JP3458966B2 - Bi-digital O-ring test training device - Google Patents

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a bi-digital O-ring test training device, and more particularly to a bi-digital O-ring test training device.
It may be applied to a ring test in which the examiner trains to apply a substantially constant external force to the O-ring of the subject.

[0002]

2. Description of the Related Art Conventionally, in medical diagnosis, a method called a bi-digital O-ring test (hereinafter referred to as an O-ring test) has been known as a method for diagnosing an abnormal part of a subject as a patient (US Pat. 5,188,107). This is the first finger (thumb) of one hand of the subject and the other second, third, fourth,
One of the 5 fingers that meets the conditions is opposed, and this 2
Make a ring (O-ring) with your fingers and let it continue to exert force. Whereas the examiner tries to open his two fingers from both sides,
Determine the strength of the subject's finger strength to maintain it as it is.

This O-ring test is a biosensor test utilizing the muscle tonus state, and when the muscle strength of the finger weakens in a state where the subject is pointed to an arbitrary organ representative point, the O-ring opens and the organ is abnormal. If it doesn't open strongly, it means normal. In the case of the thymus, it means the opposite. This will allow you to discover abnormal parts of your body.

When the subject is inspected by holding a sample of a specific substance in his hand by the same procedure, if the same substance is present in the subject's body, the muscle strength of the finger weakens and the O-ring opens. This is interpreted as a phenomenon that occurs when substances resonate with each other, and is called a resonance test. Using this method, bacteria, viruses, cancer, in vivo metabolites, hormones,
The distribution of neurotransmitters, heavy metals, drugs, etc. in the body can be judged, and diseases can be diagnosed. The O-ring test is an auxiliary diagnostic method performed as a medical examination before the diagnosis by the usual medical latest inspection equipment.

Actually, in the O-ring test, it is possible to know which organ has abnormalities of what kind by examining the subject. First, in terms of diagnosis, detection of abnormal organs in the body and drawing on the surface of the body (imaging), search for causes of abnormal areas, detection of bacteria and viruses, early cancer and diagnosis of localization, in vivo metabolites, hormones, neurotransmitters It can be used for imaging, etc., and changes over time, and can be a diagnostic aid for causes of various diseases, especially electromagnetic wave diseases and heavy metal deposition.

Next, the O-ring test shows how to cure this disease. In terms of treatment, determination of effective drug and determination of optimal dose, biodistribution and time course of drug, judgment of side effects,
It is possible to judge the efficacy and side effects associated with the combined use of multiple drugs. Thus, the O-ring test gives useful guidelines for diagnosis and treatment in medical treatment. In practice, it is possible to judge the compatibility of the drug with the body, to judge the abnormal part of the body, and arbitrary and specific objects. It is applied to judge whether and have the same information.

[0007]

By the way, such an O-ring test is formed by the fingers of the hand, which is a voluntary muscle that can be controlled by a human being, and there is a possibility that an uncertain factor may enter. For example, a subject who forms an O-ring with two fingers or an examiner who attempts to remove the O-ring may perform an O-ring test with uneven force depending on his or her intention.

[0008] Further, such voluntary muscles tend to cause fatigue, and the force may be adjusted in consciousness, or even if the examinee intends to pull evenly, there is no objective index, so there is a hint effect or other Consciousness may be involved. Therefore, the test results of the O-ring test may not be objectively reliable.

The present invention has been made in consideration of the above points, and it is possible to improve the reliability of the bi-digital O-ring test by training the examiner to apply a substantially constant external force to the O-ring. It is intended to propose a test training device.

[0010]

In order to solve the above problems, in the present invention, an O-ring is formed by the thumb and other fingers, which are the voluntary muscles of the subject 10, and the examinee 11 tries to open the O-ring. In a bi-digital O-ring test that measures physical information according to changes in the muscle strength of the voluntary muscles in a state in which the external force and the muscle strength of the voluntary muscles of the subject who wants to maintain the O-ring are antagonized, the examinee 11 exerts a substantially constant external force. In a bi-digital O-ring test training apparatus 1 for training to add an O-ring, an O-ring member 2 having a shape and size substantially similar to an O-ring formed by two fingers of a subject 10 and the O-ring shape. A pressure sensor means 3A arranged at least at one position of the inner diameter of the member 2 for measuring an external force applied by the examinee 11 to the O-ring member 2.
3B and pressure display means 6A, 6B for displaying the external force measured by the pressure sensor means 3A, 3B are provided.

[0011]

Using an O-ring member 2 having a shape and size substantially the same as the O-ring formed by the two fingers of the subject 10 and having the pressure sensor means 3A, 3B arranged at least at one location of the inner diameter, When the examiner 11 applies an external force to the O-ring member 2 via the pressure sensor means 3A, 3B, the external force is measured by the pressure sensor means 3A, 3B and the pressure display means 6A, 6A.
It is displayed on B. Thereby, the examiner 11 can perform training so as to apply a substantially constant external force to the O-ring while watching the external force displayed on the pressure display means 6A, 6B, and
The absolute value of the external force can be grasped and thus the objectivity of the bi-digital O-ring test can be improved.

[0012]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS An embodiment of the present invention will be described in detail below with reference to the drawings.

In FIG. 1, reference numeral 1 denotes a bi-digital O-ring test training apparatus as a whole, and a diameter of an inner diameter side of a doughnut-shaped ring 2 made of a hard and slightly elastic material such as hard rubber. Two pressure sensors 3A and 3B are arranged on both sides of the so as to face each other. As the pressure sensors 3A and 3B, those having a substantially planar shape are used, and as shown in FIG. 2, the respective sensor outputs S1 and S2 pass through an amplifier 4 and a display driver 5 and are, for example, liquid crystal display elements. Displayed on 6A and 6B.

In the bi-digital O-ring test having the above-mentioned structure, as shown in FIG. 3, the condition of the first finger (thumb) of one hand of the subject 10 to the other second, third, fourth, and fifth fingers is set. A filled one finger (for example, the index finger) is opposed, and a ring (O-ring) is made with these two fingers to continuously apply force. While the examiner 11 tries to open the two fingers from both sides, the bi-digital O-ring test is performed depending on the strength of the fingers of the subject 10 who wants to maintain the two fingers.

At this time, for example, the subject 10 points the predetermined part of the body with the other hand, or carries out the O-ring test by holding the sample of the specific substance in the hand to diagnose the abnormal part of the body or the disease. By carrying out a bi-digital O-ring test with an arbitrary drug or the like in the other hand, it is possible to judge the compatibility of the drug with the body or the like.

In practice, as shown in FIG. 4, the bi-digital O-ring test training apparatus 1 is used as a bi-digital O-ring test training, and the examinee 1
It is possible to practice such that 1 pulls the O-ring of the subject 10 with a substantially constant external force. In this case, the examiner 11 performs the bi-digital O
Pull the ring 2 of the ring test training device 1.

At this time, the examinee 11 puts his finger on the ring 2
An external force is applied to the ring 2 so as to be positioned on the pressure sensors 3A and 3B arranged on the inner diameter of the ring. By doing so, the external force applied by the tester 11 is detected by the pressure sensors 3A, 3B, respectively, and this is displayed on the display units 6A, 6B, whereby the tester quantitatively measures the force with which he or she pulls the O-ring. It can be observed in Therefore, also when pulling the O-ring of the subject 10, it can be empirically trained to pull with a substantially constant force.

According to the above construction, the ring 2 having a shape and size similar to those of the O-ring and having two pressure sensors 3A and 3B arranged on both sides of the diameter of the inner diameter is used.
When 1 applies an external force to the ring 2 via the pressure sensors 3A and 3B, this external force is measured by the pressure sensors 3A and 3B and displayed on the display units 6A and 6B. As a result, the examiner 11
While looking at the numerical values of the external force displayed on the display units 6A and 6B,
A bi-digital O-ring test training apparatus 1 capable of performing training so as to apply a substantially constant external force to the ring 2 and grasping the absolute value of the external force and thus improving the objectivity of the bi-digital O-ring test can be realized. .

In the above-mentioned embodiment, the ring is made of hard rubber so as to give the same feeling of touch when it comes into contact with the human body. However, the ring is not limited to the hard rubber but is made of a material having a firm elasticity. It may be formed of various materials such as metal, wood, and plastic if it does not stick to the feeling of touch.

In the above embodiment, the pressures detected by the two pressure sensors are respectively displayed, and the balance of the left and right forces can be observed. However, the pressure display is not limited to this. It is also possible to calculate the average value and variance value and display them. In this case, if a difference in pulling force over a certain range is detected, if an alarm is output or displayed, it will be more constant. You can achieve training like pulling an O-ring with your power.

Further, in the above-mentioned embodiment, the case where two pressure sensors are arranged on the inner diameter side of the ring on the diameter side is described, but the arrangement of the pressure sensors is not limited to this, and one pressure sensor may be arranged on one side. It is also possible to arrange three or more of them so that the pressure can be detected regardless of the place where the examinee holds.

[0022]

As described above, according to the present invention, the O-ring formed by the two fingers of the subject has substantially the same shape and size, and the pressure sensor means is arranged at at least one position of the inner diameter. When an examiner applies an external force to the O-ring-shaped member through the pressure sensor means using the O-ring-shaped member, the external force is measured by the pressure sensor means and displayed on the pressure display means. Thereby, the examiner can train to apply a substantially constant external force to the O-ring while observing the external force displayed on the pressure display means, and can grasp the absolute value of the external force, thus performing the bi-digital O-ring test. A bi-digital O-ring test training device that can improve objectivity can be realized.

[Brief description of drawings]

FIG. 1 is a schematic diagram showing the configuration of an embodiment of a bi-digital O-ring test training device according to the present invention.

FIG. 2 is a schematic diagram showing a circuit configuration of the bi-digital O-ring test training device of FIG.

FIG. 3 is a schematic diagram for explaining a bi-digital O-ring test.

FIG. 4 is a schematic diagram for explaining training of a bi-digital O-ring test using a bi-digital O-ring test training device.

[Explanation of symbols]

1 ... Bi-digital O-ring test training device, 2 ... Ring, 3A, 3B ... Pressure sensor, 4 ...
Amplifier, 5 ... Display driver, 6 ... Display,
10 ... subject, 11 ... tester.

─────────────────────────────────────────────────── ─── Continuation of the front page (72) Minor Ozeki 6-735 Kitashinagawa, Shinagawa-ku, Tokyo Sony Corporation (72) Tomoko Ono 6-735 Kitashinagawa, Shinagawa-ku, Tokyo Sony Corporation (56) References JP-A-2-136136 (JP, A) Actual development 4-37407 (JP, U) Actual development 5-70505 (JP, U) (58) Fields investigated ( Int.Cl. ⁷ , DB name) A61B 5/22 A61B 5/00

Claims (5)

(57) [Claims] 1. A thumb and other fingers, which are the voluntary muscles of the subject,
A ring is formed, and the external force that causes the examiner to open the O-ring and the muscle force of the voluntary muscle of the subject that tries to maintain the O-ring are antagonized, and in accordance with the change in the muscular force of the voluntary muscle. In a bi-digital O-ring test training device in which the tester trains a substantially constant external force to apply the O-ring in a bi-digital O-ring test for measuring physical information, the O-ring formed by the two fingers of the subject is used. An O-ring member having substantially the same shape and size as the ring, and a pressure sensor arranged at least at one location of the inner diameter of the O-ring member and measuring the external force applied to the O-ring member by the examiner. Means and a pressure display means for displaying the external force measured by the pressure sensor means.
Ring test training equipment. 2. The bi-digital O-ring test training apparatus according to claim 1, wherein the O-ring member is formed of a slightly hard elastic material. 3. The bi-digital O-ring test according to claim 1 or 2, wherein the O-ring member is made of a material such as metal, wood, plastic resin, or rubber resin. Training equipment. 4. The pressure sensor means is arranged at both ends of the inner diameter of the O-ring member, and the pressure display means displays the external force measured by the two pressure sensor means. The bi-digital O-ring test training device according to claim 1, which is characterized in that. 5. The bi-digital O-ring test training according to claim 1, wherein the pressure display means displays an average value or a dispersion value of the external force measured by the pressure sensor means. apparatus.