a dot matrix display 1 , scale segments 2 , 3 and a second pointer 4 are to be seen in fig1 . the dot matrix display 1 has a first scale 5 and a second scale 6 and a first pointer 7 . the first scale 5 has scale bars and numbers that indicate the consumption in liters per 100 kilometers . the second scale has scale bars and numbers that represent in kilometers the distance that can still be covered given a fuel tank level of the vehicle . the first pointer 7 shows both a value on the first scale 5 and one on the second scale 6 . the first pointer 7 displays by its position on the first scale 5 the average consumption in liters per 100 kilometers and the dot matrix display can be driven such that the first scale 5 is displayed without change in the course of time . the first pointer 7 has its position changed in accordance with the average fuel consumption . in accordance with the position of the first pointer 7 and the existing fuel tank level , the second scale 6 indicates the distance that can still be covered by the vehicle given the fuel tank level , the average consumption being the basis for the determination of the distance that can be covered . the second pointer 4 is a pointer that is actually present and can be rotated by an electric motor about an axis of rotation and can thus be moved along the first scale 5 . in cooperation with the first scale 5 it displays the instantaneous fuel consumption per 100 kilometers . the scale segments 2 , 3 are , for example , produced from printed plastic and are part of a revolutions counter that is not otherwise illustrated . it is also possible for the first scale 5 to be represented in such a way that the average consumption or a desired average consumption is represented at the middle of the scale , and the scale is not changed during operation . the first pointer 7 is then moved more to the right or left in accordance with average consumption such that it is very easy to perceive a deviation from the desired or other average consumption . fig2 displays the first pointer 7 as well as an average consumption of approximately 11 liters per 100 kilometers . the distance that can be covered given the fuel tank level of the vehicle is , however , now displayed at approximately 45 kilometers . the color of the second scale 6 preferably changes with decreasing range , for example from black to red , to display the urgency of filling up the fuel tank . just like the first exemplary embodiment in fig1 and 2 , the second exemplary embodiment in fig3 has scale segments 2 and 3 and a second pointer 4 . a first scale 8 , a second scale 9 and a first pointer 10 are designed as annular or semi - annular indicators such that they can be displaced separately about a common fulcrum and such that it is possible to display appropriately the average consumption and the distance that can still be covered given the fuel tank level . annular indicators as such are known from ep 997338a . here , one or more pointers are moved on a circular track about a fulcrum by a ring . instead of the pointer , it is likewise also possible to move one or both of the scales 8 , 9 about a fulcrum . in a display instrument configured optimally in visual terms , it is impossible to perceive the delimitation between the first scale 8 , second scale 9 and the first pointer 10 . consequently , the boundaries of the individual components in fig3 are illustrated by dashes . the imperceptible parts of the first scale 8 and second scale 9 that are located outside the view window and through which it is possible to perceive the scales 8 and 9 and the first pointer 10 are illustrated by dashes . the current instantaneous consumption already taken into account in the exemplary embodiment according to fig1 and 2 is represented by the second pointer 4 . a first scale 11 , which represents fuel consumption , a second scale 12 , which represents a distance that can be covered , a first pointer 13 , and a second pointer 14 are to be seen in fig4 . the first scale 11 and the second scale 12 are respectively designed as parts of a circle and arranged such that they can rotate about the respective center of the respective part of a circle . the first pointer 13 can be arranged in a fixed fashion , since the display of the average consumption and of the distance that can still be covered is implemented by a corresponding rotation of the first and second scales 11 , 12 , and such a display could not otherwise be implemented by changing the position of the pointer 13 . the second pointer 14 indicates the instantaneous consumption in cooperation with the first scale 11 . the second pointer 14 can be driven by a motor . the display illustrated in fig4 can be part of two neighboring circular instruments such as , for example , a revolutions counter and tachometer . instead of the mechanical design described , it is also possible to represent the display by an electro - optical dot matrix display . a fourth exemplary embodiment in which a first scale 15 and a second scale 16 are respectively of rectangular configuration and are arranged such that they can be displaced linearly with respect to one another is shown in fig5 . a first pointer 17 can be used to represent both the average fuel consumption , in cooperation with the first scale 15 , and the distance that can still be covered given the fuel tank level , in cooperation with the second scale 16 . it is also further possible to use a second pointer 18 to represent an instantaneous consumption in cooperation with the first scale 15 . the display illustrated in fig5 can be implemented mechanically in such a way that the first scale 11 and the second scale 16 can be displaced parallel to one another , just like the first pointer 17 and the second pointer 18 . of course , it is also possible to design the representation using a dot matrix display . it is also possible for a first reference end of the second scale to be configured in the shape of a circle or part of a circle , and for the corresponding other scale to be configured as a line . finally , the above described display can also be implemented as part of a motor vehicle display configured entirely as a dot matrix display . thus , while there have shown and described and pointed out fundamental novel features of the invention as applied to a preferred embodiment thereof , it will be understood that various omissions and substitutions and changes in the form and details of the devices illustrated , and in their operation , may be made by those skilled in the art without departing from the spirit of the invention . for example , it is expressly intended that all combinations of those elements and / or method steps which perform substantially the same function in substantially the same way to achieve the same results are within the scope of the invention . moreover , it should be recognized that structures and / or elements and / or method steps shown and / or described in connection with any disclosed form or embodiment of the invention may be incorporated in any other disclosed or described or suggested form or embodiment as a general matter of design choice . it is the intention , therefore , to be limited only as indicated by the scope of the claims appended hereto .