reference will now be made in detail to embodiments of the invention , examples of which are illustrated in the accompanying drawings . wherever possible , the same reference numbers will be used throughout the drawings to refer to the same or like parts . fig1 shows an exemplary computer system 100 , consistent with an embodiment of the invention . computer system 100 includes a processor 102 for executing a computer program 104 and a graphical user interface program 106 . storage 108 of computer system 100 contains a database 110 for storing database tables 112 , 114 , 116 , . . . by way of example , database table 112 serves for storage of instances of object type i . further , database table 114 may serve for storage of instances of object type ii , and additional database tables ( 116 , etc .) may be provided for the storage of instances of other object types . as shown in fig1 , a configuration table 118 is also stored in storage 108 . configuration table 118 contains object type definitions . each object type definition includes an object type name , the characteristic attributes of the object type and key figure attributes of the object type . characteristic attributes of an object type are attributes that define the object type , such as master data . characteristic attributes are typically invariant or change infrequently . in contrast , key figure attributes are usually dynamic data values that change frequently over given periods of time . in the embodiment considered here , object types i and ii are defined in configuration table 118 ( see fig1 ). object type i has characteristic attributes a *, b *, c * and key figure attributes d , e , f . object type ii has characteristic attributes a *, b *, g * and key figure attributes , d , e , h and i . it is to be noted that in some implementations there will be a large number of object types having large numbers of characteristic and key figure attributes stored in configuration table 118 . for ease of explanation , only object types i and ii are shown in fig1 . further , it is to be noted that instead of database 110 , an xml file can be used for storage of the configuration information contained in configuration table 118 . as further shown in fig1 , a computer monitor 120 and computer mouse 122 are coupled to computer system 100 . graphical user interface program 106 may generate one or more displays for computer monitor 120 . further , by means of computer mouse 122 , a user can interact with graphical user interface program 106 . operation of computer system 100 will be explained in greater detail in the following by making reference to , for example , fig2 and 3 . in step 200 of fig2 , a plurality of data objects are selected from database 110 . this can be done by means of a search query that is executed by processor 102 in order to filter out a set of data objects of interest . in step 202 , a first table is displayed in a first display area on computer monitor 120 . the first table may have a row for each selected data object and a column for each attribute of the selected data objects . the first table may be too large to fit onto computer monitor 120 . therefore , the first table preferably includes a horizontal scroll bar in order to facilitate a user &# 39 ; s access to various portions of the first table . however , accessing portions of the first table by means of the horizontal scroll bar is not intuitive , if the user desires a complete display of a selected object . in step 204 , the user selects one of the rows of the first table for selection of one of the data objects being assigned and displayed in that row . in response , a second table is generated and displayed in a second display area . the second table has a row for each attribute of the selected data object . typically , the second table will completely fit on computer monitor 120 , such that the user gets a display of the complete attributes of the selected data object . in step 208 , the user selects the sequential display mode . in the sequential display mode , the user can view the data values a selected attribute of the selected data object has had in various time periods . in step 210 , the user selects one of the attributes of the selected row in the first table . in response , a third table is generated and displayed in the second display area ( step 212 ). the third table has a row for each time period of the selected attribute . in step 214 , the user selects an analytical display mode . in the analytical display mode , the user can access the data components that contribute to the data value of the selected attribute . in response to the user &# 39 ; s selection of the analytical display mode , a fourth table may be generated and displayed in the second display area , in step 216 . the fourth table has a row for each of the data components that contribute to the data value of the selected attribute . in addition , computer system 100 facilitates to view the object type definitions stored in configuration table 118 . for this purpose , a set of the predefined object types is selected , in step 300 ( see fig3 ). this can be done by selecting the object type names defined in configuration table 118 from a pull - down menu . in one embodiment , the selected object types are displayed in fifth table in a third display area . the fifth table has a row for each selected object type and a column for each characteristic attribute of the selected object types . it is to be noted that the fifth table does not contain columns for the key figure attributes of the selected object types as the key figure attributes have no assigned data value in the object type definition . in step 304 , the user can select one of the rows of the fifth table for selection of one of the object types being displayed in the fifth table shown in the third display area . in response to the user &# 39 ; s selection of one of the rows of the fifth table , a sixth table is generated and displayed in the second display area , in step 306 . the sixth table has a row for each characteristic attribute of the selected object type . this way the user gets a complete display of all characteristic attributes of the selected object type even if the fifth table is to last to fit into the third display area . fig4 shows an exemplary window 400 that may be generated by computer system 100 and displayed on computer monitor 120 ( cf . fig1 ). window 400 has pane 402 and pane 404 . first table 1 is shown in pane 402 and second table 2 is shown in pane 404 . in the example considered here , the user has selected data objects d 1 and d 2 from database 110 . data object d 1 is of object type i and data object d 2 is of object type ii . in accordance with the configuration table 118 , object type i has attributes a *, b *, c *, d , e , f , whereas object type ii has attributes a *, b *, g *, d , e , h , i . table 1 has a row for each of the selected data objects d 1 and d 2 and a column for each of the attributes of the selected data objects d 1 and d 2 . the table fields show the respective data values of the attributes . for example , attribute a of data object d 1 has data value 1 , attribute b of data object d 1 has data value 2 , etc . in the example considered here , the user has selected the first row of table 1 , i . e ., the row that shows the data values of the attributes for data object d 1 . as a consequence , table 2 has been generated and is displayed in pane 404 . table 2 has a row for each one of the attributes of the object type i of the selected data object d 1 and shows the respective data values . by selecting the row that is assigned to data object d 2 , the user can change the view that is shown in pane 404 . in response to the user &# 39 ; s selection of data object d 2 by clicking on the respective row in table 1 , another table 2 is generated that has a row for each of the attributes of the object type of ii of data object d 2 , as illustrated in fig5 . this is particularly advantageous if there is a large number of attributes such that table 1 does not completely fit into pane 402 . the user can select individual data objects shown in table 1 in order to get a complete view of the selected data object by means of table 2 . this has the advantage that a user does not need to employ a horizontal scroll bar in order to view a complete data . providing a separate display of a selected data object in table 2 has the advantage that a more intuitive display is provided . another advantage is that this can be more ergonomic in comparison to a horizontal scroll operation for access to hidden portions of table 1 . fig6 shows exemplary window 400 after the user has selected a sequential display mode . in the example considered here , the user has selected attribute f of data object d 1 by clicking on the respective data field of table 1 . in response , a third table 3 is generated that shows the actual and historic data values of attribute f of object d 1 . in the example considered here , data values for periods p . 1 , p . 2 , p . 3 and p 4 are stored in database 110 for attribute f . period p . 1 is the current period showing the current data value of attribute f . periods p . 2 , p . 3 , p . 4 are past periods . hence , the user is provided with an easy to use and intuitive feature for accessing the time sequence of data values of a selected attribute . fig7 shows exemplary window 400 after the user has selected an analytical display mode . in the analytical display mode , a fourth table 4 is generated and displayed in pane 404 . table 4 shows the data components that contribute to the current data value of a selected attribute . in the example considered here , attribute f of data object d 1 has been selected . attribute f is a cost value having various cost components , i . e ., cost of raw materials ‘ raw ’, labor costs ‘ labor ’ and miscellaneous other costs ‘ other ’. in other words , the analytical display mode provides and easy to use and intuitive feature for a ‘ drill down ’ analysis of individual attribute data values . fig8 shows exemplary window 400 after the user has selected a larger number of data objects that are displayed in table 1 in pane 402 . as in the example of fig4 , data object d 1 has been selected such that table 2 showing the attributes of the selected data object d 1 is shown in pane 404 . in addition , window 400 has pane 406 for displaying a fifth table 5 . by means of the graphical user interface the user can select an object type , such as by means of a pull down menu . in response , a row is created in table 5 and columns showing the characteristic attributes of the selected object type . in the example considered here , the user has selected object type i such that table 5 has columns for the respective characteristic attributes a , b and c . by means of table 5 , the user can view data values of characteristic attributes of data objects that have already been created such as , for example , data object d 1 and he or she can also instantiate additional data objects of the selected object type i . fig9 shows exemplary window 400 after the user has deselected the row in table 1 and has selected one of the rows of table 5 . in response , table 6 is generated and displayed in pane 404 . table 6 has a row for each characteristic attribute of the object type of an object that the user has selected from table 5 by clicking on the respective row . fig1 , 11 and 12 show screen shots of an implementation example . like elements in fig1 , 11 and 12 will be designated by the same reference numerals as in fig4 , 2 , 9 . window 400 of fig1 has a horizontal scroll bar 408 , as table 1 is too large to fit into pane 402 . table 1 has columns ‘ currency ( node )’, ‘ total costs ’, ‘ primary cost ’, ‘ secondary costs ’, ‘ calculated prize ’, ‘ currency ( edge )’, ‘ amount ’, . . . the user has selected data object 1000 / fin_dev / 0 . as a consequence , table 2 within pane 404 shows a list of the attributes of the selected data object and their respective data values . in addition , table 2 indicates for each attribute whether it &# 39 ; s a key attribute ( cf . column ‘ key ’) and whether it &# 39 ; s a characteristic attribute or a key figure attribute ( cf . column ‘ type ’ in table 2 ). pane 406 shows the characteristic attributes of selected data objects having a selected data object type . it has horizontal scroll bar 416 . pane 404 has virtual buttons 410 and 412 . by clicking on button 410 the user can select the sequential display mode . the sequential display mode is shown in the screen shot of fig1 . in the sequential display mode the user selects one of the attributes of the selected data object . in the example considered here this is attribute ‘ total costs ’ of data object 1000 / fin_dev / 0 . in response to the user &# 39 ; s selection of the attribute , the attribute is highlighted by means of frame 414 . selection of the attribute can be accomplished by clicking on the respective table field . in response table 3 is generated and displayed in pane 404 . in the example considered here , table 3 has a row for each month of year 2003 and the respective cost value for a given month . by clicking on button 412 , the user can select the analytical display mode . in response table 4 is generated and displayed in pane 404 . table 4 shows the cost components that have contributed to the total costs as shown in frame 414 . by clicking on button 418 the use can go back to the original view (“ element values ”) of fig1 or to the view of fig1 by clicking on button 410 . other embodiments of the invention will be apparent to those skilled in the art from consideration of the specification and practice of embodiments of the invention disclosed herein . it is intended , therefore , that the specification and examples be considered as exemplary only , with a true scope and spirit of the invention being indicated by the following claims .