| Literature DB >> 30249288 |
Cyrus Rashid Mehta1, Vincent V G An2, Kevin Phan2, Brahman Sivakumar2, Andrew J Kanawati2, Mayuran Suthersan2.
Abstract
BACKGROUND: Operative management of displaced, intra-articular calcaneal fractures is associated with improved functional outcomes but associated with frequent complications due to poor soft tissue healing. The use of a minimally invasive sinus tarsi approach to the fixation of these fractures may be associated with a lower rate of complications and therefore provide superior outcomes without the associated morbidity of operative intervention.Entities:
Keywords: Calcaneus; Extensile lateral approach; Intra-articular fracture; Minimally invasive; Sinus tarsi approach
Mesh:
Year: 2018 PMID: 30249288 PMCID: PMC6154938 DOI: 10.1186/s13018-018-0943-6
Source DB: PubMed Journal: J Orthop Surg Res ISSN: 1749-799X Impact factor: 2.359
Fig. 1PRISMA flow diagram
Study characteristics
| Study | Type of study | ELA vs. STA | ||
|---|---|---|---|---|
| Average age (years) | No. of patients | No. of fractures | ||
| Takasaka 2016 [ | Retrospective | Not specified | 20 vs. 27 | 23 vs. 27 |
| Kumar 2014 [ | Prospective | 30 vs. 31 | 21 vs. 21 | 23 vs. 22 |
| Chen 2011 [ | Prospective | 32 vs. 31 | 40 vs. 38 | 40 vs. 38 |
| Wang 2015 [ | Retrospective | 41 vs. 39 | 53 vs. 54 | 58 vs. 60 |
| DeWall 2010 [ | Retrospective | 41 vs. 40 | 41 vs. 79 | 42 vs. 83 |
| Basile 2016 [ | Prospective | 39 vs. 41 | 20 vs. 18 | 20 vs. 18 |
| Kline 2013 [ | Retrospective | 42 vs. 46 | 79 vs. 33 | 79 vs. 33 |
| Yeo 2015 [ | Retrospective | 42 vs. 46 | 60 vs. 40 | 60 vs. 40 |
| Xia 2014 [ | Prospective | 37 vs. 38 | 49 vs. 59 | 53 vs. 64 |
| Wu 2012 [ | Retrospective | 41 vs. 39 | 148 vs. 181 | 170 vs. 213 |
| Weber 2008 [ | Retrospective | 40 vs. 42 | 26 vs. 24 | 26 vs. 24 |
Complications
| Study | Complications | |
|---|---|---|
| ELA | STA | |
| Takasaka 2016 [ | 4 (1 infection, 2 skin necrosis, and 1 sural nerve neuroma) | 0 |
| Kumar 2014 [ | 7 (3 wound dehiscence, 1 superficial infection, and 3 deep infections) | 0 |
| Chen 2011 [ | 5 (2 deep infections and 3 superficial wound infection) | 1 superficial wound infection |
| Wang 2015 [ | 8 (2 deep infections and 6 poor wound healing) | 1 pin site ooze |
| DeWall 2010 [ | 15 (9 minor wound complications and 6 deep infections) | 5 minor wound complications |
| Basile 2016 [ | 3 (2 wound edge necrosis and 1 wound breakdown requiring skin flap) | 2 (1 mal-reduction and 1 tendon irritation requiring re-operation) |
| Kline 2013 [ | 26 (23 wound healing and 3 sural neuropathy) | 3 (2 wound healing and 1 sural nerve neuropathy) |
| Wu 2012 [ | 27 (12 superficial infections, 6 wound edge necrosis, 2 deep infections, 7 sural nerve neuropathy, and 4 defects with plate removal) | 14 (4 superficial infections, 3 sural nerve injuries, 7 medial injuries specific to this technique, and 4 defects with plate removal) |
| Xia 2014 [ | 8 (6 dehiscence/superficial infection and 2 wound edge necrosis) | 0 |
| Yeo 2015 [ | 18 (8 wound complications, 4 sural nerve injury, 1 peroneal tendonitis, and 5 subtalar stiffness) | 7 (2 wound complications, 2 sural nerve injury, and 3 subtalar stiffness) |
| Weber 2008 [ | 13 (1 delayed wound healing, 1 hematoma, 1 sural nerve injury, 4 complex regional pain syndrome, 3 hardware removals, and 3 subsequent subtalar arthrodeses) | 11 (1 plantar nerve irritation, 10 scar tenderness at 3 months post-op requiring hardware removal) |
Fig. 2Forest plot for postoperative complications
Fig. 3Forest plot for reoperation rate
Fig. 4Forest plot for operation duration
Fig. 5Forest plot for the time from injury to surgery
Fig. 6Forest plot for postoperative articular displacement