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Comparison Fenix HM23 vs Fenix HL23

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Fenix HM23
Fenix HL23
Fenix HM23Fenix HL23
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Main
LED resource — 50,000 hours. Operating time in maximum, average, minimum brightness modes — 8/16/100 hours.
Type
head lamp
head lamp
Specs
Lamp typelED with reflectorlED with reflector
Diode modelCree XP-G2Cree XP-G2 R5
Number of diodes1 pcs1 pcs
Max. luminous flux240 lm150 lm
Lighting range53 m
Max. operating time100 h100 h
Brightness levels33
Power supply
Power source1xAA1xAA
Charge level indicator
General
Shockproof
Water protectionIP68+
Reflective elements
Materialmetal
metal/plastic /aluminium/
Length7 cm7.1 cm
Weight
43 g /without battery and strap/
52 g /without batteries/
Color
Added to E-Catalogoctober 2019february 2016

Diode model

Model of the LED(s) used in the flashlight. Knowing the exact name of the LED, you can find its detailed characteristics and evaluate the capabilities of the flashlight. In addition, this information may be useful when replacing a failed diode.

Note that the LED model is indicated mainly if it is a high-quality LED with advanced characteristics. Such light sources are produced by different manufacturers, but the most popular in modern flashlights are products from Cree with its series Cree XM, Cree XP, Cree XHP. Here are some of the most common LEDs from this brand: Cree XP-L, Cree XM-L2, Cree XP-E, Cree XP-G, Cree XM-L T6, Cree XM-L2 T6, Cree XM-L U2, Cree XM- L2 U2, Cree XP-G R5, Cree XP-G2 R5, Cree XP-E Q5.

Cree XM-L and XM-L2 series diodes are used in high-power flashlights. XP-G and XP-G2 are used in relatively small models. They produce a beam of light in the shape of a circle with a darkening inside when using a reflector to focus. XP-E and XP-E2 are a godsend for small items with an evenly f...ocused beam and even illumination on the sides. The number “2” in the designation of the diode model indicates increased brightness (compared to the basic modification). The XHP series is also gaining popularity - the LEDs in this line more than double the light flow. At the same time, they are compatible with standard printed circuit boards and optics. The numerical prefix 35/50/70 in the name of XHP diodes indicates the dimensions of the housing.

Along with solutions from Cree, high-quality LEDs from the American manufacturer Luminus are often found in flashlights. Its range includes both inexpensive diode options for budget flashlights and advanced LED light sources with high luminous brightness and luminous flux intensity for the most powerful flashlights.

A separate case is represented by diode plates made using COB technology (chip-on-board, that is, “chip on a board”). Such plates are arrays of a large number of miniature light sources, soldered directly into a printed circuit board at a short distance from each other and filled with a special composition; This composition performs two functions at once. First of all, it protects the LEDs from contact with air, which increases their service life; In addition, the coating effectively diffuses light, creating a uniform luminous flux.

Note that previously, to create LED arrays, SMD technology was mainly used, with individual LEDs soldered onto the surface of a printed circuit board. However, COB is a more modern and advanced option: this technology allows small but bright light sources to be placed at very high densities, achieving powerful lumen output even with small array sizes. In addition, SMD boards did not provide a protective coating.

In general, it makes sense to pay attention to flashlights with COB plates if you need a high-quality source of diffused light. As a result, such diode arrays are especially popular in travel lanterns and auxiliary lighting (see "Type"), but can also be used in other varieties - from ultra-compact key fobs to high-power hand-held lamps.

Max. luminous flux

The maximum luminous flux provided by the lantern.

Luminous flux (denoted in lumens) can be described as the total amount of light produced by an LED or other light source and distributed in all directions where this source shines by itself (without lenses, reflectors, etc.). In fact, this means that the capabilities of the flashlight depend not only on the luminous flux, but also on the angle of illumination (see "Angle of illumination (light)"). For example, a relatively weak stream can be concentrated into a narrow beam, providing good range; and a large number of lumens will inevitably be needed to effectively cover a wide area.

Note that the coverage angle is not always specified in the characteristics, and even with such data it is difficult to immediately assess the real capabilities of the flashlight. Therefore, for such an assessment, it is best to use information about the actual illumination range (see below), and also take into account the general type of device (see above). For example, for the same number of lumens, a handheld flashlight with a reflector to form a directional beam will give a noticeably greater range than a tourist lamp with 360 ° coverage.

It should also be borne in mind that the high brightness of the flashlight is far from always justified, and it is worth choosing according to this parameter, taking into account the actual conditions of use. S...o, when working at short ranges, bright light can become a hindrance: it tyres the eyes and can blind others. In addition, an increase in brightness usually requires more powerful sources of both light and power, and the weight and dimensions of the lantern increase accordingly.

Lighting range

The maximum range at which the flashlight provides any effective illumination of objects. Different manufacturers have different criteria for this efficiency when measuring ranges, and therefore it is only possible to unequivocally compare among themselves in range only models of one manufacturer. At the same time, this parameter allows us to compare models from different manufacturers with some certainty: for example, flashlights with a lighting range of 15 m and 100 m will clearly belong to different range classes, regardless of manufacturers.

Note that the range of illumination depends not only on the maximum luminous flux provided by the lantern (see above), but also on the features of its design: the narrower the beam is provided by the reflector of the lantern, the greater the range will be, and vice versa — scattered light does not spread far. Some models allow you to adjust the beam width depending on the requirements of the situation (for more details, see "Adjusting the focus").

It is also worth bearing in mind that models with the same claimed lighting range can cover different spaces. For example, a hand lamp (see Type) with a reflector diameter of 20 cm will be able to provide a wider beam than a conventional hand lamp with a 5 cm reflector. And although in both cases the objects that fall into the light spot will be illuminated in the same way, however, in the first case, the size of the spot itself will be larger, and the actual efficien...cy of the flashlight will be correspondingly higher (in light of the fact that it is easier to "feel" individual objects with a wide beam, especially at a considerable distance).

Charge level indicator

An indicator that indicates the level of charge of the battery installed in the flashlight. The design and functionality of such an indicator can be different — from a simple LED that changes colour and/or mode of operation depending on the state of the battery, to an LCD display that can display a specific charge level. However, anyway , the charge level indicator makes it easier to monitor the state of the battery and reduces the likelihood of being left without light at the most inopportune moment.

Shockproof

Additional resistance of the flashlight to various kinds of shocks and shocks. The specific degree of shock protection for different models varies, sometimes quite noticeably; This point should be clarified according to the official documentation. At the same time, the vast majority of shock-resistant models are able to transfer at least a fall from their hands onto a hard surface without consequences, and anyway they are more durable than unprotected flashlights.

It is recommended to specially select a shock-resistant model, first of all, if your activity involves a corresponding risk — for example, extreme tourism, speleology, military affairs, security activities.

Water protection

This feature is indicated for flashlights whose housings have an increased degree of dust and moisture protection. The degree of such protection may vary: for example, some models can easily withstand heavy rain, others “survive” being caught in a sea wave, and the most advanced ones can even be used when diving with scuba diving (see “Type - For diving ”). The features of protection should be clarified in each case separately; however, if you need a flashlight that can withstand adverse conditions, you should definitely look for it among the models that explicitly state dust and moisture protection. Such models will be useful primarily for those who often have to work in difficult environments: climbers and other “extreme” tourists, rescuers, military personnel, sailors, etc.

The level of protection is indicated by two numbers according to the IP standard ( IP65, IP66, IP67...). The first number corresponds to dust protection (maximum 6). The second number indicates the degree of protection from water; here in protected models, level 7 (the ability to immerse under water to a depth of 1 m for half an hour) or 8 (the ability to work for long periods of time under water at a depth of more than 1 m) is usually found. Thus, the maximum degree of protection according to this standard is IP68, completely sealed. There is also a marking like IPX8, where the first digit is not indicated - this only means that the flashlight has not been officially certified for dust resistance. In the above example, this is not necessary - water resistance 8 automatically means a sealed case, impenetrable to dust.

It is worth considering that even completely sealed models may have different restrictions on the maximum immersion depth. So if you are going to intensively use the flashlight underwater, you should make sure that it can withstand diving to the planned depth.

Reflective elements

Additional inserts on the straps of the headlamp, made of a special reflective material. The main function of reflective elements is to make a person more visible, in particular on the road at night.

Material

— Plastic. Of the advantages of plastic flashlights, one can note their low weight and good suitability for low temperatures. In particular, this material does not "cool" the hand as much as metal, and has a lower thermal conductivity (which reduces the risk of battery hypothermia). On the other hand, plastic cases are significantly less durable. As a result, they are mainly used in cases where light weight is crucial — in particular, in headlamps and tourist lanterns (see "Type").

— Metal. The main advantage of metal flashlights is high strength. Metal weighs significantly more than plastic, but in some cases this can also be a positive feature: "heavy" devices are often more pleasant in the hand and are perceived as more solid and reliable than light flashlights. At the same time, such cases are colder than plastic cases to the touch, which can create some discomfort at low temperatures; Yes, and they cost a little more.
Note that the most popular type of metal in flashlights is aluminium alloy — light and at the same time strong, durable and corrosion resistant material. The reliability of this alloy is enough even for full-fledged batons (see below). So other types of metal are extremely rare. Cases made of titanium are a separate case — they are placed in a separate category, described below.

— Titan. Titanium alloys are distinguished by their lig...htness, low thermal conductivity (they do not “cool” the hand as much as other metals) and extremely high strength, however, they are very expensive. Titanium case, usually, is a sign of a very advanced flashlight, which is why this option is not included in the "metal" category, but is taken out separately.

— Metal / plastic. Cases that combine metal and plastic elements are a relatively rare option, found mainly in flashlights with the function of headrests (see "Type"). In such models, at least a part of the lantern is usually made of metal, including a lamp and optics, and often the entire “head”; other hard parts (platform for attaching to belts, buckles on belts, etc.) are made of plastic. This allows to provide sufficiently high reliability and at the same time to reduce the cost.
Other types of lanterns with this design are noticeably less common — hand-held "compacts" and lamps, tourist models, etc. They have the same general idea: the most critical parts that require high strength are made of metal, and the rest are made of plastic (to reduce weight and cost). At the same time, for a number of reasons, models in combined cases that are not related to “headbands” have not received distribution.
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