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DOPS treatments
| Question | Answer |
|---|---|
| Q: What are the precautions/contraindications for TENS? | A: Avoid over broken skin, sensory loss, pacemakers, epilepsy (head/neck), pregnancy, and suspected cancer. |
| Q: What is the rationale for using TENS? | A: To reduce pain without medication and improve movement. |
| Q: How does TENS work physiologically? | A: Activates pain gate and releases endorphins to block pain signals. |
| Q: What structures does TENS affect? | A: Sensory nerve fibres, spinal cord, and pain pathways. |
| Q: What are the key principles of TENS? | A: Correct electrode placement, strong but comfortable intensity, individualised settings. |
| Q: What are the precautions/contraindications for NMES? | A: Pacemakers, pregnancy, cancer, thrombosis, infection, epilepsy (head). |
| Q: What is the rationale for NMES? | A: Strengthening, muscle re-education, and improving circulation. |
| Q: How does NMES work physiologically? | A: Stimulates motor nerves to cause muscle contraction. |
| Q: What structures does NMES affect? | A: Motor nerves, muscles, neuromuscular junction. |
| Q: What are the key principles of NMES? | A: Place on muscle belly, match goal, encourage active contraction, progress gradually. |
| Q: What are the precautions/contraindications for ultrasound? | A: Avoid over cancer, infection, pacemaker, acute inflammation, reduced sensation. |
| Q: What is the rationale for ultrasound? | A: Reduce pain, improve healing, increase ROM. |
| Q: How does ultrasound work physiologically? | A: Thermal + non-thermal effects improve tissue healing and extensibility. |
| Q: What structures does ultrasound affect? | A: Tendons, ligaments, capsules, muscles, scar tissue. |
| Q: What are the key principles of ultrasound? | A: Use gel, keep probe moving, match settings to goal. |
| Q: What settings should the ultrasound machine be on? | time- 5mins per treatment head, mode- pulsed (we use this as its non-thermal), intensity- (0.4- acute, 0.6- sub-acute, 1- more/chronic), frequency- 3MHz or 1MHz (depending on depth, more superficial= 3) |
| Q: What settings should the TENS machine be on? | conventional (high)- frequency 150Hz, pulse width- 50-80 us, - 8 hrs. +, tingling/ pins and needles feeling acupuncture (low)- frequency 1-4 Hz, pulse width 200 us, -30 mins, sharp prickling sensation (v. strong) |
| Q: What settings should the NMES machine be on? | pulse duration- 300 us, frequency- 40 Hz, on/off time- 15/50 secs, treatment up to 4 times 15 mins daily |
| Q: What are the precautions/contraindications for heat? | A: Impaired sensation, infection, DVT, cancer, poor circulation. |
| Q: What is the rationale for heat? | A: Reduce pain, increase flexibility and blood flow. |
| Q: How does heat work physiologically? | A: Vasodilation and increased metabolism. |
| Q: What structures does heat affect? | A: Muscles, nerves, blood vessels. |
| Q: What are the key principles of heat? | A: Use 8 layers, monitor skin, avoid burns. |
| Q: What are the precautions/contraindications for cold? | A: Sensory loss, vascular disease, cold intolerance conditions. |
| Q: What is the rationale for cold? | A: Reduce swelling, pain, and inflammation. |
| Q: How does cold work physiologically? | A: Vasoconstriction and reduced metabolism. |
| Q: What structures does cold affect? | A: Nerves, muscles, blood vessels. |
| Q: What are the key principles of cold? | A: Use barrier, monitor skin, limit time. |
| Q: What are the precautions/contraindications of Stability & Trunk Control treatment? | A: Acute injury, severe pain, neurological decline. |
| Q: What is the rationale behind Stability & Trunk Control? | A: Improve spinal stability and reduce pain. |
| Q: How does Stability & Trunk Control work physiologically? | A: Improves neuromuscular control and endurance of stabilisers. |
| Q: What structures are affected in Stability & Trunk Control? | A: Core muscles, spine, CNS. |
| Q: What are the key principles for Stability & Trunk Control? | A: Start low-load, progress gradually, focus on control and alignment. |
| Q: What are the precautions/contraindications for manual strengthening? | A: Acute injury, inflammation, severe pain, infection. |
| Q: What is the rationale behind manual strengthening? | A: Improve strength, stability, and control. |
| Q: How does manual strengthening work physiologically? | A: Neural gains early, hypertrophy later, improved tendon strength. |
| Q: What structures are affected by manual strengthening? | A: Muscles, tendons, joints, nervous system. |
| Q: What are the key principles of manual strengthening? | A: Progressive overload, controlled resistance, pain monitoring. |
| Q: What are the precautions/contraindications of mechanical strengthening? | A: Unstable injury, acute inflammation, severe pain, DVT. |
| Q: What is the rationale behind mechanical strengthening? | A: Increase strength, function, and independence. |
| Q: How does mechanical strengthening work physiologically? | A: Neural adaptation, hypertrophy, bone and tissue strengthening. |
| Q: What structures are affected by mechanical strengthening? | A: Muscles, bones, joints, nervous system. |
| Q: What are the key principles in mechanical strengthening? | A: Progressive overload, FITT, correct technique, recovery. |
| Q: What are the precautions/contraindications of Secretion Clearance Techniques? | A: Severe respiratory or unstable conditions (e.g. pneumothorax). |
| Q: What is the rationale behind Secretion Clearance Techniques? | A: Move mucus for easier clearance. |
| Q: How does Secretion Clearance Techniques work physiologically? | A: Vibrations and airflow loosen and move secretions. |
| Q: What structures are affected by Secretion Clearance Techniques? | A: Airways, lungs, mucus. |
| Q: What are the key principles when using Secretion Clearance Techniques? | A: Correct positioning, timing with breathing, monitoring. |
| Q: What are the precautions/contraindications when positioning for VQ? | A: Avoid unsafe positions in unstable patients. |
| Q: What is the rationale behind positioning for VQ? | A: Improve gas exchange. |
| Q: How does positioning for VQ work physiologically? | A: Improves ventilation-perfusion matching using gravity. |
| Q: What structures are affected when using positioning for VQ? | A: Lungs, alveoli, blood vessels. |
| Q: What are the key principles behind positioning for VQ? | A: Place healthier lung down, ensure comfort and safety. |
| Q: What are the precautions/contraindications of balance re-education? | A: High fall risk, severe weakness—adapt tasks. |
| Q: What is the rationale behind balance re-education? | A: Improve stability and independence. |
| Q: How does balance re-education work physiologically? | A: Improves muscle control, coordination, and sensory integration. |
| Q: What structures are affected by balance re-education? | A: Muscles, joints, CNS, sensory systems. |
| Q: What are the key principles of balance re-education? | A: Functional tasks, gradual progression, safety, feedback. |
| Q: What are the precautions/contraindications of Positioning to Ease Breathlessness? | A: No absolute contraindications, but the position must suit the patient’s condition, comfort, and presentation. |
| Q: What is the rationale for using Positioning to Ease Breathlessness? | A: To reduce work of breathing by improving respiratory mechanics, diaphragm efficiency, and accessory muscle function. |
| Q: How does Positioning to Ease Breathlessness work physiologically? | A: Improves breathing mechanics, reduces abdominal pressure on the diaphragm, and enhances muscle efficiency. |
| Q: What structures are affected during Positioning to Ease Breathlessness? | A: Diaphragm, accessory breathing muscles, chest wall, and rib cage. |
| Q: What are the key principles in Positioning to Ease Breathlessness? | A: Ensure safe and supported positioning, individualise the position, fix upper limbs, and monitor continuously. |
| Q: What is the process of Positioning to Ease Breathlessness? | A: Explain and gain consent, position safely with support, ensure environment safety, monitor patient response, and leave them comfortable with appropriate advice. |
| Q: What are the key contraindications/precautions of using a Walking Aid Provision? | A: Acute illness, dizziness, confusion, inability to follow instructions; check footwear, environment, and aid safety. |
| Q: What is the main rationale behind Walking Aid Provision? | A: Improve safety, reduce falls, support weight-bearing, and increase independence. |
| Q: How does Walking Aid Provision work physiologically? | A: Increases stability, offloads limbs, improves gait, reduces effort, and boosts confidence. |
| Q: What structures are affected by Walking Aid Provision? | A: Lower limbs, upper limbs, trunk, and balance systems. |
| Q: What are the key principles of using a Walking Aid Provision? | A: Risk assess, fit correctly, ensure safety, assist movement, and progress appropriately. |
| Q: What is the basic process of Walking Aid Provision as a treatment? | A: Assess → fit → teach → monitor → progress/regress. |
| Q: Any extra info on walking aid provisions? | how to fit a walking aid- Handle at wrist crease, slight elbow bend. How to start standing with crutches- hold both in one hand (H-shape). How to begin walking- Small steps → progress to step-through. stair rule- “Good up, bad down,” crutches stay below. |
| Q: What are the precautions/contraindications of massage? | A: Skin damage, infection, DVT, cancer, acute inflammation, severe cardiac issues. |
| Q: What is the rationale behind massage? | A: Reduces pain, improves circulation, decreases muscle tension, aids recovery. |
| Q: What are the physiological effects of massage? | A: ↑ blood flow, ↑ lymph drainage, ↓ muscle tension, ↓ pain, promotes relaxation. |
| Q: What structures are affected by massage? | A: Muscles, skin, fascia, blood/lymph vessels, nerves. |
| Q: Key principles of massage? | A: Towards heart, start light → deeper, smooth continuous contact, relaxed positioning. |
| Q: Precautions/contraindications? | A: Acute injury, fracture, inflammation, bony restriction, compensatory tightness. |
| Q: Rationale behind stretching? | A: ↑ flexibility & ROM, reduce tightness, improve posture, prevent injury. |
| Q: Physiological effects of stretching? | A: ↑ muscle length, ↓ tension, ↑ ROM, improved circulation, GTO activation. |
| Q: Structures affected by stretching? | A: Muscles, tendons, joint capsule, fascia, nervous system. |
| Q: Principles of stretching? | A: Slow, controlled, 15–30s hold, no bouncing, stretch to tension not pain, repeat. |
| Q: Precautions/contraindications of PAIVMs? | A: Instability, fracture, inflammation, infection, malignancy. |
| Q: Rationales of PAIVMs? | A: Restore joint play, reduce pain, improve ROM and function. |
| Q: Physiological effects of PAIVMs? | A: ↓ pain (gate theory), ↑ ROM, ↓ stiffness, ↑ synovial fluid movement. |
| Q: Structures affected by PAIVMs? | A: Joint capsule, ligaments, cartilage, muscles, mechanoreceptors. |
| Q: Principles of PAIVMs? | A: Stabilise proximally, correct glide, pain-free, controlled oscillations. |
| Q: Precautions/contraindications of active assisted exercise? | A: Pain, instability, recent surgery, inflammation, open wounds. |
| Q: Rationale behind active assisted exercise? | A: Early muscle activation, maintain ROM, reduce stiffness, build confidence. |
| Q: Physiological effects of active assisted exercise? | A: ↑ circulation, ↑ muscle activation, prevent atrophy, maintain mobility. |
| Q: What structures are affected by active assisted exercise? | A: Muscles (activation, prevent atrophy), joints (maintain mobility), connective tissue (prevent stiffness), blood vessels (↑ circulation), nervous system (improves neuromuscular control). |
| Q: What principles are used for active assisted exercise? | A: Patient-assisted movement, controlled and pain-free range, correct positioning and support, gradual progression, clear communication, monitor response throughout. |
| Q: Precautions/contraindications for accessory mobilisations of peripheral joint? | A: Joint instability, fracture, acute inflammation, infection, malignancy, severe pain. |
| Q: Rationale behind accessory mobilisations of peripheral joint? | A: Restore joint play, improve ROM, reduce pain, improve function. |
| Q: Physiological effects of accessory mobilisations of peripheral joint? | A: ↓ pain (gate control), ↑ joint mobility, ↓ stiffness, ↑ synovial fluid movement, ↓ muscle guarding. |
| Q: What structures are affected by accessory mobilisations of peripheral joint? | A: Joint capsule, ligaments, cartilage, synovial membrane, surrounding muscles, mechanoreceptors. |
| Q: What principles are used when doing accessory mobilisations of peripheral joint? | A: Stabilise proximally, move distally, correct glide direction, pain-free range, controlled oscillations or holds, monitor response. |
| Q: Precautions/contraindications for positioning for gravity assisted drainage? | A: Severe breathlessness, unstable cardiovascular status, recent surgery, reflux risk, raised ICP, intolerance to position, young children. |
| Q: Rationale behind positioning for gravity assisted drainage? | A: Use gravity to assist movement of secretions from lungs to larger airways for easier clearance. |
| Q: Physiological effects behind positioning for gravity assisted drainage? | A: ↑ secretion drainage, ↑ ventilation distribution, ↓ work of breathing, improved gas exchange. |
| Q: What structures are affected when positioning for gravity assisted drainage? | A: Lungs (bronchi/airways), diaphragm, chest wall, respiratory muscles. |
| Q: What principles are used when positioning for gravity assisted drainage? | A: Position specific lung segments correctly, use gravity (head up/down as needed), ensure patient comfort and safety, monitor tolerance, combine with breathing techniques if appropriate. |