• General
  Height 5’ 9” / 175 cm1
  Wireless and tetherless2,3
  Microsoft Surface Pro preloaded with UNI® 3
  Unified Simulator Control Software
  HAL S5301 Simulation Learning
  Experiences™ scenario package
  Bluetooth, Gaumard RF, and wired connectivity4
  Compatible with Gaumard Ultrasound™
  Compatible with Care in Motion™
  Available in light, medium, or dark
  skin tone at no extra charge5

• Neurological
  Active eye movement and object tracking
  Wireless streaming voice⁶
  Active neck movement and mouth movement
  Active facial expressions; left facial droop, right
  facial droop, pained, quizzical, scared, smiling
  Active emotional states: normal, worried, anxious
  Right arm motor reflex: shake hand, squeeze
  hand, raise arm, withdrawal response, and
  abnormal posturing (decorticate/ decerebrate)
  Stroke clinical presentations: facial droop,
  weakness in the right arm, abnormal
  posturing, and pain response
  Pressure sensitive sites: bilateral supraorbital notch,
  trapezius pinch (left shoulder), sternal rub, and
  right middle finger nailbed
  Train-of-Four monitoring using real devices
  Partial tonic-clonic and non-tonic-clonic seizures
  Sweating (diaphoresis) and tears

• Airway
  Airway management: ETT, SGA, OPA, NPA⁷
  Tongue edema, laryngospasms,
  and pharyngeal swelling
  Tracheotomy, cricothyrotomy,
  and retrograde intubation

• Breathing
  Spontaneous breathing
  Four anterior and posterior lung auscultation
  fields; new lung sound library
  Supports standard mechanical ventilators,
  modes of ventilation, weaning/liberation
  protocols; no calibration, proprietary adapters,
  or external converter adjuncts required
  Variable lung unit compliance, variable,
  bilateral and unilateral bronchi resistance,
  Inspiratory effort and rate, respiratory
  drive, real CO2 exhalation, Auto-PEEP
  Left hemo/pneumothorax
  Needle thoracentesis
  Presents capnography waveforms on real
  devices, including “shark fin” waveform

• Cardiac
  Aortic, pulmonic, tricuspid, and mitral
  auscultation fields and new heart sound library
  Monitor vitals with real devices: 4-lead
  ECG, 12-lead ECG, pulse oximeter,
  NIBP/IBP monitor, capnograph
  ECG-derived respiratory monitoring
  UNI® 3D Myocardial Infarction Model
  UNI® 12-lead ECG waveform designer
  Defibrillation and pacing with live energy
  Anterior/lateral and anterior/posterior
  defibrillator pad placement
  Real-time CPR quality feedback
  Bilateral palpable pulses: carotid, brachial,
  radial, femoral, popliteal, pedal
  Circumoral skin coloration
  Bilateral IV access sites
  Radial arterial access site supports catheterization,
  flashback, sampling, and IBP monitoring
  Antecubital vein blood draw site on left arm
  Automatic virtual drug recognition at lower left arm
  Fingerstick glucose testing on the left index finger
  Tibia and humeral intraosseous access and infusion
  Capillary refill time testing at right middle finger

• Genitourinary
  Male urinary catheterization with fluid return
  Computer-controlled urinary output rate
  and urine and/or blood mixture
  Internal, auto-refilling 0.7-liter urine reservoir

• Gastrointestinal
  Four bowel auscultation fields and
  new bowel sound library
  Gastric distention

• Trauma
  Internal, auto-refilling 1.2-liter blood reservoir
  Abdominal bleeding wound responds
  to pressure and packing
  Optional trauma arm and trauma leg
  accessories feature bleeding wound and
  tourniquet placement detection

Introducing a new level of fidelity in neurological emergency simulation.

• HAL introduces the latest innovations in robotics to simulate lifelike symptoms of a neurological emergency and enables team-based training through patient assessment and treatment without interruption. New features like facial droop and arm motor control reproduce the progression of a stroke, helping teams train in time-dependent clinical skills and teamwork.
  1. Verbal and Non-verbal Communication HAL S5301 combines streaming audio, facial expressions, and realistic movement to make interacting with providers more natural, helping them to develop an understanding of non-verbal communication cues.
  2. Active motor function Right arm motor reflex: shake hand, squeeze hand, raise arm, withdrawal response, and abnormal posturing. Head and eyes turn toward the provider speaking.
  3. Abnormal eye movements Consensual and nonconsensual pupillary response to light stimuli. Abnormal eye movements include strabismus, ptosis, and more.
  4. Dynamic facial expressions Lifelike facial droop and smiling, pained, quizzical, and scared facial expressions. Dynamic emotional states automatically express non-verbal cues including worry, anxiety, and lethargy.
  5. Lifelike sensory response Active pain response to pressure-sensitive sites: bilateral supraorbital notch, trapezius pinch (left shoulder), sternal rub, and right middle finger nailbed.

• Hospital trauma team training made immersive
  With new ultra-high fidelity anatomy and physiology, HAL supports advanced trauma care algorithms and essential surgical interventions using real tools and clinical techniques. Skin, bony landmarks, and internal tissue provide realistic tactile feedback to maximize the development of transferable skills. Internal sensors provide real-time feedback on provider interventions while automatically recording event data for debriefing
  1. Chest tube thoracostomy Realistic left hemo/pneumothorax site supports palpation, incision, chest . tube insertion, tube placement detection, bleeding, and suture.
  2. Surgical airway management Anatomically accurate oral cavity and airway. Perform tracheotomy, cricothyrotomy, and retrograde intubation.
  3. Abdominal bleeding wound Penetrating abdominal wound responds to pressure and packing. Features internal, auto-refilling blood reservoir with 1.2-liter capacity.
  4. Intraosseous access Supports tibia and humeral intraosseous access and continuous infusion.
  5. Real-time CPR performance feedback Real-time quality feedback and reporting: Time to CPR, compression depth/rate, compression interruptions, ventilation rate, excessive ventilation, smart CPR coach.
  Trauma arm and leg Optional trauma arm and trauma leg accessories feature bleeding wound and tourniquet placement detection.

• True-to-life imaging with Gaumard Ultrasound™

1. Facilitate ultrasound training through full-scale immersive emergency and trauma scenarios. Gaumard Ultrasound simulates the function and feel of a real portable ultrasound machine. Transducer range-of motion is natural. Imaging is dynamic and lifelike, allowing students and professionals to refine imaging skills in team-based simulation. The new HAL Emergency POCUS/eFAST module offers you a library of emergency ultrasound case imaging covering a wide variety of trauma presentations.
2. The new gold standard in critical care in-situ simulation training
   HAL S5301 revolutionizes critical care simulation training through powerful physiologic features and software. HAL helps participants improve skills and confidence by enabling learning experiences in real environments and using actual patient monitoring devices and mechanical ventilators.

• Next-generation lung physiology and mechanical ventilator support
  HAL S5301 features our latest advanced dynamic lung system design, capable of responding to mechanical ventilation with greater physiological accuracy. HAL interfaces with real mechanical ventilators like a real patient and supports standard ventilator modes, including AC, CMV, SIMV, and PSV, as well as PEEP and weaning strategies. The patented internal lung design means no manual calibration, proprietary adapters, or expensive and stationary external converters.
  1. Real patient monitoring
  Monitor vitals using real equipment: RR, 12-lead ECG,
  IBP, BP, SpO2, TOF, and EtCO2
  2. High-quality auscultation
  New, high-quality library of lung, heart, and bowel sounds.
  Anatomically accurate auscultation fields.
  3. Intra-arterial blood pressure monitoring
  Radial arterial access site permits catheterization, flashback, sampling,
  and IBP monitoring; interfaces with real adjuncts, sensors, and devices.
  4. Intravenous access
  Features bilateral IV access sites, an antecubital vein blood draw
  site, and automatic virtual drug recognition on the lower left arm.
  5. Blood glucose testing
  Perform finger-stick glucose testing on the left index finger.
  6. Train-of-Four monitoring

BROCHURE – Gaumard Hal S5301