Comparison ThermTec CYCLOPS 335 PRO vs ThermTec CYCLOPS 319 PRO
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|---|---|---|
| ThermTec CYCLOPS 335 PRO | ThermTec CYCLOPS 319 PRO | |
| Outdated Product | Outdated Product | |
| User reviews | ||
| TOP sellers | ||
Connection to a mobile application via Wi-Fi, USB type C (CVBS support), calculation of distance to an object, possibility of installation on a tripod. Built-in GPS receiver. | Connection to a mobile application via Wi-Fi, USB type C (CVBS support), calculation of distance to an object, possibility of installation on a tripod. Built-in GPS receiver. | |
| Type | thermal imager | thermal imager |
| Form factor | monocular | monocular |
| Detection range | 1800 m | 950 m |
Optical specs | ||
| Optical magnification | 3.3 x | 1.8 x |
| Digital magnification | 6 x | 6 x |
| Focal length | 35 mm | 19 mm |
| Receiver resolution | 384x288 px | 384x288 px |
| Refresh rate | 50 Hz | 50 Hz |
| Field of view at 100 m | 24 m | |
| Angular field of view | 7.5 ° | 13.8 ° |
| Offset of the exit pupil | 40 mm | 40 mm |
| Diopter adjustment | ||
More features | ||
| More features | video output built-in video recorder switching monitoring modes dust-, waterproof shockproof ergonomic eyecups | video output built-in video recorder switching monitoring modes dust-, waterproof shockproof ergonomic eyecups |
General | ||
| Power source | built-in lithium battery | built-in lithium battery |
| Continuous operating time | 12 h | 12 h |
| Operating temperature range | -20 °C ~ +55 °С | -20 °C ~ +55 °С |
| Dimensions | 190x67x61 mm | 190x67x63 mm |
| Weight | 550 g | 550 g |
| Added to E-Catalog | november 2023 | november 2023 |
Compare ThermTec CYCLOPS 335 PRO and CYCLOPS 319 PRO
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Glossary
Detection range
The greatest distance at which a night vision device is capable of detecting individual objects.
The methods by which manufacturers determine this parameter may vary in detail, but the general principle is the same. Usually, the distance is indicated at which, with an illumination of 0.05 lux (a quarter of the moon) and a medium-contrast background, a rather large object can be seen — for example, a human figure with a height of about 170 cm is most often taken. of this object, but only to notice the very fact of its presence. Simply put, a detection range of, say, 200 m means that “something that looks like a person” can be seen in such a device at a distance of 200 m, but individual parts (head, hands) cannot be disassembled.
It is also worth noting that in fact this parameter is highly dependent on the characteristics of the situation. For example, a dark object on a very light background will be visible further, and on a dark one it may not be noticeable even up close; a similar phenomenon is observed for thermal imagers (see "Type"), only regarding the difference in temperature, and not in colours.
The methods by which manufacturers determine this parameter may vary in detail, but the general principle is the same. Usually, the distance is indicated at which, with an illumination of 0.05 lux (a quarter of the moon) and a medium-contrast background, a rather large object can be seen — for example, a human figure with a height of about 170 cm is most often taken. of this object, but only to notice the very fact of its presence. Simply put, a detection range of, say, 200 m means that “something that looks like a person” can be seen in such a device at a distance of 200 m, but individual parts (head, hands) cannot be disassembled.
It is also worth noting that in fact this parameter is highly dependent on the characteristics of the situation. For example, a dark object on a very light background will be visible further, and on a dark one it may not be noticeable even up close; a similar phenomenon is observed for thermal imagers (see "Type"), only regarding the difference in temperature, and not in colours.
Optical magnification
The degree of image magnification that a night vision device is able to provide without digital image processing, solely due to the optical system. Such an increase is considered to be preferable to digital, because. it does not impair the clarity of the visible image; and for models based on image intensifier tubes (see "How it works"), this is generally the only available option.
Theoretically, the higher the magnification, the greater the detection range (see above), since a powerful increase allows you to see smaller objects. However, it does not always make sense to chase the maximum performance. The fact is that with increasing magnification, the angular field of view decreases and the minimum focus distance increases (see both below), which can create problems at close range. It is also worth noting that a high degree of magnification adversely affects the luminosity of the entire system — as a result, the actual detection range in complete darkness may be higher for a device with a lower magnification, because. it "catches" more light. Yes, and this parameter affects the cost accordingly.
Note that night vision devices, unlike classical binoculars and monoculars, most often have a fixed magnification. Models with the possibility of smooth adjustment are almost never found, and the only option is to use additional nozzles (see "Form factor").
Now on the market are night vision devices with the following optical zoom: 1x..., 2 – 3x, 3.1 – 4x, > 4x
Theoretically, the higher the magnification, the greater the detection range (see above), since a powerful increase allows you to see smaller objects. However, it does not always make sense to chase the maximum performance. The fact is that with increasing magnification, the angular field of view decreases and the minimum focus distance increases (see both below), which can create problems at close range. It is also worth noting that a high degree of magnification adversely affects the luminosity of the entire system — as a result, the actual detection range in complete darkness may be higher for a device with a lower magnification, because. it "catches" more light. Yes, and this parameter affects the cost accordingly.
Note that night vision devices, unlike classical binoculars and monoculars, most often have a fixed magnification. Models with the possibility of smooth adjustment are almost never found, and the only option is to use additional nozzles (see "Form factor").
Now on the market are night vision devices with the following optical zoom: 1x..., 2 – 3x, 3.1 – 4x, > 4x
Focal length
The focal length of a night vision device. This term means such a distance from the optical centre of the lens to the photocathode of the image intensifier tube or the matrix of a digital device(see "Operation principle"), at which a clear image is obtained on the photocathode/matrix.
In general, long focal lengths are characteristic of optical systems with a high degree of optical magnification (see above). However, in the case of night vision devices, this dependence is not rigid — it is simply easier to ensure a high magnification with long-focus optics. In fact, this means that models with the same focal length can differ markedly in magnification. But what this indicator directly affects is light transmission: other things being equal, longer optical systems transmit less light, which negatively affects the capabilities of the device. This is also true for thermal imagers (see "Type"), because their working infrared range in this case also obeys the general laws of optics.
In general, long focal lengths are characteristic of optical systems with a high degree of optical magnification (see above). However, in the case of night vision devices, this dependence is not rigid — it is simply easier to ensure a high magnification with long-focus optics. In fact, this means that models with the same focal length can differ markedly in magnification. But what this indicator directly affects is light transmission: other things being equal, longer optical systems transmit less light, which negatively affects the capabilities of the device. This is also true for thermal imagers (see "Type"), because their working infrared range in this case also obeys the general laws of optics.
Field of view at 100 m
The size of the area visible in the night vision device from a distance of 100 m — in other words, the largest distance between two points at which they can be seen simultaneously from this distance. It is also called "linear field of view". Along with the angular field of view (see below), this parameter characterizes the space covered by the optics; at the same time, it more clearly describes the capabilities of a particular model than data on viewing angles.
Angular field of view
The angle of view provided by a night vision device — that is, the angle between the lines connecting the observer's eye with the two extreme points of visible space. Wide viewing angles allow you to cover a large area, but the magnification factor (see above) is low; in turn, increasing the magnification leads to a decrease in the field of view.



