
Discover breathing management techniques in one-to-one sessions with Just Breathe 101. Learn how respiration practices can dramatically improve patient outcomes and foster independence.
Examine the thoracic spine and thorax biomechanics, covering rotation at T1 to T3, rib and clavicle mechanics with shoulder elevation, and T9 costotransverse joint flexion and extension.
Explore the anatomy of the thoracic spine and rib cage, including elastic recoil for expiration, thoracic joints, intercostal nerves, and diaphragm dynamics at the circle lumbar junction.
Identify top four ribs of the shoulder girdle, locate the second rib, test rib translations 2–4, decompress nontranslating ribs by lifting, observe breathing changes, and translate to enable arm movement.
Release and mobilize the clavicle and first rib to improve shoulder alignment and breathing mechanics through controlled positioning, breath, and muscle release techniques.
Describe how translating and decompressing the ninth rib, then taping, breathing retraining, and core retraining restored pain-free supine lie, rotation, and daily activity after thoracic trauma.
Explore the thoracic biomechanics of the mid region, detailing rib rotation, translation, z joint closure during breathing, and why rotating first aids extension.
Understand the mechanics of quiet breathing—from diaphragm descent and bucket handle to pump handle rib motion—to nasal breathing benefits like enhanced oxygen exchange and calming parasympathetic response.
Explore how the diaphragm drives inspiration and trunk stability with the pelvic floor, transverse abdominis, and intercostals. It creates intra-abdominal pressure to support breathing, GI motility, venous return, and balance.
1. Describe suboptimal breathing patterns and their effect on the cervical spine and chronic pain.
2. Describe how the diaphragm can alter the thorocolumbar junction.
3. Describe how the dysfunctional breathing can alter incontinence and spine stability.
Explore how diaphragm dysfunction alters trunk stability, breathing patterns, and posture, and learn how targeted exhalation training and core activation can improve spinal alignment and function.
Learn how the diaphragm links to the lumbar spine through ligaments and the thoracolumbar fascia to shape spinal curves and posture, and how dysfunction promotes upper chest breathing.
Breathing alters balance through rib cage motion and center of pressure shifts, with ankle or hip strategies dissipating perturbations; low back pain heightens sway and signals need for balance training.
explain how scoliosis in the elderly affects posture and breathing, emphasizing diaphragmatic breathing, engagement of deep stabilizers, and improved chest expansion via the pop can analogy.
Explore how breathing patterns shape the cervical spine and upper extremity function, detailing nasal versus mouth breathing, forward head posture, and thoracic outlet related shoulder girdle mechanics.
Explore altered breathing patterns and somatic dysfunction, introducing how breathing affects body function and overall well-being.
Explore how breathing pattern disorders drive functional somatic syndromes through hyperventilation, CO2 shifts, and pH changes, linking anxiety, pain, and autonomic nervous system activity to conditions like fibromyalgia and IBS.
Explain the autonomic nervous system, including parasympathetic rest-and-digest functions and sympathetic fight-or-flight responses, and show how chronic stress drives rapid, shallow breathing and hyperarousal.
Learn to distinguish open mouth breathing causing upper chest rise from nasal breathing triggering diaphragmatic breathing with lower lateral costal expansion, using hands to feel rib movement.
Explore self-report tools for breathing management, including the Nijmegen questionnaire and the self-evaluation breathing questionnaire, to assess symptoms, monitor treatment outcomes, and differentiate breathing dysfunction.
Guide active range of motion, breathing and rib mobility to shift the tight pattern in fibromyalgia. After six weeks, she regained walking ability and sleep, with reduced pain.
Perform five hand-position breathing variations to slow breathing to three to seven breaths per minute, reduce anxiety, and promote daytime calm and sleep by activating the parasympathetic system.
Shift upper chest breathers to a lower breathing pattern by guiding rib-cage expansion with a hand under the thorax to the seventh rib, encouraging nose breathing and lateral costal breathing.
Identify central sleep apnea and its six forms—idiopathic, Shane Stokes breathing, non-Shane Stokes breathing, high altitude, drug-related, and infancy primary sleep apnea—and CSA accounts for 20 percent of sleep apnea.
Explore sleep apnea pathophysiology, including CO2-driven ventilation, threshold shifts between wakefulness and sleep, ventilatory instability and under response, and causes such as brainstem depression, drug use, obesity, and neuromuscular conditions.
Explore central sleep apnea symptoms like fatigue and morning headaches, how they differ from obstructive sleep apnea, and treatment options such as cpap, two-pressure devices, and servo ventilators.
Obstructive sleep apnea, the common form, involves airway collapse with respiratory effort and arousals, causing drops in oxygen saturation and sleep disruption. Obesity, neck circumference, and nasal obstruction increase risk.
Explore how the airway is a collapsible tube maintained by 20 muscles under the central nervous system, with obesity, enlarged tonsils, and supine lung changes raising obstructive sleep apnea risk.
Identify obstructive sleep apnea symptoms such as daytime sleepiness, snoring, nocturnal choking, and morning headache. Learn how these sleep disruptions relate to mood disorders, diabetes risk, and cardiovascular events.
Explore CPAP and APAP therapies for obstructive sleep apnea, comparing constant versus auto-adjusted airway pressure, and learn how education, nasal decongestants, humidification, and mask options boost adherence.
Explore essential breathing management for sleep apnea, including weight loss impact, sleep habit evaluation, and practical pharyngeal exercises such as tongue, soft palate, singing, and balloon breathing.
blowing up a balloon trains diaphragmatic breathing and expiratory muscles, helps maintain pharyngeal pressure for sleep apnea, and can be performed with tongue tip or mouth pressure for nasal breathing.
Explore the diaphragm's role in critical care, detailing its anatomy, innervation, and blood supply, and examine factors behind ICU-acquired weakness and the pros and cons of early mobilization.
Explore the diaphragm anatomy, including crura origins from L1–L3, central tendon, and the aortic, esophageal, and vena cava apertures, and learn how the frantic nerve from C3–C5 drives its function.
Explore how neurological and anatomical factors impair the diaphragm, focusing on phrenic nerve function from C3–5, and how injuries, diseases, and congenital hernias disrupt breathing.
Explore acquired diaphragmatic injuries from blunt trauma and vehicle collisions, highlighting left-sided predominance, associated injuries, and surgical repair options like laparoscopy and thoracotomy with favorable outcomes.
Explore pharmacologic prevention strategies for diaphragm weakness during ventilation, including short-term corticosteroids, vitamins E and C, and inspiratory muscle training to strengthen the diaphragm before and during ventilation.
Explore the evidence for early mobilization in the ICU and diaphragmatic retraining techniques, including tactile cueing, rib springing, and pursed-lip breathing, to improve breathing management and mobility.
Examine how a dysfunctional respiratory system alters athletic performance, the physiological response to Rubicon exercise on respiration, the effect of running on viscera and the diaphragm, and respiratory muscle fatigue.
Explore pulmonary ventilation, gas exchange, and cardiovascular adjustments that sustain oxygen delivery and carbon dioxide removal during exercise, from aerobic metabolism to the onset of lactic acid and anaerobic thresholds.
Learn how locomotor respiratory coupling shapes running breathing, with a step driven flow and a two to one breathing ratio that minimizes respiratory work and delays diaphragm fatigue during running.
A study of 26 swimmers shows that adding maximal inspiratory-expiratory training with a Spiro Tiger improves spinal curves. It strengthens trunk flexors and improves pulmonary function within four weeks.
Explore how high-intensity running induces core fatigue and how respiratory muscle work affects stability, showing inspiratory muscles support breathing and stability; recommend inspiratory muscle training to improve running fatigue resistance.
Explore how inspiratory muscle fatigue can trigger a metabolic reflex that constricts limb blood flow and increases exertion during maximal exercise, and how inspiratory muscle training improves endurance.
Assess altitude training for athletes, including high altitude risks such as pulmonary hypertension and edema, live-high train-low strategies, and the effects on VO2 max, hematology, and dyspnea under hypoxia.
Progesterone rises in the luteal phase, boosting breathing rate about 25 percent and oxygen demand, with up to 16 percent of cardiac output used by respiration, reducing leg muscle oxygen.
Balance deep core stability with superficial muscle system to avoid mobility restrictions, prevent respiratory fatigue from inhibiting the deep core, and sustain neuromuscular coordination for athletic performance.
Outline precautions for rib spraying techniques, noting osteoporosis and rheumatoid arthritis risks for long-term steroid users or post-radiation patients. Warns against rib spraying when metastases are present to prevent fractures.
Measure chest expansion to track progress, guide exercises, and document outcomes for charting, while illustrating how imagery can influence a patient’s voluntary breathing activity.
Teach lateral costal expansion to improve trunk stability by guiding manual rib mobilization and home breathing cues, emphasizing slow inhalations, diaphragmatic exhalation, and three to five breathing cycles.
Explore lateral trunk rotation and rib cage biomechanics, showing how coordinated inhalation and exhalation support posture and trunk extension while avoiding shoulder-driven rib movement.
Practice overhead breathing reach to promote lateral costal expansion and side flexion, with rib precautions for osteoporosis or rheumatoid arthritis, using paced nasal inhales and full exhales.
Practice the three sniff technique, a yoga-inspired exercise that promotes chest expansion by sniffing three times without exhaling, with arms raised laterally to enhance lateral costal expansion.
Master the modified pilates hundred in a seated or standing version, using a four-in four-out breathing pattern to drive diaphragmatic contraction, lateral costal expansion, and abdominal and transverse engagement.
Blowing up a balloon trains diaphragmatic breathing and expiratory resistance, strengthening throat muscles to help sleep apnea. Practice nasal breathing with tongue plug or mouth pressure, three times.
Master the seated breathing reach to support elderly patients and dissipate compression forces. Coordinate breath and reach to rotate the spine and increase lateral costal expansion four times a day.
Supine breathing reach lengthens hamstrings, expands the chest, and releases the diaphragm with arm and leg reach for balance. Four sets total; precautions for acute disc or nerve root.
Just Breathe 101 provides a comprehensive exploration of the vital role breathing plays in human health, movement, and clinical rehabilitation. This seminar series equips clinicians with essential knowledge and practical tools for identifying, evaluating, and treating Breathing Pattern Disorders (BPD). Restoring healthy breathing patterns is fundamental to spinal health, movement efficiency, and overall patient well-being.
How does breathing influence multiple body systems? What is the relationship between the diaphragm, the core, and functional movement?
These key questions—and more—are addressed throughout this in-depth study of respiration and its far-reaching effects on the body.
The thorax is central to both respiration and spinal function. As the hub for trunk rotation and the anchor for extensive muscular and fascial connections, it directly influences the cervical and lumbopelvic regions. Dysfunction in the respiratory system can compromise thoracic mobility and mechanics, disrupt trunk control and physiology, and diminish efficient movement patterns. The diaphragm plays a crucial dual role in respiration and posture, with strong muscular and neurological links to the lumbar spine, abdominals, and pelvic floor. Together, these structures regulate intra-abdominal pressure—a key contributor to spinal stability.
Altered breathing patterns—often driven by stress, pain, injury, lifestyle, or illness—can create systemic biochemical changes that negatively impact health. Breathing dysfunction is frequently overlooked as a root contributor to spinal issues and persistent pain patterns including fibromyalgia, chronic pelvic and chest pain, gastrointestinal discomfort, and chronic fatigue. Sleep apnea is increasingly recognized for its role in mood disorders, cardiovascular disease, and preventable accidents. In acute care settings, diaphragm dysfunction associated with mechanical ventilation is now a growing area of clinical focus.
A solid understanding of the respiratory system, thoracic anatomy, and biomechanics—and their integration with functional core stability—allows clinicians to appreciate how the thorax influences whole-body movement and performance.
This seminar includes demonstration videos covering rib mechanics, rib decompression, breathing retraining programs, clinical assessment, and treatment techniques. These strategies are applicable across a wide range of patient populations—from orthopedic and sports performance to chronic pain and critically ill patients.
Respiratory dysfunction, muscular imbalance, myofascial restrictions, chronic hyperventilation, impaired trunk control, and limited axial rotation can all significantly affect posture, stability, pain, and limb function. By the end of this course, participants will understand how to link breathing dysfunction with specific pathologies and apply targeted interventions to address them.
Learning Outcomes
Participants will learn to:
• Evaluate patients for Breathing Pattern Disorders
• Understand the widespread impact of dysfunctional breathing on multiple systems
• Treat Breathing Pattern Disorders using evidence-informed techniques and guided demonstrations
• Teach simple and effective exercises that patients can easily integrate into daily life