1. Are Dino-Lite handheld microscopes Optical Zoom?
Dino-Lite microscopes operate via optical zoom. The standard USB AM4XX microscopes are optical zoom from 10X~230X. The enhanced working distance models or "L" series i.e. AD4013TL, are optical 10X~92X
2. All about the Dino-Lite LED lights
1. How long do the built-in LEDs last?
The Dino-Lite uses long-lasting LED lights rated at 20,000 operational hours. The LEDs can be
toggled on/off while using the Dino-Lite and will remain off while the DinoCapture software is
not in use to maximize the life of the LEDs.
Usage -------- Average LED Life
24 hours/day ~2 years +
6 hours/day ~ 9 years
2 hours/day ~ 25 years
2. What is the purpose of LED light?
Light Emitting Diode (LED) is a semiconductor device that emits light when an electric current
passes through it. LED lights are brighter in one spot while regular lights are softer.
3. How fast can the LEDs be cycled ON/OFF?
For example if a customer used the SDK to create a program that would cycle the lights ON/
OFF,
how fast could the lights be toggled?
- The maximum switching rate could be in the order of 20 Hz
4. How does the strobe feature (model AD3613TB) affect LED life?
While in a strobe pattern, the LED lights alternate being in an "on" and "off" state. Neither the
changing of state nor the time in the "off" state draws against the LEDs operational lifetime.
Thus using the strobe feature on capable models will prolong the operational life of the build-in
LED lighting when compared to using a consistent "on".
5. What is the brightness and wavelength of the LED’s?
The brightness of LEDs is measured in millicandela (mcd), or thousandths of a candel
LED -----------------------Optical Power Output ------------Relative Emission Intensity
White LED 2600mcd------- N/A ----------------------------1.0 a.u.
FVT (400nm) --------------Max.=20mW --------------------1.0 a.u
FV2W (375nm)------------ Max.=13.600mW -------------- 1.0 a.u.
White LED's wavelength 500 ~ 700nm
The color temperature of the LED’s range from 5500-9500K.
Near UV 375nm~405nm
Near Infrared ~ 850nm ~ 940nm
3. About Dino-Lite UV and IR lights
1. What is the purpose of near UV LED light?
With a near UV light digital Camera you can capture very detailed data, which can be undetected
by human eyes. Below are images depicting the greater detail (scratches, blemished, etc.)
that can be captured when using a UV camera versus a standard camera.
SURFACE INSPECTION
IDENTIFICATION
3D INSPECTION SELECTION
PCB INSPECTION/SOLDER INSPECTION
2. What Is Ultraviolet Light?
Ultraviolet light is part of the light spectrum, which is classified into three wavelength ranges:
UV-C from 100 nanometers to 280 nm;
UV-B from 280nm to 315 nm; and,
UV-A from 315 nm to 400nm.
These waves are invisible to the human eye, but some insects like bumblebees, can see them.
The human eye responds to light with wavelengths from about 400 nm (violet) to 700 nm (red).
Visible light waves are the only electromagnetic waves we can see. We see these waves as the
colors of the rainbow. Each color has a different wavelength. Red has the longest wavelength
and violet has the shortest. When all the waves are seen together, they make white light.
3. What Is the Dino-Lite near UV series light output power (mW or mW/cm2)?
The light output power of the near UV LED for
AD4113T-FVW is about 16mW x 4 LED = 64mW
AM4113-FVT is about 16mW x 8 LED = 128mW
AM4113T-FV2W is about 11mW x 4 LED = 44mW
The diverge angle for AM-4113FVT-- 40o
4. How sensitive to infrared light are the Dino-Lite Digital Microscopes?
Dino-Lite scope lens are glass with IR coated. The filter is an IR pass filter.
The Dino-Lite digital microscopes are sensitive up to 940nm
NOTE: Only the AM413FIT (850nm) has IR cut filter, and AD413T-I2V (IR 940nm) has no IR
cut filter.
That is the center value of the wavelength. Since it is LED, not laser, the wavelength has
bandwidth.
The AM413-FIT (IR) and AM4113FVT (UV) contain visible light filters. Other models with
variable lighting, like the AD413T-I2V (UV/IR) do not contain visible light filters. These models
are most effective in imaging UV and IR at distances of less than 3 inches..
For near UV
• Excitation: near-UV LEDs (on/off software adjustable), 390-400nm
• Excitation: near-UV LEDs 365nm~375nm
• Emission Filter Cutoff Wavelength: 425nm
The light output power of the UV LED for AM4013FVW is about 16mW x 8 LED = 64mW
The light output power of the UV LED for AM4013T-FV2W is about 11mW x 4 LED = 44mW
5. Dino-Lite (UV and IR) contain filters for visible light?
Some models, including the AM413-FIT (IR) and AM4013FVT (UV) contain visible light
filters. Other models with variable lighting, like the AD413T-I2V (UV/IR) do not contain visible
light filters. These models are most effective in imaging UV and IR at distances of less than 3
inches.
6. What is the brightness and wavelength of the LED’s?
The brightness of LEDs is measured in millicandela (mcd), or thousandths of a candel
LED -----------------------Optical Power Output ------------Relative Emission Intensity
White LED 2600mcd------- N/A ----------------------------1.0 a.u.
FVT (400nm) --------------Max.=20mW --------------------1.0 a.u
FV2W (375nm)------------ Max.=13.600mW -------------- 1.0 a.u.
White LED's wavelength 500 ~ 700nm
The color temperature of the LED’s range from 5500-9500K.
Near UV 375nm~405nm
Near Infrared ~ 850nm ~ 940nm
4. What is the spectral response of the Dino-Lite handheld Microscopes?
Please see “Dino-Lite Relative Spectral Response” » chart
5. Field of View (FOV)
Chart: Detail of Working Distance vs Magnification » (FOV and DOF)
The viewable area varies depending on the distance of the scope from the object. Each hand-held Dino-Lite scope has a clear protective “nozzle” which provides a “buffer” of approximately 2 cm between the scope lens and the end of the nozzle.
Distance from object viewable area
AM 4xx Series Working Distance Example
Magnification Working Distance Viewable Area
~200x -------- Zero Distance - “viewable area” ~ 0.098" (L) x 0.078" (W) / 2.5mm x 2mm
~50x -------- Zero Distance - “viewable area” ~ 0.35" (L) x 0.27" (W) / 9mm x 7mm
~40x -------- 0.8cm / 0.3” - " ~ 0.4” (L) x 0.3” (W) / 10mm x 8mm
~20x -------- 2.5 cm / 1” - " ~ 0.8” (L) x 0.6” (W) / 20mm x 15mm
~12x -------- 10.2cm / 4” - " ~ 1.5” (L) x 1.2” (W) / 40mm x 30mm
AD 4xx, AD413M(Z)T Series Working Distance Example
Magnification Working Distance
With Cap, ~50x, ~200x Touch Object.
Without Cap
Magnification Working Distance Viewable Area
~200x -------- 0.4" " ~ 0.098" (L) x 0.078" (W) / 2.5mm x 2mm
~50x -------- 0.4" " ~ 0.35" (L) x 0.27" (W) / 9mm x 7mm
~40x -------- 0.7” - " ~ 0.4” (L) x 0.3” (W) / 10mm x 8mm
~20x -------- 1.9” - " ~ 0.8” (L) x 0.6” (W) / 20mm x 15mm
~12x -------- 4.4” - " ~ 1.5” (L) x 1.2” (W) / 40mm x 30mm
*** To obtain magnifications of 60X~180X, the object must be within the clear plastic cap of the microscope which is about 20mm long.
While viewing at 60X~180X, be cautious not to touch the internal components or lens.
Here are some approximate distance to magnification of the object
placed within the clear plastic protective cap.
75x ~ 3.5mm
100x ~ 6mm
125x ~ 6mm
150x ~ 3.5mm
175x ~ 3mm
(Note that placing objects within the clear plastic cap is originally not recommended by the manufacturer.
The purpose of the cap is to protect the internals of the microscope.)
AD 4013/ 413 "L" Series (20x~92x) Working Distance Example
(Model AD413, 4013TL, AD4013ML)
Magnification Working Distance Viewable Area
~92x -------- 4.7 cm /1.9” - “viewable area” ~ 0.15” (L) x 0.11” (W) / 3.8mm x 2.85mm
~79x -------- 5.0 cm /2.0” - “viewable area” ~ 0.18” (L) x 0.13” (W) / 4.5mm x 3.3mm
~52x -------- 6.3 cm /2.5” - " ~ 0.27” (L) x 0.20” (W) / 6.8mm x 5.1mm
~27x -------- 11.5 cm /4.5” - " ~ 0.52” (L) x 0.38” (W) / 13mm x 9mm
~20x -------- 14.4 cm /5.7” - " ~ 0.7” (L) x 0.4” (W) / 18mm x 10 mm
AM4013TL-M40 (1x~37X) Estimate Magnification / Working Distance ------
Magnification -------- Working Distance --------- Viewable Area
~5X ---------------------- 16.5" / 42cm -------- 3.62" (L) x 2.25" (W) 9.5cm x 6.0cm
~10X ----------------------6.5" / 16.5cm -------- 1.75" (L) x 1.25" (W) 4.5cm x 2.9cm
~15X ----------------------4.5" / 11.5cm -------- 1.18" (L) x 0.75" (W) 3.0cm x 1.9cm
~20X ----------------------3.5" / 8.9cm -------- 0.87" (L) x 0.56" (W) 2.2cm x 1.5cm
~25X ---------------------- 2.62" / 6.6cm -------- 0.68" (L) x 0.43" (W) 1.7cm x 1.1cm
~30X ---------------------- 2.5" / 6.3cm -------- 0.56" (L) x 0.37" (W) 1.5cm x 1.0cm
~35X ---------------------- 2.25" / 5.7cm -------- 0.5" (L) x 0.31" (W) 1.2cm x 0.8cm
Detail chart of AM4013TL-M40 WD vs Magnification
AM 413MT5 / T5 (500X fixed magnification) Working Distance Example
Magnification Working Distance Viewable Area
~500x -------- 0mm~3mm “viewable area” ~ 0.026" (L) x 0.02" (W) / 0.666mm x 0.499mm
AM4013ZT4 (400X~ 480X fixed magnification) Working Distance Example
Magnification Working Distance Viewable Area
~ 480X ------------ ~ 7.5mm -------------------- 0.79mm x 0.59mm
~ 470X ------------ ~ 6.5mm --------------------0.81mm x 0.60mm
~ 460X ------------ ~ 6mm --------------------0.82mm x 0.61mm
~ 450X ------------ ~ 5mm -------------------- 0.85mm x 0.63mm
~ 440X ------------ ~ 4mm -------------------- 0.87mm x 0.65mm
~ 430X ------------ ~ 3mm -------------------- 0.88mm x 0.66mm
~ 400X~ 420X--- ~ 0-1mm --------------------0.91mmx 0.68mm
AM4013MT (Metal shell) has additional Magnification after remove len cover
Magnification / Working Distance
50x ~ 12mm
75x ~ 8.5mm
100x ~ 6mm
125x ~ 6mm
150x ~ 7.5mm
175x ~ 9mm
AM 3xxx Series Working Distance Example
Magnification Working Distance Viewable Area
~200X -------- Zero Distance - “viewable area” ~ 0.066” (L) x 0.049” (W) / 1.67mm x 1.25mm
~60x -------- Zero Distance - “viewable area” ~ 0.23” (L) x 0.17” (W) / 5.8mm x 4.3mm
~30x -------- 2cm / 0.79” - " ~ 0.4"(L) x 0.27” (W) / 10mm x 7mm
~20x -------- 5.0cm / 2.0” - " ~ 0.7” (L) / 0.4” (W) / 18mm x 10 mm
~17x -------- 10cm / 3.9” - " ~ 0.9” (L) x 0.6” (W) / 23mm x 15mm
~15x -------- 15cm / 5.9” - " ~ 1.5” (L) x 0.9” (W) / 38mm x 23mm
~10x -------- 20cm / 7.9” - " ~ 1.9” (L) x 1.5” (W) / 48mm x 38mm
AM Series with MS12C - VARIABLE VIEW RANGE CADDIE KIT
MS12C - INCLUDES BASE CADDIE PLUS TWO VARIABLE VIEW RANGE ADAPTORS
Base view range -about 0.58 inches away from object~ 40x
Base + 1 Adaptor -about 1.6 inches away from object ~ 25x
Base + 2 Adaptors-about 2.40 inches away from object ~18x magnification
6. Depth of Field
The depth of field of different magnification rates has been obtained as following:
~20x --> ~3 mm (40xx series) ~ 4 mm (4xx series)
~40x --> ~1.28 mm (40xx series) ~ 1.6 mm (4xx series)
~50x --> ~0.88 mm(40xx series) ~ 1.17 mm (4xx series)
~500x--> ~ 0.09mm
Detail chart of Depth of field » (FOV and DOF)
Depth of field of AM413T, AM/D413TL »
7. Polarizer Feature
8. MicroTouch Feature
9. Should I choose a unit with ABS plastic or metal housing?
10. Should I choose a USB connection or TV? USB vs. TV
11. What resolution do I need? 0.3MP, 1.3MP or 5MP
12. Which format should I use?
With VGA and SVGA models, the JPEG file format is easiest to save and email. JPEG also uses least amount of storage space.
Use the BMP (AM and EM series) or TIFF (EM series only) file format for better quality image when printing or publishing.
Use TIFF, PSD or EPS formats (EM series only) if CMYK true color images are required when printing or transferring images.
RAW format
Raw image files are unprocessed and uncompressed image data files.To convert your processed BMP into a raw file format for the purposes of compatibility, you will need to use third party software available online. One such software is available here:
http://www.softpedia.com/get/Multimedia/Graphic/Image-Convertors/Batch-Image-Converter-LLS.shtml
Reference of RESOULUTION VALUES
Pixel counts can be expressed as a single number, as in a "three-megapixel" digital camera, which has a nominal three million pixels, or as a pair of numbers, as in a "640 by 480 display", which has 640 pixels from side to side and 480 from top to bottom (as in a VGA display), and therefore has a total number of 640 × 480 = 307,200 pixels or 0.3 megapixels.
A megapixel is 1 million pixels, and is a term used not only for the number of pixels in an image, but also to express the number of image sensor elements of digital cameras or the number of display elements of digital displays.
For example, a camera with an array of 2048×1536 sensor elements is commonly said to have "3.1 megapixels" (2048 × 1536 = 3,145,728).
Therefore: Width x Height
640 x 480 = 307,200pixels / 1,000,000 = 0.3Megapixels
1280 x 1024 = 1,310,720pixels / 1,000,000 = 1.3Megapixels
VGA 640 x 480
SVGA 800 x 600
XGA 1024 x 768
WXGA 1366 x 768
SXGA 1280 x 1024
UXGA 1600 x 1200
QXGA 2048 x 1538
Pixel resolution - Under VGA Model 640 x 480 image, the resolution of a single pixel can be calculated to be
1757.3 microns/640 pixels = 2.745 microns (0.002745mm) per pixel
Pixel resolution - 1.3MP - 1280 x 1024 image, the resolution of a single pixel can be calculated to be
1757.3 microns/1280 pixels = 1.37 microns (0.00137mm) per pixel
Links for an idea of how large the different resolutions are:
640x480 - http://placehold.it/640x480 »
1280x1024 - http://placehold.it/1280x1024 »
2592x1944 - http://placehold.it/2592x1944 »
When saving images with the VGA models, you are able to achieve 300 DPI after reformatting the resolution;
For 1024 x 768 resolution can provide 2.1” x 1.6” at 300 DPI
For 1280 x 1024 resolution can provide 3.4” x 2.5” at 300 DPI
Pixel resolution - Under 640 x 480 image, the resolution of a single pixel can be calculated to be
1757.3 microns/640 pixels = 2.745 microns (0.002745mm) per pixel
Save file format allows you the option to save in 1024x768 large picture size. The JPEG format is recommended as the most common format for this but if a 100% true color match is required then you need to save in BMP or TIFF file format.
How many levels of gray could the Dino-Lite digital handheld microscopes camera see?
The Dino-Lite can see 256 levels of gray.
13. How many microns per pixel can be seen with the Dino-Lite?
To determine microns per pixel, measure the field of view at themagnification being used. For example, using the AD413T at its highest magnification (~220x), the FOV is 2.2mm or 2200um.
Take the FOV in microns and divide by the resolution of the Dino-Lite, so in this case we would divide 2200um by 1280 pixels. 2200um/1280 pixels = 1.72um/pixel.
Since the Dino-Lite handheld microscopes offer variable magnification, the microns per pixel will be different with each magnification. The above method can be performed for any magnification you wish.
14. Do Dino-Lite microscopes store any user data?
No, the Dino-Lite microscopes do not store any customer data in the device when the Dino-Lite digital microscope is removed and the power is turned off.
Dino-Lite handheld microscopes use EEPROM memory which are non-volatile.
The information is only setup data which is not user accessible and there is no user data path.
For more information see the "letter of volatility" »
15. Temperature & High-pressure environments
For Temperature Rating
Internal electronic components: Temperature rating (14° F ~ 131°F) / (-10° C ~ 55° C)
External Housing (Casing) Temperature rating (14° F ~ 158°/ 176°F) / (-10° C ~ 70° C / 80°C)
For Plastic Nozzles
AD caps Models Temperature rating (14° F ~ 266°F) / (-10° C ~ 130° C)
AM front cover Models Temperature rating (14° F ~ 158°F) / (-10° C ~ 70° C)
Notes: Due to the internal adhesive, using the device in an environment over 70°C is NOT recommended. In higher temperature application it’s recommended to use a metal exterior unit.
High-pressure environment -
The Dino-Lite model AD3613 is designed with a special housing or MSAH300 Protective Enclosure that makes better suited for high pressure environments. The microscope can operate in pressures up to 125 psi if the pressure is gradually increased. The pressure should not be rapidly increased.
16. (ESD) Electrostatic discharge, (MRI) Environment Safe and Dino-Lite Microscopes
(ESD) Electrostatic discharge -
Dino-lite Microscope Body:--- No Significant Static
Dino-lite Microscope Nozzle:--- Minor static generation*** (Internal company test test Approx 3-5K Volts)
BigCatch MS12C Portable Cradle Stand:--- No Significant Static
*** Any generated static was quickly dissipated.
(MRI) Environment Safe -
There are parts in the Dino Lite microscope as well as the USB cable that connects the Dino-Lite to a computer that may not be safe in an MRI environment.
17. Dino-Lite AC adapter info
Analog model AC adapter
Volts x Amps = Watts
Input: 100-240V, 150mA = 15 – 36 watts
Output: 5V, 800mA = 4 watts
18. Maintenance and Cleaning
All digital microscopes and eyepiece camera internal components are sealed within the housing
and require only occasional cleaning to maintain their optical integrity.
1. It is recommended that these instruments be used and stored in a clean, cool
and dry environment and that care be taken to keep them free of dust and other
contaminants.
2. Avoid exposing to fumes and extreme temperatures and never immerse or rinse in
water.
3. If cleaning is required then first attempt to gently blow off any dust or other
contaminants with compressed air. If no compressed air is available then try to
lightly brush off any lose debris with a fine brush (a makeup brush will work
well).
4. If it becomes necessary to clean the lens then we recommend using a standard
optical lens cleaning solution. To make your own optical lens cleaning solution,
mix one part alcohol (C2H5OH) with three parts ether ((C2H5)2O). Simply
saturate a cotton swab and gently wipe the lens surface clean.
5. Avoid touching the surface of the lens with your finger tips. Also it is advised to
use the plastic or other scope or eyepiece cover when not in use.
CAUTION!!! Never disassemble or open the scope or camera body. This will introduce dust
and other contaminants and may cause permanent damage.
19. Can Microsoft Access collect an image from Dino-Lite and place it into my database?
Dino-Lite microscopes are WIA (Windows Image Acquisition) compatible. This means that in addition to our bundled software, the microscopes are capable of being used in a function similar to any webcam that uses WIA. Please see the following third-party link for an example of WIA being used to capture images to Microsoft Access:
http://www.ammara.com/support/samples/access-wia-camera-control.html »
1. How do I choose an Eyepiece Camera?
| How to Select and Setup DinoEye Microscope Camera | ||
|---|---|---|
| Arrangement: | Use this camera: | Installation: |
![]() #1 Binocular Microscope Camera replaces one microscope eyepiece | AM4023 AM4023X AM4023XC AM7023 AM7023B* *30mm diameter only | ![]() Step 1. Remove one eyepiece from ocular tube Step 2. Insert camera into the ocular tube |
![]() #2 C-Mount 3rd Ocular Camera connected to third ocular through relay lens | AM4023X AM4023XC | ![]() Step 1. Connect relay lens to C-Mount camera Step 2. Insert the camera into the third ocular |
![]() #3 C-Mount Straight Photo Tube Camera connected to straight photo tube with camera adaptor | AM4023CT AM7023CT | ![]() Step 1. Connect the camera adaptor to the photo tube Step 2. Connect the camera to the camera adaptor |
![]() #4 Universal ocular adaptor Universal adaptor set over ocular tube using set screws | AM4023U | ![]() Step 1. Place the universal adaptor over the ocular tube Step 2. Tighten set screws |
2. Dino-Eye Digital Eyepiece
There are two common sized apertures on a microscope: 23mm and 30mm. If you choose
AM4023 is perfect for 23mm Aperture.
If the inner diameter of your eyepiece slot is 30mm or 30.5mm then the AM4023X is another
versatile digital eyepiece. A unique feature it has is that it is capable of being adjusted for focus
because of its tube design that has a 23mm aperture from top to bottom. Included with the
AM4023X are two adapters which are 30mm aperture and 30.5mm aperture.
If you have a unique aperture where other eyepieces would not fit. The AM4023U would be
useful and may able to meet your requirement The way the AM4023U works is that it is made to
be placed over an existing eyepiece that has a 36mm outer diameter or smaller. The AM4023U is
made to see through your current existing eyepiece which eliminates the need to figure out your
microscopes eyepiece slot aperture.
The AM4023 series eyepiece camera is designed with a zoom-in feature. The field of view
(FOV) is approx. 12-14mm allowing for a high quality image of a reduced area.
3. Eyepiece Field of View
Below are several example configurations, along with an estimate of the human eye field of view (FOV) for comparison.
| Model | FOV | FOV |
|---|---|---|
| Human Eye | 3.3mm x 3.3mm 64x (16x eyepiece x 4x objective) | 1.3mm x 1.3mm 160x (16x eyepiece x 10x objective) |
| AM4023 | 1.28mm x 0.97mm | 0.52mm x 0.39mm |
| AM4023X | 1.28mm x 0.97mm | 0.52mm x 0.39mm |
| AM7023 | 1.28mm x 0.97mm | 0.52mm x 0.39mm |
| AM7023B | 1.28mm x 0.97mm | 0.52mm x 0.39mm |

The AM series eyepiece cameras are equivalent to a 20x eyepiece (most traditional eyepiece are using 16x or 10x). Thus for a given objective lens, the eyepiece cameras will usually provide a smaller field of view and larger magnification of the original image when compared to the traditional eyepiece. To achieve a larger field of view with the DinoEye, use a less powerful objective lens, or attach a reducer lens such as a 0.5x lens.
4. Performing measurements with Dino-Eye Eyepiece series
How to do measurements with Dino-Eye
When measuring with the Dino-Eye eyepiece, type in the magnification value from the objective lens. You must calibrate first to receive proper measurements. When using the calibrated measurements, please disregard the calibrated magnification value. Below are instructions on how to calibrate the Dino-Eye.
1. In the live video window select the Calibration drop down menu (or click on the calibration button.
2. Select “New Calibration Profile”.
3. A small window will pop up. Give the profile a name.
4. Click “Continue Calibration” when done naming the profile.
5. In the new menu. Press “F8” or “Freeze” button to freeze the calibration object.
6. Enter the magnification value of the objective lens. Press Enter when finished.
7. A red bar with two blue dotes will appear with pink guidance lines, you are now ready to calibrate.
8. Click on one of the blue dots to start moving the blue dot to your desired location.
9. Click again to stop.
10. Click on the other blue dot to start setting the other end point.
11. Click on the left mouse button again to stop.
12. When the correct distance is measured, enter the known distance.
13. Enter the unit of measure by selecting the “Unit” dropdown box.
14. Press “Finish” when done.
15. Now the Dino-Eye is calibrated to your microscope.
5. Maintenance and Cleaning
All digital microscopes and eyepiece camera internal components are sealed within the housing
and require only occasional cleaning to maintain their optical integrity.
1. It is recommended that these instruments be used and stored in a clean, cool
and dry environment and that care be taken to keep them free of dust and other
contaminants.
2. Avoid exposing to fumes and extreme temperatures and never immerse or rinse in
water.
3. If cleaning is required then first attempt to gently blow off any dust or other
contaminants with compressed air. If no compressed air is available then try to
lightly brush off any lose debris with a fine brush (a makeup brush will work
well).
4. If it becomes necessary to clean the lens then we recommend using a standard
optical lens cleaning solution. To make your own optical lens cleaning solution,
mix one part alcohol (C2H5OH) with three parts ether ((C2H5)2O). Simply
saturate a cotton swab and gently wipe the lens surface clean.
5. Avoid touching the surface of the lens with your finger tips. Also it is advised to
use the plastic or other scope or eyepiece cover when not in use.
CAUTION!!! Never disassemble or open the scope or camera body. This will introduce dust
and other contaminants and may cause permanent damage.
1. RAW Format
Raw image files are unprocessed and uncompressed image data files.To convert your processed BMP into a raw file format for the purposes of compatibility, you will need to use third party software available online. One such software is available here:
http://www.softpedia.com/get/Multimedia/Graphic/Image-Convertors/Batch-Image-Converter-LLS.shtml »
2. How sensitive to infrared light are the Dino-Lite Digital Microscopes?
Dino-Lite scope lens are glass with IR coated. The filter is an IR pass filter.
The Dino-Lite digital microscopes are sensitive up to 940nm
NOTE: Only the AM413FIT (850nm) has IR cut filter, and AD413T-I2V (IR 940nm) has no IR cut filter.
That is the center value of the wavelength. Since it is LED, not laser, the wavelength has bandwidth.
The AM413-FIT (IR) and AM4113FVT (UV) contain visible light filters. Other models with variable lighting, like the AD413T-I2V (UV/IR) do not contain visible light filters. These models are most effective in imaging UV and IR at distances of less than 3 inches..
for near UV
• Excitation: near-UV LEDs (on/off software adjustable), 390-400nm
• Excitation: near-UV LEDs 365nm~375nm
• Emission Filter Cutoff Wavelength: 425nm
The light output power of the UV LED for AM4013FVW is about 16mW x 8 LED = 64mW
The light output power of the UV LED for AM4013T-FV2W is about 11mW x 4 LED = 44mW
Dino-Lite (UV and IR) contain filters for visible light?
Some models, including the AM413-FIT (IR) and AM4013FVT (UV) contain visible light filters. Other models with variable lighting, like the AD413T-I2V (UV/IR) do not contain visible light filters. These models are most effective in imaging UV and IR at distances of less than 3 inches.
3. How many levels of gray could the Dino-Lite digital handheld microscopes camera see?
The Dino-Lite can see 256 levels of gray.
4. What is the brightness and wavelength of the LED’s?
The brightness of LEDs is measured in millicandela (mcd), or thousandths of a candel
LED -----------------------Optical Power Output ------------Relative Emission Intensity
White LED 2600mcd------- N/A ----------------------------1.0 a.u.
FVT (400nm) --------------Max.=20mW --------------------1.0 a.u
FVT2 (375nm)------------ Max.=13.600mW -------------- 1.0 a.u.
White LED's wavelength 500 ~ 700nm
The color temperature of the LED’s range from 5500-9500K.
Near UV 375nm~405nm
Near Infrared ~ 850nm ~ 940nm
How fast can the LEDs be cycled ON/OFF?
For example if a customer used the SDK to create a program that would cycle the lights ON/OFF,
how fast could the lights be toggled?
- The maximum switching rate could be in the order of 20 Hz
The brightness of LEDs is measured in millicandela (mcd), or thousandths of a candel
LED -----------------------Optical Power Output ------------Relative Emission Intensity
White LED 2600mcd------- N/A ----------------------------1.0 a.u.
FVT (400nm) --------------Max.=20mW --------------------1.0 a.u
FVT2 (375nm)------------ Max.=13.600mW -------------- 1.0 a.u.
White LED's wavelength 500 ~ 700nm
The color temperature of the LED’s range from 5500-9500K.
Near UV 375nm~405nm
Near Infrared ~ 850nm ~ 940nm
How fast can the LEDs be cycled ON/OFF?
For example if a customer used the SDK to create a program that would cycle the lights ON/OFF,
how fast could the lights be toggled?
- The maximum switching rate could be in the order of 20 Hz
5. What is the purpose of near UV LED light?
With a near UV light digital Camera you can capture very detailed data, which can be undetected by human eyes. Below are images depicting the greater detail (scratches, blemished, etc.)
that can be captured when using a UV camera versus a standard camera.
SURFACE INSPECTION
IDENTIFICATION
3D INSPECTION SELECTION
PCB INSPECTION/SOLDER INSPECTION
What Is Ultraviolet Light?
Ultraviolet light is part of the light spectrum, which is classified into three wavelength ranges:
UV-C from 100 nanometers to 280 nm;
UV-B from 280nm to 315 nm; and,
UV-A from 315 nm to 400nm.
These waves are invisible to the human eye, but some insects like bumblebees, can see them. The human eye responds to light with wavelengths from about 400 nm (violet) to 700 nm (red).
Visible light waves are the only electromagnetic waves we can see. We see these waves as the colors of the rainbow. Each color has a different wavelength. Red has the longest wavelength and violet has the shortest. When all the waves are seen together, they make white light.
What Is the Dino-Lite near UV series light output power (mW or mW/cm2)?
The light output power of the near UV LED for
AD4013T-FVW is about 16mW x 4 LED = 64mW
AM4013-FVT is about 16mW x 8 LED = 128mW
AM4013T-FV2W is about 11mW x 4 LED = 44mW
The diverge angle for AM-413FVT2-- 40o














