1. Twenty-seven patients with a Brown-Séquard syndrome resulting from trauma have been studied, fourteen of the left side of the cord and thirteen of the right. There were sixteen gunshot wounds and eleven closed injuries.

2. The prognosis for recovery is much better than the initial catastrophic nature of the symptoms and signs would indicate.

3. The pattern of recovery is discussed in detail and the long and rather tedious course of the treatment is indicated.

4. Spasticity on the side worse affected still presents a difficult problem, but a less severe one than that presented by flaccid paralysis.

Introduction The aim of this study was to assess trends in the circumstances of spinal cord injury in all codes of football played in Australia in 1997 to 2002, and to combine and contrast these findings with those of identical studies done covering earlier years (1960 to 1996).

Methods A retrospective review of all spinal cord injuries occurring in all codes of football 1997 to 2002, combining and contrasting the results with identical studies done covering the years 1960 to 1985 and 1986 to 1996. Every football player with a documented spinal cord injury admitted to one of the spinal cord injury units across Australia was included. Data was recorded by way of record and radiograph review, and patient interview.

Results Fifty-four footballers were admitted to the spinal injury units over the period. The average yearly frequency of injuries over the study period was higher than the period 1986 to 1996, and similar to the period 1977 to 1985. The annual incidence of injury was lower in every sport except soccer, although data still remains to be collected from Victoria which may affect the incidence pertaining to Australian Rules. Rugby League had the biggest decrease in incidence. Most notable was the absence of any scrum injuries in league, down from nine (24% of all league injuries) in the prior study. Scrums sustained at engagement remained a prevalent cause of injury in Union. They by far predominated over those in collapsed scrums, reversing the trend towards the latter noted in the prior study. One-third of scrum injuries were in adult front-rowers who had played between one and four games in the front-row in their careers. The incidence of schoolboy injuries overall decreased substantially. The tackle accounted for all League and 40% of Union injuries. Over 75% of known tackle injuries on the ball carrier involved two or more tacklers at once. A much smaller percentage of patients remain wheelchair dependent (30%) than in the last study, and nearly 15% returned to near normality.

Conclusions Spinal cord injuries remain a significant concern in football, particularly the rugby codes. While the incidence overall may have slightly decreased, attention is needed to enforcing scrummaging laws, particularly in adult rugby, and focusing on the gang tackle as a cause of increased injuries in League and Union. An adequate compensation scheme and a national registry also need realisation.

Purpose: A study was done to determine the duration of spinal shock in spinal cord injury (SCI)- the first reflex to return while recovering from spinal shock & the factors influencing duration of spinal shock.

Method: 116 patients in spinal shock following SCI were included. A detailed neurological examination of sensory, motor and reflex activity was done everyday till the patients were out of spinal shock. The duration of spinal shock by appearance of any reflex, the first reflex to return & the influence of variable factors on duration of spinal shock were studied The mean duration of spinal shock was studied on factors as age, sex, nutritional status (haemoglobin, triceps skin fold thickness, & mid arm circumference), occupation (educated/uneducated, trained/untrained), mode of trauma, duration of injury, skeletal level of injury, neurological level, associated injuries, treatment modality and development of complications during spinal shock

Results: 59 patients (51%) had spinal shock duration of < 1 week; 10 (8.6%) recovered between 1st and 2nd week, 15 (13%) between 2nd and 3rd week & 4 (5%) had recovered after 3 weeks. 28 patients (25%) remained in spinal shock till discharge (6 weeks). In 76 patients (85.4%) anal wink (AW) was the first reflex to return either alone or simultaneous with BC/DPR. In none of the patients BC or DPR appeared before AW. In 7 patients (9%) cremastric reflex was first reflex to return, in 3 pathological reflexes & in 2 deep tendon reflexes (ankle) were the first to return.

Conclusion: On statistical analysis mean duration of spinal shock was shorter in children as compared to adults, shorter in malnourished as compared to normal, shorter in untrained as compared to trained, shorter in patients admitted early and shorter in patients who developed complications as compared to those who did not. Mean duration of spinal shock increased progressively down the spine and spinal cord as we move from cervical to thoracic to lumbar region. Mean duration of spinal cord was not influenced by sex of patient, associated injuries to other parts of body and by different modes of treatment

Patients with spinal cord injuries have been seen to have increased healing of attendant fractures. This for the main has been a clinical observation with laboratory work confined to rats. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two groups with spinal column fractures – those with neurological compromise (n=10) and those without (n=15), and compares them with a control group with isolated long bone fractures (n=12). Serum was taken from these patients at five specific time intervals post injury (1 day, 5 days, 10 days, 42 days (6 weeks) and 84 days (12 weeks)). These samples were then analysed for levels of Transforming Growth Factor-Beta (TGF-β using the ELISA technique. This cytokine has been shown to stimulate bone formation after both topical and systemic administration.

Results show TGF-β levels of 142.79+/-29.51 ng/ml in the neurology group at 84 days post injury. This is higher than any of the other time points within this group (p=0.009 vs. all other time points, ANOVA). Furthermore, this level is also higher than the levels recorded in the no neurology (103.51+/-36.81 ng/ml) and long bone (102.28=/-47.58 ng/ml) groups at 84 days post-injury (p=0.009 and p=0.04 respectively, ANOVA).

In conclusion, the results of this work, carried out for the first time in humans, offers strong evidence of the causative role of TGF-β in the increased bone turnover and attendant complications seen in patients with acute spinal cord injuries.

Patients with spinal cord injuries have been seen to have increased healing of attendant fractures. This for the main has been a clinical observation with laboratory work confined to rats. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two groups with spinal column fractures – those with neurological compromise (n=10) and those without (n=11), and compares them with a control group with isolated long bone fractures (n=10). Serum was taken from these patients at five specific time intervals post injury (1 day, 5 days, 10 days, 42 days (6 weeks) and 84 days (12 weeks)). These samples were then analysed for levels of Transforming Growth Factor-Beta (TGF-ß) using the ELISA technique. This cytokine has been shown to stimulate bone formation after both topical and systemic administration.

Results show TGF-ß levels of 142.79+/−29.51 ng/ml in the neurology group at 84 days post injury. This is higher than any of the other time points within this group (p< 0.001 vs day 1, day 5 and day 10 and p=0.005 vs 42 days, ANOVA univariate analysis). Furthermore, this level is also higher than the levels recorded in the non neurology (103.51+/−36.81 ng/ml) and long bone (102.28=/−47.58 ng/ml) groups at 84 days post injury (p=0.011 and p=0.021 respectively, ANOVA univariate analysis). There was statistically significant difference in TGF-ß levels seen between the clinically more severely injured patients, ie complete neurological deficit and the less severely injured patients, ie incomplete neurological deficit.

In conclusion, the results of this work, carried out for the first time in humans, offers strong evidence of the causative role of TGF-ß in the increased bone turnover and attendant complications seen in patients with acute spinal cord injuries.

Purpose: Multiple studies have described the general injuries associated with mountain biking. However, no detailed assessment of mountain biking associated spinal column fractures and spinal cord injuries (SCI) has previously been reported. The purpose of this study is to describe the patient demographics, injuries, mechanisms, treatments, outcomes and resource requirements associated with spine injuries sustained while mountain biking.

Method: Patients who were injured while mountain biking, and presented to a provincial spine referral centre between 1995 and 2007 inclusive, with SCI and/ or spine fracture were included. A chart review was performed to obtain demographic data, and details of the injury, treatment, outcome and resource requirements.

Results: 102 men and 5 women were identified for inclusion. The mean age at injury was 32.7 years 95%CI[30.6,35.0]. 79 patients (73.8%) sustained cervical injuries, while the remainder sustained thoracic or lumbar injuries. 43 patients (40.2%) sustained a SCI. Of those with cord injuries, 18(41.9%) were ASIA A, 5(11.6%) were ASIA B, 10(23.3%) ASIA C, and 10(23.3%) ASIA D. 67 patients (62.6%) required surgical treatment. The mean length of stay in an acute hospital bed was 16.9 days 95%CI[13.1,30.0]. 33 patients (30.8%) required ICU care, and 31 patients (29.0%) required inpatient rehabilitation. Of the 43 patients (39.6%) who presented with SCI, 14(32.5%) improved by one ASIA category, and 1 (2.0%) improved by two ASIA categories. Two patients remained ventilator-dependent at discharge.

Conclusion: Spine fractures and SCI due to mountain biking accidents typically affect young, male, recreational riders. The medical, personal, and societal costs of these injuries are high. Injury prevention should remain a primary goal, and further research is necessary to explore the utility of educational programs, and the impact of helmets and other protective gear on spine injuries sustained while mountain biking.

Aim

Decubitus ulcers are found in approximately 4.7% of hospitalized patients, with a higher prevalence (up to 30%) among those with spinal cord injuries. These ulcers are often associated with hip septic arthritis and/or osteomyelitis involving the femur. Girdlestone resection arthroplasty is a surgical technique used to remove affected proximal femur and acetabular tissues, resulting in a substantial defect. The vastus lateralis flap has been employed as an effective option for managing this dead space. The aim of this study was to evaluate the long-term outcomes of this procedure in a consecutive series of patients.

Patients with spinal cord injuries have been seen to have increased healing of attendant fractures. This for the main has been a clinical observation with laboratory work confined to rats. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two groups with spinal column fractures – those with neurological compromise (n=10) and those without (n=11), and compares them with a control group with isolated long bone fractures (n=10). Serum was taken from these patients at five specific time intervals post injury (1 day, 5 days, 10 days, 42 days (6 weeks) and 84 days(12 weeks)). These samples were then analysed for levels of Transforming Growth Factor-Beta (TGF-b) using the ELISA technique. This cytokine has been shown to stimulate bone formation after both topical and systemic administration.

Results show TGF-b levels of 142.79+/−29.51 ng/ml in the neurology group at 84 days post injury. This is higher than any of the other time points within this group (p< 0.001 vs. day 1, day 5 and day 10 and p=0.005 vs. 42 days, ANOVA univariate analysis). Furthermore, this level is also higher than the levels recorded in the no neurology (103.51+/−36.81 ng/ml) and long bone (102.28=/−47.58 ng/ml) groups at 84 days post injury (p=0.011 and p=0.021 respectively, ANOVA univariate analysis). There was statistically significant difference in TGF-b levels seen between the clinically more severely injured patients i.e. complete neurological deficit and the less severely injured patients i.e. incomplete neurological deficit.

In conclusion, the results of this work, carried out for the first time in humans, offers strong evidence of the causative role of TGF-b in the increased bone turnover and attendant complications seen in patients with acute spinal cord injuries.

Increased bone turnover and fracture healing is associated with acute spinal cord injuries. Experimental work to date has been confined to animal models. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi.

This paper evaluates two groups of patients with spinal column fractures – those with neurological compromise and those without, and compares them with a control group with isolated long bone fractures. Serum was taken from these patients at 10 days post injury and was analysed for the known osteogenic cytokines Insulin-like Growth Factor-1 (IGF-1) and Transforming Growth Factor-b1 (TGF-b1) as well as being added to an osteoblast cell culture line to analyse cell proliferation.

The results for the IGF-1 show a higher level in the neurology group compared to the no neurology group (p=0.038). In the TGF-B1 assay, the neurology group has a lower level than the other two groups (p< 0.0001 and p=0.002 respectively). However, when this group is subdivided into patients with complete and incomplete neurology, it can be seen that the levels of the complete group are elevated, although not significantly so (p=0.228).

All three groups stimulated markedly increased osteoblast cell proliferation versus a control group (p=0.086, p=0.005 and p=0.002 respectively). However, the neurology group is significantly lower than the other two groups (p=0.007 and p=0.001 respectively). Furthermore the complete group causes a lower proliferation rate than the incomplete group (p=0.539).

In conclusion, at 10 days post injury when the acute inflammatory reaction is subsiding and new bone is being laid down, patients with acute spinal cord injuries have increased bone turnover. This increase is being indirectly mediated by IGF-1, and more elevated levels with more severe neurological compromise suggest a contributory role of TGF-b1. Direct stimulation of osteoblasts does not appear to have any role to play in this accelerated bone healing.

Patients with spinal cord injuries have been seen to have increased healing of attendant fractures. This for the main has been a clinical observation with laboratory work confined to rats. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two groups with spinal column fractures – those with neurological compromise (n=10) and those without (n=11), and compares them with a control group with isolated long bone fractures (n=10). Serum was taken from these patients at five specific time intervals post injury (24hrs, 120hrs, 10 days, 6 weeks and 12 weeks). The time period most closely related to the end of the acute inflammatory reaction and the laying down of callus was the 10-day post injury time period.

Serum samples taken at this time period were analysed for IGF-1 and TGF-β levels, both known to initiate osteoblastic activity, using ELISA kits. They were also exposed to an osteoblast cell culture line and cell proliferation was measured.

Results show that the group with neurology has increased levels of IGF-1 compared to the other groups (p< 0.14, p< 0.18 respectively, Student’s t-test) but had lower TGF- (p< 0.05, p< 0.006) and osteoblast proliferation levels (p< 0.002, p< 0.001), despite having a significantly higher cell proliferation than a control group (p< 0.0001). When the neurology group is subdivided into complete (n=5) and incomplete (n=5), it was shown that the complete group had higher levels of both IGF-1 and TGF-. This trend is reversed in the osteoblast proliferation assay.

This work, for the first time in human subjects, identifies a factor which may be regulating this complication of acute spinal cord injuries, namely IGF-1. Furthermore, the observed trend in the two cytokines seen in the complete neurology group may suggest a role for TGF-β. However, the results do show that a direct mediation of this unwanted side effect of spinal cord injuries is unlikely as seen in the proliferation assay. Further work remains to be done to fully understand the complexities of the excessive bone growth recognised in this patient group.

Patients with spinal cord injuries have been seen to have increased healing of attendant fractures. While the benefits are obvious, this excessive bone growth also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two groups with spinal column fractures – those with neurological compromise (n=10) and those without (n=15), and compares them with a control group with isolated long bone fractures (n=12). Serum was taken from these patients at five specific time intervals post injury (1 day, 5 days, 10 days, 42 days (6 weeks) and 84 days(12 weeks)). These samples were then analysed for levels of Transforming Growth Factor-Beta (TGF-.) using the ELISA technique. This cytokine has been shown to stimulate bone formation after both topical and systemic administration.

Results show TGF-.; levels of 142.79±29.51 ng/ml in the neurology group at 84 days post injury. This is higher than any of the other time points within this group (.0.009 vs. all other time points, ANOVA). Furthermore, this level is also higher than the levels recorded in the no neurology (103.51±36.81 ng/ml) and long bone (102.28±47.58 ng/ml) groups at 84 days post injury (p=0.009 and p=0.04 respectively, ANOVA).

In conclusion, the results of this work, carried out for the first time in humans, offers strong evidence of the causative role of TGF-.; in the increased bone turnover and attendant complications seen in patients with acute spinal cord injuries.

This basic science study attempts to explain why patients with spinal cord injuries have been seen to display increased healing of attendant fractures.

For the main part, this has been a clinical observation with laboratory work confined to rats. While the benefits in relation to quicker fracture healing are obvious, this excessive bone growth (heterotopic ossification) also causes unwanted side effects, such as decreased movement around joints, joint fusion and renal tract calculi. However, the cause for this phenomenon remains unclear.

This paper evaluates two group with spinal column fractures – those with neurological compromise (n=10) and those without (n=11), and compares them with a control group with isolated long bone fractures (n=10). Serum was taken from these patients at five specific time intervals post injury (24hrs, 120hrs, 10 days, 6 weeks and 12 weeks). The time period most closely related to the end of the acute inflammatory reaction and the laying down of callus was the 10-day post injury time period.

Serum samples taken at this time period were analysed for IGF-1 and TGF-ß levels, both known to initiate osteoblastic activity, using ELISA kits. They were also exposed to an osteoblast cell culture line and cell proliferation was measured.

Results show that the group with neurology has increased levels of IGF-1 compared to the other groups (p< 0.14, p< 0.18 respectively, Student’s t-test) but had lower TGF-ß (p< 0.05, p< 0.006) and osteoblast proliferation levels (p< 0.002, p< 0.0001). When the neurology group is subdivided into complete (n=5) and incomplete (n=5), it was shown that the complete group had higher levels of both IGF-1 and TGF-ß. This trend is reversed in the osteoblast proliferation assay.

This work, for the first time in human subjects, identifies a factor which may be regulating this complication of acute spinal cord injuries, namely IGF-1. Furthermore, the observed trend in the two cytokines seen in the complete neurology group may suggest a role for TGF-ß. However, the results do show that a direct mediation of this unwanted side effect of spinal cord injuries is unlikely as seen in the proliferation assay. Further work remains to be done to fully understand the complexities of the excessive bone growth recognised in this patient group.

Aims

Traumatic central cord syndrome (CCS) typically follows a hyperextension injury and results in motor impairment affecting the upper limbs more than the lower, with occasional sensory impairment and urinary retention. Current evidence on mortality and long-term outcomes is limited. The primary aim of this study was to assess the five-year mortality of CCS, and to determine any difference in mortality between management groups or age.

Acute spinal cord injury (SCI) is most often secondary to trauma, and frequently presents with associated injuries. A neurological examination is routinely performed during trauma assessment, including through Advanced Trauma Life Support (ATLS). However, there is no standard neurological assessment tool specifically used for trauma patients to detect and characterize SCI during the initial evaluation. The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) is the most comprehensive and popular tool for assessing SCI, but it is not adapted to the acute trauma patients such that it is not routinely used in that setting. Therefore, the objective is to develop a new tool that can be used routinely in the initial evaluation of trauma patients to detect and characterize acute SCI, while preserving basic principles of the ISNCSCI. The completion rate of the ISCNSCI during the initial evaluation after an acute traumatic SCI was first estimated. Using a modified Delphi technique, we designed the Montreal Acute Classification of Spinal Cord Injuries (MAC-SCI), a new tool to detect and characterize the completeness (grade) and level of SCI in the polytrauma patient. The ability of the MAC-SCI to detect and characterize SCI was validated in a cohort of 35 individuals who have sustained an acute traumatic SCI. The completeness and neurological level of injury (NLI) were assessed by two independent assessors using the MAC-SCI, and compared to those obtained with the ISNCSCI. Only 33% of patients admitted after an acute traumatic SCI had a complete ISNCSCI performed at initial presentation. The MAC-SCI includes 53 of the 134 original elements of the ISNCSCI which is 60% less. There was a 100% concordance between the severity grade derived from the MAC-SCI and from the ISNCSCI. Concordance of the NLI within two levels of that obtained from the ISNCSCI was observed in 100% of patients with the MAC-SCI and within one level in 91% of patients. The ability of the MAC-SCI to discriminate between cervical (C0 to C7) vs. thoracic (T1 to T9) vs. thoraco-lumbar (T10 to L2) vs. lumbosacral (L3 to S5) injuries was 100% with respect to the ISNCSCI. The rate of completion of the ISNCSCI is low at initial presentation after an acute traumatic SCI. The MAC-SCI is a streamlined tool proposed to detect and characterize acute SCI in polytrauma patients, that is specifically adapted to the acute trauma setting. It is accurate for determining the completeness of the SCI and localize the NLI (cervical vs. thoracic vs. lumbar). It could be implemented in the initial trauma assessment protocol to guide the acute management of SCI patients

Acute spinal cord injury (SCI) is most often secondary to trauma, and frequently presents with associated injuries. A neurological examination is routinely performed during trauma assessment, including through Advanced Trauma Life Support (ATLS). However, there is no standard neurological assessment tool specifically used for trauma patients to detect and characterize SCI during the initial evaluation. The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) is the most comprehensive and popular tool for assessing SCI, but it is not adapted to the acute trauma patients such that it is not routinely used in that setting. Therefore, the objective is to develop a new tool that can be used routinely in the initial evaluation of trauma patients to detect and characterize acute SCI, while preserving basic principles of the ISNCSCI. The completion rate of the ISCNSCI during the initial evaluation after an acute traumatic SCI was first estimated. Using a modified Delphi technique, we designed the Montreal Acute Classification of Spinal Cord Injuries (MAC-SCI), a new tool to detect and characterize the completeness (grade) and level of SCI in the polytrauma patient. The ability of the MAC-SCI to detect and characterize SCI was validated in a cohort of 35 individuals who have sustained an acute traumatic SCI. The completeness and neurological level of injury (NLI) were assessed by two independent assessors using the MAC-SCI, and compared to those obtained with the ISNCSCI. Only 33% of patients admitted after an acute traumatic SCI had a complete ISNCSCI performed at initial presentation. The MAC-SCI includes 53 of the 134 original elements of the ISNCSCI which is 60% less. There was a 100% concordance between the severity grade derived from the MAC-SCI and from the ISNCSCI. Concordance of the NLI within two levels of that obtained from the ISNCSCI was observed in 100% of patients with the MAC-SCI and within one level in 91% of patients. The ability of the MAC-SCI to discriminate between cervical (C0 to C7) vs. thoracic (T1 to T9) vs. thoraco-lumbar (T10 to L2) vs. lumbosacral (L3 to S5) injuries was 100% with respect to the ISNCSCI. The rate of completion of the ISNCSCI is low at initial presentation after an acute traumatic SCI. The MAC-SCI is a streamlined tool proposed to detect and characterize acute SCI in polytrauma patients, that is specifically adapted to the acute trauma setting. It is accurate for determining the completeness of the SCI and localize the NLI (cervical vs. thoracic vs. lumbar). It could be implemented in the initial trauma assessment protocol to guide the acute management of SCI patients

Acute spinal cord injury (SCI) is most often secondary to trauma, and frequently presents with associated injuries. A neurological examination is routinely performed during trauma assessment, including through Advanced Trauma Life Support (ATLS). However, there is no standard neurological assessment tool specifically used for trauma patients to detect and characterize SCI during the initial evaluation. The International Standards for Neurological Classification of Spinal Cord Injury (ISNCSCI) is the most comprehensive and popular tool for assessing SCI, but it is not adapted to the acute trauma patients such that it is not routinely used in that setting. Therefore, the objective is to develop a new tool that can be used routinely in the initial evaluation of trauma patients to detect and characterize acute SCI, while preserving basic principles of the ISNCSCI. The completion rate of the ISCNSCI during the initial evaluation after an acute traumatic SCI was first estimated. Using a modified Delphi technique, we designed the Montreal Acute Classification of Spinal Cord Injuries (MAC-SCI), a new tool to detect and characterize the completeness (grade) and level of SCI in the polytrauma patient. The ability of the MAC-SCI to detect and characterize SCI was validated in a cohort of 35 individuals who have sustained an acute traumatic SCI. The completeness and neurological level of injury (NLI) were assessed by two independent assessors using the MAC-SCI, and compared to those obtained with the ISNCSCI. Only 33% of patients admitted after an acute traumatic SCI had a complete ISNCSCI performed at initial presentation. The MAC-SCI includes 53 of the 134 original elements of the ISNCSCI which is 60% less. There was a 100% concordance between the severity grade derived from the MAC-SCI and from the ISNCSCI. Concordance of the NLI within two levels of that obtained from the ISNCSCI was observed in 100% of patients with the MAC-SCI and within one level in 91% of patients. The ability of the MAC-SCI to discriminate between cervical (C0 to C7) vs. thoracic (T1 to T9) vs. thoraco-lumbar (T10 to L2) vs. lumbosacral (L3 to S5) injuries was 100% with respect to the ISNCSCI. The rate of completion of the ISNCSCI is low at initial presentation after an acute traumatic SCI. The MAC-SCI is a streamlined tool proposed to detect and characterize acute SCI in polytrauma patients, that is specifically adapted to the acute trauma setting. It is accurate for determining the completeness of the SCI and localize the NLI (cervical vs. thoracic vs. lumbar). It could be implemented in the initial trauma assessment protocol to guide the acute management of SCI patients

Aim: To determine whether timing of intervention affects neurological outcome after spinal cord injury resulting from rugby cervical facet dislocations. Methods: An observational study on 57 rugby players who were admitted to a Spinal Cord Injuries Unit from 1988 to 2000 with cervical spine facet dislocations. Experienced medical officers, an orthopaedic specialist and physiotherapists determined the admission and discharge Frankel grades (A to E). The time was recorded from the actual injury to successful reduction in hours. The usual method of reduction was by Rapid Incremental Traction on an Awake Patient. Statistical analysis was performed using parametric and non-parametric tests (Mann Whitney). Results: 14 patients were treated within 4 hours of injury and 43 were treated after 4 hours. The median Frankel gain for patients reduced within 4 hours was 5 but only 2 for those reduced after 4 hours (p= 0.0002). Conclusion: Time from injury to intervention does significantly affect neurological outcome in a homogenous group of spinal cord injuries in fit young males as a result of low velocity trauma mechanisms. Spinal cord injuries secondary to cervical facet dislocations in these patients should be regarded as an absolute emergency