Scintillator with a matrix material body carrying nano-material scintillator media
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In biology, matrix (plural: matrices) is the material (or tissue) in animal or plant. Structure of connective tissues is an extracellular matrix. Finger nails and toenails grow from matrices. It is found in various connective tissue.
US20070085010A1
United States
Download PDF Find Prior Art SimilarInventorSonia LetantChin CheungTzu-Fang WangCurrent Assignee Lawrence Livermore National Security LLC
Worldwide applications
2006 US
Application US11/450,089 events
2005-06-14
Priority to US69075005P
2006-06-08
2006-06-08
2006-06-08
2006-08-17
2007-04-19
2007-10-04
Status
AbandonedInfoPatent citations (12) Cited by (37) Legal events Similar documents Priority and Related ApplicationsExternal linksUSPTOUSPTO AssignmentEspacenetGlobal DossierDiscuss
Description
Searching text for a matrix material body
CROSS-REFERENCE TO RELATED APPLICATIONS BACKGROUND
The present invention relates to scintillator materials and more particularly to a scintillator comprising a matrix material body and nano-material scintillator media carried by the matrix body.
SUMMARY
The present invention provides a scintillator comprising a matrix material body and nano-material scintillator media carried by the matrix body. One embodiment of the present invention provides a scintillator apparatus comprising a matrix material body with nano-material scintillator media carried by the matrix body. In one embodiment the nano-material scintillator media is semi-conductor quantum dots. In another embodiment the nano-material scintillator media is nanowires. Another embodiment of the present invention provides a detector apparatus comprising a matrix material body, a nano-material scintillator media carried by the matrix body, and a scintillation signal collector. Another embodiment of the present invention provides a method comprising the steps of forming a matrix material body and providing nano-material scintillator media carried by said matrix body.
BRIEF DESCRIPTION OF THE DRAWINGSDETAILED DESCRIPTION OF THE INVENTION
As illustrated in FIG. 1A, the scintillator apparatus 10 comprises a matrix material body 11 with nano-material scintillator media carried by the matrix body 11. A section 12 of the matrix material body 11 is shown enlarged at 13 in FIG. 1B. As shown by FIG. 1B, the enlarged section 13 of the matrix material body 11 has nanometer-sized scintillator media 14 embedded in the matrix material body 11.
The matrix material body 11 can be a porous matrix material body, a semiconductor material body, a transparent material body, a polymer body, a glass body, a sol-gel matrix body, a porous glass matrix body, a silicon matrix body, a germanium matrix body, a gallium arsenide matrix body, a gallium phosphide matrix body, a matrix material body doped with lithium, or other form of matrix material body.
As illustrated in FIG. 4A, the scintillator apparatus 40 comprises a matrix material body 41 with nano-material scintillator media carried by the matrix body 41. A section 42 of the matrix material body 41 is shown enlarged at 43 in FIG. 4B. As shown by FIG. 4B, the enlarged section 43 of the matrix material body 41 has nanometer-sized scintillator media 44 embedded in the matrix material body 41.
The scintillator units 44 are nanowires. The matrix material body 41 can be porous matrix material body, a semiconductor material body, a transparent material body, a polymer body, a glass body, a sol-gel matrix body, a porous glass matrix body, a silicon matrix body, a germanium matrix body, a gallium arsenide matrix body, a gallium phosphide matrix body, a matrix material body doped with lithium, or other form of matrix material body.
Referring to FIG. 5 a detector apparatus constructed in accordance with the present invention is illustrated. The detector apparatus is designated generally by the reference numeral 50. The detector apparatus 50 comprises a matrix material body 51, a nano-material scintillator media carried by the matrix body 51, and a scintillation signal collector.
The matrix material body 51 can be porous matrix material body, a semiconductor material body, a transparent material body, a polymer body, a glass body, a sol-gel matrix body, a porous glass matrix body, a porous silicon matrix body, a porous germanium matrix body, a porous gallium arsenide matrix body, a porous gallium phosphide matrix body, a matrix material body doped with lithium, or other form of matrix material body. The nano-material scintillator media can be quantum dots, nano-wires, or other nano-material scintillator media.
Claims (49)
Hide Dependent
1. A scintillator apparatus, comprising:
a matrix material body, and
nano-material scintillator media carried by said matrix body.
2. The scintillator apparatus of claim 1 wherein said nano-material scintillator media carried by said matrix material body are quantum dots.
3. The scintillator apparatus of claim 1 wherein said nano-material scintillator media carried by said matrix material body are nanowires.
4. The scintillator apparatus of claim 1 wherein said matrix material body is a porous matrix material body.
5. The scintillator apparatus of claim 1 wherein said matrix material body is a semiconductor material body.
6. The scintillator apparatus of claim 1 wherein said matrix material body is a transparent material body.
7. The scintillator apparatus of claim 1 wherein said matrix material body is a polymer body.
8. The scintillator apparatus of claim 1 wherein said matrix material body is a glass body.
9. The scintillator apparatus of claim 1 wherein said matrix material body has a sol-gel matrix.
10. The scintillator apparatus of claim 1 wherein said matrix material body has a porous glass matrix.
11. The scintillator apparatus of claim 1 wherein said matrix material body has a porous silicon matrix.
12. The scintillator apparatus of claim 1 wherein said matrix material body has a porous germanium matrix.
13. The scintillator apparatus of claim 1 wherein said matrix material body has a porous gallium arsenide matrix.
14. The scintillator apparatus of claim 1 wherein said matrix material body has a porous gallium phosphide matrix.
15. The scintillator apparatus of claim 1 wherein said matrix material body is doped with lithium.
16. A detector apparatus, comprising:
a matrix material body,
a nano-material scintillator media carried by said matrix body, and
a scintillation signal collector.
17. The detector apparatus of claim 16 wherein said matrix material body is a porous matrix.
18. The detector apparatus of claim 16 wherein said nano-material scintillator media carried by said matrix material body are quantum dots.
19. The detector apparatus of claim 16 wherein said nano-material scintillator media carried by said matrix material body are nanowires.
20. The detector apparatus of claim 16 wherein said matrix material body is a porous matrix material body.
21. The detector apparatus of claim 16 wherein said matrix material body is a semiconductor material body.
22. The detector apparatus of claim 16 wherein said matrix material body is a transparent material body.
23. The detector apparatus of claim 16 wherein said matrix material body is a polymer body.
24. The detector apparatus of claim 16 wherein said matrix material body is a glass body.
25. The detector apparatus of claim 16 wherein said matrix material body has a sol-gel matrix.
26. The detector apparatus of claim 16 wherein said matrix material body has a porous glass matrix.
27. The detector apparatus of claim 16 wherein said matrix material body has a porous silicon matrix.
28. The detector apparatus of claim 16 wherein said matrix material body has a porous germanium matrix.
29. The detector apparatus of claim 16 wherein said matrix material body has a porous gallium arsenide matrix.
30. The detector apparatus of claim 16 wherein said matrix material body has a porous gallium phosphide matrix.
31. The detector apparatus of claim 16 wherein said matrix material body is doped with lithium.
32. The detector apparatus of claim 16 wherein said scintillation signal collector includes a photomultiplier tube.
33. The detector apparatus of claim 16 wherein said scintillation signal collector includes a photodiode.
34. The detector apparatus of claim 16 wherein said scintillation signal collector includes a photomultiplier tube or a photodiode and optic fibers or waveguides.
35. A method of making a scintillator, comprising the steps of:
forming a matrix material body, and
providing nano-material scintillator media carried by said matrix body.
36. The scintillator apparatus of claim 35 wherein said nano-material scintillator media carried by said matrix material body are quantum dots.
37. The scintillator apparatus of claim 35 wherein said nano-material scintillator media carried by said matrix material body are nanowires.
38. The scintillator apparatus of claim 35 wherein said matrix material body is a porous matrix material body.
39. The scintillator apparatus of claim 35 wherein said matrix material body is a semiconductor material body.
40. The scintillator apparatus of claim 35 wherein said matrix material body is a transparent material body.
41. The scintillator apparatus of claim 35 wherein said matrix material body is a polymer body.
42. The scintillator apparatus of claim 35 wherein said matrix material body is a glass body.
43. The scintillator apparatus of claim 35 wherein said matrix material body has a sol-gel matrix.
44. The scintillator apparatus of claim 35 wherein said matrix material body has a porous glass matrix.
45. The scintillator apparatus of claim 35 wherein said matrix material body has a porous silicon matrix.
46. The scintillator apparatus of claim 35 wherein said matrix material body has a porous germanium matrix.
47. The scintillator apparatus of claim 35 wherein said matrix material body has a porous gallium arsenide matrix.
48. The scintillator apparatus of claim 35 wherein said matrix material body has a porous gallium phosphide matrix.
49. The scintillator apparatus of claim 35 wherein said matrix material body is doped with lithium.
Publication numberPriority datePublication dateAssigneeTitle
US5446286A *1994-08-111995-08-29Bhargava; Rameshwar N.Ultra-fast detectors using doped nanocrystal insulators
US5585640A *1995-01-111996-12-17Huston; Alan L.Glass matrix doped with activated luminescent nanocrystalline particles
US5610396A *1994-08-121997-03-11Siemens AktiengesellschaftMethod for determining the gain factor of a photomultiplier
US5751018A *1991-11-221998-05-12The Regents Of The University Of CaliforniaSemiconductor nanocrystals covalently bound to solid inorganic surfaces using self-assembled monolayers
US20040104500A1 *2002-12-032004-06-03Bross Alan D.Extruded plastic scintillator including inorganic powders
US20040126985A1 *2002-12-302004-07-01Bendernagel Robert E.Formation of patterned silicon-on-insulator (SOI)/silicon-on-nothing (SON) composite structure by porous Si engineering
US20040165187A1 *2003-02-242004-08-26Intel CorporationMethod, structure, and apparatus for Raman spectroscopy
US20040166233A1 *2002-11-222004-08-26Seunghun HongDepositing nanowires on a substrate
US6784432B2 *2000-11-272004-08-31Koninklijke Philips Electronics N.V.X-ray detector module
US20040227095A1 *1999-09-232004-11-18Jean-Louis GerstenmayerRadiation detector using a composite material and process for manufacturing this detector
US6867444B1 *2003-10-202005-03-15The United States Of America As Represented By The Secretary Of The NavySemiconductor substrate incorporating a neutron conversion layer
US20060054863A1 *2004-09-142006-03-16Sheng DaiComposite scintillators for detection of ionizing radiation
Family To Family Citations
* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
US20100001209A1 *2008-03-312010-01-07Stc.UnmHalide-based scintillator nanomaterial
US20100072374A1 *2008-03-312010-03-25Stc.UnmLead-iodide-based scintillator materials
US7902517B1 *2008-06-182011-03-08The United States Of America As Represented By The United States Department Of EnergySemiconductor neutron detector
US8153988B2 *2010-07-282012-04-10Ut-Battelle, LlcPorous material neutron detector
WO2011087861A3 *2009-12-222012-05-31Rapiscan Systems, Inc.Composite gamma-neutron detection system
US8258483B12011-05-052012-09-04Ut-Battelle, LlcHigh spatial resolution particle detectors
US20120241628A1 *2009-05-122012-09-27Juergen HesserDetector for the detection of ionizing radiation
WO2013022492A2 *2011-03-292013-02-14Georgia Tech Research CorporationTransparent glass scintillators, methods of making same and devices using same
US8735833B22008-06-112014-05-27Rapiscan Systems, IncPhotomultiplier and detection systems
US8837670B22006-05-052014-09-16Rapiscan Systems, Inc.Cargo inspection system
US8963094B22008-06-112015-02-24Rapiscan Systems, Inc.Composite gamma-neutron detection system
US9052403B22002-07-232015-06-09Rapiscan Systems, Inc.Compact mobile cargo scanning system
US9218933B22011-06-092015-12-22Rapidscan Systems, Inc.Low-dose radiographic imaging system
US9223049B22002-07-232015-12-29Rapiscan Systems, Inc.Cargo scanning system with boom structure
US9223050B22005-04-152015-12-29Rapiscan Systems, Inc.X-ray imaging system having improved mobility
US9279894B22011-02-092016-03-08Lawrence Livermore National Security, LlcSystems and methods for neutron detection using scintillator nano-materials
US9285498B22003-06-202016-03-15Rapiscan Systems, Inc.Relocatable X-ray imaging system and method for inspecting commercial vehicles and cargo containers
US9332624B22008-05-202016-05-03Rapiscan Systems, Inc.Gantry scanner systems
US9425234B22010-07-152016-08-23Leigh E. ColbyQuantum dot digital radiographic detection system
US9422159B22010-07-152016-08-23Leigh E. ColbyQuantum dot digital radiographic detection system
US9429521B2 *2012-05-302016-08-30Board Of Trustees Of Michigan State UniversityPlant phenometrics systems and methods and devices related thereto
US9442261B2 *2014-07-092016-09-13Toshiba Medical Systems CorporationDevices for coupling a light-emitting component and a photosensing component
US9557427B22014-01-082017-01-31Rapiscan Systems, Inc.Thin gap chamber neutron detectors
WO2017025888A1 *2015-08-072017-02-16Koninklijke Philips N.V.Quantum dot based imaging detector
WO2017058538A1 *2015-09-302017-04-06Varian Medical Systems, Inc.Method for fabricating pixelated scintillators
US9625606B22009-05-162017-04-18Rapiscan Systems, Inc.Systems and methods for high-Z threat alarm resolution
US9632205B22011-02-082017-04-25Rapiscan Systems, Inc.Covert surveillance using multi-modality sensing
US9632206B22011-09-072017-04-25Rapiscan Systems, Inc.X-ray inspection system that integrates manifest data with imaging/detection processing
US9791590B22013-01-312017-10-17Rapiscan Systems, Inc.Portable security inspection system
US9880314B22013-07-232018-01-30Rapiscan Systems, Inc.Methods for improving processing speed for object inspection
US10145966B22015-10-022018-12-04Varian Medical Systems, Inc.Methods for fabricating pixelated scintillator arrays
US10228487B22014-06-302019-03-12American Science And Engineering, Inc.Rapidly relocatable modular cargo container scanner
US10302807B22016-02-222019-05-28Rapiscan Systems, Inc.Systems and methods for detecting threats and contraband in cargo
US10330798B22016-04-012019-06-25Varian Medical Systems, Inc.Scintillating glass pixelated imager
US10345479B22015-09-162019-07-09Rapiscan Systems, Inc.Portable X-ray scanner
US10473592B22015-04-292019-11-12Board Of Trustees Of Michigan State UniversityMethods for estimating photosynthetic characteristics in plant canopies and systems and apparatus related thereto
US10600609B22017-01-312020-03-24Rapiscan Systems, Inc.High-power X-ray sources and methods of operation
Family To Family Citations
* Cited by examiner, † Cited by third party, ‡ Family to family citation
PublicationPublication DateTitle
Birks2013The theory and practice of scintillation counting: International series of monographs in electronics and instrumentation
US9329285B22016-05-03Composite gamma-neutron detection system
US9835735B22017-12-05SiPM-based radiation detection systems and methods
Bekker et al.2016Aboveground test of an advanced Li2MoO4 scintillating bolometer to search for neutrinoless double beta decay of 100Mo
Adams et al.2013Gamma-ray spectrometry of rocks
Lechner et al.2001Silicon drift detectors for high count rate X-ray spectroscopy at room temperature
Shah et al.2002LaBr/sub 3: Ce scintillators for gamma ray spectroscopy
Totsuka et al.2011Performance test of Si PIN photodiode line scanner for thermal neutron detection
Letant et al.2006Semiconductor quantum dot scintillation under γ-ray irradiation
Wei et al.2019Halide lead perovskites for ionizing radiation detection
Nikl2006Scintillation detectors for x-rays
JP2852944B21999-02-03Lutetium orthosilicate single crystal scintillator detector
Derenzo et al.1990Prospects for new inorganic scintillators
US7288771B22007-10-30Fiber optic thermal/fast neutron and gamma ray scintillation detector
US9121952B22015-09-01Scintillators and applications thereof
Van Eijk et al.2004Inorganic thermal-neutron scintillators
US9110173B22015-08-18Plasma panel based radiation detector
Pirro et al.2006Scintillating double-beta-decay bolometers
US7582880B22009-09-01Neutron detector using lithiated glass-scintillating particle composite
Kang et al.2011CdTe quantum dots and polymer nanocomposites for x-ray scintillation and imaging
Schotanus et al.1990Scintillation characteristics of pure and Tl-doped CsI crystals
US7547895B22009-06-16Imaging assembly and inspection method
US7857993B22010-12-28Composite scintillators for detection of ionizing radiation
US7105832B22006-09-12Composite solid-state scintillators for neutron detection
Itoh et al.2007A 1-dimensional γ-ray position sensor based on GSO: Ce scintillators coupled to a Si strip detector
Priority And Related Applications
ApplicationPriority dateFiling dateTitle
US69075005P2005-06-142005-06-14US Provisional Application
US11/450,0892005-06-142006-06-08Scintillator with a matrix material body carrying nano-material scintillator media
ApplicationFiling dateTitle
US11/450,0892006-06-08Scintillator with a matrix material body carrying nano-material scintillator media
DateCodeTitleDescription
2006-06-08ASAssignment
Owner name: REGENTS OF THE UNIVERSITY OF CALIFORNIA, THE, CALI
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNORS:LE'TANT, SONIA E.;CHEUNG, CHIN LI;WANG, TZU-FANG;REEL/FRAME:017989/0048
Effective date: 20060607
2006-08-17ASAssignment
Owner name: ENERGY, U.S. DEPARTMENT OF, DISTRICT OF COLUMBIA
Free format text: CONFIRMATORY LICENSE;ASSIGNOR:REGENTS OF THE UNIVERSITY OF CALIFORNIA, THE;REEL/FRAME:018134/0536
Effective date: 20060725
2007-10-04ASAssignment
Owner name: LAWRENCE LIVERMORE NATIONAL SECURITY, LLC, CALIFOR
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNOR:REGENTS OF THE UNIVERSITY OF CALIFORNIA, THE;REEL/FRAME:020012/0032
Effective date: 20070924
Owner name: LAWRENCE LIVERMORE NATIONAL SECURITY, LLC,CALIFORN
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNOR:REGENTS OF THE UNIVERSITY OF CALIFORNIA, THE;REEL/FRAME:020012/0032
Effective date: 20070924
2010-12-10STCBInformation on status: application discontinuation
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