Author: claimsbot

1. A 3D image capturing device, comprising:
a first lens module having a first optical axis associated therewith;
a second lens module juxtaposed with the first lens module, the second lens module having a second optical axis associated therewith, the second optical axis being parallel with the first optical axis;
an image sensor;
a cross dichroic prism;
a first mirror; and
a second mirror, the first and second mirrors arranged at opposite sides of the cross dichroic prism, the first and second mirrors configured for reflecting and directing light beams from the first and second lens modules to the cross dichroic prism, the cross dichroic prism configured to redirect the reflected light beams from the first and second mirrors to the image sensor.
2. The 3D image capturing device according to the claim 1, wherein the first and second optical axes are perpendicular to the image sensor.
3. The 3D image capturing device according to the claim 1, wherein the first and second optical axes are parallel with the image sensor.
4. The 3D image capturing device according to claim 3, wherein the first mirror is perpendicular to the second mirror.
5. The 3D image capturing device according to claim 3, wherein the first lens module comprises a first lens module mirror obliquely oriented relative to the first optical axis and configured for reflecting and directing light beams from an object side to the first mirror; and the second lens module comprises a second lens module mirror obliquely oriented relative to the second optical axis and configured for reflecting and directing light beams from the object side to the second mirror.
6. The 3D image capturing device according to claim 5, wherein the first lens module mirror is parallel with the second lens module mirror.
7. The 3D image capturing device according to claim 5, wherein the first lens module mirror and the second lens module mirror are located on a common plane.
8. The 3D image capturing device according to claim 1, further comprising:
a first tubular housing configured to accommodate the first lens module;
a second tubular housing parallel with the first tubular housing and configured to accommodate the second lens module;
a third tubular housing perpendicularly connected with the first and second tubular housing, the first mirror located at a joint portion of the first and third tubular housings, the second mirror located at a joint portion of the second and third tubular housings, the cross dichroic prism located inside the third tubular housing and between the first and second mirrors; and
a fourth tubular housing perpendicularly connected with the third tubular housing.
9. The 3D image capturing device according to claim 1, further comprising a first shutter and a second shutter, the first and second shutters configured to act in a synchronized manner.

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 compact machine for differentiated recuperation of industrial scrap, comprising:
an inlet group (2) for mincing lengths of industrial scrap comprising at least a plastic material and a metal material, the metal material being minced into a fragment form, the fragments being substantially needle-shaped;
a terminal group (3) for final separation of fragments of metal and plastic material produced by the inlet group (2);
means (4, 40, 400) for pneumatic conveying of the metal and plastic fragments from the inlet group (2) to the terminal group (3);
a first intermediate group (7), located cascadingly following the inlet group (2), which enables pneumatic transit or collection of metal fragments of a lower weight, separate from metal fragments of a greater weight than a predetermined limit weight, enabling a first separation of the metal fragments; the plastic fragments freely transiting together with the metal fragments of the lower weight.
2. The machine of claim 1, further comprising organs for regulating the limit weight associated to the first intermediate group (7).
3. The machine of claim 1, wherein the first intermediate group (7) comprises a labyrinth (71) provided with a bifurcation from which two channels depart, being a main channel (72) and a secondary channel (73), for respectively conveying the metal fragments of the lower weight and the metal fragments of the greater weight with respect to the limit weight; the plastic fragments transiting along the main channel (72).
4. The machine of claim 1, further comprising a second intermediate group (6), preferably located following on in cascade from the first intermediate group (7), which centrifuges the metal fragments produced by the inlet group (2) such that on release the metal fragments acquire a substantially rounded geometry, while leaving a geometry of the plastic fragments substantially unaltered.
5. The machine of claim 4, characterized in that the second intermediate group (6) releases metal fragments having a toroidal rounded geometry.
6. The machine of claim 4, wherein the second intermediate group (6) comprises an impeller (61) provided with a plurality of blades (60) which intercept the metal fragments and direct them towards peripheral plates (62) facing the impeller.
7. The machine of claim 1, further comprising filter and recuperation organs (8), cooperating with the means (4, 40, 400) for pneumatic conveying, for collecting plastic and metal dust produced in the groups (2, 3, 6, 7).
8. The machine of claim 1, further comprising refrigerating organs, associated to the inlet group (2) for controlling a temperature of the plastic and metal fragments produced therein.
9. The machine of claim 1, further comprising a platform (5) for supporting at least the inlet group (2), the terminal group (3) and the first intermediate croup (7).
10. The machine of claim 6, characterized in that the second intermediate group (6) releases metal fragments having a toroidal rounded geometry.
11. The machine of claim 4, further comprising a platform (5) for supporting at least the inlet group (2), the terminal group (3), the first intermediate group (7) and the second intermediate group (6).

1. A coil spring forming apparatus comprising:
a core bar that is cylindrically shaped and rotates around an axis thereof and on which a wire material fed from a wire material-feeding means is wound;
a clamping portion which rotates integrally with the core bar and grips an end of the wire material on the core bar; and
a first guide portion and a second guide portion for guiding the wire material onto the core bar;
wherein each of the first guide portion and the second guide portion comprises a support plate and an arm member, each of said support plates is rotatably mounted to said arm member, and each of said support plates is capable of rotating independently of each other, and
the first guide portion and the second guide portion are configured to be able to move independently from each other in a direction parallel with the axis of the core bar and to move from one end to the other end of the core bar while the wire is wound around the core bar.
2. The coil spring forming apparatus according to claim 1,
Wherein the first guide portion disposed on the side closer to the core bar is configured to be able to hold a portion of the wire material adjacent to the portion of the wire material gripped by the clamping portion on the core bar at the start of winding the wire material.
3. The coil spring forming apparatus according to claim 2,
wherein the support plate in each of the first guide portion and the second guide portion comprise a pair of guide rollers arranged so as to hold the wire material passage therebetween, the guide rollers of the first guide portion configured to come in contact with the wire material from the upper side, and the guide rollers of the second guide portion configured to come in contact with the wire material from the lower side, wherein the lower side of the wire material is the side that comes in contact with the core bar.
4. The coil spring forming apparatus according to claim 2,
wherein the second guide portion is disposed on the side farther from the core bar and the support plate thereof comprises a pair of guide rollers arranged so as to hold the wire material passage therebetween, and
the support plate of the first guide portion comprises a guide roller having a groove that fits the wire material and the support plate is rotatable around an axis which is at a right angle to a rotational axis of the guide roller and at a right angle to the wire material feed passage.
5. The coil spring forming apparatus according to claim 1,
wherein the support plate in each of the first guide portion and the second guide portion comprise a pair of guide rollers arranged so as to hold the wire material passage therebetween, the guide rollers of the first guide portion configured to come in contact with the wire material from the upper side, and the guide rollers of the second guide portion configured to come in contact with the wire material from the lower side, wherein the lower side of the wire material is the side that comes in contact with the core bar.
6. The coil spring forming apparatus according to claim 1,
wherein the second guide portion is disposed on the side farther from the core bar and the support plate thereof comprises a pair of guide rollers arranged so as to hold the wire material passage therebetween, and
the support plate of the first guide portion comprises a guide roller having a groove that fits the wire material and the support plate is rotatable around an axis which is at a right angle to a rotational axis of the guide roller and at a right angle to the wire material feed passage.

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 muscular strength test system comprising:
a controlling part 2;
a shaft 4 rotatably connected to a motor 3 via electromotive means 3a in such a way as to be mounted horizontally;
an angle-adjustable frame 5 mounted on an end portion of the shaft 4, the angle-adjustable frame 5 comprising a main frame 5a adjusting its angle back and forth by the motor 3 and a sub frame 5b mounted on a motor 6 of the main frame 5a via a shaft 7 in such a way as to be controlled in its right and left rotation on the main frame 5a;
a support frame 5c vertically mounted on the sub frame 5b;
leg binding means 8, hip binding means 9, and head binding means 10 mounted on the support frame 5c to selectively bind the user’s legs, hips and head to the support frame 5c; and
sensing means 11 mounted at right and left of the sub frame 5b for sensing muscular strength of the user’s body.
2. The muscular strength test system according to claim 1, wherein the sensing means 11 comprises:
at least one photo sensor 12; 13; and
a guider 14a formed on a sensor frame 14 adapted to vertically adjust height of the sensing means 11 along a guide groove 14b formed on the sub frame 5b.
3. The muscular strength test system according to claim 1, wherein the sensing means 11 is additionally mounted on a supporter 15 formed on the sub frame 5b in a back and forth direction.
4. The muscular strength test system according to claim 1, wherein the sensing means 11 is at least one distance meter 12a; 13a mounted on the sensor frame 14.
5. The muscular strength test system according to claim 1, wherein the sensing means 11 is at least one distance meter 12a; 13a mounted on the sensor frame 14.
6. The muscular strength test system according to claim 1, wherein the hip binding means 9 and the head binding means 10 respectively have ring-type frame binding portions 9a; 10a ascending and descending on the support frame 5c, so that the hip binding means 9 and the head binding means 10 can be adjusted in height according to users’ body sizes.
7. A muscular strength test system comprising:
a controlling part 2;
a shaft 4 rotatably connected to a motor 3 via electromotive means 3a in such a way as to be mounted horizontally;
an angle-adjustable frame 5 mounted on an end portion of the shaft 4, the angle-adjustable frame 5 comprising a main frame 5a adjusting its angle back and forth by the motor 3, a sub frame 5b mounted on a motor 6 of the main frame 5a via a shaft 7 in such a way as to be controlled in its right and left rotation on the main frame 5a, and a guide frame 16 mounted on the rear face of the sub frame 5b;
sensing means 11 ascending and descending along a linear motor guider 17 mounted on the rear face of the guide frame 16 by a driving of a motor 18;
a support frame 16a ascending and descending along a linear motor guider 19 mounted on an upper portion of the front face of the guide frame 16 by a driving of a motor 20; and
a hip binding means 19 ascending and descending along a linear motor guider 21 mounted on a lower portion of the front face of the guide frame 16 by a driving of a motor 22.
8. The muscular strength test system according to claim 7, wherein the sensing means 11 comprises a sensor frame 14 and a plurality of photo sensors 12; 13 mounted on the sensor frame 14 at a predetermined interval, whereby the user can selectively test his or her muscular strength of the upper part and the lower part of the body.
9. The muscular strength test system according to claim 7, wherein the sensing means 11 comprises a sensor frame 14 and at least one distance meter 12a; 13a mounted on the sensor frame 14, whereby the user can selectively test his or her muscular strength of the upper part and the lower part of the body.
10. The muscular strength test system according to claim 7, wherein the sensing means 11 comprises:
a belt 23 having a detachably attaching means 23a detachably attached on the user’s hips; and
a ring-type sensing bar 25 radially connected with the belt 23 via a rope 24.