
George P. Wyszomierski
Examiner (ID: 12499, Phone: (571)272-1252 , Office: P/1733 )
| Most Active Art Unit | 1733 |
| Art Unit(s) | 1742, 1733, 1304, 1793, 1754, 1311, 1101 |
| Total Applications | 3478 |
| Issued Applications | 2671 |
| Pending Applications | 181 |
| Abandoned Applications | 659 |
Applications
| Application number | Title of the application | Filing Date | Status |
|---|---|---|---|
Array
(
[id] => 6980261
[patent_doc_number] => 20050150329
[patent_country] => US
[patent_kind] => A1
[patent_issue_date] => 2005-07-14
[patent_title] => 'Method of producing nano-sized Fe powder having polymer coated layer'
[patent_app_type] => utility
[patent_app_number] => 10/980940
[patent_app_country] => US
[patent_app_date] => 2004-11-03
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 6
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[patent_no_of_words] => 3279
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[pdf_file] => publications/A1/0150/20050150329.pdf
[firstpage_image] =>[orig_patent_app_number] => 10980940
[rel_patent_id] =>[rel_patent_doc_number] =>) 10/980940 | Method of producing nano-sized Fe powder having polymer coated layer | Nov 2, 2004 | Issued |
Array
(
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[patent_doc_number] => 07384447
[patent_country] => US
[patent_kind] => B2
[patent_issue_date] => 2008-06-10
[patent_title] => 'Coated nickel-containing powders, methods and apparatus for producing such powders and devices fabricated from same'
[patent_app_type] => utility
[patent_app_number] => 10/904254
[patent_app_country] => US
[patent_app_date] => 2004-11-01
[patent_effective_date] => 0000-00-00
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/904254 | Coated nickel-containing powders, methods and apparatus for producing such powders and devices fabricated from same | Oct 31, 2004 | Issued |
Array
(
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[patent_doc_number] => 07470391
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[patent_issue_date] => 2008-12-30
[patent_title] => 'Method and unit for continuously producing metal microparticle'
[patent_app_type] => utility
[patent_app_number] => 10/975377
[patent_app_country] => US
[patent_app_date] => 2004-10-29
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 23
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/975377 | Method and unit for continuously producing metal microparticle | Oct 28, 2004 | Issued |
Array
(
[id] => 5740710
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[patent_country] => US
[patent_kind] => A1
[patent_issue_date] => 2006-04-27
[patent_title] => 'Low hysteresis materials and methods'
[patent_app_type] => utility
[patent_app_number] => 10/973196
[patent_app_country] => US
[patent_app_date] => 2004-10-26
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 8
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[firstpage_image] =>[orig_patent_app_number] => 10973196
[rel_patent_id] =>[rel_patent_doc_number] =>) 10/973196 | Low hysteresis materials and methods | Oct 25, 2004 | Abandoned |
Array
(
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[patent_doc_number] => 20050109159
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[patent_kind] => A1
[patent_issue_date] => 2005-05-26
[patent_title] => 'Method of manufacturing Fe nanopowders by chemical vapor condensation'
[patent_app_type] => utility
[patent_app_number] => 10/974125
[patent_app_country] => US
[patent_app_date] => 2004-10-26
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/974125 | Method of manufacturing Fe nanopowders by chemical vapor condensation | Oct 25, 2004 | Abandoned |
Array
(
[id] => 580966
[patent_doc_number] => 07442265
[patent_country] => US
[patent_kind] => B2
[patent_issue_date] => 2008-10-28
[patent_title] => 'Heat-resistant cast steel excellent in aged ductility and creep rupture strength for hydrogen producing reaction tubes'
[patent_app_type] => utility
[patent_app_number] => 10/574650
[patent_app_country] => US
[patent_app_date] => 2004-10-18
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/574650 | Heat-resistant cast steel excellent in aged ductility and creep rupture strength for hydrogen producing reaction tubes | Oct 17, 2004 | Issued |
Array
(
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[patent_doc_number] => 20050097989
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[patent_kind] => A1
[patent_issue_date] => 2005-05-12
[patent_title] => 'Metal powder with nano-composite structure and its production method using a self-assembling technique'
[patent_app_type] => utility
[patent_app_number] => 10/964744
[patent_app_country] => US
[patent_app_date] => 2004-10-15
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 10
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[patent_no_of_words] => 7730
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/964744 | Metal powder with nano-composite structure and its production method using a self-assembling technique | Oct 14, 2004 | Abandoned |
Array
(
[id] => 5712726
[patent_doc_number] => 20060076089
[patent_country] => US
[patent_kind] => A1
[patent_issue_date] => 2006-04-13
[patent_title] => 'Zirconium-rich bulk metallic glass alloys'
[patent_app_type] => utility
[patent_app_number] => 10/963413
[patent_app_country] => US
[patent_app_date] => 2004-10-12
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 3
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[firstpage_image] =>[orig_patent_app_number] => 10963413
[rel_patent_id] =>[rel_patent_doc_number] =>) 10/963413 | Zirconium-rich bulk metallic glass alloys | Oct 11, 2004 | Issued |
Array
(
[id] => 6935872
[patent_doc_number] => 20050109433
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[patent_kind] => A1
[patent_issue_date] => 2005-05-26
[patent_title] => 'High-strength steel component with zinc containing corrosion resistant layer'
[patent_app_type] => utility
[patent_app_number] => 10/962982
[patent_app_country] => US
[patent_app_date] => 2004-10-12
[patent_effective_date] => 0000-00-00
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/962982 | High-strength steel component with zinc containing corrosion resistant layer | Oct 11, 2004 | Abandoned |
Array
(
[id] => 7138285
[patent_doc_number] => 20050115362
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[patent_kind] => A1
[patent_issue_date] => 2005-06-02
[patent_title] => 'Molecular decomposition processes for the synthesis of nanosize metallic powders'
[patent_app_type] => utility
[patent_app_number] => 10/960433
[patent_app_country] => US
[patent_app_date] => 2004-10-06
[patent_effective_date] => 0000-00-00
[patent_drawing_sheets_cnt] => 4
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/960433 | Molecular decomposition processes for the synthesis of nanosize metallic powders | Oct 5, 2004 | Issued |
Array
(
[id] => 5720892
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[patent_country] => US
[patent_kind] => A1
[patent_issue_date] => 2006-04-06
[patent_title] => 'Stabilized silver nanoparticles and their use'
[patent_app_type] => utility
[patent_app_number] => 10/958937
[patent_app_country] => US
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Array
(
[id] => 214982
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[patent_title] => 'Fe-base in-situ composite alloys comprising amorphous phase'
[patent_app_type] => utility
[patent_app_number] => 10/573148
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Array
(
[id] => 6987492
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[patent_issue_date] => 2005-04-28
[patent_title] => 'Recovery of natural nanoclusters and the nanoclusters isolated thereby'
[patent_app_type] => utility
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/953597 | Recovery of natural nanoclusters and the nanoclusters isolated thereby | Sep 29, 2004 | Abandoned |
Array
(
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[patent_title] => 'Magnesium removal from magnesium reduced metal powders'
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Array
(
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[patent_title] => 'Generation of high strength metal through formation of nanocrystalline structure by laser peening'
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Array
(
[id] => 813109
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[patent_issue_date] => 2008-08-19
[patent_title] => 'Method of training nitinol wire'
[patent_app_type] => utility
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[rel_patent_id] =>[rel_patent_doc_number] =>) 10/951327 | Method of training nitinol wire | Sep 26, 2004 | Issued |
Array
(
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Array
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Array
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[patent_title] => 'Method for manufacturing magnetic metal powder, and magnetic metal powder'
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Array
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