1461148845-db24c6d8-8eb2-4145-9ac3-a86fc73e45a2

1. A device for storing handled tools and other object in a vehicle, comprising:
a three dimensional body sized to fit in a vehicle and having a vertical dimension defining a vertical wall;
at least one tube extending from the vertical wall of the body through at least a portion of the body, the at least one tube being sized to accommodate a handled tool; and
a top surface on the body having sufficient strength to support cargo carried in the vehicle.
2. The device of claim 1, wherein the device includes a plurality of tubes.
3. The device of claim 1, wherein the at least one tube linearly extends from proximate the top surface downward.
4. The device of claim 1, wherein the three dimensional body is rectangular in shape.
5. The device of claim 1, wherein the three dimensional body is solid and the at least one tube is formed in the solid portion of the body.
6. The device of claim 5, wherein the solid body is formed from plastic.
7. The device of claim 1, wherein the three dimensional body is at least partially hollow and the at least one tube is fixedly mounted in the hollow body.
8. The device of claim 7, wherein the at least partially hollow body is formed from a material selected from the group consisting of metal, fiberglass and plastic.
9. The device of claim 1, which further includes at least one cavity in the top surface for storing objects, the cavity including a lid for enclosing the cavity.
10. The device of claim 9, wherein the at least one cavity includes a recessed handle for opening the cavity lid.
11. The device of claim 1 wherein the tool is selected from the group consisting of rakes, shovels, brooms, axes, suction pipes, saws, and the like.
12. The device of claim 1, wherein the vehicle is selected from the group consisting of pickup trucks, cargo vans, cube vans, flat bed trucks, communication vehicles, and fire prevention vehicles.
13. The device of claim 12, wherein the device is placed on the floor or secured to a side wall.
14. A device for storing handled tools and other object in a vehicle, comprising:
a three dimensional body sized to fit in a vehicle and having a vertical dimension defining a vertical wall;
a plurality of tubes extending from the vertical wall of the body through at least a portion of the body, the plurality of tubes being sized to accommodate a handled tool such that each tube linearly extends from proximate the top surface downward; and
a top surface on the body having sufficient strength to support cargo carried in the vehicle.
15. The device of claim 14, wherein the three dimensional body is rectangular in shape.
16. The device of claim 14, wherein the three dimensional body is solid and the at least one tube is formed in the solid portion of the body.
17. The device of claim 14, wherein the three dimensional body is at least partially hollow and the at least one tube is fixedly mounted in the hollow body.
18. The device of claim 14, which further includes at least one cavity in the top surface for storing objects, the cavity including a lid for enclosing the cavity and wherein the at least one cavity includes a recessed handle for opening the cavity lid.
19. A device for storing handled tools and other object in a vehicle, comprising:
a three dimensional body sized to fit on the floor in a vehicle selecting from the group consisting of pickup trucks, cargo vans, cube vans, flat bed trucks, communication vehicles, and fire prevention vehicles ,and the body has a vertical dimension defining a vertical wall;
a plurality of tubes extending from the vertical wall of the body through at least a portion of the body, the plurality of tubes being sized to accommodate a handled tool such that each tube linearly extends from proximate the top surface downward; and
a top surface on the body having sufficient strength to support cargo carried in the vehicle with at least one cavity in the top surface for storing objects, the cavity including a lid for enclosing the cavity and wherein the at least one cavity includes a recessed handle for opening the cavity lid.
20. The device of claim 19, wherein the tool is selected from the group consisting of rakes, shovels, brooms, axes, suction pipes, saws, and the like.

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 thrust reverser comprising:
first and second doors, each having a pair of opposed pivot arms;
a jet pipe having a pair of jet pipe arms and a radially inner mold line surface for bounding discharge of exhaust gas; and
a pair of pivot fittings inserted into corresponding recesses radially inside each jet pipe arm substantially flush with said inner mold line surface, each pivot fitting having a projection extending outwardly through an opening in the jet pipe arm, each projection received in a pivot hole in a corresponding pivot arm.
2. A thrust reverser according to claim 1 wherein each pivot fitting has a shaft projecting from a first side of a base, the shaft extending through said opening in said jet pipe arm, the base remaining on the inside of the jet pipe while the shaft projects through the opening to the outside of the jet pipe, the opening sized to allow the shaft to pass therethrough but prevent the base from passing therethrough, the shaft rotatably receiving said pivot arm of the door.
3. The thrust reverser as defined in claim 2, wherein the shaft comprises a fastening assembly for securing an end of the pivot arm of the thrust reverser door.
4. The thrust reverser as defined in claim 2, further comprising a plurality of threaded fasteners removably securing the base to the jet pipe.
5. The thrust reverser as defined in claim 2, wherein the jet pipe has a recess co-operatively receiving the base.
6. The thrust reverser as defined in claim 2, wherein the base is mounted to the jet pipe from an inside of the jet pipe.
7. The thrust reverser as defined in claim 2, wherein the base has a second side which is substantially flush with said inner mold line surface of the jet pipe.
8. The thrust reverser as defined in claim 7, wherein the base second side has a radius of curvature substantially the same as a radius of curvature of the jet pipe in the region where the base is mounted.
9. The thrust reverser as defined in claim 2, further comprising a washer separating an inner side of the pivot arm from the first side of the base, the washer having a width selected to provide a desired spacing upon adjustment of the door.
10. The thrust reverser as defined in claim 1, wherein each pivot fitting has a base mounted to the jet pipe from inside of the jet pipe.
11. The thrust reverser as defined in claim 10, wherein each base has an inner side which is substantially flush with said inner mold line surface of the jet pipe.
12. The thrust reverser as defined in claim 11, wherein the inner side of each base has a radius of curvature substantially the same as a radius of curvature of the jet pipe in the region where the base is mounted.
13. The thrust reverser as defined in claim 1, wherein each pivot fitting includes fasteners extending therethrough for fastening the fitting to the jet pipe.
14. The thrust reverser as defined in claim 10, further comprising a washer separating an inner side of the pivot arm from an outer side of the base, the washer having a width selected to provide a desired spacing upon adjustment of the door.
15. A method of pivotally connecting a thrust reverser door to a thrust reverser according to claim 1, the method comprising the steps of:
providing said opening in one of said jet pipe arms;
providing said first door having said pivot hole;
inserting a first pivot fitting through the opening from an inside of the jet pipe so that said projection defines a pivot of the first pivot fitting extending to an outward side of the jet pipe and through the pivot hole of the first door; and
attaching the first pivot fitting to said one jet pipe arm.
16. The method as defined in claim 15, further comprising repeating said steps to provide a second pivot connection for the second door.
17. The method as defined in claim 15, further comprising the step of connecting a fastener to a free end of the first pivot to retain the first door to the first pivot.
18. The method as defined in claim 15, further comprising performing said steps in substantially reverse order to disconnect the first door from the thrust reverser.
19. A thrust reverser according to claim 1 wherein:
said first and second doors form an exit nozzle having a radius of curvature; and
each door comprises a circumferentially-extending thrust deflecting portion and said pair of pivot arms are disposed on either side of the deflecting portion, the pivot arms configured to pivotally mount the door to said jet pipe, the arms extending from said thrust deflecting portion to a free end, the arms having corresponding radius of curvature following said exit nozzle curvature, with adjacent pivot arms curving around each other.
20. A thrust reverser having a first side and a second side, a pair of first side door pivots and a pair of second side door pivots, and a first side thrust-reverser door and a second side thrust-reverser door, the doors each having a pair of pivot arms extending therefrom, the first side door mounted on the first side of the thrust reverser through connection to the second side pivots, the second side door mounted on the second side of the thrust reverser through connection to the first side pivots, the first and second door pivot arms thus crossing one another when the doors are closed, wherein the pivot arms are inwardly curved and wherein at least one of the doors has pivot arms which are curved to avoid interference with the pivot arms of the other door.
21. The thrust reverser as defined in claim 20, wherein said doors form an exit nozzle having a radius of curvature, and the pivot arm curvature substantially follows the exit nozzle radius of curvature.
22. The thrust reverser as defined in claim 20, wherein the pivot arm curvature is configured to curve around a pivot arm of an adjacently-mounted door of the thrust reverser.
23. A thrust reverser comprising:
a pair of thrust reverser doors surrounding a jet pipe to form an exhaust nozzle having aerodynamic outer and inner mold line surfaces;
said jet pipe including a pair of side arms having radially inner surfaces defining corresponding portions of said inner mold line surface;
each door having a pair of pivot arms pivotally mounted at corresponding pivot fittings to said jet pipe arms; and
each of said pivot fittings includes a base disposed radially inside said jet pipe and substantially flush with said inner mold line surface, and a shaft extending outwardly through said jet pipe and pivotally connected to corresponding ones of said pivot arms.
24. A thrust reverser according to claim 23 wherein said pivot fitting bases are fixedly mounted to said jet pipe flush with said inner mold line surface.
25. A thrust reverser according to claim 24 wherein said pivot arms conform in curvature with said exhaust nozzle radially between said outer and inner mold line surfaces.
26. A thrust reverser according to claim 25 wherein each of said pivot fittings further comprises a bearing mounted on said shaft inside a corresponding aperture in said pivot arms, with outer and inner washers bounding said bearing on said shaft, and a bolt engages said shaft to secure in turn said outer washer, bearing, and inner washer on said shaft.
27. A thrust reverser according to claim 25 wherein adjacent pivot arms of said doors cross and overlap each other radially between said outer and inner mold line surfaces.

1461148836-6aa2cc93-aced-4a18-8d2a-f65125d1b499

1. An impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid comprising mineral oil.
2. An impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid comprising mineral oil and nanoparticles.
3. An impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid comprising mineral oil and metallic nanoparticles having an average size of up to about 2000 nm.
4. An impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port, said at least one external access port comprising a proximal central tubular port and a distal central tubular port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid.
5. An impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said fluid flow restrictor comprises longitudinally opposing proximal and distal circular bosses;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid.
6. A pump comprising at least one valve, said valve comprising an impulse tolerant valve body, said valve body having a longitudinal axis and comprising at least one guide, at least one peripheral seal retention groove, a convex valve seat interface, at least one internal elastic variable-volume space, at least one internal constant-volume surge chamber, and at least one external access port;
wherein at least one said internal elastic variable-volume space is in fluid communication with at least one said internal constant-volume surge chamber via at least one fluid flow restrictor;
wherein at least one said internal elastic variable-volume space is responsive to longitudinal compression of said valve body; and
wherein each said internal elastic variable-volume space is filled with incompressible fluid.

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 distributing media contents, the method comprising:
obtaining a first key, a second key and a content;
obtaining content information relating to the content;
encrypting the second key using the first key to generate an encrypted second key;
encrypting the content using the second key to generate an encrypted content;
generating a key information file including the encrypted second key and the content information;
generating a universal file including the encrypted content, the content information and a first network address for a central key repository (CKR);
providing the universal file to one or more distributors from a source other than the CKR; and
providing the key information file for storage in the CKR for distribution of the second key by the CKR upon one or more requests sent to the first network address by the one or more distributors.
2. The method of claim 1, wherein at least two of the one or more distributors receiving the universal file utilize a different digital rights management (DRM) scheme for distributing the content to consumers.
3. The method of claim 1, wherein the obtaining of the first key includes receiving the first key from a certificate authority trusted by the CKR.
4. The method of claim 1, wherein the obtaining of the second key includes generating the second key.
5. The method of claim 1, wherein the generating of the universal file includes encoding the content prior to encryption of the content.
6. The method of claim 1, wherein the generating of the universal file includes formatting the encrypted content, a first network address and content information relating to the content using the MPEG-4 container format.
7. The method of claim 1, wherein the content information includes a Universally Unique Identifier (UUID), an International Standard Audiovisual Number (ISAN) and a content owner identification.
8. The method of claim 1, wherein the content information includes a Universally Unique Identifier (UUID) and an International Standard Audiovisual Number (ISAN).
9. The method of claim 1, wherein providing the key information file for storage in the CKR further uses the CKR to transcribe the key information file such that the one or more distributors can use a third key related to the first key to decrypt the encrypted second key and retrieve the second key.
10. The method of claim 9, wherein the first key is a public key of the distributor, and wherein the third key is a private key of the distributor.
11. The method of claim 9, wherein the first key is a symmetric key, and wherein the third key is a symmetric key accessible by the distributor.
12. A universal file packager for distribution of media contents, the universal file packager comprising:
a processor configured to:
obtain a first key, a second key and a content;
obtain content information relating to the content;
encrypt the second key using the first key to generate an encrypted second key;
encrypt the content using the second key to generate an encrypted content;
generate a key information file including the encrypted second key and the content information;
generate a universal file including the encrypted content, the content information and a first network address for a central key repository (CKR);
provide the universal file to one or more distributors from a source other than the CKR; and
provide the key information file for storage in the CKR for distribution of the second key by the CKR upon one or more requests sent to the first network address by the one or more distributors.
13. The universal file packager of claim 12, wherein at least two of the one or more distributors receiving the universal file utilize a different digital rights management (DRM) scheme than the other for retrieving the content from the universal file.
14. The universal file packager of claim 12, wherein the processor obtains the first key by receiving the first key from a certificate authority trusted by the CKR.
15. The universal file packager of claim 12, wherein the processor obtains the second key by generating the second key.
16. The universal file packager of claim 12, wherein the processor is configured to encode the content prior to generating the universal file.
17. The universal file packager of claim 12, wherein the processor is configured to generate the universal file by formatting the encrypted content, a first network address and content information relating to the content using the MPEG-4 container format.
18. The universal file packager of claim 12, wherein the content information includes a Universally Unique Identifier (UUID), an International Standard Audiovisual Number (ISAN) and a content owner identification.
19. The universal file packager of claim 12, wherein the content information includes a Universally Unique Identifier (UUID) and an International Standard Audiovisual Number (ISAN).
20. The universal file packager of claim 12, wherein the processor is configured to provide the key information file for storage in the CKR such that the CKR transcribes the key information file so that the one or more distributors can use a third key related to the first key to decrypt the encrypted second key and retrieve the second key.
21. The universal file packager of claim 20, wherein the first key is a public key of the distributor, and wherein the third key is a private key of the distributor.
22. The universal file packager of claim 20, wherein the first key is a symmetric key, and wherein the third key is a symmetric key accessible by the distributor.