Search

Susan Marie Hanley

Examiner (ID: 43, Phone: (571)272-2508 , Office: P/1653 )

Most Active Art Unit
1653
Art Unit(s)
1808, 1651, 1621, 1653
Total Applications
1383
Issued Applications
764
Pending Applications
108
Abandoned Applications
512

Applications

Application numberTitle of the applicationFiling DateStatus
Array ( [id] => 13444195 [patent_doc_number] => 20180273640 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-09-27 [patent_title] => MODIFIED T LYMPHOCYTES HAVING IMPROVED SPECIFICITY [patent_app_type] => utility [patent_app_number] => 15/990561 [patent_app_country] => US [patent_app_date] => 2018-05-25 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 19963 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -106 [patent_words_short_claim] => 98 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15990561 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/990561
MODIFIED T LYMPHOCYTES HAVING IMPROVED SPECIFICITY May 24, 2018 Abandoned
Array ( [id] => 13590651 [patent_doc_number] => 20180346874 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-12-06 [patent_title] => METHODS OF OBTAINING CELLS FROM HUMAN POSTPARTUM UMBILICAL CORD ARTERIAL TISSUE [patent_app_type] => utility [patent_app_number] => 15/988782 [patent_app_country] => US [patent_app_date] => 2018-05-24 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 10825 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -22 [patent_words_short_claim] => 57 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15988782 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/988782
METHODS OF OBTAINING CELLS FROM HUMAN POSTPARTUM UMBILICAL CORD ARTERIAL TISSUE May 23, 2018 Abandoned
Array ( [id] => 16298126 [patent_doc_number] => 20200283849 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2020-09-10 [patent_title] => METHODS FOR GENDER DETERMINATION OF AVIAN EMBRYOS IN UNHATCHED EGGS AND MEANS THEREOF [patent_app_type] => utility [patent_app_number] => 16/616858 [patent_app_country] => US [patent_app_date] => 2018-05-24 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 34257 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -17 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16616858 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/616858
METHODS FOR GENDER DETERMINATION OF AVIAN EMBRYOS IN UNHATCHED EGGS AND MEANS THEREOF May 23, 2018 Pending
Array ( [id] => 13423369 [patent_doc_number] => 20180263227 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-09-20 [patent_title] => Rodents with Conditional ACVR1 Mutant Alleles [patent_app_type] => utility [patent_app_number] => 15/983743 [patent_app_country] => US [patent_app_date] => 2018-05-18 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 5580 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -11 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15983743 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/983743
Rodent embryonic stem cell with conditional ACVR1 mutant alleles May 17, 2018 Issued
Array ( [id] => 16051223 [patent_doc_number] => 20200187466 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2020-06-18 [patent_title] => METHOD FOR CONSTRUCTING MOUSE MODEL WITH CONDITIONAL KNOCKOUT OF TMEM30A GENE FROM PANCREATIC BETA CELL, AND USE THEREOF [patent_app_type] => utility [patent_app_number] => 16/615975 [patent_app_country] => US [patent_app_date] => 2018-05-18 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 6844 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -18 [patent_words_short_claim] => 55 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16615975 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/615975
METHOD FOR CONSTRUCTING MOUSE MODEL WITH CONDITIONAL KNOCKOUT OF TMEM30A GENE FROM PANCREATIC BETA CELL, AND USE THEREOF May 17, 2018 Abandoned
Array ( [id] => 15559853 [patent_doc_number] => 20200064338 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2020-02-27 [patent_title] => MEASURING FREQUENCY OF VARIOUS SUBSETS OF PATHOGEN-SPECIFIC T CELLS IN PERIPHERAL BLOOD AS ESTABLISHED BY VARIOUS PATTERNS OF TCR-INDUCED CA2+ SIGNALING [patent_app_type] => utility [patent_app_number] => 16/612675 [patent_app_country] => US [patent_app_date] => 2018-05-14 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 9904 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -2 [patent_words_short_claim] => 75 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16612675 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/612675
MEASURING FREQUENCY OF VARIOUS SUBSETS OF PATHOGEN-SPECIFIC T CELLS IN PERIPHERAL BLOOD AS ESTABLISHED BY VARIOUS PATTERNS OF TCR-INDUCED CA2+ SIGNALING May 13, 2018 Abandoned
Array ( [id] => 13822547 [patent_doc_number] => 20190014758 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2019-01-17 [patent_title] => HUMANIZED MOUSE MODEL [patent_app_type] => utility [patent_app_number] => 15/977933 [patent_app_country] => US [patent_app_date] => 2018-05-11 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 9535 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -24 [patent_words_short_claim] => 17 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15977933 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/977933
HUMANIZED MOUSE MODEL May 10, 2018 Abandoned
Array ( [id] => 19366927 [patent_doc_number] => 12058986 [patent_country] => US [patent_kind] => B2 [patent_issue_date] => 2024-08-13 [patent_title] => Method for generating a genetically modified pig with inactivated porcine endogenous retrovirus (PERV) elements [patent_app_type] => utility [patent_app_number] => 16/607074 [patent_app_country] => US [patent_app_date] => 2018-04-20 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 41 [patent_figures_cnt] => 41 [patent_no_of_words] => 23797 [patent_no_of_claims] => 30 [patent_no_of_ind_claims] => 1 [patent_words_short_claim] => 148 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => patent [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16607074 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/607074
Method for generating a genetically modified pig with inactivated porcine endogenous retrovirus (PERV) elements Apr 19, 2018 Issued
Array ( [id] => 13584581 [patent_doc_number] => 20180343839 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-12-06 [patent_title] => KNOCK-IN RODENT COMPRISING A MUTATION IN AN ENDOGENOUS CRBN LOCUS AND METHODS OF USE THEREOF [patent_app_type] => utility [patent_app_number] => 15/955073 [patent_app_country] => US [patent_app_date] => 2018-04-17 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 35233 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -10 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15955073 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/955073
IMiD screening methods IMiD-sensitive cells with mutant CRBN Apr 16, 2018 Issued
Array ( [id] => 13479617 [patent_doc_number] => 20180291351 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-10-11 [patent_title] => Recombinant Influenza Viruses for Vaccines and Gene Therapy [patent_app_type] => utility [patent_app_number] => 15/942835 [patent_app_country] => US [patent_app_date] => 2018-04-02 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 13431 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -16 [patent_words_short_claim] => 184 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15942835 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/942835
Recombinant Influenza Viruses for Vaccines and Gene Therapy Apr 1, 2018 Abandoned
Array ( [id] => 15764283 [patent_doc_number] => 20200113159 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2020-04-16 [patent_title] => TRANSGENIC RAINBOW SHARK [patent_app_type] => utility [patent_app_number] => 16/499636 [patent_app_country] => US [patent_app_date] => 2018-03-29 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 5709 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -72 [patent_words_short_claim] => 41 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16499636 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/499636
TRANSGENIC RAINBOW SHARK Mar 28, 2018 Abandoned
Array ( [id] => 17220178 [patent_doc_number] => 11172658 [patent_country] => US [patent_kind] => B2 [patent_issue_date] => 2021-11-16 [patent_title] => Porcine animals lacking expression of functional alpha 1, 3 galactosyltransferase [patent_app_type] => utility [patent_app_number] => 15/905249 [patent_app_country] => US [patent_app_date] => 2018-02-26 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 6 [patent_figures_cnt] => 6 [patent_no_of_words] => 19582 [patent_no_of_claims] => 4 [patent_no_of_ind_claims] => 1 [patent_words_short_claim] => 91 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => patent [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15905249 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/905249
Porcine animals lacking expression of functional alpha 1, 3 galactosyltransferase Feb 25, 2018 Issued
Array ( [id] => 18071564 [patent_doc_number] => 11530388 [patent_country] => US [patent_kind] => B2 [patent_issue_date] => 2022-12-20 [patent_title] => Methods of engineering human induced pluripotent stem cells to produce liver tissue [patent_app_type] => utility [patent_app_number] => 16/485771 [patent_app_country] => US [patent_app_date] => 2018-02-13 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 27 [patent_figures_cnt] => 36 [patent_no_of_words] => 28519 [patent_no_of_claims] => 40 [patent_no_of_ind_claims] => 3 [patent_words_short_claim] => 44 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => patent [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16485771 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/485771
Methods of engineering human induced pluripotent stem cells to produce liver tissue Feb 12, 2018 Issued
Array ( [id] => 15206263 [patent_doc_number] => 20190365818 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2019-12-05 [patent_title] => GENETICALLY-TAGGED STEM CELL LINES AND METHODS OF USE [patent_app_type] => utility [patent_app_number] => 16/483540 [patent_app_country] => US [patent_app_date] => 2018-02-09 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 30254 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -36 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16483540 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/483540
GENETICALLY-TAGGED STEM CELL LINES AND METHODS OF USE Feb 8, 2018 Abandoned
Array ( [id] => 15254625 [patent_doc_number] => 20190376046 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2019-12-12 [patent_title] => METHODS FOR MANIPULATING CELL FATE [patent_app_type] => utility [patent_app_number] => 16/483107 [patent_app_country] => US [patent_app_date] => 2018-02-02 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 31605 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -18 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16483107 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/483107
METHODS FOR MANIPULATING CELL FATE Feb 1, 2018 Abandoned
Array ( [id] => 16547951 [patent_doc_number] => 10881086 [patent_country] => US [patent_kind] => B2 [patent_issue_date] => 2021-01-05 [patent_title] => Genetically modified mouse whose genome comprises a humanized CD274 gene [patent_app_type] => utility [patent_app_number] => 15/883477 [patent_app_country] => US [patent_app_date] => 2018-01-30 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 20 [patent_figures_cnt] => 6 [patent_no_of_words] => 28976 [patent_no_of_claims] => 10 [patent_no_of_ind_claims] => 3 [patent_words_short_claim] => 115 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => patent [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15883477 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/883477
Genetically modified mouse whose genome comprises a humanized CD274 gene Jan 29, 2018 Issued
Array ( [id] => 12806476 [patent_doc_number] => 20180160662 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2018-06-14 [patent_title] => Transgenic Immunodeficient Mouse Expressing Human SIRP-alpha [patent_app_type] => utility [patent_app_number] => 15/880513 [patent_app_country] => US [patent_app_date] => 2018-01-25 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 12838 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -25 [patent_words_short_claim] => 42 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15880513 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/880513
Transgenic Immunodeficient Mouse Expressing Human SIRP-alpha Jan 24, 2018 Abandoned
Array ( [id] => 15143401 [patent_doc_number] => 20190350178 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2019-11-21 [patent_title] => ANIMAL MODEL FOR DRUG DEVELOPMENT [patent_app_type] => utility [patent_app_number] => 16/479501 [patent_app_country] => US [patent_app_date] => 2018-01-22 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 13366 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -31 [patent_words_short_claim] => 14 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 16479501 [rel_patent_id] =>[rel_patent_doc_number] =>)
16/479501
ANIMAL MODEL FOR DRUG DEVELOPMENT Jan 21, 2018 Abandoned
Array ( [id] => 14625243 [patent_doc_number] => 20190225989 [patent_country] => US [patent_kind] => A1 [patent_issue_date] => 2019-07-25 [patent_title] => GENE KNOCKIN METHOD AND KIT FOR GENE KNOCKIN [patent_app_type] => utility [patent_app_number] => 15/874904 [patent_app_country] => US [patent_app_date] => 2018-01-19 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 0 [patent_figures_cnt] => 0 [patent_no_of_words] => 11375 [patent_no_of_claims] => 0 [patent_no_of_ind_claims] => -11 [patent_words_short_claim] => 2 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => publication [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15874904 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/874904
GENE KNOCKIN METHOD AND KIT FOR GENE KNOCKIN Jan 18, 2018 Abandoned
Array ( [id] => 14731855 [patent_doc_number] => 10385318 [patent_country] => US [patent_kind] => B2 [patent_issue_date] => 2019-08-20 [patent_title] => Method of making a population of chondrocytes from reprogrammed chondrocytes [patent_app_type] => utility [patent_app_number] => 15/872577 [patent_app_country] => US [patent_app_date] => 2018-01-16 [patent_effective_date] => 0000-00-00 [patent_drawing_sheets_cnt] => 4 [patent_figures_cnt] => 4 [patent_no_of_words] => 11389 [patent_no_of_claims] => 18 [patent_no_of_ind_claims] => 1 [patent_words_short_claim] => 90 [patent_maintenance] => 1 [patent_no_of_assignments] => 0 [patent_current_assignee] =>[type] => patent [pdf_file] =>[firstpage_image] =>[orig_patent_app_number] => 15872577 [rel_patent_id] =>[rel_patent_doc_number] =>)
15/872577
Method of making a population of chondrocytes from reprogrammed chondrocytes Jan 15, 2018 Issued
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