1. A cylindrical linear motor, comprising:
a cylindrical rotor having eight poles, and
a cylindrical stator comprising a winding having 36 coaxial toroidal coils of equal size forming a first basic winding and extending in a circumferential direction of the stator, with the toroidal coils arranged axially one behind the other, said stator having an axial connector channel,
wherein each toroidal coil has a left-hand terminal and a right-hand terminal located in the connector channel, with the left-hand terminals being connected to the right-hand terminals as follows:
A(n*3+1)L to A(n*3+6)R,
with the left-hand terminals being connected to the right-hand terminals AiR as follows:
A(n*3+3)L to A(n*3+5)L, and
with the right-hand terminals being connected to the right-hand terminals as follows:
A(n*3+2)R to A(n*3+4)R,
wherein A(i)L indicates the i-th left-hand terminal, A(i)R indicates the i-th right-hand terminal, and n=0 . . . 10 for all terminals, and
wherein the terminals A2L, A1L, and A3R are each connected to a corresponding phase of a three-phase system, and the terminals A34L, A36L, and A35R are connected together at a star point.
2. The cylindrical linear motor of claim 1, wherein the stator is axially extended at a center of the stator by at least one additional basic winding comprising eighteen coaxial toroidal coils, with terminals of the toroidal coils of the additional basic winding being connected commensurate with the connection of the first basic winding.
3. The cylindrical linear motor of claim 1, wherein the stator comprises radially arranged individual plates.
4. The cylindrical linear motor of claim 1, wherein the stator comprises a stator core with slots extending in the circumferential direction, and wherein the toroidal coils are inserted in the slots.
5. The cylindrical linear motor of claim 3, wherein the individual plates form a plate arrangement having one or more interruptions in the circumferential direction, and further comprising a stator-comb element inserted in an interruption in one-to-one correspondence.
6. The cylindrical linear motor of claim 5, wherein the axially extending connector channel is disposed in the stator-comb element.
7. The cylindrical linear motor of claim 5, wherein the stator-comb element comprises an electrically insulating plastic part, an electrically insulating cast part, or an electrically insulating sintered part.
8. The cylindrical linear motor of claim 1, wherein the terminals are connected with insulation-displacement connectors or soldered joints.
9. A combination drive, comprising:
a torque motor for performing a rotating motion; and
a cylindrical linear motor for performing a stroke motion, said linear motor having a cylindrical rotor having eight poles, and a cylindrical stator comprising a winding having 36 coaxial toroidal coils of equal size forming a first, basic winding and extending in a circumferential direction of the stator, with the toroidal coils arranged axially one behind the other, said stator having an axial connector channel,
wherein each toroidal coil has a left-hand terminal and a right-hand terminal located in the connector channel, with the left-hand terminals being connected to the right-hand terminals AiR as follows:
A(n*3+1)L to A(n*3+6)R,
with the left-hand terminals being connected to the left-hand terminals as follows:
A(n*3+3)L to A(n*3+5)L, and
with the right-hand terminals being connected to the right-hand terminals as follows:
A(n*3+2)R to A(n*3+4)R,
wherein A(i)L indicates the i-th left-hand terminal, A(i)R indicates the i-th right-hand terminal, and n=0 . . . 10 for all terminals, and
wherein the terminals A2L, A1L, and A3R are each connected to a corresponding phase of a three-phase system, and the terminals A34L, A36L, and A35R are connected together at a star point.
10. The combination drive of claim 9, wherein the stator is axially extended at a center of the stator by at least one additional basic winding comprising eighteen coaxial toroidal coils, with terminals of the toroidal coils of the additional basic winding being connected commensurate with the connection of the first basic winding.
11. The combination drive of claim 9, wherein the stator comprises radially arranged individual plates.
12. The combination drive of claim 9, wherein the stator comprises a stator core with slots extending in the circumferential direction, and wherein the toroidal coils are inserted in the slots.
13. The combination drive of claim 11, wherein the individual plates form a plate arrangement having one or more interruptions in the circumferential direction, and further comprising a stator-comb element inserted in an interruption in one-to-one correspondence.
14. The combination drive of claim 13, wherein the axially extending connector channel is disposed in the stator-comb element.
15. The combination drive of claim 13, wherein the stator-comb element comprises an electrically insulating plastic part, an electrically insulating cast part, or an electrically insulating sintered part.
16. The combination drive of claim 9, wherein the terminals are connected with insulation-displacement connectors or soldered joints.
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. A method of imaging a transparent media object, comprising:
passing light through a first scan line of the transparent media object;
focusing the light passed through the first scan line onto a first region of a photosensitive device, the first region extending along a transverse axis;
passing light through a second scan line of the transparent media object substantially concurrently with passage of the light passed through the first scan line; and
focusing the light passed through the second scan line onto a second region of the photosensitive device, the second region being offset alone the transverse axis from the first region.
2. The method according to claim 1, further comprising redirecting the light passed through the second scan line prior to focusing the light on the second scan region.
3. The method according to claim 1, wherein focusing light onto a first region of the photosensitive device further comprises focusing the light onto a medial region of the photosensitive device.
4. The method according to claim 1, wherein focusing light on the second region further comprises focusing the light onto a distal region adjacent a medial region.
5. The method according to claim 1, further comprising driving a scanner carriage comprising the photosensitive device through a translation motion in a scan direction.
6. The method according to claim 5, further comprising redirecting the light passed through the second scan line obliquely with the scan direction.
7. The method according to claim 1, further comprising sampling the light focused on the first and second regions by the photosensitive device.
8. The method according to claim 5, further comprising directing the light passed through the first and second scan lines through a carriage slot.
9. A scanner system for imaging a transparent media object, comprising:
an illumination source for concurrently illuminating first and second scan lines of a media object; and
a carriage comprising a photosensitive device located within the carriage and a light pipe affixed to the carriage, the carriage configured to receive on a first region of the photosensitive device light passed through the first scan line, the light pipe adapted to redirect light passing through the second scan line onto a second region of the photosensitive device, the photosensitive device operable to sample light directed onto the first and second regions.
10. The system according to claim 9, wherein the illumination source is disposed within a transparency media adapter.
11. The system according to claim 9, wherein the carriage further comprises a slot through which light of the illuminated first and second scan lines pass.
12. The system according to claim 9, wherein the light pipe comprises first and second light pipe elements.
13. The system according to claim 12, wherein the first light pipe element is adapted to receive the light passing through the second scan line and redirect the received light to the second light pipe element.
14. The system according to claim 13, wherein the second light pipe element is adapted to redirect light received from the first light pipe element into a slot of the carriage.
15. The system according to claim 9, wherein the light pipe further comprises first and second light pipe elements, the first light pipe element longitudinally disposed forward the second light pipe element on a carriage surface with respect to a scan direction.
16. The system according to claim 15, wherein the first light pipe element redirects the light passed through the second scan line obliquely from a scan direction of the carriage.
17. The system according to claim 9, wherein the light pipe further comprises first and second light pipe elements, the second light pipe element laterally disposed from the first light pipe element on a surface of the carriage.
18. The system according to claim 9, wherein the light pipe comprises an injection-molded plastic apparatus.
19. The system according to claim 9, wherein the carriage further comprises a slot through which the light passed through the first scan line is directed, the light redirected by the light pipe passing through a different area of the slot than the light passed through the first scan line.
20. The system according to claim 9, wherein the first region comprises a medial region and the second region comprises a region adjacent to the medial region.