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Dive into the research topics where Christin H. Goodman is active.

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Featured researches published by Christin H. Goodman.


Emerging Infectious Diseases | 2016

Prognostic Indicators for Ebola Patient Survival

Samuel J. Crowe; Matthew J. Maenner; Solomon Kuah; Bobbie R. Erickson; Megan Coffee; Barbara Knust; John D. Klena; Joyce Foday; Darren Hertz; Veerle Hermans; Jay Achar; Grazia Caleo; Michel Van Herp; César G. Albariño; Brian R. Amman; Alison J. Basile; Scott W. Bearden; Jessica A. Belser; Éric Bergeron; Dianna M. Blau; Aaron C. Brault; Shelley Campbell; Mike Flint; Aridth Gibbons; Christin H. Goodman; Laura K. McMullan; Christopher D. Paddock; Brandy J. Russell; Johanna S. Salzer; Angela J. Sanchez

Odds of survival were greatest when first Ebola virus–positive blood sample collected had low viral load.


The Journal of Infectious Diseases | 2015

Ebola Virus Diagnostics: The US Centers for Disease Control and Prevention Laboratory in Sierra Leone, August 2014 to March 2015

Mike Flint; Christin H. Goodman; Scott W. Bearden; Dianna M. Blau; Brian R. Amman; Alison J. Basile; Jessica A. Belser; Eric Bergeron; Michael D. Bowen; Aaron C. Brault; Shelley Campbell; Ayan K. Chakrabarti; Kimberly A. Dodd; Bobbie R. Erickson; Molly M. Freeman; Aridth Gibbons; Lisa Wiggleton Guerrero; John D. Klena; R. Ryan Lash; Michael K. Lo; Laura K. McMullan; Gbetuwa Momoh; James L. Massally; Augustine Goba; Christopher D. Paddock; Rachael A. Priestley; Meredith Pyle; Mark Rayfield; Brandy J. Russell; Johanna S. Salzer

In August 2014, the Viral Special Pathogens Branch of the US Centers for Disease Control and Prevention established a field laboratory in Sierra Leone in response to the ongoing Ebola virus outbreak. Through March 2015, this laboratory tested >12 000 specimens from throughout Sierra Leone. We describe the organization and procedures of the laboratory located in Bo, Sierra Leone.


American Journal of Tropical Medicine and Hygiene | 2016

Evaluation of Commercially Available Chikungunya Virus Immunoglobulin M Detection Assays

Barbara W. Johnson; Christin H. Goodman; Kimberly Holloway; P. Martinez de Salazar; Anne Marie Valadere; Michael A. Drebot

Commercial chikungunya virus (CHIKV)–specific IgM detection kits were evaluated at the Centers for Disease Control and Prevention (CDC), the Public Health Agency of Canada National Microbiology Laboratory, and the Caribbean Public Health Agency (CARPHA). The Euroimmun Anti-CHIKV IgM ELISA kit had ≥ 95% concordance with all three reference laboratory results. The limit of detection for low CHIK IgM+ samples, as measured by serial dilution of seven sera up to 1:12,800 ranged from 1:800 to 1:3,200. The Euroimmun IIFT kit evaluated at CDC and CARPHA performed well, but required more retesting of equivocal results. The InBios CHIKjj Detect MAC-ELISA had 100% and 98% concordance with CDC and CARPHA results, respectively, and had equal sensitivity to the CDC MAC-ELISA to 1:12,800 dilution in serially diluted samples. The Abcam Anti-CHIKV IgM ELISA had high performance at CARPHA, but at CDC, performance was inconsistent between lots. After replacement of the biotinylated IgM antibody controls with serum containing CHIKV-specific IgM and additional quality assurance/control measures, the Abcam kit was rereleased and reevaluated at CDC. The reformatted Abcam kit had 97% concordance with CDC results and limit of detection of 1:800 to 1:3,200. Two rapid tests and three other CHIKV MAC-ELISAs evaluated at CDC had low sensitivity, as the CDC CHIKV IgM in-house positive controls were below the level of detection. In conclusion, laboratories have options for CHIKV serological diagnosis using validated commercial kits.


Journal of Virological Methods | 2014

Development of an algorithm for production of inactivated arbovirus antigens in cell culture

Christin H. Goodman; Brandy J. Russell; Jason O. Velez; Janeen Laven; W.L Nicholson; D.A. Bagarozzi; J.L. Moon; K. Bedi; Barbara W. Johnson

Arboviruses are medically important pathogens that cause human disease ranging from a mild fever to encephalitis. Laboratory diagnosis is essential to differentiate arbovirus infections from other pathogens with similar clinical manifestations. The Arboviral Diseases Branch (ADB) reference laboratory at the CDC Division of Vector-Borne Diseases (DVBD) produces reference antigens used in serological assays such as the virus-specific immunoglobulin M antibody-capture enzyme-linked immunosorbent assay (MAC-ELISA). Antigen production in cell culture has largely replaced the use of suckling mice; however, the methods are not directly transferable. The development of a cell culture antigen production algorithm for nine arboviruses from the three main arbovirus families, Flaviviridae, Togaviridae, and Bunyaviridae, is described here. Virus cell culture growth and harvest conditions were optimized, inactivation methods were evaluated, and concentration procedures were compared for each virus. Antigen performance was evaluated by the MAC-ELISA at each step of the procedure. The antigen production algorithm is a framework for standardization of methodology and quality control; however, a single antigen production protocol was not applicable to all arboviruses and needed to be optimized for each virus.


Journal of Virological Methods | 2015

Development and validation of an ELISA kit (YF MAC-HD) to detect IgM to yellow fever virus

Alison J. Basile; Christin H. Goodman; Kalanthe Horiuchi; Janeen Laven; Amanda J. Panella; Olga Kosoy; Robert S. Lanciotti; Barbara W. Johnson

Yellow fever virus (YFV) is endemic in tropical and sub-tropical regions of the world, with around 180,000 human infections a year occurring in Africa. Serologic testing is the chief laboratory diagnostic means of identifying an outbreak and to inform the decision to commence a vaccination campaign. The World Health Organization disseminates the reagents for YFV testing to African reference laboratories, and the US Centers for Disease Control and Prevention (CDC) is charged with producing and providing these reagents. The CDC M-antibody capture ELISA is a 2-day test, requiring titration of reagents when new lots are received, which leads to inconsistency in testing and wastage of material. Here we describe the development of a kit-based assay (YF MAC-HD) based upon the CDC method, that is completed in approximately 3.5h, with equivocal samples being reflexed to an overnight protocol. The kit exhibits >90% accuracy when compared to the 2-day test. The kits were designed for use with a minimum of equipment and are stored at 4°C, removing the need for freezing capacity. This kit is capable of tolerating temporary sub-optimal storage conditions which will ease shipping or power outage concerns, and a shelf life of >6 months was demonstrated with no deterioration in accuracy. All reagents necessary to run the YF MAC-HD are included in the kit and are single-use, with 8 or 24 sample options per kit. Field trials are envisioned for the near future, which will enable refinement of the method. The use of the YF MAC-HD is anticipated to reduce materials wastage, and improve the quality and consistency of YFV serologic testing in endemic areas.


American Journal of Tropical Medicine and Hygiene | 2016

Differential Diagnosis of Japanese Encephalitis Virus Infections with the Inbios JE Detect™ and DEN Detect™ MAC-ELISA Kits

Barbara W. Johnson; Christin H. Goodman; Youngmee Jee; David Featherstone

Japanese encephalitis virus (JEV) is the leading cause of pediatric viral neurological disease in Asia. The JEV-specific IgM antibody-capture enzyme-linked immunosorbent assay (MAC-ELISA) in cerebrospinal fluid (CSF) and serum is the recommended method of laboratory diagnosis, but specificity of JEV MAC-ELISA can be low due to cross-reactivity. To increase the specificity of the commercially available JE Detect™ MAC-ELISA (JE Detect), a differential testing algorithm was developed in which samples tested by JE Detect with positive results were subsequently tested by the DEN Detect™ MAC-ELISA (DEN Detect) kit, and results of both tests were used to make the final interpretation. The testing algorithm was evaluated with a reference panel of serum and CSF samples submitted for confirmatory testing. In serum, the false Japanese encephalitis (JE) positive rate was reduced, but sequential testing in CSF resulted in reduced JE specificity, as true JEV+ CSF samples had positive results by both JE Detect and DEN Detect and were classified as JE− (dengue virus [DENV]+). Differential diagnosis of JE by sequential testing with JE Detect and DEN Detect increased specificity for JE in serum, but more data with CSF is needed to make a final determination on the usefulness of this testing algorithm for CSF.


Journal of Clinical Microbiology | 2017

Ability To Serologically Confirm Recent Zika Virus Infection in Areas with Varying Past Incidence of Dengue Virus Infection in the United States and U.S. Territories in 2016

Nicole P. Lindsey; J. Erin Staples; Krista Powell; Ingrid B. Rabe; Marc Fischer; Ann M. Powers; Olga Kosoy; Eric C. Mossel; Jorge L. Muñoz-Jordán; Manuela Beltran; W. Thane Hancock; Karrie-Ann E. Toews; Esther M. Ellis; Brett R. Ellis; Amanda J. Panella; Alison J. Basile; Amanda E. Calvert; Janeen Laven; Christin H. Goodman; Carolyn V. Gould; Stacey W. Martin; Jennifer Dolan Thomas; Julie M. Villanueva; Mary L. Mataia; Rebecca Sciulli; Remedios Gose; A. Christian Whelen; Susan L. Hills

ABSTRACT Cross-reactivity within flavivirus antibody assays, produced by shared epitopes in the envelope proteins, can complicate the serological diagnosis of Zika virus (ZIKAV) infection. We assessed the utility of the plaque reduction neutralization test (PRNT) to confirm recent ZIKAV infections and rule out misleading positive immunoglobulin M (IgM) results in areas with various levels of past dengue virus (DENV) infection incidence. We reviewed PRNT results of sera collected for diagnosis of ZIKAV infection from 1 January through 31 August 2016 with positive ZIKAV IgM results, and ZIKAV and DENV PRNTs were performed. PRNT result interpretations included ZIKAV, unspecified flavivirus, DENV infection, or negative. For this analysis, ZIKAV IgM was considered false positive for samples interpreted as a DENV infection or negative. In U.S. states, 208 (27%) of 759 IgM-positive results were confirmed to be ZIKAV compared to 11 (21%) of 52 in the U.S. Virgin Islands (USVI), 15 (15%) of 103 in American Samoa, and 13 (11%) of 123 in Puerto Rico. In American Samoa and Puerto Rico, more than 80% of IgM-positive results were unspecified flavivirus infections. The false-positivity rate was 27% in U.S. states, 18% in the USVI, 2% in American Samoa, and 6% in Puerto Rico. In U.S. states, the PRNT provided a virus-specific diagnosis or ruled out infection in the majority of IgM-positive samples. Almost a third of ZIKAV IgM-positive results were not confirmed; therefore, providers and patients must understand that IgM results are preliminary. In territories with historically higher rates of DENV transmission, the PRNT usually could not differentiate between ZIKAV and DENV infections.


Bulletin of The World Health Organization | 2016

Measuring Haitian children's exposure to chikungunya, dengue and malaria

Mathieu J. P. Poirier; Delynn M. Moss; Karla R. Feeser; Thomas G. Streit; Gwong-Jen J. Chang; Matthew T. Whitney; Brandy J. Russell; Barbara W. Johnson; Alison J. Basile; Christin H. Goodman; Amanda K. Barry; Patrick J. Lammie

Abstract Objective To differentiate exposure to the newly introduced chikungunya virus from exposure to endemic dengue virus and other pathogens in Haiti. Methods We used a multiplex bead assay to detect immunoglobulin G (IgG) responses to a recombinant chikungunya virus antigen, two dengue virus-like particles and three recombinant Plasmodium falciparum antigens. Most (217) of the blood samples investigated were collected longitudinally, from each of 61 children, between 2011 and 2014 but another 127 were collected from a cross-sectional sample of children in 2014. Findings Of the samples from the longitudinal cohort, none of the 153 collected between 2011 and 2013 but 78.7% (48/61) of those collected in 2014 were positive for IgG responses to the chikungunya virus antigen. In the cross-sectional sample, such responses were detected in 96 (75.6%) of the children and occurred at similar prevalence across all age groups. In the same sample, responses to malarial antigen were only detected in eight children (6.3%) but the prevalence of IgG responses to dengue virus antigens was 60.6% (77/127) overall and increased steadily with age. Spatial analysis indicated that the prevalence of IgG responses to the chikungunya virus and one of the dengue virus-like particles decreased as the sampling site moved away from the city of Léogâne and towards the ocean. Conclusion Serological evidence indicates that there had been a rapid and intense dissemination of chikungunya virus in Haiti. The multiplex bead assay appears to be an appropriate serological platform to monitor the seroprevalence of multiple pathogens simultaneously.


Journal of Virological Methods | 2018

Multi-laboratory comparison of three commercially available Zika IgM enzyme-linked immunosorbent assays

Alison J. Basile; Christin H. Goodman; Kalanthe Horiuchi; Angela Sloan; Barbara W. Johnson; Olga Kosoy; Janeen Laven; Amanda J. Panella; Isabel Sheets; Freddy Medina; Emelissa Mendoza; Monica Epperson; Panagiotis Maniatis; Vera A. Semenova; Evelene Steward-Clark; Emily Wong; Brad J. Biggerstaff; Robert S. Lanciotti; Michael A. Drebot; David Safronetz; Jarad Schiffer

Alison Jane Basilea,*, Christin Goodmana, Kalanthe Horiuchia, Angela Sloanb, Barbara W. Johnsona, Olga Kosoya, Janeen Lavena, Amanda J. Panellaa, Isabel Sheetsa, Freddy Medinad, Emelissa J. Mendozab, Monica Eppersonc, Panagiotis Maniatisc, Vera Semenovac, Evelene Steward-Clarkc, Emily Wongc, Brad J. Biggerstaffa, Robert Lanciottia, Michael Drebotb, David Safronetzb, Jarad Schifferc aDivision of Vector-Borne Diseases, Centers for Disease Control and Prevention, Fort Collins, CO, United States


Journal of Virological Methods | 2015

Production of a Sindbis/Eastern Equine Encephalitis chimeric virus inactivated cell culture antigen.

Christin H. Goodman; Brandy J. Russell; Jason O. Velez; Janeen Laven; D.A. Bagarozzi; J.L. Moon; K. Bedi; Barbara W. Johnson

Eastern Equine Encephalitis virus (EEEV) is a medically important pathogen that can cause severe encephalitis in humans, with mortality rates ranging from 30 to 80%. Unfortunately there are no antivirals or licensed vaccines available for human use, and laboratory diagnosis is essential to differentiate EEEV infection from other pathogens with similar clinical manifestations. The Arboviral Diseases Branch (ADB) reference laboratory at the CDC Division of Vector-Borne Diseases (DVBD) produces reference antigens used in serological assays such as the EEEV immunoglobulin M antibody-capture enzyme-linked immunosorbent assay (MAC-ELISA). However, EEEV is classified as a HHS select agent and requires biosafety level (BSL) three containment, limiting EEEV antigen production in non-select agent and BSL-2 laboratories. A recombinant Sindbis virus (SINV)/EEEV has been constructed for use under BSL-2 conditions and is not regulated as a select agent. Cell culture production of inactivated EEEV antigen from SINV/EEEV for use in the EEEV MAC-ELISA is reported here. Cell culture conditions and inactivation procedures were analyzed for SINV/EEEV using a recently developed antigen production algorithm, with the MAC-ELISA as the performance indicator.

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Barbara W. Johnson

Centers for Disease Control and Prevention

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Alison J. Basile

Centers for Disease Control and Prevention

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Brandy J. Russell

Centers for Disease Control and Prevention

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Janeen Laven

Centers for Disease Control and Prevention

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Aaron C. Brault

Centers for Disease Control and Prevention

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Aridth Gibbons

Centers for Disease Control and Prevention

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Bobbie R. Erickson

Centers for Disease Control and Prevention

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Brian R. Amman

Centers for Disease Control and Prevention

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Dianna M. Blau

Centers for Disease Control and Prevention

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Jessica A. Belser

National Center for Immunization and Respiratory Diseases

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