1. An envelope sheet used when manufacturing an envelope, comprising:
n (where n is an integer of three or more) rectangular component sheets adjacently aligned in an envelope unfolding direction; and
(n\u22121) folding lines for consecutively connecting the n component sheets along the envelope unfolding direction, wherein each folding line consecutively connects adjacent component sheets and extends in an orthogonal direction that is orthogonal to the envelope unfolding direction,
wherein a first component sheet serves as a front sheet or a back sheet of the envelope,
a second component sheet serves as a back sheet or a front sheet of the envelope,
the first component sheet has an openable and closable flap on one end side extending in the envelope unfolding direction,
a first coating part and a second coating part coated with pressure-sensitive adhesive are provided on an envelope inner side and respectively extend along the envelope unfolding direction on fringes of the first component sheet, the second component sheet, and a third component sheet, and
another coating part coated with another adhesive provided on an envelope outer side of the third component sheet for closing the flap, the another coating part extends along the orthogonal direction and contacts the flap but not an adhesive when the envelope sheet is folded along the second folding line,
wherein a first cutout part and a second cutout part extend in the envelope unfolding direction, and are respectively provided on fringes of the third component sheet,
the first coating part and the second coating part on the third component sheet are bonded to a part of the first coating part and a part of the second coating part on the second component sheet when the envelope sheet is folded along the second folding line,
and the first coating part and the second coating part on the first component sheet are bonded to a remaining part of the first coating part and a remaining part of the second coating part on the second component sheet via the first cutout part and the second cutout part on the third component sheet when the envelope sheet is folded along the first folding line.
2. The envelope sheet according to claim 1, wherein a minimum width of each of the first cutout part and the second cutout part in the orthogonal direction is set longer than a length from a side fringe of the third component sheet in the orthogonal direction to an inner side edge of each of the first coating part and the second coating part.
3. The envelope sheet according to claim 2, wherein the first cutout part and the second cutout part of the third component sheet are asymmetric with respect to a centerline in the orthogonal direction.
4. The envelope sheet according to claim 1, wherein a first chamfer and a second chamfer are respectively provided on tips of both side fringes in the orthogonal direction in the first component sheet.
5. An envelope sheet used when manufacturing an envelope, comprising:
n (where n is an integer of three or more) rectangular component sheets adjacently aligned in an envelope unfolding direction; and
(n\u22121) folding lines for consecutively connecting the n component sheets along the envelope unfolding direction, wherein each folding line consecutively connects adjacent component sheets and extends in an orthogonal direction that is orthogonal to the envelope unfolding direction,
wherein a first component sheet serves as a front sheet or a back sheet of the envelope,
a second component sheet serves as a back sheet or a front sheet of the envelope,
the first component sheet has an openable and closable flap on one end side extending in the envelope unfolding direction,
a first coating part and a second coating part coated with pressure-sensitive adhesive are provided on an envelope inner side and respectively extend along the envelope unfolding direction on fringes of the first component sheet, the second component sheet, and a third component sheet, and
another coating part coated with another adhesive provided on an envelope outer side of the third component sheet for closing the flap, the another coating part extends along the orthogonal direction and contacts the flap but not an adhesive when the envelope sheet is folded along the second folding line,
wherein a first cutout part and a second cutout part extend in the envelope unfolding direction, and are respectively provided on fringes of the third component sheet,
and a minimum width of each of a portion of the first cutout part and the second cutout part extending in the orthogonal direction is set longer than a length from each of the fringes of the third component sheet to each edge of the first coating part and the second coating part in the orthogonal direction.
6. The envelope sheet according to claim 1, wherein the another adhesive is a water paste.
7. An envelope used when manufacturing an envelope, comprising:
n (where n is an integer of three or more) rectangular component sheets adjacently aligned in an envelope unfolding direction; and
(n\u22121) folding lines for consecutively connecting the n component sheets along the envelope unfolding direction, wherein each folding line consecutively connects adjacent component sheets and extends in an orthogonal direction that is orthogonal to the envelope unfolding direction,
wherein a first component sheet serves as a front sheet or a back sheet of the envelope,
a second component sheet serves as a back sheet or a front sheet of the envelope,
the first component sheet has an openable and closable flap on one end side extending in the envelope unfolding direction,
a first coating part and a second coating part coated with pressure-sensitive adhesive are provided on an envelope inner side and respectively extend along the envelope unfolding direction on fringes of the first component sheet, the second component sheet, and a third component sheet, and
another coating part coated with another adhesive is provided on an envelope outer side of the third component sheet for closing the flap, the another coating part extends along the orthogonal direction and contacts the flap but not an adhesive when the third component sheet is folded along a folding line, and
wherein a first cutout part and a second cutout part extend in the envelope unfolding direction, and are respectively provided on fringes of the third component sheet.
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 X-ray inspection device comprising:
an X-ray irradiation device for generating an X-ray and irradiating an object to be inspected with the X-ray;
an X-ray detection device for detecting the X-ray radiated from said X-ray irradiation device that passes through said object to be inspected;
a swinging device for holding said object to be inspected on an X-ray path from said X-ray irradiation device to said X-ray detection device and driving said object to be inspected at an arbitrary angle in an arbitrary direction with respect to an X-ray irradiation axis on said X-ray path; and
a control device for controlling driving of said swinging device and said X-ray irradiation device, receiving an input of an X-ray image data from said X-ray detection device and displaying said X-ray image data.
2. The X-ray inspection device in accordance with claim 1, wherein said swinging device has an attachment plane to which said object to be inspected is attached and said attached plane is swung by being rotated around two axes orthogonal to each other.
3 The X-ray inspection device in accordance with claim 1, wherein said control device controls driving of said X-ray detection device, said swinging device and said X-ray irradiation device and displays data on the X-ray image from said X-ray detection device and data on an arbitrary cross section from said X-ray image data.
4. The X-ray inspection device in accordance with claim 1, wherein said control device calculates inner condition of said object to be inspected in comparison with prestored data and has an automatic inspection function of inspecting inner condition of said object to be inspected.
5. The X-ray inspection device in accordance with claim 2, wherein said swinging device rotates around said two axes orthogonal to each other by an X-axis motor and a Y-axis motor, rotation by said X-axis motor is reciprocating motion reciprocating within a predetermined range of rotation angles and rotation by said Y-axis motor performs reciprocating motion of the same cycle within a predetermined range of rotation angles with the phase being shifted from the rotation of said X-axis motor.
6. An X-ray inspection device comprising:
an X-ray irradiation device for generating an X-ray and irradiating an object to be inspected with the X-ray;
an X-ray detection device for detecting the X-ray radiated from said X-ray irradiation device that passes through said object to be inspected;
a swinging device for holding said object to be inspected on an X-ray path from said X-ray irradiation device to said X-ray detection device and driving said object to be inspected at an arbitrary angle in an arbitrary direction with respect to an X-ray irradiation axis on said X-ray path;
a swinging device for X-ray detection for driving said X-ray detection device in the same direction and at the same angle as said object to be inspected driven by said swinging device; and
a control device for controlling driving of said swinging device and said X-ray irradiation device, receiving an input of an X-ray image data from said X-ray detection device and displaying said X-ray image data.
7. The X-ray inspection device in accordance with claim 6, wherein said swinging device has an attachment plane to which said object to be inspected is attached and said swinging device for X-ray detection swings in synchronization with said attachment plane.
8. The X-ray inspection device in accordance with claim 6, wherein said control device controls driving of said X-ray detection device, said swinging device, said swinging device for X-ray detection and said X-ray irradiation device, stops and images said object to be inspected at an arbitrary position and displays data on the X-ray image from said X-ray detection device and data on an arbitrary cross section from said X-ray image data.
9. The X-ray inspection device in accordance with claim 6, wherein said control device calculates inner condition of said object to be inspected in comparison with prestored data and has an automatic inspection function of inspecting inner condition of said object to be inspected.
10. The X-ray inspection device in accordance with claim 7, wherein said swinging device rotates around said two axes orthogonal to each other by an X-axis motor and a Y-axis motor, rotation by said X-axis motor is reciprocating motion reciprocating within a predetermined range of rotation angles and rotation by said Y-axis motor performs reciprocating motion of the same cycle within a predetermined range of rotation angles with the phase being shifted from the rotation of said X-axis motor.
11. An X-ray inspection device comprising:
an X-ray irradiation device for irradiating an X-ray in the vertical direction in a form of cone with an X-ray focus as a vertex at a predetermined irradiation angle;
a holding mechanism for horizontally holding an object to be inspected within an X-ray irradiation range;
a transfer mechanism for object to be inspected for transferring said object to be inspected held by said holding mechanism to an arbitrary position in the horizontal direction within an X-ray irradiation range;
an X-ray detection device having a detection plane for detecting the X-ray that passes through said object to be inspected;
a transfer mechanism for X-ray detection for transferring said X-ray detection device to an arbitrary position on a plain parallel to the plane to which said object to be inspected is transferred;
a motor control device for controlling driving of said transfer mechanism for object to be inspected and said transfer mechanism for X-ray detection in synchronization with each other;
an image processing device for extracting an X-ray image of an arbitrary cross section from the X-ray image formed by said X-ray detection device; and
a display device for displaying said X-ray image formed by said X-ray detection device and said image processing device.
12. The X-ray inspection device in accordance with claim 11, wherein when said transfer mechanism for object to be inspected transfers said object to be inspected within the X-ray irradiation range, said transfer mechanism for object to be inspected and said transfer mechanism for X-ray detection are transferred in synchronization with each other so that a center point of said detection plane of said X-ray detection device is located on a straight line connecting said X-ray focus with a center point of an inspected place of said object to be inspected.
13. The X-ray inspection device in accordance with claim 11, wherein said transfer mechanism for X-ray detection has a Z-axis driving mechanism for X-ray detection for transferring said X-ray detection device in the vertical direction and a magnifying factor of the X-ray image can be changed by changing a ratio between a distance from said X-ray focus to said object to be inspected and a distance from said X-ray focus to said X-ray detection device.
14. The X-ray inspection device in accordance with claim 11, wherein said transfer mechanism for object to be inspected and said transfer mechanism for X-ray detection are rotated on each horizontal plane in synchronization with each other and radiography is performed while a shutter is opened during one rotation in rotation motion.
15. The X-ray inspection device in accordance with claim 11, wherein said transfer mechanism for object to be inspected and said transfer mechanism for X-ray detection are rotated on each horizontal plane in synchronization with each other while stopping by each certain angle and radiography is performed at each stopped position.
16. The X-ray inspection device in accordance with claim 13, wherein when said Z-axis driving mechanism for X-ray detection transfers said transfer mechanism for X-ray detection in the vertical direction, said transfer mechanism for X-ray detection is transferred in synchronization with said Z-axis driving mechanism for X-ray detection so that a center point of said X-ray detection device is located on a straight line connecting said X-ray focus with a center point of an inspected place of said object to be inspected.
17. An X-ray inspection method comprising:
attaching an object to be inspected to a swinging device disposed on an X-ray path from an X-ray irradiation device to an X-ray detection device;
driving said object to be inspected by said swinging device at an arbitrary angle in an arbitrary direction with respect to an X-ray irradiation axis on said X-ray path;
irradiating said object to be inspected with the X-ray radiated from said X-ray irradiation device;
detecting the X-ray that passes through said object to be inspected by said X-ray detection device; and
receiving an input of an X-ray image data from said X-ray detection device and extracting data on an arbitrary cross section from said X-ray image data.
18. The X-ray inspection method in accordance with claim 17, wherein said attachment plane to which said object to be inspected is attached is swung by two axes orthogonal to each other by an X-axis motor and a Y-axis motor, rotation by said X-axis motor is reciprocating motion reciprocating within a predetermined range of rotation angles and rotation by said Y-axis motor performs reciprocating motion of the same cycle within a predetermined range of rotation angles with the phase being shifted from the rotation of said X-axis motor.
19. An X-ray inspection method comprising:
holding an object to be inspected horizontally within an X-ray irradiation range;
transferring said object to be inspected held by said holding mechanism to an arbitrary position in the horizontal direction within an X-ray irradiation range;
transferring said X-ray detection device to an arbitrary position on a plain parallel to the plane to which said object to be inspected is transferred by a transfer mechanism for X-ray detection so that a target point is located at a center of the X-ray image formed by an X-ray detection device in synchronization with the transfer of said object to be inspected;
irradiating an X-ray in the vertical direction in a form of cone with an X-ray focus as a vertex at a predetermined irradiation angle;
detecting the X-ray that passes through said object to be inspected by said X-ray detection device;
in an image processing device, extracting an X-ray image of an arbitrary cross section from the X-ray image formed by said X-ray detection device; and
displaying said X-ray image formed by said X-ray detection device and said image processing device.
20. The X-ray inspection device in accordance with claim 19, wherein when said transfer mechanism for object to be inspected transfers said object to be inspected within the X-ray irradiation range, said transfer mechanism for object to be inspected and said transfer mechanism for X-ray detection are transferred in synchronization with each other so that a center point of said detection plane of said X-ray detection device is located on a straight line connecting said X-ray focus with a center point of an inspected place of said object to be inspected.