System and Method for Biofeedback Administration

• US 20100094156A1
• Filed: 10/13/2008
• Published: 04/15/2010
• Est. Priority Date: 10/13/2008
• Status: Abandoned Application

• Current Assignee: Thomas F. Collura
• Original Assignee: Thomas F. Collura
• Inventors: Collura, Thomas F.
• Application Number:
  US12/250,361
• Publication Number:
  US 20100094156A1
• Time in Patent Office: Days
• US Class Current: 600/545
• CPC Class Codes: A61B 5/375 using biofeedback

Abstract

A biofeedback system for administration of electroencephalographic (EEG) neurofeedback training includes a plurality of electrodes sensors for placement on the head of a trainee and a switching head box comprising a plurality of contacts each of which connects to one electrode sensor and for specific biofeedback and neural connectivity training. The system also includes an interface device which includes at least two EEG signal amplifiers and connects to the switching head box, and a computer comprising software for generating user-control functions which corresponds in real-time to EEG signals received by the interface device and processed by the computer. The switching head box includes a switch with at least two conductors and connects the electrode sensors to the interface device for transmitting EEG signals from the trainee to the computer. Specific combinations of electrode sensors are used for specific types of biofeedback training.

Claims

1. A biofeedback system for administration of electroencephalographic (EEG) neurofeedback training, the system comprising:

a plurality of electrode sensors for placement on the head of a trainee;

a switching head box comprising a plurality of contacts located at a plurality of contact positions, each of the plurality of contacts being connected to one of the plurality of electrode sensors;

an interface device connected to the switching head box, the interface device comprising at least two EEG signal amplifiers;

a computer comprising software for generating user-control functions which corresponds in real-time to EEG signals received by the interface device and processed by the computer; and

wherein the switching head box comprises a switch comprising a first conductor at a first position which connects a first electrode sensor to a first EEG signal amplifier of the interface device, and a second conductor at a second position which connects a second electrode sensor to a second EEG signal amplifier, for transmitting EEG signals from the trainee to the computer, the system comprising a combination of the electrode sensors of an EEG guided biofeedback system for providing EEC guided biofeedback and neural training on;

motor planning of the lower extremities and midline;

sensorimotor integration of both lower extremities and midline;

logical (verbal) memory formation and storage;

emotional (non-verbal) memory formation and storage;

motor planning right upper extremity;

motor planning left upper extremity;

right half of space;

left half of space;

frontal and occipital homologous sites of the brain or motor planning of the upper extremities, motor actions or visual processing.

electrode sensor Fz, whose principal function is the motor planning of the lower extremities and midline;

electrode sensor Cz, whose principal function is the sensorimotor integration of both lower extremities and midline;

electrode sensor T3, whose principal function is logical (verbal) memory formation and storage;

electrode sensor T4, whose principal function is emotional (non-verbal) memory formation and storage;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the frontal midline and temporal lobes; and

wherein this combination of electrode sensors provides neural feedback relating to motor planning of the lower extremities;

sensorimotor integration; and

logical and emotional memory formation and storage.

2. The biofeedback system of claim 1 comprising a combination of electrode sensors consisting of:

electrode sensor F3, whose principal function is motor planning right upper extremity;

electrode sensor F4, whose principal function is motor planning left upper extremity;

electrode sensor O1, whose principal function is visual processing right half of space;

electrode sensor O2, whose principal function is visual processing left half of space;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the frontal and occipital homologous sites of the brain; and

wherein this combination of electrode sensors provides neural feedback relating to motor planning of the upper extremities;

motor actions; and

visual processing.

3. The biofeedback system of claim 1 consisting of:

electrode sensor C3, whose principal function is sensorimotor integration right upper extremity;

electrode sensor C4, whose principal function is sensorimotor integration left upper extremity;

electrode sensor F7, whose principal function is verbal expression;

electrode sensor F8, whose principal function is emotional expression;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the mesial motor strip and lateral frontal homologous sites of the brain; and

wherein this combination of electrode sensors provides neural feedback relating to sensorimotor integration, verbal and emotional expression, motor actions of the upper extremities, visual sensations, verbal/sensorimotor integration, and verbal/emotional expression.

4. The biofeedback system of claim 1 consisting of:

electrode sensor P3, whose principal function is perception (cognitive processing) right half of space;

electrode sensor P4, whose principal function is perception (cognitive processing) left half of space;

electrode sensor T5, whose principal function is logical (verbal) understanding;

electrode sensor T6, whose principal function is emotional understanding;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the parietal and posterior temporal homologous sites of the brain; and

wherein this combination of electrode sensors provides neural feedback relating to perception and cognitive processing, spatial relations, and logical and emotional understanding, memory, and perceptions.

5. The biofeedback system of claim 1 consisting of:

electrode sensor Fp1, whose principal function is logical attention;

electrode sensor Fp2, whose principal function is emotional attention;

electrode sensor Pz, whose principal function is perception midline;

electrode sensor Oz, whose principal function is visual processing of space;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the prefrontal homologous, and posterior midline sites of the brain; and

wherein his combination of electrode sensors provides neural feedback relating to logical and emotional attention;

perception; and

visual processing.

6. The biofeedback system of claim 1 consisting of:

electrode sensor T3, whose principal function is logical (verbal) memory formation and storage;

electrode sensor T4, whose principal function is emotional (non-verbal) memory formation and storage;

electrode sensor Pz, whose principal function is perception midline;

electrode sensor Oz, whose principal function is visual processing of space;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the temporal lobes, and posterior midline; and

wherein, this combination of electrode sensors provides neural feedback relating to logical and emotional attention, perception, and visual processing.

7. The biofeedback system of claim 1 consisting of:

electrode sensor O1, whose primary function is visual processing right half of space;

electrode sensor O2, whose primary function is visual processing left half of space;

electrode sensor C3, whose primary function is sensorimotor integration right upper extremity;

electrode sensor C4, whose primary function is sensorimotor integration left upper extremity;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the occipital and motor strip homologous sites of the brain; and

wherein this combination of electrode sensors provides neural feedback relating to visual sensory processing, and sensorimotor integration of the upper extremities.

8. The biofeedback system of claim 1 consisting of:

electrode sensor F7, whose primary function is verbal expression;

electrode sensor F8, whose primary function is emotional expression;

electrode sensor F3, whose primary function is motor planning right upper extremity;

electrode sensor F4, whose primary function is motor planning left upper extremity;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the full frontal lobes homologous sites of the brain;

wherein this combination of electrode sensors provides neural feedback relating to verbal and emotional expression, motor planning of the upper extremities, and motor actions.

9. The biofeedback system of claim 1 consisting of:

electrode sensor T5, whose primary function is logical (verbal) understanding;

electrode sensor T6, whose primary function is emotional understanding;

electrode sensor Fz, whose primary function is motor planning of both lower extremities and midline;

electrode sensor Cz, whose primary function is sensorimotor integration, both lower extremities and midline;

wherein the biofeedback system contains at least a four channel, 5-position switching head box;

wherein this combination of electrode sensors focuses on the posterior temporal and frontal midline; and

wherein this combination of electrode sensors provides neural feedback relating to logical and emotional understanding and memory, motor planning of the lower extremities, and sensorimotor integration.