Spotlight

Abstract

A spotlight (1) comprises a reflector (3) and a number of light beam modules (2). The reflector (3) has a light exit opening (31) and a central axis (35) which extends through the light exit opening (31) substantially at a right angle. Each of the light beam modules (2) comprises an illumination means (211, 221, 231) and a reflector region (213, 214, 223, 224, 233, 234) of the reflector (3). In each of the light beam modules (2), the illumination means (211, 221, 231) is positioned in a predefined manner to the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3). The reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) comprises an axis beam portion (213, 223, 233), which is designed to deflect light generated by the illumination means (211, 221, 231) such that it extends in a beam-like manner virtually along the central axis (35). The reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) comprises a side beam portion (214, 224, 234), which is designed to deflect light generated by the illumination means (211, 221, 231) such that it extends in a beam-like manner at an angle to the central axis (35).

Description

title SPOTLIGHT Technical area

[0001] The invention relates to a spotlight according to the preamble of independent claim 1. Such spotlights with a reflector and a light beam module, wherein the reflector has a light exit opening and a central axis running substantially at right angles through the light exit opening and wherein the light beam module comprises a light source and a reflector region of the reflector, can be used to illuminate articles or goods, for example in a retail store or a museum. State of the art

[0002] Lighting plays a central role in the presentation of goods and articles in retail stores or at trade fairs. On the one hand, the goal is typically to provide sufficient illumination for the displayed goods or articles so that they can be viewed by interested visitors. On the other hand, the goal of lighting is also to create a dynamic effect that the visitors will find interesting and stimulating. To create such a stimulating lighting dynamic, it has proven effective to create zones with varying levels of illumination.

[0003] For this purpose, spotlights are often used today. These spotlights can be used to adequately illuminate goods and create an attractive lighting dynamic. For larger areas or rooms, a large number of spotlights, typically mounted on the ceiling, are usually used.

[0004] A disadvantage of conventional room lighting of the type mentioned can be that the effort required to adapt the lighting to changing circumstances can be comparatively great. For example, the lighting should be adjusted every time the arrangement of goods in the room changes. Or if other goods are to be illuminated more brightly or less brightly, the lighting must be adjusted. When adjusting the lighting using spotlights, it is usually necessary to realign or rehang the spotlights. Since spotlights are typically mounted on the ceiling, this can cause undesirable effort. This effort can be disadvantageous, especially in relatively rapidly changing circumstances, as occurs in retail stores.

[0005] The present invention is therefore based on the object of proposing a spotlight with which the illumination of goods or articles and a stimulating lighting dynamic can be generated, which is also suitable for changing circumstances with comparatively little effort. Description of the invention

[0006] The object is achieved according to the invention by a spotlight as defined in independent claim 1. Advantageous embodiments of the invention emerge from the dependent claims.

[0007] The essence of the invention is as follows: A spotlight is equipped with a reflector and a number of light beam modules. The reflector has a light exit opening and a central axis running essentially perpendicularly through the light exit opening. Each of the light beam modules comprises a light source and a reflector region of the reflector.

[0008] In each of the light beam modules, the illuminant is predefined relative to the reflector's reflector region. The reflector region of the reflector comprises an axial beam section designed to redirect the light generated by the illuminant so that it runs in a beam-like manner along the central axis. The reflector region of the reflector comprises a side beam section designed to redirect the light generated by the illuminant so that it runs in a beam-like manner at an angle to the central axis.

[0009] In the context of the invention, the term "spotlight" refers to a light designed to generate one or more light beams. Such lights are also referred to as spotlights, and the light they generate is referred to as a light beam or beam.

[0010] The spotlight can be designed for ceiling mounting. For this purpose, it can be equipped with a mounting device such as a track adapter, which can also supply power. The central axis typically runs vertically when the spotlight is mounted on the ceiling. It can extend centrally through the reflector.

[0011] The light exit opening can be designed as a virtually completely open side of the reflector. It is intended, in particular, to allow the beam-shaped light or light beams emitted by the luminaire to exit and be directed in a targeted manner.

[0012] The reflector area of ​​each light beam module is or typically comprises a portion of a reflective surface of the reflector. The reflective surface of the reflector is designed to shape the light generated by the illuminant of each of the light beam modules and to emit it in a targeted or predefined manner. The reflective surface is expediently designed to focus the light from the illuminants into a light beam and align it.

[0013] The illuminant of each of the light beam modules can, in particular, comprise or be a light-emitting diode (LED). The illuminant of each of the light beam modules efficiently illuminates the associated reflector section directly. The illuminant can be predefined relative to the reflector area by being fixedly attached to the reflector. For example, both the reflector and the illuminant can be permanently mounted on a support element, so that the illuminant is fixedly connected to the reflector in the intended position.

[0014] The light source of each of the light beam modules is advantageously designed as a Lambertian radiator. Such Lambertian radiators are typically radiators whose luminance or radiance is essentially the same in all directions. By designing the light source in this way, uniform illumination of the corresponding reflector area can be achieved. This allows for efficient and preferential shaping of the light in the corresponding reflector area, and in particular, the desired light beams—i.e., one light beam along the central axis and one light beam angled to the central axis—can be generated.

[0015] The term "radiative" or "ray" or "light beam" in relation to the light emitted by a spotlight can refer to the fact that light spreads out in a bundled manner along a straight line. The light beam can therefore be a bundle of individual rays, with all the individual rays essentially running along the straight line. The radial light or bundle of individual rays can also be focused or widened to a certain extent. Advantageously, however, it runs approximately axially or coaxially, i.e. all the individual rays belonging to the bundle spread out in one direction. The radial light or light ray or beam or light beam should at least be perceivable as a ray or beam.

[0016] The number of light beam modules can, in principle, be any. Thus, the spotlight can contain a single light beam module or multiple light beam modules. To ensure optimal illumination and a favorable light pattern, the number of light beam modules should be reasonably limited. For example, a spotlight with more than ten light beam modules usually does not adequately produce the desired illumination effect, and in particular, the desired light dynamics.

[0017] By comprising the reflector area of ​​the reflector and the side beam section of the reflector, each light beam module typically generates a first light beam along the central axis and a second light beam angled to the central axis. By providing several analog light beam modules, a desired number of light beams can be generated, which are emitted in different directions at an angle to the central axis. The spotlight can thus generate a predefined number of light beams emitted in a predefined direction, which can be used as different light beams. are perceptible. Furthermore, the light beams can all be generated using a single reflector, enabling efficient implementation.

[0018] The spotlight may be intended for use in a retail store. It is typically configured and designed to be mounted on a ceiling at a height of approximately two to four meters, from which it illuminates the space using multiple light beams.

[0019] The spotlight according to the invention makes it possible to efficiently illuminate goods or articles while simultaneously creating an appealing lighting dynamic. In particular, by generating multiple light beams simultaneously, articles can be illuminated on the one hand, and differently illuminated zones can be created on the other. The light redirected by the axial beam section can create a downlight or downlight beam, and the light redirected by the side beam section can create a side beam, which can be directed, for example, at goods or articles.

[0020] The spotlight according to the invention can create light-dark zones in a room, lending the space a dynamic feel and having a stimulating effect on people. This can be desirable, for example, in retail stores.

[0021] By providing multiple light beams, lighting can be created that is suitable for different arrangements. This prevents the need to reconfigure the luminaire when circumstances change, especially when the arrangement of goods or items changes.

[0022] In each of the light beam modules, the reflector region of the reflector preferably has a first separating edge that separates the axial beam section from the side beam section.

[0023] In connection with the invention, separating edges can be formed as kinks or kink-like or tight bends in the reflector. The kinks can be concave or convex. This means that with respect to the side or surface of the reflector illuminated by the illuminant, the kink can be shaped inward or toward the illuminant (concave) or outward. or away from the light source (convex). The first dividing edge is advantageously designed as a convex bend, for example.

[0024] The first dividing edge allows the axial beam section and the side beam section to be clearly separated from each other. The two sections can also be shaped independently of each other and optimized for generating the desired light beams.

[0025] In a cross-section along the central axis, in each of the light beam modules, the axial beam section of the reflector region has a first curvature, and the side beam section of the reflector region has a second curvature, wherein the first curvature is different from the second curvature. The cross-section along the central axis can be a cross-section through or parallel to the central axis. In a standing or suspended spotlight, this cross-section runs vertically.

[0026] The different curvatures of the axial beam and side beam sections allow the corresponding light beams to be efficiently shaped and directed. For example, the angles to the central axis can be efficiently defined differently using the two curvatures of the axial beam and side beam sections.

[0027] In each of the light beam modules of the spotlight, the side beam section of the reflector region of the reflector preferably comprises a first beam segment and a second beam segment, wherein the first beam segment of the side beam section of the reflector region is designed to redirect light generated by the illuminant to form a first light beam, wherein the second beam segment of the side beam section of the reflector region is designed to redirect light generated by the illuminant to form a second light beam, and wherein the first light beam and the second light beam extend in different directions.

[0028] In addition to the first and second beam segments, the side beam section of the reflector area of ​​the light beam modules can comprise additional beam segments in a similar manner. In order to achieve effective light-dark effects and thus To create a preferred light dynamic, not too many beam segments should be provided per side beam section.

[0029] In this way, the side beam section can generate multiple light beams using light from a single light source, which are emitted in different directions from the spotlight. To generate sufficiently bright and clearly defined light beams for typical applications, the side beam section preferably comprises two beam segments.

[0030] In each of the light beam modules, the first beam segment of the side beam section of the reflector region is preferably designed to redirect substantially all of the light generated by the illuminant that strikes the first beam segment to the first light beam, and the second beam segment of the side beam section of the reflector region is designed to redirect substantially all of the light generated by the illuminant that strikes the second beam segment to the second light beam. In this way, all of the light generated by the illuminant can be reshaped, enabling efficient operation. This also prevents the generation of disruptive light that is unsuitable for creating a dynamic light image. Such disruptive light can, for example, be non-directional light or light outside of a light beam.

[0031] In each of the light beam modules, the first beam segment of the side beam section of the reflector region is preferably configured to form the first light beam along a straight first line, and the second beam segment of the side beam section of the reflector region is configured to form the second light beam along a straight first line, wherein the first line is different from the second line. This allows light beams to be efficiently generated in different directions.

[0032] In each of the light beam modules, the first line and the second line are preferably at an angle to each other of at least approximately 10°, and in particular at least approximately 20° or approximately 30°. Such angles make it possible to clearly distinguish the light beams from one another while simultaneously generating a certain number of light beams.

[0033] In each of the light beam modules, the reflector region of the reflector preferably has a second separating edge that separates the first beam segment of the side beam section from the second beam segment of the side beam section. This allows the beam segments to be efficiently separated from each other and specifically designed to shape the associated light beam. The second separating edge is advantageously configured, for example, as a convex bend.

[0034] In each of the light beam modules, the first beam segment of the side beam section has a third curvature, and the second beam segment of the side beam section has a fourth curvature, in a cross-section orthogonal to the central axis. Such curvatures enable the light from the associated light source incident on the respective beam segment to be focused and directed.

[0035] The third and fourth curves are preferably identical or mirror-symmetrical in shape and arranged offset from one another in the circumferential direction. The third and fourth curves are advantageously convex.

[0036] Preferably, in each of the light beam modules, the axial beam section of the reflector region is designed to redirect the light generated by the illuminant in a quasi-beam-like manner along the central axis, by extending the light at an angle to the central axis that is less than approximately 10° and in particular less than approximately 5°. In this way, a downlight or downlight beam can be efficiently generated. A slight inclination to the central axis allows, in the case of multiple light beam modules, the light formed by the axial beam sections to be mixed and emitted from the spotlight as a single, common downlight beam.

[0037] In each of the light beam modules, the side beam section of the reflector region is preferably designed to redirect the light generated by the illuminant in a beam-like manner at an angle to the central axis, by extending the beam at an angle to the central axis that lies in a range of approximately 25° to approximately 50°, and in particular approximately 30°. This allows efficient generation of light beams that are emitted sideways by the spotlight.

[0038] Preferably, the number of light beam modules is in a range of two to four, in particular three. In this way, a spotlight with between five and nine light beams and in particular one with Seven light beams can be created. This number can be advantageous for creating stimulating lighting dynamics and efficient illumination.

[0039] The reflector preferably has third separating edges that separate the reflector areas of the light beam modules. This allows the different light beam modules to be cleanly separated from each other and to be independent of each other in terms of lighting technology. The third separating edges are advantageously designed as a concave bend, for example.

[0040] The axial beam sections of the reflector areas of the light beam modules are preferably designed to form a single light beam that runs essentially along the central axis. The combined light beam runs along a single straight line, which in a typical spotlight application is vertically aligned, thus forming a downlight beam.

[0041] The reflector is preferably bell-shaped and has a reflective interior. Such reflectors allow for efficient shaping of the light in the desired direction. They can also be perceived as aesthetically pleasing.

[0042] Preferably, the light source of each of the light beam modules is arranged in an interior space of the reflector, which is opened by the light exit opening. This allows the spotlight to be designed compactly.

[0043] The light source of each of the light beam modules is preferably aligned to emit light in a main beam direction that runs radially outward from the central axis. The reflector can completely enclose the light source(s). This ensures that the spotlight emits only indirect light that is shaped and directed as intended. Glare can also be avoided or reduced.

[0044] Another aspect of the invention relates to a lighting system comprising a plurality of spotlights of the type described above arranged in a room. The spotlights are typically mounted on a room ceiling. In particular, the spotlights are preferably mounted in a grid on the ceiling.

[0045] The lighting system allows for flexible illumination of the room. In particular, it can generate a comparatively high level of lighting dynamics. At the same time, it allows for a flexible arrangement of goods and items to be illuminated or illuminated. The lighting system can be particularly advantageous in retail stores, for example. Short description of the drawings

[0046] Further advantageous embodiments of the invention will become apparent from the following description of exemplary embodiments of the invention with the aid of the schematic drawing. In particular, the spotlight according to the invention is described in more detail below with reference to exemplary embodiments in the accompanying drawings. They show: Fig. 1 is a perspective view from below of an embodiment of a spotlight according to the invention; Fig. 2 a view from below of the spotlight of Fig. 1 Fig. 3 is a cross-sectional view taken along line AA of Fig. 2; Fig. 4 is a light distribution curve of the spotlight of Fig. 1; and Fig. 5 is a floor projection of an illumination of nine spotlights as shown in Fig. 1. Way(s) of carrying out the invention

[0047] Certain terms are used in the following description for convenience and are not to be construed as limiting. The words "right", "left", "bottom" and "top" indicate directions in the drawing to which reference is made. The terms "inwardly", "outwardly", "below", "above", "left", "right" or similar are used to describe the arrangement of designated parts relative to one another, the movement of designated parts relative to one another and the directions toward or away from the geometric center of the invention and of designated parts thereof as shown in the figures. These spatial relative terms also include positions and orientations other than those shown in the figures. For example, if a part shown in the figures is turned over, elements or Features described as "below" are then "above." The terminology includes the words explicitly mentioned above, derivatives of them, and words of similar meaning.

[0048] In order to avoid repetitions in the figures and the associated description of the various aspects and embodiments, certain features should be understood as being common to different aspects and embodiments. The omission of an aspect in the description or a figure does not imply that this aspect is missing in the associated embodiment. Rather, such omission can serve to increase clarity and avoid repetitions. In this context, the following stipulation applies to the entire further description: If reference symbols are included in a figure for the purpose of graphic unambiguity but are not mentioned in the immediately associated descriptive text, reference is made to their explanation in preceding figure descriptions.If the descriptive text directly associated with a figure contains reference symbols that are not included in the corresponding figure, reference is made to the preceding and subsequent figures. Similar reference symbols in two or more figures represent similar or identical elements.

[0049] Fig. 1 shows a perspective view from below of an embodiment of a spotlight 1 according to the invention. The spotlight 1 comprises a reflector 3 and a lamp body 4, wherein the reflector 3 is attached to the lamp body 4. The reflector 3 has a typically downwardly oriented light exit opening 31 and a flange 33 that completely surrounds the light exit opening.

[0050] The illuminant body 4 is equipped with a central region 41, which has three mounting surfaces, each offset by 60° from one another. A light-emitting diode (LED) 211, 221, 231 is mounted on each mounting surface as the illuminant of three light beam modules 2. The central region 41 merges upwards into cooling fins 42. The cooling fins 42 are thermally coupled to the LEDs 211, 221, 231 via the mounting surfaces. During operation of the spotlight 1, heat generated by the LEDs 211, 221, 231 is dissipated via the cooling fins 42.

[0051] The spotlight 1 defines the three light beam modules 2. A first light beam module 21 comprises a first LED 211 of the LEDs 211, 221, 231 and a first reflector region 212 of the reflector 3, a second light beam module 22 comprises a second LED 221 of the LEDs 211, 221, 231 and a second reflector region 222 of the reflector 3, and a third light beam module 23 comprises a third LED 231 of the LEDs 211, 221, 231 and a third reflector region 232 of the reflector 3. The three reflector regions 212, 222, 232 are each formed by a reflective inner surface of the reflector 3. They each extend over one third of the circumference of the reflector 3 and are offset from one another in the circumferential direction and arranged adjacent to one another. The reflector 3 has three third separating edges 34, each of which separates two adjacent reflector regions 212, 222, 232. The third separating edges 34 are each formed as concave creases.

[0052] In Fig. 2, the spotlight 1 is shown from below. It can be seen that the flange 33 is annular. The first reflector region 212 of the first light beam module 21 has a first side beam section 214 with a first beam segment 2141 and a second beam segment 2142 separated from the first beam segment 2141 by a convex second separating edge 2143. In a cross-section orthogonal to a vertical central axis 35 of the reflector 3, the first beam segment 2141 of the first side beam section 214 has a third curvature 2145 and the second beam segment 2142 of the first side beam section 214 has a fourth curvature 2146. The third curvature 2145 and the fourth curvature 2146 are convex and mirror-symmetrical to the associated second separating edge 2143.The second reflector region 222 is equipped in an analogous manner with a second side beam section 224 having a first beam segment 2241, a second beam segment 2242 and a convex second separating edge 2243, wherein in a cross section orthogonal to a vertical central axis 35 of the reflector 3, the first beam segment 2241 of the second side beam section 224 has a convex third curvature 2245 and the second beam segment 2242 of the second side beam section 224 has a mirror-symmetric convex fourth curvature 2246. Likewise analogously, the third reflector region 232 is equipped with a third side beam section 234 having a first beam segment 2341, a second beam segment 2342 and a convex second separating edge 2343, wherein in a cross section orthogonal to a vertical central axis 35 of the reflector 3, the first beam segment 2341 of the third side beam section 234 has a convex third curvature 2345 and the. second beam segment 2342 of the third side beam section 234 has a mirror-symmetric convex fourth curvature 2346.

[0053] In the first light beam module 21, the first LED 211 is assigned to the first reflector region 214 or predefined thereto such that virtually all of the light generated by the first LED 211 is radiated onto the first reflector region 214 and shaped by it. Similarly, the second LED 221 and the third LED 231 are positioned in a manner assigned to the second reflector region 224 and the third reflector region 234, respectively.

[0054] Fig. 3 shows the spotlight 1 in a sectioned view along line AA of Fig. 2, or along the central axis. It can be seen that the reflector 3 is bell-shaped. The central axis 35 passes through the light exit opening 31 at a right angle.

[0055] The first reflector region 212 of the first light beam module 21 comprises a first axial beam section 213, which transitions downwards into the side beam section 214 of the first light beam module 21 via a first separating edge 215 designed as a convex bend. In the sectional view shown in Fig. 3, the first axial beam section 213 has a convex first curvature 2131 and the side beam section 214 has a convex second curvature 2144. The first curvature 2131 is different from the second curvature 2144. Analogous to the first light beam module 21, the second reflector region 222 of the second light beam module 22 also comprises a first axial beam section 223, which transitions downwards into the side beam section 224 of the second light beam module 22 via a first separating edge 225 designed as a convex bend.The axial beam section 223 has a convex first curvature 2231, and the side beam section 224 has a convex second curvature 2244 different from the first curvature 2231. The third reflector region 232 of the third light beam module 23 is also designed analogously to the first reflector region 212 and the second reflector region 222.

[0056] The shaping of the light emitted by the spotlight 1 is carried out by the reflector 3 and in particular the first, second and third reflector regions 212, 222, 232. Based on the light guidance in the first light beam module 21, the shaping of the light is illustrated in more detail in Fig. 2 and Fig. 3. In particular, as shown in Fig. 3, the part of the light emitted by the The light generated and emitted by the first LED 211 is redirected and bundled so that it runs in a beam shape along the central axis 35. In particular, a portion of a downlight beam 63 is generated as a result. As shown in Fig. 2, the part of the light generated and emitted by the first LED 211 that strikes the first side beam section 214 is redirected and bundled so that it runs in a beam shape at an angle to the central axis 35. The first beam segment 2141 of the first side beam section 214 redirects the light so that a first side beam 61 exits the light exit opening 31 of the reflector 3. At the same time, the second beam segment 2142 of the first side beam section 214 redirects the light so that a second side beam 62 is created, which runs at an angle to the first side light beam 61.

[0057] The second light beam module 22 and the third light beam module 23 are designed analogously to the first light beam module 21. The components of the downlight beam meet and combine to form a single downlight beam. In this way, the spotlight 1 generates a total of seven light beams: six different and angled side light beams 61, 62, and a common, quasi-vertical downlight beam 63.

[0058] Figure 4 shows a light distribution curve (LCC) of the light generated by the spotlight 1. It can be seen that the side light beams 61, 62 are each inclined at approximately 30° and that the downlight beam 63 extends vertically downward.

[0059] Fig. 5 shows a light distribution on the floor of, for example, a retail store, created by a grid of nine identical spotlights 1 mounted on a ceiling. It can be seen that, in particular, a combination of several spotlights 1 in the retail store creates stimulating, dynamic lighting that allows for flexible arrangement of goods and articles without the need to adjust the lighting as the display changes.

[0060] Although the invention has been illustrated and described in detail by means of the figures and the accompanying description, this illustration and this detailed description are to be understood as illustrative and exemplary and not as limiting the invention. In order not to obscure the invention, in certain instances, well-known structures and techniques may not be shown and described in detail. It is understood that those skilled in the art may make changes and modifications without departing from the scope of the following claims. In particular, the present invention covers further embodiments with any combinations of features that may deviate from the explicitly described combinations of features.

[0061] The present disclosure also encompasses embodiments with any combination of features mentioned or shown above or below for various embodiments. It also encompasses individual features in the figures, even if they are shown there in connection with other features and / or are not mentioned above or below. Furthermore, the alternatives of embodiments described in the figures and the description and individual alternatives of their features may be excluded from the subject matter of the invention or from the disclosed subject matter. The disclosure encompasses embodiments that exclusively comprise the features described in the claims or in the exemplary embodiments, as well as those that comprise additional other features.

[0062] Furthermore, the term "comprising" and derivatives thereof does not exclude other elements or steps. Likewise, the indefinite article "a" or "an" and derivatives thereof does not exclude a plurality. The functions of several features listed in the claims may be fulfilled by a single unit or step. The mere fact that certain features are listed in different dependent claims does not mean that a combination of those features cannot be used to advantage. The terms "essentially," "about," "approximately," "quasi," and the like, in conjunction with a property or value, in particular, also precisely define the property or value.The terms “about” and “approximately” in connection with a given numerical value or range can refer to a value or range that is within 20%, within 10%, within 5% or within 2% of the given value or range.

Claims

New international patent application Ansorg GmbH Representative number: P6546PC00 TO CLAIMS Claim 1: Spotlight (1) with a reflector (3) and a number of light beam modules (2), wherein the reflector (3) has a light exit opening (31) and a central axis (35) extending substantially at right angles through the light exit opening (31), wherein each of the light beam modules (2) comprises a lighting means (211, 221, 231) and a reflector region (213, 214, 223, 224, 233, 234) of the reflector (3), characterized in that in each of the light beam modules (2) the lighting means (211, 221, 231) is predefinedly positioned relative to the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3), the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) comprises an axial beam section (213, 223, 233) which is designed to redirect light generated by the illuminant (211, 221, 231) in such a way that it runs in a beam-like manner along the central axis (35), and the reflector region (213, 214, 223, 224, 233,234) of the reflector (3) comprises a side beam section (214, 224, 234) which is designed to redirect light generated by the illuminant (211, 221, 231) in such a way that it extends in a beam-like manner at an angle to the central axis (35). Claim 2: Spotlight (1) according to claim 1, wherein in each of the light beam modules (2) the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) has a first separating edge (215, 225, 235) which separates the axial beam section (213, 223, 233) from the side beam section (214, 224, 234). Claim s: Spotlight (1 ) according to claim 1 or 2, wherein in each of the light beam modules (2) in a cross section along the central axis (35) the axial beam section (213, 223, 233) of the reflector region (213, 214, 223, 224, 233, 234) has a first curvature (2131 ) and the side beam section (214, 224, 234) of the Reflector region (213, 214, 223, 224, 233, 234) have a second curvature (2144), wherein the first curvature (2131) is different from the second curvature (2144). Claim 4: Spotlight (1) according to one of the preceding claims, wherein in each of the light beam modules, the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) comprises a first beam segment (2141, 2241, 2341) and a second beam segment (2142, 2242, 2342), wherein the first beam segment (2141, 2241, 2341) of the Side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to redirect light generated by the illuminant (211, 221, 231) in such a way that it forms a first light beam (61), wherein the second beam segment (2142, 2242, 2342) of the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to redirect light generated by the illuminant (211, 221, 231) in such a way that it forms a second light beam (62), and wherein the first light beam (61) and the second light beam (62) run in different directions. Claim s: Spotlight (1) according to claim 4, wherein in each of the light beam modules (2) the first beam segment (2141, 2241, 2341) of the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to direct substantially all of the light onto the first beam segment (2141, 2241, 2341 ) of the light generated by the illuminant (211 , 221 , 231 ) to the first light beam (61 ), and the second beam segment (2142, 2242, 2342) of the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to redirect substantially all of the light onto the second beam segment (2142, 2242, 2342) incident light of the light generated by the illuminant (211, 221, 231) to the second light beam (62). Claims: Spotlight (1 ) according to claim 5, wherein in each of the light beam modules (2) the first beam segment (2141 , 2241 , 2341 ) of the Side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to form the first light beam (61) running along a straight first line, and the second beam segment (2142, 2242, 2342) of the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to form the second light beam (62) running along a straight first line, wherein the first line is different from the second line, wherein preferably in each of the light beam modules (2) the first line and the second line are at an angle to one another which is at least approximately 10° and in particular at least approximately 20° or approximately 30°. Claim 7: Spotlight (1) according to one of claims 4 to 6, wherein in each of the light beam modules (2) the reflector region (213, 214, 223, 224, 233, 234) of the reflector (3) has a second separating edge (2143, 2243, 2343) which separates the first beam segment (2141, 2241, 2341) of the side beam section (214, 224, 234) from the second beam segment (2142, 2242, 2342) of the side beam section (214, 224, 234). Claim 8: Spotlight (1) according to one of claims 4 to 7, wherein in each of the light beam modules (2) in a cross section orthogonal to the central axis (35) the first beam segment (2141, 2241, 2341) of the side beam section (214, 224, 234) has a third curvature (2145, 2245, 2345) and the second beam segment (2142, 2242, 2342) of the side beam section (214, 224, 234) has a fourth curvature (2146, 2246, 2346), wherein the third curvature (2145, 2245, 2345) and the fourth curvature (2146, 2246, 2346) are preferably identical or mirror-symmetrically shaped and are arranged offset from one another in the circumferential direction. Claim 9: Spotlight (1) according to one of the preceding claims, wherein in each of the light beam modules (2) the axial beam section (213, 223, 233) of the reflector region (213, 214, 223, 224, 233, 234) is designed to redirect light generated by the illuminant (211, 221, 231) in a quasi-beam-like manner along the central axis (35) by running at an angle to the central axis (35) which is less than approximately 10° and in particular less than approximately 5°. Claim 10: Spotlight (1) according to one of the preceding claims, wherein in each of the light beam modules (2) the side beam section (214, 224, 234) of the reflector region (213, 214, 223, 224, 233, 234) is designed to redirect light generated by the illuminant (211, 221, 231) in a beam-shaped manner at an angle to the central axis (35) by running at an angle to the central axis (35) which is in a range of approximately 25° to approximately 50° and in particular is approximately 30°. Claim 11: Spotlight (1) according to one of the preceding claims, wherein the number of light beam modules (2) is in a range from 2 to 4 and in particular is 3. Claim 12: Spotlight (1) according to claim 11, wherein the reflector (3) has third separating edges (34) which separate the reflector regions (213, 214, 223, 224, 233, 234) of the light beam modules (2) from one another. Claim 13: Spotlight (1) according to claim 11 or 12, wherein the axial beam sections (213, 223, 233) of the reflector regions (213, 214, 223, 224, 233, 234) of the light beam modules (2) are designed to together form a single light beam (63) running quasi along the central axis (35). Claim 14: Spotlight (1) according to one of the preceding claims, wherein the reflector (3) is bell-shaped and has a reflective inner side. Claim 15: Spotlight (1) according to claim 14, wherein the illuminant (211, 221, 231) of each of the light beam modules (2) is arranged in an interior space of the reflector (3) opened by the light exit opening (31), wherein preferably the illuminant (211, 221, 231) of each of the light beam modules (2) is aligned to emit light in a main emission direction which runs radially outwards from the central axis (35).

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