Traumatic amputation and limb preservation

2009 ◽  
Vol 1 (12) ◽  
pp. 486-492
Author(s):  
Mark Garratt
Author(s):  
Nicholas C. Oleck ◽  
Radhika Malhotra ◽  
Haripriya S. Ayyala ◽  
Ramazi O. Datiashvili

AbstractMajor limb replantation is a formidable task, especially in the pediatric setting. While meticulous microsurgical technique is required in the operating room, the authors aim to highlight the importance of postoperative rehabilitation therapy for optimal function. We highlight the case of a 12-year-old boy who suffered complete traumatic amputation through the distal left forearm. The limb was successfully replanted with successful restoration of sensation and function with the aid of intensive postoperative occupational therapy. A multidisciplinary team is of paramount importance to maximize function of a replanted upper extremity.


Circulation ◽  
2020 ◽  
Vol 142 (Suppl_3) ◽  
Author(s):  
Ning Ding ◽  
Yejin Mok ◽  
Yingying Sang ◽  
Maya Salameh ◽  
Weihong Tang ◽  
...  

Introduction: Nontraumatic lower-extremity amputation is a serious clinical outcome. Major risk factors include peripheral artery disease and diabetic neuropathy. Although incidence rates of amputation have been reported, no lifetime risk estimates are available. Hypothesis: The lifetime risk of amputation is higher in men, blacks, and those of low socioeconomic status (SES). Methods: In 15,744 ARIC participants aged 45-64 at baseline (1987-89), we estimated the lifetime risk of amputation through age 80 by race-sex and race-SES using Fine and Gray’s proportional subhazards model accounting for the competing risk of death. This method is optimal for time-fixed exposures and thus our primary exposures are sex and race. SES included education, annual family income, and the Area Deprivation Index linked to census tract geocoding. Non-traumatic amputation was identified from hospitalization ICD codes (e.g., 84.1, Z89.4) and related operation codes. Results: There were 253 non-traumatic amputations during a median follow up of 29 years. Lifetime risk of amputation at age 80 was highest in black men (4.6%), followed by black women (2.8%), white men (1.1%) and white women (0.7%) ( Figure ). Blacks of low SES showed the highest lifetime risk (4.5%). Blacks with high SES had a higher lifetime risk of amputation than whites with low SES. The pattern was consistent when we investigated each of education (≤ vs. > high school), income (< vs. ≥$25,000) and Area Deprivation Index (< vs. ≥ race-specific median), separately. Conclusions: In this population-based cohort 5% of black men and 3% of black women experienced a non-traumatic amputation during their lifetime, while only 1% of white men and women had a hospitalization for amputation. The lifetime risk was higher among those with lower SES in both race groups. Future public health and primary care efforts should emphasize risk factor management (e.g., diabetes and smoking) among racial minority groups and those with low SES.


2010 ◽  
Vol 103 (1) ◽  
pp. 65-73 ◽  
Author(s):  
Zhen Ni ◽  
Dimitri J. Anastakis ◽  
Carolyn Gunraj ◽  
Robert Chen

Deafferentation such as the amputation of a body part causes cortical reorganization in the primary motor cortex (M1). We investigated whether this reorganization is reversible after reconstruction of the lost body part. We tested two patients who had long-standing thumb amputations followed by thumb reconstruction with toe-to-thumb transfer 9 to 10 mo later and one patient who underwent thumb replantation immediately following traumatic amputation. Using transcranial magnetic stimulation, we measured the motor evoked potential (MEP) threshold, latency, short-interval intracortical inhibition (SICI), and intracortical facilitation (ICF) at different time points in the course of recovery in abductor pollicis brevis muscle. For the two patients who underwent late toe-to-thumb transfer, the rest motor threshold was lower on the injured side than that on the intact side before surgery and it increased with time after reconstruction, whereas the active motor threshold remained unchanged. The rest and active MEP latencies were similar on the injured side before and ≤15 wk after surgery and followed by restoration of expected latency differences. SICI was reduced before surgery and progressively normalized with the time after surgery. ICF did not change with time. These physiological measures correlated with the recovery of motor and sensory functions. All the measurements on the intact side of the toe-to-thumb transfer patients and in the patient with thumb replantation immediately following traumatic amputation remained stable over time. We conclude that chronic reorganization occurring in the M1 after amputation can be reversed by reconstruction of the lost body part.


1985 ◽  
Vol 134 (1) ◽  
pp. 114-116 ◽  
Author(s):  
Jeffrey Waxman ◽  
A. Barry Belman ◽  
Evan J. Kass
Keyword(s):  

1953 ◽  
Vol 138 (6) ◽  
pp. 915-916 ◽  
Author(s):  
WILLIAM S. PARKER ◽  
FREDERICK R. ROBBINS

2017 ◽  
Vol 2 (3) ◽  
pp. 2473011417S0001
Author(s):  
Cole Cheney ◽  
John Femino

Category: Ankle, Diabetes, Lesser Toes, Midfoot/Forefoot Introduction/Purpose: Maximal limb preservation is often the goal in choosing partial foot amputation (PFA) as a treat-ment for diabetic foot infections. Some of these patients will go on to experience multiple hospital admissions, IV antibiotic courses, surgical debridements, re-amputations and other medical compli-cations. This study describes the treatment course of these patients starting at second partial foot amputation and ending at 5 year follow-up. Methods: A retrospective cohort was built from a database of all amputation procedures performed on diabet-ic patients at the University of Iowa Department of Orthopedics from 2000 – 2015. The cohort was evaluated over time frame starting at second PFA (index procedure) and ending at 5 years after in-dex procedure. Of 264 patients who underwent partial foot amputation, 49 experienced two lower extremities PFA between January 2000 and December 2011 (cut-off used to allow minimum of 5 years post-PFA). Demographic data was recorded at index PFA and included surgical dates, laterali-ty, surgery type, diagnoses at time of initial surgery, and death date. A chart review collected in-formation on 5 year post-index PFA incidence of: non-surgical hospitalizations, antibiotic admin-istrations, total contact cast applications, and complications (such as osteomyelitis and acute renal failure). Results: Thirty-two (65%) of the second partial foot amputations (index) were ipsilateral and 17 were con-tralateral to first partial foot amputation (pre-index procedure). Eighteen (37%) of the partial foot amputation patients eventually experienced transtibial / transfemoral amputations in the 5 years fol-lowing index PFA. Eleven (22%) had at least a third partial foot amputation (and as many as 7) dur-ing study period. Sixteen (32%) patients had 17 transtibial / transfemoral amputations within 5 year time frame. 11 of the 17 (65%) TT / TF procedures were ipsilateral to index (second) PFA. Seven (17%) of the patients died. Conclusion: Maximal limb preservation may not be beneficial in all cases, particularly in the case of repeat PFAs. This cohort of repeat PFA patients demonstrated a complicated medical course with long pe-riods of hospitalization, leg immobilization in cast, and home-going antibiotics (requiring PICC). This study suggested that over a 5 year period following second PFA, patients on average experi-enced at least 31 days in TCC, 17 days hospitalized and underwent one additional amputation pro-cedure. These are likely underestimates due to follow-up or outside hospital cares. A large number of patients (18 or 37%) ultimately required higher-level amputation. There is a potential morbidity with PFA that may not be communicated to patients when making these decisions. In this cohort, the average days to second PFA was 360 days. 18 of 49 repeat PFA patients underwent tran-stibial or transfemoral amputation within 5 years of their initial PFA. The morbidity of the interim medical course over 5 years added to the poor quality of life after PFA.


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