Gout often presents as acute arthritis but may also present with chronic joint inflammation. For the diagnosis of an acute gout attack with its typical symptoms, the differentiation towards a bacterial joint infection is critical and mandatory. The detection of intracellular uric acid crystals in the synovial fluid of affected joints is important for the initial diagnosis of gout. In the case of a chronic course with polyarticular joint involvement, the differentiation from other inflammatory rheumatic diseases such as rheumatoid arthritis (RA) can be challenging. The case presented here is of interest because the patient initially had characteristic clinical symptoms of tophaceous gout including a typical medical history—even though rheumatoid factor and anti-citrullinated protein antibodies (anti-CCP) were positive. The course of the disease and the critical evaluation of all findings also, and most interestingly, including histological results finally suggested a main diagnosis of RA.

Congenital fused/blocked vertebrae are an incidental finding in most cases. It remains asymptomatic unless there is a traumatic event or there is an increased biomechanical load which may be attributed to a task that is not typically performed by the individual. Symptomatic cases can present with several musculoskeletal symptoms including neck pain. Physiotherapy management strategies may help patients recover from the mechanical strains on the cervical neuromuscular structures. The present case is of a 21-year-old male engineering student who was referred for physiotherapy, he presented with complaints of neck pain (non-radiating in nature) for a week. The intensity of the pain had been intermittently increasing/decreasing for about a year and there were about 2–3 episodes in a month for approximately one year. He presented with an X-ray that showed C3–C4 cervical vertebrae synostosis (block vertebrae). The patient was managed using pain education and exercises along with ergonomic advice. Patient-reported pain decreased significantly from the initial visit and he was able to sit for a longer duration and had a considerable improvement in function.

Following anterior cruciate ligament (ACL) injury of the knee, the functional hop test (an averaging of 4 component hop tests including single-hop, triple-hop, cross-over-hop, and 6-meter-hop) is commonly used by sports medicine physicians, doctors of physical therapy, and athletic trainers in return-to-practice and return-to-play decision making. In this case report, the functional hop test was applied to a 31-year-old recreational basketball player status-post full-tear of the anterior talofibular ligament (ATFL) to examine the applicability of a standardized, efficient, and easy-to-administer functional test in making return-to-play decisions following an ankle injury. The functional hop test was administered 5 times across a treatment course of 11 physical therapy sessions emphasizing pain-free range of motion, baseline strength, weight-bearing loading, and sport-specific training. The functional hop test was found to be a helpful (albeit imperfect) tool for clinical decision-making following an ankle injury. Specifically, improvements in landing skill/confidence of single hop accounted for the greatest gains in total score in the early phase of rehabilitation, while momentum and plyometric skill/control of triple hop accounted for the greatest gains in total score in the later phase of rehabilitation. Modification of the functional hop test to include sub-component tests of strength, endurance, and/or lateral hops are discussed.

Hyperuricemia is known to be a necessary and causal condition for gout, but much more prevalent than gout. Medicine has standardized treatments for gout, but has no such determination for asymptomatic hyperuricemia. Nevertheless, people with hyperuricemia, gouty or not, too often continue to be at risk for shortened lifespans from life-threatening comorbidities, all of which are known to be consequences of obstructive sleep apnea (OSA), which is shown herein to cause most hyperuricemia. This review also presents the wide variety of OSA consequences, many of which are irreversible and life-threatening, as the rationale for treating all hyperuricemia (gouty and asymptomatic) by diagnostic testing and effective treatment for OSA as soon as hyperuricemia is detected. It advocates frequent ultrasonic screening for aggregated urate crystals. Multiple epidemiological studies have found OSA to be significantly more prevalent in those people with gout diagnosed with OSA than it is in those never diagnosed with it. A clinical study shows an even higher prevalence of OSA in people with gout. The pathophysiology of hypoxia from OSA explains how it would lead to both the overproduction and the underexcretion of uric acid, leading to hyperuricemia and the precipitation of monosodium urate crystals which cause a gout flare. Resolving OSA has been shown to prevent or even reverse life-threatening diseases that are recognized comorbidities of hyperuricemia and gout, and can prevent further gout flares. In order to extend the length and quality of life of people with gout or hyperuricemia, when either first manifests a patient sleep study is recommended, followed by effective OSA treatment as warranted.

Diffuse idiopathic skeletal hyperostosis (DISH) is a systemic condition characterized by the new bone formation and enthesopathies of the axial and peripheral skeleton. The diagnosis of DISH currently relies upon the end-stage radiographic criteria of Resnick and Niwayama, in which bridging osteophytes are present over at least four thoracic vertebras. The pathogenesis of DISH is not well understood, and it is currently considered a non-inflammatory condition with an underlying metabolic derangement. However, an inflammatory component was suggested due to the similarities between DISH and spondyloarthritis (SpA) in spinal and peripheral entheseal new bone formation. Magnetic resonance imaging (MRI) is the imaging modality of choice in the diagnostic work-up and follow-up of patients with SpA, as well as in understanding its pathogenesis. The aims of the current review were to evaluate the current and future role of MRI in imaging DISH.

Upon self-reflection, some clinicians privately confess a lack of confidence in being able to safely perform trigger point dry needling (TrPDN) or trigger point injection (TrPI) on craniofacial muscles. Procedural performance anxiety seems to be more pronounced relative to those muscles that cannot be palpated and/or have an increased risk of iatrogenic injury to neurovascular structures. Participatory action ultrasound imaging (PAUI) can be a useful tool in enhancing clinician confidence. A clinician-subject with a left lateral pterygoid trigger point was dry-needled under ultrasound guidance by a clinician-needler with extensive training and experience relative to evaluation and treatment of patients with craniofacial pain. Prior to PAUI, both the clinician-needler and clinician-observer describe low-to-moderate anxiety in the performance of TrPDN of the lateral pterygoid, using a lateral-to-medial approach. By contrast, both the clinician-needler and clinician-observer expressed high anxiety, objectively confirmed by the state-trait anxiety inventory (STAI) form Y-1 (STAI Y-1), in the performance of a newly learned cephalo-caudal approach. Following an initial round of clinical training without PAUI, subjective anxiety remained high despite a lower theoretical risk to the maxillary artery using the cepalo-caudal approach. A second round of training was performed with the addition of PAUI; the clinician-needler was able to reach the target tissue within 2 min in each of 3 attempts. Upon visual inspection and interpretation of the images and cine, the clinician-needler and clinician-observer both expressed a “significant” decrease in self-reported anxiety in performing the cephalo-caudal approach, objectively verified by improvements in the STAI Y-1 score of both clinicians. This case report presents PAUI as a means for future research and clinician education regarding risk assessment of TrPDN or TrPI of muscles with risk of iatrogenic injury.