1. A computer-implemented method for navigating into a three-dimensional scene, the method comprising the steps of:
displaying a graphical tool having the shape of a parallelepiped represented in isometric projection, each of its six sides being associated with an orthographic view of the scene, the three background sides being unfolded for them to be visible, the graphical tool being arranged so that all faces are accurately selectable by the user;
selecting one side of the graphical tool; and
displaying the orthographic view associated to the selected side.
2. The method according to claim 1, wherein the graphical tool has the shape of a cube.
3. The method according to claim 1, wherein the graphical tool is superimposed over the three-dimensional scene.
4. The method according to claim 1, wherein the each background side is unfold in a way that it keeps a connecting edge in common with one of its four neighbouring sides.
5. The method according to claim 4, wherein the connecting edges do not meet each other.
6. The method according to claim 1, wherein the graphical tool is displayed in a window and is motionless in this window.
7. The method according to anyone claim 1, wherein a preview of the orthographic views is printed on the sides of the graphical tool.
8. The method according to claim 7, wherein the preview is highlighted when the cursor reaches its associated side.
9. The method according to claim 7, wherein the preview is rotated is order to make it more readable for the user.
10. The method according to claim 1, wherein the background sides are unfolded such that their displayed areas are maximized.
11. A computer program product comprising:
a computer readable medium storing a computer program for navigating into a three dimensional scene; and
the computer program comprising code means to take the steps of:
displaying a graphical tool having the shape of a parallelepiped represented in isometric projection, each of its six sides being associated with an orthographic view of the scene, the three background sides being unfolded for them to be visible, the graphical tool being arranged so that all faces are accurately selectable by the user;
selecting one side of the graphical tool; and
displaying the orthographic view associated to the selected side.
12. A computer apparatus comprising:
means for navigating into a three dimensional scene; and
means for implementing the steps of:
displaying a graphical tool having the shape of a parallelepiped represented in isometric projection, each of its six sides being associated with an orthographic view of the scene, the three background sides being unfolded for them to be visible, the graphical tool being arranged so that all faces are accurately selectable by the user;
selecting one side of the graphical tool; and
displaying the orthographic view associated to the selected side.
The claims below are in addition to those above.
All refrences to claims which appear below refer to the numbering after this setence.
1. An adhesion structure including:
an electrically conductive member containing aluminum as a main component; and
an electrically conductive adhesive adhering to the electrically conductive member, the adhesive having a conductive filler mixed therein,
wherein the electrically conductive adhesive contains 40% to 50% of the filler in volume ratio to a binder, and
wherein the value of resistance between the electrically conductive member and the conductive adhesive after curing is 10 ohms or less.
2. An adhesion structure according to claim 1, wherein a resistance component due to an oxide film formed on a surface of the electrically conductive member is reduced by applying a resistance lowering voltage between the electrically conductive member and the electrically conductive adhesive.
3. An adhesion structure according to claim 2, wherein electric energy supplied when the resistance lowering voltage is being applied therebetween is in a range of 0.08 J to 4 J relative to the application quantity of 1 mg to 10 mg of the electrically conductive adhesive.
4. A disk drive device including:
a hub, made of an electrically conductive material, which supports a recording disk;
a shaft, made of an electrically conductive material, which rotates together with the hub, the shaft being fixed to a rotation center of the hub;
a shaft holding member which has a space for housing at least part of the shaft and has a conductor in the at least part thereof; and
a base member, made of an electrically conductive material, which supports the shaft holding member,
wherein the base member is an electrically conductive member containing aluminum as a main component,
wherein the base member and the conductor of the shaft holding member are connected through the medium of an electrically conductive adhesive having a conductive filler mixed therein,
wherein the electrically conductive adhesive contains 40% to 50% of the filler in volume ratio to a binder, and
wherein the value of resistance between the hub and the base member after curing of the electrically conductive adhesive is 10 ohms or less.
5. A disk drive device according to claim 4, wherein a resistance component due to an oxide film formed on a surface of the base member is reduced by applying a resistance lowering voltage between and the conductor of the shaft holding member and the base member connected through the medium of the electrically conductive adhesive.
6. A disk drive device according to claim 5, wherein electric energy supplied when the resistance lowering voltage is being applied therebetween is in a range of 0.08 J to 4 J relative to the application quantity of 1 mg to 10 mg of the electrically conductive adhesive.
7. An adhesion method including:
applying an electrically conductive adhesive, having a conductive filler mixed therein, to an electrically conductive member containing aluminum as a main component so as to adhere to the electrically conductive member in an electrically conductive manner; and
applying a resistance lowering voltage between the electrically conductive member and the electrically conductive adhesive after curing the electrically conductive adhesive so as to reduce a resistance component due to an oxide film formed on a surface of the electrically conductive member.
8. An adhesion method according to claim 7, wherein electric energy supplied when the resistance lowering voltage is being applied therebetween is in a range of 0.08 J to 4 J relative to the application quantity of 1 mg to 10 mg of the electrically conductive adhesive.
9. A method for manufacturing an electrically conductive hub which supports a recording disk, an electrically conductive shaft, fixed to a rotation center of the hub, which rotates together with the hub, a shaft holding member which has a space for housing at least part of the shaft and has a conductor in the at least part thereof, and an electrically conductive base member which supports the shaft holding member, the method including:
applying an electrically conductive adhesive, having a conductive filler mixed therein, to a conductor of the shaft holding member and the electrically conductive base;
curing the electrically conductive adhesive; and
applying a resistance lowering voltage between the conductor and the electrically conductive base after curing the electrically conductive adhesive so as to reduce a resistance component due to an oxide film formed on a surface of the electrically conductive base member.
10. An adhesion method according to claim 9, wherein electric energy supplied when the resistance lowering voltage is being applied therebetween is in a range of 0.08 J to 4 J relative to the application quantity of 1 mg to 10 mg of the electrically conductive adhesive.