Introduction to Gunshot Injury Rehabilitation: Difference between revisions

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* 50.5% of deaths in Guatemala, Brazil, Colombia, Venezuela, Mexico and the USA are caused by firearm offences.<ref name=":3" />
* 50.5% of deaths in Guatemala, Brazil, Colombia, Venezuela, Mexico and the USA are caused by firearm offences.<ref name=":3" />
* Civilians and local combatants in armed conflict countries are affected by:<ref name=":4">Wild H, Stewart BT, LeBoa C, Stave CD, Wren SM. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7223167/pdf/268_2020_Article_5428.pdf Epidemiology of Injuries Sustained by Civilians and Local Combatants in Contemporary Armed Conflict: An Appeal for a Shared Trauma Registry Among Humanitarian Actors]. World J Surg. 2020 Jun;44(6):1863-1873.</ref>
* Civilians and local combatants in armed conflict countries are affected by:<ref name=":4">Wild H, Stewart BT, LeBoa C, Stave CD, Wren SM. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7223167/pdf/268_2020_Article_5428.pdf Epidemiology of Injuries Sustained by Civilians and Local Combatants in Contemporary Armed Conflict: An Appeal for a Shared Trauma Registry Among Humanitarian Actors]. World J Surg. 2020 Jun;44(6):1863-1873.</ref>
** 22% gunshot wounds  
** 22% of gunshot wounds
** 42.2% of injuries occurred in urban and 26.7% of injuries in semi-urban settings  
** 42.2% of injuries occurred in urban and 26.7% of injuries in semi-urban settings  
** 7.5% of injuries occurred in rural settings  
** 7.5% of injuries occurred in rural settings  
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** The larger the bullet, the slower its speed
** The larger the bullet, the slower its speed
* The distance to the target
* The distance to the target
* The size of pellets
* The size of the pellets


Based on the muzzle velocity, the firearms can be divided into the low-velocity, medium-velocity, or high-velocity firearms.<ref name=":2" />
Based on the muzzle velocity, the firearms can be divided into the low-velocity, medium-velocity, or high-velocity firearms.<ref name=":2" />
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** Type I
** Type I
*** Low energy
*** Low energy
*** Wound size less than one centimetre
*** Wound size is less than one centimetre
*** Minimal soft tissue damage and fracture comminution
*** Minimal soft tissue damage and fracture comminution
*** Wound is clean
*** Wound is clean
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** Type II
** Type II
*** Moderate energy
*** Moderate energy
*** Wound size between 1 and 10 centimetres
*** Wound size is between 1 and 10 centimetres
*** Moderate soft tissue damage and fracture comminution
*** Moderate soft tissue damage and fracture comminution
*** Moderate wound contamination
*** Moderate wound contamination
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** Type III (A, B, or C)
** Type III (A, B, or C)
*** High energy
*** High energy
*** Wound size usually greater than 10 centimetres
*** Wound size is usually greater than 10 centimetres
*** Extensive soft tissue damage
*** Extensive soft tissue damage
*** Severe fracture comminution
*** Severe fracture comminution
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# The projectile hits the body
# The projectile hits the body
#* Transfers its kinetic energy and heat to the tissues on its way.<ref name=":2" />
#* Transfers its kinetic energy and heat to the tissues on its way.<ref name=":2" />
#* Creates a permanent cavity approximately at the size of the projectile's cross-sectional area.<ref name=":2" />
#* Creates a permanent cavity approximately the size of the projectile's cross-sectional area.<ref name=":2" />
#* Creates vortex effect: the spiral-shaped pattern of "dark residue surrounding a central bullet defect" also known as a comet-tailing.<ref>Prahlow SP, Brown TT, Dye D, Poulos C, Prahlow JA. "Comet-tailing" associated with gunshot entrance wounds. J Forensic Sci. 2021 May;66(3):1154-1160. </ref>
#* Creates vortex effect: the spiral-shaped pattern of "dark residue surrounding a central bullet defect" also known as a comet-tailing.<ref>Prahlow SP, Brown TT, Dye D, Poulos C, Prahlow JA. "Comet-tailing" associated with gunshot entrance wounds. J Forensic Sci. 2021 May;66(3):1154-1160. </ref>
#* The vortex effect causes tissue to stretch based on the projectile's size, creating a temporary cavity. This cavity occurs momentarily and contracts back. <ref name=":2" />
#* The vortex effect causes tissue to stretch based on the projectile's size, creating a temporary cavity. This cavity occurs momentarily and contracts back. <ref name=":2" />
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==== Diffuse soft-tissue damage ====
==== Diffuse soft-tissue damage ====
Soft tissue damage is the result of the primary cavity or temporary cavitation.<ref name=":0" /> Tissues in the primary cavity are directly injured by the contact of the projectile and extreme kinetic energy transfer. <ref name=":2" /> Tissue in the temporary cavity  "is destroyed by projectile compression and shearing that leaves a projectile trail."<ref name=":0" />  
Soft tissue damage is the result of the primary cavity or temporary cavitation.<ref name=":0" /> The contact of the projectile and extreme kinetic energy transfer directly injures tissues in the primary cavity. <ref name=":2" /> Tissue in the temporary cavity  "is destroyed by projectile compression and shearing that leaves a projectile trail."<ref name=":0" />  


The type of tissue damage includes partial or complete damage like ruptures, lacerations, internal burns and scarring in the later stages.<ref name=":2" /> The  following factors will determine the extent of the wound depth and damaged area:  
The type of tissue damage includes partial or complete damage like ruptures, lacerations, internal burns and scarring in the later stages.<ref name=":2" /> The  following factors will determine the extent of the wound depth and damaged area:  
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** Mass/shape: as the projectile diameter or length becomes bigger they are likely to cause more damage  
** Mass/shape: as the projectile diameter or length becomes bigger they are likely to cause more damage  
** Velocity: as the velocity increases, the amount of kinetic energy dramatically increases, causing more harm.  
** Velocity: as the velocity increases, the amount of kinetic energy dramatically increases, causing more harm.  
** Impact distance: as the projectiles have longer distances, they lose more of their kinetic energy and can create lesser harm, whereas even smaller projectiles from close distances can cause excessive damage.  
** Impact distance: As the projectiles travel longer distances, they lose more of their kinetic energy and can cause less harm, whereas even smaller projectiles from close distances can cause excessive damage.
** Yaw is "the angle between the long axis of the bullet and its direction of flight."<ref name=":7">Gunshot Wounds: Management and Myths (2012). Available from https://www.reliasmedia.com/articles/76797-gunshot-wounds-management-and-myths [last access 16.04.2024]</ref> As the distance increases, the projectile loses its stability and starts to yaw off. It can also increase the cross-sectional area and create more damage.<ref name=":2" />
** Yaw is "the angle between the long axis of the bullet and its direction of flight."<ref name=":7">Gunshot Wounds: Management and Myths (2012). Available from https://www.reliasmedia.com/articles/76797-gunshot-wounds-management-and-myths [last access 16.04.2024]</ref> As the distance increases, the projectile loses its stability and starts to yaw off. It can also increase the cross-sectional area and create more damage.<ref name=":2" />
* Tissue impact: density, elasticity, and thickness. <ref name=":0" />High elasticity and low density equal less damage.<ref name=":7" />
* Tissue impact: density, elasticity, and thickness. <ref name=":0" />High elasticity and low density equal less damage.<ref name=":7" />
Line 128: Line 128:


==== Muscle Damage ====
==== Muscle Damage ====
<blockquote>"Skeletal muscle is suggested to be more sensitive to permanent cavitation, with temporary cavitation thought to induce less damage (unless the vasculature is disrupted) due to skeletal muscle’s inherent elasticity."<ref name=":0" /></blockquote>Skeletal muscles can be affected by laceration, contusion or crush injury, denervation, haemorrhage or ischaemia, burns, and volumetric muscle loss. The primary trauma can be complicated by secondary trauma that  can include the following:<ref name=":0" />
<blockquote>"Skeletal muscle is suggested to be more sensitive to permanent cavitation, with temporary cavitation thought to induce less damage (unless the vasculature is disrupted) due to skeletal muscle’s inherent elasticity."<ref name=":0" /></blockquote>Skeletal muscles can be affected by laceration, contusion or crush injury, denervation, haemorrhage or ischaemia, burns, and volumetric muscle loss. Primary trauma can be complicated by secondary trauma which can include the following:<ref name=":0" />


* Infection and sepsis as a result of contamination with bullet or debris accumulated on clothing or skin
* Infection and sepsis as a result of contamination with bullet or debris accumulated on clothing or skin
Line 158: Line 158:
* Comminuted fractures
* Comminuted fractures
** High-energy ballistic penetration
** High-energy ballistic penetration
** Secondary effect of cavitation associated with the fluid properties of bone marrow
** A secondary effect of cavitation associated with the fluid properties of bone marrow


==== Pain ====
==== Pain ====


* Peripheral nerve injury can cause neuropathic pain resulting from thermal injury, cavitation, and compression of the neural elements by fibrosis. <ref>Henriques VM, Torrão FJL, Rosa LAN, Sanches GE, Guedes F. Surgery as an Effective Therapy for Ulnar Nerve Neuropathic Pain Caused by Gunshot Wounds: A Retrospective Case Series. World Neurosurg. 2023 May;173:e207-e217.</ref>
* Peripheral nerve injury can cause neuropathic pain resulting from thermal injury, cavitation, and compression of the neural elements by fibrosis. <ref>Henriques VM, Torrão FJL, Rosa LAN, Sanches GE, Guedes F. Surgery as an Effective Therapy for Ulnar Nerve Neuropathic Pain Caused by Gunshot Wounds: A Retrospective Case Series. World Neurosurg. 2023 May;173:e207-e217.</ref>
* Patients with gunshot wounds in a combat setting are at 45% higher risk of developing chronic pain than the injured civilian in the general population. <ref name=":8">Kuchyn I, Horoshko V. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9903440/pdf/12871_2023_Article_2005.pdf Chronic pain in patients with gunshot wounds.] BMC Anesthesiol. 2023 Feb 7;23(1):47.</ref>  
* Patients with gunshot wounds in a combat setting are at a 45% higher risk of developing chronic pain than injured civilians in the general population. <ref name=":8">Kuchyn I, Horoshko V. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9903440/pdf/12871_2023_Article_2005.pdf Chronic pain in patients with gunshot wounds.] BMC Anesthesiol. 2023 Feb 7;23(1):47.</ref>  
* 70% of individuals with gunshot injuries develop chronic pain.<ref>Horoshko V. Value of the number of injured anatomical parts of the body and surgeries for pain chronicity in patients with gunshot wounds and blast injuries. Emergency Medicine 2023;19(3):141–143. </ref>
* 70% of individuals with gunshot injuries develop chronic pain.<ref>Horoshko V. Value of the number of injured anatomical parts of the body and surgeries for pain chronicity in patients with gunshot wounds and blast injuries. Emergency Medicine 2023;19(3):141–143. </ref>
* The rate of developing chronic pain increases with gunshot injury sustained to a larger number of anatomical parts of the body.<ref name=":8" />
* The rate of developing chronic pain increases with gunshot injuries sustained to a larger number of anatomical parts of the body.<ref name=":8" />
* Complex regional pain syndrome (CRPS) can be induced after traumatic events including a gunshot wound (GSW).<ref>Tieppo Francio V, Barndt B, Towery C, Allen T, Davani S. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6202970/pdf/bcr-2018-224702.pdf Complex regional pain syndrome type II arising from a gunshot wound (GSW) associated with infective endocarditis and aortic valve replacement.] BMJ Case Rep. 2018 Oct 16;2018:bcr2018224702.</ref>
* Complex regional pain syndrome (CRPS) can be induced after traumatic events including a gunshot wound (GSW).<ref>Tieppo Francio V, Barndt B, Towery C, Allen T, Davani S. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6202970/pdf/bcr-2018-224702.pdf Complex regional pain syndrome type II arising from a gunshot wound (GSW) associated with infective endocarditis and aortic valve replacement.] BMJ Case Rep. 2018 Oct 16;2018:bcr2018224702.</ref>



Revision as of 12:07, 18 April 2024

Original Editor - Zafer Altunbezel

Top Contributors - Ewa Jaraczewska and Jess Bell  

Introduction[edit | edit source]

Gunshot injuries are high-every injuries and can cause severe damage and can cause paralysis or death. The amount of damage depends on a number of factors, and an in-depth understanding of the proper management of gunshot injury may help prevent secondary complications. Soft tissue damage, bone fracture, neural and vascular injury, or pain issues can be successfully managed at all levels of rehabilitation. This article offers information on the types of firearms, the injuries they can cause, and the impact of gunshots on different body systems.

Definition of the Gunshot Injury[edit | edit source]

Gunshot injury is "the penetrating injury and its related consequences caused by a projectile from a firearm."[1]

Epidemiology[edit | edit source]

The epidemiology of gunshot injuries is difficult to assess, and it varies based on the population, conflict set, country, characteristics of the conflict, and time it occurred. [1]

  • In the USA in 2020, there were over 45 thousand deaths attributable to gun-related injuries[2], and every one person out of five individuals is going to present with a gunshot injury. [1]
  • 50.5% of deaths in Guatemala, Brazil, Colombia, Venezuela, Mexico and the USA are caused by firearm offences.[2]
  • Civilians and local combatants in armed conflict countries are affected by:[3]
    • 22% of gunshot wounds
    • 42.2% of injuries occurred in urban and 26.7% of injuries in semi-urban settings
    • 7.5% of injuries occurred in rural settings
  • Gunshot wounds are the second most common mechanism of injury among US military personnel during armed conflict.[3]

Firearms and Gunshot Injuries[edit | edit source]

Factors responsible for the wounding potential of a firearm include the following:

  • The type of the firearm (muzzle velocity)
  • The type of bullet
    • The larger the bullet, the slower its speed
  • The distance to the target
  • The size of the pellets

Based on the muzzle velocity, the firearms can be divided into the low-velocity, medium-velocity, or high-velocity firearms.[1]

Low-Velocity Firearms[edit | edit source]

  • Muzzle velocity less than 1200 feet [1]
  • Include small handguns and pistols [1]
  • Cause Gustilo-Anderson type I and type II injuries[4]
    • Type I
      • Low energy
      • Wound size is less than one centimetre
      • Minimal soft tissue damage and fracture comminution
      • Wound is clean
      • No neuromuscular injury
    • Type II
      • Moderate energy
      • Wound size is between 1 and 10 centimetres
      • Moderate soft tissue damage and fracture comminution
      • Moderate wound contamination
      • No neuromuscular injury

Firearm example: shotgun is technically defined as low velocity, yet this device inflicts devastating wounds when fired at close range due to high-energy transfer.[5]

Medium-Velocity Firearms[edit | edit source]

  • Muzzle velocity between 1200-2000 feet per second [1]
  • High-calibre handguns and also shotguns [1]
  • Wound severity depends on the type of firearms used [1]
  • Shotgun causes more severe wounds, regardless of the distance, due to hundreds of small fragments inside the body.[6]

Firearm examples: shotguns and magnum handguns.[7]

High-Velocity Firearms[edit | edit source]

  • Muzzle velocity greater than 2000 feet per second [1]
  • Associated with more substantial tissue damage[6]
  • Cause Gustilo-Anderson type III wounds[4]
    • Type III (A, B, or C)
      • High energy
      • Wound size is usually greater than 10 centimetres
      • Extensive soft tissue damage
      • Severe fracture comminution
      • Extensive wound contamination
      • Periosteal stripping present
      • May require flap coverage (III B and III C)
      • Exposed fracture with arterial damage that requires repair may be present (III C)

Firearm example: rifles.

Gunshot Injury Mechanism

Mechanism of Gunshot Injury[edit | edit source]

  1. The projectile hits the body
    • Transfers its kinetic energy and heat to the tissues on its way.[1]
    • Creates a permanent cavity approximately the size of the projectile's cross-sectional area.[1]
    • Creates vortex effect: the spiral-shaped pattern of "dark residue surrounding a central bullet defect" also known as a comet-tailing.[8]
    • The vortex effect causes tissue to stretch based on the projectile's size, creating a temporary cavity. This cavity occurs momentarily and contracts back. [1]
  2. The projectile exits the body [1]
    • Creates a bigger exit point, or
    • Remains in the body
  3. The projectile can change direction[1]
    • Creates further damage

Physical Impairments and Complications[edit | edit source]

Gunshot Injury Cross-Section

Impacts of the Gunshot Injuries[edit | edit source]

Gunshot wounds can result in a spectrum of injuries that include the following:[5]

  • Diffuse soft-tissue damage
  • Muscle damage
  • Nerve injury
  • Vascular injury/Hemorrhage
  • Bone injury
  • Severe pain

Diffuse soft-tissue damage[edit | edit source]

Soft tissue damage is the result of the primary cavity or temporary cavitation.[5] The contact of the projectile and extreme kinetic energy transfer directly injures tissues in the primary cavity. [1] Tissue in the temporary cavity "is destroyed by projectile compression and shearing that leaves a projectile trail."[5]

The type of tissue damage includes partial or complete damage like ruptures, lacerations, internal burns and scarring in the later stages.[1] The following factors will determine the extent of the wound depth and damaged area:

  • Projectile impact: velocity, mass, shape, calibre, material, yawing and impact distance: [5][1]
    • Mass/shape: as the projectile diameter or length becomes bigger they are likely to cause more damage
    • Velocity: as the velocity increases, the amount of kinetic energy dramatically increases, causing more harm.
    • Impact distance: As the projectiles travel longer distances, they lose more of their kinetic energy and can cause less harm, whereas even smaller projectiles from close distances can cause excessive damage.
    • Yaw is "the angle between the long axis of the bullet and its direction of flight."[9] As the distance increases, the projectile loses its stability and starts to yaw off. It can also increase the cross-sectional area and create more damage.[1]
  • Tissue impact: density, elasticity, and thickness. [5]High elasticity and low density equal less damage.[9]
    • Skin has a large amount of elasticity and relatively low density
    • Lungs have a much lower density and absorb less energy
    • Bones are dense and absorb more energy
  • The entry and exit points and trajectory within the body [1]
    • If close to the nervous plexus, it can create more severe damage
    • If close to main arteries or veins, it can produce more complicated clinical presentations
  • Projectile fragmentation
    • More fragments result in more than one trajectory within the body, and that means more severe internal issues to manage in the following days and months [1]

Muscle Damage[edit | edit source]

"Skeletal muscle is suggested to be more sensitive to permanent cavitation, with temporary cavitation thought to induce less damage (unless the vasculature is disrupted) due to skeletal muscle’s inherent elasticity."[5]

Skeletal muscles can be affected by laceration, contusion or crush injury, denervation, haemorrhage or ischaemia, burns, and volumetric muscle loss. Primary trauma can be complicated by secondary trauma which can include the following:[5]

  • Infection and sepsis as a result of contamination with bullet or debris accumulated on clothing or skin
  • Surgical debridement of damaged tissue
  • Excessive physical movement

Immobilisation and nutrient deficiency are considered common side effects leading to volumetric muscle loss.

Nerve Injury[edit | edit source]

The following are the mechanisms of gunshot-related peripheral nerve injury: [10]

  • direct transection of the nerve
  • indirect injury by producing thermal damage, shock waves, and laceration secondary to fracture fragment displacement
  • compression due to swelling or subacute scar formation

The most frequently affected nerves in the upper extremities are the ulnar nerve and the brachial plexus.[10]

As a result of soft tissue cavitation, gunshot-related injuries can induce axonotmesis and neuropraxia.[11]Axonotmesis "describes the range of peripheral nerve injuries that are more severe than a minor insult, such as those resulting in neurapraxia, yet less severe than the transection of the nerve, as observed in neurotmesis."[12] Neuropraxia is the "focal segmental demyelination at the site of injury without disruption of axon continuity and its surrounding connective tissues."[13]

Vascular Injury/Haemorrhage[edit | edit source]

Vascular injury can lead to blood loss, defined as a haemorrhage. Haemorrhage can be internal or external. The most common sign of vascular injury is hematoma. In addition, a hemorrhagic area can be found surrounding irreversibly damaged tissue following gunshot injury. This extra vacation zone "is characterized by interstitial bleeding but the absence of macroscopically evident tissue destruction."[14]

Bone Injury[edit | edit source]

  • Drill-hole
    • Low-energy ballistic penetration
    • Affect metaphyseal region of long bones
    • Limited extension of fracture lines
  • Comminuted fractures
    • High-energy ballistic penetration
    • A secondary effect of cavitation associated with the fluid properties of bone marrow

Pain[edit | edit source]

  • Peripheral nerve injury can cause neuropathic pain resulting from thermal injury, cavitation, and compression of the neural elements by fibrosis. [15]
  • Patients with gunshot wounds in a combat setting are at a 45% higher risk of developing chronic pain than injured civilians in the general population. [16]
  • 70% of individuals with gunshot injuries develop chronic pain.[17]
  • The rate of developing chronic pain increases with gunshot injuries sustained to a larger number of anatomical parts of the body.[16]
  • Complex regional pain syndrome (CRPS) can be induced after traumatic events including a gunshot wound (GSW).[18]

Secondary Complications of the Gunshot Injuries[edit | edit source]

The management of the secondary complications related to the gunshot injury is very complex. Early intervention and in-depth knowledge are required to maximise patients’ benefit from rehabilitation.

The following are the common secondary complications of gunshot injuries:[1]

  1. Joint contractures as a result of immobilisation after comminuted and complex open fractures requiring external fixation.
  2. Myofascial, chronic, or neuropathic pain due to internal scarring, internal burns, wound or bone infection.
  3. Peripheral nerve injuries due to heterogeneity and the conditions on the field, and presenting with sensory or motor dysfunctions that may require referral to a specialist.
  4. Deep vein thrombosis or different types of embolism
  5. Complex regional pain syndrome
  6. Central sensitisation
  7. Mental health disorders including post-traumatic stress disorder, anxiety or depression

Skills and Knowledge Required to Treat Gunshot Injuries[edit | edit source]

It is recommended that rehabilitation professionals treating gunshot injuries have a solid understanding of the following topics:[1]

  • Neuroanatomy
    • To perform a neurological examination
    • To plan the treatment
    • To recognise signs and symptoms that warrant referral to speciality services
  • Pain neuroscience
    • To provide pain education to prevent the development of chronic pain
  • Clinical reasoning
    • To manage complex cases
    • To participate in/lead a multidisciplinary team
  • Manual skills
    • To treat joint contractures, internal scarring, and neurogenic compromise

Resources[edit | edit source]

References[edit | edit source]

  1. 1.00 1.01 1.02 1.03 1.04 1.05 1.06 1.07 1.08 1.09 1.10 1.11 1.12 1.13 1.14 1.15 1.16 1.17 1.18 1.19 1.20 1.21 1.22 Altunbezel Z. Introduction to Gunshot Injury Rehabilitation. Plus course 2024
  2. 2.0 2.1 Stewart S, Tunstall C, Stevenson T. Gunshot wounds in civilian practice: a review of epidemiology, pathophysiology and management. Orthopaedics and Trauma 2023; 37(4):216-221.
  3. 3.0 3.1 Wild H, Stewart BT, LeBoa C, Stave CD, Wren SM. Epidemiology of Injuries Sustained by Civilians and Local Combatants in Contemporary Armed Conflict: An Appeal for a Shared Trauma Registry Among Humanitarian Actors. World J Surg. 2020 Jun;44(6):1863-1873.
  4. 4.0 4.1 Gustilo Classification. Available from https://www.orthobullets.com/trauma/1003/gustilo-classification [last access 14.04.2024]
  5. 5.0 5.1 5.2 5.3 5.4 5.5 5.6 5.7 Moriscot A, Miyabara EH, Langeani B, Belli A, Egginton S, Bowen TS. Firearms-related skeletal muscle trauma: pathophysiology and novel approaches for regeneration. NPJ Regen Med. 2021 Mar 26;6(1):17.
  6. 6.0 6.1 Baum GR, Baum JT, Hayward D, MacKay BJ. Gunshot Wounds: Ballistics, Pathology, and Treatment Recommendations, with a Focus on Retained Bullets. Orthop Res Rev. 2022 Sep 5;14:293-317.
  7. Gugala Z, Lindsey RW. Classification of Gunshot Injuries in Civilians. Clinical Orthopaedics and Related Research 2003;408():p 65-81.
  8. Prahlow SP, Brown TT, Dye D, Poulos C, Prahlow JA. "Comet-tailing" associated with gunshot entrance wounds. J Forensic Sci. 2021 May;66(3):1154-1160.
  9. 9.0 9.1 Gunshot Wounds: Management and Myths (2012). Available from https://www.reliasmedia.com/articles/76797-gunshot-wounds-management-and-myths [last access 16.04.2024]
  10. 10.0 10.1 Shields LBE, Iyer VG, Zhang YP, Shields CB. Gunshot-related nerve injuries of the upper extremities: clinical, electromyographic, and ultrasound features in 22 patients. Front Neurol. 2024 Jan 11;14:1333763.
  11. Straszewski AJ, Schultz K, Dickherber JL, Dahm JS, Wolf JM, Strelzow JA. Gunshot-Related Upper Extremity Nerve Injuries at a Level 1 Trauma Center. J Hand Surg Am. 2022 Jan;47(1):88.e1-88.e6.
  12. Chaney B, Nadi M. Axonotmesis. 2023 Sep 4. In: StatPearls [Internet]. Treasure Island (FL): StatPearls Publishing; 2024 Jan–.
  13. Biso GMNR, Munakomi S. Neuroanatomy, Neurapraxia. [Updated 2022 Oct 24]. In: StatPearls [Internet]. Treasure Island (FL): StatPearls Publishing; 2024 Jan-. Available from https://www.ncbi.nlm.nih.gov/books/NBK557746/ [last access 16.04.2024]
  14. Stefanopoulos PK, Hadjigeorgiou GF, Filippakis K, Gyftokostas D. Gunshot wounds: A review of ballistics related to penetrating trauma. Journal of Acute Disease 2014;3(3):178-185.
  15. Henriques VM, Torrão FJL, Rosa LAN, Sanches GE, Guedes F. Surgery as an Effective Therapy for Ulnar Nerve Neuropathic Pain Caused by Gunshot Wounds: A Retrospective Case Series. World Neurosurg. 2023 May;173:e207-e217.
  16. 16.0 16.1 Kuchyn I, Horoshko V. Chronic pain in patients with gunshot wounds. BMC Anesthesiol. 2023 Feb 7;23(1):47.
  17. Horoshko V. Value of the number of injured anatomical parts of the body and surgeries for pain chronicity in patients with gunshot wounds and blast injuries. Emergency Medicine 2023;19(3):141–143.
  18. Tieppo Francio V, Barndt B, Towery C, Allen T, Davani S. Complex regional pain syndrome type II arising from a gunshot wound (GSW) associated with infective endocarditis and aortic valve replacement. BMJ Case Rep. 2018 Oct 16;2018:bcr2018224702.