Fitting device for ski or snowboard boots

Abstract

A fitting device (1) for ski or snowboard boots comprising at least a stand (2) and at least one support frame (3), wherein the support frame (3) is pivotably connected laterally to the stand (2) about a first pivot axis (SA1), and at least one support plate (4, 4') for receiving at least one ski or snowboard binding (5, 5'), wherein the at least one support plate (4, 4') is pivotably connected to the support frame (3) about a second pivot axis (SA2), wherein at least one mechanical or motorized lifting device (7) with at least one electrical, pneumatic or hydraulic drive unit is arranged in an edge region (1') of the fitting device (1) opposite the first pivot axis (SA1) between the stand (2) and the support frame (3), which can be controlled via an associated control unit, by means of which the inclination of the support frame (3) and the support plate (4) relative to a horizontal mounting plane (SE) can be adjusted in a controlled manner.to simulate the downhill position of a skier or snowboarder on the slope.

Description

[0001] The invention relates to a fitting device for ski or snowboard boots according to the preamble of claim 1.

[0002] The construction and function of ski or snowboard boots are well understood. Depending on the specific winter sport and intended use, their design can vary. They are typically connected to the respective piece of equipment, such as a ski or snowboard, via a binding, specifically a ski or snowboard binding. The turn control initiated by the athlete is transferred to the ski or snowboard via the ski or snowboard boot, which is attached to the ski or snowboard by the binding.

[0003] The biggest challenge when buying new ski or snowboard boots is finding a pair with a precise fit. A good fit is crucial for safety and enjoyment on the slopes. If a ski or snowboard boot pinches or isn't tight enough to accurately transfer the skier's movements to the skis or snowboard, it not only reduces enjoyment but also safety, especially on poor snow conditions.

[0004] While trying on ski or snowboard boots in a store can, by manually or electronically measuring an athlete's feet, identify a ski or snowboard boot that is fundamentally suitable in terms of its design and size, and therefore likely to fit perfectly, from a large number of boots offered on the market by different manufacturers, the fitting of these selected models in the store is disadvantageous because it does not take place under "real" conditions of use, especially not under the load on the foot during movement or in a slope position with different inclines.

[0005] Therefore, it often happens that the selected ski or snowboard boots fit perfectly during the fitting in the store, but on the first few runs, they are either too tight or too loose, or the skier doesn't find sufficient support in the boots. A disadvantage of the standard fitting process in a store is that it's impossible to determine the actual fit of the ski or snowboard boots in a typical skiing position on the slope, especially whether the boots are snug enough and / or whether the cuff of the ski or snowboard boot correctly encloses the skier's calf area.

[0006] A fitting device for ski boots can be found, for example, in US 4 908 897A.

[0007] Furthermore, a shoe test device with at least one tilting surface and at least one standing surface is known from EP 2 848 147 A1, in which the at least one tilting surface is rotatably mounted about a first horizontal axis and the at least one standing surface is rotatably mounted about a second axis, wherein the standing surface is inclined to the first axis.

[0008] Based on this, the invention aims to provide a fitting device for ski or snowboard boots that facilitates the selection of a suitable ski or snowboard boot for a winter sports enthusiast and with which the fit of the ski or snowboard boot can be determined quickly and easily during the fitting process when the foot is under load during downhill skiing.

[0009] The problem is solved by a fitting device for ski or snowboard boots, starting from the features of the preamble of claim 1 and by its characterizing features.

[0010] A fitting device for ski or snowboard boots according to the invention comprises at least a frame-like stand and at least one support frame, wherein the support frame is pivotably connected laterally to the stand about a first pivot axis, and at least one support plate is provided for receiving at least one ski or snowboard binding. The at least one support plate is pivotably connected to the support frame about a second pivot axis. According to the invention, at least one drive or lifting device is arranged in an edge region of the fitting device opposite the first pivot axis, between the stand and the support frame, by means of which the inclination of the support frame and the support plate relative to a horizontal mounting plane can be controlled and adjusted in order to simulate a downhill skiing position of a skier or snowboarder on a slope. Advantageously, this allows the fit of a ski or snowboard boot to be checked under load in the downhill skiing position.Departure movement can be determined quickly and easily.

[0011] Furthermore, it is advantageous to have at least one first and / or second support plate for receiving a binding component of the ski or snowboard binding, wherein preferably the first and second support plates can each be pivoted independently of one another about a second pivot axis. The separate pivotability of the support plates receiving the ski or snowboard binding enables a particularly realistic downhill position, as not only can the slope angle be adjusted by means of the fitting device by pivoting about the first pivot axis, but a pivoting of the ski or snowboard boots vertically to the slope angle, comparable to a swing motion, is also possible. For this purpose, the first pivot axis and the at least one second pivot axis are particularly advantageously perpendicular to each other.

[0012] According to the invention, the lifting device is designed in the form of a mechanical or motorized lifting device, wherein the mechanical lifting device can, for example, be designed as a scissor lift device that can be operated manually or also by motor. This allows for simple manual adjustment of the inclination of the support frame and / or the support plate relative to a horizontal mounting surface.

[0013] According to the invention, the mechanical or motorized lifting device also comprises at least one drive unit, which is implemented in the form of an electric, pneumatic, or hydraulic drive unit, wherein the respective drive unit can be controlled via an associated control unit. The pneumatic or hydraulic drive unit can, for example, be designed in the form of a lifting cylinder unit. This makes it particularly advantageous to be able to adjust the fitting device automatically and in a controlled manner. A control unit is connected to or linked to the control unit for inputting the necessary control commands. Using the control unit, both the user and the salesperson in a retail store can quickly and easily set the desired inclination or move to a different inclination.

[0014] The fitting device according to the invention particularly preferably has a basic or entry position and at least one departure position, which can be approached by means of the lifting device. The aforementioned positions are preferably preset and thus enable simple and trouble-free, and above all reproducible, fitting conditions.

[0015] Furthermore, it is advantageous that the stand, with its support frame and the support plates mounted on it, forms an acute angle in the descent position, for example between 5° and 50°. This allows for the particularly advantageous simulation of almost all slope gradients found in nature. Any acute angle, preferably in the range between 5° and 50°, can be approached using the lifting device.

[0016] In a preferred embodiment, one or more descent positions with a predetermined angle are preset, between which a user can select by appropriately controlling the lifting device. For example, a first descent position is preset in which the angle is set such that a ski slope with a transverse or longitudinal gradient of a maximum of 25 percent is simulated using the trial fitting device. This particularly advantageously simulates the gradient of a "blue" ski slope according to the standards DIN 32912 and ÖNORM S 4610.

[0017] Alternatively or additionally, a second descent setting can be preset, in which the angle is adjusted to simulate a ski slope with a cross- or longitudinal gradient of over 25 percent up to 40 percent using the fitting device. This is particularly advantageous for replicating the gradient of a "red ski slope" according to the standards DIN 32912 and ÖNORM S 4610.

[0018] Alternatively or additionally, a third descent setting can be preset, in which the angle is adjusted to simulate a ski slope with a cross- or longitudinal gradient of over 40 percent using the fitting device. This is particularly advantageous for simulating the gradient of a "black" ski slope according to DIN 32912 and ÖNORM S 4610 standards.

[0019] A display unit connected to the control unit can also be provided, showing the currently set departure position to the user. This allows the user of the fitting device to easily and visually verify that the desired departure position is set.

[0020] A further advantage is that the fitting device is at least partially modular. For example, several support plate modules can be provided, on which different ski or snowboard bindings are mounted. This allows the fitting device to be quickly and easily converted for trying on ski boots or snowboard boots.

[0021] In a preferred embodiment of the invention, the stand and the support frame are each formed by a frame-like metal frame, wherein the support plate is pivotably connected to the support frame about the second pivot axis by means of at least one hinge-like element. This allows for a particularly stable fitting device with low weight. The stand is therefore preferably made of metal, wood, or plastic, or of a combination of these materials.

[0022] Furthermore, a plate-shaped shaking and / or vibration unit can be advantageously provided to apply shaking and / or vibration movements to at least one support plate and / or the support frame. This replicates the natural downhill motion of skiing or snowboarding as faithfully as possible.

[0023] In an alternative embodiment, at least a first and second lifting device can be arranged between the stand and the support frame in opposite edge regions of the fitting device, with the second lifting device having a further pivot axis opposite the first pivot axis. The inclination of the support frame and / or the support plate relative to a horizontal mounting plane can be adjusted by means of both lifting devices, but with respect to opposite pivot axes. This makes it particularly advantageous to simulate both a downhill and an uphill movement using the fitting device according to the invention. Alternatively, the support plates that hold the ski or snowboard bindings can, of course, be mounted rotated by 180° on the support frame to simulate an uphill movement.

[0024] Further developments, advantages, and possible applications of the invention will also become apparent from the following description of exemplary embodiments and from the figures. All features described and / or illustrated are, individually or in any combination, fundamentally the subject matter of the invention, irrespective of their compilation in the claims or their cross-reference. The content of the claims is also incorporated into the description.

[0025] The invention will be explained in more detail below with reference to exemplary embodiments shown in the figures. These show, by way of example: Fig. 1 a schematic side view of a fitting device according to the invention in a basic or entry position, Fig. 2 a schematic side view of the fitting device according to the invention in a departure position, Fig. 3 a schematic top view of the fitting device according to the invention in a basic or entry position according to Fig. 1, and Fig. 4 A schematic side view of a mechanical drive unit of the fitting device according to the invention in a section view.

[0026] Identical reference numerals are used in the figures for identical or similarly functioning elements of the invention. Furthermore, for the sake of clarity, only those reference numerals necessary for describing the respective figure are shown in the individual figures. The invention is also illustrated in the figures by means of schematic views to explain the basic principle of the invention.

[0027] The Fig. 1 and Fig. Figure 2 shows, by way of example, a schematic side view of a fitting device 1 according to the invention for ski or snowboard boots, namely in Fig. 1 in a basic or entry position and Fig. 2 in a departure position.

[0028] In the basic or entry position, the athlete enters the fitting device 1 according to the invention with the ski or snowboard boots to be tried on. In the basic or entry position, the fitting device according to the invention is still in the horizontal position, i.e., a slope is not yet simulated in this position.

[0029] In the descent position, the fitting device 1 according to the invention simulates a preset or freely selectable slope angle. After approaching this descent position, the athlete can use the fitting device 1 according to the invention to test the fit of the ski or snowboard boots in a typical descent position; that is, in the descent position, a typical descent position on the slope and / or the associated descent movement is simulated using the fitting device 1 according to the invention.

[0030] The fitting device 1 according to the invention comprises at least one stand 2 and at least one support frame 3, wherein the support frame 3 is pivotally connected laterally to the stand 2 about a first pivot axis SA1. The stand 2 is essentially flat and extends horizontally. Furthermore, the stand 2 is preferably frame-like and designed for placement on a horizontally extending mounting surface SE. For example, the floor of a room forms the horizontal mounting surface SE for placing the stand 2. Preferably, the stand 2 extends along the mounting surface SE and / or runs essentially parallel to it.

[0031] The stand 2 is, for example, made of metal or a metal alloy. However, alternative materials or material combinations can also be used which exhibit comparable stiffness and load-bearing capacity without abandoning the inventive concept.

[0032] In one embodiment, the stand 2 is formed, for example, by a frame-like metal structure with a square or rectangular base. This frame-like metal structure is made, for example, from several tubular metal elements that are firmly connected to one another. Preferably, the tubular metal elements are welded together to form a frame structure that is at least partially circumferential. The tubular metal elements can have a circular, square, or otherwise polygonal cross-section. At least some of the metal elements can also be made from solid material to increase the stability of the stand 2 due to the resulting increase in weight. Alternatively, stability can also be achieved by providing additional weight elements and / or widening the base.

[0033] The stand 2 can also have several legs 2.1, which, for example, are part of the frame-like metal structure and / or are made of tubular metal elements. Alternatively, the legs 2.1 can be designed as additional components that can be interchangeably connected to the stand 2. For example, the use of radially projecting support elements is also conceivable to ensure greater stability. These can either form the legs 2.1 or be provided in addition to them.

[0034] Preferably, three or four support legs 2.1 are provided, which extend, for example, along the transverse sides and / or are arranged in the corner areas of the stand 2. In the case of the Fig. In the embodiment shown in 1 to 3, for example, four support legs 2.1 are provided, which are arranged in the corner areas of the stand.

[0035] In the illustrated embodiment, the frame-like metal structure or stand 2 comprises several firmly connected tubular metal elements that form a closed, preferably rectangular, frame extending parallel to the installation plane SE and enclosing a freely accessible interior space. The support frame 3, for example, can be at least partially housed within this interior space.

[0036] The frame-like metal structure 2 has, for example, two longitudinal strut sections 2.2 and two transverse strut sections 2.3, which are spaced apart from each other and arranged opposite each other. The frame-like metal structure 2 is dimensioned with respect to its longitudinal extent and width such that a secure stand for the fitting device 1 according to the invention is ensured, but that the accessibility of the fitting device 1 for the user is not thereby impeded.

[0037] In the embodiment shown in the figures, the four legs 2.1 are formed by means of further tubular metal elements, via which, for example, the free end of a longitudinal strut section 2.2 is connected to the free end of a transverse strut section 2.3, such that the preferably rectangular frame of the stand 2 is spaced apart from the installation plane SE. In this embodiment, the legs 2.1 are part of the stand 2, and the further tubular metal elements forming the legs 2.1 extend, for example, perpendicular to the installation plane SE.

[0038] The support frame 3 is, for example, made of metal or a metal alloy and is pivotably attached to the frame-like metal structure or its support legs 2.1 about the first pivot axis SA1. It is understood that alternative materials or material combinations can also be used for the manufacture of the support frame 3, which have comparable stiffness and load-bearing capacity to support the athlete on it along with their ski and snowboard boots.

[0039] The support frame 3 is articulated to the stand 2, for example, by means of two axle elements that project laterally from the support frame 3 and are received in bearing units arranged, for example, in the frame-like metal structure. The axle elements can be formed, for example, by screw or pin elements.

[0040] In the illustrated embodiment, the first pivot axis SA1 runs parallel to the mounting plane SE, specifically in the area of ​​the free edge of the stand 2. The support frame 3 has at least one first and one second receiving or holding section 3.1, 3.2, which extend preferably parallel to the first pivot axis SA1 within the interior enclosed by the frame-like metal structure. The receiving or holding sections 3.1, 3.2 are flat and designed to receive hinge-like elements 6, 6'. Alternatively, a continuous receiving or holding section 3.1, 3.2, which largely fills the interior, can also be provided and may be formed by a plate-shaped component.

[0041] Preferably, two hinge-like elements 6, 6' are provided to form a pivotable connection about the second pivot axis SA2 of at least one support plate 4, 4' on the support frame 3. For this purpose, the hinge-like elements 6, 6' each comprise a lower and upper hinge part 6.1, 6.2, which are pivotably connected to each other about the second pivot axis SA2, wherein the lower hinge part 6.1 is connected to the first and second receiving or holding sections 3.1, 3.2 of the support frame 3, and the upper hinge part 6.2 is connected to a support plate 4, 4'. The connection is preferably rigid and detachable. Alternatively, the first hinge part 6.1 can be formed integrally with the first and second receiving or holding sections 3.1, 3.2, and the second hinge part 6.2 can be formed integrally with the support plate 4, 4', for example, manufactured in one piece or molded onto it.

[0042] The support plate 4 is designed to accommodate at least one ski or snowboard binding 5, 5', wherein in one embodiment, for example, a support plate 4 is provided which is hinged to the support frame 3 via two hinge-like elements 6, 6'. The ski or snowboard binding 5, 5' is mounted on the support plate 4 in the same manner as a ski or snowboard.

[0043] The ski or snowboard binding 5 is usually designed in two parts: a first binding part 5 for the right ski or snowboard boot and a second binding part 5' for the left ski or snowboard boot. If only one mounting plate 4 is provided, the binding parts 5, 5' for the left and right ski or snowboard boots are mounted on this plate. This allows, for example, the movement of a snowboard or a monoski to be simulated.

[0044] Alternatively, two support plates 4, 4', namely a first and second support plate 4, 4', can be provided, which are separately hinged to the support frame 3 via two hinge-like elements 6, 6' each, in order to simulate independent movement of the left and right ski and thus also of the left and right ski boot. The first and second support plates 4, 4' are each pivotally connected to the support frame 3 about a second pivot axis SA2, SA2'. It is understood that the support frame 3 can also be designed in multiple parts, so that each support plate 4, 4' can be assigned a support frame 3 that is independently hinged to the stand 2. This makes it possible to simulate different slope angles for the left and right ski and snowboard boot, as is the case, for example, when traversing a ski slope.

[0045] Fig. Figure 3 shows an exemplary schematic top view of a fitting device 1 according to the invention, comprising two support plates 4, 4' in the basic or entry position. The first support plate 4 is connected via a hinge-like element 6 to the first receiving or holding section 3.1 of the support frame 3 and via a further hinge-like element 6' to the second receiving or holding section 3.2 of the support frame 3. Similarly, the second support plate 4' is connected via a hinge-like element 6 to the first receiving or holding section 3.1 and via a further hinge-like element 6' to the second receiving or holding section 3.2. The first binding part 5, which receives the right ski or snowboard boot, is mounted on the first support plate 4, and the second binding part 5', which receives the left ski or snowboard boot, is mounted on the second support plate 4'.

[0046] In the illustrated embodiment, the support frame 3 comprises, for example, the first and second receiving or holding sections 3.2, two longitudinal frame elements 3.3, and two transverse frame elements 3.4, which are arranged opposite each other and spaced apart. These form a closed frame structure in which the support plates 4, 4' and the binding elements 5, 5' mounted thereon are accommodated. The first and second receiving or holding sections 3.2, for example, run parallel to the transverse frame elements 3.4 and are accommodated between the two longitudinal frame elements 3.3. It is understood that the support frame can also be designed as a closed support body and / or as a multi-part support device without departing from the inventive concept.

[0047] According to the invention, at least one lifting device 7 is provided in an edge region 1' of the fitting device 1 opposite the first pivot axis SA1, between the stand 2 and the support frame 3. This lifting device allows the inclination of the support frame 3 and / or the at least one support plate 4, 4' to be adjusted relative to a horizontal mounting plane SE that supports the stand 2 or the stand 2. By means of the at least one lifting device 7, the support frame 3 can be pivoted about the first pivot axis SA relative to the stand 2, thus moving the fitting device 1 from its basic and entry position to its departure position. The lifting device 7 can be operated manually and / or controlled via a control unit.

[0048] In Fig. Figure 4 shows an exemplary schematic side view of a mechanical embodiment of a lifting device 7, which is designed in the form of a scissor lift device. The design and operation of such scissor lift devices are well known.

[0049] The lifting device 7 according to the Fig. The assembly 4 comprises a first and second upper lifting arm 7.1, 7.2 and a first and second lower lifting arm 7.1', 7.2', which are each pivotally connected to one another at their free ends and form a closed frame structure. The lifting arms 7.1, 7.2, 7.1', 7.2' are preferably made of metal or a metal alloy and are particularly preferably formed by tubular metal elements.

[0050] The upper free ends of the first and second upper lifting arms 7.1, 7.2 are, for example, hinged to the longitudinal frame section 3.3 of the support frame 3. Similarly, the lower free ends of the first and second lower lifting arms 7.1' are articulated. 7.2' in a pivotal connection with the crossbar section 2.3 of the stand 2. The lower free ends of the upper lifting arms 7.1, 7.2 are each pivotally connected to the upper free ends of the lower lifting arms 7.1', 7.2' via a slide element 7.3, 7.3', wherein the two slide elements 7.3, 7.3' are connected to each other via a horizontally arranged threaded spindle element 7.4, such that a rotation of the threaded spindle element 7.4 about a drive axis AA clockwise or counterclockwise causes a spindle-like movement of the slide elements 7.3, 7.3' along the drive axis AA towards or away from each other.

[0051] When the slide elements 7.3, 7.3' are moved towards each other, the lifting device 7 is extended and the free end of the support frame 3 opposite the first pivot axis SA1 is raised. Conversely, when the slide elements 7.3, 7.3' are moved away from each other, the lifting device 7 is retracted and the free end of the support frame 3 opposite the first pivot axis SA1 is lowered. As an alternative to manual operation of the threaded spindle element 7.4, the rotary motion can be generated mechanically.

[0052] In the departure position, the stand 2 with the support frame 3 or the support plates 4, 4' mounted thereon forms an acute angle w, which is preferably between 5° and 50°. In one embodiment, the angle w can be approached as desired by means of the lifting device 7, so that the user can individually adjust the slope simulated by means of the inventive fitting device 1 by moving the inventive fitting device 1 into the respective departure position.

[0053] Alternatively or additionally, one or more departure positions with a predetermined angle w can be preset, between which the user can select by appropriately controlling the lifting device 7.

[0054] For example, a first descent position can be provided in which the angle w is set such that a "blue" ski slope is simulated using the fitting device 1, i.e., a slope with a transverse or longitudinal gradient of a maximum of 25 percent. In the first descent position, the angle w is, for example, between 5° and 15°.

[0055] In a second downhill setting, the angle w is adjusted to simulate the slope of a "red" ski run, specifically a slope with a cross- or longitudinal gradient of over 25 percent up to 40 percent. For this purpose, the angle w is chosen, for example, between 15° and 22°.

[0056] Finally, a third descent setting can be specified with an angle w that simulates a "black" slope, namely a slope with a cross- or longitudinal gradient of over 40 percent. In this third descent setting, the angle w is therefore between 22° and 45°.

[0057] The gradient situations "blue", "red", and "black" of a ski slope are defined in DIN 32912 and ÖNORM S 4610. It is understood that the aforementioned adjustment options are not exhaustive, and that any other gradient situations can also be simulated using the fitting device 1 according to the invention.

[0058] The lifting device 7 is implemented as a mechanical or motorized lifting device. For example, an electric, pneumatic, or hydraulic drive unit can be provided, which can be controlled via an associated control unit. The control commands are entered via an associated operating unit, which is connected to the control unit.

[0059] The fitting device 1 according to the invention can also have its own supply unit, via which the required drive medium, for example electrical energy, compressed air or hydraulic oil, is stored and supplied in a controlled manner according to the respective drive unit.

[0060] Furthermore, a display unit can be provided by means of which users of the fitting device 1 according to the invention can see the currently set slope or the set difficulty levels “blue”, “red” and “black”.

[0061] By means of the control unit, the user of the fitting device 1 according to the invention can select between the basic and entry position and the at least one departure position, in particular the first to third departure position, and can drive to these positions or switch between the preset departure positions by means of appropriate actuation in order to simulate a ski ride as realistically as possible.

[0062] Additionally, the fitting device according to the invention can have holders for ski poles in order to replicate the downhill position even more precisely.

[0063] Furthermore, a preferably plate-shaped shaking and / or vibration unit can be provided, by means of which the fitting device 1 according to the invention is subjected to shaking and / or vibration movements. This allows the shaking and / or vibration movements occurring during descent on uneven terrain to be simulated. Such a shaking or vibration unit is preferably arranged between the stand 2 and the support frame 3 and / or between the support frame 3 and the support plates 4, 4'. Preferably, this unit has an electric shaking or vibration device, although implementation using hydraulic or pneumatic shaking or vibration devices is also possible.

[0064] In one embodiment, the fitting device 1 according to the invention is modular in design, with the stand 2, the support frame 3 and the support plates 4, 4' forming individual modules. For example, the support plates 4, 4' and the ski and snowboard bindings 5, 5' mounted on them can be exchanged quickly and without tools, thus allowing the fitting device 1 to be adapted quickly and easily to the types of ski or snowboard boots to be tested.

[0065] The invention has been described above using exemplary embodiments. It is understood that numerous modifications and adaptations are possible without departing from the underlying inventive concept. Reference symbol list 1 fitting device 2 Stands 2.1 Main leg 2.2 Longitudinal strut section 2.3 Crossbar section 3 support frames 3.1 First recording or holding section 3.2 second intake or holding section 3.3 Longitudinal frame section 3.4 Cross frame section 4, 4' support plate 5.5' Ski and Snowboard Binding 6, 6' hinge-like element 6.1 lower hinge part 6.2 upper hinge part 7 Lifting device 7.1 First upper lifting arm 7.2 Second upper lifting arm 7.1' first lower lifting arm 7.2' second lower lifting arm 7.3, 7.3' Slide element 7.4 Threaded spindle element AA drive axle SA1 first pivot axis SA2 second pivot axis(s) SE installation level w angle QUOTES INCLUDED IN THE DESCRIPTION

[0000] This list of documents cited by the applicant was automatically generated and is included solely for the reader's convenience. The list is not part of the German patent or utility model application. The DPMA accepts no liability for any errors or omissions. Cited patent literature

[0000] US 4 908 897A

[0006] EP 2 848 147 A1

[0007]

Claims

[1] A fitting device (1) for ski or snowboard boots comprising at least a stand (2) and at least one support frame (3), wherein the support frame (3) is pivotably connected laterally to the stand (2) about a first pivot axis (SA1), and at least one support plate (4, 4') for receiving at least one ski or snowboard binding (5, 5'), wherein the at least one support plate (4, 4') is pivotably connected to the support frame (3) about a second pivot axis (SA2), wherein at least one mechanical or motorized lifting device (7) with at least one electrical, pneumatic or hydraulic drive unit is arranged in an edge region (1') of the fitting device (1) opposite the first pivot axis (SA1) between the stand (2) and the support frame (3), which can be controlled via an associated control unit, by means of which the inclination of the support frame (3) and the support plate (4) relative to a horizontal mounting plane (SE) can be adjusted in a controlled manner,to simulate the downhill position of a skier or snowboarder on the slope. [2] Fitting device according to claim 1, characterized by , that at least one first and / or second support plate (4, 4') is provided to accommodate one binding part of the ski or snowboard binding (5). [3] Fitting device according to claim 2, characterized by , that the first and second support plates (4, 4') can each be pivoted independently of each other about a second pivot axis (SA2, SA2'). [4] Fitting device according to any one of claims 1 to 3, characterized by that the first pivot axis (SA1) and at least one second pivot axis (SA2, SA2') are perpendicular to each other. [5] Fitting device according to claim 1, characterized by , that the mechanical lifting device (7) is designed as a scissor lifting device. [6] Fitting device according to claim 1, characterized bythat the pneumatic or hydraulic drive unit is designed in the form of a lifting cylinder unit. [7] Fitting device according to claim 1, characterized by , that an operating unit is connected to the control unit for the input of control commands. [8] Fitting device according to one of the preceding claims, characterized by a basic or entry position and at least one departure position, which can be approached by means of the lifting device (7). [9] Fitting device according to claim 8, characterized by , that the stand (2) with the support frame (3) or the support plates (4, 4') mounted on it encloses an acute angle (w) in the departure position, which is, for example, between 5° and 50°. [10] Fitting device according to claim 8 or 9, characterized by , that any acute angle (w), preferably in the range between 5° and 50°, can be approached by means of the lifting device (7). [11] Fitting device according to one of claims 8 to 10, characterized by , that one or more departure positions with a predetermined angle (w) are preset, between which a user can select by appropriately controlling the lifting device (7). [12] Fitting device according to any one of claims 8 to 11, characterized by , that a first departure position is preset, in which the angle (w) is set such that a ski slope with a transverse or longitudinal gradient of a maximum of 25 percent is simulated by means of the fitting device (1). [13] Fitting device according to any one of claims 8 to 12, characterized by , that a second departure position is preset, in which the angle (w) is set such that a ski slope with a transverse or longitudinal gradient of over 25 percent up to 40 percent is simulated by means of the fitting device (1). [14] Fitting device according to any one of claims 8 to 13, characterized by, that a third departure position is preset, in which the angle (w) is set such that a ski slope with a transverse or longitudinal gradient of over 40 percent is simulated by means of the fitting device (1). [15] Fitting device according to any one of claims 8 to 14, characterized by , that a display unit connected to the control unit is provided, by means of which the currently set departure position can be displayed to the user. [16] Fitting device according to one of the preceding claims, characterized by that the fitting device is at least partially modular in design. [17] Fitting device according to any one of claims 8 to 16, characterized by , that the stand (2) is formed by a frame-like metal frame. [18] Fitting device according to any one of claims 8 to 17, characterized bythat the stand (2) is made of metal, wood or plastic or a combination of the aforementioned materials. [19] Fitting device according to any one of claims 8 to 18, characterized by , that the support plate (4, 4') is pivotably connected to the support frame (3) by means of at least one hinge-like element (6, 6') about the second pivot axis (SA2). [20] Fitting device according to one of the preceding claims, characterized by , that a plate-shaped shaking and / or vibration unit is provided for applying shaking and / or vibration movements to at least one support plate (4, 4') and / or the support frame (3). [21] Fitting device according to one of the preceding claims, characterized by, that at least a first and second lifting device (7) are arranged between the stand (2) and the support frame (3) in opposite edge regions (1') of the fitting device (1), wherein the second lifting device is assigned a further pivot axis opposite the first pivot axis (SA1).

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