JP6319871B2 - Seismic exploration training device, seismic exploration training program, storage medium storing seismic exploration training program, and seismic exploration training kit - Google Patents

Description

  The present invention is a seismic wave exploration training apparatus, a seismic wave exploration training program, and a storage medium storing the seismic wave exploration training program, which can be easily experimented indoors and can observe and analyze the state of wave propagation, And seismic exploration training kit

  Conventionally, the practice of seismic exploration in which underground structures are estimated using seismic waves has been performed outdoors. For example, first, a seismometer and GPS are installed on the ground at predetermined intervals. Subsequently, a wave is generated by hitting the ground with a hammer or the like and applying vibration. Then, the waves that traveled underground are measured with a seismometer and recorded. Thereafter, the device was withdrawn, and the data processing was performed by returning to the laboratory (see Non-Patent Documents 1 and 2).

Yoshio Okamoto, Tatsuya Nukagoshi, Yasuo Nemoto, "School Education Committee Activity Report No. 1 in 2003", The Seismological Society of Japan, The Seismological Society of Japan Newsletter Vol.15 (2003) No.5, 2004 Issued 10th of March, Section 4. Keisuke Taniguchi, “Practical examples of experiments on underground structure estimation using seismic waves”, Kyoto University of Education Environmental Education Annual Report No. 13, Kyoto University of Education, March 31, 2005, p131-144 Nagasaki Nirasaki, “Basics of Applied Geophysics”, Kokon Shoin, April 18, 2001, p157-163

  In conventional seismic wave exploration training as described in Non-Patent Documents 1 and 2, a vast place for installing seismometers and GPS on the ground at predetermined intervals, as well as hammers, seismometers and GPS used for training And so on. Therefore, when conducting the training, it took time and labor to select a place and transport, and a lot of cost was required.

  Moreover, in the conventional observation training as described in Non-Patent Documents 1 and 2, the practitioner can grasp the phenomenon occurring during the data acquisition, that is, the state of propagation of the seismic wave. There wasn't.

  Furthermore, in the conventional observation practice as described in Non-Patent Documents 1 and 2, the practitioner returned to the laboratory to perform data processing and analysis. It took time and it was difficult to understand the contents of the training.

  The present invention can be easily experimented indoors, can easily observe and grasp the state of wave propagation at a glance, and easily understand the relationship between the waves traveling inside the earth and the structure inside the earth. In addition, an object of the present invention is to provide a seismic wave exploration training apparatus capable of acquiring an analyzable waveform, a seismic wave exploration training program, a storage medium storing the seismic wave exploration training program, and a seismic wave exploration training kit.

An earthquake wave exploration training apparatus according to an embodiment of the present invention is
A light source;
A transparent elastic body disposed adjacent to the light source;
An imaging device that is disposed on the opposite side of the light source with respect to the transparent elastic body and photographs the transparent elastic body;
A storage medium storing a seismic exploration training program for image processing of the video captured by the imaging device;
A computing unit for computing the seismic wave exploration training program stored in the storage medium;
A display unit for displaying the video image processed by the arithmetic unit;
Equipped with a,
The storage medium stores a seismic exploration training program for digitizing brightness and darkness due to distortion of the transparent elastic body from an image taken by the imaging device and acquiring a waveform in the transparent elastic body. .

In the seismic wave exploration training apparatus according to one embodiment of the present invention,
The transparent elastic body is composed of a plurality of regions having different elastic moduli.

An earthquake wave exploration training apparatus according to an embodiment of the present invention is
An imaging device-side polarizing plate installed between the imaging device and the transparent elastic body;
A light source-side polarizing plate installed between the light source and the transparent elastic body,
It is characterized by providing.

An earthquake wave exploration training apparatus according to an embodiment of the present invention is
A support member for supporting the transparent elastic body is provided.

The seismic exploration training program of one embodiment according to the present invention is as follows.
A light source;
A transparent elastic body disposed adjacent to the light source;
An imaging device that is disposed on the opposite side of the light source with respect to the transparent elastic body and photographs the transparent elastic body;
An arithmetic unit that processes video captured by the imaging device;
A display unit for displaying the video image processed by the arithmetic unit;
Is used in a seismic exploration training device equipped with
The video processed by the arithmetic unit and imaged by the imaging device is processed ,
The light and darkness due to distortion of the transparent elastic body is digitized from an image captured by the imaging device, and a waveform in the transparent elastic body is acquired .

A storage medium according to an embodiment of the present invention is:
The seismic wave exploration training program is stored.

The seismic exploration training kit of one embodiment according to the present invention is:
A light source;
A transparent elastic body or a raw material of the transparent elastic body,
A storage medium for storing a seismic wave exploration training program for image processing of an image captured by the imaging device in a state where the light from the light source is irradiated from the opposite side onto the transparent elastic body or the transparent elastic body made from the raw material of the transparent elastic body When,
I have a,
The storage medium stores a seismic exploration training program for digitizing brightness and darkness due to distortion of the transparent elastic body from an image taken by the imaging device and acquiring a waveform in the transparent elastic body. .

  According to the seismic wave exploration training apparatus, seismic wave exploration training program, the storage medium storing the seismic wave exploration training program, and the seismic wave exploration training kit according to the present invention, it is possible to easily carry out experiments indoors and see how the waves propagate at a glance. It can be easily observed and grasped, and it becomes possible to easily understand the relationship between the waves traveling inside the earth and the structure inside the earth. For example, it is possible to investigate not only the velocity boundary but also the effect such as the shape of the boundary, the presence of a fault or a scatterer. It is also possible to acquire an analyzable waveform.

It is the schematic which shows the seismic wave exploration training apparatus of 1st Embodiment. It is a schematic diagram which shows the wave front for every time of the wave which propagates the permeation | transmission gel in the seismic wave exploration training apparatus of 1st Embodiment. It is a schematic diagram of the waveform in each virtual observation point of FIG. It is a graph which shows the luminance waveform of the predetermined virtual observation point output by the calculating part of the seismic wave exploration training apparatus of 1st Embodiment. It is the figure which put in order the luminance waveform in a plurality of virtual observation points of the seismic wave exploration training device of a 1st embodiment. It is the schematic which shows the seismic wave exploration training apparatus of 2nd Embodiment. It is the image which the imaging device in the seismic wave exploration training apparatus of 2nd Embodiment image | photographed. It is a schematic diagram which shows the wave front in the seismic wave exploration training apparatus of 2nd Embodiment in the state of FIG. It is a schematic diagram which shows the wave front for every time of the permeation | transmission gel in the seismic wave exploration training apparatus of 2nd Embodiment. FIG. 10 is a schematic diagram of a waveform at each virtual observation point in FIG. 9. It is a graph of the waveform output by the calculating part of the seismic wave exploration training apparatus of 2nd Embodiment. It is a figure which shows the seismic-wave-exploration training apparatus 1 of other embodiment. It is a figure which shows the permeable gel 3 of another example.

  Hereinafter, the seismic wave exploration training apparatus 1 according to the present invention will be described with reference to the drawings. Here, the seismic wave is used to mean an elastic wave.

  FIG. 1 is a schematic diagram illustrating a seismic wave exploration training apparatus 1 according to the first embodiment.

  The seismic wave exploration training apparatus 1 according to the first embodiment includes a light source 2, a transmission gel 3, an imaging device 4, a calculation unit 5, a display unit 6, a storage medium 7, and a printer P.

  The light source 2 is a white light source and irradiates the transmission gel 3 with white light. The light source 2 may irradiate light having a single wavelength.

  The transmission gel 3 of the first embodiment is made of an agarose gel. When the concentration of the permeable gel 3 is about 1 wt%, the wave velocity is 4 to 5 m / s, and the waveform can be observed with the naked eye. In addition, you may change the density | concentration of the permeable gel 3 according to the setting of the speed of a wave. In the first embodiment, an agarose gel is used as the transparent elastic body. However, as another embodiment, a transparent agar gel, a transparent silicone gel, or a transparent rubber may be used. The permeation gel 3 is preferably made of a material having a low elastic wave velocity on the order of several meters to several tens of meters per second.

  The imaging device 4 may be a commercially available video camera or the like that can shoot about 200 to 1000 frames per second. An industrial or research high-speed imaging device with a high-speed imaging function is more preferable.

  The computing unit 5 is composed of a CPU of a personal computer. The arithmetic unit 5 can perform image processing on the video imaged by the imaging device 4 and output it to the display unit 6. In addition, the calculation unit 5 assumes that the virtual vibrometer is present at a predetermined position of the transmission gel 3 and obtains a luminance value for each hour by quantifying the temporal change of light and dark due to distortion of the transmission gel 3, It is possible to acquire the waveform of the position of the virtual vibrometer. Note that the position of the virtual vibrometer may be set later on the recorded video.

  The display unit 6 includes a display or the like that displays the video imaged by the imaging device 4 and the calculation result calculated by the calculation unit 5. The printer P prints the video displayed on the display unit 6 and the calculation result.

  The storage medium 7 stores a program for the arithmetic unit 5 to process an image, a program for the arithmetic unit 5 to acquire a waveform, and the like. The storage medium 7 may be a flash memory, a disk, a card, or the like.

  Thus, since the storage medium 7 of this embodiment memorize | stores a seismic wave exploration training program, it becomes possible to experiment easily in various places.

  The seismic wave exploration training apparatus 1 of the first embodiment may use an existing one for the imaging device 4, the calculation unit 5, the display unit 6, and the printer P. In this case, the imaging device in a state in which the light from the light source 2 is irradiated from the opposite side to the light source 2, the transmission gel 3 or the raw material of the transmission gel 3, and the transmission gel 3 made from the transmission gel 3 or the raw material of the transparent elastic body 3. 4 may be used as a seismic wave exploration training kit having a storage medium 7 for storing a seismic wave exploration training program for digitizing light and darkness due to distortion of the transmission gel 3 from the image taken by 4 and acquiring waveforms in the transmission gel 3.

  Similarly, in the following embodiments, the light source 2, the transmission gel 3, and the storage medium 7 may be collectively used as a seismic wave exploration training kit. Moreover, when providing the seismic wave exploration training kit in the state of the raw material before producing the permeation gel 3, it is preferable to enclose the type | mold used when the permeation gel 3 is produced.

Thus, according to the seismic wave exploration training kit of the present embodiment, since the light source 2, the transmission gel 3, and the storage medium 7 for storing the seismic wave exploration training program are included, the existing imaging device 4,
The calculation part 5 and the display part 6 can be used, and it becomes possible to experiment more easily.
Next, the usage method of the seismic wave exploration training apparatus 1 of 1st Embodiment is demonstrated.

  Drawing 2 is a mimetic diagram showing the wave front for every time of the wave which propagates the penetration gel in the seismic wave exploration training device of a 1st embodiment. FIG. 3 is a schematic diagram of a waveform at each virtual observation point in FIG. FIG. 4 is a graph showing the luminance waveform of a predetermined virtual observation point output by the calculation unit of the seismic wave exploration training apparatus of the first embodiment. FIG. 5 is a diagram in which luminance waveforms are arranged at a plurality of virtual observation points of the seismic wave exploration training apparatus according to the first embodiment.

  In the seismic wave exploration training apparatus 1 of the first embodiment, the transmission gel 3 is vibrated in order to observe the waveform, and wave propagation is acquired. For example, as shown in FIG. 2, when the excitation point S is hit with a hammer or the like, the wavefront generated at the excitation point S propagates as shown from time t1 to time t4.

  In the first embodiment, the permeable gel 3 is vibrated by the vibration means 11 such as a hammer. However, as another embodiment, a vibration device that vibrates with a predetermined amplitude and frequency set in advance may be used. Good. Further, in the first embodiment, the surface of the permeable gel 3 is vibrated, but as another embodiment, the side surface or the inside of the permeable gel 3 may be vibrated as a position to be vibrated.

  The calculation unit 5 assumes that virtual vibrometers exist from the first virtual observation point R1 to the fourth virtual observation point R4, respectively. And the calculating part 5 outputs the waveform in each virtual observation point as shown in FIG. 3 by digitizing the time change of the brightness of each point from the image | video which the imaging device 4 image | photographed.

  As the virtual observation point of the first embodiment, four points on the surface of the permeable gel 3 were selected as an example. In other embodiments, it may be set freely within the permeable gel 3. For example, the virtual observation point can be set by selecting an arbitrary pixel of the imaging device 4. The output of an arbitrary pixel may be an output of one pixel, or an average value of a plurality of pixels may be output.

  The display unit 6 can display an image captured by the imaging device 4. For example, the display unit 6 displays changes in light and darkness due to distortion of the transmission gel 3 every predetermined time, so that the state of wave propagation can be observed. Since the elastic wave velocity of the transmission gel 3 is as low as several meters to several tens of meters per second, direct observation with the naked eye is possible without using the display unit 6.

  The display unit 6 can also display a graph or the like calculated by the calculation unit 5. For example, the display unit 6 can display a graph showing a luminance waveform at a predetermined position as shown in FIG. Furthermore, as shown in FIG. 5, the display unit 6 can display a plurality of waveforms side by side.

  Thus, according to the seismic wave exploration training apparatus 1, it is possible to provide a seismic wave exploration training apparatus that can be easily experimented indoors, observe the state of wave propagation, and output an analyzable waveform. Is possible.

  Next, the seismic wave exploration training apparatus 1 of 2nd Embodiment is demonstrated.

  FIG. 6 is a schematic diagram illustrating the seismic wave exploration training apparatus 1 according to the second embodiment.

The seismic wave exploration training apparatus 1 of the second embodiment is one in which the transmission gel 3 is formed of two layers of a first transmission gel 3a and a second transmission gel 3b, and other configurations are the seismic wave exploration training apparatus of the first embodiment. Same as 1. First transmitting gel 3a and the second transmission gel 3b of seismic training apparatus 1 of the second embodiment is different from the elastic modulus, towards acoustic wave velocity V ₂ of the second transmission gel 3b the elastic of the first transmission gel 3a A material faster than the wave velocity V ₁ is used.

  Next, the usage method of the seismic wave exploration training apparatus 1 of 2nd Embodiment is demonstrated.

  FIG. 7 is an image taken by the imaging device in the seismic wave exploration training apparatus of the second embodiment. FIG. 8 is a schematic diagram showing a wavefront in the seismic wave exploration training apparatus of the second embodiment in the state of FIG. FIG. 9 is a schematic diagram showing the wavefront of the transmission gel in each time in the seismic wave exploration training apparatus of the second embodiment. FIG. 10 is a schematic diagram of a waveform at each virtual observation point in FIG. FIG. 11 is a graph of the waveform output by the calculation unit of the seismic wave exploration training apparatus according to the second embodiment. In FIG. 9, a thick solid line indicates a waveform, a dashed-dotted arrow indicates a direct wave wavy line, and a two-dot chain line arrow indicates a refracted wave wavy line.

  The display unit 6 of the second embodiment can display an image captured by the imaging device 4. For example, as shown in FIG. 7, it is possible to observe the state of wave propagation by displaying images captured by the imaging device every predetermined time on the display unit 6. Since the elastic wave velocity of the transmission gel 3 is as low as several meters to several tens of meters per second, direct observation with the naked eye is possible without using the display unit 6.

  In the seismic wave exploration training apparatus 1 of the second embodiment, as shown in FIG. 8 schematically illustrating FIG. 7, the transmission gel 3 is formed of two layers of the first transmission gel 3a and the second transmission gel 3b. A direct wave that propagates directly through the gel 3a and a refracted wave that propagates through the first transmission gel 3a and the second transmission gel 3b are generated (see Non-Patent Document 3). And the wave produced from the excitation point S propagates the 1st permeation | transmission gel 3a and the 2nd permeation | transmission gel 3b, as shown in FIG.

  In the second embodiment, the permeation gel 3 is vibrated with a hammer or the like. However, as another embodiment, a vibrating device that vibrates a predetermined position with a predetermined amplitude and frequency may be used. Good. In the second embodiment, the surface of the first permeable gel 3a is vibrated, but as another embodiment, the side surface or the inside of the first permeable gel 3a or the second permeable gel 3b may be vibrated. .

  The calculation unit 5 assumes that virtual vibrometers exist from the first virtual observation point R1 to the fourth virtual observation point R4, respectively. And the calculating part 5 acquires the deformation | transformation or distortion of the permeation | transmission gel 3 by propagation of a wave by digitizing the time change of the brightness of each point from the image | video which the imaging device 4 image | photographed, and the waveform of each virtual observation point To get. The virtual observation point can also be set by selecting an arbitrary pixel of the imaging device 4. The output of an arbitrary pixel may be an output of one pixel, or an average value of a plurality of pixels may be output.

  As shown in FIGS. 9 and 10, the wave generated from the excitation point S reaches the position immediately before the fourth virtual observation point R4 from the excitation point S faster than the refracted wave. At the fourth virtual observation point R4, the direct wave and the refracted wave arrive at the same time at time t6. Then, at a position far from the fourth virtual observation point R4, the refracted wave reaches faster than the direct wave.

  The display unit 6 can also display a graph or the like calculated by the calculation unit 5. For example, the display unit 6 can also display a graph in which luminance waveforms at a plurality of virtual observation points are arranged as shown in FIG.

Then, by calculating the distance x ÷ time t from the graph of FIG. 11, the wave speed V can be obtained. For example, when the graph of FIG. 11 is read, the direct wave is T ₁ = x / V ₁ and the refracted wave is T ₂ = x / V ₂ + T ₀ .

Furthermore, the layer thickness H of the first permeable gel 3a can be obtained from the following equation (1).

Thus, by obtaining the speed V ₂ of the speed V ₁ and the second transparent gel 3b of thickness H and the first transmission gel 3a layer of a first transparent gel 3a, determine the thickness and velocity of the Earth layers It becomes possible to simulate this.

  Thus, according to the seismic wave exploration training apparatus 1 of the second embodiment, the seismic wave exploration can be easily conducted indoors, the state of wave propagation can be observed, and an analyzable waveform can be output. It is possible to provide a training device. Moreover, by making the permeable gel 3 into two layers, it becomes possible to observe the state of wave propagation and analyze the waveform, and to simulate the structure of layers with different wave propagation speeds like the inside of the earth. Is possible.

  FIG. 12 is a diagram illustrating the seismic wave exploration training apparatus 1 according to another embodiment.

  In addition to the structure of the seismic wave exploration training apparatus 1 of the first embodiment and the second embodiment, the seismic wave exploration training apparatus 1 of another embodiment shown in FIG. 12 includes a support member 10 that supports the transmission gel 3 and an imaging device. A side polarizing plate 8 and a light source side polarizing plate 9 are provided. The support member 10, the imaging device side polarizing plate 8, and the light source side polarizing plate 9 do not have to be provided all, and may be provided individually.

  The support member 10 contacts the light source 2 side and the imaging device 4 side of the transmission gel 3 to support the transmission gel 3. The support member 10 can support the permeable gel 3 when the permeable gel 3 is soft, difficult to stand by itself, and unstable, and can support the permeable gel 3 stably.

  In the embodiment shown in FIG. 12, since the photoelasticity of the transmission gel 3 is used, the light and darkness is changed by interfering with the birefringent light according to the distortion of the transmission gel 3.

  The imaging device side polarizing plate 8 is installed between the imaging device 4 and the transmission gel 3. The polarizing plate may be either a circular polarizing plate or a linear polarizing plate. By installing the imaging device side polarizing plate 8, it is possible to clarify the brightness and darkness caused by the distortion of the transmission gel 3, and the imaging device 4 can clearly capture the wavefront.

  The light source side polarizing plate 9 is installed between the light source 2 and the transmission gel 3. The polarizing plate may be either a circular polarizing plate or a linear polarizing plate, but is preferably selected in consideration of the relationship with the imaging device side polarizing plate 8. By installing the light source side polarizing plate 9, the brightness and darkness caused by the distortion of the transmission gel 3 can be clarified, and the wavefront can be clearly photographed by the imaging device 4.

  FIG. 13 is a view showing another example of the permeation gel 3.

  The permeable gel 3 may have a plurality of regions having different elastic moduli. Further, the permeable gel 3 is not limited to two layers, and may be three layers or four or more layers. Furthermore, the boundary of the permeable gel 3 having a different elastic modulus may not be a plane. For example, as shown in FIG. 13, the permeation gel 3 may include a region 31 filled with a gas or a liquid, a notch 32, and a foreign substance 33 such as stone or glass.

  Thus, according to the seismic wave exploration training apparatus 1 of the present embodiment, the light source 2, the transmission gel 3 arranged adjacent to the light source 2, and the transmission gel 3 are arranged on the opposite side to the light source 2, An imaging device 4 that images the penetrating gel 3, a storage medium 7 that stores a seismic wave exploration training program that performs image processing on a video imaged by the imaging device 4, and an arithmetic operation that processes the seismic wave exploration training program stored in the storage medium 7 Because the display unit 6 and the display unit 6 that displays the video image processed by the calculation unit 5 are provided, it is possible to easily experiment in the room and easily observe and grasp the state of wave propagation at a glance. It is possible to easily understand the relationship between the waves traveling inside the earth and the structure inside the earth. Moreover, since the elastic wave velocity of the transmission gel 3 is as low as several meters to several tens of meters per second, direct observation with the naked eye is possible without using the display unit 6.

  Further, according to the seismic wave exploration training apparatus 1 of the present embodiment, the storage medium 7 digitizes the brightness and darkness due to the distortion of the transmission gel 3 from the image captured by the imaging device 4 and acquires the waveform in the transmission gel 3. Since the training program is stored, the waveform can be analyzed.

  Moreover, according to the seismic wave exploration training apparatus 1 of this embodiment, since the transmission gel 3 is composed of a plurality of regions having different elastic moduli, it is possible to observe the state of wave propagation in different layers and analyze the waveform. It becomes possible, and it becomes possible to simulate the structure of layers with different velocities such as the inside of the earth.

  Further, according to the seismic wave exploration training apparatus 1 of the present embodiment, the imaging device side polarizing plate 8 installed between the imaging device 4 and the transmission gel 3 and the light source side installed between the light source 2 and the transmission gel 3. Since the polarizing plate 9 is provided, the brightness and darkness caused by the distortion of the transmission gel 3 can be clarified, and the wavefront can be imaged more clearly by the imaging device 4.

  Moreover, according to the seismic wave exploration training apparatus 1 of this embodiment, since the support member 10 that supports the transmission gel 3 is provided, the transmission gel 3 is supported when the transmission gel 3 is soft, difficult to stand by, and unstable. Thus, the permeable gel 3 can be stably supported.

  Further, according to the seismic wave exploration training program of the present embodiment, the light source 2, the transmission gel 3 disposed adjacent to the light source 2, and the transmission gel 3 are disposed on the opposite side of the light source 2, and the transmission gel 3 Used for the seismic wave exploration training apparatus 1, which includes an imaging device 4 that captures the image, a calculation unit 5 that processes the video captured by the imaging device 4, and a display unit 6 that displays the video processed by the calculation unit 5. Since the video processed by the computing unit 5 and captured by the imaging device 4 is image-processed, it can be easily experimented indoors, and the state of wave propagation can be easily observed and grasped at a glance, It is possible to easily understand the relationship between the waves traveling inside the earth and the structure inside the earth.

  In addition, according to the seismic wave exploration training program of the present embodiment, the light intensity due to distortion of the transmission gel 3 is digitized from the image processed by the calculation unit 4 and photographed by the imaging device 4, and the waveform in the transmission gel 3 is acquired. It becomes possible to analyze the waveform.

  Furthermore, since the storage medium 7 of the present embodiment stores the seismic wave exploration training program, it is possible to easily perform experiments at various locations.

Furthermore, according to the seismic wave exploration training kit of this embodiment, the light of the light source 2 is added to the light source 2, the raw material of the transmission gel 3 or the transmission gel 3, and the transmission gel 3 made from the transmission gel 3 or the raw material of the transmission gel 3. And the storage medium 7 for storing the seismic wave exploration training program for image processing of the video imaged by the imaging device 4 in a state where the imaging device 4 is irradiated from the opposite side, the existing imaging device 4, the arithmetic unit 5 and the display unit 6 are provided. It can be used, and it is possible to experiment more easily in the room, and it is possible to easily observe and grasp the state of wave propagation at a glance, and the relationship between the waves traveling inside the earth and the structure inside the earth is easy. Can be understood.

  Further, according to the seismic wave exploration training kit of the present embodiment, the storage medium 7 digitizes the brightness and darkness due to the distortion of the transmission gel 3 from the image captured by the imaging device 4 and acquires the waveform in the transmission gel 3. Since the program is stored, the waveform can be analyzed.

  In addition, this invention is not limited by this embodiment. That is, in describing the embodiment, a lot of specific details are included for illustration, but various variations and changes may be added to these details, or each content may be selected and combined.

DESCRIPTION OF SYMBOLS 1 ... Seismic exploration training apparatus 2 ... Light source 3 ... Transmission gel (transparent elastic body)
DESCRIPTION OF SYMBOLS 4 ... Imaging device 5 ... Operation part 6 ... Display part 7 ... Storage medium 8 ... Imaging device side polarizing plate 9 ... Light source side polarizing plate 10 ... Support member 11 ... Excitation means

Claims (7)

A light source;
A transparent elastic body disposed adjacent to the light source;
An imaging device that is disposed on the opposite side of the light source with respect to the transparent elastic body and photographs the transparent elastic body;
A storage medium storing a seismic exploration training program for image processing of the video captured by the imaging device;
A computing unit for computing the seismic wave exploration training program stored in the storage medium;
A display unit for displaying the video image processed by the arithmetic unit;
Equipped with a,
The storage medium stores a seismic exploration training program for digitizing brightness and darkness due to distortion of the transparent elastic body from an image taken by the imaging device and acquiring a waveform in the transparent elastic body. Seismic exploration training device. The transparent elastic body, seismic training apparatus according to claim 1, characterized in that it consists of a plurality of regions having different elastic modulus. An imaging device-side polarizing plate installed between the imaging device and the transparent elastic body;
A light source-side polarizing plate installed between the light source and the transparent elastic body,
The seismic wave exploration training apparatus according to claim 1 or 2 , characterized by comprising: The seismic wave exploration training apparatus according to any one of claims 1 to 3 , further comprising a support member that supports the transparent elastic body. A light source;
A transparent elastic body disposed adjacent to the light source;
An imaging device that is disposed on the opposite side of the light source with respect to the transparent elastic body and photographs the transparent elastic body;
An arithmetic unit that processes video captured by the imaging device;
A display unit for displaying the video image processed by the arithmetic unit;
Is used in a seismic exploration training device equipped with
The video processed by the arithmetic unit and imaged by the imaging device is processed ,
A seismic exploration training program characterized by digitizing brightness and darkness due to distortion of the transparent elastic body from an image taken by the imaging device and acquiring a waveform in the transparent elastic body . A storage medium storing the seismic wave exploration training program according to claim 5 . A light source;
A transparent elastic body or a raw material of the transparent elastic body,
A storage medium for storing a seismic wave exploration training program for image processing of an image captured by the imaging device in a state where the light from the light source is irradiated from the opposite side onto the transparent elastic body or the transparent elastic body made from the raw material of the transparent elastic body When,
I have a,
The storage medium stores a seismic exploration training program for digitizing brightness and darkness due to distortion of the transparent elastic body from an image taken by the imaging device and acquiring a waveform in the transparent elastic body. Seismic exploration training kit.

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