Open access peer-reviewed chapter

Brace Treatment for Adults with Spinal Deformities

Written By

Hans-Rudolf Weiss and Deborah Turnbull

Submitted: 21 June 2019 Reviewed: 30 March 2020 Published: 01 May 2020

DOI: 10.5772/intechopen.92321

From the Edited Volume

Spinal Deformities in Adolescents, Adults and Older Adults

Edited by Josette Bettany-Saltikov and Gokulakannan Kandasamy

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The bracing indication for adults with spinal deformities is two-fold: (1) pain and (2) deformity. Although pain is more frequent in the adult population with scoliosis, there is no correlation between the angle of curvature and pain intensity. Pain is reportedly more frequent in patients who were operated. Non-specific pain can successfully be treated with stabilisation exercises; however, some patients may need brace treatment to improve their pain. Today, with the help of a simple clinical test, we can distinguish between different types of lower back pain allowing a differential approach to the symptom. There is some evidence that pain can successfully be reduced by these approaches mainly influencing the sagittal profile. In patients with bigger deformities and in patients aiming at reducing their deformity, pattern-specific scoliosis braces are a successful choice according to published research cases. The different specific brace types/designs along with the differential indication for these brace types will be described in this chapter.


  • adult scoliosis
  • deformity
  • pain
  • brace treatment

1. Introduction

General remarks regarding chronic back pain have been reviewed in a previous study focussing on brace treatment for patients with spinal deformities [1]: within the adult population, certain complaints and diagnoses are increasing such as low back pain, degenerative scoliosis and spinal stenosis. The number of symptomatic patients with spinal stenosis complaints is not known but the main aims of interventions are to improve pain management, functional and lifestyle choices [2]. Spinal stenosis surgery is increasing, and in the 1980s and early 1990s, it is suggested by Ciol et al. [3] that the numbers increased eight-fold. It is controversial to assume that sedentary lifestyles contribute to back pain, but few discussions continue in this topic of research. It is hypothesised that there are negative consequences to this type of lifestyle, initially within muscles, which ultimately lead to compensation in the structure and function of connective tissue [4].

A sedentary choice in lifestyle may initially lead to a negative change in posture, such as a loss of lumbar lordosis. This postural position correlates significantly with a prevalence of lower back pain (LBP) and spinal claudication. In the adult population, lower back pain and spinal claudication can progress to degenerative, de novo scoliosis [5].

Research focusing on younger adolescent female patients [6] demonstrated that non-specific LBP is reported even in this younger age group, especially those reporting a family member with lower back pain.

In 60% of secondary school pupils and 32% of students, lower back pain was a reported symptom. A correlation between lower back pain and displaying a sedentary position (p < 0.001 for pupils, and p < 0.02 for other students), and smoking (p < 0.001 for students and p < 0.02 for pupils) has shown to be statistical significant in analysis [7].

Furthermore, a beneficial consequence of an increase in physical activity and leisure time has shown to reduce musculoskeletal morbidity in patients of working age, specifically in those who have sedentary jobs [8].

Postmenopausal women who have sedentary lifestyles may benefit from regular weight-bearing exercise not only to reduce their back complaints but also to slow down the loss of bone mass.

Some studies argue the contrary and do not support the hypothesis that sedentary lifestyle contributes to lower back pain [9, 10, 11]. In one study, the lordotic angle seemed to have no influence on the prevalence of low back pain [9]. The presence of lordosis and the angle of lordosis alone may not be the only influential cause, but more specifically, it is the location of lordosis and shape of the posture, specifically the lordosis in the upper lumbar section of the spine that has the most effect upon reported pain levels [12, 13].

‘Chronic low back pain’ is an umbrella term and relates to patients reporting pain in the lumbar or sacral region or even in the sacroiliac pelvic joints. As the pelvis may be involved, the iliolumbar ligaments and even some radicular symptoms may also add to the complexity of the source of pain. With the presence of radicular symptoms, the nerve root affected would determine the origin of the lower back pain [14].

Without the presence of radicular symptoms, chronic lower back pain cannot be caused by a specific nerve root and may have a more complex cause involving L5/S1 or L4/5, and or the pelvis joints or ligaments [14].

Chronic low back pain without radicular symptoms and without any other specific clinical finding (for example, spondylolisthesis) is not classified and attributed in international research as being ‘unspecific’ or ‘non-specific’. For bracing of this group of patients with chronic non-specific low back pain, simple physical tests have been published to predict the brace type the patient might benefit from. Based on the results of physical tests, a simple functional classification of ‘non-specific’ lower back pain has been developed [1].

In patients with scoliosis, besides the common cosmetics issues, pain is also a reported common issue [15]. Although back pain in patients with scoliosis is not related to the size of the curvature (Cobb angle) [16, 17], there is evidence that scoliosis patients experience statistically more back pain in later adulthood than age-matched controls [18, 19, 20, 21]. This back pain is not always disabling [19, 20, 21] and can be treated conservatively with reasonable success [16, 17, 22, 23]. While low back pain increases after surgery [24], pain in patients with scoliosis without surgery can be reduced with exercises, be it core stabilisation exercises [22, 23] or pattern-specific exercises (for example, Schroth) [16, 17].

In rare cases, the pain cannot be reduced using the functional exercise approach. For these cases, bracing can be successful [1, 12, 13, 25, 26, 27].

As outlined above in patients with scoliosis, we distinguish between different kinds of chronic back pain [28]. Most complaints come from the lower back region. Specific chronic low back pain stems from the lumbosacral region and can usually be referred to an injured or inflamed nerve root. This type of pain mainly is caused by a disc prolapse with compression of a nerve root. Specific low back pain needs a specific treatment in order to reduce the nerve compression and, commonly, surgical decompression in case of significant impairment of the nerve [28].

But as already outlined, non-specific chronic low back pain cannot be referred to a single nerve root. In patients with chronic non-specific low back pain, there may be functional impairments of the sacroiliac joints, lumbar facet joints, overuse of the iliolumbar ligament and spinal stenosis, relative or absolute. Psychological issues also play a role in the development of chronic non-specific low back pain [14, 28]. This also applies to patients with spinal deformities.

Functionally, we may distinguish between postural low back pain (PLBP) and instability low back pain (ILBP) [1] (Figure 1). While PLBP mainly is related to loss of lumbar lordosis in later adulthood, ILBP is related to joint laxity or a definite instability like in patients with spondylolisthesis. Combinations of both entities are also possible [1].

Figure 1.

The sagittal realignment test (SRT) seen on the left and the de-lordosation test (DT) with patient in the standing position. The sagittal realignment test (SRT)—a positive result in this test will present with an immediate reduction in chronic postural LBP (PLBP). The de-lordosation test (DT) pictured on the right—a positive result on this test will present with an immediate reduction in chronic LBP if this is due to instability low back pain (ILBP). Taken from [1] (Creative Commons Attribution Licence).

In a study from 2009 [26], 130 patients presenting with spinal deformities (ranging from middle aged to older adults of 69 years old) and chronic unspecific low back pain were tested, using brace treatment for their chronic lower back pain. 16 of these patients presented with symptoms of spinal claudication. The sagittal re-alignment test (SRT) was applied (a lumbar hyperextension test) and a ‘sagittal de-lordosation test’ (SDT) to each participant. In addition, three female patients with spondylolisthesis were tested, including one female with symptoms of spinal claudication. 117 of the 130 patients reported a significant pain reduction when the SRT was applied. 13 patients, when applying the SDT also had significant reductions in pain. Three out of 130 patients had no significant change in their pain levels in either test. Pain intensity for all participants was high prior to the physical tests (VRS scale 0–5) and low while performing the physical test. These differences in pain scores were highly significant in analysis. There was an exception in three patients (2.3%): a clear distribution to one of the two classes was possible. 117 patients were supplied successfully with a sagittal realignment brace and 13 with a sagittal de-lordosing brace. A clear distribution of the patients from this sample to either chronic postural or chronic instability back pain was possible. In 2.3%, a combined chronic low back pain was found. The authors concluded that chronic non-specific low back pain may be classified physically. The functional classification described is necessary to decide which specific conservative approach (lordosation/de-lordosation of the lumbar spine) should be used [1]. However, the topic spinal deformities in conjunction with brace treatment is not well established in the international literature and research. Therefore, a systematic PubMed review has been undertaken in order to find more studies with the aim to establish a scientific basis for treatment suggestions for this group of patients [15].


2. Results from a recent review

A PubMed review was undertaken on the April 28, 2019, using the key words: (1) scoliosis, pain, brace treatment and (2) scoliosis, pain, orthotics [15]. From both searches, the studies were extracted containing patients with the diagnosis of a scoliosis with additional chronic non-specific low back pain who were treated with a brace [15].

142 items have been found for search (1) and 111 for search (2) [15]. Nine items have been identified to fulfil the inclusion criteria from search (1) and six from the search (2). As most of the items were found in both searches, the total number of different items as found in both searches was 10 [1, 12, 26, 27, 29, 30, 31, 32, 33]. There were two pilot studies [12, 29] six case reports/case series [13, 27, 30, 31, 32, 33], one mid-term study [26] and one study containing a proposal for a simple classification allowing a specific approach for different types of low back pain as already outlined above [1].


3. Discussion

The authors discussed the findings as follows [15]: according to the papers found, there is little overall evidence and no high-quality research studies were found for bracing in relation to pain in this patient group. Only one study had a follow-up of more than 1 year (18 months) [26], allowing some initial conclusions that brace treatment might be effective in the treatment of chronic pain in patients with spinal deformities. In this mid-term study [26], a lumbar brace increasing lordosis was used with a successful outcome, while in a recent pilot investigation, a brace reducing lumbar lordosis was suggested [29]. In the latter study published in 2018, most of these earlier studies were not cited, nor was a differential indication of braces for chronic low back pain attempted or discussed [29].

Considering the facts that (1) in most scoliosis patients, a reduction of lumbar lordosis is evident [12, 25, 26, 34, 35, 36] and that (2) loss of lumbar lordosis is correlated to low back pain in adulthood [37, 38], the assumption that reducing lumbar lordosis is an appropriate approach, is not based upon any detailed reasoning or evidence, and even possibly worsen symptoms. Additionally, it has been shown that increasing lumbar lordosis stabilises or may even correct the three-dimensional scoliosis [25, 35]. Therefore, improving lumbar lordosis in this group of patients with scoliosis should be considered as an important issue to address in the initial stages of examination and related treatment. According to the findings within this review [1, 32], only in patients with chronic back pain due to vertebral instabilities, a brace reducing lumbar lordosis is indicated.

The success rate of brace treatment in patients with non-specific chronic low back pain in general does not appear to be significant, and compliance is generally described as moderate or poor [39, 40, 41]. A significant pain reduction has not been reported upon in most of the recent literature [41, 42].

In the mid-term follow-up of scoliosis patients treated with a sagittal re-alignment brace [26], there was a high compliance and a reasonable decrease of pain intensity and pain frequency (Figures 2 and 3). Patients who were able to feel the brace action and pain reduction before the start of brace treatment using clinical examination tests [1] may have resulted in an increase in compliance and success with treatment. In order to avoid costly brace treatment without any effect, it is suggested by the conclusions of this review, to test the patients for the most beneficial approach (lumbar lordosation/lumbar de-lordosation). When patients recognise that they can benefit from specific brace treatment, by an instant reduction in their pain symptoms, the matter of compliance may be vastly improved.

Figure 2.

Patient wearing a sagittal re-alignment brace. When the brace is adjusted to the patient, the main dorsal pressure should restore lordosis at the level of L2. Free space is necessary at the lower ribs while the pressure areas ventrally are located directly caudal of the pectoral region and cranial to the pubis. Taken from [26] (Creative Commons Attribution Licence).

Figure 3.

Design of the sagittal re-alignment brace as applied currently.

It seems important to note that true scoliosis is not easily correctable in adulthood, and therefore, specialists should be consulted when assessing these patients to ensure the examination and treatments are appropriate. In patients with an angle of trunk rotation (ATR) exceeding 10°, a pattern-specific brace is indicated [27, 31]. Symmetrical braces applied in patients with a significant rib hump/lumbar prominence will usually twist on the person’s trunk according to the asymmetry and torsion effect and therefore will not remain in the correct position, hence the need for individual bespoke fit. There are case reports and a recent report on a cohort treated with a pattern specific Chêneau style brace showing that with specific braces for lower back pain can successfully be reduced [27, 43].

There is a case study of a 37-year-old female patient with late-onset idiopathic scoliosis [27]. The patient had chronic low back pain since the age of 23 and reported daily pain at a level of 5–7 on average on a Visual Analogue Scale of 0–10. She received a short scoliosis-specific Schroth exercise programme and was also fitted with a Gensingen brace (GBW) for part-time wear. At a 16-month follow-up, the patient no longer suffered from daily low back pain (with heavy lifting only) and was fully active. Additionally, her lumbar Cobb angle and angle of trunk rotation improved. The authors concluded that patients with late-onset idiopathic scoliosis and may benefit from a pattern-specific conservative treatment approach (physiotherapy and bracing). In this population, surgical intervention should be regarded as the last resort, since there are many long-term unknowns with surgery in patients with scoliosis [44, 45, 46, 47, 48, 49, 50, 51] (Figure 4).

Figure 4.

Left: clinical appearance of the trunk at the start of treatment; middle: X-ray at the start of treatment and on the right: Gensingen brace (GBW) as constructed for the patient. Reproduced with permission of the Society of Physical Therapy Science from [27].

Widjaja and Varani [43] investigated adolescent idiopathic scoliosis patients with a single lumbar curve pattern who wore a Gensingen Brace (GBW), which is a Chêneau style brace of standardised computer aided design (CAD). They included more mature or adult patients with a Risser sign of IV or V. The in-brace Cobb angle corrections were measured, and patients were monitored for 6 months after brace initiation in order to analyse the effects.

A total of 26 patients have been included. The average age was 17.7 years and the oldest patient from the study was 40 years. The average Cobb angle was 41.5° before treatment (20–72°). 19 patients from this study (73.1%) had chronic low back pain of various degrees before treatment and seven patients (26.9%) were asymptomatic but seeking treatment because of cosmetic reasons.

In-brace correction was 67%. At 6 months follow-up, correction without brace was 23% and the average Cobb angle was 33.2°. About 12 patients (54.5%) had a significant correction of >20%. After 6 months, all previously symptomatic patients reported that they no longer experienced low back pain.

As the GBW is a brace to increase lordosis of the lumbar spine from the results of this latter study [43], we may assume that in scoliosis patients with chronic low back pain, the re-alignment or increase of lumbar lordosis can be regarded as being highly effective with respect to pain reduction.

Although spinal claudication may arise from narrowing of the spinal canal, not all patients with narrowing develop symptoms [13]. The reason why some patients develop symptomatic stenosis and others do not is still unknown. Therefore, the term lumbar spinal stenosis refers to a clinical syndrome of lower extremity pain caused by mechanical compression on the neural elements or their blood supply [13]. A 47-year-old woman with a 55° lumbar scoliosis, 30° upper lumbar kyphosis, and highest pain levels under medication (Durogesic, 25 mg; Ibuprofen, 800 mg; and Mirtazapine, 15 mg) was treated with a sagittal re-alignment brace [13]. This patient is pictured in Figure 2. Self-reported walking distance was at around 800 m before the pain was referred to be ‘unbearable’ (since 5 years). Patient-reported walking distance was recorded in the brace 2 days and 10 days after adjustment. Walking distance increased to around 8000 m after 2 days and to around 12,000 after 10 days while pain intensity decreased only one point in the VRS, however now without any medication. The authors concluded: in contrary to current hypotheses about the aetiology of spinal claudication, augmentation of lordosis may lead to a significant improvement of symptoms associated with spinal stenosis and lumbar scoliosis. The brace used in this case was a physio-logic brace™ that increases lumbar lordosis [13].

In another case report, brace treatment for spinal claudication following severe spondylolisthesis has been described [32]: a 14-year-old girl with a 25° thoracic scoliosis (2 years post menarche), grade IV spondylolisthesis and spinal claudication underwent treatment with a spondylogic™ brace reducing lumbar lordosis (Figure 5). Walking distance without brace was at around 300 steps before intolerable pain was reported. Self-reported walking distance was recorded in the brace 14 days after adjustment. Walking distance increased to an unlimited number of steps after 14 days, while pain intensity decreased three points in the VRS. However, no correction effect of the orthosis on the degree of slippage was found. Although there is evidence that pain in patients with spondylolisthesis can be reduced using exercises and bracing in mild to moderate symptomatic cases, this case demonstrates that bracing can also improve signs and symptoms of spinal claudication in patients with spondylolisthesis of higher degrees [32].

Figure 5.

The spondylogic® brace design. This 14-year-old patient has a scoliosis of <25° and a symptomatic (presenting with lower back pain) spondylolisthesis. Immediate in-brace pain relief was reported, and spinal stenosis symptoms also reduced. The patient wore the brace full-time when walking and standing to manage her pain. Further long-term effects from this brace design have not been researched at present. Taken from [1] (Creative Commons Attribution Licence).

These cases show that there is not a single brace covering the necessary principles of correction for all patients with scoliosis and chronic low back pain. Soft braces are insufficient in their action on the stiff deformity of adult scoliosis patients and therefore, cannot be regarded as effective tools for the treatment of chronic low back pain in scoliosis patients [15]. Hard braces have shown effectiveness and fulfil all possible treatment requirements [1, 26, 27, 43].

A simple clinical test enables the specialised physician to estimate the appropriate approach of bracing, increasing or decreasing lumbar lordosis [1]. In patients with more significant deformities and chronic low back pain, specific braces are indicated that allow a stable positioning of the brace on the patient’s trunk [27, 43]. However, severely stiff and vast deformities may not be successfully treated by any type of brace (Figure 6). Therefore, mobility needs to be tested prior to bracing in order to avoid unnecessary treatment and costs.

Figure 6.

Excessively stiff curves with huge complex deviations cannot be treated by specific bracing. Usually no correction is achievable: (a) view from the rear, (b) view from oblique left and (c) view from oblique right.

In view of these findings, only pattern-specific braces or symmetric braces influencing the sagittal profile can be recommended. In general, however, braces without any visible effect on the deformity continue to be prescribed [52] obviously just immobilising the spine (Figure 7). This approach today should be regarded as being outdated.

Figure 7.

Brace for an adult with pain. No correction visible, just immobilisation of the spine. This unspecific design could be regarded as outdated. Taken from [52] (Creative Commons Attribution Licence).

Patients with thoracic kyphosis in later adulthood may suffer from chronic pain in the thoracic region related to facet joint degeneration and functional impairment of the adjacent ribs. When functional treatment including physiotherapy and spinal manipulation do not reduce the symptoms satisfactorily, brace treatment can also be trialled (Figure 8). When passive correction of a thoracic kyphosis leads to significant pain reduction, a brace to reduce thoracic kyphosis may be prescribed. A standardised bracing approach to correct a thoracic kyphosis has been described in literature [53].

Figure 8.

Patient in a Kyphologic brace™ that may also be used in patients with chronic back pain in the thoracic area. Taken from [53] (Creative Commons Attribution Licence).

Adult patients may experience deformity-related stress and lack of general participation in activities because of their deformity. This fact may be measured and monitored with health-related quality of life questionnaires [54, 55, 56, 57].

Freidel et al. investigated women with idiopathic scoliosis with the help of age-appropriate health-related quality of life questionnaires (either the 36-Item Short-Form Health Status Survey, SF-36, or the Berner Questionnaire for Well-Being) [54]. The results from this sample were compared with general population norms. In univariate and multivariate analyses, it was determined whether age, Cobb angle, and brace use had an impact on health-related quality of life.

Compared with the age-matched general population norm, adolescent patients with idiopathic scoliosis reported to be less happy (P = 0.001). They reported more physical complaints (P < 0.001) and had lower self-esteem (P = 0.01) and higher depression scores (P = 0.021). Adult patients reported more psychological (P < 0.001) and physical impairment than in the population norm (P < 0.001). These results were largely independent of age and Cobb angle.

The authors concluded as follows: the results show that health-related quality of life can be impaired in patients with idiopathic scoliosis. Therefore, the psychosocial situation should be considered in the treatment of these patients [54].

Patients who experienced less body asymmetry were more satisfied with treatment and had a better quality of life [56]. This fact might indicate that quality of life is also related to curve patterns. While combined patterns of curvature (double major) are more compensated and present with less body asymmetry, single curve patterns are more decompensated with significant body asymmetry possibly leading to decreased quality of life.

While there is some evidence that cosmetic improvements can be achieved with pattern specific braces in childhood and adolescence [58, 59, 60, 61], there is no literature to be found in PubMed on adult patients with spinal deformities and improved trunk deformity after brace treatment. Nevertheless, there are case reports of adult patients showing a significant improvement of trunk asymmetry and balance (Figures 9 and 10). Therefore, high correction bracing should be tried in patients with reduced quality of life because of their trunk deformity. As to the experience of the first author, such improvements cannot be obtained in all adult scoliosis cases.

Figure 9.

A 23-year-old woman with a cobb angle of 60° at the start of treatment with a Gensingen brace without significant improvement of cobb angle, however with a clear cosmetic improvement showing a more balanced posture after 12 months of conservative treatment. With kind permission from Dr. Budi S. Widjaja, Jakarta, Indonesia.

Figure 10.

An 18-month follow-up of a 20-year-old woman with a cobb angle of 52° at the start of the treatment with a Gensingen brace and a final cobb of 36°. A clear cosmetic improvement has been obtained. Courtesy of Dr. Budi S. Widjaja, Jakarta, Indonesia.

On the other hand, the cosmetic effects as achieved with the help of spinal fusion surgery are not stable in the mid- or long term [48, 49, 50]. Therefore, besides offering psychological support also pattern-specific brace treatment may be tried before a decision for invasive surgery is made.

It is important to note that brace treatment in later adulthood must be accompanied by a specific daily physical exercise programme. It can be argued that brace wearing does not affect the postural muscles, when in the contrary postural muscle activity is increased while brace wearing [62, 63]. However, the reduction of mobility while wearing the brace may reduce bone mass, especially in postmenopausal women [64, 65, 66]. Therefore, regular trabecular loading should be preserved in order to keep bone mass. For patients wearing a brace for some hours per day a Qi Gong, Tai Chi or a Yoga programme involving exercises to mobilise and load the spine in all directions could be beneficial.


4. Conclusions

In adult patients with spinal deformities bracing may be indicated for pain and deformity. Soft braces are not useful for patients with stiff spinal deformities. The appropriate bracing approach can be tested before the brace is prescribed. There is some evidence that pain can successfully be reduced by these approaches mainly influencing the sagittal profile. In patients with bigger deformities and in patients aiming at reducing their deformity, pattern-specific scoliosis braces according to published cases have shown to be successful. There is no high-quality evidence supporting brace treatment for adult patients with spinal deformities; however, the existing evidence is promising.



Written informed consent for publication of the patient’s information (X-rays, photos, records, etc.) has been obtained from the patients or their parents. HRW provided the first draft and made the literature review. DT contributed to the improvement of the first draft and copyedited the final version. Some parts of the text have been reproduced with permission of the Society of Physical Therapy Science from [15]. More comprehensive information may also be found in [67].


Conflict of interest

HRW is receiving financial support for attending symposia and has received royalties from Koob GmbH & Co KG. The company is held by the spouse of HRW. HRW holds a patent on a sagittal realignment brace (EP 1604624 A1). DT is employed by an orthotic company who make orthotics, including spinal bracing.


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Written By

Hans-Rudolf Weiss and Deborah Turnbull

Submitted: 21 June 2019 Reviewed: 30 March 2020 Published: 01 May 2020