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Editor in Chief
Dr. Ashok Kumar Shyam Murari
E-mail:editor.trauma.international@gmail.com
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E-mail: iorg.journals@gmail.com, indian.ortho@gmail.com
Tel – 022-25834545

New Implants in Trauma Surgery and Trauma Education – Viewpoints of Experts
/in Volume 3 | Issue 1 | Jan-April 2017Vol 3 | Issue 1 | Jan – Apr 2017 | page:3-4 | Dilip D Tanna, Govind S Kulkarni, Sudhir Babhulkar, S. C. Goel, Sushrut Babhulkar, Sunil Kulkarni, Amit Ajgaonkar, Ashok Shyam
Author: Dilip D Tanna [1], Govind S Kulkarni [2], Sudhir Babhulkar [3], S. C. Goel [4], Sushrut Babhulkar [3], Sunil Kulkarni [2], Amit Ajgaonkar [5], Ashok Shyam [6,7]
[1] Saifee Hospital Medical research center, Mumbai , India.
[2] Sushrut Institute of Medical Sciences,Research Centre & Post-Graduate Instt of Orthopedics,Central Bazar Road,Ramdaspeth,Nagpur,INDIA 400 010
[3] Post Graduate institute of Swasthiyog Pratisthan Miraj, India
[4] Professor of Orthopaedics, Institute of Medical Sciences, BHU, Varanasi, India
[5] Zenith Hospital, Malad, Mumbai, India
[6] Indian Orthopaedic Research Group, Thane, India.
[7] Sancheti Institute for Orthopaedics & Rehabilitation, Pune, India.
Address of Correspondence
Dr. Ashok K. Shyam.
IORG House, A-203, Manthan Apts, Shreesh CHS, Hajuri Road, Thane, India. 400604
Email: drashokshyam@gmail.com
New Implants in Trauma Surgery and Trauma Education – Viewpoints of Experts
Trauma as a faculty is developing rapidly along with understanding of fracture patterns, change in trauma scenario and also development in new implants. However outreach of these new developments and percolation and applicability of these new developments is still a big question. We see cases that are complicated by wrong choice of surgery, wrong choice of implant and improper use of principles. Trauma International tried to interview the core team of Trauma Society of India on these two question of new implants and education and research in field of Trauma. We have compiled the responses in this editorial
Dr DD Tanna: New implants like the precontoured anatomical plates are really good. They are definitely expensive but are good. Some Indian companies are also producing excellent variants of the anatomical plates and I believe these will definitely help in better management of complex articular fractures. However I also believe that not every new implant is a real improvement over the previous one. We have to wait for the clinical results and we have to be smart in selecting our cases to use these implants
Trauma education is an ongoing process and we are all students at the same time. We have to continue to learn how to learn, only then we can learn about the new methods and technologies and also learn them well. It is essential for our growth as a surgeon and helps us deliver best treatment to our patients
Dr Sudhir Babhulkar: New implants like fragment specific fixation and anatomic contoured plates are an excellent addition to armamentarium of a trauma surgeon. However we should learn to use them wisely and carefully
Teaching the young generation is the key to spreading trauma education. Traumacon has created that interest in young surgeons about trauma. We need to focus on them and help them develop proper understanding of principles and correct execution of surgical techniques. Conferences, courses workshops all are needed to achieve this aim. Also teaching about correct principles and techniques should reach periphery. My practice has been 50 to 60% complicated reffered cases. Most of the cases were complicated because of wrong application of surgical principles. I think teaching that will address these issues the correct solution for trauma education in India.
Dr GS Kulkarni: About new implants, some of them are really useful in certain situations like fragment specific fixation and contoured plates, but some new implants are not as useful as they are made to appear. New implants should be focussed on solving a surgical problem and should not be innovation for the sake of innovations. We have our innovation which is slotted plate for lengthening over a plate and it is aimed to solve a particular problem. I think that is how innovation should be aimed at.
The focus of trauma education should be basics of trauma surgery. That is where many complications arise. Especially as cases of road traffic accidents are rising, basics of management of open fracture should be emphasised more. Principles of debridements, wound closure, when to close the compound wound, methods of closing the wound, external fixation and stabilisation of compound fracture should all be reviewed and highlighted again and again. Another area is use of antibiotics in fracture surgery specifically local and systemic therapies. Current evidence and experience suggest that with proper surgical management, a single day antibiotic therapy is enough. However most surgeons will give either three day or five day antibiotic therapy which is not good for the patient as well as the fracture. If there is a need for prolonged infection control use of local antibiotics systems like cement beads or cement rods should be utilised to reduce the systemic load of antibiotics. Even in cases of closed fracture proper surgical principles should be followed. For example if a surgeon is using locking plates without understanding the principles of locked plates, it becomes a dangerous implant in his hands and is one of the main cause of complications.
Dr SC Goel: There are new implants launched every year and such developments should be taken with pinch of salt. Lot of these may be industry driven and we need good multicentric trails to validate the results before using them
About education and research, I feel we should have focus on basic sciences too. Unfortunately there are not many basic science labs in India. There are many surgeons who have innovative ideas and techniques but do not get a chance to promote their ideas. I think either TSI or IOA should take these projects ahead and give a chance to all innovators to come forward
Dr Sushrut Babhulkar: The science of orthopaedic trauma is evolving and our understanding of it is changing and that is reflected in development of new implants. New implants in trauma are very different from new implants in Arthroplasty where it is more industry driven rather than real evolution. As our understanding of fracture pattern and soft tissue injury improves and as we encounter more varied bone quality, the need for new implants will increase. These improvement in basic understanding is what fuels development of new implants in trauma and I think we are moving forward in sensible direction as far as trauma implants are concerned
Education should focus on accurate understanding of principles of trauma surgery and principles of various implants. Both should be used in perfect harmony to achieve excellent result. If either of these principles are not followed, it would lead to complications. This is the main teaching of Traumacon every year. Again research should be promoted but not enforced, if it is enforced, we will get more poor quality research and publications.
Sunil Kulkarni: We are facing new challenging in trauma surgery and number of complex and articular trauma has increased due to high energy accidents. I think new implants have helped us a lot in dealing with these complex injuries. Although simple trauma is still managed well with conventional implants, so proper patient selection is essential.
Trauma education should be about practical knowledge. Textbook knowledge is not of much use in clinical practice. Especially trauma is a branch where even after decades of practice, on can see a completely new case of face new surgical challenge. Education should be focussed on preparing trauma surgeons to face these challenges and difficult practical problems.
Dr Amit Ajgaonkar: New implants have definitely added more tools for trauma surgeons. Implants like Halifax nails, fragment specific fixation, far-cortex locking plates are based on sound principles and have definite advantages in properly selected cases
Trauma Education should focus on peripheral surgeons. In recent months I have travelled a lot across the country and especially in the interiors. I realised that maximum trauma work is done by the peripheral surgeon in rural settings. There is an urgent requirement to provide both training as well as infrastructure to these places. I think TSI, IOA and Traumacon can contribute a lot in terms of improving the training but government should also focus on improving the infrastructure.
If we carefully note the views of all the experts above we can deduce a chain of thought which can be summarised easily. New implants are good but understanding of the principles behind the implant and proper patient selection is must. As far as trauma education is concerned, all the experts believe basic principles are the building blocks and practical knowledge is of utmost importance. I too believe that trauma Education and research are not different entities, both are actually part of one spectrum. Academics originates from new research and initiation of research is from academics. Thus they both fulfil each other and through the churning of both these, innovative ideas and new implants are born.
We thanks our panel for sharing their thoughts with us and we leave the readers now to enjoy the current issue of TI
Dr Ashok Shyam
Editor – Trauma International.
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Editorial – 10 years of Traumacon!!
/in Volume 3 | Issue 1 | Jan-April 2017Vol 3 | Issue 1 | Jan – Apr 2017 | page:1-2 | Dr. Sushrut Babhulkar and Dr. Ashok K Shyam
Author: Sushrut Babhulkar [1], Ashok K Shyam [2,3]
[1] Sushrut Institute of Medical Sciences,Research Centre & Post-Graduate Instt of Orthopedics,Central Bazar Road,Ramdaspeth,Nagpur,INDIA 400 010.
[2] Indian Orthopaedic Research Group, Thane, India.
[3] Sancheti Institute for Orthopaedics &Rehabilitation, Pune, India.
Address of Correspondence
Dr. Suhrut Babhulkar
Sushrut Institute of Medical Sciences,Research Centre & Post-Graduate Instt of Orthopedics,Central Bazar Road,Ramdaspeth,Nagpur,INDIA 400 010
Email: sushrutdsurgeon@gmail.com
Editorial: 10 years of Traumacon!!
Traumacon is arguably the biggest trauma conference in India. It was started in 2007 and has completed 10 years in 2017. It is a proud moment for the entire Traumacon organisers and Trauma Society of India (TSI). TSI was started 15 years back with Dr DD Tanna as president and Dr Sudhir Babhulkar as Secretary and ably supported by Dr GS Kulkarni and Dr SC Goel. In those days, arthroplasty, arthroscopy and spine were considered as major specialities of Orthopaedics, while trauma was considered as one of basic units of orthopaedics. Following the trend, there were speciality conferences only in arthroscopy, arthroplasty, spine and also in paediatric orthopaedics but no dedicated conference for trauma existed. TSI took on itself to develop the faculty of trauma in India and with that premise in focus a dedicated trauma conference ‘Traumacon’ was conceived. A proper pattern of the conference was established and the first conference was planned in Mumbai. This was a runaway success and support from the entire orthopaedic faculty was tremendous. Dr Sushrut Babhulkar, Dr Sunil Kulkarni and Dr Amit Ajgaonkar took responsibility of making Traumacon the event of the year in Trauma Calendar of all orthopaedic surgeons.
Traumacon differs a lot from other orthopaedic conferences. At times there is criticism that TSI is a much closed door society and this is in fact true and deliberate. This is done to maintain proper ethics and code of conduct. The core group is involved passionately in all aspects of Traumacon and take decision in terms of scientific program and faculty. At the end of every Traumacon, the preparation for next meeting starts with review of all faculty and comments from delegates are reviewed. The plan for the next year is chalked immediately at the end of one meet after deep scientific and academic deliberations among the core group of TSI. This helps in maintaining the continuity and also improve quality year after year.
Another factor that makes Traumacon different is that the focus of the entire conference in on the delegates. We want our delegates to be exposed to every aspect of orthopaedic trauma, right from the very basic to the latest advancements. Practical sessions and case discussions are aimed to improve the practical knowledge of the delegates and to make difference in their clinical practice. Many delegates have reported that they have significantly changed their operative practices after attending Traumacon and that is the real reward of organising the conference
Principles of trauma surgery are undergoing rapid development along with development of new implants. Rural India is still lacking in good trauma education and surgeons are in need of updating their surgical techniques as well as surgical principles. Needs of these surgeons are specifically addressed in Traumacon and all faculty are passionate to provide practical answers any questions raised by the delegates. This will help in improving the trauma care that the patient receive even in the remotest part of the country. TSI is also conducting the current concepts in trauma symposiums across the country to meet this very aim.
TSI has also worked in the area of academics by affiliating with Thieme and writing guidelines on various areas of orthopaedic trauma. These books are given complimentary to all Traumacon delegates and they can refer these books as an when they need. TSI has also affiliated with the best journal of trauma in the world ‘Injury’ and an Indian supplement is released during Traumacon 2017. Trauma International is also affiliated to TSI and a special issue of the Journal is released every year at Traumacon.
All these activities of TSI and Traumacon have reinvigorated the interest of young orthopaedic surgeons in Trauma and they now look at trauma surgery with more respect. In short TSI has succeeded in promoting trauma as a speciality of Orthopaedics and now many surgeons feel proud in calling themselves trauma surgeons. In future too, TSI and Traumacon will continue its focus on faculty of orthopaedic trauma, academics and newer developments in the area and continue to provide an international platform to all Trauma Surgeons across the country.
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Clinical and radiological outcome of Thoracolumbar fractures treated by Transpedicular Fixation
/in Volume 3 | Issue 1 | Jan-April 2017Vol 3 | Issue 1 | Jan – Apr 2017 | page: 38-45 | Suresh Babu Surapaneni, Venkata Suresh Babu Tummala, Ravikanth Makkena
Author: Suresh Babu Surapaneni [1], Venkata Suresh Babu Tummala [1], Ravikanth Makkena [2]
[1] Department of Orthopaedics, Dr. Pinnamaneni Siddhartha Institute of Medical Sciences and Research Foundation, Vijayawada, Andhra Pradesh, India.
[2] Department of Orthopaedics, ASM Medical College, Eluru, West Godavari, Andhra Pradesh, India.
Address of Correspondence:
Dr. Suresh Babu Surapaneneni,
Suresh Ortho & Multispeciality Clinic, 56-2-18, Koneru Satyanarayana Street,
Canara Bank Road, Patamata, Vijayawada – 520 010, Andhra Pradesh, India.
Phone: +91-9440219597. Tel.: +0866-2474797.
E-mail: drssureshbabu@yahoo.com
Abstract
Background: The injuries involving the spinal cord are generally challenging to manage. The aim of this study was to analyze and compare the clinical including neurological and radiological outcome of thoracolumbar burst fractures treated by short segment and long segment transpedicular instrumentation and posterolateral fusion.
Methods: 34 patients with or without neurological deficit were studied. Gaines scoring, American Spinal Cord Injury Association impairment scale was used for study.
Results: The mean intra-operative correction of K-angle in the short segment group was 14.68° and the loss of correction observed at the last follow-up evaluation was 6.62° with a final gain of 8.06°. The mean intra-operative correction in the long segment group was 19.76° and the loss of correction observed at the last follow-up evaluation was 6.61°. Final gain was 13.15°. On radiological evaluation of wedge angle, mean correction loss of 3.87 degrees and 3.4% implant failure was noted in the short segment group while the long segment group had 1.53 degrees of mean correction loss and no implant failure. There was no positive correlation found between Gaines score with progression of deformity. Neurological Outcome in the short segment group four grades of improvement was found in 1 patient, three grades in 1 patient, two grades in 2 patients and one grade in 6 patients. In the long segment group, three grades of improvement were found in 3 patients, two grades in 2 patients and one grade in 2 patients. 1 of the grade D patient showed improvement within the grade and 3 patients did not show any improvement. Average ASIA motor score improved with treatment from 28.31 to 39.56 points (11.25 points) in short segment group and from 19.91 to 28.46 points (8.55 points) in long segment group.
Conclusion: Transpedicular fixation is a stable, reliable and less surgically extensive construct for addressing thoracolumbar burst fractures. About 6-8° loss of correction was observed with both short and long segment stabilizations in our study. Long segment has better results in terms of maintenance of reduction and final gain. The length of instrumentation does not seem to have any effect on the neurological outcome.
Key Words: Thoracolumbar fractures, Clinical, Radiological outcome.
References
1. Instructional Course Lecture AAOS: Diagnosis and management of thoracolumbar spine fractures. JBJS Vol. 85A: Number 12: Dec. 2003.
2. Harrington PR, Tullos HS. Reduction of severe spondylolisthesis in children. South Med J 1969; 62-1-7.
3. Steffee AD, Biscup RS, Sitowski DJ. Segmental spine plates with pedicle screw fixation- a new internal fixation device for disorders of the lumbar and thoracolumbar spine. Clin orthop 1986; 203: 45-53.
4. Mirjanli et al: Comparison of Transpedicular fixation configurations in Burst fractures of thoracolumbar vertebra. Turkish Spine Journal. Vol. 6, No. 3 Year 1995.
5. Louis et al: Posterior approach with Louis plates for fractures of the thoracolumbar and lumbar spine with and without Neurological deficits. Spine 1998;23(18):2030-2039. .
6. Parker et al: Successful short segment instrumentation and fusion for thoracolumbar spine fractures. A consecutive 4 1/2 year series. Spine volume 25, Number 9, Pg 1157-1169.
7. Gertzbein SD, Brown CMC et al: The neurological outcome following surgery for spinal fractures. Spine 13: 641-644, 1988.
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The Screw Intra-medullary Elastic Nail Fixation in fresh Displaced Mid Shaft Clavicle Fractures – Technical note
/in Volume 2 | Issue 2 | May-Aug 2016Vol 2 | Issue 2 | May – Aug 2016 | page:53-55 | Wasudeo Gadegone, Vijayanad Lokhande, Yogesh Salphale
Author: Wasudeo Gadegone [1], Vijayanad Lokhande [1], Yogesh Salphale [1]
[1] GMC Chandrapur, Maharashtra, India.
[2] Shushrusha Multispecialty hospital, Chandrapur, India.
[3] Smt. Kashibai Navale Medical College and General Hospital, Pune
Address of Correspondence
Dr. W.M. Gadegone.
VivekNagar Mul-Road Chandrapur 442402, Maharashtra, India.
Email: gadegone123@yahoo.co.in
Abstract
Conservative treatment remains the gold standard in treatment of simple undisplaced midshaft clavicle fractures, but for displaced and comminuted fractures surgical intervention is appropriate especially in young active adults. Surgical stabilisation can be achieved using either a plate or an intramedullary device. One of dreaded complication of intramedullary device in migration of the implant. We have used a screw intramedullary device with screw mechanism at one end which can get hold in the medial cancellous bone, thus preventing chances of migration. This report describes the technique of using the screw intramedullary nail for displace clavicle fracture.
Keywords: clavicle fracture, intramedullary nailing.
Introduction
Although conservative treatment is the gold standard for clavicle fractures, there may be some issues like shoulder impairement, a bump at the fracture site that is cosmetically unacceptable or nonunions which happen when grossly displaced fractures are treated conservatively. Surgical stabilisation may be additionally indicated in cases with completely displaced fractures (gap of > 20mm), potential skin perforation, shortening of clavicle by more than 20 mm, neurovascular injury, and floating shoulder injury. Plating is an option which is used commonly, but leads to scarring and may need repeat surgery of implant removal. Intrameduallry nailing has been successfully used by few authors but has a complications like nail migration. We are using a screw intrameduallry device (Fig. 1) which anchors to the metaphyseal bone by the wide screw head at the end of the nail. This technicaal note simply describes the technique.
Implant
Screw elastic intramedullary nail is available in diameter of 2, 2.5, and 3 mm. The nails are 5-6 cm in length , with screw portion of 10mm length and 4.5mm in diameter. The screw head is of 3.5 mm size where the appropriate screw driver fits (Fig. 1). The nail is made of either steel of titanium and is sufficiently elastic to bend as it traversed the canal from the point of insertion and resilient enough to spring back in the curvature when finally seated. However it is still rigid enough to withstand the torsional, rotational, and angulatory forces.]Nail has a bevelled tip at one end and a threaded head positioned at other. This design allows the self-cutting thread to be advanced and screwed in with a 3.5 mm screw driver. The distal beveled end of the nail aids in fracture reduction and helps in engaging in the subchondral area of the bone, thereby imparting stability. The inserter should firmly grasp the nail in order to control rotation, insertion and nail withdrawal. It is best to mount the nail on a T handle while inserting but other devices can also be used (Fig. 2)
Surgical Technique:
Operative procedure is carried out under interscalanae block or general anaesthesia. Affected shoulder is elevated by a bolster so that clavicle becomes more prominent. This position also helps to restore length and increase exposure of the clavicle (Fig. 3). The procedure is performed under fluoroscopic guidance. A one centimeter skin incision is made over medial end of clavicle and a hole is drilled in the anterior cortex with a 3.2 mm drill bit and guide. The insertion point is made approximately 1 cm lateral to the sternoclavicular joint. The entry portal is then enlarged with an awl (Fig.3).
The reaming of canal is done with sequential reamer and then an elastic nail of appropriate diameter and length is inserted in the medullary canal of clavicle with a universal chuck and T-handle (Fig. 4).
With oscillating movements the nail is advanced until it reaches the fracture site. With the help of percutaneously placed towel clips fracture fragments are approximated (Fig. 5). The reduction is checked in image-intensifier and then the nail is advanced through the fracture site till it reaches distal end of clavicle. Generally nail can be negotiated one cm short of acromioclavicular joint. If closed reduction is unsuccessful, an additional skin incision is made at fracture site for open reduction of the fragments (Fig. 5).
Although clavicle is S shaped, tip of the nail is curved which helps the surgeon to pass the elastic nail into distal fragment. After adequate engagement of the distal fragment, the medial end of screw nail is screwed in the metaphyseal region of the medial end of clavicle and skin closed over it (Fig. 6).
Postoperatively arm pouch sling is given for three weeks. Gentle pendulum exercises of the shoulder are allowed as per pain tolerance immediately after surgery. We tend to limit extreme overhead activities for 3-6 weeks. At four to six weeks, active assisted range of motion in all planes was allowed. When fracture union (defined as radiographic union with no pain or motion with manual stressing of the fracture) was evident, muscle strengthening exercises were also allowed. At eight to twelve weeks, Isometric and isotonic exercises were prescribed for shoulder girdle muscles with return to full activities (including sports) at three months (Fig. 7).
Conclusions
Percutaneous elastic screw intramedullary nailing of the clavicle is a safe, reliable method for fixation of displaced midshaft clavicle fractures. It is less invasive and allows rapid healing by callus formation. Complication rates are low, with better functional and cosmetic results.
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Road Traffic Accidents :Age and Gender distribution and impact of Religious Month and Holidays (Ramadan and Eid) on frequency of RTAs in Karachi Pakistan
/in Volume 2 | Issue 2 | May-Aug 2016Vol 2 | Issue 2 | May – Aug 2016 | page:40-43 | Ranjeet Kumar, Muhammad Muzzammil, Muhammed Saeed Minhas, Anisuddin Bhatti, Vinod Kumar, Syed Jahanzeb.
Author: Ranjeet Kumar [1], Muhammad Muzzammil [1], Muhammed Saeed Minhas [1], Anisuddin Bhatti [1], Vinod Kumar [1], Syed Jahanzeb [1].
[1] Jinnah Postgraduate Medical centre Karachi, Pakistan.
Address of Correspondence
Dr Nadeem A Faruqui
14/116d, Civil Lines,
Kanpur 208001 India
Email: nafaruqui@hotmail.com
Abstract
Background: Road safety is an important public health issue in Pakistan. The aim of this study was to investigate trends in road traffic accidents (RTCs) managed by accident and emergency department in Karachi, Pakistan’s largest city, their age and gender distribution and impact of religious month, Ramadan and Eid on frequency of Road traffic accidents in Karachi
Design: cross-sectional study.
Place and duration of study: Accident & emergency department of Jinnah Post Graduate Medical Center, Civil hospital, Abbasi Shaheed Hospital, Aga Khan hospital and Liaqat Hospital Karachi. Pakistan from Jan 2014 to December 2014.
Patients and Methods: A descriptive cross-sectional study was carried out by ROAD TRAFFIC INJURY RESEARCH AND PREVENTION CENTRE “RTIR&PC” in the five tertiary care hospitals (Civil Hospital ,Jinnah Postgraduate Medical Center, Abbasi Shaheed Hospital and Aga Khan Hospital) of Karachi, Pakistan. All road traffic accident victims presented to the emergency department of the selected hospital, were included in the study. A pretested trauma registry form was completed for all patients.
Results: Total numbers of accidents were 24360 and total number of injured were 30274. Minor injury 23825 approximately 78.6%, around 65 per day, serious were 5382 approximately 17%,around 15 per day and fatal were 1067 approximately 3.5%, 3 per day. Male injured were 25263 around 83% and female were 5011 around 17%. According to casualities with respect to age were from 16-20 years male were 5136 around 20% and female were 553 around 11% total of 5689 , from 21-25 years male were 4785 around 19% and female were 674 around 13% total of 5459 , from 26-30 years male were 3546 around 14% and female were 613 around 12% total of 4159 and under 15 years male were 3165 around 13% and female were 840 around 19% total of 4105 , other age and gender distribution given in table 1. On month wise casualities, highest casualities recorded in month of June and July of 2014. Ramadan was from June to July in 2014 and Eid was in July in 2014. In June 2014 injured were 3080 around 11% and fatal were 72 around 7% and in July 2014 injured were 3506 around 12% and fatal were 112 around 10 %. Record of other months casualities given in table 2. Injuries related to body part were , head and neck 23% ,fatal were 53%, face 17% ,fatal were 16%, chest 1% fatal 1%, abdomen, pelvic contents 1% fatal 1%, extremity, pelvic girdle 29% fatal 17% external injuries 28% fatal 12%.
Conclusion: The study has described trends of RTAs managed by emergency department of hospitals in karachi. Hospital of Karachi experienced a higher burden of RTAs emergencies in the month of Ramadan 2014 as compared with the preceding months of the year. This increase was mostly concentrated among younger ages range from 16-25 years of age. Injuries in city of Karachi are an important public health problem and contribute to major bulk of Emergency facilities. These accidents and the resultant injuries have considerable physical and socioeconomic impacts; therefore, this issue needs to be addressed. By putting into effect laws that enforce road safety measures and helmet usage can prevent these injuries.
Keywords: RTAs (Road traffic accident).
Introduction
Road traffic crashes (RTAs) are one of the most pressing international health and development concerns in the world. Every year, nearly 1.3 million people die as a result of a road traffic collision – more than 3000 deaths each day – and more than half of these people are not travelling in a car. . It was the 2nd leading cause of deaths among 15 – 44 years of age and 80% of these deaths occurred in developing countries . According to the World Health Organization (WHO) 2011 fact sheet, “over 90% of the world’s fatalities on the roads occur in low-income and middle-income countries, even though these countries have less than half of the world’s vehicles [1,2]. In Pakistan, half of all major incidents and two thirds of all deaths in major incidents are due to RTAs In Pakistan [3]. In Pakistan the incidence of road traffic injuries to be around 15–17 per 1000 persons per year estimated by two independent population-based surveys [4–6]. It is estimated that approximately 40 000 people die on the roads every year in Pakistan and many more sustain serious injuries [6]. In addition to the suffering, these injuries contribute significantly to the workload in hospitals, leading to direct costs to the Pakistani economy of over US$ 1 billion [4,7,8]. Various studies in many countries have raised the issue of the increased number of RTCs during holidays and festive periods such as Christmas and New Year [9–11]. An increasing trend of RTAs has also been documented, In countries that celebrate Ramadan, Eid al-Fitr and Eid al-Adha, [12-15]. Ramadan is the ninth month of the Islamic calendar and lasts 29 or 30 days. It is the Islamic month of fasting, in which participating Muslims refrain from eating, drinking, smoking and sex during daylight hours
Methods
It is cross sectional study conducted by Road Traffic Injury Research And Prevention Centre “RTIR&PC” in emergency department of all five major hospitals in Karachi including Jinnah Postgraduate Medical Center, Civil hospital, Abbasi Shaheed Hospital, Aga Khan Hospital and Liaqat Hospital Karachi. . All road traffic accident victims presented to the emergency department of the selected hospital, were included in the study. Inclusion criteria were injured patients of any age or sex presenting to the Accident, Emergency . A pretested trauma registry form was completed for all patients. If the patient was brought unconscious, an attempt was made to collect the information from the patient’s attendant. Basic demographic characteristics, time and date, nature and cause of injury, vital signs and outcome data were recorded. Type of vehicle and mode of collision was recorded in cases of road traffic accident.
Results
Total numbers of accidents were 24360 and total number of injured were 30274. Minor injury 23825 (78.6%), around 65 per day, serious were 5382(17%), around 15 per day and fatal were 1067 (3.5%), 3 per day(table-1, Fig-1).
Male injured were 25263 around 83% and female were 5011 around 17%. According to casualities with respect to age were from 16-20 years male were 5136 around 20% and female were 553 around 11% total of 5689 , from 21-25 years male were 4785 around 19% and female were 674 around 13% total of 5459 , from 26-30 years male were 3546 around 14% and female were 613 around 12% total of 4159 and under 15 years male were 3165 around 13% and female were 840 around 19% total of 4105 (table-2, Fig-2).
On month wise casualities highest casualities recorded in month of June and July of 2014 . Ramadan was from June to July in 2014 and Eid was in July in 2014. In June 2014 injured were 3080 around 11% and fatal were 72 around 7% and in July 2014 injured were 3506 around 12% and fatal were 112 around 10 % (table-3, Fig-3).
Injuries related to body part were , head and neck 23% ,fatal were 53%, face 17% ,fatal were 16%, chest 1% fatal 1%, abdomen, pelvic contents 1% fatal 1%, extremity, pelvic girdle 29% fatal 17% external injuries 28% fatal 12%(fig-4).
Discussion
Trauma is increasingly recognized as a global public health epidemic. WHO has predicted that trauma will rise from 9th leading burden of disease in 1990 to third leading cause in 2020 worldwide . The results of this study revealed a growing rate of RTAs in June and July 2014 (the Islamic month of Ramadan and Eid). In this month, the number of RTAs was higher than the RTAs per month. In present study we found that annual incidence of trauma in road traffic accidents are commonly affecting younger group from 16 -25 years age which also have the highest fatality percentage among all road traffic accidents. In the present study, young age group were predominately involved in the reported RTAs. Fractures of extremities ,external and head injuries were the major injuries sustained by these young people. We also found out that head and neck injuries are the commonest cause of fatality in these incidences. Similar findings have also been reported in research studies from Pakistan [4–8,16-18], India [19-22] and other countries [23-29]. In Ramadan as people wish to be at their homes before iftar (the evening meal when Muslims break their fast). Thus, to return home early, drivers may become impatient and violate traffic rules (e.g. signal violations, speeding, overtaking), often resulting in different forms of RTAs. Similar trend was also observed in other countries celebrating Ramadan [12-15]. The socioeconomic consequences of road traffic injuries include costs of prolonged medical care, loss of the family breadwinner and loss of income due to disability; together these factors often push families into poverty [30].
Conclusion
The study has described trends of RTAs managed by emergency department of hospitals in Karachi. Hospital of Karachi experienced a higher burden of RTAs emergencies in the month of Ramadan 2014 as compared with the preceding months of the year. This increase was mostly concentrated among younger ages range from 16-25 years of age. Injuries in city of Karachi are an important public health problem and contribute to major bulk of Emergency facilities. These accidents and the resultant injuries have considerable physical and socioeconomic impacts; therefore, this issue needs to be addressed. By putting into effect laws that enforce road safety measures and helmet usage can prevent these injuries.
References
1. Global plan for the decade of action for road safety 2011–2012. Geneva, World Health Organization, 2012.
2. Global status report on road safety: time for action. Geneva, World Health Organization, 2009
3. Waseem H et al. Epidemiology of major incidents: an EMS study from Pakistan. International Journal of Emergency Medicine, 2011, 4:48.
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Classification of Pelvis and Aetabulum Injuries
/in Volume 2 | Issue 2 | May-Aug 2016Vol 2 | Issue 2 | May – Aug 2016 | page:4-8 | Sameer Aggarwal, Vikas Bachhal
Author: Sameer Aggarwal [1], Vikas Bachhal [1]
[1] Department of Orthopaedics, PGIMER, Chandigarh, Punjab, India.
Address of Correspondence
Dr Sameer Aggarwal
Department of Orthopaedics, PGIMER, Chandigarh, Punjab, India.
Email: drsameer35@yahoo.co.in
Abstract
Classifications are meant for easier academic communication as well as predict prognosis and outcome. The importance of classification is best stressed in case of pelvis and acetabular fracture. the complex anatomy of the area and complexity of the injuries makes it difficult to standardise a classification that will easily predict the management protocol and outcomes. Various attempts have been made over the years to find the best classification system for these complex injuries and this review takes the readers through these many classifications and also presents the currently acceptable classification.
Keywords: Hip fractures – complication – salvage procedure – therapeutic algorithm.
Introduction
The earliest attempt at classifying pelvic ring injuries was made by Bucholz where he described three groups essentially defining anteroposterior injuries of later classification systems.[1] Pennal et al described their classification based on mechanism of injury as anteroposterior compression injuries, lateral compression injuries, or vertical shear injuries.[2] This classification was later modified by more comprehensive description of same groups by Young and Burgess while Tile modified the original Pennal classification by factoring in the vital element of stability.[3,4] Both these later classification systems are in current common usage although they compliment each other as Young and Burgess gives better anatomical description of injury thereby guiding the type of fixation, while Tile factors in the element of stability which is the single most important factor dictating need for fixation. Helfet later developed comprehensive system of classification where he incorporated both these existing systems and described injuries on the lines of AO/OTA system.[5] Although for routine usage many prefer to use either Young-Burgess or Tile system, however it is recommended to use comprehensive system for the purpose of comparing or reporting results.
Young-Burgess classification (Mechanism of Injury)
It is useful to predict mortality, transfusion requirements, and associated organ injury. This system classifies the pelvic ring injuries into four types according to vector of force causing them. These are anteroposterior compression (APC), lateral compression (LC), vertical shear (LC) and combined mechanism (CM) injuries. Both APC and LC injuries are further divided into three groups according to extent of injury (Fig. 1, Table 1).
Anteroposterior Compression
The essential element is disruption of anterior ring generally at symphysis. The three subgroups represent progressive extent of injury involving only symphysis (APC I), disruption of pelvic floor and anterior sacroiliac ligament (APC II) and disruption of posterior sacroiliac ligaments (APC III). Although earlier studies showed predictive level of diastasis for these three groups (APC I: 1-2.5cm, APCII: 2.5-4cm; APCIII: >4cm), however this has been challenged recently. Moreover, radiographs represent only a static image and might underestimate the extent of injury which require stress examination under fluoroscopic guidance for more comprehensive evaluation.
Lateral Compression
The essential lesion in this injury pattern is injury to posterior ring with anterior displacement at level of symphysis or fractured rami. Posterior lesion can be either compression fracture of sacrum (LC I) or fracture dislocation of sacroiliac joint where a crescent shaped portion of iliac bone remains attached to sacrum while rest of joint is dislocated (LC II; crescent fracture). LC III injuries have either LC I or LC II ipsilateral injury with contralateral open book injury of sacroiliac joint (windswept pattern).
Vertical Shear
The essential element of this pattern is vertical and posterior displacement of hemipelvis typically assessed at posterior ring level. Posterior ring injury may be at sacrum, sacroiliac joint or ilium which is combined with anterior injury at symphysis or rami.
Combined Mechanism
It is not uncommon to see injuries where more that one of the above mentioned mechanisms are at play. All such injuries are grouped under CM injuries
Tile’s classification (Stability classification)
Tile laid emphasis on integrity of posterior arch to determine stability and classified pelvic ring injury into stable injuries with intact posterior ring (Type A); partially stable injuries with incomplete disruption of posterior ring (Type B) and unstable injuries with complete disruption of posterior ring (Type C). All types have been further classified based on location and mechanism of injury (Table 2).
Comprehensive Classification
This classification of follows AO/OTA system where pelvis has been given number 6 while pelvic ring is number 1. [6] Thus pelvic ring injuries will be designated 61. Further classification in groups is based on stability which is described in context with integrity of posterior ring. Group A are stable injuries while Group B and C are partially stable and completely unstable respectively. Groups are further divided into subgroups and qualifications based on anatomical description and/or mechanism of injury (Table 3).
Classification of acetabular fractures
Letournel-Judet classification of acetabular fractures, described more than half a century ago, still remains the most commonly used system used in clinical practice.[7] Although, this anatomical classification provides useful clinical guide for approach and fixation methods for acetabular fractures, however it does not take into consideration several important factors like dislocation, impaction and communition which have significant prognostic value. To address these deficiencies, AO/OTA comprehensive classification of acetabular fractures has been developed in line with the existing system for long bone fractures.
Letournel-Judet Classification[7]
This system classifies acetabular fractures in two groups of elementary and associated fractures based on presence of one and two or more fracture lines respectively. The elementary group thus includes posterior wall, posterior column, anterior wall, anterior column and transverse fracture types, while associated group includes T-type fracture, posterior column with posterior wall, transverse with posterior wall, transverse with anterior wall or column, anterior column or wall with posterior hemitransverse and associated both column fracture. Some of the fractures types like anterior column and transverse fractures have subclassification too (Table 4, Fig. 2).
AO/OTA Comprehensive Classification
This classification essentially rearranges the Letournel-Judet classification and further accounts for important prognostic factors under subgroups. The classification broadly follows the outline of classification for periarticular long bone fractures, although it deviates from general system in order to account for complexity and two column concept of acetabular fracture. Furthermore, although this classification attempts to retain the approach of arranging fractures according to prognosis within the group, however this element is not followed throughout the classification.
The pelvis has been designated number 6 and acetabulum is number 2, thus acetabular fractures are designated by number 62. Further types are divided based on involvement of once column (Type A), both columns (Type B) or complete articular fractures (Type C). both type A and B are partial articular fractures where some part of acetabulum is still attached to axial skeleton while type C fractures are complete articular fractures where no part of acetabulum remains in continuity with axial skeleton. Type C will thus include associated both column fractures of Letournel-Judet classification.
In view of extensive use of letournel-Judet classification for clinical decision making and the fact that comprehensive system is its modification recommended for use for recording and comparing results, it is prudent to comprehend this classification while understanding the corresponding classification of comprehensive system. Thus, the following account will describe the old classification while mentioning the matching designation of AO/OTA classification.
Elementary acetabular fractures
Posterior wall fractures (62 A.1)
These fractures are most common acetabular fracture (30%) and are associated with posterior hip dislocation (Fig 3) . By definition, posterior wall fractures should not involve quadrilateral plate which will make it a posterior column fracture. These fractures are further divided based on presence of single (A.1.1) or multiple fragments (A.1.2) and existence of marginal impaction (A.1.3). All three groups are further subgrouped based on location of fracture as (1) posterior; (2) posterorsuperior or (3) posterosuperior.
When associated with other fractures like transverse, T-type or both column fracture, presence of posterior wall fracture which compromises stability of hip joint essentially dictates surgical approach and reduction technique.
Posterior column fracture (62 A.2)
Isolated posterior fracture accounting for 3-5% cases involves separation of ischial portion of acetabulum from the rest. A fracture line runs from high up in sciatic notch across the cotyloid fossa to ischiopubic ramus (Fig. 4). These are highly unstable fractures requiring surgical intervention. Typical posterior column fractures exit at sciatic notch very close to the site where superior neurovascular bundle come in close contact with bone thereby putting them at high risk during initial injury and surgical intervention. The subgroups of this fracture includes a variant of posterior wall fracture which extends into column (it has part of quadrilateral plate attached) technically making it posterior column fracture (A.2.1). The fractured segment remains within the ischium and thus has breach of posterior rim at two places. Subgroup A.2.2 is the typical posterior column fracture starting at greater sciatic notch and exiting at ischiopubic ramus. The fractures of posterior column associated with posterior wall fractures are subgrouped as A.2.3.
Anterior partial articular fractures (62 A.3)
These fractures include anterior column/wall fractures with intact posterior column (Fig 5). Unlike posterior fractures, anterior fractures are seldom associated with hip dislocation and have significantly better prognosis. Subgroup classification differentiates anterior wall fracture (A.3.1) from anterior column fracture (A.3.2, A.3.3).
Superior pubic ramus fracture involving part of anterior wall occur frequently in pelvic ring injuries and have to be differentiated from anterior wall fractures which are very rare (1-2%).
Anterior column fractures are further divided into four subtypes depending on location of superior extent of fracture:
A.3.3
Very low: fracture exits trough rim of anterior wall.
Low: fracture exits at or below anteroinferior iliac spine (in the region of psoas fossa).
A.3.2
Intermediate: fracture exits between anteroinferior and anterosuperior iliac spines.
High: fracture exits at iliac crest.
Transverse fractures (62 B.1)
These fractures account for 5-17% of acetabular fractures where acetabulum is divided into a superior and inferior part. Direction of fracture line is variable in coronal and saggital planes (Fig. 6). Based on the level of fracture line compared to cotyloid fossa, transverse fractures are divided into three types:
Infrathecal: fracture through cotyloid fossa (B.1.1).
Juxtathecal: fracture through superior extent of cotyloid fossa (B.1.2).
Transthecal: fracture superior to cotyloid fossa and involves weight bearing dome (B.1.3).
To account for fractures with associated posterior wall fractures, modifier designated as “a” is added as follows:
a1: without posterior wall fracture
a2: with single fragment posterior wall fracture
a3: with multifragmentary posterior wall fracture
a4: with multifragmentary posterior wall fracture and marginal impaction
T-type fracture (62 B.2)
These fractures are similar to transverse variety with another vertical fracture line separating anterior and posterior segment of inferiorly. T-type fractures account for upto 7% acetabular fractures and when associated with posterior wall fracture, it carries worst prognosis of all subgroup of acetabular fractures. Posterior column with anterior hemitransverse fractures are also classified as T-type fractures.
The group classification and modifier for T-type fractures is similar to transverse variety thereby classifying them as infrathecal (B.2.1), juxtathecal (B.2.2) and transthecal (B.2.3) and all groups are further subgrouped based on location of vertical limb posterior (1), through (2) or anterior (3) to obturator foramen. A modifier “a” is added similar to transverse fractures to include associated posterior wall fracture (see above).
Anterior with posterior hemitransverse (62 B.3)
These are essentially variants of T-type fractures where anterior wall or column fracture is associated with transverse fracture in posterior half which is often undisplaced and almost always less displaced than anterior fracture. Frequently occurring in geriatric age group, these account for 7% cases of acetabular fractures. This fracture type frequently exibit marked anteromedial displacement which is significantly more than isolated anterior fractures. Furthermore, medial impaction of intact acetabular roof is often observed (gull wing sign) which imparts poorer prognosis.
These fractures are subgrouped according to type of anterior fracture as:
Anterior wall fracture (B.3.1)
High anterior column (B.3.2)
Low anterior column (B.3.3)
A modifier “a” is added to account for single (a1), two (a2) or multiple (a3) fragments of anterior segment.
Both column fracture (62 C)
These are complete articular injuries where no part of acetabulum maintains continuity with axial skeleton (floating acetabulum) (Fig. 7). Accounting for upto 23% of acetabular fractures, these are most common type of associated fracture of Letournel-Judet classification. Further group classification is based of level of anterior column fracture as high (C.1) or low (C.2) and involvement of sacroiliac joint by posterior column fracture (C.3). C.1 and C.2 are further subgrouped according to fractured segments in columns as single fragment in each segment (C.1.1 & C.2.1); two fragments in anterior segment (C.1.2 & C.2.2); and separate posterior wall fragment (C.1.3 & C.2.3). The group C.3 is subgrouped as C.3.1 with single fragment of posterior column; C.3.2 & C.3.3 with multiple fragments of posterior column with high or low anterior column respectively.
Conclusion
Fractures around hip joint are one of the most common and debilitating entities requiring intervention . These fractures encompass fractures of the pelvis and acetabulum. Health care providers must be trained and educated with scope of this problem as well as the basic types of these fractures and treatment they warrant. The clear distinction between energy levels of the injuries leading to these fractures should be understood and treatment given accordingly. This article briefly amalgamates these issues and gives pictorial examples to illustrate the specific points.
References
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2. Pennel GF, Davidson J, Garside H, et al. Results of treatment of acetabular fractures. Clin Orthop 1980;151:115–23.
3. Burgess AR, Eastridge BJ, Young JW, Ellison TS, Ellison PS Jr, Poka A, Bathon GH, Brumback RJ. Pelvic ring disruptions: effective classification system and treatment protocols. J Trauma. 1990 Jul;30(7):848-56.
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6. Müller E, ed. Comprehensive Classification of Pelvis and Acetabulum Fractures. Bern, Switzerland, Maurice E. Müller Foundation, 1995.
7. Judet R, Judet J, Letournel E. Fractures of the acetabulum: classification and surgical approaches for open reduction. J Bone Joint Surg [Am] 1964;46:1615–46.
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