초록 ▼

Storage apparatus are provided that are configured to be attached to the interior roof of a vehicle. A panel is configured to be secured to a vehicle interior roof and includes an aperture formed therein that is configured to allow an interior light attached to the interior roof of a vehicle to exte

Storage apparatus are provided that are configured to be attached to the interior roof of a vehicle. A panel is configured to be secured to a vehicle interior roof and includes an aperture formed therein that is configured to allow an interior light attached to the interior roof of a vehicle to extend therethrough. The cover is configured to be movable between a closed position in face-to-face adjacent relationship with the panel and an open position for providing access to the one or more storage compartments. The cover includes an aperture formed therein. When the cover is in a closed position, the vehicle interior roof light can illuminate the vehicle interior through the aperture and lens in the cover. When the cover is moved to an open position, the light can also illuminate the one or more storage compartments in the cover.

대표청구항 ▼

Storage apparatus are provided that are configured to be attached to the interior roof of a vehicle. A panel is configured to be secured to a vehicle interior roof and includes an aperture formed therein that is configured to allow an interior light attached to the interior roof of a vehicle to exte

Storage apparatus are provided that are configured to be attached to the interior roof of a vehicle. A panel is configured to be secured to a vehicle interior roof and includes an aperture formed therein that is configured to allow an interior light attached to the interior roof of a vehicle to extend therethrough. The cover is configured to be movable between a closed position in face-to-face adjacent relationship with the panel and an open position for providing access to the one or more storage compartments. The cover includes an aperture formed therein. When the cover is in a closed position, the vehicle interior roof light can illuminate the vehicle interior through the aperture and lens in the cover. When the cover is moved to an open position, the light can also illuminate the one or more storage compartments in the cover. and said compressor beam path.9. The apparatus of claim 1 wherein said laser pulses are received by said single common reflective diffraction grating in a first pass of said stretcher beam path at a first angle and wherein said stretched amplified laser pulses are received by said single common reflective diffraction in a first pass of said compressor beam path at a second angle equal and opposite to said first angle in said stretcher beam path.10. The apparatus of claim 9 wherein said first angle for said stretcher beam path and said second angle for said compressor beam path are between about 58 degrees and about 78 degrees from a normal to said grating.11. The apparatus of claim 1 wherein said laser pulses are received by said single common reflective diffraction grating in a first pass of said stretcher beam path at a first angle and wherein said stretched amplified laser pulses are received by said single common reflective diffraction in a first pass of said compressor beam path at a second angle unequal and opposite to said first angle in said stretcher beam path.12. The apparatus of claim 11 wherein said first angle for said stretcher beam path and said second angle for said compressor beam path are between about 58 degrees and about 78 degrees from a normal to said grating.13. The apparatus of claim 1 constructed to provide at least 2 passes from said single common reflective diffraction grating for stretching of said laser pulses and at least 2 passes from said single common reflective diffraction grating for compressing of said laser pulses.14. The apparatus of claim 1, constructed to provide at least 8 passes from said single common reflective diffraction grating for stretching of said laser pulses and at least 4 passes from said single common reflective diffraction grating for compressing of said laser pulses.15. The apparatus of claim 1 wherein said single common reflective diffraction grating further comprises a single common reflective diffraction grating that exhibits a diffraction efficiency greater than 90% at wavelengths from about 1022 nm to about 1088 nm.16. The apparatus of claim 1 wherein said single common reflective diffraction grating comprises a dielectric.17. The apparatus of claim 1 wherein said single common reflective diffraction grating is a single common reflective multi-layer dielectric diffraction grating having dimensions between about 100 mm×200 mm and about 500 mm×1000 mm.18. An apparatus, comprising: a single common reflective diffraction grating adapted for stretching a source of laser pulses in a stretcher beam path to produce one or more stretched laser pulses and adapted for producing one or more compressed amplified laser pulses obtained from said one or more stretched amplified laser pulses in a compressor beam path received from an amplifier wherein said stretched laser pulses and said compressed amplified laser pulses are received at a common area on said single common reflective diffraction grating; a reflective focusing element constructed to provide a desired number of passes in said stretcher beam path from said single common reflective diffraction grating; a mirror positioned at the focal plane of said reflective focusing element, constructed to provide a desired number of passes in said stretcher beam path from said single common reflective diffraction grating; a first retro-reflector mirror constructed to provide a desired number of passes in said stretcher beam path wherein said first retro-reflector directs said laser pulses to interleaved portions of a common area on said single common reflective diffraction grating; and a second retro-reflective mirror constructed to receive said amplified stretched pulses and arranged to provide a desired number of passes in said compressor beam path wherein said amplified laser pulses are directed to said interleaved portions of said common area on said single common reflective diffraction grating. 19. The apparatus of claim 18 wherein said laser pulses are received by said single common reflective diffraction grating in a first pass of said stretcher beam path at a first angle and wherein said stretched amplified laser pulses are received by said single common reflective diffraction in a first pass of said compressor beam path at a second angle equal and opposite to said first angle in said stretcher beam path.20. The apparatus of claim 19 wherein said first angle for said stretcher beam path and said second angle for said compressor beam path are between about 58 degrees and about 78 degrees from a normal to said grating.21. The apparatus of claim 18 wherein said laser pulses are received by said single common reflective diffraction grating in a first pass of said stretcher beam path at a first angle and wherein said stretched amplified laser pulses are received by said single common reflective diffraction in a first pass of said compressor beam path at a second angle unequal and opposite to said first angle in said stretcher beam path.22. The apparatus of claim 21 wherein said first angle for said stretcher beam path and said second angle for said compressor beam path are between about 58 degrees and about 78 degrees from a normal to said grating.23. The apparatus of claim 18 wherein said reflective focusing element is a spherical mirror.24. The apparatus of claim 18 wherein said mirror positioned at the focal plane of said reflective focusing element is flat.25. The apparatus of claim 18, wherein said mirror positioned at the focal plane of said reflective focusing element is curved.26. The apparatus of claim 18, constructed to provide at least 2 passes from said single common reflective diffraction grating for stretching of said laser pulses and at least 2 passes from said single common reflective diffraction grating for compressing of said laser pulses.27. The apparatus of claim 18, constructed to provide at least 8 passes from said single common reflective diffraction grating for stretching of said laser pulses and at least 4 passes from said single common reflective diffraction grating for compressing of said laser pulses.28. The apparatus of claim 18, wherein said single common reflective diffraction grating further comprises a single common reflective diffraction grating that exhibits a diffraction efficiency greater than 90% at wavelengths from about 1022 nm to about 1088 nm.29. The apparatus of claim 18, wherein said single common reflective diffraction grating comprises a dielectric.30. The apparatus of claim 18, wherein said single common reflective diffraction grating is a single common reflective multi-layer dielectric diffraction grating having dimensions between about 100 mm×200 mm and about 500 mm×1000 mm.31. The apparatus of claim 18, wherein said first and second retro-reflective mirrors comprise flat mirrors.32. The apparatus of claim 18 wherein said first retro-reflector mirror further comprises a flat mirror and a first roof mirror wherein said flat mirror and said first roof mirror are arranged to produce stretched laser pulses.33. The apparatus of claim 32 wherein said source of laser pulses is firstly directed to said stretcher beam path.34. The apparatus of claim 33 wherein said source of laser pulses initially strikes said single common reflective diffraction grating, secondly in the following first forward sequence diffracted to said reflective focusing element, thirdly said reflective focusing element reflects said laser pulses such that said pulses strike said mirror positioned at the focal plane of said reflective focusing element, fourthly said laser pulses are reflected from said mirror positioned at the focal plane of said reflective focusing element so that said pulses strike said reflective focusing element at a vertically displaced position on said reflective focusing element, fifthly said laser pulses are reflected from said reflective focusing element and directed to a vertically displaced positi