{"id":317,"date":"2018-01-09T19:35:32","date_gmt":"2018-01-09T23:35:32","guid":{"rendered":"http:\/\/sites.nd.edu\/pdnano\/?page_id=317"},"modified":"2026-08-25T18:39:39","modified_gmt":"2026-08-25T22:39:39","slug":"317-2","status":"publish","type":"page","link":"https:\/\/sites.nd.edu\/pdnano\/?page_id=317","title":{"rendered":"Publications"},"content":{"rendered":"

Journal Publications; Citations = 3306; h-index = 25,\u00a0 i10 index = 35; Patents: 2; Patent Applications = 9; one technology licensed out.<\/strong><\/a><\/span>
\nFull List of publications and citations can be accessed on\u00a0google scholar<\/a><\/span><\/h4>\n

2026<\/strong><\/span><\/h4>\n

43.<\/strong> Brownsberger, A. F.; Kudary, C.; Williams, H. H.; Wei, S.; Latorre, P.; Eastland, R.; Sayani, O.; Lyu, J.; Davey, R.; Hopkins, V.; Roeder, R. K.; Nallathamby, P. D. Intrinsically Selective Nanoplatforms for Precision Therapy and Monitoring. J. Nanotheranostics<\/a>2026<\/strong>,\u00a07<\/em>(2), 12; https:\/\/doi.org\/10.3390\/jnt7020012<\/a><\/span><\/span><\/h4>\n

42 . LICENSE ALERT: “<\/strong>Phage mimicking nanoparticles” licensed to nanoBLASTx,LLC in March 2026
\nInventors: Prakash Daniel Nallathamby, Juliane Hopf
\nIssue Date: 2024\/12\/10
\nUS Patents Office
\nPatent no. US 12161725 B2<\/a><\/span><\/h4>\n

41.<\/strong> Bispecific nanoparticle systems for targeting cancer cells
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2022\/5\/01
\nUS Patents Office: Patent No. 12576160 B2<\/a> \u00b7 Issued Mar 17, 2026\u00a0<\/span><\/h4>\n

40.<\/strong> Brownsberger, A. F.; Kudary, C.; Williams, H. H.; Wei, S.; Latorre, P.; Eastland, R.; Sayani, O.; Lyu, J.; Davey, R.; Hopkins, V.; Roeder, R. K.; Nallathamby, P. D. Intrinsically Selective Nanoplatforms for Precision Therapy and Monitoring. Preprints 2026, 2026031641. https:\/\/doi.org\/10.20944\/preprints202603.1641.v1<\/a>\u00a0<\/span><\/h4>\n

2025<\/strong><\/span><\/h4>\n

39.<\/strong> Receptor Independent Magnetoelectric Nanocarriers for Spatiotemporally Controlled Chemotherapy of Triple Negative Breast Cancer Variants, Ovarian Cancer, and Prostate Cancer. ChemRxiv. (2025) doi:10.26434\/chemrxiv-2025-9brnt This content is a preprint and has not been peer-reviewed. Lyu J, Brownsberger A, Kudary C, Waters M, Nallathamby P\u00a0<\/span>10.26434\/chemrxiv-2025-9brnt<\/a><\/h4>\n

2024<\/strong><\/span><\/h4>\n

38.<\/strong>Phage mimicking nanoparticles
\nInventors: Prakash Daniel Nallathamby, Juliane Hopf
\nIssue Date: 2024\/12\/10
\nUS Patents Office
\nPatent no. US 12161725 B2<\/a><\/span><\/h4>\n

37.<\/strong> PLGA nanoparticles formulations loaded with antibiotics induce sustained and controlled antibiotics release for prolonged antibacterial action against MRSA, and Pseudomonas aeruginosa FRD1.\u00a0Military Medicine, Volume <\/em>189, Issue Supplement_3, September\/October 2024, Pages 230\u2013238,\u00a0https:\/\/doi.org\/10.1093\/milmed\/usae079<\/a>\u00a0(Accepted for Publication Feb 22, 2024) Guevara A, Armknecht K, Kudary C,\u00a0 Nallathamby, P.D.<\/span><\/h4>\n

36. <\/strong>Antimicrobial Peptide-conjugated phage-mimicking nanoparticles exhibit potent antibacterial action against Streptococcus pyogenes in murine wound infection models. \u00a0Nanoscale Advances<\/em>, 2024, 6, 1145 – 1162DOI: 10.1039\/D3NA00620D<\/a> Olesk J, Donahue D, Ross J, Sheehan C, Bennett Z, Armknecht K, Kudary C, Hopf J, Ploplis V.A, Castellino F.J, Lee S.W, Nallathamby, P.D.\u00a0<\/span>(IF = 4.7)<\/span><\/h4>\n

2023<\/strong><\/span><\/h4>\n

35. <\/strong>Peptide-conjugated phage-mimicking nanoparticles exhibit potent antibacterial action against Streptococcus pyogenes in murine wound infection models. ChemRxiv. Cambridge: Cambridge Open Engage; 2023; This content is a preprint and has not been peer-reviewed. (2023) In final review at Nanoscale Advances<\/em> Olesk J, Donahue D, Ross J, Sheehan C, Bennett Z, Armknecht K, Kudary C, Hopf J, Ploplis V.A, Castellino F.J, Lee S.W, Nallathamby, P.D. ChemRXiv<\/a> \u00a0<\/span><\/h4>\n

2022<\/strong><\/span><\/h4>\n

34. <\/strong> Biocompatible, Multi-Mode, Fluorescent, T2 MRI Contrast Magnetoelectric-Silica Nanoparticles (MagSiNs), for On-Demand Doxorubicin Delivery to Metastatic Cancer Cells. Pharmaceuticals<\/em>\u00a015<\/i>,\u00a0<\/b>1216 (2022) Waters, M.; Hopf, J.; Tam,E.; Wallace, S.; Chang, J.; Bennett, Z.; Aquino, H.; Roeder, R.K.; Helquist,P.; Stack, M.S.; Nallathamby, P.D. https:\/\/www.mdpi.com\/1424-8247\/15\/10\/1216\u00a0 <\/a><\/span>(IF = 5.677)<\/span><\/h4>\n

<\/h4>\n

33. <\/strong>\u00a0Engineering bioactive nanoparticles to rejuvenate vascular progenitor cells. Communications Biology<\/i>\u00a05,\u00a0<\/b>635 (2022) Bui, L., Edwards, S., Hall, E., Alderfer, L., Round, K., Owen, M., Sainaghi, P., Zhang, S., Nallathamby, P.D., Haneline, L.S., Hanjaya-Putra,D.<\/span>
\ndoi:10.1038\/s42003-022-03578-4\u00a0<\/a>(IF = 6.268)<\/span><\/h4>\n

<\/h4>\n

2021<\/strong><\/span>
\n32. <\/strong>Colloidal Stability, Cytotoxicity, and Cellular Uptake of HfO2 Nanoparticles
\n<\/strong>Journal of Biomedical Materials Research: Part B – Applied Biomaterials, 2021<\/span>
\nTracie McGinnity, Viktoriya Sokolova, Oleg Prymak, Prakash Nallathamby, Matthias Epple, and Ryan K. Roeder\u00a0<\/span>
\ndoi: 10.1002\/jbm.b.34800\u00a0<\/a><\/span>(IF = 3.405)<\/span><\/h4>\n

<\/h4>\n

2019<\/strong><\/span>
\n31. <\/strong>Phage-mimicking antibacterial core\u2013shell nanoparticles
\n<\/strong>Nanoscale Advances, 2019, 1, 4812\u20134826<\/span>
\nJuliane Hopf, Margo Waters, Veronica Kalwajtys, Katelyn E. Carothers, Ryan K. Roeder, Joshua D. Shrout, Shaun W. Lee and Prakash D. Nallathamby<\/span>
\ndoi: 10.1039\/C9NA00461K\u00a0<\/a><\/span>(IF = 5.598)<\/span><\/h4>\n

<\/h4>\n

30.\u00a0<\/strong>Nanoparticles in Biomedicine-Focus on Imaging Applications<\/span>
\nEngineered Science, 5, 1-20<\/span>
\nP. Zhou, J. Wang, X.Du, T. Huang, P. D. Nallathamby, L. Yang, W. Zou, Y. Zhou, J-M Jault, S. Chen and F. Ding<\/span>
\ndoi:10.30919\/es8d708<\/a><\/span><\/h4>\n

2018<\/strong><\/span>
\n29. <\/strong>CD133 Promotes Adhesion to the Ovarian Cancer Metastatic Niche<\/span>
\nCancer Growth and Metastasis,\u00a0\u00a011, 1-11<\/span>
\nLynn Roy, Alexander Bobbs, Rachel Sattler, Jeffrey L Kurkewich, Paige B Dausinas, Prakash Nallathamby, Karen D Cowden Dahl<\/span>
\ndoi10.1177\/1179064418767882\u00a0<\/a><\/span><\/h4>\n

28.<\/strong> Super-resolution fluorescence microscopy by stepwise optical saturation<\/span>
\nBiomedical Optics Express\u00a0 9, 1613-1629 (IF = 3.562)<\/span>
\nYide Zhang, P.D. Nallathamby,Genevieve D. Vigil, Aamir A. Khan, Devon E. Mason, Joel D. Boerckel, Ryan K. Roeder, and Scott S. Howard<\/span>
\ndoi10.1364\/BOE.9.001613\u00a0<\/a><\/span><\/h4>\n

2017<\/strong><\/span>
\n27.<\/strong> Nanoparticle imaging probes for molecular imaging with computed tomography and application to cancer imaging<\/span>
\nSPIE Medical Imaging<\/span>
\n101320X-101320X-8<\/span>
\ndoi:10.1039\/c6tb01659f\u00a0<\/a><\/span><\/h4>\n

2016<\/strong><\/span>
\n26.<\/strong> Single Nanoparticle Plasmonic Spectroscopy for Study of Efflux Function of Multidrug ABC Membrane Transporters of Single Live Cells<\/span>
\nRSC Advances; 6, 36794-36802<\/span>
\ndoi:10.1039\/C6RA05895G<\/a>(IF = 4.036)<\/span>
\n25.<\/strong> Single Nanoparticle Plasmonic Spectroscopy for Study of Charge-Dependent Efflux Function of Multidrug ABC Transporters of Single Live Bacillus subtilis Cells<\/span>
\nThe Journal of Physical Chemistry C; 120, 21007-21016<\/span>
\ndoi:10.1021\/acs.jpcc.6b03313<\/a> (IF = 4.126)<\/span>
\n24.<\/strong> Hafnia (HfO 2) nanoparticles as an X-ray contrast agent and mid-infrared biosensor<\/span>
\nNanoscale; 8, 13627-13637<\/span>
\ndoi:10.1039\/c6nr03217f<\/a> (IF = 8.307)<\/span><\/h4>\n

23.<\/strong> Preparation of fluorescent Au\u2013SiO 2 core\u2013shell nanoparticles and nanorods with tunable silica shell thickness and surface modification for immunotargeting<\/span>
\nJournal of Materials Chemistry B; 4, 5418-5428<\/span>
\ndoi:10.1039\/c6tb01659f\u00a0<\/a>(IF = 6.331)<\/span><\/h4>\n

2015<\/strong><\/span>
\n22.<\/strong> New surface radiolabeling schemes of super paramagnetic iron oxide nanoparticles (SPIONs) for biodistribution studies<\/span>
\nNanoscale; 7, 6545-6555<\/span>
\ndoi:10.1039\/c4nr06441k<\/a>(IF = 8.307)<\/span>
\n21.<\/strong> Design and Synthesis of Nanoparticle Contrast Agents for Spectral (color) X-Ray Imaging<\/span>
\nMRS Proceedings; 1719, mrsf14-1719-c05-08<\/span>
\ndoi:10.1557\/opl.2015.460<\/a><\/span>
\n20.<\/strong>\u00a0Wavelength dependent specific plasmon resonance coupling of single silver nanoparticles with EGFP<\/span>
\nNanoscale; 7, 17623-17630<\/span>
\ndoi:10.1039\/c5nr05234c<\/a> (IF = 8.307)<\/span><\/h4>\n

2013 <\/strong><\/span>
\n19.<\/strong> Study of charge-dependent transport and toxicity of peptide-functionalized silver nanoparticles using zebrafish embryos and single nanoparticle plasmonic spectroscopy<\/span>
\nChemical research in toxicology; 26, 904-917<\/span>
\ndoi:10.1021\/tx400087d<\/a> (IF = 3.739)<\/span>
\n18.<\/strong> Dynamic development of the protein corona on silica nanoparticles: composition and role in toxicity<\/span>
\nNanoscale; 5, 6372-6380<\/span>
\ndoi:10.1039\/c3nr33280B<\/a> (IF = 8.307)<\/span>
\n17.<\/strong> In Vivo Inhalation Exposures to Super-Paramagnetic Iron-Oxide Nanoparticles (SPIONP) followed by Magnetic Particle Detection (MPD) and Accelerator Mass Spectrometry (AMS) Analysis<\/span>
\nJournal of Aerosol of Medicine and Pulmonary Drug Delivery; 26, A16-A16<\/span>
\n16.<\/strong> Silver Nanoparticles Incite Size-and Dose-Dependent Developmental Phenotypes and Nanotoxicity in Zebrafish Embryos<\/span>
\nChemical research in toxicology; 26, 1503-1513<\/span>
\ndoi:10.1021\/tx400228p\u00a0<\/a>(IF = 3.739)<\/span>
\n15.<\/strong> Silver nanoparticles induce developmental stage-specific embryonic phenotypes in zebrafish<\/span>
\nNanoscale; 5, 11625-11636<\/span>
\ndoi:10.1039\/c3nr03210h\u00a0<\/a>(IF = 8.307)<\/span>
\n14.<\/strong> Volume labeling with Alexa Fluor dyes and surface functionalization of highly sensitive fluorescent silica (SiO 2) nanoparticles<\/span>
\nNanoscale; 5, 10369-10375<\/span>
\ndoi:10.1039\/c3nr02639F\u00a0<\/a>(IF = 8.307)<\/span><\/h4>\n

2012 <\/strong><\/span>
\n13<\/strong>. Single nanoparticle spectroscopy for real-time in vivo quantitative analysis of transport and toxicity of single nanoparticles in single embryos.<\/span>
\nThe Analyst; 137, 2973<\/span>
\ndoi:10.1039\/C2AN35293A\u00a0<\/a>(IF = 4.616)<\/span>
\n12.<\/strong> In Vivo Quantitative Study of Sized-Dependent Transport and Toxicity of Single Silver Nanoparticles Using Zebrafish Embryos<\/span>
\nChemical Research in Toxicology; 25, 1029-1046<\/span>
\ndoi:10.1021\/tx300021u<\/a> (IF = 3.739)<\/strong><\/span><\/h4>\n

2010 <\/strong><\/span>
\n11.<\/strong> Study of cytotoxic and therapeutic effects of stable and purified silver nanoparticles on tumor cells<\/span>
\nNanoscale; 2, 942-952 doi:10.1039\/c0nr00080a<\/a> (IF = 8.307)<\/span>
\n10.<\/strong> Study of the Multidrug Membrane Transporter of Single Living Pseudomonas aeruginosa Cells Using Size-Dependent Plasmonic Nanoparticle Optical Probes<\/span>
\nBiochemistry; 49, 5942-5953doi:10.1021\/bi100268k\u00a0<\/a>(IF = 3.162)\u00a0<\/strong><\/span>
\n9<\/strong>. Probing of multidrug ABC membrane transporters of single living cells using single plasmonic nanoparticle optical probes<\/span>
\nAnalytical and bioanalytical chemistry; 397, 3317-3328doi:10.1007\/s00216-010-3864-8<\/a>(IF = 3.44)<\/span>
\n8.<\/strong> Design and characterization of optical nanorulers of single nanoparticles using optical microscopy and spectroscopy<\/span>
\nNanoscale; 2, 1715-1722doi:10.1039\/c0nr00303d\u00a0<\/a>(IF = 8.307)<\/span><\/h4>\n

2009 <\/strong><\/span>
\n7.<\/strong> Random walk of single gold nanoparticles in zebrafish embryos leading to stochastic toxic effects on embryonic developments<\/span>
\nNanoscale; 1, 138-152<\/span>
\ndoi:10.1039\/b9nr00053d<\/a> (IF = 8.307)<\/span>
\n6.<\/strong> Correlation and Characterization of Three-Dimensional Morphologically Dependent Localized Surface Plasmon Resonance Spectra of Single Silver Nanoparticles Using Dark-Field Optical Microscopy and Spectroscopy and Atomic Force Microscopy<\/span>
\nThe Journal of Physical Chemistry C; 114, 74-81<\/span>
\ndoi:10.1021\/jp9083019\u00a0<\/a>(IF = 4.126)<\/span>
\n5.<\/strong> Real-time imaging and tuning subcellular structures and membrane transport kinetics of single live cells at nanosecond regime<\/span>
\nThe Journal of Physical Chemistry B; 113, 14393-14404<\/span>
\ndoi:10.1021\/jp9021739\u00a0<\/a>(IF =2.991)<\/span><\/h4>\n

2008 <\/strong><\/span>
\n4<\/strong>. Photostable single-molecule nanoparticle optical biosensors for real-time sensing of single cytokine molecules and their binding reactions<\/span>
\nJournal of the American Chemical Society; 130, 17095-17105<\/span>
\ndoi:10.1021\/ja8068853<\/a> (IF = 16.38)<\/span>
\n3.<\/strong> Design of stable and uniform single nanoparticle photonics for in vivo dynamics imaging of nanoenvironments of zebrafish embryonic fluids<\/span>
\nACS nano; 2, 1371-1380<\/span>
\ndoi:10.1021\/nn800048x\u00a0<\/a>(IF = 18.03)<\/span><\/h4>\n

2007<\/strong><\/span>
\n2.<\/strong> In vivo imaging of transport and biocompatibility of single silver nanoparticles in early development of zebrafish embryos<\/span>
\nACS Nano; 1, 133-143<\/span>
\ndoi:10.1021\/nn700048y<\/a> (IF = 18.03)<\/span>
\n1.<\/strong> Design and synthesis of single-nanoparticle optical biosensors for imaging and characterization of single receptor molecules on single living cells<\/span>
\nAnalytical chemistry; 79, 7708-7718<\/span>
\ndoi:10.1021\/ac0709706\u00a0<\/a>(IF = 8.008)<\/span><\/h4>\n

Patents<\/strong><\/span><\/h4>\n

8.<\/strong> \u201cPhage-Mimicking Nanoparticle And Polyethylenimine Metal Implant Coatings\u201d<\/strong>
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2025
\nApplication \u201d PCT\/US2025\/042207<\/span><\/h4>\n

7.<\/strong> \u201cPLGA Nanoparticles Formulations Loaded With Antibiotics Induce Sustained and Controlled Antibiotics Release for Prolonged Antibacterial Action Against MRSA, and Pseudomonas aeruginosa FRD1\u201d
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2025
\nApplication \u201d # 63\/865,823<\/span><\/h4>\n

6.<\/strong> \u201cPeptide-conjugated phage-mimicking nanoparticles for inflammation free wound healing\u201d
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2025
\nApplication # 19\/487,191<\/span><\/h4>\n

5.<\/strong> \u00a0Magnetic nanoparticles and methods of drug release
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2023\/5\/07
\nWorldwide Patent: WO2023215210A1<\/span><\/h4>\n

4.<\/strong> Dual antibody bridge nanoparticles for efficient targeting of cancer cells using immunotherapy (universal CAR-T cells) or other anticancer therapeutics
\nInventor(s): Prakash Daniel Nallathamby
\nPublication date: 2022\/5\/01
\nUS Patents Office: Patent No. 12,576,160 B2 \u00b7 Issued Mar 17, 2026 (NOTICE OF ALLOWANCE RECEIVED ON Jan 21, 2026)<\/strong><\/span><\/h4>\n

3.<\/strong> Phage mimicking nanoparticles
\nInventors: Prakash Daniel Nallathamby, Juliane Hopf
\nPublication date: 2021\/8\/19
\nUS Patents Office
\nPatent no. US 12161725 B2<\/a><\/span><\/h4>\n

2.<\/strong> Nanoparticle biosensors<\/span>
\nUS Patents Office<\/span>
\nPatent no.\u00a020090148863<\/a><\/span><\/h4>\n

1.<\/strong> Stable nanoparticles, nanoparticle-based imaging systems, nanoparticle-based assays, and in vivo assays for screening biocompatibility and toxicity of nanoparticles<\/span>
\nUS Patents Office<\/span>
\nPatent no.\u00a020120164073<\/a><\/span><\/h4>\n

Book Chapter<\/strong><\/span>
\n2007<\/strong><\/span>
\nProbing Membrane Transport of Single Live Cells Using Single-Molecule Detection and Single Nanoparticle Assay<\/span>
\nChemical Analysis-New York-Interscience John Wiley; 172, 41<\/span><\/h4>\n

Dissertation<\/strong><\/span>
\n2010<\/strong><\/span>
\nDesign and Synthesis of Photostable Nanoparticle Probes for Molecular Imaging and Sensing in Life Science<\/span>
\nOld Dominion University<\/span><\/h4>\n","protected":false},"excerpt":{"rendered":"

Journal Publications; Citations = 3306; h-index = 25,\u00a0 i10 index = 35; Patents: 2; Patent Applications = 9; one technology licensed out. Full List of publications and citations can be accessed on\u00a0google scholar 2026 43. Brownsberger, A. F.; Kudary, C.; Williams, H. H.; Wei, S.; Latorre, P.; Eastland, R.; Sayani, O.; Lyu, J.; Davey, R.; … <\/p>\n

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