Author: claimsbot

1. Angular motion driving mechanism comprising:
a gear wheel mounted on a supporting structure for intermittent rotational movement in clockwise and counter-clockwise directions within an arc bounded by first and second angular positions of the gear wheel with respect to the supporting structure;
a drive motor carried by the supporting structure having an active mode and an non-active mode;
a driving gear being drivingly coupled to the drive motor and to the gear wheel imparting rotational movement to the gear wheel from said first to said second position; in an active mode of the drive motor;
a coiled torsion return spring, one end thereof being connected to the gear wheel and the other end thereof to the supporting structure, which is flexed against its bias at rotational movement of the gear wheel from the first to the second angular position \u03b11 to \u03b12, respectively in the active mode of the drive motor and relaxes in the non-active mode of the drive motor by urging the gear wheel to return from the second to the first angular position, and wherein
at least a first flexible end stop being constituted by a first member structurally fixated to the gear wheel and in said first position \u03b11 engaging with a first embossment of said supporting structure to block rotational movement of the gear wheel by said coiled torsion return spring, said first member being flexed at contact collision with said first embossment.
2. The mechanism according to claim 1, wherein said gear wheel being constituted of flexible material, said first member being an integral part of said gear wheel.
3. The mechanism according to claim 2, wherein said first member being constituted by said first member being constituted by a first blocking tooth integrally formed in the gear wheel by an incision of a first slits, having a width chosen to absorb shocks at said contact collision without exceeding the breaking limit of the first blocking tooth.
4. The mechanism according to claim 2 wherein the first blocking tooth being integrally formed in the gear wheel by said first slit and a second slit.
5. The mechanism according to claim 4, wherein said first and second slits each have a width increasing radially towards the rotation axis of the gear wheel.
6. The mechanism according to claim 5, wherein said first and second slits, each ending into a cavity having a radius being substantially larger than the width of the slits S1 and S2.
7. The mechanism according to claim 4, further comprising a gear tooth segment covering an arc of substantially 180\xb0 being separated from said first blocking tooth by said first slit S1 and defining an arc of equal magnitude between the first and second angular positions of the gear wheel.
8. The mechanism according to claim 7, wherein said gear wheel comprises a circumferential radius within said arc which is substantially equal to the radial length of the first blocking tooth and larger than the circumferential radius of the remaining part RP of said gear wheel.
9. The mechanism according to claim 4, further comprising a gear tooth segment covering an arc wider than 180\xb0 being separated from said first blocking tooth by said first slit and defining an arc of equal magnitude between the first and second angular positions of the gear wheel, the radial length of the first blocking tooth being larger than the radius of the gear wheel.
10. The mechanism-according to claim 8, wherein said radial length of the first blocking tooth differing from the radius of the remaining part of said gear wheel by at least part of the radial length of said first embossment.
11. The mechanism according to claim 1, further comprising an axially cylindrical rim integrally structured with the gear wheel and extending at the rear side thereof being provided with an opening towards the first blocking tooth.
12. The mechanism according to one claim 1, further comprising a structure, which is symmetrical with respect to a centre axis, having a second flexible end stop being constituted by a second member, which is located symmetrically to said first member and in said second position \u03b12 engaging with a second embossment said supporting structure to block rotational movement of the gear wheel said drive motor, said second member being flexed at contact collision with said second embossment in the active mode of the drive motor.
13. The mechanism according to claim 1, wherein a diameter and thickness of the gear wheel in the order of magnitude of 5.5 centimeter and 0.5 centimeter, respectively, a width of said first and second slits in the order of magnitude of 0.7 millimeter, said first embossment and said first blocking tooth having a common contact surface area with a radial length and tangential thickness in the order of magnitude of 14 and 6 millimeters, respectively.
14. The mechanism according to claim 3, wherein the first blocking tooth being integrally formed in the gear wheel by said first slit and a second slit.
15. The mechanism according to claim 5, further comprising a gear tooth segment covering an arc of substantially 180\xb0 being separated from said first blocking tooth by said first slit S1 and defining an arc of equal magnitude between the first and second angular positions of the gear wheel.
16. The mechanism according to claim 6, further comprising a gear tooth segment covering an arc of substantially 180\xb0 being separated from said first blocking tooth by said first slit S1 and defining an arc of equal magnitude between the first and second angular positions of the gear wheel.
17. The mechanism according to claim 5, further comprising a gear tooth segment covering an arc wider than 180\xb0 being separated from said first blocking tooth by said first slit and defining an arc of equal magnitude between the first and second angular positions of the gear wheel, the radial length of the first blocking tooth being larger than the radius of the gear wheel.
18. The mechanism according to claim 6, further comprising a gear tooth segment covering an arc wider than 180\xb0 being separated from said first blocking tooth by said first slit and defining an arc of equal magnitude between the first and second angular positions of the gear wheel, the radial length of the first blocking tooth being larger than the radius of the gear wheel.
19. The mechanism according to claim 9, wherein said radial length of the first blocking tooth differing from the radius of the remaining part of said gear wheel by at least part of the radial length of said first embossment.
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 liquid level sensing device for aircraft galley inserts, the liquid level sensing device comprising:
a housing;
a plurality of rotating electrically conductive probes connected to said housing by a rotating electrical contact joint which operates with a self cleaning action that ensures continuous electrical contact, each of said plurality of rotating electrically conductive probes including a rotating conductive drum base portion having a rotatable contact end plate; and
an annular inner stationary contact ring mounted to said housing, said annular inner stationary contact ring being disposed between said rotatable contact end plate and said housing.
2. The liquid level sensing device of claim 1, wherein each of said plurality of rotating electrically conductive probes includes a finger portion extending from said rotating conductive drum base portion.
3. The liquid level sensing device of claim 2, wherein each of said plurality of rotating electrically conductive probes includes a pivot arm extending from said rotating conductive drum base portion transverse to said finger portion, said pivot arm being rotatably connected to said housing.
4. The liquid level sensing device of claim 3, wherein said pivot arm extends through said annular inner stationary contact ring.
5. The liquid level sensing device of claim 1, wherein each of said probes, said rotatable contact end plate and said annular inner stationary contact ring has an exterior surface formed of an electrically conductive, corrosion resistant material.
6. The liquid level sensing device of claim 1, wherein said housing includes a central universal mounting member that permits mounting of the liquid level sensing device to galley inserts.
7. A liquid level sensing device for aircraft galley inserts, the liquid level sensing device comprising:
a housing;
a plurality of rotating electrically conductive probes connected to said housing by a rotating electrical contact joint which operates with a self cleaning action that ensures continuous electrical contact, each of said plurality of rotating electrically conductive probes including a rotating conductive barrel base portion having a rotatable contact end plate, and a finger portion extending from said rotating conductive barrel base portion; and
an annular inner stationary contact ring mounted to said housing, said annular inner stationary contact ring being disposed between said rotatable contact end plate and said housing.
8. The liquid level sensing device of claim 7, wherein each of said plurality of rotating electrically conductive probes includes a pivot arm extending from said rotating conductive barrel base portion transverse to said finger portion, said pivot arm being rotatably connected to said housing.
9. The liquid level sensing device of claim 8, wherein said pivot arm extends through said annular inner stationary contact ring.
10. The liquid level sensing device of claim 7, wherein each of said probes, said rotatable contact end plate and said annular inner stationary contact ring has an exterior surface formed of an electrically conductive, corrosion resistant material.
11. The liquid level sensing device of claim 7, wherein said housing includes a central universal mounting member that permits mounting of the liquid level sensing device to galley inserts.
12. A liquid level sensing device for aircraft galley inserts, the liquid level sensing device comprising:
a housing;
a plurality of rotating electrically conductive probes connected to said housing by a rotating electrical contact joint which operates with a self cleaning action that ensures continuous electrical contact, each of said plurality of rotating electrically conductive probes including a rotating conductive base portion having a rotatable contact end plate, and a finger portion extending from said rotating conductive base portion, and each of said plurality of rotating electrically conductive probes including a pivot arm extending from said rotating conductive base portion transverse to said finger portion, said pivot arm being rotatably connected to said housing; and
an annular inner stationary contact ring mounted to the housing, and disposed between said rotatable contact end plate and said housing, and said pivot arm extending through said annular inner stationary contact ring.
13. The liquid level sensing device of claim 12, wherein each of said probes, said rotatable contact end plate and said annular inner stationary contact ring has an exterior surface formed of an electrically conductive, corrosion resistant material.
14. The liquid level sensing device of claim 12, wherein said housing includes a central universal mounting member that permits mounting of the liquid level sensing device to galley inserts.

1. A method for using a programmable system-on-a-chip including an analog-to-digital converter (ADC) to monitor power supply current comprising:
sampling a power line current at a predetermined sampling rate;
inputting a sampled current value to an ADC;
converting the sampled current value to a digital value;
comparing the digital value to a first warning threshold and setting a flag if the digital value exceeds the first warning threshold;
comparing the digital value to a shutdown threshold and disabling at least one power MOSFET if the digital value exceeds the shutdown threshold;
comparing the digital value to a second warning threshold and setting a flag if the second warning threshold exceeds the digital value.
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 for shaping a tissue matrix, comprising:
selecting a collagen-containing tissue matrix;
partially dehydrating the tissue matrix;
applying mechanical forces to the tissue matrix to change the orientation of collagen fibers within the tissue matrix; and
exposing the tissue matrix to radiation.
2. The method of claim 1, wherein the tissue matrix is an acellular tissue matrix.
3. The method of claim 1, wherein the tissue matrix comprises a dermal tissue matrix.
4. The method of claim 1, wherein the tissue is selected from fascia, pericardial tissue, dura, umbilical cord tissue, placental tissue, cardiac valve tissue, ligament tissue, tendon tissue, arterial tissue, venous tissue, neural connective tissue, urinary bladder tissue, ureter tissue, and intestinal tissue.
5. The method of claim 1, wherein partially dehydrating the tissue matrix includes removing water to produce a tissue matrix containing between 95% (ww) and 50% (ww) water content.
6. The method of claim 5, wherein the water content is between 80% (ww) and 65% (ww).
7. The method of claim 1, further comprising rehydrating the tissue matrix.
8. The method of claim 1, wherein the radiation is applied at a dose between 5 Gy and 50 kGy.
9. The method of claim 1, wherein the radiation is applied at a dose between 5 Gy and 20 kGy.
10. The method of claim 1, wherein the radiation is applied at a dose of less than 10 kGy.
11. The method of claim 1, wherein the radiation is applied at a dose of less than 5 kGy.
12. The method of claim 1, wherein the radiation is applied at a dose of less than 1 kGy.
13. The method of claim 1, wherein the radiation is selected from gamma radiation, e-beam radiation, and X-ray radiation.
14. A tissue product, comprising:
an extracellular tissue matrix comprising collagen, wherein the extracellular tissue matrix has a stable three-dimensional shape formed by a process, comprising:
partially dehydrating the extracellular tissue matrix;
applying mechanical forces to the tissue matrix to reorient collagen fibers within the tissue matrix; and
exposing the tissue matrix to radiation.
15. The product of claim 14, wherein the tissue matrix is an acellular tissue matrix.
16. The product of claim 14, wherein the tissue matrix comprises a dermal tissue matrix.
17. The product of claim 14, wherein the tissue is selected from fascia, pericardial tissue, dura, umbilical cord tissue, placental tissue, cardiac valve tissue, ligament tissue, tendon tissue, arterial tissue, venous tissue, neural connective tissue, urinary bladder tissue, ureter tissue, and intestinal tissue.
18. The product of claim 14, wherein partially dehydrating the tissue matrix includes removing water to produce a tissue matrix containing between 95% (ww) and 50% (ww) water content.
19. The product of claim 18, wherein the water content is between 80% (ww) and 65% (ww).
20. The product of claim 14, wherein the three-dimensional shape is a cup-like shape.
21. The product of claim 14, wherein the three-dimensional shape is a tubular shape.
22. The product of claim 14, wherein the radiation is applied at a dose between 5 Gy and 50 kGy.
23. The product of claim 14, wherein the radiation is applied at a dose between 5 Gy and 20 kGy.
24. The product of claim 14, wherein the radiation is applied at a dose of less than 10 kGy.
25. The product of claim 14, wherein the radiation is applied at a dose of less than 5 kGy.
26. The product of claim 14, wherein the radiation is applied at a dose of less than 1 kGy.
27. The product of claim 14, wherein the radiation is selected from gamma radiation, e-beam radiation, and X-ray radiation.
28. The product of claim 14, wherein the tissue matrix has a permeability to fluids that is less than the permeability of the tissue matrix before dehydration, application of mechanical forces, and radiation.
29. A tissue product, comprising:
an extracellular tissue matrix comprising collagen fibers, wherein at least some of the collagen fibers within the matrix have an orientation that is different than the orientation of the fibers in a tissue from which the matrix is produced and the matrix forms a stable three dimensional shape, and wherein the matrix has a denaturation temperature as measured with differential scanning calorimetry that is within 5\xb0 C. of the denaturation temperature of the tissue from which the matrix is produced.
30. The product of claim 29, wherein the denaturation temperature as measure with differential scanning calorimetry that is within 3\xb0 C. of the denaturation temperature of the tissue from which the matrix is produced.
31. The product of claim 29, wherein the tissue matrix is an acellular tissue matrix.
32. The product of claim 29, wherein the tissue matrix comprises a dermal tissue matrix.
33. The product of claim 29, wherein the tissue is selected from fascia, pericardial tissue, dura, umbilical cord tissue, placental tissue, cardiac valve tissue, ligament tissue, tendon tissue, arterial tissue, venous tissue, neural connective tissue, urinary bladder tissue, ureter tissue, and intestinal tissue.
34. The product of claim 29, wherein the extracellular tissue matrix forms a stable three dimensional shape that is different than a three-dimensional shape of a tissue from which the tissue matrix is produced.
35. The product of claim 29, wherein the three-dimensional shape is a cup-like shape.
36. The product of claim 29, wherein the three-dimensional shape is a tubular shape.
37. The product of claim 29, wherein the radiation is applied at a dose between 5 Gy and 50 kGy.
38. The product of claim 29, wherein the radiation is applied at a dose between 5 Gy and 20 kGy.
39. The product of claim 29, wherein the product is substantially impermeable to fluids.
40. A tissue product, comprising:
an extracellular tissue matrix comprising collagen fibers, wherein at least some of the collagen fibers within the matrix have an orientation that is different than the orientation of the fibers in a tissue from which the matrix is produced, and wherein the matrix forms a stable three-dimensional shape without use of chemical cross-linking agents.
41. The product of claim 40, wherein the tissue matrix is an acellular tissue matrix.
42. The product of claim 40, wherein the tissue matrix comprises a dermal tissue matrix.
43. The product of claim 40, wherein the extracellular tissue matrix forms a stable three dimensional shape that is different than a three-dimensional shape of a tissue from which the tissue matrix is produced.