1.
Rosa N, Marta M, Vaz M, et al. Recent developments onintramedullary nailing: a biomechanical perspective. Ann N YAcad Sci 2017; 1408: 20-31.
2.
Wood GW. Intramedullary nailing of femoral and tibial shaftfractures. J Orthop Sci 2006; 11: 657-69.
3.
Sipahioglu S, Zehir S, Sarikaya B, Isikan UE. Comparision ofthe expandable nail with locked nail in the treatment of closeddiaphyseal fractures of femur. Niger J Clin Pract 2017; 20: 792-8.
4.
Pourmokhtari, M. Principles of fixation with ınterlocking nailing.Iranian Journal of Orthopaedic Surgery Summer 2018; 16: 265-72.
5.
Bong MR, Kummer FJ, Koval KJ, Egol KA. Intramedullary nailingof the lower extremity: biomechanics and biology. J Am AcadOrthop Surg 2007; 15: 97-106.
6.
Basaran T, Calbiyik M, Basaran PÖ, Hassa, E, Ipek D. Bladeexpandable intramedullary nails for fixation of tibial shaft fractures. Acta Orthop Belg 2019; 85: 472-6.
7.
Çamurcu Y, Sofu H, Issın A, Koçkara N, Genç E, Çetinkaya M. Istalon tibial intramedullary nailing clinically superior comparedto conventional locked nailing? Jt Dis Relat Surg 2017; 28: 152-7.
8.
Bekmezci T, Baca E, Kaynak H, Kocabaş R, Tonbul M, Yalaman O.Early results of treatment with expandable intramedullary nails infemur shaft fractures. Acta Orthop Traumatol Turc 2006;40: 1-5.
9.
Whelan DB, Bhandari M, Stephen D, et al. Development of theradiographic unionscore for tibial fractures for the assessmentoftibial fracture healing after intramedullary fixation. J Trauma2010; 68: 629-32.
10.
Litrenta J, Tornetta P, Mehta S, et al. Determination of radiographichealing: an assessment of consistency using RUST and modifiedRUST in metadiaphyseal fractures. J Orthop Trauma 2015; 29:516-20.
11.
Samiezadeh S, Avval PT, Fawaz Z, Bougherara H. Biomechanicalassessment of composite versus metallic intramedullary nailingsystem in femoral shaft fractures: a finite element study. ClinBiomech 2014; 29: 803-10.
12.
Clatworthy MG, Clark DI, Gray DH, Hardy AE. Reamed versusunreamed femoral nails. a randomised prospective trial. J BoneJoint Surg Br 1998; 80: 485-9.
13.
Rosa N, Marta M, Vaz M, et al. Intramedullary nailingbiomechanics: evolution and challenges. Proc Inst Mech Eng H2019; 233: 295-308.
14.
Letechipia J, Alessi A, Rodrı´guez G, Asbun J. Design andpreliminary testing of an active intramedullary nail. Clin TranslInvest 2014; 66: 70-8.
15.
Ligier JN. Biomechanics of FIN. In Flexible IntramedullaryNailing in Children: The Nancy University Manual. P. Lascombes,Ed. Berlin: Springer-Verlag; 2009; 19-24.
16.
Rosa N, Simoes R, Magalh˜aes FD, Marques AT. From mechanicalstimulus to bone formation: a review. Med Eng Phys 2015; 37:719-28.
17.
Wu KJ, Li SH, Yeh KT, et al. The risk factors of nonunion afterintramedullary nailing fixation of femur shaft fracture in middleage patients. Medicine 2019; 98: e16559.
18.
Yapici F, Gur V, Onac O, et al. For intramedullary nailing offemoral shaft fractures, talon fixation is helpful to cope with thetroublesome distal locking, but conventional distal locking withscrews offers a more stable construct: Talon femoral nail versusconventional femoral nail. Ulus Travma Acil Cerrahi Derg 2022;28: 513-22.
19.
Rühm W, Laurier D, Wakeford R. Cancer risk following low dosesof ionising radiation-Current epidemiological evidence andimplications for radiological protection. Muta Res Genet ToxicolEnviron Mutagen 2022; 73: 503436.
20.
Robatjazi M, Dareyni A, Baghani HR, Hosseinzade M,Akbarzadeh R, Mehrpoyan M. Investigation of radiation dosearound C-arm fluoroscopy and relevant cancer risk to operatingroom staff. Radiat Environ Biophys 2022; 61:301-7.
21.
Chou LB, Cox CA, Tung JJ, Harris AH, Brooks-Terrell D, SiehW. Prevalence of cancer in female orthopaedic surgeons in theUnited States. J Bone Joint Surg Am 2010; 92:240-4.
22.
Barry TP. Radiation exposure to an orthopedic surgeon. ClinOrthop Relat Res 1984; 182:160-4.
23.
Daryoush JR, Lancaster AJ, Frandsen JJ, Gililland JM. OccupationalHazards to the Joint Replacement Surgeon: Radiation Exposure. JArthroplasty 2022; 37:1464-9.
24.
Tandale SR, Gavali Y, Naik S, et al. Radiation exposure amonganesthetist, orthopedic surgeon, and scrub nurse in orthopedicoperation theater complex. Med J DY Patil Vidyapeeth 2022; 15:857-61.
25.
González-Cisneros AC, Briceño-González AM. Exposure ofradioactive emanations, during surgery in orthopedics andtraumatology. Orthotips AMOT 2022; 18: 25-8.
26.
Hadelsberg UP, Harel R. Hazards of ionizing radiation and itsimpact on spine surgery. World Neurosurg 2016; 92: 353-9.
27.
Moreschini O, Petrucci V, Cannata, R. Insertion of distal lockingscrews of tibial intramedullary nails: a comparison betweenthe free-hand technique and the SURESHOT™ Distal TargetingSystem. Injury 2014; 45: 405-7.
28.
Zhu Y, Chang H, Yu Y, Chen W, Liu S, Zhang Y. Meta-analysissuggests that the electromagnetic technique is better than thefree-hand method for the distal locking during intramedullarynailing procedures. Int Orthop 2017; 41:1041-8.
29.
Bekmezci T, Baca E, Kocabas R, Kaynak H, Tonbul, M. Earlyresults of treatment with expandable intramedullary nails in tibiashaft fractures. Acta Orthop Traumatol Turc 2005; 39:421-4.
30.
Magee LC, Karkenny AJ, Nguyen JC, et al. Does surgicalexperience decrease radiation exposure in the operating room? JPediatr Orthop 2021; 41: 389-94.
31.
Xu W, Christopher AN, Hu S, Steinberg DR, Bozentka DJ, Lin IC.Investigating patient-level radiation exposure in hand and wristfracture surgery. Ann Plast Surg 2022; 88: 309-13.
32.
Steiner M, Claes L, Ignatius A, Simon U, Wehner T. Disadvantagesof interfragmentary shear on fracture healing-mechanical insightsthrough numerical simulation. J Orthop Res 2014; 32: 865-72.
33.
Penzkofer R, Maier M, Nolte A, et al. Influence of intramedullarynail diameter and locking mode on the stability of tibial shaftfracture fixation. Arch Orthop Trauma Surg 2009; 129: 525-31.
34.
Jaarsma RL, Van Kampen A. Rotational malalignment afterfractures of the femur. J Bone Joint Surg Br 2004; 86: 1100-4.
35.
Brouwer KJ, Molenaar JC, van Linge B. Rotational deformitiesafter femoral shaft fractures in childhood: a retrospective study27-32 years after the accident. Acta Orthop Scand 1981; 52: 81-9.
36.
Bråten M, Terjesen T, Rossvoll I. Femoral anteversion in normaladults: ultrasound measurements in 50 men and 50 women. ActaOrthop Scand 1992; 63: 29-32.
37.
Schmitz N, Gehweiler D, Wähnert D, et al. Influence of theReamer-Irrigator-Aspirator diameter on femoral bone strengthand amount of harvested bone graft-a biomechanical cadavericstudy. Injury 2020; 51: 2846-50.
38.
Sennerich T, Sutter P, Ritter G, Zapf S. Computerized tomographyfollow-up of the antetorsion angle after femoral shaft fractures inthe adult. Der Unfallchirurg 1992; 95: 301-5.
39.
Strecker W, Franzreb M, Pfeiffer T, Pokar S, Wikström M, Kinzl L.Computerized tomography measurement of torsion angle of thelower extremities. Der Unfallchirurg 1994; 97: 609-13.
40.
Wissing H, Spira, G. Determination of rotational defects of thefemur by computer tomographic determination of the antetorsionangle of the femoral neck. Unfallchirurgie 1986; 12: 1-11.
41.
Ivanov D, Barabash A, Barabash Y. Expandable intramedullarynail: review of biomechanical studies. Russian Open MedicalJournal 2016; 5: e0206.
42.
Özkaya M, Demir T. Numerical evaluation of the mechanicalproperties of a novel expandable intramedullary nailing: A newalternative to standard interlocking nailing. Injury 2021; 52: 3239-52.
43.
Plenert T, Garlichs G, Nolte I, et al. Biomechanical comparisonof a new expandable intramedullary nail and conventionalintramedullary nails for femoral osteosynthesis in dogs. PLoSONE 2020; 15: e0231823.
44.
Akar B, Balioğlu MB. Clinical results of closed intramedullarynailing in femoral diaphysis fractures. Ann Clin Anal Med 2022:1-5.
45.
Jiang M, Li C, Yi C, Tang S. Early intramedullary nailing offemoral shaft fracture on outcomes in patients with severe chestinjury. A meta analysis. Sci Rep 2016; 6: 30566
46.
Brumback RJ, Virkus WW. Intramedullary nailing of the femur:reamed versus nonreamed. J Am Acad Orthop Surg 2000; 8: 83-90.
47.
Vicenti G, Bizzoca D, Carrozzo M, et al. The ideal timing for naildynamization in femoral shaft delayed union and non-union. IntOrthop 2019; 43: 217-22.
48.
Angadi DS, Stepherd DET, Vadivelu R. Rigid intramedullary nailfixation of femoral fracturesin adolescents: what evidence in isavailable? J Orthopaed Traumatol 2014; 15: 147-53.
49.
Gabarre S, Alberada J, Gracia L, Puertolas S, Ibarz E, Herrera A.Influenza of gap size, screw configuration, and nail materials inthe stability of anterograde reamed intramedullary nail in femoraltransverse fractures. Injury 2017; 48: 40-6.
50.
Hamahashi K, Uchiyama Y, Kobayashi Y, Ebihara G, Ukai T,Watanabe M. Clinical outcomes of intramedullary nailing offemoral shaft fractures with third fragments: a retrospectiveanalysis of risk factors for delayed union. Trauma Surg Acute CareOpen 2019; 4: e-000203.
51.
Ricci WM, Bellabarba C, Lewis R, et al. Angular malalignmentafter intramedullary nailing of femoral shaft fractures. J OrthopTrauma 2001; 15: 90-5
52.
Guerado E, Bertrand ML. Malalignment in intramedullarynailing. How to achieve and to maintain correct reduction? Injury2017; 48: 30-4.
53.
Rothberg DL, Holt DC, Horwitz DS, Kubiak EN. Tibial nailingwith the knee semi-extended: review of techni ques andindications: AAOS exhibit selection. JBJS 2013; 95: e116.