There is a way to use white V-shaped blocks.
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| I tried observing a metal cylinder using a V-shaped block. (Uses a white resin V-shaped block)
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<Observation on a white background>
Simple reflected light causes halation.
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<Observation using V-shaped block>
By using V-block Illumination from the side is also provided. |
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The size of the V-shaped block is 80mm x 50mm x 30mm |
Normally, if you want to fix the monitor, attach a monitor fixing stay (optional).
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Then you can use it as shown in the picture below.
At this time, there is another useful accessory.
Attach this to the monitor stay.
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This allows you to angle your monitor.
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Although it is a product from another company, there is a way to turn a small digital camera into a handy microscope.
Since it is a battery-powered light, it does not require an outlet and has the following advantages:
(1) You can take it outside
(2) You can use your small digital camera.
To increase the depth of field, there are two typical methods below
(1) Increase depth of field.
(2) Narrow the optical path
This time we will explain about (1)
Below is a table of specifications for lenses from the same manufacturer, same series, and same magnification (X4).
W.D. The longer it is, the deeper the depth of field.
Tilt the 0.2mm pitch glass scale at 45° and observe it from above.
Comparative shooting with lenses from the same manufacturer and lens series with different operating distances.
If we judge that the focus is on a scale (0.2 mm), then the depth of field is 0.2 mm x (1/1.41) = 0.14 mm.
If we judge that the focus is on two scales (0.4 mm), then the depth of field is 0.4 mm x (1/1.41) = 0.28 mm.
When using a digital camera to photograph paper materials, books, or other three-dimensional objects that cannot be copied, it is convenient to have a copy stand.
There are various sizes and prices on the market, but the ones below are relatively affordable and allow you to take photos up to A4 size.
The size is 450x450mm and the pillar height is 550mm.
We also provide stands and lights that can be used like pseudo-copy stands that allow you to observe A4 size documents exactly.
When using a handheld microscope, there are 3 following vital notes:
When taking pictures with a handle microscope, the screen inevitably shakes.
If the display speed is slow, the “shaking” phenomenon will not stop.
A microscope needs two power sources: the camera and the light source.
Dedicated machines may be provided with a USB port.
Since one hand is busy, I think it would be easier to use if there was an automatic exposure mode.
DinoLight products are available as special handheld machines with a wide range of products and low prices.
Depending on the combination, some of our products can also be used as hand tools (Since this is a combination product, it is not listed in the catalog as a set, so please contact us.)
・1.3 million pixel USB3.0 camera (global shutter USB3.0 camera with fast display speed)
・Low magnification SG2 lens (small, small diameter lens for ergonomic users)
・16-light ring light (can be directly connected to the lens and powered by a PC USB port)
Dimensions as shown below
Both the camera and light can be powered from a PC. (No separate power supply required.)
Because lens are so small and narrow, the zoom ratio is not wide.
In recent times, many users have incorporated automated visual inspection using image-based methods.
While there are various methods, some users encounter challenges where the automated visual inspection fails to detect and overlooks instances marked as “NG” (Not Good). Upon investigation, it is often found that the NG elements are not clearly visible in the inspection images.
In such cases, reconsideration and reconstruction of hardware elements such as:
As mentioned earlier, the fundamental principle is that even humans, software, or AI cannot detect what is not visible. In fact, at this point, software and AI may be inferior to humans. In such instances, there arises a need for image processing as a preprocessing step.
Instead of directly streaming raw acquired images to the inspection software, it is preferable to apply image processing as a preprocessing step before streaming the processed images to the inspection software. While this may increase tact time (inspection time), it is an effective method when detection without preprocessing is challenging.
Image processing includes various techniques such as binarization, contrast correction, brightness correction, color correction, color limitation, smoothing, edge enhancement, contour enhancement, noise reduction, sharpening, and, in a broader sense, resizing, measurement, line generation, and more.
Typically, static images are saved, and image processing is carried out using an image processing unit.
The answer is yes. If the microscope’s display software has image processing options in the view function, you can perform image processing in real-time during live view and then save the static image. However, such capabilities are often found in high-end microscopes, requiring a substantial investment.
Many of the examinations performed using a microscope on the inspection line are extremely tiring and place a significant burden on the examiner. Therefore, many people are thinking about replacing it with a small microscope. However, there are many types of microscopes and if you don’t choose the best one, you may be creating an unnecessary burden on yourself.
There are three points to keep in mind when replacing a microscope with a mini microscope:
The microscope displays images on a PC or monitor.
If the frame rate is low, the projected image will not move smoothly, causing additional tension.
Frame rate is expressed as a number, but the number that makes people feel uncomfortable is around 50 to 60 fps.
When the speed drops below 30fps, the feeling of discomfort becomes noticeable.
PC-connectable models often have low frame rates due to USB communication speed issues.
Therefore, we recommend that you choose the screen direct connection type.
The appearance will vary depending on the camera used for the microscope.
For this reason, there are some items with good color reproduction and others with not so good.
If the colors don’t look good, the human brain will feel uncomfortable and this will lead to stress.
Even if a red object looks slightly orange, it can make you feel uncomfortable and stressed.
If you choose a camera with full resolution, the color reproduction is relatively high, so you can get clear images.
I don’t think you’ve heard the term dynamic range often.
Briefly explained, when you illuminate a bright object and a dark object at the same time, if you adjust the brightness of one object, the other object may appear blown out or dim.
To eliminate this phenomenon, a camera with a wide dynamic range is needed.
Dynamic range is a state that a camera has but it also varies depending on the camera.
Compared to conventional cameras, the human eye is very good and has a very wide dynamic range.
The main reason why things look different to the human eye and through a camera is often due to differences in dynamic range.
There are models that emphasize wide dynamic range, so I think it’s best to choose one of those.
We also have car models that meet all 3 points above.
Full high definition microscope
Frame rate = 60fps
Color reproduction = Very clear resolution thanks to full high definition resolution
Dynamic range: Wide with HDR function (high dynamic range)
We also have demo machines, welcome to try them out.
There may be instances where the captured images cannot be printed with the desired color reproducibility.
When the resolution of the captured images is sufficient, the printer’s performance may be influencing the outcome.
Using genuine paper from the printer manufacturer or paper closely resembling to them.
Color printers cannot reproduce colors lighter than the set ink colors. Equipping the printer with lighter colors such as light cyan, light magenta, gray, etc., allows for subtle adjustments in color variations. While standard printers often have 4 colors, it is advisable to use 6 colors (or more) when printing images.
If you use a high-quality photo printer like the one below, the quality of your printed images will be improved.
Surges, stemming from various factors, refer to abnormal voltages and the resulting abnormal currents.
Causes include “lightning surges” induced by lightning and “switching surges” resulting from the ON/OFF of the power supply.
Concerning “lightning surges,” power companies and communication providers implement diverse countermeasures, and specific surge-protective devices, such as surge tables, are available for purchase.
“Switching surges” pertain to surges occurring during circuit opening and closing. Caution is advised when large-capacity motors, generators, high-voltage circuits, solenoids, etc., are connected to the same power line.
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f power supply circuits frequently experience damage, abnormal operations occur, or similar issues arise, surge protection may be necessary. Separating power lines can be a straightforward solution, and various surge protection devices are also available for purchase.
Combining a step-down ring with Nikon’s telephoto lens (f = 300mm), attach an M26 microscope objective lens to the end.
Achieving imagery and observing a clear visual representation, the lens-side distance adjustment dial operates at a fine-tuning level.
Projecting a glass scale with a 0.2mm pitch, the horizontal field of view is 0.4mm, allowing for a magnification of approximately 800 to 1000 times.
It is worth noting that this method is applicable even with standard lenses (approximately f = 50mm). While the magnification decreases, it is adequately accommodated with ring illumination.
The focal length is around 40mm, shorter than that of a dedicated microscope.
The method to connect SLR lenses to camera C for long-distance and magnified photography involves the relatively straightforward application of a C-mount to F-mount adapter.
Utilize the aforementioned adapter with Nikon’s telephoto lens (f =300mm) and connect it to DN3V-130.
The minimum distance is approximately 3 meters.
Observe the distant view at 3 meters, as depicted in the image below: 60mm×45mm.
The method to connect SLR lenses to camera C for long-distance and magnified photography involves the relatively straightforward application of a C-mount to F-mount adapter.
Utilize the aforementioned adapter with Nikon’s telephoto lens (f =300mm) and connect it to DN3V-130.
The minimum distance is approximately 3 meters.
Observe the distant view at 3 meters, as depicted in the image below: 60mm×45mm.
3D arm is convenient for observation with digital microscope.
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3D arm of microscope |
＜Image＞
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| Take photos right next to the microscope |
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| Take photos directly from the front |
Therefore, even when observing at the same magnification, the same vertical calibration value cannot be used. When measuring by oblique observation, it is necessary to correct for such conditions.
Summary
For accurate measurements by oblique observation, calibration must be performed with the microscope tilted at a 45 degree. However, if you are tilting two axes (tilting not only left and right but also toward you), you need to consider both axes when calibrating.
For details on the “3D arm” and “measuring software” used in this measurement, please see below pictures.
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3D arm for microscope TG-3D3
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High-performance image processing measurement software MFship |
In this article, we shall present the “Points to Consider,” “Usage Guidelines,” and “Recommended Microscopes” when utilizing the length measurement function of microscopes for quality control.
While some microscopes have the capability to measure length, two operational issues may arise:
(1) The microscope itself is not a traceable measuring instrument.
(2) Calibration, except for some high-end models, must be performed by the user. (Errors may occur due to user operations.)
When used for quality control purposes, there is no issue with internal calibration. However, clarification is needed regarding the standards used in internal calibration. In other words, implementation is feasible if we can meet the following three conditions:
We have customers who have obtained ISO9001 certification and continue to use our products.
When utilizing the length measurement function of microscopes for quality control, we recommend the following:
Microscope model CT200HD:
The camera collects data from the lens and automatically utilizes the calibration data stored in the camera’s internal memory:
・ No adjustment required by end-users.
・ Values remain unchanged regardless of end-user operations.
May include calibration certificate and test results table for accurate measurement scale. (Charges)
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Microscope model CT200HD:
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Microscope model CT200HD-H (Medium Magnification, Automatic Calibration). |
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Microscope model CT200HD-H (High Magnification, Automatic Calibration). |
We often receive requests to inspect burrs and foreign objects inside holes using transmitted illumination.
When the target object has a certain “thickness,” a bit of technique is required.
We conducted an examination by creating a hole with a diameter of φ5mm in a 12mm-thick aluminum plate and capturing images.
The upper, middle, and bottom surfaces in the above image have foreign objects adhered to them.
To detect all of these, the use of a lens with aperture control is necessary.
Observing the top surface with the lens opened and focused yields the following results.
* The middle and bottom become nearly imperceptible.
When focusing on the middle using an open-aperture lens for observation, the results are as follows.
＊The top is visible but appears slender, while the bottom is in a highly indistinct state.
Capture the image with the aperture narrowed as much as possible.
(Compensate for the resulting darkness with additional illumination, and keep the camera gain around 90% rather than at its maximum.)
＊Both the top (surface) and middle (interior) as well as the bottom (near the base) can be adequately observed.
To observe burrs and foreign objects within the hole, it is essential not only to use transmitted illumination but also a lens with aperture control that can deepen the depth of field.
Many microscopes on the market have a size measurement function. However, some types are still difficult to use. When using the measuring function, a microscope can be said to be suitable for measuring dimensions if it has the following two characteristics:
(1) Zoom lens.
(2) Latching function.
Below we will introduce each characteristics in detail.
There are two types of lenses that can continuously change magnification:
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（Minimum magnifiaction） |
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<Suitable for measurement> Zoom lenses (except our SG series)
| （Maximum magnifiaction） | (Minimum magnification) | |
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When measuring dimensions, the ability to reproduce conditions is important. If the optical magnification (scale) is marked on the lens and each scale has a latching function, inter-operator variation is eliminated and reproducibility is maintained.
<Not suitable for measurement> Products without latching function
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Low-cost microscope series (sG series) |
Low magnification microscope (LRS series) High magnification microscope (LRA series) |
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<Suitable for measurement> All other product lines have latching function.
(Note) If you want to measure with a low magnification microscope as mentioned, our “low magnification microscope” (LRS series) is not suitable for size measurement (Because reproducibility cannot be achieved). Although the magnification cannot be lowered with the LRS series, if you attach the “0.5x auxiliary lens” to the TG series, it can be used as a low magnification microscope for reproduction.
| TG series | Auxiliary lens on 0.5X | |
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Microscope TG500CS
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Auxiliary lens on 0.5X |
Although the TG series could not achieve as low magnification as the LRS series, it can maintain a field of view as wide with two dimes and perform highly reproducible measurements.
We occasionally receive requests expressing the desire to increase magnification with an extended working distance.
Typically, increasing magnification results in a shorter focal length.
Allow me to present options classified under the category of long-range types.
Our extended working distance microscope not only incorporates a 10x zoom function but also achieves an extended working distance seamlessly.
The focal length can be adjusted freely within the range of 200 mm to 400 mm.
In the horizontal direction, it measures 6.7 mm, equivalent to an approximate magnification of 70 times.
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High-performance Long-distance High-Definition Microscope (Stand type) LRA200XM-S |
The resolution, as reflected by a glass scale used for resolution checks, is as follows.
While the presence of a 10x zoom function and the ability to vary magnification at the same distance represent significant advantages, there is a slight reduction in resolution.
The field of view at maximum magnification with a focal length set to 250mm→400mm is as follows.
By adding a 2x rear converter and a 15mm close-up ring to a 75mm telephoto lens, it can serve as an alternative to the Long-Working Distance Microscope (LRA series).
Without a zoom function, once the focal length is decided, the magnification is determined. The horizontal field of view is 8mm, resulting in approximately 60x magnification.
When projecting a glass scale for resolution checks, it appears as follows.
While the focal length can be adjusted, once determined, it fixes the magnification as well. Without a zoom function, the lens has fewer elements, resulting in a brighter image and higher resolution compared to the aforementioned Long-Working Distance Microscope (LRA series).
In a direct comparison at maximum magnification, it slightly falls short compared to the Long-Working Distance Microscope (LRA series). The price is lower due to the absence of a zoom function.
When the focal length is set to 250mm→400mm, the field of view is as follows.
There are specialized lenses with high resolution, high magnification, and zoom functionality available through our products. For more details, please inquire.
It is capable of achieving 420x magnification at a focal length of 200mm.
When conducting polarized observation, the efficacy is heightened by incorporating polarization filters on both the emitting and incident light sides. Subsequently, the polarization intensity is adjusted by rotating either of the polarization filters.
Our company’s microscopes, specifically the TG and FZ series, are equipped to facilitate polarized observations by directly affixing light-emitting diodes (LEDs) to the lens.
Due to the concurrent placement of auxiliary lenses and incident-side filters, their simultaneous attachment is precluded.
In this scenario, the utilization of our LED Angle (LED-A2) enables polarized observations.
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LEDs are affixed beneath the angle. (Caution) The installation space for the angle cannot be secured unless the focal length is elongated. Consequently, it can only be utilized when employing auxiliary lenses to reduce magnification. |
Introducing Approaches to Achieve High Magnification Levels Beyond 200x with a Focal Length of Over 100mm.
・Our NSH lenses feature specialized objectives, providing 2x or 5x.
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Option: 2X Objective Lens QM Plan Apo L2 (2X)
Option: 5X Objective Lens QM Plan Apo HL (5X) |
This is an exceptionally unique lens.
Achieving high magnification and long working distances while ensuring elevated resolution.
f=100mm yields 900x magnification
f=200mm provides 420x magnification
実体顕微鏡とマイクロスコープにはそれぞれ、メリット、デメリットがあります。
それぞれの特徴を理解して使い分ける必要があります。
本来、実体顕微鏡も英語で表記すれば、マイクロスコープとなります。
業界によっては、顕微鏡をマイクロスコープと呼ぶ場合もありますが、今回は単眼のデジタルマイクロスコープをマイクロスコープとしてご説明します。
目次
大きな違いは、実体顕微鏡は２光路設計になっていることです。
右と左で独立した光路となります。
右と左で視野も異なります。
下記のコインを立てて、実体顕微鏡で観察すると
この異なった視野を観察者が一つの映像として観察します。
人間の目が2つあるのと同じです。
これによるメリットは、対象物が立体的に見えます。
遠近感もわかるので、加工作業をされる方は実体顕微鏡が必要です。
デメリットとして、使う時に少しコツが必要です。
（初めて使う方は、映像が1つにならず、戸惑うと思います。）
3眼式の実体顕微鏡の場合、カメラポートは左右どちらかの映像となります。
（映像も斜視となります。）
デメリットとしては、高倍率の観察ができません。
（製造時に左右の微妙な調整が必要な為です。）
倍率は比較的低倍率となります。ズーム比もそれ程大きくありません。
汎用的なもので、10～50倍程度、高倍率タイプでも100倍程度が実体顕微鏡の限界となります。
また、長時間の作業では作業者のストレスが大きくなります。
目幅調整、視度調整 等、観察者個人ごとの調整が必要です。
左右で視野が異なるので、正確な位置決め、2次元の寸法測定には不向きです。
上記の用途で顕微鏡を使う場合は、単眼顕微鏡を使います。
基本的には単眼レンズとなります。
人間が片目で物を視る時と同じで、遠近感はわかりにくいという欠点があります。
上記のコインであれば、レンズ中心部では下記のように見えます。
豊富なレンズから選べるので、低倍率から高倍率（2000倍超えまで）まで対応できます。
また、モニタ観察になるので、初めての方でも簡単に観察でき、疲れにくく、長時間の観察（検査）に向いています。
真上からの観察（直視）なので、位置決めや寸法測定にも向いています。
PCとの親和性もよく、映像の保存・画像処理・焦点合成 等 様々なソフトウエアが使えます。
実体顕微鏡とマイクロスコープの倍率は単純に比較ができません。
実体顕微鏡は目で確認するのに対して、マイクロスコープはモニタで観察します。
その時にモニタ倍率を含んでしまいます。
倍率での単純比較はできませんが、観察視野で比較すると単純な比較ができます。
例えば、
顕微鏡の観察視野は視野数で計算します。
視野数20の顕微鏡の場合、10倍時に直径20ｍｍの視野になります。
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上記の実態顕微鏡と同じ視野を観察したい場合、下記のマイクロスコープであれば20倍になります。
（実体顕微鏡では10倍になります。）
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また、マイクロスコープの場合は、モニタサイズで変わってしまいます。
詳細は、下記の記事をご覧ください。
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・実体顕微鏡向きの用途
取付け、加工、立体物の検査・観察 等
・マイクロスコープ向きの用途
外観検査、正確な位置決め（芯出し 等）、凹凸の無い寸法測定 等
松電舎ではお客様の用途に合わせ、USBマイクロスコープ、4Kマイクロスコープ、ハイビジョンマイクロスコープなどを取り揃えております。用途、倍率、接続方式などに合わせ、各種お選びいただけます。
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USBマイクロスコープ |
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4Kマイクロスコープ |
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ハイビジョンマイクロスコープ |
Shodensha Vietnam extends its deepest gratitude for your unwavering cooperation and support. We seize this opportunity to express our heartfelt thanks and to inform you of the New Year’s closure schedule for Shodensha Vietnam as follows:
● Closure Period: January 1, 2024
● Business Resumption: January 2, 2024 (Tuesday)
We sincerely wish you a splendid New Year’s holiday and hope for your continued happiness and prosperity.
Yours faithfully,
A versatile 1.3-megapixel type, suitable for various scenarios, is now available at a low price.
– Enhance the convenience of high-speed cameras with two included software applications!
– High-speed cameras available at an ultra-low price starting from the 300,000 yen range.
– Effective pixel count of 1280×1024 resolution at 200fps (frames per second), and at 224×224 resolution, the maximum speed reaches 2300fps.
– Abundant options for resolution and frame rate selection.
* Note: Lenses are required separately.
It can be used in remote locations that were not possible with USB types. The cable can be extended up to 100m!
●The cable can be extended up to 100m, which is not possible with USB types!
●Two types of software are included as standard!!
・SpeedCapture allows you to record and check the time before and after the trigger
・REAL Slow allows you to observe in slow motion without recording
●High-speed cameras at ultra-low prices
●300 fps (frames per second) at a resolution of 640 x 480 (VGA) effective pixels, or up to 800 fps (frames per second) at a resolution of 240 x 180
●Lenses are required separately.
Electron microscopes and stereomicroscopes each carry their own unique benefits and drawbacks. Understanding the specific characteristics of each type is important to use them flexibly.
In general, if expressed in English, both can be called “microscopes”. Although in industry there are instances when microscopes are referred to as microscopes, in this case we will explain “microscopes” in terms of single-eyehole digital display machines.
One big difference is that the Entity Optical Microscope is designed with two independent optical systems, creating two independent light paths on the right and left.
When observing with a physical Optical Microscope, the viewing range from right and left will be different. If you place a coin as follows to observe:
When observing, the observer will see both different visions as a single image, similar to how humans have two eyes.
The benefit of this is that the object will look like a real space. You can also understand the feeling of near and far, so people doing processing work often need to use Physical Optical Microscopy. The downside is that it requires a bit of technique when using (first-time users may feel strange about the unnatural image).
In the case of a Trinocular Optical Microscope, the camera port will contain an image from one side, either the right or left side (the image will also have a tilt effect).
Another disadvantage is the inability to observe at high magnification (due to the need for delicate adjustment between the right and left sides during manufacturing). The magnification is usually low and the magnification ratio is not large. Normally, even for general types, magnification is only 10 to 50 times, and in high-end cases, only about 100 times is the limit of physical Optical Microscopy.
Furthermore, in long-term work, workers can experience a lot of pressure. Eye widening, vision correction, and personal adjustments by the observer are necessary.
Because the field of vision is different between right and left, it is not suitable for precise positioning and two-dimensional measurement. In the above applications, people often use monocular microscopes.
Basically, it mainly uses single lens.
Just like when people look at objects with one eye, this has the disadvantage of making it difficult to perceive near and far. In the case of the coin mentioned above, when viewed from the center of the lens, the image will look like this:
Because it is possible to choose from a variety of lenses, the microscope can accommodate from low to high magnification (exceeding 2000x).
Furthermore, with on-screen observation, even new users can easily observe without causing fatigue, suitable for long-term observation (inspection).
Due to the frontal view (upward angle), it is also suitable for locating and measuring dimensions. It is compatible with computers and can use a variety of software such as image storage, image processing, focus fusion, and many other features.
Magnification between Physical Optical Microscopy and Microscopy cannot be directly compared. While Optical Microscopy is visually confirmed, Microscopy is observed on a screen.
At that time, the magnification of the screen must be taken into account.
Although a direct comparison of magnification is not possible, if the comparison is based on the field of observation, a simple difference can be seen.
For example, the field of view of a microscope is calculated by the number of fields. For a microscope with 20 fields, when magnified to 10 times, the field of view will have a diameter of 20 mm.
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If one wants to observe the same field as in the mentioned physical Optical Microscopy, with the Microscope below, the magnification will be 20 times.
(Meanwhile, in Organic Optical Microscopy, the magnification is only 10 times.)
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Furthermore, in the case of a Microscope, the magnification will vary according to the screen size.
For details, see the article below.
・Physical Optical Microscopy is suitable for applications such as:
Installation, machining, physical object inspection/observation, etc.
・The microscope is suitable for applications such as:
Check appearance, determine precise positioning (such as shaft placement), measure dimensions without surface deviation, etc.
At Shodensha, we have arranged microscopes such as USB Microscope, 4K Microscope, High Definition Microscope, and many more options to suit the needs of our customers. Depending on the purpose of use, magnification, connection method, we provide many choices for you.
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Microscope USB
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Microscope 4K
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Microscope Full-HD
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40 small diameter LED ring lights
● Inner diameter ：φ28mm、outer diameter：φ60mm
● 40 small diameter LED ring lights
● Dimmable with control box
●The wide-angle objective lens allows accurate observation of the entire image even with a small diameter.
●It allows non-destructive visual inspection of the inside of narrow parts that cannot be reached directly by the human eye.
●Compatible with various lighting of M10 P=0.5 and M8 P=0.5
●φ4.0mm: Effective length 175mm/viewing direction 0°/viewing angle 100°
●The wide-angle objective lens allows accurate observation of the entire image even with a small diameter.
●It allows non-destructive visual inspection of the inside of narrow parts that cannot be reached directly by the human eye.
●Compatible with various lighting such as M10 P=0.5 and M8 P=0.5.
●φ2.7mm: Effective length 110mm/viewing direction 0°/viewing angle 95°
●It allows non-destructive visual inspection of the inside of narrow parts where the human eye cannot reach directly.
●Compatible with various lighting of M10 P=1.0 and M10 P=0.5
●Effective length 95mm/viewing direction 0°/viewing angle 80°
We can manufacture custom-made borescopes according to your needs.
You can choose from the table below.
●Can be used in environments with ambient temperatures up to 1600°C
●New rod lens for bright, clear images
●Compatible with USB cameras, GigE cameras, high-definition cameras, etc.
*Since this is a custom made product, there are no demo units available.
*Test shooting is possible if we receive a sample of the product.
●Camera adapter for connecting a C-mount camera to a borescope, fiberscope, or industrial endoscope
●Adapter lens allows for magnification and focus adjustment (distance from subject is infinity to 3mm)
●Higher resolution than previous models
●Can be connected to 28mm to 32mm eyepieces
Camera adapter lens for connecting a C-mount camera to a borescope or fiberscope
Focus can be adjusted with the adapter lens
(Distance from subject is infinity to 3mm)
*Can be connected to various 1/3 inch C-mount cameras
*Can be connected to 28mm to 32mm eyepieces
●Coaxial LED lighting that can be attached to various borescopes and fiberscopes with M10 and P=0.5
●Light intensity can be visualized with a 7-segment display
●Comes with an RS232 terminal that can be controlled by a computer (SDK included)
●2m extension cable (from lighting to power supply) included as standard
●0.8mm ultra-thin flexible fiberscope
●Image transmission via optical fiber
●Can be inserted into curved pipe structures and complex shapes
●Can perform non-destructive visual inspection of the inside of narrow parts that cannot be directly reached by the human eye.
*Peripheral equipment such as a light source is required depending on the application.
●Easy-to-hold shape handheld camera
●Easy operation with buttons at your fingertips (pause, white balance, zoom function）
●HD images with Full HD resolution (up to 1920×1080)
●Smooth display with 60fps
※Borescope is sold separately
When observing in complete darkness with strong light from one direction, a normal camera can cause problems such as:
1. Dark
2. Bright and dark areas are emphasized
To solve these problems, we have developed an original camera specifically for borescopes that has high sensitivity and a wide dynamic range.
Tripod adapter sold separately
A recorder (optional) for saving still images and videos is also available.
*Monitor not included.
USB type that allows you to directly import observed images to a PC
RoHS, FCC, and CE compliant! Also suitable for embedding in products for overseas markets!
●Can be observed on a PC
●1.3 megapixel USB3.0 camera
●External trigger input/strobe signal terminal included
●3 general-purpose I/O terminals included
●Global shutter
Just connect the borescope and you can start shooting right away!
High-definition camera system directly connected to a monitor
This shooting set comes with an original camera made specifically for borescopes, which has high sensitivity and a wide dynamic range.
Borescope and monitor are not included.
*A monitor can also be arranged upon request.
A recorder (optional) for saving still images and videos is also available.
*Monitor not included.
Once you connect the borescope, you can start shooting right away!
USB camera system for connecting to a PC
A shooting set that comes with a USB camera that allows you to directly import observed images to a PC.
Borescope and PC are sold separately.
*A PC can also be provided upon request.
A recorder (optional) for saving still images and videos is also available.
*A monitor is not included.
マイクロスコープの倍率と顕微鏡の倍率の違い
