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NADINE J. HUSAMI

Official Writing Portfolio

The following is a collection of some of my most meaningful writing projects -- which will continue to grow as this portfolio is further developed! Each piece is unique in style and content and represents a distinct moment in my career. I hope you enjoy my work and I invite you to contact me with any questions.

Image by Annie Spratt

PUBLICATIONS & MANUSCRIPTS

Farkas M, Kaczynski T, Husami NJ, Au E.

| Research Square | December 22, 2022 |

screenshot_fig 1_tjk mhf njh ea.JPG

AUTHOR CONTRIBUTIONS:

"TJK and MHF designed the study. TJK, NJH, and MHF performed experiments. TJK and MHF analyzed and interpreted the data. TJK, NJH, EDA, and MHF wrote and edited the manuscript."

ABSTRACT:

"TNFRSF10A (tumor necrosis factor receptor superfamily member 10A) encodes a cell surface receptor protein involved in apoptotic, necroptotic, and inflammatory pathways. Dysregulation of TNFRSF10A has been implicated in sensitization to apoptosis and to the development of multiple diseases, yet little is known of the AC100861.1 long noncoding RNA (lncRNA) that lies head-to-head with TNFRSF10A. Given its genomic positioning, we sought to investigate the function of AC100861.1, focusing on its potential relationship with TNFRSF10A and the role it may play in death receptor signaling. Using knockdown and overexpression strategies, we probed cell viability and examined transcript and protein level changes in key genes involved in apoptosis, necroptosis, and inflammation. Decreased cell viability was observed upon TNFRSF10A overexpression, regardless of whether the cells were subjected to the chemical stressor tunicamycin. Similarly, overexpression of AC100861.1 led to increased cell death, with a further increase observed under conditions of cellular stress. Knockdown of TNFRSF10A increased cell death only when the cells were stressed, and AC100861.1 knockdown exhibited no effect on cell death. Neither knockdown nor overexpression of either of these genes greatly affected expression of the other. Manipulating AC100861.1, however, led to marked changes in the expression of genes involved in necroptosis and inflammatory cell signaling pathways. Additionally, RNA fluorescence in situ hybridization (RNA-FISH) revealed that the AC100861.1 transcript is localized primarily to the cytoplasm. Together, these data suggest that AC100861.1 may have a role in regulating necroptotic and inflammatory signaling pathways, and that this function is separate from changes in TNFRSF10A expression. Given the importance of this genomic locus for cell survival, these data provide insight into the function of a poorly understood lncRNA with potential implications regarding disease pathology and treatment."

ABSTRACT:

"Age-related macular degeneration (AMD) is a complex neurodegenerative disease and is the leading cause of blindness in the aging community. AMD progresses, has an early and intermediate stages (both dry and two late stages, neovascular and geographic atrophy (GA). It is the late stages that are responsible for the majority of visual impairment and blindness. Available medicines are directed against the less common wet form and do not cure or reverse vision loss. Therefore, it is imperative to identify preventive and therapeutic targets. As the mechanism for AMD is unclear, one, way is to interrogate well characterized disease affected tissue in the appropriate geographic region that is the macular neural retina and macular retina pigment epithelium (RPE)/choroid. We investigated differential gene expression (DEG) across the clinical stages of AMD in the macula of the primary affected tissue compared to well characterized normal using a standardized published protocol (Owen et al., 2019). Donor eyes (n=27) were Caucasian with an age range of 60-94 and 63% were male, and tissue from the macula RPE/choroid and macula neural retina were taken from the same eye. Donor eyes were recovered within 6 hours post mortem interval time and phenotyped by ophthalmic experts using multi modal imaging (fundus photos and SD-OCT) to ensure maximal preservation of RNA quality and accuracy of diagnosis. Utilizing DESeq2, followed PCA, Benjamini Hockberg Analysis to control for the FDR, Bonferonni for the paired comparisons: a total of 26,650 genes were expressed in the macula RPE/choroid and/or macula retina with 1,204 genes found to be statistically different between neovascular AMD and normal eyes, 40 genes found between intermediate AMD (AREDS3) and normal eyes, and 1,194 genes found between intermediate AMD and neovascular AMD. A comparison of the DEGs from intermediate AMD with normal eyes and neovascular AMD with normal eyes showed an overlap of six genes: MTRNR2L1, CLEC2L, CCM2L, CYP4X1, GLDN, and SMAD7. The top pathways of DEGs identified through Ingenuity Pathway Analysis (IPA) for intermediate AMD with normal eyes were the interferon signaling and Th1 and Th2 activation pathways, while for neovascular AMD with normal eyes it was the phototransduction and SNARE signaling pathways. Allele specific expression (ASE) revealed known coding regions in previously reported GWAS loci demonstrated that significant ASE for C3 rs2230199 and CFH rs1061170 occurred in the macula RPE/choroid for normal, and intermediate AMD while ASE for CFH rs1061147 occurred in occurred in the macula RPE/choroid for normal, and intermediate and neovascular AMD. An investigation of previously identified GWAS loci (Fritsche et al., 2016) revealed that 76% of the 34 loci previously identified were significantly differentially expressed between normal macular RPE/choroid and macular neural retina, with 77% of these identified loci expressed higher in the RPE. Pathway analysis was conducted on these DEGs to reveal the involvement of pathways previously implicated in AMD as well as being the first study to assess ASE across the clinical spectrum of AMD. By utilizing a systems biology approach that integrates clinical, experimental, genomic, and phenotypic data to aid in the understanding of the pathogenesis of AMD."

Charles Zhang(1#), Julie L Barr(17#), Leah A. Owen(2,3,4,5)

Akbar Shakoor(2), Albert T Vitale(1), John H Lillvis(1,5)

Nadine Husami(1), Parker Cromwell(1), Robert Finley(1), Elizabeth Au(1), Neena B Haider(17), Rylee A Zavala(1), Elijah C Graves(1), Mingyao Li(12), Amany Tawfik(10,11), Sarah X Zhang(1,6,7), Dwight Stambolian(13), Michael H Farkas(1,7,6,9), Ivana K Kim(2), Richard M Sherva(14), Lindsay Farrer(141516) and Margaret M DeAngelis(1,2,3,5,6,7,9*)

| bioRxiv | January 1, 2022 |

Fig 4. Differentially spliced genes. 

AUTHOR INFORMATION:

  1. Department of Ophthalmology, Ross Eye Institute, Jacobs School of Medicine and Biomedical Sciences, State University of New York, University at Buffalo, Buffalo, NY 14203, USA

  2. Department of Ophthalmology and Visual Sciences, University of Utah School of Medicine, The University of Utah, Salt Lake City, UT 84132, USA

  3. Department of Population Health Sciences, University of Utah School of Medicine, The University of Utah, Salt Lake City, UT 84132, USA

  4. Department of Obstetrics and Gynecology, University of Utah School of Medicine, The University of Utah, Salt Lake City, UT 84132, USA

  5. Veterans Administration Western New York Healthcare System, Buffalo, NY 14212, USA

  6. Department of Biochemistry, Jacobs School of Medicine and Biomedical Sciences, State University of New York, University at Buffalo, Buffalo, NY 14203, USA

  7. Neuroscience Graduate Program, Jacobs School of Medicine and Biomedical Sciences, State University of New York, University at Buffalo, Buffalo, NY 14203, USA

  8. Retina Service, Massachusetts Eye & Ear, Department of Ophthalmology, Harvard Medical School, Boston, MA 02114, USA

  9. Genetics, Genomics and Bioinformatics Graduate Program, Jacobs School of Medicine and Biomedical Sciences, State University of New York, University at Buffalo, Buffalo, NY 14203, USA

  10. Department of Foundational Medical Studies and Eye Research Center, Oakland University William Beaumont School of Medicine, Rochester, MI 48309, USA

  11. Eye Research Institute, Oakland University, Rochester, MI 48309, USA

  12. Department of Biostatistics, Epidemiology and Informatics, Perelman School of Medicine, University of Pennsylvania, Philadelphia, PA 19104, USA

  13. Department of Ophthalmology, Perelman School of Medicine, University of Pennsylvania, Philadelphia, PA, USA

  14. Department of Medicine, Biomedical Genetics, Boston University School of Medicine, Boston, Massachusetts, USA

  15. Department of Neurology, Boston University School of Medicine, Boston, MA, USA

  16. Department of Biostatistics, Boston University School of Public Health, Boston, MA, USA

  17. Department of Ophthalmology, Shepens Eye Research Institute/Massachusetts Eye and Ear, Harvard Medical School, Boston, MA, USA

*Corresponding author: mmdeange@buffalo.edu

# These authors contributed equally this work and therefore are both first authors

Husami NJ, Farkas MH.

| Recent Advances in iPSC Technology | January 1, 2021 |

AUTHOR INFORMATION:

Nadine J. Husami
Department of Ophthalmology, State University of New York at Buffalo, Buffalo,
NY, United States; Department of Biochemistry, State University of New York at
Buffalo, Buffalo, NY, United States; VA Research Service, Veterans Affairs
Western New York Healthcare System, Buffalo, NY, United States

Michael H. Farkas
Department of Ophthalmology, State University of New York at Buffalo, Buffalo,
NY, United States; Department of Biochemistry, State University of New York at
Buffalo, Buffalo, NY, United States; VA Research Service, Veterans Affairs
Western New York Healthcare System, Buffalo, NY, United States

ABSTRACT:

Clinical application of induced pluripotent stem cell–based (iPSC-based) therapies has recently experienced some success for the treatment of degenerative diseases; however, the long-term effects remain unknown. Comprehensive and cell type–specific validation of iPSC-derived cells is a crucial component of their clinical application. Incomplete analyses could obscure potentially dangerous downstream effects when used in a clinical setting. Recently, more comprehensive analyses of iPSC-derived cell types have revealed the retention of an epigenetic memory derived from the somatic cell type source used for pluripotential reprogramming. An epigenetic memory has the potential to be propagated throughout the differentiation process, leading to target cells harboring epigenetic vestiges of their parent somatic cell source. Retention of an epigenetic memory is characterized by aberrant gene expression in iPSCs relative to their native undifferentiated counterparts. Likely contributors to maintenance of epigenetic memory are long noncoding RNAs (lncRNAs) via their role in the regulation of epigenetic and epitranscriptomic modifications, in addition to being epigenetically and epitranscriptomically modified themselves. As epigenetic regulators, lncRNAs have recently been implicated in the regulation of stem cell differentiation and pluripotency programs. Considering the role of the noncoding genome in iPSC reprogramming and differentiation offers the potential to improve clinical outcomes of iPSC-derived tissues. This review will examine iPSC reprogramming, differentiation, target cell type validation, and maintenance of an epigenetic memory. The role of lncRNAs in regulating tissue-specific expression in the context of stem cell differentiation and pluripotency programs will also be reviewed. Exploration of the noncoding genome toward improving current validation standards and iPSC-associated clinical outcomes will be addressed in the future trends and directions.

KEYWORDS:

Aberrant gene expression; Cell transplantation; DNA methylation; Epigenetic memory; Epigenetics; Epitranscriptomics; Histone modification; iPSC differentiation; iPSC; iPSC-CM; iPSC-RPE; iPSPC-DAn; lncRNAs; Pluripotential reprogramming; Retinal pigment epithelium

Image by Annie Spratt

ONLINE ARTICLES

| IBDCoach.com | IBDCoach Blog | September 22, 2022 |

Through its interactions with the microbiome and gut-brain axis, the endocannabinoid system may offer a novel pathway for managing symptoms of Crohn’s disease and ulcerative colitis.

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| IBDCoach.com | IBDCoach Blog | November 3, 2022 |

Fasting and intermittent fasting have gained popularity around the world for numerous health benefits—but can fasting be a new treatment for symptoms of Crohn’s disease and ulcerative colitis?

| Labroots.com | Cannabis Sciences | February 24, 2022 |

A new study from researchers in Israel highlights the potential of cannabis to be used as an alternative to stimulatory medications for ADHD management.

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POTENTIAL OF MEDICAL CANNABIS FOR ADHD SYMPTOM MANAGEMENT

| Labroots.com | Cannabis Sciences | February 24, 2022 |

A new study suggests that ADHD-related executive dysfunction and symptom severity may be linked to an individual’s frequency of cannabis use.

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CUSTOMIZED PHYTOCANNABINOID PROFILES: A NOVEL SOURCE OF PRECISION THERAPEUTICS FOR SPECIFIC CANCER SUBTYPES?

| Labroots.com | Cannabis Sciences | February 11, 2022 |

A recent study from the Israel Institute of Technology provides encouraging evidence that cannabis extracts may be a novel and promising source of antitumor agents capable of being optimized for treating specific cancer subtypes.

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| Labroots.com | Cannabis Sciences | February 11, 2022 |

A new in silico study offers encouraging insight into the potential for cannabis-derived lignanamides (aka ‘cannabisins’) as drug candidates for battling multidrug resistance (MDR) in cancer cells.

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| Labroots.com | Cannabis Sciences | February 3, 2022 |

In collaboration with a slew of other nationally-appointed regulatory institutions, the National Institute on Drug Abuse (NIDA) has recently established a standard unit dose for cannabis research and cannabis-related products that is based on the quantity of THC present and is also independent of the route of administration used.
View

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| Labroots.com | Cannabis Sciences | January 28, 2022 |

According to a new study, hemp (Cannabis sativa L.) stalks – a.k.a. the byproducts of cannabidiol (CBD) oil production – harbor promising potential to be repurposed for renewable energy applications.

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| Labroots.com | Cannabis Sciences | January 27, 2022 |

According to a new study, metallic nanoparticles generated with industrial hemp (Cannabis sativa) extracts may eventually offer an alternative to the current antibiotic treatments against infections caused by bacterial biofilms.

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CANNABIS AS THE NEXT GREEN ENERGY SOURCE?

| Labroots.com | Cannabis Sciences | January 21, 2022 |

Results of a new study investigating the biofuel production potential of hemp and parthenium weed suggest that soon you may be able to kick the cow manure as a plant fertilizer for some ‘weed’ biochar instead.

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| Labroots.com | Cannabis Sciences | January 20, 2022 |

Researchers from Oregon have just discovered that certain cannabinoids isolated from hemp (Cannabis sativa L.) – in their naturally occurring, carboxylated forms – inhibit cellular entry of severe acute respiratory syndrome coronavirus-2 (SARS-CoV-2) and its emerging variants in vitro.

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| Labroots.com | Cannabis Sciences | January 11, 2022 |

Is federally produced cannabis (AKA the only legal cannabis for research purposes) actually representative of cannabis on the consumer market? Researchers from Colorado delve into this scientific – and political – concern.

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| Labroots.com | Cannabis Sciences | January 9, 2022 |

Researchers from California have released a new study investigating the microbial loads associated with different types of commercialized cannabis and cannabis-related products. Their results pave the way for establishing suitable quality assurance criteria for the cannabis industry.

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| Labroots.com | Cannabis Sciences | January 1, 2022 |

A new study released from The University of Sydney makes headway in investigating the potential “entourage effect” with new data suggesting that cannabidiolic acid (CBDA) – the carboxylated precursor of cannabidiol (CBDA) – may have more to do with the physiological effects of orally-administered, full-spectrum cannabis extracts than previously thought.

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| Labroots.com | Cannabis Sciences | December 30, 2021 |

A new hexyl, alkyl side chain homolog – cannabidihexol (CDBH) – of its beloved pentyl counterpart, cannabidiol (CBD), has recently been identified and investigated for its biological activity in mice by researchers from Colorado.

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| Labroots.com | Cannabis Sciences | December 23, 2021 |

Researchers from Colorado delve into the realm of cannabis concentrates to investigate the difference between the effects of CBD-enriched concentrate versus THC-enriched concentrate in a group of 54 recreational cannabis users.

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| Labroots.com | Cannabis Sciences | December 17, 2021 |

Researchers from Australia and Italy teamed up to conduct the first study on the impact of orally-administered cannabidiol (CBD)-based oil on dog behavior.

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Δ9-THCP: THE NOVEL PHYTOCANNABINOID WITH HIGHER CANNABIMIMETIC
ACTIVITY THAN THC

| Labroots.com | Cannabis Sciences | December 17, 2021 |

Does the ever-popular psychoactive cannabinoid, Δ9-THC, have some competition? Researchers from Italy have discovered a novel phytocannabinoid from Cannabis sativa L. – Δ9-THCP – with similar (but enhanced!) physiological and pharmacological effects as its more well-known counterpart.

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| Labroots.com | Cannabis Sciences | December 9, 2021 |

Results of a new study from researchers in Israel shed light on the role of cannabinoids such as cannabidiol (CBD), Δ9-tetrahydrocannabivarin (THCV), and cannabigerol (CBG) in modulating immune activity in COVID-19-related inflammation and disease progression.

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| Labroots.com | Cannabis Sciences | December 4, 2021 |

Results from a study recently published in the Journal of Cellular and Molecular Medicine suggest that a cannabidiol (CBD)-mediated interaction may be the next therapeutic target for the treatment of inflammatory diseases involving pulmonary inflammation – including COVID-19.

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| Labroots.com | Cannabis Sciences | November 30, 2021 |

Are all ‘full-spectrum’ cannabis products the same? According to recent research from Colorado – not quite.

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| Labroots.com | Cannabis Sciences | November 30, 2021 |

A recent study elucidates a role for terpenes in modulating cannabinoid activity, and it could have an encouraging effect on the future of precision therapeutics.

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| Labroots.com | Cannabis Sciences | November 19, 2021 |

Within the past few years, cannabidiol (CBD) has emerged as the novel ingredient of choice in the skincare industry – but will we soon be seeing it in our sunscreen, too? A recent study from Poland investigates the effects of topical CBD application on UV-induced proteomic changes in plasma proteins to reveal its potential new therapeutic role as an antioxidant against UV-induced damage.

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| Labroots.com | Cannabis Sciences | November 18, 2021 |

Antibiotic resistance is increasing, and the associated effects are globally fatal. A new study investigating the antimicrobial potential of cannabidiol (CBD) illuminates the potential of cannabis-based compounds as a source for a novel class of antibiotics.

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| Labroots.com | Cannabis Sciences | Nvember 12, 2021 |

Which cannabinoid holds the potential to be the most potent effector in the fight against inflammatory bowel disease (IBD)? A new study from Italy unveils exciting insights into using cannabinoids for mitigating intestinal inflammation and oxidative stress.

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| Labroots.com | Cannabis Sciences | November 10, 2021 |

With every cash crop comes an environmental cost – A pair of researchers from Oregon State University and the University of Camerino recently investigated a promising solution to reducing the waste produced by hemp essential oil production.

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THC & ASD: A CRUCIAL CONTRIBUTOR TO SYMPTOM ALLEVIATION

| Labroots.com | Cannabis Sciences | November 5, 2021 |

Contrary to popular belief, the psychoactive component of Cannabis – THC – could play a pivotal role in the molecular mechanism responsible for the symptom alleviation observed in studies investigating medical cannabis treatment for Autism Spectrum Disorder (ASD).

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| Labroots.com | Cannabis Sciences | November 5, 2021 |

Recent advances in our understanding the endocannabinoid system sets the stage for the use of medical cannabis as a treatment for Autism Spectrum Disorder.

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RIP INDICA/SATIVA CANNABIS DISTINCTION - TRICK, TREAT, OR TERPENE?

| Labroots.com | Cannabis Sciences | October 28, 2021 |

This study provides insight into the chemical and genetic variation across Cannabis cultivars while also shedding light on the underlying genetic mechanisms regulating terpene variation. Furthermore, it paves the way for a new interpretation of the vernacular Cannabis labeling scale that reflects the role of loci-specific genetic variation in directing terpene synthesis.

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ORGANIC MARKETING COPY

Social Media & Email Campaign Content

Below is a collection of Instagram social media posts I wrote and designed graphics for in collaboration with IBDCoach's Chief Science Officer, Shae Puckett. Each post was adapted for both social media (Instagram and Facebook) and email marketing campaigns.

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BIOMARKERS OF IBD (@IBD.COACH)

August 11, 2022

WHAT IS THE DIFFERENCE BETWEEN CROHN’S DISEASE AND ULCERATIVE COLITIS? (@IBD.COACH)

August 19, 2022

August 25, 2022

September 8, 2022

November 8, 2022

ACADEMIC WRITING SAMPLES

The following is a collection of some of my most interesting academic pieces. These samples were written throughout my years in academia as an undergraduate and graduate student.

Written 2021

Introduction to the exciting world of the ocular microbiome!

Written May 2020

Comparative sequence re-analysis of chitinase gene sequences.
Original analysis performed by Hjort et al., (2010):
>Hjort, Karin et al. 2010. “Chitinase Genes Revealed and Compared in Bacterial Isolates, DNA Extracts and a Metagenomic Library from a Phytopathogen-Suppressive Soil.” FEMS Microbiology Ecology 71(2): 197–207. 

Written November 2019

Written Departmental Thesis Research Proposal (Grant Format)
| Jacobs Biomedical School Biochemistry Department, University at Buffalo |

Presented on February 19, 2019

Delve into the world of glycobiology with this overview of some experimental work done by Gagneux et al. (2003). This was presented during a lab meeting while I was rotating in the lab of Dr. Stefan Ruhl.

Written 2016

Response piece to 2016 Zika virus outbreak.

Written in 2016

Virology/Immunology undergraduate course take-home assignment.

MONONUCLEOSIS DISEASE BROCHURE

Written 2016

Tri-fold informational brochure on the infamous 'Kissing Disease' -- mononucleosis!

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