Comparison XGIMI Elfin Flip Plus vs BenQ GV32
Add to comparison | ![]() | ![]() |
|---|---|---|
| XGIMI Elfin Flip Plus | BenQ GV32 | |
| Expecting restock | Compare prices 1 | |
| TOP sellers | ||
Stand with 150° rotation. | ||
| Main function | portable | portable |
| Operating system | Google TV | Google TV |
Lamp and image | ||
| Lamp type | LED | LED |
| Service life | 25000 h | 20000 h |
| Service life (energy-saving) | 30000 h | |
| Brightness | 500 lm | |
| Brightness ANSI Lumens | 500 lm | |
| Static contrast | 4 000:1 | |
| Dynamic contrast | 100 000:1 | |
| Colour rendering | 16.7 million colours | |
| Color gamut (sRGB, Rec.709) | 121 % | 95 % |
| Horizontal frequency | 135 kHz | |
| Frame rate | 22 — 62 Hz | |
| Input Lag | 20 ms | 22.4 ms |
Projection system | ||
| Technology | DLP | DLP |
| Size | 0.23" | |
| Real resolution | 1920x1080 px | 1920x1080 px |
| Image format support | 16:9 | 16:9 |
| HDR support | HDR10 | HDR10 / HLG |
| Colour enhancement | ||
Projecting | ||
| Rear projection | ||
| Image size | 80 – 150 " | 30 — 120 " |
| Throw ratio | 1.2:1 | 1.2:1 |
| Projection shift (offset) | 100 % | |
| Zoom and focus | motorized (remote-controlled) | |
| Autofocus | ||
| Auto keystone correction | ||
| Lens shift | ||
| Keystone correction (vert), ± | 20 ° | |
| Keystone correction (horizontal), ± | 30 ° | |
Features | ||
| Bluetooth | v 5.1 | v 5.0 |
| Wi-Fi | Wi-Fi 5 (802.11ac) | Wi-Fi 5 (802.11ac) |
| AirPlay | + | |
| Miracast | ||
| Audio decoders | Dolby Audio, Dolby Digital | |
Hardware | ||
| CPU | MT9630 | |
| RAM | 2 GB | |
| Built-in memory | 32 GB | |
| USB-A 2.0 | 1 pcs | 1 pcs |
| USB-C | 1 pcs | |
| Number of speakers | 2 | 2 |
| Subwoofer | ||
| Sound power | 6 W | 8 W |
| Video connectors | DisplayPort | |
| HDMI inputs | 1 | 1 |
| HDMI version | v 2.0 | |
| Audio connectors | 3.5 mm output (mini-Jack) | |
General | ||
| Noise level (nominal) | 28 dB | 26 dB |
| Noise level (energy-saving / quiet) | 24 dB | |
| Power source | mains | mains |
| Power consumption | 65 W | 80 W |
| Size (HxWxD) | 235x226x71 mm | 211.2x130x191.4 mm |
| Weight | 1.1 kg | 1.6 kg |
| Color | ||
| Added to E-Catalog | march 2026 | october 2025 |
Compare XGIMI Elfin Flip Plus and BenQ GV32
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Glossary
Service life
Minimum projector lamp life as stated by the manufacturer. Specified by the total time of continuous operation. Note that if the projector was operated without violations, then upon reaching this time, the lamp will not necessarily fail — on the contrary, it can work for quite a long time. However, when evaluating durability, it is best to focus on the claimed service life.
Service life (energy-saving)
When working in economy mode, the brightness of the backlight is noticeably reduced, on average by 30-50%. With a decrease in brightness, heat dissipation also decreases, which saves the working life of the illuminator, thereby increasing the lamp life. Thus, the ECO mode allows you to extend the lamp life by an average of 30%. If the typical projector lamp life is 4000 hours, regular use of the ECO mode will extend the backlight life to approximately 5500 hours.
Brightness
The brightness of the image produced by the projector at maximum backlight brightness. Usually, the average brightness of the screen, derived from a special formula, is indicated. The higher it is, the less the image depends on ambient light: a bright projector can provide a clearly visible image even in daylight, but a dim one will require dimming. On the other hand, increasing brightness reduces contrast and accuracy of colour reproduction.
Accordingly, when choosing this parameter, you need to consider the conditions in which you plan to use the projector. So, for office or school/university use, a brightness of at least 3000 lm is desirable — this allows you to get normal visibility without obscuring the room. In turn, among the top models a very low brightness can be found, because. such projectors are usually installed in rooms specially designed for them with good darkness level. And in ultra-compact devices it is impossible to achieve high brightness for technical reasons.
Detailed recommendations on the optimal brightness for certain conditions can be found in special sources. Here we note that anyway, it is worth choosing according to this indicator with some margin. As mentioned above, as brightness increases, contrast and colour quality decrease, and you may need to use the projector at a reduced brightness to achieve the desired picture quality.
Accordingly, when choosing this parameter, you need to consider the conditions in which you plan to use the projector. So, for office or school/university use, a brightness of at least 3000 lm is desirable — this allows you to get normal visibility without obscuring the room. In turn, among the top models a very low brightness can be found, because. such projectors are usually installed in rooms specially designed for them with good darkness level. And in ultra-compact devices it is impossible to achieve high brightness for technical reasons.
Detailed recommendations on the optimal brightness for certain conditions can be found in special sources. Here we note that anyway, it is worth choosing according to this indicator with some margin. As mentioned above, as brightness increases, contrast and colour quality decrease, and you may need to use the projector at a reduced brightness to achieve the desired picture quality.
Brightness ANSI Lumens
This parameter largely determines the ability of the projector to work in a well-lit room. For a dark room, 1000 lumens is enough to make the projection picture bright, rich, clear and understandable. But when working in a lit room, the projector will need at least 3500-4000 lumens. Do not confuse ANSI lumens with Peak lumens. These are two different brightness standards. To convert one type of brightness to another, you need to multiply Peak lumens by 10-12. The result will be an approximate value of ANSI Lumens.
However, experts do not recommend chasing high ANSI lumen brightness values. There are many professional projectors with brightness up to 3500 lm. The lower the brightness, the lower the power consumption, and at the same time, the life of the illuminator increases. Of course, if the projector will be installed in a work office or classroom where good lighting is required, it is recommended to purchase a model with ANSI Lumens brightness of 4000 lumens and more.
Static contrast
The static contrast of the image provided by the projector.
Static contrast refers to the maximum difference between the brightest white light and the darkest black that a projector can provide within a single frame. Unlike dynamic contrast (see below), this parameter describes not conditional, but quite real capabilities of the device, achievable without the use of any additional tricks like auto-brightness. And since the quality of colour reproduction and detailing depend on contrast, the higher this indicator, the lower the likelihood that details will be indistinguishable in bright or dark areas.
Static contrast refers to the maximum difference between the brightest white light and the darkest black that a projector can provide within a single frame. Unlike dynamic contrast (see below), this parameter describes not conditional, but quite real capabilities of the device, achievable without the use of any additional tricks like auto-brightness. And since the quality of colour reproduction and detailing depend on contrast, the higher this indicator, the lower the likelihood that details will be indistinguishable in bright or dark areas.
Dynamic contrast
The dynamic image contrast provided by the projector.
Dynamic contrast ratio is the ratio between the brightest white and darkest black colour that a projector can produce. Recall that the quality of colour reproduction and detailing depend on contrast, the higher this indicator, the lower the likelihood that details will be indistinguishable in bright or dark areas. However, dynamic contrast is a rather specific parameter. The fact is that when it is calculated, the brightest white at the maximum brightness settings and the darkest black at the minimum are taken into account. As a result, the figures in this column can be very impressive, but it is impossible to achieve such a contrast within one frame.
By introducing this parameter, the manufacturers went to a certain trick. However, this is not to say that dynamic contrast has nothing to do with image quality at all. Projectors can use automatic brightness control, in which the overall brightness, depending on the "picture" on the screen, can increase or decrease. This format of work is based on the fact that the human eye does not need too bright areas on a general dark background and very dark areas on a bright one, the image is normally perceived even without it. The maximum brightness difference achievable in this mode of operation is exactly what described by dynamic contrast.
Dynamic contrast ratio is the ratio between the brightest white and darkest black colour that a projector can produce. Recall that the quality of colour reproduction and detailing depend on contrast, the higher this indicator, the lower the likelihood that details will be indistinguishable in bright or dark areas. However, dynamic contrast is a rather specific parameter. The fact is that when it is calculated, the brightest white at the maximum brightness settings and the darkest black at the minimum are taken into account. As a result, the figures in this column can be very impressive, but it is impossible to achieve such a contrast within one frame.
By introducing this parameter, the manufacturers went to a certain trick. However, this is not to say that dynamic contrast has nothing to do with image quality at all. Projectors can use automatic brightness control, in which the overall brightness, depending on the "picture" on the screen, can increase or decrease. This format of work is based on the fact that the human eye does not need too bright areas on a general dark background and very dark areas on a bright one, the image is normally perceived even without it. The maximum brightness difference achievable in this mode of operation is exactly what described by dynamic contrast.
Colour rendering
The number of individual colour shades that the projector is capable of displaying.
The minimum indicator for modern projection technology is actually 16 million colours (more precisely, 16.7 million is a standard number associated with the features of digital image processing). In the most advanced models, this value can exceed 1 billion. However, two nuances should be taken into account here: firstly, the human eye is able to recognize only about 10 million colour shades, and secondly, not a single modern image output device (projectors, monitors, etc.) cannot cover the entire spectrum of colours visible to the human eye. Therefore, impressive colour performance is more of a marketing ploy than a real indicator of image quality, and in fact it makes sense to pay attention to other characteristics — primarily brightness and contrast (see above), as well as specific data like a colour gamut chart.
The minimum indicator for modern projection technology is actually 16 million colours (more precisely, 16.7 million is a standard number associated with the features of digital image processing). In the most advanced models, this value can exceed 1 billion. However, two nuances should be taken into account here: firstly, the human eye is able to recognize only about 10 million colour shades, and secondly, not a single modern image output device (projectors, monitors, etc.) cannot cover the entire spectrum of colours visible to the human eye. Therefore, impressive colour performance is more of a marketing ploy than a real indicator of image quality, and in fact it makes sense to pay attention to other characteristics — primarily brightness and contrast (see above), as well as specific data like a colour gamut chart.
Color gamut (sRGB, Rec.709)
Any color gamut is indicated as a percentage, but not relative to the entire variety of visible colors, rather relative to a specific color space (color model). This is because no modern screen can display all the colors visible to the human eye. Nevertheless, the larger the color gamut, the broader the capabilities of the projector, and the better its color reproduction quality.
Nowadays, sRGB is essentially the standard color model adopted for computer technology; for television, a similar standard in terms of parameters, Rec. 709, is used. These models are identical in terms of color range, and the percentage of coverage for them is the same. As of today, values below 90% sRGB are characteristic only for the most budget-friendly devices.
Nowadays, sRGB is essentially the standard color model adopted for computer technology; for television, a similar standard in terms of parameters, Rec. 709, is used. These models are identical in terms of color range, and the percentage of coverage for them is the same. As of today, values below 90% sRGB are characteristic only for the most budget-friendly devices.
Horizontal frequency
Horizontal frequency supported by the projector.
This parameter is relevant when working with analogue video signal. In such a video, the image is formed line by line: each pixel in the line is highlighted in turn, then the next line is highlighted, and so on. The horizontal frequency describes how many times per second the backlight beam runs from edge to edge of the screen. For normal playback, the projector must support the same refresh rate as the input signal was recorded. However, most models support a fairly wide range of frequencies, and there are no problems with support. Also note that if you are not a professional, then when choosing a projector, it is quite possible to focus on the frame rate (see below) — this parameter is simpler and more intuitive, and support for a certain frame rate automatically means support for the corresponding line rate.
This parameter is relevant when working with analogue video signal. In such a video, the image is formed line by line: each pixel in the line is highlighted in turn, then the next line is highlighted, and so on. The horizontal frequency describes how many times per second the backlight beam runs from edge to edge of the screen. For normal playback, the projector must support the same refresh rate as the input signal was recorded. However, most models support a fairly wide range of frequencies, and there are no problems with support. Also note that if you are not a professional, then when choosing a projector, it is quite possible to focus on the frame rate (see below) — this parameter is simpler and more intuitive, and support for a certain frame rate automatically means support for the corresponding line rate.



