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Article

Yoga-Related Injuries in Emergency Care: A Single-Center Analysis of 67 Cases

by
Jolanta Klukowska-Rötzler
*,
Céline D. Fäh
and
Mairi Ziaka
Department of Emergency Medicine, Inselspital, University Hospital Bern, University of Bern, 3010 Bern, Switzerland
*
Author to whom correspondence should be addressed.
Safety 2026, 12(1), 25; https://doi.org/10.3390/safety12010025
Submission received: 24 November 2025 / Revised: 14 January 2026 / Accepted: 4 February 2026 / Published: 7 February 2026

Abstract

Background: Yoga has gained popularity worldwide and is generally considered a safe physical activity. However, injuries associated with yoga practice are increasingly reported, while data on cases requiring emergency care remain limited. Methods: A retrospective single-center study was conducted, analyzing cases of yoga-related injuries treated at a Swiss emergency department between 2013 and 2023. Medical records of 67 adult patients (aged ≥16 years) were reviewed for demographics, injury characteristics, management, and clinical outcomes. The study population consisted predominantly of females (76.1%), with a median age of 35 years. Results: Most injuries were musculoskeletal in nature and predominantly affected a single body region (95.5%). The most frequently involved areas were the head (29.9%), lower extremities (25.4%), and spine (19.4%). Soft tissue injuries, particularly muscle and tendon strains as well as contusions, were most common. Injury patterns differed across subgroups: older patients were more likely to sustain head injuries, whereas younger individuals more frequently presented with extremity injuries, including the rare cases of fractures and dislocations. Conservative treatment was sufficient in 94% of cases, although 20.9% of patients required hospitalization. Conclusion: Yoga-related injuries presenting to emergency care are generally minor and mainly involve soft tissues; however, injury patterns vary across demographic subgroups. Older adults appear more susceptible to balance-related and head injuries, while younger practitioners are more prone to acute extremity trauma. Recognizing these population-specific differences may support targeted prevention strategies and safer yoga practice.

1. Introduction

The origins of Indian yoga reach back several millennia and recede into the obscurity of early history. What is certain, however, is that the Buddha (c. 500 BCE) was already trained in yogic practices and, in turn, played a formative role in shaping the early development of yoga [1]. Globally, yoga has become a widely practiced wellness activity, with more than 300 million practitioners worldwide. Participation rates vary across countries and remain higher among women, who account for approximately 70–80% of practitioners, although male participation has increased in recent years. In Switzerland, yoga is among the most commonly practiced physical activities, with participation continuing to rise, underscoring its growing relevance as a regular form of exercise [2,3]. Yoga is associated with multiple physical and mental health benefits, including improved flexibility, muscular strength, posture, and cardiovascular function, as well as stress reduction and enhanced psychological well-being [4,5,6,7,8,9,10,11,12,13]. Regular practice may alleviate back pain, improve circulation, and support emotional balance through controlled breathing, mindful movement, and meditation. These effects contribute to improved sleep quality, concentration, and overall mental resilience [8,9,10,14,15]. Despite its many health advantages, experts agree that excessive or improper practice can lead to injury. In the years 2001–2014, for example, nearly 30,000 individuals in the United States alone sought emergency department care for yoga-related injuries. This corresponds to approximately 2000 cases per year [16]. Swiss national data show that activities including yoga and Pilates account for fewer than 100 injuries per one million hours of practice, underscoring yoga’s overall safety while acknowledging that injuries may still occur and occasionally require medical care [17]. Reports and observational studies have described a wide range of yoga-related adverse events, from mild musculoskeletal pain to more severe conditions [18,19]. The most commonly affected areas include the cervical spine, shoulders, lower back, and knees [19,20,21]. Although serious complications—such as stroke resulting from carotid artery dissection—are extremely rare, they highlight the potential risks associated with practicing yoga beyond one’s physical limits [22,23]. Understanding both the benefits and possible risks of yoga is therefore essential for promoting safe participation and evidence-based instruction. Several risk factors contributing to yoga-related injuries have been identified and broadly categorized into external and internal factors [19,24,25,26]. External factors are primarily related to practice conditions and execution. Injuries often occur when practitioners attempt advanced postures without sufficient preparation, exceed their physical limits, or practice under inadequate supervision. Poor technique, failure to adapt poses to individual capabilities, and neglect of pre-existing musculoskeletal conditions further increase the likelihood of injury. In addition, practicing without adequate warm-up, forcing overstretching, holding extreme positions for prolonged periods, or ignoring early warning signs of pain have all been associated with adverse outcomes, including ligament sprains, muscle tears, and nerve compression [24,27]. These observations emphasize the importance of proper instruction, gradual progression, and individualized modifications to minimize injury risk. Internal factors include individual characteristics that may influence susceptibility to yoga-related injuries, particularly age, sex, and body mass index (BMI) [24,25,28]. Understanding how these characteristics interact with the physical demands of yoga is crucial for developing safer and more personalized practice recommendations. Age has been recognized as an important factor influencing yoga-related injuries. Epidemiological data from the United States demonstrated that the incidence of yoga-associated injuries increased eightfold among individuals aged 65 years and older compared with younger groups [2]. Moreover, clinical observations suggest that the distribution of injuries differs with age: practitioners aged 45 years and older more frequently experience injuries involving the hips and trunk, while younger participants are more prone to upper-extremity injuries [3]. High body mass index (BMI) has also been identified as a potential intrinsic factor increasing susceptibility to musculoskeletal injuries during physical activity. A European study by Bi et al. demonstrated that elevated BMI was associated with a higher overall risk of injury among physically active adults, suggesting that excess body weight can increase mechanical load on joints and reduce movement control [29]. Although yoga is generally considered a low-impact activity, similar biomechanical mechanisms may apply, particularly in poses that place sustained or asymmetric stress on the knees, shoulders, and spine. Consistent with this, a systematic review by Cramer et al. reported that yoga-related injuries most frequently involve the cervical spine, shoulders, lower back, and knees [19]. Although yoga-related injuries are often perceived as minor, they may be associated with relevant clinical consequences. A substantial proportion of patients presenting to emergency care require advanced diagnostics, inpatient treatment, or specialist referral, resulting in measurable healthcare utilization. Hospital admissions, prolonged length of stay, and associated medical costs highlight that even low-incidence injuries can place a non-negligible burden on emergency services and hospital resources. From a clinical perspective, this underscores the importance of understanding injury patterns, risk factors, and outcomes of yoga-related trauma in order to inform prevention strategies and optimize patient management. The aim of this study was to analyze the incidence, characteristics, and trends of yoga-related injuries among patients treated in the emergency department over an eleven-year period (2013–2023). We specifically hypothesized that injury patterns differ according to demographic characteristics, with older yoga practitioners (≥40 years) being more prone to head injuries, while younger individuals are more likely to sustain extremity injuries. Furthermore, we hypothesized that sex and body mass index (BMI) are associated with differences in injury distribution and severity. In addition, the study aimed to describe the most common injury mechanisms and anatomical locations, as well as clinical management and outcomes. By providing detailed epidemiological data from a hospital setting, this study aims to improve understanding of yoga-related trauma and to support the development of preventive strategies for safer yoga practice.

2. Materials and Methods

This descriptive retrospective study comprised adult patients (≥16 years) admitted to our emergency department (ED) in Berne, who presented between 2013 and 2023 with health problems or injuries clearly related to yoga practice and were eligible for inclusion in the study. “Clearly related to yoga practice” was defined as an acute injury or health problem that occurred during yoga practice or within seven days thereafter, for which yoga was explicitly documented in the medical record as the direct precipitating activity or mechanism of injury. Cases were included only when a clear temporal relationship and causal attribution to yoga could be verified from the clinical documentation. Presentations in which yoga was mentioned only as a background physical activity or where the causal relationship could not be clearly established were excluded. The data for this work were generated from the database of the management system of Berne University Hospital, Switzerland (Ecare, Turnhout, Belgium). Cases were excluded if there was no clear causal relationship to yoga practice, if the presentation occurred more than seven days after the inciting event, if the patient was younger than 16 years, or if general research consent was not provided. The seven-day threshold was applied to capture first emergency department presentations of acute yoga-related injuries and to avoid confounding by prior medical evaluation or treatment, which may influence injury assessment and outcomes. After applying these criteria, a total of 67 cases remained eligible for analysis. Yoga-related injuries were diagnostically classified based on the primary clinical diagnosis documented by the treating emergency physician at the time of presentation. Diagnoses were established according to standard clinical assessment, supported by imaging studies (e.g., X-ray, CT, MRI, or ultrasound) when indicated. Injuries were categorized into predefined diagnostic groups, including soft tissue injuries (e.g., muscle or tendon strains, sprains), contusions, fractures, joint dislocations, concussions, and other clinically relevant conditions. Only diagnoses directly attributable to the yoga-related incident were considered for classification. This approach was chosen to ensure consistency, transparency, and reproducibility of case classification in future studies.
The following clinical data were extracted from the medical database: diagnosis, aetiology of the accident, sustained type and site of injury, treatment performed, length of hospital stay and total costs pertaining to the case (ED visit, hospital stay and outpatient controls). The BMI was calculated using the height and body weight recorded in the patient’s medical chart. Demographic data such as age and gender were also included, as well as chronological data, such as month, day and time of arrival in the emergency department. Demographic variables such as age and gender were included, along with chronological parameters such as the month, day, and time of presentation to the emergency department. In addition, clinical and administrative data were collected, including the type of ED discipline, triage category, mode of presentation, whether shock room treatment was required, and mode of discharge.
Statistical analyses were performed using STATA version 18.1 (StataCorp, College Station, TX, USA). Continuous variables were reported either as means with standard deviations (SD) or as medians with interquartile ranges (IQR). Comparisons between two independent groups: sex: males vs. females; age groups 16–39 years old vs. 40 or older and BMI groups: underweight (BMI < 18.5 kg/m2) vs. normal weight (18.5–25 kg/m2) vs. overweight (>25 kg/m2) were assessed using the unpaired t-test for normally distributed data and the Wilcoxon rank-sum test for non-normally distributed data. Categorical variables were summarized as frequencies and percentages, and group differences were evaluated using the chi-square test. For comparisons involving more than two BMI categories, global group differences were initially assessed using chi-square tests or non-parametric tests, as appropriate. Given the exploratory nature of the study and the limited sample size, no formal post hoc pairwise comparisons with multiplicity adjustment were performed. For categorical variables, p-values were obtained using chi-square tests. In instances where expected frequencies were <5 (e.g., in some yearly or time-of-day subgroup analyses), Fisher’s exact test was additionally applied to confirm the results, with no discrepancies observed. Missing data were minimal and occurred only for selected variables. Analyses were performed using complete-case analysis, and no imputation methods were applied. The number of missing observations is reported where applicable.
The performance of this descriptive retrospective study was approved by the cantonal (district) ethics committee in Berne (No. Req-2023-00843). No individual informed consent was obtained. The analysis was carried out with anonymized data. The study follows the Strengthening the Reporting of Observational Studies in Epidemiology (STROBE) reporting guidelines.

3. Results

3.1. Demographics

Between 1 January 2013 and 31 December 2023, a total of 255 patients were identified as having yoga-related injuries or health problems associated with yoga practice. Excluded from the study were 188 patients whose admission was not directly linked to yoga activity, along with an additional 6 patients due to a lack of concordance with the general research consent. Ultimately, 67 patients who met all inclusion criteria were included in the final analysis.
A total of 67 participants were included, with 51 female and 16 male participants (76.1% female; p < 0.001), corresponding to a female-to-male ratio of approximately 3.2:1. The median age was 31 years (25–43) for female participants and 45 years (36.5–55.5) for male participants (p = 0.005). Participants aged ≥40 years were predominantly male (68.8% vs. 31.4% female; p = 0.008). There was a statistically significant difference in sex distribution across BMI categories (p = 0.008). All participants in the underweight group were female (100.0%), while the normal weight group was predominantly female (84.8% female, 15.2% male). In contrast, the overweight group had a nearly equal sex distribution, with 46.2% female and 53.8% male participants. This marked disparity in gender composition across the BMI groups underscores the significant association between BMI category and sex.

3.2. Discharge & Outcome

Of the 67 patients who presented to the ED with yoga-related injuries between 2013 and 2023, the majority (46 cases, 68.7%) were self-referrals (walk-in). Ambulance or air ambulance transport was the second most common admission route, accounting for 11 cases (16.4%) (Table 1). Inter-hospital transfers accounted for 5 cases (7.5%) and general practitioner (GP) referrals for 3 cases (4.5%). The remaining 2 patients (3.0%) were admitted by other means. A small number of patients (n = 2; 3.0%) required shock room evaluation upon arrival, indicating high-acuity presentations and the need for immediate resuscitative care. Given the wide clinical spectrum of yoga-related injuries, 14 patients (20.9%) required inpatient admission for further diagnostics and treatment following initial evaluation in the emergency department. Among these, three individuals (4.5%) were subsequently transferred to other hospitals for continued care. The remaining 51 patients (76.1%) were discharged home after completion of outpatient management. Most hospital admissions were to specialized departments, with the Neurology/Neurosurgery unit (n = 5; 35.7%) and General Internal Medicine (n = 4; 28.6%) being the most frequently involved, followed by Orthopedics (n = 3; 21.4%), Urology (n = 1; 7.1%), and the Intensive Care Unit (ICU) (n = 1; 7.1%). The variation in referral departments reflects the anatomical diversity and clinical complexity of injuries sustained during yoga practice. Comparing younger (16–39 years) and older (≥40 years) patients revealed several trends in presentation and outcomes (Table 1). Older patients were somewhat more likely to arrive via inter-hospital transfer or clinician referral (18.5% combined) than younger patients (5.0%), whereas younger individuals more often self-presented (75.0% vs. 59.3%). Similarly, a higher proportion of older patients required inpatient admission (25.9% vs. 17.5% in younger), although this difference was not statistically significant. Notably, the distribution of hospital departments for admissions differed by age: none of the younger patients were admitted to General Internal Medicine, whereas 57.1% of admitted older patients were (4 of 7 older admissions). Conversely, all Orthopedics admissions were among younger patients (42.9% of younger admissions vs. 0% of older), with this shift in referral service approaching significance (p = 0.056). Older patients also tended to have more serious presentations—for example, the only ICU admission in the cohort was an older patient (1/27, 3.7% of older group)—and they underwent MRI diagnostics more frequently (48.1% vs. 25.0% of younger, p = 0.050) (Supplementary Material Table S2).
ED presentation profile of normal-weight and overweight patients was similar—for example, 76.9% were discharged home and 23.1% admitted, almost identical to the normal-weight group (76.1% home, 23.9% admitted). There were notable demographic differences between female and male yoga-injury patients, but clinical outcomes were largely similar.
In total, 14 of 67 yoga-injury patients (20.9%) required hospitalization (Table 1), with a median inpatient stay of 5.5 days (interquartile range [IQR] 3–9 days). Stratifying by age, younger patients (16–39 years) versus older patients (≥40 years) had comparable lengths of stay (median 6 days [IQR 4–9] vs. 4 days [3,4,5,6,7,8,9,10,11,12,13,14,15], respectively; p = 0.303) (Supplementary Material Table S2). Similarly, female and male patients showed no large difference in stay duration (median 5.5 days [IQR 3–8] vs. 9.5 days [2.5–18]; p = 0.831), with 3 females and 2 males exceeding one week of hospitalization. By BMI category, no underweight patients (BMI < 18.5; n = 3) were hospitalized, whereas normal-weight and overweight individuals had median stays of 6 days [IQR 3–9] and 5 days [IQR 1–15], respectively (p = 0.697) (Supplementary Material Table S3). Only 4 normal-weight and 1 overweight patient experienced prolonged stays beyond 7 days.
Where documented in the medical records, contextual information regarding the circumstances under which injuries occurred was extracted and analyzed. In the majority of cases, the documented etiology of injury was classified as a self-inflicted accident, accounting for 63 patients (94.0%). In 18 cases (26.9%), the use of supportive equipment or aids during yoga practice was noted in the clinical records. Injuries involving another person were reported in only 2 cases (3.0%). No differences in the etiology of injuries were observed between age groups, sexes, or BMI subgroups.

3.3. Pattern of Injuries

The distribution of injury types was skewed toward isolated (monotrauma) injuries. Across the cohort, approximately 95.5% of patients sustained isolated injuries (Figure 1), whereas combined trauma occurred in only about 4.5% of cases. There were no statistically significant sex-, age-, and BMI-based differences in the monotrauma versus combined trauma distribution (Supplementary Material Tables S1–S3, Figure 2).
The most common injury sites were the head (29.9%), followed by the extremities (particularly the lower limbs, 25.4%) and spine (19.4%) (Table 1, Figure 1). Head injuries were significantly more common in the ≥40 group (44.4% vs. 20.0% in <40, p = 0.032), which aligns with the greater MRI utilization for older patients (48.1% vs. 25.0% in <40, p = 0.050) (Supplementary Material Table S2). In contrast, younger patients showed a propensity for extremity injuries: for instance, they sustained more lower limb traumas (32.5% vs. 14.8% in older) and were the only ones to suffer upper extremity injuries (7.5% vs. 0%). All four fractures in the series occurred in younger individuals, whereas no patients ≥40 sustained fractures. Similarly, all recorded joint dislocations (n = 2) were in the younger group. The types of injuries sustained were distributed in roughly the same pattern for women and men. For example, head trauma occurred in about one-third of both female and male patients (31.4% vs. 25.0%), and rates of spine trauma were nearly identical (19% in each). Male patients showed a tendency toward more frequent extremity injuries—e.g., 37.5% of males had lower extremity trauma vs. 21.6% of females, and 12.5% of males had shoulder injuries vs. 3.9% of females—but these differences were not statistically significant (Supplementary Material Table S1). Conversely, certain injuries were seen only in female patients: all four fractures in the cohort, both documented concussions, and both joint luxations occurred in women (0% incidence in men). Additionally, all four cases that ultimately required operative management were female patients. Both underweight patients accounted for two of the cohort’s head injuries, meaning 66.7% of underweight participants sustained head trauma (compared to 30.4% of normal-weight and 23.1% of overweight patients). The types of injuries and treatments were also comparable. Overweight patients had a slightly higher incidence of lower-limb injuries (30.8% vs. 26.1% in normal) and were equally likely to sustain spine injuries (15.4% vs. 21.7%), but these differences were minor. Notably, none of the overweight individuals sustained fractures or required operative treatment, whereas all four surgical cases occurred in normal-weight patients.

4. Discussion

Yoga arrived in Switzerland in the first half of the 20th century, introduced by travelers and spiritually interested individuals who had encountered the practice in India. In the 1940s and 1950s, the first yoga teachers began offering classes in big cities. A major milestone was the founding of the Swiss Yoga Association (Schweizer Yoga Verband) in 1965, which aimed to promote high-quality teacher training and to establish yoga as a holistic discipline [1]. In Switzerland, yoga has become increasingly popular not only as a lifestyle activity but also as a recognized method of health promotion and rehabilitation [30]. Many people practice yoga to improve physical fitness, reduce stress, and support mental well-being. Its therapeutic benefits—such as better posture, pain relief, and relaxation—are now widely acknowledged in the healthcare system. Several Swiss health insurance companies, particularly those offering complementary insurance plans, reimburse part of the costs of yoga classes, provided they are taught by certified instructors recognized by professional associations like the Swiss Yoga Association. Moreover, rehabilitation centers, hospitals, and wellness clinics across the country increasingly include yoga as part of integrated treatment programs for conditions such as back pain, burnout, or anxiety.
Published data on yoga-related injuries are scarce [16,31,32], particularly in Switzerland. Despite their rarity, such cases merit attention to improve awareness and prevention among yoga practitioners and healthcare providers. 2018 systematic review synthesized evidence from nine observational studies involving physically active individuals from the United States, Europe, Asia, and Australia, including more than 9000 yoga practitioners and a comparable cohort of over 9000 individuals participating in other sports [18,19]. The proportion of yoga practitioners reporting injuries or other adverse events was non-negligible; however, these events were predominantly mild and self-limiting. Moreover, the overall risk associated with yoga practice was found to be comparable to that of other forms of physical activity. The injury incidence for yoga was estimated at 1.45 cases per 1000 h of practice [19]. For comparison, 1000 h of running is associated with an estimated injury probability of approximately 2.5, soccer with 3.7, tennis with 5, and skiing with 8 [33]. With respect to mortality, the medical literature documents only a single fatal case to date [24].
In addition to variations in the anatomical distribution of injuries, meaningful international comparisons may be drawn with regard to injury incidence, population characteristics, and clinical management strategies. Large-scale database analyses from the United States and Canada report markedly higher absolute numbers of yoga-related injuries presenting to emergency departments, a finding that likely reflects differences in population size as well as broader inclusion criteria encompassing low-severity cases [16,32]. By contrast, data from European sources, including national injury surveillance in Switzerland, indicate a comparatively lower overall injury incidence, which is consistent with the relatively low rates observed in the present cohort [17].
Notable regional differences are also evident in the demographic profiles of injured practitioners. Studies from North America describe a higher proportion of older individuals and a wider body mass index spectrum, whereas the population examined in the current study consisted predominantly of young, female participants with normal body weight [16,33]. Such demographic disparities may contribute to differences in both injury mechanisms and injury severity.
With respect to clinical management, treatment approaches appear largely comparable across regions, with conservative therapy constituting the primary modality in most reports. This pattern is mirrored in our cohort, in which more than 90% of patients were managed non-operatively [16,19]. Nevertheless, the relatively elevated rate of hospital admission observed in the present study (20.9%) may reflect regional healthcare practices, including lower thresholds for inpatient monitoring and the utilization of advanced imaging modalities within Swiss emergency care settings.
Consistent with yoga’s generally low-impact nature, the vast majority of injuries observed in our study were musculoskeletal and considered relatively minor. The most common injury location was the head (around 30% of cases), followed by the lower extremities (25%) and the spine (including the cervical and lumbar segments, 20%). This contrasts with other studies, which report the trunk as the most commonly injured region [16]. Soft tissue injuries were predominant—particularly muscle or tendon strains (nearly 40% of all diagnoses)—as well as contusions (approximately 34%). In over 95% of cases these were isolated injuries, each affecting a single body region. Moreover, the clinical course was mild in the majority of incidents. Specifically, 94% of those injured were treated conservatively. Nevertheless, about one in five patients required hospitalization (20.9%), indicating that even seemingly trivial injuries may occasionally require observation or more intensive medical management. The trends observed in our study are consistent with reports in the literature. For example, a systematic review by Cramer et al. found that yoga-related injuries are predominantly minor musculoskeletal injuries [19]. These are most often sprains and strains of soft tissues, and the body regions most at risk include the cervical spine, shoulder girdle, lower back, and knee joints. Similarly, more recent research—such as an analysis by Bekhradi et al.—indicates that the lower extremities are a frequent site of yoga injuries: in one review, nearly two-thirds of all documented injuries involved the lower extremities [31]. These findings indicate that, although yoga-related injuries can occur, they are typically mild and self-limited, consistent with previous reports suggesting that such injuries are generally infrequent and predominantly involve soft-tissue damage [18,26,31]. In line with these observations, the most frequently reported yoga-related injuries involve the musculoskeletal system, typically manifesting as muscle strains and joint sprains, which account for approximately 30–45% of all yoga-related cases [16,18,28]. Such injuries usually occur when the normal range of motion is exceeded or when muscles and ligaments are overloaded. Other commonly described injuries include tendon damage and structural joint injuries, such as partial rotator cuff tears or Achilles tendon lesions, as well as cartilage injuries like meniscal tears or acetabular labrum tears [34]. Severe cases (e.g., dislocations or fractures) are rare but have been reported (such as kneecap dislocations or toe fractures). Severe injuries associated with yoga practice, although rare, have nonetheless been documented. For example, a 2016 case report described a young woman who sustained a quadriceps tendon rupture during practice [35]. Even more alarming is a 2015 case report detailing a femoral fracture-an injury involving the longest, strongest, and heaviest bone in the human body, typically occurring as a consequence of high-energy trauma such as motor vehicle accidents [36].
Paroxysmal episodes of vertigo occurred in 10 patients (age range 31–80 years), with two patients in the younger group and eight in the older group. Stroke and/or cerebral artery dissection were excluded in all cases. In four patients, the etiology was benign paroxysmal positional vertigo (BPPV); in one patient, vestibular migraine; in one, vestibular neuritis; and in one, a low-CSF (hypoliquor) syndrome. In the remaining three patients, the cause of vertigo remained unclear. In the cases of BPPV, the pathogenesis involves the migration of otoliths into the semicircular canals during head movements, which can occur in the context of yoga practice [37]. Extremely uncommon complications, such as vascular injuries (e.g., carotid artery dissection) or pneumomediastinum, have been reported only in exceptional cases involving improper or extreme postures [22,23]. In our study, a previously healthy 37-year-old woman developed acute vertigo, neck pain, and syncope immediately after a yoga class involving head and neck impact. Brain MRI demonstrated an acute right cerebellar infarction in the posterior circulation with initial imaging features suspicious for a right vertebral artery dissection. However, this differential diagnosis was not confirmed on follow-up imaging, including dedicated dissection sequences and ultrasonography. Nevertheless, cases of mechanical impingement of a vertebral artery without dissection during cervical extension and/or rotation, the so-called “beauty parlor stroke syndrome”, have been described. This phenomenon can lead to vertebrobasilar insufficiency, reduced perfusion of the posterior circulation, and subsequent stroke, and could therefore also explain our patient’s symptomatology [38,39,40]. Moreover, in a 39-year-old woman who presented to the ED with left-sided cervical pain and sensory disturbances in the left arm, a dissection of the left vertebral artery was diagnosed.
Yoga represents a multidimensional, evidence-based practice that can enhance both physical and psychological health in older adults. Studies consistently show improvements in balance, mobility, muscular strength, and flexibility, which translate into a reduced risk of falls and better functional independence [41]. Additionally, yoga-based interventions—including postural exercises, breathing techniques, and mindfulness components—have been associated with enhanced sleep quality, reduced symptoms of anxiety and depression, and improved overall well-being [42,43]. Emerging data further suggest modest positive effects on cognitive function, particularly in domains related to attention and executive control [43].
Although yoga contributes to reductions in chronic musculoskeletal pain and promotes more efficient movement patterns in daily activities, age remains an important factor influencing injury patterns, as advancing age is associated with a higher susceptibility to various types of injuries across multiple forms of physical activity. In our study patients aged ≥40 years experienced a disproportionately high rate of head injuries—more than double that of younger practitioners (44.4% vs. 20.0%, p = 0.032). This trend may reflect age-related declines in balance and vestibular function, which make older adults more susceptible to falls or positional vertigo during certain postures. Such a mechanism illustrates how age-related vestibular fragility can transform a routine inversion into a destabilizing event. In contrast, younger practitioners (<40 years) were more prone to injuries involving the extremities. All four fractures observed in our study, as well as both documented joint dislocations, occurred in individuals younger than 40, whereas none of the patients aged ≥40 sustained such injuries. This discrepancy may indicate that younger practitioners are more likely to engage in acrobatic, intense, or advanced yoga maneuvers that carry a higher risk of trauma, while older participants may favor gentler modifications. It is also possible that older practitioners exercise greater caution or have a lower threshold to discontinue a pose when discomfort arises, thereby avoiding certain high-impact injuries. Conversely, the absence of fractures among older individuals may simply reflect the limited number of severe cases in our series. Overall, these findings suggest that the rare occurrences of acute structural injuries—such as fractures or joint dislocations—tend to be confined to younger practitioners.
In the context of age as a risk factor for adverse events, hot yoga—also known as Bikram yoga—warrants separate consideration. This style is characterized by high-intensity practice performed in environments with extremely elevated ambient temperatures. Consequently, it is particularly unsuitable for older adults and individuals with comorbidities, for whom heat stress and cardiovascular strain may pose substantial health risks [24].
In addition to age, our findings suggest notable sex- and BMI-related differences in yoga injury patterns. Female practitioners constituted the majority of our cases (76%), which is expected given that women make up roughly 70–80% of yoga participants overall. However, given the small sample size and the predominance of female participants in our cohort, these sex-based patterns should be interpreted with caution, as our study population may not fully represent the broader yoga-practicing community. The observation that all serious injuries in the present cohort—including fractures and joint dislocations—occurred exclusively in women cannot be attributed solely to the higher prevalence of female yoga practitioners. Rather, this finding likely reflects an interaction between sex-specific physiological characteristics and practice-related behaviors inherent to yoga [44,45,46]. Indeed, prior epidemiological studies have similarly found that most yoga-related injuries involve women [47]. Notably, however, men and women in our cohort showed a comparable distribution of injured body regions (for example, similar rates of head and spinal injuries), yet all of the most severe injuries—every fracture, dislocation, and concussion—occurred in female patients. This discrepancy hints at intrinsic sex-based vulnerabilities in injury severity. Women generally exhibit greater baseline ligamentous laxity than men [48], which can predispose to joint instability (e.g., luxations) when extreme yoga postures push the limits of joint motion. They also tend to have lower bone mineral density than men and are more prone to osteoporosis as a group, especially if highly active or underweight. In athletic women, hormonal and nutritional factors associated with low body weight can compound this issue, leading to significantly elevated fracture risk—female athletes, for instance, suffer stress fractures at two to three times the rate of their male [44,45,46]. Additionally, women typically exhibit lower bone mineral density across the lifespan, which may increase susceptibility to fractures even in the context of low-energy mechanisms, such as falls or axial loading encountered during yoga posture [49,50,51]. Moreover, women are more likely to engage in flexibility-focused fitness activities like yoga, and this emphasis on extreme range of motion may itself contribute to injury patterns. All underweight individuals in our study (BMI < 18.5 kg/m2, all of them female) sustained head injuries—a disproportionately high rate (66.7%). This may be because very low BMI is associated with reduced muscle and fat mass, providing less cushioning during falls or inverted postures; in other words, an underweight person has “inadequate padding to cushion a fall,” which can make head trauma more likely [52]. By contrast, none of the overweight practitioners in our cohort sustained fractures or required surgical treatment, and their overall injury profile was similar to that of normal-weight individuals.
In a large exercise trial of overweight/obese adults, higher BMI emerged as a significant independent predictor of earlier and more frequent musculoskeletal injuries, whereas exercise exposure itself was not [52]. Importantly, the majority of injuries in that cohort involved weight-bearing lower-extremity joints (with knee injuries accounting for roughly one-third of the exercise-related cases) [52]. Similarly, a cross-sectional study of Alangari et al. found that individuals with obesity constituted the majority of patients with activity-related musculoskeletal injuries and that having a BMI > 35 kg/m2 was associated with nearly a threefold higher injury risk compared to normal-weight peers [53]. Biomechanically, excess body mass may increase mechanical loads on joints and challenge balance [54], which can amplify strain on the lower body during yoga postures and potentially accelerate overuse of weight-bearing structures. Nonetheless, yoga may also offer protective benefits for individuals with higher BMI by improving balance and postural control. In a randomized controlled trial, Jorrakate et al. demonstrated that a 4-week yoga program significantly enhanced static and dynamic balance in obese participants, reducing sway and improving single-leg stance stability [55]. Improved balance may, in turn, mitigate fall-related injury risk during physical activity. Thus, while excess body weight increases mechanical strain on joints, appropriately adapted yoga practice can simultaneously strengthen proprioceptive control and stability, contributing to safer movement patterns in this population.

4.1. Prevention

Given the observed heterogeneity in injury patterns across demographic subgroups, preventive strategies for yoga-related injuries should be tailored to specific populations and practice contexts rather than formulated as uniform recommendations. Practitioners aged 40 years and older appear particularly susceptible to balance-related incidents, head injuries, and vertigo. Preventive approaches in this group should emphasize postural stability, controlled transitions between postures, and avoidance of abrupt cervical movements. Inverted postures, rapid dynamic sequences, and prolonged cervical extension should be introduced cautiously, especially in individuals with vestibular symptoms or cardiovascular comorbidities. Balance training, chair-supported modifications, and slower-paced yoga styles may help reduce fall-related risks. Younger practitioners (<40 years), particularly those engaging in physically demanding or advanced styles, demonstrated a higher incidence of acute extremity injuries, including fractures and joint dislocations. Preventive strategies should focus on avoiding forced end-range positions, discouraging performance-oriented practice, and reinforcing active muscular engagement to enhance joint stability. Education on early signs of overuse or instability is especially relevant for individuals with high baseline flexibility. Female practitioners—who constituted the majority of injured individuals and accounted for all severe injuries in this cohort—may benefit from instruction prioritizing joint stability and strength over maximal flexibility. Given the higher prevalence of ligamentous laxity and lower bone mineral density in women, controlled movement patterns, adequate recovery, and avoidance of prolonged passive loading at extreme ranges of motion are recommended. Particular caution is warranted in individuals with low body weight, who may be more susceptible to head injuries following falls. Body mass index (BMI) should also be considered. While overweight practitioners may experience increased joint loading, no fractures or operative treatments occurred in this subgroup. Preventive efforts should therefore focus on balance training, gradual progression, and protection of weight-bearing joints, whereas underweight individuals may require additional caution during balance-challenging or inverted postures.
Individuals with specific medical conditions should seek guidance from both their physician and a qualified yoga teacher to adapt practice to their personal limitations—for example, patients with glaucoma should refrain from inverted poses, whereas those with low bone density should exercise caution with more dynamic forms of yoga.
Initially, in-person instruction is preferable; only after acquiring sufficient competence and body awareness should practitioners transition to independent training with video-based guidance. Ultimately, learning to recognize and respect one’s own physical limits remains the core principle of safe yoga practice. Certain practices—such as induced vomiting, historically mentioned in some traditional contexts—should be categorically avoided by all participants, as they pose clear health risks without conferring therapeutic benefit.

4.2. Limitations

This study has several important limitations. Its retrospective, single-center design limits both the completeness and the generalizability of the data. Mild injuries that did not require emergency department care and were likely managed by general practitioners or in outpatient settings are probably underrepresented, introducing a selection bias toward more severe cases. Moreover, contextual information such as yoga style, level of experience, and instructor qualification was often unavailable. Moreover, detailed information on specific practice conditions (e.g., supervision, environment, or exact posture at the time of injury) was inconsistently documented in the retrospective records, limiting a more granular analysis of contextual injury risk factors. Despite these limitations, the study provides valuable insights into the epidemiology of yoga-related injuries within a European clinical context.
Furthermore, our sample size was relatively small (n = 67) and predominantly female. This demographic skew and limited cohort size constrain the representativeness of our findings; as such, any observed associations should be interpreted with caution. Additionally, we lacked detailed data on participants’ yoga practice characteristics—including their experience level, as well as the intensity and frequency of their practice—which precluded analysis of how these factors might have influenced injury risk.

5. Conclusions

Yoga is commonly regarded as a safe and health-promoting form of physical activity; however, the present findings demonstrate that yoga-related injuries do occur and may occasionally require emergency department evaluation or hospitalization. Although most injuries are minor and amenable to conservative management, the variation in injury patterns observed across demographic subgroups highlights the need for targeted, population-specific prevention strategies rather than a one-size-fits-all approach. These subgroup differences were not limited to age, but also involved sex- and BMI-related patterns, as well as differences in injury severity and clinical management. Clinically, increased awareness of subgroup-specific risk profiles may support safer participation in yoga practice. Older practitioners appear particularly vulnerable to balance-related events and head injuries, underscoring the importance of controlled postural transitions, avoidance of advanced inversions, and appropriate instructional supervision. Conversely, younger individuals—especially women—may be at risk of less frequent but potentially more severe extremity injuries, suggesting that greater emphasis should be placed on joint stability, muscular strength, and avoidance of forced end-range postures. In addition, while most injuries were managed conservatively, a relevant proportion of patients required hospitalization, underscoring the potential clinical and healthcare implications of yoga-related injuries. From a public health perspective, the continued growth in yoga participation underscores the importance of understanding injury mechanisms and risk factors, even within activities traditionally perceived as low risk. Improved awareness among practitioners, instructors, and healthcare professionals may help reduce preventable injuries and the associated burden on healthcare systems.
Future research should prioritize multicenter, prospective studies to further elucidate the mechanisms of yoga-related injuries across different practice styles, experience levels, and supervision settings. In particular, biomechanical investigations and sex-specific analyses are warranted to inform evidence-based guidelines and enhance the overall safety of yoga practice.

Supplementary Materials

The following supporting information can be downloaded at https://www.mdpi.com/article/10.3390/safety12010025/s1, Table S1: Incidence of injuries and their statistical differences between women and men during yoga practice. Continuous variables are described with median (IQR), p-values obtained by Wilcoxon rank sum test. Categorical variables are shown with number (%) in each category, p-values obtained by Chi-squared test. Table S2: Incidence of injuries and their statistical differences between age groups (16–39 years old vs. ≥40 years old) during yoga practice. Continuous variables are described with median (IQR), p-values obtained by Wilcoxon rank sum test. Categorical variables are shown with number (%) in each category, p-values obtained by Chi-squared test. Table S3: Incidence of injuries and their statistical differences between BMI during yoga practice. Continuous variables are described with median (IQR), p-values obtained by Wilcoxon rank sum test. Categorical variables are shown with number (%) in each category, p-values obtained by Chi-squared test.

Author Contributions

Conceptualization, J.K.-R.; methodology, J.K.-R.; validation, J.K.-R. and M.Z.; formal analysis, C.D.F. and J.K.-R.; data curation, J.K.-R. and M.Z.; writing—original draft preparation, J.K.-R., C.D.F. and M.Z.; writing—review and editing, J.K.-R., C.D.F. and M.Z.; All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

The cantonal (district) ethics committee approved the study in Cantonal Ethics Committee in Bern (Switzerland) (Req-2023-00843) (Approval date: 6 July 2023). No individual informed consent was obtained.

Informed Consent Statement

Not applicable.

Data Availability Statement

The original contributions presented in this study are included in the article/Supplementary Material. Further inquiries can be directed to the corresponding author.

Conflicts of Interest

The authors declare no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
BMIbody mass index
EDEmergency Department
ICUIntensive Care Unit
IQRInterquartile Range
BPPVBenign Paroxysmal Positional Vertigo
GPgeneral practitioner

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Figure 1. Anatomical distribution and characteristics of yoga-related injuries presenting to the emergency department (n = 67). Head “Other” comprises non-traumatic neurological and vestibular conditions, including vertigo-related syndromes, cranial nerve disorders, headache-associated presentations, transient ischemic attack, ischemic stroke, and other clinically relevant non-traumatic diagnoses.
Figure 1. Anatomical distribution and characteristics of yoga-related injuries presenting to the emergency department (n = 67). Head “Other” comprises non-traumatic neurological and vestibular conditions, including vertigo-related syndromes, cranial nerve disorders, headache-associated presentations, transient ischemic attack, ischemic stroke, and other clinically relevant non-traumatic diagnoses.
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Figure 2. Composition of injury sites stratified by sex, age group, and body mass index (BMI).
Figure 2. Composition of injury sites stratified by sex, age group, and body mass index (BMI).
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Table 1. Frequency of Demographic and Injury Characteristics of Yoga-Related Injuries, 2013 to 2023 (n = 67).
Table 1. Frequency of Demographic and Injury Characteristics of Yoga-Related Injuries, 2013 to 2023 (n = 67).
Variablen%
Age
Mean 35
IQR 27; 48
67
Age group
16–39 years old4059.7
≥40 years old2740.3
Sex
Female5176.1
Male1623.9
BMI group
Underweight (BMI < 18.5 kg/m2)34.5
Normal Weight (18.5–25 kg/m2)4668.7
Overweight (>25 kg/m2)1319.4
Missing57.5
ED discipline
Low acuity treatment3349.3
Medical treatment2029.9
Surgical treatment1420.9
Triage
Acute life threatening34.5
High urgency1928.4
Urgency4059.7
Less urgency57.5
Shockroom treatment23
Way of presentation
Walk-in4668.7
Inter-hospital transfer57.5
GP referral34.5
Ambulance/Air Ambulance1116.4
Other23.0
Aetiology
Self-accident6394.0
Due to aids1826.9
By another person23.0
Diagnostic
Ultrasound11.5
X-Ray1522.4
CT57.5
MRI2334.3
Type of trauma
Isolated trauma6495.5
Combined trauma34.5
Injured site
Head trauma2029.9
Spine trauma1319.4
Chest trauma34.5
Abdomen trauma11.5
Pelvis trauma11.5
Lower extremity trauma1725.4
Shoulder trauma46.0
Upper extremity trauma34.5
Other trauma69.0
Diagnosis23.0
Wound46.0
Contusion2334.3
Distortion23.0
Luxation46.0
Fracture23.0
Concussion34.5
Muscle/tendon injury2638.8
Other diagnosis23.0
Treatment method
Conservative6394.0
Operative46.0
Way of discharge
Home5176.1
Hospitalized1420.9
Transfer to other hospital23.0
Admission hospital department
General Internal Medicine428.6
Neurology/Neurosurgery535.7
Intensive Care Unit17.1
Orthopedics321.4
Urology17.1
Length of stay in hospital days5.53; 9
Length of hospitalisation
1–3 days46.0
4–7 days57.5
8–14 days23.0
>14 days34.5
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Klukowska-Rötzler, J.; Fäh, C.D.; Ziaka, M. Yoga-Related Injuries in Emergency Care: A Single-Center Analysis of 67 Cases. Safety 2026, 12, 25. https://doi.org/10.3390/safety12010025

AMA Style

Klukowska-Rötzler J, Fäh CD, Ziaka M. Yoga-Related Injuries in Emergency Care: A Single-Center Analysis of 67 Cases. Safety. 2026; 12(1):25. https://doi.org/10.3390/safety12010025

Chicago/Turabian Style

Klukowska-Rötzler, Jolanta, Céline D. Fäh, and Mairi Ziaka. 2026. "Yoga-Related Injuries in Emergency Care: A Single-Center Analysis of 67 Cases" Safety 12, no. 1: 25. https://doi.org/10.3390/safety12010025

APA Style

Klukowska-Rötzler, J., Fäh, C. D., & Ziaka, M. (2026). Yoga-Related Injuries in Emergency Care: A Single-Center Analysis of 67 Cases. Safety, 12(1), 25. https://doi.org/10.3390/safety12010025

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