Internet of Things: A Scientometric Review
Abstract
:1. Introduction
2. Materials and Methods
- Read Clarivate Web of Science and Scopus databases (.CSV files).
- Filter publications by document type.
- Find and remove duplicated documents.
- Graph the history of the top topics (keywords, authors, countries).
- Graph the history of selected items inside a topic.
- Find trending topics using the top average growth rate (AGR).
- Calculate the h-index for authors and countries.
2.1. Data Set
- Conference Paper;
- Article;
- Review;
- Proceedings Paper.
2.2. Pre-Processing
2.2.1. Simplify Author’s name
- Most journals abbreviate the author’s first name to an initial and a dot.
- Most journals use the author name’s special accents.
- WoS uses a comma between the author’s last name and first name initial, but Scopus does not.
- Remove dots and coma from author’s name.
- Remove special accents from author’s name.
2.2.2. Remove Duplicate Samples
2.3. Times Cited and h-Index
2.4. Document’s Country
2.5. General IoT Publications Growth
3. Country and Author Research Analysis
3.1. Country Analysis
3.2. Author Analysis
4. Research Topics
4.1. Applications
4.2. Communication Protocols According to Open Systems Interconnection Model (OSI Model)
4.3. Software Processing Techniques
4.4. Device Operating Systems (OS) and Hardware
4.5. Top Trending Topics
- = Average growth rate;
- = Start year;
- = End year;
- = Number of publications on year
5. Conclusions
Acknowledgments
Author Contributions
Conflicts of Interest
References
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Source | Article | Conference Paper | Proceedings Paper | Review | Duplicated Removed |
---|---|---|---|---|---|
WoS | 3112 | 0 | 8215 | 130 | 55 |
Scopus | 5283 | 10,068 | 0 | 312 | 8030 |
Original | Replacement |
---|---|
Republic of China | China |
USA | United States |
England, Scotland, and Wales | United Kingdom |
U Arab Emirates | United Arab Emirates |
Russia | Russian Federation |
Viet Nam | Vietnam |
Trinid & Tobago | Trinidad and Tobago |
N. | Country | Total | Average Growth | h-Ind. |
---|---|---|---|---|
1 | China | 4822 | 16% | 47 |
2 | United States | 1561 | 116% | 42 |
3 | India | 1089 | 169% | 15 |
4 | South Korea | 894 | 206% | 16 |
5 | Italy | 874 | 61% | 32 |
6 | Germany | 811 | 64% | 24 |
7 | United King. | 711 | 71% | 25 |
8 | France | 543 | 126% | 21 |
9 | Spain | 463 | 42% | 23 |
10 | Japan | 449 | 166% | 11 |
11 | Taiwan | 438 | 68% | 16 |
12 | Brazil | 272 | 90% | 9 |
13 | Finland | 266 | 50% | 20 |
14 | Canada | 259 | 104% | 15 |
15 | Australia | 249 | 59% | 22 |
16 | Sweden | 216 | 68% | 17 |
17 | Switzerland | 193 | 31% | 19 |
18 | Portugal | 191 | 45% | 13 |
19 | Greece | 180 | 46% | 14 |
20 | Romania | 169 | 72% | 9 |
21 | Belgium | 164 | 87% | 11 |
22 | Austria | 146 | 113% | 12 |
23 | Malaysia | 137 | 71% | 9 |
24 | Russian Fed. | 134 | 271% | 8 |
25 | Ireland | 126 | 116% | 9 |
26 | Netherlands | 109 | 122% | 12 |
27 | Singapore | 109 | 112% | 8 |
28 | Poland | 104 | 77% | 6 |
29 | Czech Rep. | 101 | 153% | 5 |
30 | Turkey | 92 | 319% | 5 |
31 | Pakistan | 82 | 210% | 7 |
32 | Saudi Arabia | 80 | 122% | 7 |
33 | Norway | 72 | 119% | 11 |
34 | UAE | 71 | 180% | 6 |
35 | South Africa | 60 | 162% | 9 |
36 | Denmark | 59 | 39% | 11 |
37 | Tunisia | 55 | 163% | 6 |
38 | Serbia | 53 | −1% | 6 |
39 | Croatia | 51 | 159% | 6 |
40 | Hungary | 51 | 24% | 6 |
41 | Indonesia | 51 | 410% | 3 |
42 | Egypt | 49 | 159% | 4 |
43 | Morocco | 47 | 163% | 4 |
44 | Iran | 42 | 94% | 5 |
45 | Colombia | 39 | 146% | 3 |
46 | Algeria | 38 | 113% | 5 |
47 | Jordan | 38 | 108% | 5 |
48 | New Zealand | 38 | 86% | 6 |
49 | Mexico | 36 | 172% | 5 |
50 | Thailand | 32 | 107% | 4 |
N. | Author | Total Documents | h-Index | Most Cited | Top Author Topics |
---|---|---|---|---|---|
1 | Zhang, Y. | 130 | 12 | [40] | RFID, security, Electric vehicle |
2 | Liu, Y. | 115 | 11 | [33] | RFID, name service, ZigBee |
3 | Li, Y. | 97 | 9 | [41] | RFID, big data, database |
4 | Wang, Y. | 97 | 5 | [42] | RFID, smart grid, secirity |
5 | Li, J. | 96 | 9 | [43] | RFID, ZigBee, standarized breeding |
6 | Zhang, J. | 82 | 6 | [44] | RFID, WSN, monitoring system |
7 | Wang, J. | 80 | 8 | [45] | RFID, 5G, sampling |
8 | Zhang, L. | 79 | 13 | [46] | Cloud computing, cloud manufacturing, ZigBee |
9 | Wang, X. | 78 | 6 | [47] | RFID, ZigBee, service selection |
10 | Chen, Y. | 72 | 8 | [48] | RFID, WSN, ZigBee |
11 | Jara, A.J. | 72 | 13 | [49] | 6LoWPAN, smart cities, big data |
12 | Zhang, X. | 72 | 6 | [50] | Logistics, RFID, WSN |
13 | Li, H. | 71 | 7 | [51] | RFID, authentication, security |
14 | Wang, H. | 70 | 9 | [52] | RFID, monitoring, cloud computing |
15 | Li, X. | 67 | 8 | [53] | RFID, recommendation, smart grid |
16 | Liu, J. | 65 | 10 | [54] | Cloud computing, RFID, security |
17 | Kim, J. | 62 | 7 | [55] | WSN, video streaming, HEVC |
18 | Wang, Z. | 60 | 8 | [56] | RFID, GPRS, EPC network |
19 | Liu, X. | 59 | 9 | [57] | Cloud computing, RFID, Landsenses ecology |
20 | Kim, D. | 58 | 7 | [58] | EPCIS, 6LoWPAN, security |
N. | First Author | Document Reference | Times Cited | Publication Year | Country |
---|---|---|---|---|---|
Articles documents | |||||
1 | Atzori L | [12] | 3239 | 2010 | Italy |
2 | Gubbi J | [13] | 1369 | 2013 | Australia |
3 | Miorandi D | [59] | 721 | 2012 | Italy |
4 | Kortuem G | [65] | 506 | 2010 | United Kingdom |
5 | Ganti RK | [66] | 494 | 2011 | United States |
6 | Bobadilla J | [67] | 482 | 2013 | Spain |
7 | Li B-H | [46] | 471 | 2010 | China |
8 | Perera C | [68] | 454 | 2014 | Australia |
9 | Zanella A | [69] | 404 | 2014 | Italy |
10 | Chen M | [70] | 370 | 2014 | China |
Conference and proceedings documents | |||||
1 | Bonomi F | [60] | 508 | 2012 | United States |
2 | Tao F | [61] | 228 | 2011 | China |
3 | Tan L | [62] | 169 | 2010 | China |
4 | Spiess P | [71] | 156 | 2009 | Not specified |
5 | Mainetti L | [72] | 142 | 2011 | Italy |
6 | Zhu Q | [33] | 134 | 2010 | China |
7 | Dohr A | [73] | 132 | 2010 | Austria |
8 | Kovatsch M | [74] | 112 | 2011 | Switzerland |
9 | Khan R | [75] | 101 | 2012 | Italy |
10 | Su KH | [43] | 97 | 2011 | China |
Review documents | |||||
1 | Gershenfeld N | [21] | 271 | 2004 | United States |
2 | Meng X | [63] | 172 | 2013 | China |
3 | Aziz AA | [64] | 139 | 2013 | Malaysia |
4 | Domingo MC | [76] | 138 | 2012 | Spain |
5 | Borgia E | [14] | 132 | 2014 | Italy |
6 | Hancke GP | [77] | 101 | 2013 | South Africa |
7 | Wang ZL | [78] | 98 | 2010 | United States |
8 | Wang SH | [79] | 83 | 2015 | United States |
9 | Keoh SL | [80] | 69 | 2014 | Singapore |
10 | Malhotra A | [81] | 64 | 2013 | United States |
Layer | IoT Communication Protocols | |
---|---|---|
Host layers | 7. Application | CoAP, MQTT, JSON, iBeacon |
6. Presentation | ||
5. Session | ||
4. Transport | TCP, UDP, DTLS | |
Media layers | 3. Network | IPv6, 6LowPAN, ZigBee, BLE, RPL |
2. Data link | RFID, 802.15.4, WiFi, BLE, 5G | |
1. Physical |
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Share and Cite
Ruiz-Rosero, J.; Ramirez-Gonzalez, G.; Williams, J.M.; Liu, H.; Khanna, R.; Pisharody, G. Internet of Things: A Scientometric Review. Symmetry 2017, 9, 301. https://doi.org/10.3390/sym9120301
Ruiz-Rosero J, Ramirez-Gonzalez G, Williams JM, Liu H, Khanna R, Pisharody G. Internet of Things: A Scientometric Review. Symmetry. 2017; 9(12):301. https://doi.org/10.3390/sym9120301
Chicago/Turabian StyleRuiz-Rosero, Juan, Gustavo Ramirez-Gonzalez, Jennifer M. Williams, Huaping Liu, Rahul Khanna, and Greeshma Pisharody. 2017. "Internet of Things: A Scientometric Review" Symmetry 9, no. 12: 301. https://doi.org/10.3390/sym9120301
APA StyleRuiz-Rosero, J., Ramirez-Gonzalez, G., Williams, J. M., Liu, H., Khanna, R., & Pisharody, G. (2017). Internet of Things: A Scientometric Review. Symmetry, 9(12), 301. https://doi.org/10.3390/sym9120301