Camptocormia: New Signs in an Old Syndrome.

Camptocormia is defined as an involuntary flexion of the thoracolumbar spine, without fixed kyphosis, which increases during walking and standing, and abates in the supine position. First described during World War 1 in soldiers suffering from war psychoneuroses, camptocormia has progressively come to refer to any cause of trunk forward-flexed posture during standing and ambulation. It is now admitted that camptocormia should be considered as a syndrome related to many etiologies. In this chapter, we present the historical aspects of the syndrome and its main etiologies. We highlight camptocormia in Parkinson disease and its relationships with Pisa syndrome.

Usher Parsons (1788-1868) and His 19th-Century Understanding and Surgical Treatment of Spinal Curvatures.

Usher Parsons was a prominent surgeon in the 19th century. However, his contributions to the understanding and treatment of spinal curvatures have been largely forgotten. Herein, we review Parsons' theories, understanding, and treatment strategies for treating abnormal spinal curvatures. This glimpse into history offers insight into the thought processes and surgical strategies that were available in the early 19th century. It is pioneers in this field, such as Usher Parsons, on which our current understanding of spinal curvatures and its treatment is built.

History of spinal osteotomy.

Spinal deformity is one of the oldest known diseases with descriptions documented many of the earliest civilizations. Historical treatments have had little efficacy, especially in adults. However, in the modern era, there has been a rapid expansion of new technologies and surgical techniques aided by advances in supportive care that now allow the spinal surgeon to have powerful tools to correct spinal deformity. In this manuscript, we review the origins of spinal deformity surgery and the development of spinal instrumentation. The focus of the manuscript is to review the relationship of these developments to the implementation of spinal osteotomies for deformity correction.

The Moe Maximal Correction Test to determine true curve flexibility: a historical note with current application.

This is not a prospective randomized clinical trial or a consecutive case series, but rather the description of a technique developed years ago, but still applicable. As spine surgeons, we wish to know the true correctability of a curvature before determining the best method of treatment. Do we need to do a posterior surgery only? Do we need to do a combined anterior and posterior surgery? Do we need to place the patient in preoperative skeletal traction? Although many different techniques have been described for the determination of true curve flexibility, the Moe Maximal Correction Test has never before been described.

Thoracolumbar spinal deformity: Part I. A historical passage to 1990: historical vignette.

Seven millennia of anthropological artifacts and historical tales reference human spinal deformity, its diagnosis, and treatment-many of the latter of which turned out to be worse than the deformity itself. From Hippocrates to Harrington to the 21st century, the literature base has expanded in exponential fashion to yield an imperfect but constantly improving body of evidence, experience, and understanding of this challenging disease phenomenon. This review details the pre-1990 innovations, whose failures and successes have equally contributed to the advancement and dissemination of the increasingly evidence-based field of spinal deformity.

Thoracolumbar spinal deformity: Part II. Developments from 1990 to today: historical vignette.

In the first part of this 2-part historical review, the authors outlined the early diagnostic and therapeutic strategies used in the management of spinal deformity. In this second part, they expand upon those early innovations and further detail the advances from 1990 to the modern era.

History of the development of intraoperative spinal cord monitoring.

In the early 1970s, spinal instrumentation and aggressive surgical technology came into wide use for the treatment of severe spinal deformities. This background led to the development of intraoperative spinal cord monitoring by orthopaedic spine surgeons themselves. The author's group (T.T.) and Kurokawa's group invented a technology in 1972 to utilize the spinal cord evoked potential (SCEP) after direct stimulation of the spinal cord. In the United States, Nash and his group started to use SEPs. Following these developments, the Royal National Orthopaedic Hospital group of Stanmore, UK employed spinal somatosensory evoked potential in 1983. However, all of these methods were used to monitor sensory mediated tracts in the spinal cord. The only way to monitor motor function was the Wake up test developed by Vauzelle and Stagnara. In 1980, Merton and Morton reported a technology to stimulate the brain transcranially and opened the doors for motor tract monitoring. Presently, in the operating theatre, monitoring of motor-related functions is routinely performed. We have to remember that multidisciplinary support owing to the development of hardware and, software and the evolution of anesthesiology has made this possible. Furthermore, no single method can sufficiently cover the complex functions of the spinal cord. Multimodality combinations of the available technologies are considered necessary for practical and effective intra-operative monitoring (IOM). In this article, the most notable historic events and articles that are regarded as milestones in the development of IOM are reviewed.

Injuries and diseases of the spine in the ancient times.

Spinal injuries and diseases have been diagnosed and treated since antiquity. We attempt to record any available information in this area, starting from the prehistoric period and going up to Roman times. Thus, the main focus is on Hippocrates and Galen, who as the most eminent physicians of the ancient world, are presented through their work on spinal pathology. The epitome of their wisdom is to be found in Galen's works made available via Khun's edition (Leipzig, 1829) written in both ancient Greek and Latin. Galen not only presents the Hippocratic knowledge and comments on it, but adds his own opinions and thoughts.

History of surgery for the correction of spinal deformity.

During the last century the technological advances in the field of spinal surgery had a dramatic impact on the treatment of spinal deformity in children and adults. Before the advent of medications and vaccines to treat and/or prevent tuberculosis and poliomyelitis, patients suffering from these disorders often became incapacitated by the resulting kyphoscoliosis. In the early 1900s Lange began to address this problem mechanically by using foreign materials to stabilize the spine internally. In the 1950s and 1960s, owing to the efforts of Harrington and others, the process evolved to create the first generation of modern spinal instrumentation. The Harrington rod was able to correct a spinal deformity primarily through distraction. In the next wave of advances, some of the shortcomings of Harrington rods were addressed. Segmental fixation involving sublaminar wires was introduced in the 1970s by Luque. Anterior approaches and instrumentation-related techniques developed by Zielke and colleagues as well as Dywer and coworkers in the late 1960s and mid-1970s allowed for better correction of deformity with immobilization of fewer motion segments compared with posterior surgery. Transpedicular fixation of the spine was popularized by Cotrel and Dubousset in the 1980s; they used the technique to perform segmental stabilization, which better reduces the rotational aspect of a deformity. Finally, in the mid-1990s, thoracoscopic techniques were developed and are currently in use for anterior release and placement of instrumentation. The authors review the major technical developments for the surgical treatment of spinal deformity.