1. An image processing apparatus for generating image processing data by performing image processing on input image data, for supplying the image processing data to a job apparatus that executes an image print job, an image transmission job, or an image filing job, and for supplying the image processing data to an image display device for displaying a preview,
the image processing apparatus comprising:
a blur process section for performing a blur process on image processing data to be supplied to the image display device.
2. The image processing apparatus as set forth in claim 1, further comprising a spatial filter section for performing a filter process on image processing data to be supplied to the job apparatus, wherein the spatial filter section serves as the blur process section to perform, as the blur process, a filter process for smoothing the image processing data to be supplied to the image display device.
3. The image processing apparatus as set forth in claim 2, wherein the spatial filter section includes a filter-coefficient selection section for selecting a matrix of filter coefficients that become larger than one another toward a center of the matrix and become smaller than one another toward a periphery of the matrix.
4. The image processing apparatus as set forth in claim 2, wherein the spatial filter section includes a filter-coefficient selection section for selecting filter coefficients in accordance with resolution at which the input image data have been read.
5. The image processing apparatus as set forth in claim 1, further comprising an enlargingreducing section for performing an enlargingreducing process on image processing data to be supplied to the job apparatus, wherein in accordance with resolution and screen size of the image display device, the enlargingreducing section performs an interpolation process on the image processing data to be supplied to the image display device.
6. The image processing apparatus as set forth in claim 5, wherein the enlargingreducing section severs as the blur process section to perform, as the blur process, an interpolation process that maintains smoothness in tone of the image processing data to be supplied to the image display device.
7. The image processing apparatus as set forth in claim 6, wherein the enlargingreducing section performs the interpolation process with use of a bilinear or bicubic method.
8. The image processing apparatus as set forth in claim 1, the image processing apparatus being able to supply, to any one of a job apparatus that executes an image print job, a job apparatus that executes an image transmission job, and a job apparatus that executes an image filing job, image processing data necessary for the job.
9. An image forming apparatus comprising:
an image processing apparatus as set forth in claim 1;
the job apparatus; and
an image display device for displaying a preview of the image processing data.
10. An image processing method including a step of generating image processing data by performing image processing on input image data, a step of supplying the image processing data to a job apparatus that executes an image print job, an image transmission job, or an image filing job, and a step of supplying the image processing data to an image display device for displaying a preview,
the image processing method comprising:
a blur process step of performing a blur process on image processing data to be supplied to the image display device.
11. A computer-readable storage medium containing an image processing program for operating an image processing apparatus as set forth in claim 1, the image processing program causing a computer to function as each section of the image processing apparatus.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. An axle-drive unit for a motor vehicle having a first and a second driven axle which comprises a first and a second differential (18, 19) in a housing driven by an enginetransmission block (1), the first differential (18) dividing the torque fed to it between a first half axle (9) of the first driven axle (8, 9) and the second differential (19), and the latter furthermore dividing the torque fed to it between a second half axle (8) of the first driven axle (8, 9) and a power take-off (7) for the second driven axle (16, 17), the two differentials (18, 19) being spur-gear-type planetary gears with parallel axes, the sun wheels (32, 43) of which are in each case connected in terms of drive to the half axles (8, 9) of the first driven axle, and planet wheels (36, 38) of the two differentials (18, 19) meshing with their common ring gear (35), the one planet carrier (23) being connected in a rotationally fixed manner to the housing and the other planet carrier (40) being connected in terms of drive to the power take-off (7) for the second driven axle, wherein
a) the housing (22) has a machined inner surface (50) which surrounds the ring gear (35) with little clearance (63),
b) the ring gear (35) is so thin in the radial direction that it is deformed in a lobe-like manner (35*) by the radial component (FR) of the tooth forces exerted by the planet wheels (31, 36),
c) its outer circumferential surface (60) thereby being placed against the inner surface (50) of the housing (22) in a manner producing friction at least locally, and a braking moment thereby acting on the ring gear (35).
2. The axle-drive unit as claimed in claim 1 having a driven housing (22) which is divided in a radial plane into two housing parts (23, 24), wherein that part of the housing (24) which forms the inner surface (50) rises above the radial plane of separation and has an undercut (54) between this part and the radial surface (51).
3. The axle-drive unit as claimed in claim 2, wherein the housing part (24) with the inner surface (50) has radial cooling ribs (62) on its outside.
4. The axle-drive unit as claimed in claim 1, wherein the circumferential surface (60) of the ring gear (35) has machined, raised zones (61) of limited axial width.