - Pages 684 - 696.
52. Andò B., Baglio S., Maiorca F., Trigona C. Analysis of two dimensional, wide-
band, bi- stable vibration energy harvester // Sensors and Actuators A: Physical, Volume
97
202, 2012.
- Pages 176 - 182.
53. Samson D., Kluge M., Becker Th., Schmid U. Wireless sensor node powered by
aircraft specific thermoelectric energy harvesting // Sensors and Actuators A: Physical,
Volume 172, Issue 1, 2011. - Pages 240 - 244.
54. Salerno David, Ultralow Voltage Energy Harvester Uses Thermoelectric
Generator for Battery-Free Wireless Sensors // Journal of Analog Innovation, Volume 20,
Number 3, 2010. - Pages 1-11.
55. Moczygemba Joshua, Energy Harvesting TEG Power Strap for Industrial,
Chemical, Oil and Gas Applications [ ]. . : Adobe
Acrobat Reader, :
56. http://www.marlow.com/media/marlow/images/support_guide/EverGen_Powe
r_Strap_W hite_Paper.pdf ( : 05.03.2016).
57. Vyas Rushi, Nishimoto Hiroshi, Tentzeris Manos, Kawahara Yoshihiro, Asami
Tohru. Battery-Less, Energy Harvesting Device for Long Range Scavenging of Wireless
Power from Terrestrial TV Broadcasts // IEEE MTT-S International Microwave Symposium
Di- gest (MTT), 17-22 June 2012, pp. 1-3.
58. Pinson P., Giebel G., Clausen NE Renewable Energy Resources - Onshore /
Offshore Wind Energy // Climate Vulnerability: Understanding and Addressing Threats to
Essential Resources, Edited by Roger Pielke, Elsevier Science, 2013, pp. 53 - 64.
59. Park JW, Jung H.Jo,, Jo H. and Spencer Jr. BFFeasibility Study of Micro-Wind
Tur- bines for Powering Wireless Sensors on a Cable-Stayed Bridge // Energies, Volume 5,
Issue 9, 2012. - Pages 3450-3464.
60. Weddell Alex S., Magno Michele, Merrett Geoff V., Brunelli Davide, Al-
Hashimi Bashir M., Benini Luca, A survey of multi-source energy harvesting systems //
Design, Automa- tion & Test in Europe Conference & Exhibition, 18-22 March 2013, pp.
905 - 908.
61. Baranov Alexander, Spirjakin Denis, Akbari Saba, Somov Andrey.
98
Optimization of power consumption for gas sensor nodes: A survey // Sensors and Actuators
A: Physical, Volume 233, 2015. - Pages 279 - 289.
62. Ma Dongsheng, Bondade Rajdeep. Reconfigurable Switched-Capacitor Power
Converters: Principles and Designs for Self-Powered Microsystems, Springer Science &
Business Me- dia, 2012. - 178 Pages.
63. Erickson Robert W., DC-DC Power Converters [ ].
. : Adobe Acrobat Reader. / :http://web.eecs.utk.edu/~dcos-
tine / ECE482 / Spring2016 / materials / DCPowerConv.pdf ( : 14.04.2016).
64. Williamson Sheldon S. Energy Management Strategies for Electric and Plug-in
Hybrid Electric Vehicles, Springer Science & Business Media, 2013. - 253 Pages.
65. LTC3388-1 / LTC3388-3 20 V High Efficiency Nanopower Step-Down
Regulator [ ]. . : Adobe Acrobat Reader. /
:http://cds.linear.com/docs/en/datasheet/338813fa.pdf ( :
14.04.2016)
66. Emadi Ali, Khaligh Alireza, Nie Zhong, Lee Young Joo. Integrated Power
Electronic Con- verters and Digital Control, CRC Press, 2009. - 350 Pages.
67. Erlbacher Tobias. Lateral Power Transistors in Integrated Circuits, Springer,
2014. - Pages 223.
68. TPS6120x Low Input Voltage Synchronous Boost Converter With 1.3-A
Switches [ ]. . : Adobe Acrobat Reader. /
:,http://www.ti.com/lit/ds/symlink/tps61200.pdf ( : 15.04.2016).
69. TPS6300 High Efficient Single Inductor Buck - Boost Converter with 1.8 -A
Switches [ ]. . : Adobe Acrobat Reader. /
:http://www.ti.com/general/docs/lit/getliterature.tsp?genericPartNumber=tps63001
&file- Type = pdf ( : 15.04.2016).
70. Bindra Ashok, Buck-Boost DC / DC Handles Wide Input-Voltage Range //
[ ] Digi - Key. :http://www.digikey.com/en/arti-
cles / techzone / 2013 / jul / buck-boost-dcdc-handles-wide-input-voltage-range (
99
: 15.04.2016).
71. AVR042.
AVR // [ ].
:http://avrdoc.narod.ru/index/0-3 ( 03.05.2016).
72. Somov, A., Baranov, A., Suchkov, A., Karelin, A., Mironov, S., Karpova, E.
Improving interoperability of catalytic sensors. Sensors and Actuators B: Chemical //
Volume 221, 2015. - Pages 1156-1161.
73. Somov Andrey, Baranov Alexander, Spirjakin Denis, Spirjakin Andrey,
Sleptsov Vladi- mir, Passerone Roberto. Deployment and evaluation of a wireless sensor
network for me- thane leak detection // Sensors and Actuators A: Physical, Volume 202,
2012. - Pages 217- 225.
74. Aliyu Farouq, Al-shaboti Mohammed, Garba Yau, Sheltami Tarek, Barnawi
Abdulaziz, Morsy Mohammed A. Hydrogen Sulfide (H2S) Gas Safety System for Oil
Drilling Sites using Wireless Sensor Network // The 6th International Conference on
Emerging Ubiqui- tous Systems and Pervasive Networks (EUSPN 2015) / The 5th
International Conference on Current and Future Trends of Information and Communication
Technologies in Healthcare (ICTH-2015) / Affiliated Workshops, 27-30 Sept. 2015- , pp.
499-504.
75. Yu Huaping, Guo Mei. An efficient oil and gas pipeline monitoring systems
based on wire- less sensor networks // International Conference on Information Security and
Intelligence Control (ISIC), 14-16 Aug. 2012 pp. 178 - 181.
76. Anupama KR, Kamdar Nishad, Kamalampet Santosh Kumar, Vyas Dhruv, Sahu
Sid- dharth, Shah Supan. A wireless sensor network based pipeline monitoring system //
Inter- national Conference on Signal Processing and Integrated Networks (SPIN), 20-21 Feb.
2014 , pp. 412 - 419.