1. An imaging apparatus comprising:
an imaging section that generates, by capturing a single scene, captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction;
an adjustment condition acquiring section that acquires an adjustment condition relating to parallax amount adjustment; and
an image processing device that processes the reference image data, the first parallax image data, and the second parallax image data, based on the adjustment condition, to generate third parallax image data having a third parallax that is in the one direction and different from the first parallax and fourth parallax image data having a fourth parallax that is in the other direction and different from the second parallax.
2. The imaging apparatus according to claim 1, wherein
the image processing device generates a moving image file based on the third parallax image data and the fourth parallax image data, by processing the captured image data generated continuously by the imaging section.
3. An imaging apparatus comprising:
an imaging section that generates, by capturing a single scene, captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction;
an adjustment condition acquiring section that acquires an adjustment condition relating to parallax amount adjustment for generating adjusted parallax image data having a parallax that is different from the first parallax and the second parallax; and
an output section that outputs the adjustment condition in association with the captured image data.
4. The imaging apparatus according to claim 3, wherein
the output section associates the adjustment condition with a moving image file created from the captured image data generated continuously by the imaging section.
5. The imaging apparatus according to claim 2, wherein
the adjustment condition acquiring section dynamically acquires the adjustment condition in correspondence with the captured image data generated continuously by the imaging section.
6. The imaging apparatus according to claim 1, wherein
the adjustment condition includes a setting condition of an optical system that focuses the subject image to the imaging section.
7. The imaging apparatus according to claim 6, wherein
the setting condition includes at least one of diaphragm constriction, focal distance, and focus lens position.
8. The imaging apparatus according to claim 1, wherein
the adjustment condition includes a subject state in the single scene.
9. The imaging apparatus according to claim 8, wherein
the subject state includes a subject distribution in a depth direction.
10. The imaging apparatus according to claim 1, wherein
the adjustment condition includes user instructions designated by a user via an input section.
11. The imaging apparatus according to claim 10, wherein
the adjustment condition includes a range setting for a parallax amount designated by the user instructions.
12. The imaging apparatus according to claim 1, wherein
the adjustment condition includes a cumulative parallax amount obtained by integrating a parallax amount of each pixel in an entire frame.
13. The imaging apparatus according to claim 1, wherein
the image processing device determines an adjustment value based on the adjustment condition, and
the image processing device calculates a third parallax pixel value forming the third parallax image data and a fourth parallax pixel value forming the fourth parallax image data by extracting a reference pixel value at a target pixel position in the reference image data, a first parallax pixel value at the target pixel position in the first parallax image data, and a second parallax pixel value at the target pixel position in the second parallax image data, and using the arithmetic expressions of:
P3=2P0\xd7(C\xb7P1+(1\u2212C)P2)(P1+P2) and
P4=2P0\xd7((1\u2212C)P1+\xb7P2)(P1+P2),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is the adjustment value, and C is a real number such that 0.5<C<1.
14. The imaging apparatus according to claim 1, wherein
the image processing device determines an adjustment value based on the adjustment condition, and
the image processing device calculates a third parallax pixel value forming the third parallax image data and a fourth parallax pixel value forming the fourth parallax image data by extracting a reference pixel value at a target pixel position in the reference image data, a first parallax pixel value at the target pixel position in the first parallax image data, and a second parallax pixel value at the target pixel position in the second parallax image data, and using the arithmetic expressions of:
P3=P0\xd7(P1P2)(C-0.5) and
P4=P0\xd7(P2P1)(C-0.5),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is the adjustment value, and C is a real number such that 0.5<C<1.
15. An image processing device comprising:
an obtaining section that obtains captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction, and an adjustment condition relating to a parallax amount adjustment associated with the captured image data; and
an image processing device that processes the reference image data, the first parallax image data, and the second parallax image data, based on the adjustment condition, to generate third parallax image data having a third parallax that is in the one direction and different from the first parallax and fourth parallax image data having a fourth parallax that is in the other direction and different from the second parallax.
16. The image processing device according to claim 15, wherein
the image processing device generates a moving image file based on the third parallax image data and the fourth parallax image data, by processing the captured image data continuously obtained by the obtaining section.
17. The image processing device according to claim 15, wherein
the image processing device determines an adjustment value based on the adjustment condition, and
the image processing device calculates a third parallax pixel value forming the third parallax image data and a fourth parallax pixel value forming the fourth parallax image data by extracting a reference pixel value at a target pixel position in the reference image data, a first parallax pixel value at the target pixel position in the first parallax image data, and a second parallax pixel value at the target pixel position in the second parallax image data, and using the arithmetic expressions of:
P3=2P0\xd7(C\xb7P1+(1\u2212C)P2)(P1+P2) and
P4=2P0\xd7((1\u2212C)P1+C\xb7P2)(P1+P2),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is the adjustment value, and C is a real number such that 0.5<C<1.
18. The image processing device according to claim 15, wherein
the image processing device determines an adjustment value based on the adjustment condition, and
the image processing device calculates a third parallax pixel value forming the third parallax image data and a fourth parallax pixel value forming the fourth parallax image data by extracting a reference pixel value at a target pixel position in the reference image data, a first parallax pixel value at the target pixel position in the first parallax image data, and a second parallax pixel value at the target pixel position in the second parallax image data, and using the arithmetic expressions of:
P3=P0\xd7(P1P2)(C-0.5) and
P4=P0\xd7(P2P1)(C-0.5),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is the adjustment value, and C is a real number such that 0.5<C<1.
19. A control program for an imaging apparatus that causes a computer to:
generate, by capturing a single scene, captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction;
acquire an adjustment condition relating to parallax amount adjustment; and
process the reference image data, the first parallax image data, and the second parallax image data, based on the adjustment condition, to generate third parallax image data having a third parallax that is in the one direction and different from the first parallax and fourth parallax image data having a fourth parallax that is in the other direction and different from the second parallax.
20. A control program for an imaging apparatus that causes a computer to:
generate, by capturing a single scene, captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction;
acquire an adjustment condition relating to parallax amount adjustment for generating adjusted parallax image data having a parallax that is different from the first parallax and the second parallax; and
output the adjustment condition in association with the captured image data.
21. A control program for an image processing device that causes a computer to:
obtain captured image data including reference image data, first parallax image data having a first parallax in one direction relative to a subject image of the reference image data, and second parallax image data having a second parallax in another direction that is opposite the one direction, and an adjustment condition relating to a parallax amount adjustment associated with the captured image data; and
process the reference image data, the first parallax image data, and the second parallax image data, based on the adjustment condition, to generate third parallax image data having a third parallax that is in the one direction and different from the first parallax and fourth parallax image data having a fourth parallax that is in the other direction and different from the second parallax.
22. An imaging apparatus comprising:
a detecting section that detects a subject distribution in a depth direction for a scene;
a determining section that determines a change condition relating to a parallax amount, based on the subject distribution; and
a control section that performs imaging control to generate captured image data including first parallax image data and second parallax image data having a parallax therebetween, based on the change condition.
23. The imaging apparatus according to claim 22, comprising:
an image capturing element including a first parallax pixel group that receives, from among incident light passing through an optical system, first partial light that is polarized in a first direction relative to an optical axis of the optical system and a second parallax pixel group that receives, from among the incident light passing through the optical system, second partial light that is polarized in a second direction different from the first direction.
24. The imaging apparatus according to claim 22, wherein
the detecting section detects the subject distribution based on phase difference information for each subject.
25. The imaging apparatus according to claim 22, comprising:
a receiving section that receives a designation of a subject by a user, wherein
the detecting section sets the designated subject to be a detection target in the subject distribution.
26. The imaging apparatus according to claim 22, wherein
the determining section determines a diaphragm value as the change condition.
27. The imaging apparatus according to claim 22, wherein
the determining section determines a correction amount for a focus lens position as the change condition.
28. The imaging apparatus according to claim 22, wherein
the determining section determines an adjustment parameter value for adjusting a parallax amount between images used when the control section generates the first parallax image data and the second parallax image data, as the change condition.
29. The imaging apparatus according to claim 28, wherein
the control section acquires reference image data, third parallax image data having a third parallax in one direction relative to a subject image of the reference image data, and fourth parallax image data having a fourth parallax in another direction opposite the one direction, and
a first parallax pixel value is calculated to generate the first parallax image data and a second parallax pixel value is calculated to generate the second parallax image data, by extracting a reference pixel value at a target pixel position in the reference image data, a third parallax pixel value at the target pixel position in the third parallax image data, and a fourth parallax pixel value at the target pixel position in the fourth parallax image data, and using the arithmetic expressions of:
P1=2P0\xd7(C\xb7P3+(1\u2212C)P4)(P3+P4) and
P2=2P0\xd7((1\u2212C)P3+C\xb7P4)(P3+P4),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is an adjustment parameter value, and C is a real number such that 0.5<C<1.
30. The imaging apparatus according to claim 28, wherein
the control section acquires reference image data, third parallax image data having a third parallax in one direction relative to a subject image of the reference image data, and fourth parallax image data having a fourth parallax in another direction opposite the one direction, and
a first parallax pixel value is calculated to generate the first parallax image data and a second parallax pixel value is calculated to generate the second parallax image data, by extracting a reference pixel value at a target pixel position in the reference image data, a third parallax pixel value at the target pixel position in the third parallax image data, and a fourth parallax pixel value at the target pixel position in the fourth parallax image data, and using the arithmetic expressions of:
P1=P0\xd7(P3P4)(C-0.5) and
P2=P0\xd7(P4P3)(C-0.5),
where P0 is the reference pixel value, P1 is the first parallax pixel value, P2 is the second parallax pixel value, P3 is the third parallax pixel value, P4 is the fourth parallax pixel value, C is an adjustment parameter value, and C is a real number such that 0.5<C<1.
31. A control program for an imaging apparatus causing a computer to:
detect a subject distribution in a depth direction for a scene;
determine a change condition relating to a parallax amount, based on the subject distribution; and
generate captured image data including first parallax image data and second parallax image data having a parallax therebetween, based on the change condition.
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 foam filling member used for filling a space of a structure by foaming the foam filling member, the foam filling member comprising:
a foaming base material in a form of a sheet having a thickness of 0.5 to 6.0 mm of foamable material, in which
incisions having a cutting width of 300 \u03bcm or less cut in partway in a thickness direction of the foaming base material, or
cuts passing through in the thickness direction of the foaming base material and incisions extending so as to reach the cuts and having a cutting width of 300 \u03bcm or less cut in partway in the thickness direction of the foaming base material
are formed along a bending portion,
wherein the foaming base material is formed in a predetermined shape by bending the foaming base material along the incisions andor the cuts.
2. The foam filling member according to claim 1, wherein the foaming base material has a flexural modulus of elasticity of 20-150MPa.
3. The foam filling member according to claim 1, wherein the incisions andor the cuts are formed to extend in a longitudinal direction of the foaming base material.
4. The foam filling member according to claim 1, wherein the incisions andor the cuts are formed along a direction intersecting with a longitudinal direction of the foaming base material.
5. The foam filling member according to claim 1, wherein the foaming base material is provided with a retaining portion for retaining the structure.
6. The foam filling member according to claim 1, which is used for filling in a first space and a second space of the structure comprising the first space, the second space adjoining to the first space, and a communication hole for communicating therebetween,
wherein the foaming base material comprises an inserting portion, formed partway along a longitudinal direction thereof, which is inserted through the communication hole, a first space filling portion, formed on one lengthwise side thereof with respect to the inserting portion, which is placed in the first space, and a second space filling portion, formed on the other lengthwise side thereof with respect to the inserting portion, which is placed in the second space.
7. The foam filling member according to claim 3, wherein the incisions are arranged in parallel with each other at predetermined spaced intervals in a widthwise direction which is a direction orthogonal to the longitudinal direction of the foaming base material.
8. The foam filling member according to claim 7, wherein the cuts are formed linearly in a surface on one side of the foaming base material, to extend from a long side surface on one widthwise side thereof to the incisions from the long side surface thereof along a widthwise direction of the foaming base material.
9. The foam filling member according to claim 8, wherein the cuts are arranged in parallel with each other at predetermined spaced intervals extending partway along the longitudinal direction of the foaming base material.
10. The foam filling member according to claim 1, wherein the foaming base material comprises:
a first member arranged in a longitudinal direction of the foaming base material at predetermined spaced intervals;
a second member arranged in a longitudinal direction of the foaming base material at predetermined spaced intervals; and
a retaining portion arranged in a longitudinal direction of the foaming base material at predetermined spaced intervals;
wherein said first member, second member, and retaining portion form one piece; and
wherein said retaining portion joins said first and second members.
11. The foam filling member according to claim 10, wherein the incisions are formed linearly in a surface of at least one side of one of the first or second members on a longitudinal side thereof, along a longitudinal direction of said respective first or second members; and
wherein the incisions are arranged in parallel with each other at predetermined spaced intervals along a widthwise direction orthogonal to the longitudinal direction of the first or second members.
12. The foam filling member according to claim 11, wherein the cuts are formed linearly in a surface on one side of the first or second members, to extend from a long side surface on one widthwise side thereof to the incisions from the long side surface thereof along a widthwise direction of the first or second members.
13. The foam filling member according to claim 12, wherein the cuts are arranged in parallel with each other at predetermined spaced intervals extending partway along the longitudinal direction of the first or second members.
14. The foam filling member according to claim 13, wherein the incisions allow the first and second members to be bent along the incisions in a direction orthogonal to a cut-in direction of the incisions, such that the foaming base material is formed in a generally circular shape.
15. The foam filling member according to claim 10, wherein the retaining portion comprises:
a connecting portion which connects between the first member and the second member;
a pair of retaining arms projecting from said connecting portion; and
a plurality of protruding portions projecting from said connecting portion;
wherein said connecting portion, said retaining arms, and said protruding portions are formed of one piece.
16. The foam filling member according to claim 4, wherein said foaming base material includes substantially V-shaped recesses formed partway along a longitudinal direction, which confront each other to form an inserting portion.
17. The foam filling member according to claim 16, wherein incisions are formed on one side of and proximal to said inserting portion, and incisions are not formed proximal to said inserting portion on another side of said inserting portion.
18. The foam filling member according to claim 6, wherein said foaming base material forms a substantially figure 8 shape within said first space and second space.