1. A method for correcting magnification of a spectral image formed in two orthogonal axes which are an energy dispersion axis and a position information axis of an electronic spectroscope, the spectral image being acquired with a transmission electron microscope provided with the electronic spectroscope, the method for correcting magnification of the spectral image comprising the step of:
correcting the magnification of said spectral image by both an image pattern of the electronic spectroscope of a transmission electron microscope image acquired with said transmission electron microscope and an image pattern of the electronic spectroscope of said spectral image.
2. A method for correcting measurement position of a spectral image formed in two orthogonal axes which are an energy dispersion axis and a position information axis of an electronic spectroscope, the spectral image being acquired with a transmission electron microscope provided with the electronic spectroscope, the method for correcting measurement position of said spectral image comprising the step of:
correcting the measurement position of the spectral image by both an image pattern of the electronic spectroscope of a transmission electron microscope image acquired with said transmission electron microscope and an image pattern of the electronic spectroscope of said spectral image.
3. A transmission electron microscope comprising: an electron gun which irradiates a sample with an electron beam; a convergent lens group which converges the electron beam irradiated from said electron gun; a focusing lens group which focuses the electron beam transmitted through the sample; an image detector which detects a focused image; a visual field limit slit which selects an observation range of said sample; and an electronic spectroscope which spectrally decomposes the electron beam by an amount of energy which the electron beam transmitted through said sample has, wherein the electronic spectroscope is an electronic spectroscope which outputs a spectral image whose convergent position is different in an energy dispersion direction and a direction perpendicular to the energy dispersion direction; and has a correction device which corrects a magnification and a measurement position of said spectral image.
4. The transmission electron microscope according to claim 3,
wherein said visual field limit slit has apertures disposed in a direction parallel to the energy dispersion direction.
5. The transmission electron microscope according to claim 3,
wherein said transmission electron microscope has a correction start switch which corrects the magnification and the measurement position of said spectral image by said correction device.
6. The transmission electron microscope according to claim 3,
further comprising: a spectrum display function which divides said acquired spectral image into each predetermined region, and displays an electron energy loss spectrum for each region.
7. The transmission electron microscope according to claim 3,
further comprising: an intensity profile display function which divides said acquired spectral image into each predetermined region, and displays a spectrum intensity profile from an electron energy loss spectrum for each region.
8. The transmission electron microscope according to claim 3,
further comprising: a peak position display function which divides said acquired spectral image into each predetermined region, and displays a peak maximum intensity position of the spectrum from an electron energy loss spectrum for each region.
9. A method for correcting magnification of a spectral image of a transmission electron microscope which is provided with an electronic spectroscope and is capable of acquiring a transmission electron microscope image and a spectral image, the method for correcting magnification of the spectral image comprising the steps of:
calculating an image resolution from a transmission electron microscope image of a reference sample;
storing said image resolution in a storage device;
inserting a slit having a plurality of apertures on an electron beam orbit of said transmission electron microscope;
calculating the number of pixels according to a pattern of the slit from the transmission electron microscope image taken of the reference sample via said slit;
calculating the size of said slit pattern on the reference sample from the number of pixels in said slit pattern;
acquiring a spectral image using said electronic spectroscope;
calculating an image resolution of the spectral image from a distance between image patterns of said spectral image; and
correcting the magnification of the spectral image.
10. A method for correcting measurement position of a spectral image of a transmission electron microscope which is provided with an electronic spectroscope and is capable of acquiring a transmission electron microscope image and a spectral image, the method for correcting measurement position of the spectral image comprising the steps of:
taking a first electron microscope image of a sample with a transmission electron microscope via a correction slit;
acquiring a spectral image of the sample without changing a position on the sample;
taking a second electron microscope image of the sample with the transmission electron microscope again without changing the position on the sample;
comparing said first and the second electron microscope images; and
outputting a measurement result by judging that the spectral image has been measured at a correct measurement position when said first and the second electron microscope images are matched.
11. A transmission electron microscope which is provided with an electronic spectroscope and is capable of acquiring a transmission electron microscope image and a spectral image, the transmission electron microscope comprising:
a correction device which corrects a measurement position of a spectral image; and
an image display device which displays an electron microscope image and the spectral image,
wherein said correction device acquires a first electron microscope image taken of a sample by the transmission electron microscope via a correction slit, a spectral image of the sample acquired without changing a position on the sample, and a second electron microscope image taken by the transmission electron microscope after acquiring the spectral image; and compares said first and the second electron microscope images, and
said image display device combines said electron microscope image and said spectral image in response to a pattern of a slit for correcting magnification and position when said first and the second electron microscope images are matched; and outputs image information which displays said electron microscope image and said spectral image as one image.
12. The transmission electron microscope according to claim 11,
wherein said image information is such that the measurement position and range of said spectral image are recognizable in the transmission electron microscope image.
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 document registry system (10), comprising:
a registry database (20), including:
a specific task sub-database (22), including:
pre-existing fields configured to store specific task-related document data received from one or more of a plurality of sources (S1, S2, S3, S4 or from a source other than the plurality of sources (NS1, NS2); and
de novo fields configured to be generated as a result of a general task query and configured to store specific task-related document data received from the source other than the plurality of sources (NS1, NS2);
an analytics-supporting general task sub-database (24), including:
pre-existing fields configured to store general task-related document data received from one or more of the plurality of sources (S1, S2, S3, S4) or at least a second source other than the plurality of sources (NS1, NS2): and
de novo fields configured to be generated as a result of a general task query and configured to store general task-related document data received from the source or the second source other than the plurality of sources (NS1 NS2); and
a query mapping engine (26) configured to receive a request entry, map the request entry into a query, and actively collect data based upon the query from the specific task sub-database (22) or the analytics-supporting general task sub-database (24), and from the source or the it least a second source other than the plurality of sources (NS1, NS2).
2. The document registry system (10) as defined in claim 1, further comprising an anonymity or obfuscation engine (30) in operative communication with the registry database (20), the anonymity or obfuscation engine (30) configured to anonymize or obfuscate the collected data,
3. The document registry system (10) as defined in any of claims 1 and 2, further comprising a filter (32) in operative communication with the registry database (20), the filter (32) configured to at least one of process, categorize, or classify the collected data.
4. The document registry system (10) as defined in any of claims 1 through 3, further comprising:
a computing device (14) configured to transmit the request entry; and
a cloud computing network (12) configured to be accessible by the computing device (14) and configured to provide an access point (34) into a workflow management system (18) include the query mapping engine (26).
5. The document registry system (10) as defiled in claim 4 wherein the cloud computing network (12) is further configured to publicly post information based upon a general security love.
6. The document registry system (10) as defined in any of claims 4 or 5 wherein the cloud computing network (12) is further configured to post information based upon predetermined levels of discretization of access control.
7. The document registry system (10) as defined in any of claims 1 through 6, further comprising a computing device (16) configured to:
i) receive the collected data; and
ii) generate output, based upon the collected data, for one of a plurality of document-based workflows, the output affecting a condition of the one of the plurality of document-based workflows upstream, downstream, or at point at which the request entry is received.
8. The document registry system (10) as defined in claim 7 wherein the computing device (16) is configured to generate the output by at least one of:
i) generating and populating the de nova fields of the specific task sub-database (22) or the analytics-supporting general task sub-database (24) based upon the collected data;
ii) depopulating or deleting the pre-existing fields of the specific task sub-database (22) or the analytics-supporting general task sub-database (24) based upon the collected data; or
iii) repopulating the pre-existing fields of the specific task sub-database (22) or the analytics-supporting general task sub-database (24) based upon the collected data.
9. The document registry system (10) as defined in any of claims 7 or 8, further comprising the plurality of sources (S1, S2, S3, S4), each of which subscribes to a workflow management system (18) and participates in at least one of the plurality of document-based workflows, and wherein the computing device (16) is further configured to automate at least, one of a process, a response, or an action related to a particular node of the at least one of the plurality of document-based workflows upstream, downstream or at the point at which the request entry is received.
10. The document registry system (10) as defined in any of claims 1 through 9, further comprising a hierarchy of the data in the registry database (20), the hierarchy being based upon a query semantics tag assigned to at least one of the plurality of sources (S1, S2, S3, S4) or a document-based workflow after the query is performed.
11. The document registry system (10) as defined in an of through 10, further comprising:
a source of the entry request; an data access rules associated with the source of the entry request;
wherein the query mapping engine (26) is configured to map the query based upon the data access rules.
12. A method operating on a cloud computing network (12) for responding to a request entry, the cloud computing network (12) having instructions stored thereon, the instructions being executable to perform the steps of:
receiving the request entry for information related to at least on document-based workflow;
identifying an originator of the request entry;
determining information access rules for the identified originator:
mapping the request entry into a query, based upon the information access rules, for i) either a specific task sub -database (22) or an analytics-supporting general task sub-database (24) of a registry database (20) and ii) at least one source (NS1, NS2) other than a source (S1, S2, S3, S4) that subscribes to the registry database (20); and
actively collecting data based upon the query from the specific task sub-database (22) or the analytics-supporting general task sub-database (24), and from the at least one source (NS1, NS2) other than the source (S1, S2, S3, S4) that subscribes to the registry database (20).
13. The method as defined in claim 12, further comprising:
determining that the request entry pertains to a specific instantiation of the at least one document-based workflow;
running the mapped query on the specific task sub-database (22) and on the at least one source (NS1, NS2) other than the source (S1, S2, S3, S4) that subscribes to the registry database (20); and
at least one of:
i) repopulating a pre-existing field of the specific task sub-database (22) based upon data received from the running of the mapped query; or
ii) depopulating or deleting a pre-existing field of the specific task sub database (22) based upon data received from the running of the mapped query; or
iii) creating at least one de novo field in the specific task sub database (22); and
populating the at least one de novo field with data retrieved from the running of the mapped query.
14. The method as defined in claim 12, further comprising:
determining that the request entry pertains to a general inquiry regarding the at least one document-based workflow;
running the mapped query on the analytics-supporting general task sub-database (24) and on the at least one source (NS1, NS2) other than the source (S1, S2, S3, S4) that subscribes to the registry database (20);
at least one of:
i) repopulating a pre-existing field of the analytics-supporting general task sub-database (24) based upon data received from the running of the mapped query; or
depopulating or deleting a pre-existing field of the analytics-supporting general task sub-database (24) based upon data received from the running of the mapped query; or
iii) creating at least one de novo field in the analytics-supporting general task sub-database (24); and
populating the at least one de novo field with data retrieved from the running of the mapped query.
15. The method as defined in any of claims 12 through 14, further comprising generating output, based upon the collected data, for one of a plurality of document-based workflows in the registry database (20), the output affecting a condition of the one of the plurality of document-based workflows upstream, downstream, or at a point at which the request entry is received.