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Patent · US9601305B2 · B2 · US

Specimen sample holder for workpiece transport apparatus

(11) Publication number
US9601305B2
(21) Application number
14/538,332
(22) Filing date
2014-11-11
(30) Priority date
2013-11-11
(43) Publication date
2017-03-21
(45) Date of grant
2017-03-21
(51) IPC
H01J 37/20; H01J 37/26; H10P 72/30; G01N 1/28; G01N 35/00; H01J 37/02; H01J 37/18
(52) CPC
  • H01J Electric discharge tubes or discharge lamps: 37/20, 2237/2007, 2237/201, 2237/20278, 2237/20285, 2237/20292, 2237/204, 2237/26, 2237/2602, 37/023, 37/185, 37/261
  • G01N Investigating or analysing materials by determining their chemical or physical properties: 1/32, 35/00732
(73) Assignee
Howard Hughes Medical Institute
(72) Inventors
John H. Price; Dravida Bock
(54) Title
Specimen sample holder for workpiece transport apparatus
(57) Abstract

An electron microscope specimen sample holder including a thin sheet base member with a first surface and an opposing second surface, the first surface defining a seat and support surface for a specimen holding film held by the sample holder, the base member including an aperture through the second surface exposing the holding film held by the sample holder, and including a grip engagement zone defined at least on part of the first surface arranged to engage a gripping device, and wherein at least one of the first or second surface has machine readable structures formed thereon arranged in patterns embodying data that defines at least one predetermined characteristic of the sample holder.

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Claims (30)

  1. An electron microscope specimen sample holder comprising: a thin sheet base member with a first surface and an opposing second surface, the first surface defining a seat and support surface for a specimen holding film held by the sample holder; the base member including an aperture through the second surface exposing the holding film held by the sample holder, and including a grip engagement zone defined at least on part of the first surface arranged to engage a gripping device; and wherein at least one of the first or second surface has machine readable structures formed thereon arranged in patterns embodying data that defines at least one predetermined characteristic of the sample holder.
  2. The electron microscope specimen sample holder of claim 1, wherein the thin sheet of the base member is a beryllium copper alloy.
  3. The electron microscope specimen sample holder of claim 1, wherein the thin sheet of the base member has a sub-millimeter thick sheet.
  4. The electron microscope specimen sample holder of claim 1, wherein the structures define three dimensional topography with respect to a reference plane of the at least one first or second surface on which the structures are disposed and wherein the structures are formed integral with the at least one first or second surface on which the structures are disposed.
  5. The electron microscope specimen sample holder of claim 1, wherein the structures embody accession numbers of registered specimen samples disposed on the electron microscope specimen sample holder.
  6. The electron microscope specimen sample holder of claim 5, wherein the accession numbers define an ordered sequence of a plurality of electron microscope specimen sample holders.
  7. The electron microscope specimen sample holder of claim 1, wherein the at least one predetermined characteristic is a unique identification indicia of the sample and/or sample holder, with error correction characters.
  8. The electron microscope specimen sample holder of claim 1, wherein the structures are disposed symmetrically on opposite sides of at the at least first or second surface providing redundant reading locations with the electron microscope specimen sample holder seated on a seating surface.
  9. The electron microscope specimen sample holder of claim 1, wherein the structures further define at least one fiducial relating specimen position to holder position.
  10. The electron microscope specimen sample holder of claim 9, wherein the at least one fiducial comprises more than one unique fiducial, each of which independently identifies one or more of the relative position of the specimen to holder and the holder to an automated gripper where the more than one unique fiducial serves as a position and orientation datum.
  11. The electron microscope specimen sample holder of claim 1, wherein the structures define retro-reflection features providing a predetermined optical response.
  12. The electron microscope specimen sample holder of claim 1, wherein the structures define alphanumeric indicia of at least ten alphanumeric characters.
  13. The electron microscope specimen sample holder of claim 1, wherein the aperture is a mesh.
  14. The electron microscope specimen holder of claim 1, wherein the electron microscope specimen holder is formed by one or more of chemical milling, laser micromachining and stamping.
  15. An electron microscope specimen sample holder comprising: a frame forming a rigid perimeter member and having a central aperture surrounded by the rigid perimeter member; and a plurality of interchangeable thin membranes each being associated with a different category of specimen sample and having a different predetermined sample holding characteristic that is different from predetermined sample holding characteristics of other ones of the thin membranes, each thin membrane being configured for coupling to the frame so as to span the central aperture and form a sample holder; wherein each of the different predetermined sample holding characteristics is configured based on a characteristic of a specimen sample category associated with the interchangeable thin membrane.
  16. A batch specimen grid for electron microscope specimens, the batch specimen grid comprising: a frame; a holding receptacle disposed in the frame and being configured for holding a specimen therein; a readable data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch specimen grid; wherein the readable data storage medium embodies a unique identifier that identifies the batch holder specimen grid within a batch of batch holder specimen grids.
  17. The batch specimen grid for electron microscope specimens of claim 16, wherein the data storage medium is representative of another predetermined characteristic of a specimen held in the holding receptacle of the batch specimen grid.
  18. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is unique and different than the predetermined characteristic of the batch specimen grid.
  19. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is related to a predetermined sequence of specimens held on a batch of batch specimen grids located within a grid array of at least one specimen grid cassette.
  20. The batch specimen grid for electron microscope specimens of claim 19, wherein the predetermined sequence is automatically associated with the batch specimen grid coincident with loading of each specimen on the specimen grid.
  21. The batch specimen grid for electron microscope specimens of claim 19, wherein the predetermined sequence corresponds to a predetermined arrangement of the grid array of the at least one specimen grid cassette.
  22. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic corresponds to a predetermined arrangement of a batch of batch specimen grids in a grid array of at least one specimen grid cassette.
  23. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is representative of a source material configuration from which grid specimens disposed on a batch of specimen grids are made.
  24. The batch specimen grid for electron microscope specimens of claim 23, wherein the predetermined characteristic is specimen grid identification data that relates a specimen grid cassette and a batch of specimen grids in the specimen grid cassette to the source material configuration.
  25. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is specimen grid identification data relating each batch specimen grid, of a batch of specimen grids in at least one specimen grid cassette, and specimen disposed on the specimen grid.
  26. A method for batch holding electron microscope specimens in grids, the method comprising: providing a grid frame having a specimen holding receptacle disposed in the grid frame and being configured for holding at least one specimen therein; providing a readable data storage medium connected to the grid frame embodying a unique predetermined grid frame characteristic corresponding to the grid frame; wherein the data storage medium is representative of a predetermined specimen characteristic of specimen held in the specimen holding receptacle of the grid frame.
  27. An automated grid sequencing system for an electron microscope, the automated grid sequencing system comprising: a plurality of grids each grid having a specimen holding receptacle thereon, a readable grid data storage medium connected to a frame of the grid embodying a unique predetermined characteristic corresponding to the grid, wherein the grid data storage medium is representative of another predetermined characteristic of the specimen held in the specimen holding receptacle of the grid; and a processor communicably connected to the grid transport and reader, and configured to register the predetermined characteristic of the grid from data of the grid data storage medium read by the reader, and register grid related data defining the other predetermined characteristic of the grid loaded in an array of grid holding receptacles of a batch holder.
  28. The automated grid sequencing system of claim 27, further comprising: a batch holder placement station configured for holding a batch holder; a grid transport, having an end effector arranged to hold a grid on the transport, and a drive section arranged for transporting and placing the grid in a grid holding receptacle of the batch holder; and a reader disposed to read the grid data storage medium of the grid held by the grid transport.
  29. The automated grid sequencing system for an electron microscope of claim 28, wherein: the batch holder includes a frame; an array of grid holding receptacles disposed in the frame, each of which being configured for holding at least one grid of the plurality of grids therein, a readable batch holder data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch holder, wherein the batch holder data storage medium is representative of another predetermined characteristic of a grid array held in the array of grid holding receptacles of the batch holder; the reader is further disposed to read the batch holder data storage medium of the batch holder in the holder placement station; and the processor is further configured to register the predetermined characteristic of the batch holder from data of the batch holder data storage medium read by the reader.
  30. A batch specimen grid for electron microscope specimens, the batch specimen grid comprising: a frame; a specimen receiver disposed on the frame and being configured for holding a specimen thereon; a readable data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch specimen grid; wherein the readable data storage medium embodies a unique identifier that identifies the batch holder specimen grid within a batch of batch holder specimen grids.

Description

1. Field

The exemplary embodiments generally relate to automated workpiece processing systems and, more particularly, to automatic loading systems for automated processing systems.

2. Brief Description of Related Developments

Generally automated workpiece processing systems include workpiece transports and processing modules. The workpiece transports are generally employed to transport workpieces to and from the processing modules where the workpieces are placed on a workpiece holder for processing. During processing of the workpiece transports are removed from the process module and the process module is generally sealed.

Generally conventional workpieces are configured to hold samples/specimens. Conventional workpieces have simple identification markings, such as numbers however, these simple identification markings are limited in range and are not guaranteed to be a unique identifier. As such, tracking large numbers of samples held by conventional workpieces is difficult at best.

Generally workpieces are stored in workpiece holders. These workpiece holders are generally of low workpiece holding capacity and, with the exception of the largest cryogenic workpiece processing system, do not offer the capability to be automatically loaded into a workpiece processing system.

It would be advantageous to have a workpiece that is uniquely identifiable and able to be handled either manually or with automation.

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Record as JSON
{
  "publication_number": "US9601305B2",
  "country": "US",
  "kind": "B2",
  "title": "Specimen sample holder for workpiece transport apparatus",
  "abstract": "An electron microscope specimen sample holder including a thin sheet base member with a first surface and an opposing second surface, the first surface defining a seat and support surface for a specimen holding film held by the sample holder, the base member including an aperture through the second surface exposing the holding film held by the sample holder, and including a grip engagement zone defined at least on part of the first surface arranged to engage a gripping device, and wherein at least one of the first or second surface has machine readable structures formed thereon arranged in patterns embodying data that defines at least one predetermined characteristic of the sample holder.",
  "claims": [
    "1. An electron microscope specimen sample holder comprising: a thin sheet base member with a first surface and an opposing second surface, the first surface defining a seat and support surface for a specimen holding film held by the sample holder; the base member including an aperture through the second surface exposing the holding film held by the sample holder, and including a grip engagement zone defined at least on part of the first surface arranged to engage a gripping device; and wherein at least one of the first or second surface has machine readable structures formed thereon arranged in patterns embodying data that defines at least one predetermined characteristic of the sample holder.",
    "2. The electron microscope specimen sample holder of claim 1, wherein the thin sheet of the base member is a beryllium copper alloy.",
    "3. The electron microscope specimen sample holder of claim 1, wherein the thin sheet of the base member has a sub-millimeter thick sheet.",
    "4. The electron microscope specimen sample holder of claim 1, wherein the structures define three dimensional topography with respect to a reference plane of the at least one first or second surface on which the structures are disposed and wherein the structures are formed integral with the at least one first or second surface on which the structures are disposed.",
    "5. The electron microscope specimen sample holder of claim 1, wherein the structures embody accession numbers of registered specimen samples disposed on the electron microscope specimen sample holder.",
    "6. The electron microscope specimen sample holder of claim 5, wherein the accession numbers define an ordered sequence of a plurality of electron microscope specimen sample holders.",
    "7. The electron microscope specimen sample holder of claim 1, wherein the at least one predetermined characteristic is a unique identification indicia of the sample and/or sample holder, with error correction characters.",
    "8. The electron microscope specimen sample holder of claim 1, wherein the structures are disposed symmetrically on opposite sides of at the at least first or second surface providing redundant reading locations with the electron microscope specimen sample holder seated on a seating surface.",
    "9. The electron microscope specimen sample holder of claim 1, wherein the structures further define at least one fiducial relating specimen position to holder position.",
    "10. The electron microscope specimen sample holder of claim 9, wherein the at least one fiducial comprises more than one unique fiducial, each of which independently identifies one or more of the relative position of the specimen to holder and the holder to an automated gripper where the more than one unique fiducial serves as a position and orientation datum.",
    "11. The electron microscope specimen sample holder of claim 1, wherein the structures define retro-reflection features providing a predetermined optical response.",
    "12. The electron microscope specimen sample holder of claim 1, wherein the structures define alphanumeric indicia of at least ten alphanumeric characters.",
    "13. The electron microscope specimen sample holder of claim 1, wherein the aperture is a mesh.",
    "14. The electron microscope specimen holder of claim 1, wherein the electron microscope specimen holder is formed by one or more of chemical milling, laser micromachining and stamping.",
    "15. An electron microscope specimen sample holder comprising: a frame forming a rigid perimeter member and having a central aperture surrounded by the rigid perimeter member; and a plurality of interchangeable thin membranes each being associated with a different category of specimen sample and having a different predetermined sample holding characteristic that is different from predetermined sample holding characteristics of other ones of the thin membranes, each thin membrane being configured for coupling to the frame so as to span the central aperture and form a sample holder; wherein each of the different predetermined sample holding characteristics is configured based on a characteristic of a specimen sample category associated with the interchangeable thin membrane.",
    "16. A batch specimen grid for electron microscope specimens, the batch specimen grid comprising: a frame; a holding receptacle disposed in the frame and being configured for holding a specimen therein; a readable data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch specimen grid; wherein the readable data storage medium embodies a unique identifier that identifies the batch holder specimen grid within a batch of batch holder specimen grids.",
    "17. The batch specimen grid for electron microscope specimens of claim 16, wherein the data storage medium is representative of another predetermined characteristic of a specimen held in the holding receptacle of the batch specimen grid.",
    "18. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is unique and different than the predetermined characteristic of the batch specimen grid.",
    "19. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is related to a predetermined sequence of specimens held on a batch of batch specimen grids located within a grid array of at least one specimen grid cassette.",
    "20. The batch specimen grid for electron microscope specimens of claim 19, wherein the predetermined sequence is automatically associated with the batch specimen grid coincident with loading of each specimen on the specimen grid.",
    "21. The batch specimen grid for electron microscope specimens of claim 19, wherein the predetermined sequence corresponds to a predetermined arrangement of the grid array of the at least one specimen grid cassette.",
    "22. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic corresponds to a predetermined arrangement of a batch of batch specimen grids in a grid array of at least one specimen grid cassette.",
    "23. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is representative of a source material configuration from which grid specimens disposed on a batch of specimen grids are made.",
    "24. The batch specimen grid for electron microscope specimens of claim 23, wherein the predetermined characteristic is specimen grid identification data that relates a specimen grid cassette and a batch of specimen grids in the specimen grid cassette to the source material configuration.",
    "25. The batch specimen grid for electron microscope specimens of claim 17, wherein the other predetermined characteristic is specimen grid identification data relating each batch specimen grid, of a batch of specimen grids in at least one specimen grid cassette, and specimen disposed on the specimen grid.",
    "26. A method for batch holding electron microscope specimens in grids, the method comprising: providing a grid frame having a specimen holding receptacle disposed in the grid frame and being configured for holding at least one specimen therein; providing a readable data storage medium connected to the grid frame embodying a unique predetermined grid frame characteristic corresponding to the grid frame; wherein the data storage medium is representative of a predetermined specimen characteristic of specimen held in the specimen holding receptacle of the grid frame.",
    "27. An automated grid sequencing system for an electron microscope, the automated grid sequencing system comprising: a plurality of grids each grid having a specimen holding receptacle thereon, a readable grid data storage medium connected to a frame of the grid embodying a unique predetermined characteristic corresponding to the grid, wherein the grid data storage medium is representative of another predetermined characteristic of the specimen held in the specimen holding receptacle of the grid; and a processor communicably connected to the grid transport and reader, and configured to register the predetermined characteristic of the grid from data of the grid data storage medium read by the reader, and register grid related data defining the other predetermined characteristic of the grid loaded in an array of grid holding receptacles of a batch holder.",
    "28. The automated grid sequencing system of claim 27, further comprising: a batch holder placement station configured for holding a batch holder; a grid transport, having an end effector arranged to hold a grid on the transport, and a drive section arranged for transporting and placing the grid in a grid holding receptacle of the batch holder; and a reader disposed to read the grid data storage medium of the grid held by the grid transport.",
    "29. The automated grid sequencing system for an electron microscope of claim 28, wherein: the batch holder includes a frame; an array of grid holding receptacles disposed in the frame, each of which being configured for holding at least one grid of the plurality of grids therein, a readable batch holder data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch holder, wherein the batch holder data storage medium is representative of another predetermined characteristic of a grid array held in the array of grid holding receptacles of the batch holder; the reader is further disposed to read the batch holder data storage medium of the batch holder in the holder placement station; and the processor is further configured to register the predetermined characteristic of the batch holder from data of the batch holder data storage medium read by the reader.",
    "30. A batch specimen grid for electron microscope specimens, the batch specimen grid comprising: a frame; a specimen receiver disposed on the frame and being configured for holding a specimen thereon; a readable data storage medium connected to the frame embodying a unique predetermined characteristic corresponding to the batch specimen grid; wherein the readable data storage medium embodies a unique identifier that identifies the batch holder specimen grid within a batch of batch holder specimen grids."
  ],
  "description_excerpt": "1. Field\n\nThe exemplary embodiments generally relate to automated workpiece processing systems and, more particularly, to automatic loading systems for automated processing systems.\n\n2. Brief Description of Related Developments\n\nGenerally automated workpiece processing systems include workpiece transports and processing modules. The workpiece transports are generally employed to transport workpieces to and from the processing modules where the workpieces are placed on a workpiece holder for processing. During processing of the workpiece transports are removed from the process module and the process module is generally sealed.\n\nGenerally conventional workpieces are configured to hold samples/specimens. Conventional workpieces have simple identification markings, such as numbers however, these simple identification markings are limited in range and are not guaranteed to be a unique identifier. As such, tracking large numbers of samples held by conventional workpieces is difficult at best.\n\nGenerally workpieces are stored in workpiece holders. These workpiece holders are generally of low workpiece holding capacity and, with the exception of the largest cryogenic workpiece processing system, do not offer the capability to be automatically loaded into a workpiece processing system.\n\nIt would be advantageous to have a workpiece that is uniquely identifiable and able to be handled either manually or with automation.",
  "cpc": [
    "H01J 37/20",
    "G01N 1/32",
    "G01N 35/00732",
    "H01J 2237/2007",
    "H01J 2237/201",
    "H01J 2237/20278",
    "H01J 2237/20285",
    "H01J 2237/20292",
    "H01J 2237/204",
    "H01J 2237/26",
    "H01J 2237/2602",
    "H01J 37/023",
    "H01J 37/185",
    "H01J 37/261"
  ],
  "ipc": [
    "H01J 37/20",
    "H01J 37/26",
    "H10P 72/30",
    "G01N 1/28",
    "G01N 35/00",
    "H01J 37/02",
    "H01J 37/18"
  ],
  "assignees": [
    "Howard Hughes Medical Institute"
  ],
  "inventors": [
    "John H. Price",
    "Dravida Bock"
  ],
  "filing_date": "2014-11-11",
  "publication_date": "2017-03-21",
  "grant_date": "2017-03-21",
  "priority_date": "2013-11-11",
  "application_number": "US-201414538332-A",
  "family_id": "53367535",
  "cited_by_count": 1,
  "citations": [
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}

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