magneTherm PublicationsSummary
·Pankhurst,Q.A.,Connolly,J.,Jones,S.K.andDobson,J.J.,2003. Applicationsofmagnetic
nanoparticlesinbiomedicine.JournalofphysicsD:Appliedphysics,36(13),p.R167.doi:
10.1088/0022-3727/36/13/201
·Krishnan,K.M.,2010. Biomedicalnanomagnetics:aspinthroughpossibilitiesinimaging,
diagnostics,andtherapy. Magnetics,IEEETransactionson,46(7),pp.2523-2558.doi:
10.1109/TMAG.2010.2046907
·Khandhar,A.P.,Ferguson,R.M.andKrishnan,K.M.,2011. Monodispersedmagnetite
nanoparticlesoptimizedformagneticfluidhyperthermia:Implicationsinbiologicalsystems.
Journalofappliedphysics,109(7),p.07B310.doi:10.1063/1.3556948
·Paolella,A.,George,C.,Povia,M.,Zhang,Y.,Krahne,R.,Gich,M.,Genovese,A.,Falqui,A.,
Longobardi,M.,Guardia,P.andPellegrino,T.,2011. Chargetransportandelectrochemical
propertiesofcolloidalgreigite(Fe3S4)nanoplatelets. ChemistryofMaterials,23(16),pp.3762-
3768.doi:10.1021/cm201531h
·Khandhar,A.P.,Ferguson,R.M.,Simon,J.A.andKrishnan,K.M.,2012. Enhancingcancer
therapeuticsusingsize-optimizedmagneticfluidhyperthermia.Journalofappliedphysics,
111(7),p.07B306.doi:10.1063/1.3671427.
·Khandhar,A.P.,Ferguson,R.M.,Simon,J.A.andKrishnan,K.M.,2012. Tailoredmagnetic
nanoparticlesforoptimizingmagneticfluidhyperthermia. JournalofBiomedicalMaterials
ResearchPartA,100(3),pp.728-737.doi:10.1002/jbm.a.34011
·Roca,A.G.,Wiese,B.,Timmis,J.,Vallejo-Fernandez,G.andOGrady,K.,2012.Effectoffrequency
andfieldamplitudeinmagnetichyperthermia.Magnetics,IEEETransactionson,48(11),pp.4054-
4057.doi:10.1109/TMAG.2012.2201459
·Armijo,L.M.,Brandt,Y.I.,Mathew,D.,Yadav,S.,Maestas,S.,Rivera,A.C.,Cook,N.C.,Withers,N.J.,
Smolyakov,G.A.,Adolphi,N.L.,Monson,T.C.,Huber,D.L.,Smyth,H.D.andOsińskiM.,2012. Iron
oxidenanocrystalsformagnetichyperthermiaapplications. Nanomaterials,2(2),pp.134-146.
doi:10.3390/nano2020134
·Armijo,L.M.,Brandt,Y.I.,Withers,N.J.,Plumley,J.B.,Cook,N.C.,Rivera,A.C.,Yadav,S.,
Smolyakov,G.A.,Monson,T.,Huber,D.L.andSmyth,H.D.,2012. Multifunctional
superparamagneticnanocrystalsforimagingandtargeteddrugdeliverytothelung.InSPIE
BiOS(pp.82320M-82320M).InternationalSocietyforOpticsandPhotonics.doi:10.1117/12.913577
·Armijo,L.M.,Brandt,Y.I.,Rivera,A.C.,Cook,N.C.,Plumley,J.B.,Withers,N.J.,Kopciuch,M.,
Smolyakov,G.A.,Huber,D.L.,Smyth,H.D.andOsinski,M.,2012. Multifunctional
superparamagneticnanoparticlesforenhanceddrugtransportincysticfibrosis. InSPIE
NanosystemsinEngineering+Medicine(pp.85480E-85480E).InternationalSocietyforOpticsand
Photonics.doi:10.1117/12.943621
·Guardia,P.,DiCorato,R.,Lartigue,L.,Wilhelm,C.,Espinosa,A.,Garcia-Hernandez,M.,Gazeau,F.,
Manna,L.andPellegrino,T.,2012. Water-solubleironoxidenanocubeswithhighvaluesof
specificabsorptionrateforcancercellhyperthermiatreatment. ACSnano,6(4),pp.3080-3091.
doi:10.1021/jp310771p
·DelaPresa,P.,Luengo,Y.,Multigner,M.,Costo,R.,Morales,M.P.,Rivero,G.andHernando,A.,
2012. Studyofheatingefficiencyasa functionofconcentration,size,andappliedfieldin γ-
Fe2O3nanoparticles. TheJournalofPhysicalChemistryC,116(48),pp.25602-25610.doi:
10.1021/jp310771p
·Riedinger,A.,Guardia,P.,Curcio,A.,Garcia,M.A.,Cingolani,R.,Manna,L.andPellegrino,T.,2013.
Subnanometerlocaltemperatureprobingandremotelycontrolleddrugreleasebasedonazofunctionalized
ironoxidenanoparticles. Nanoletters,13(6),pp.2399-2406.doi:10.1021/nl400188q
magneTherm™publicationsPI-405-35
nanoThericsLtd,Studio3–Unit3,SilverdaleEnterpriseCentre,Staffordshire,ST56SR.UnitedKingdom.www.nanotherics.com
·Vallejo-Fernandez,G.,Whear,O.,Roca,A.G.,Hussain,S.,Timmis,J.,Patel,V.andOGrady,K.,
2013. Mechanismsofhyperthermiainmagneticnanoparticles. JournalofPhysicsD:Applied
Physics,46(31),p.312001.doi:10.1088/0022-3727/46/4/043001.
·Byrne,J.M.,Coker,V.S.,Moise,S.,Wincott,P.L.,Vaughan,D.J.,Tuna,F.,Arenholz,E.,vander
Laan,G.,Pattrick,R.A.D.,Lloyd,J.R.andTelling,N.D.,2013. Controlledcobaltdopinginbiogenic
magnetitenanoparticles. JournalofTheRoyalSocietyInterface,10(83),p.20130134.
doi:10.1098/rsif.2013.0134.
·Kim,M.,Kim,C.S.,Kim,H.J.,Yoo,K.H.andHahn,E.,2013. EffecthyperthermiainCoFe2O4@
MnFe2O4nanoparticlesstudiedbyusingfield-inducedMössbauerspectroscopy. Journalofthe
KoreanPhysicalSociety,63(11),pp.2175-2178.
·Savva,I.,Odysseos,A.D.,Evaggelou,L.,Marinica,O.,Vasile,E.,Vekas,L.,Sarigiannis,Y.and
Krasia-Christoforou,T.,2013. Fabrication,characterization,andevaluationindrugrelease
propertiesofmagnetoactivepoly(ethyleneoxide)–poly(l-lactide)electrospunmembranes.
Biomacromolecules,14(12),pp.4436-4446.doi:10.1021/bm401363v.
·NGuyen,T.T.,Duong,H.T.,Basuki,J.,Montembault,V.,Pascual,S.,Guibert,C.,Fresnais,J.,Boyer,
C.,Whittaker,M.R.,Davis,T.P.andFontaine,L.,2013. FunctionalIronOxideMagnetic
NanoparticleswithHyperthermia‐InducedDrugReleaseAbilitybyUsingaCombinationof
OrthogonalClickReactions. AngewandteChemieInternationalEdition,52(52),pp.14152-14156.
doi:10.1002/ange.201306724
·Armijo,L.M.,Kopciuch,M.,Olszόwka,Z.,Wawrzyniec,S.J.,Rivera,A.C.,Plumley,J.B.,Cook,N.C.,
Brandt,Y.I.,Huber,D.L.,Smolyakov,G.A.andAdolphi,N.L.,2014. Deliveryoftobramycincoupled
toironoxidenanoparticlesacrossthebiofilmofmucoidalPseudonomasaeruginosaand
investigationofitsefficacy.InSPIEBiOS(pp.89550I-89550I).InternationalSocietyforOpticsand
Photonics.doi:10.1117/12.2043340
·Kolosnjaj-Tabi,J.,DiCorato,R.,Lartigue,L.,Marangon,I.,Guardia,P.,Silva,A.K.,Luciani,N.,
Clément,O.,Flaud,P.,Singh,J.V.andDecuzzi,P.,2014. Heat-generatingironoxidenanocubes:
subtle “destructurators”ofthetumoralmicroenvironment.ACSnano,8(5),pp.4268-4283.doi:
10.1021/nn405356r
·Kim,S.J.,Hyun,S.W.,Kim,C.S.andKim,H.J.,2014. ThermalvariationofMgZnnanoferritesfor
magnetichyperthermia. JournaloftheKoreanPhysicalSociety,65(4),pp.553-556.doi:
10.3938/jkps.65.553
·Céspedes,E.,Byrne,J.M.,Farrow,N.,Moise,S.,Coker,V.S.,Bencsik,M.,Lloyd,J.R.andTelling,
N.D.,2014. Bacteriallysynthesizedferritenanoparticlesformagnetichyperthermia
applications.Nanoscale,6(21),pp.12958-12970.doi:10.1039/C4NR03004D.
·Nesztor,D.,Bali,K.,Tóth,I.Y.,Szekeres,M.andTombácz,E.,2015. Controlledclusteringof
carboxylatedSPIONsthroughpolyethylenimine. JournalofMagnetismandMagneticMaterials,
380,pp.144-149.doi:10.1016/j.jmmm.2014.10.091.
·Malik,V.,Goodwill,J.,Mallapragada,S.,Prozorov,T.andProzorov,R.,2014. ComparativeStudyof
MagneticPropertiesofNanoparticlesbyHigh-FrequencyHeatDissipationandConventional
Magnetometry.MagneticsLetters,IEEE,5,pp.1-4.doi:10.1371/journal.pone.0114271
·Hua,X.,Tan,S.,Bandara,H.M.H.N.,Fu,Y.,Liu,S.andSmyth,H.D.,2014. Externallycontrolled
triggered-releaseofdrugfromPLGAmicroandnanoparticles.PloSone,9(12),p.e114271.
doi:10.1371/journal.pone.0114271.
·Peci,T.,Dennis,T.J.S.andBaxendale,M.,2015. Iron-filledmultiwalledcarbonnanotubes
surface-functionalizedwithparamagneticGd(III):Acandidatedual-functioningMRIcontrast
agentandmagnetichyperthermiastructure.Carbon,87,pp.226-232.
doi:10.1016/j.carbon.2015.01.052.
·Briceño,S.,Silva,P.,Bramer-Escamilla,W.,Zablala,J.,Alcala,O.,Guari,Y.,Larionova,J.andLong,
J.,2015. Magneticwater-solublerhamnose-coatedMn1-XCoxFe2O4nanoparticlesas
potentialheatingagentsforhyperthermia.BiointerfaceResearchinAppliedChemistry,5(1).
magneTherm™publicationsPI-405-35
nanoThericsLtd,Studio3–Unit3,SilverdaleEnterpriseCentre,Staffordshire,ST56SR.UnitedKingdom.www.nanotherics.com
·Armijo,L.M.,Jain,P.,Malagodi,A.,Fornelli,F.Z.,Hayat,A.,Rivera,A.C.,French,M.,Smyth,H.D.
andOsiński,M.,2015. Inhibitionofbacterialgrowthbyironoxidenanoparticleswithand
withoutattacheddrug:Haveweconqueredtheantibioticresistanceproblem?. InSPIEBiOS
(pp.93381Q-93381Q).InternationalSocietyforOpticsandPhotonics.doi:10.1117/12.2085048.
·Szekeres,M.,Illés,E.,Janko,C.,Farkas,K.,Tóth,I.Y.,Nesztor,D.,Zupkó,I.,Földesi,I.,Alexiou,C.
andTombácz,E.,2015. HemocompatibilityandBiomedicalPotentialofPoly(GallicAcid)
CoatedIronOxideNanoparticlesforTheranosticUse.JournalofNanomedicine&
Nanotechnology,2015.doi:10.4172/2157-7439.1000252
·Choi,H.,Kim,S.J.,Choi,E.H.andKim,C.S.,2015. StudyofHyperthermiaThroughtheBioplasma
TreatmentandMagneticPropertiesofFe3O4Nanoparticles.Magnetics,IEEETransactionson,
51(11),pp.1-4.doi:1109/TMAG.2015.2435062.
·Lemine,O.M.,Omri,K.,ElMir,L.,Velasco,V.,Crespo,P.,delaPresa,P.,Bouzid,H.,Youssif,A.and
Hajry,A.,2015. Fe2O3nanoparticlesformagnetichyperthermiaapplications.InMRS
Proceedings(Vol.1779,pp.7-13).CambridgeUniversityPress.doi:10.1557/opl.2015.697.
·Raniszewski,G.,Miaskowski,A.andWiak,S.,2015. TheApplicationofCarbonNanotubesin
MagneticFluidHyperthermia.JournalofNanomaterials,2015,p.1.doi:10.1155/9182
·Kim,S.J.,Hyun,S.W.,Kim,C.S.andKim,H.J.,2014. ThermalvariationofMgZnnanoferritesfor
magnetichyperthermia.JournaloftheKoreanPhysicalSociety,65(4),pp.553-556.doi:
10.3938/jkps.65.553
·Arteaga-Cardona,F.,Rojas-Rojas,K.,Costo,R.,Mendez-Rojas,M.A.,Hernando,A.anddelaPresa,
P.,2016. Improvingthemagneticheatingbydisaggregatingnanoparticles.JournalofAlloysand
Compounds,663,pp.636-644.doi:10.1016/j.jallcom.2015.10.285
·Gangwar,A.,Alla,S.K.,Srivastava,M.,Meena,S.S.,Prasadrao,E.V.,Mandal,R.K.,Yusuf,S.M.and
Prasad,N.K.,2016. StructuralandmagneticcharacterizationofZr-substitutedmagnetite(Zrx
Fe3− xO4,0≤x≤1).JournalofMagnetismandMagneticMaterials,401,pp.559-566.
doi:10.1016/j.jmmm.2015.10.087
·Guibert,C.,Dupuis,V.,Peyre,V.andFresnais,J.,2015. HyperthermiaofMagneticNanoparticles:
ExperimentalStudyoftheRoleofAggregation. TheJournalofPhysicalChemistryC,119(50),
pp.28148-28154.doi:10.1021/acs.jpcc.5b07796
·Deka,S.,Singh,R.K.andKannan,S.,2015. In-situsynthesis,structural,magneticandinvitro
analysisof α-Fe2O3–SiO2binaryoxidesforapplicationsinhyperthermia.Ceramics
International,41(10),pp.13164-13170.doi:10.1016/j.ceramint.2015.07.091
·Griffete,N.,Fresnais,J.,Espinosa,A.,Wilhelm,C.,Bée,A.andMénager,C.,2015. Designof
magneticmolecularlyimprintedpolymernanoparticlesforcontrolledreleaseofdoxorubicin
underanalternativemagneticfieldinathermalconditions.Nanoscale,7(45),pp.18891-18896.
doi:10.1039/C5NR06133D
·Arteaga-Cardona,F.,Rojas-Rojas,K.,Costo,R.,Mendez-Rojas,M.A.,Hernando,A.anddelaPresa,
P.,2016. Improvingthemagneticheatingbydisaggregatingnanoparticles.JournalofAlloysand
Compounds,663,pp.636-644.doi:10.1016/j.jallcom.2015.10.285
·Teleki,A.,Haufe,F.L.,Hirt,A.M.,Pratsinis,S.E.andSotiriou,G.A.,2016. Highlyscalable
productionofuniformly-coatedsuperparamagneticnanoparticlesfortriggereddrugrelease
fromalginatehydrogels.RSCAdvances,6(26),pp.21503-21510.doi:10.1039/C6RA03115C
·Carrião,MS.,andBakuzis,AF.,2016. Mean-fieldandlinearregimeapproachtomagnetic
hyperthermiaofcore-shellnanoparticles:Cantinynanostructuresfightcancer? Nanoscale.doi:
10.1039/C5NR09093H
·Rose,L.C.,Bear,J.C.,Southern,P.,McNaughter,P.D.,Piggott,R.B.,Parkin,I.P.,Qi,S.,Hills,B.P.
andMayes,A.G.,2016. On-demand,magnetichyperthermia-triggereddrugdelivery:
optimisationfortheGItract.JournalofMaterialsChemistryB,4(9),pp.1704-1711.doi:
10.1039/C5TB02068A
magneTherm™publicationsPI-405-35
nanoThericsLtd,Studio3–Unit3,SilverdaleEnterpriseCentre,Staffordshire,ST56SR.UnitedKingdom.www.nanotherics.com
·Gas,P.andMiaskowski,A.,2015. Specifyingtheferrofluidparametersimportantfromthe
viewpointofmagneticfluidhyperthermia.InSelectedProblemsofElectricalEngineeringand
Electronics(WZEE),2015(pp.1-6).IEEE.doi:10.1109/WZEE.2015.7394040
·Whiting,N.,Nolan,B.andKauzlarich,S.,2015. DevelopmentofSilicon-Coated
SuperparamagneticIronOxideNanoparticlesforTargetedMolecularImagingand
HyperthermicTherapyofProstateCancer.MDANDERSONCANCERCENTERHOUSTONTX.
·Subramanian,M.,Miaskowski,A.,Pearce,G.andDobson,J.,2015. Acoilsystemforreal-time
magneticfluidhyperthermiamicroscopystudies.InternationalJournalofHyperthermia,pp.1-9.
doi:10.3109/02656736.2015.1104732
·Bandara,H.M.H.N.,Nguyen,D.,Mogarala,S.,Osiñski,M.andSmyth,H.D.C.,2015. Magneticfields
suppressPseudomonasaeruginosabiofilmsandenhanceciprofloxacinactivity. Biofouling,
31(5),pp.443-457.
·Prasad,N.K.,Srivastava,M.,Alla,S.K.,Danda,J.R.andDivvela,A.,2016. ZrxFe3-xO4(0.01≤x≤
1.0)nanoparticles:apossiblemagneticin-vivoswitch. RSCAdvances.doi:
10.1039/C6RA04815C
·Kim,K.S.,Kim,J.,Lee,J.Y.,Matsuda,S.,Hideshima,S.,Mori,Y.,Osaka,T.andNa,K.,2016.
Stimuli-responsivemagneticnanoparticlesfortumor-targetedbimodalimagingand
photodynamic/hyperthermiacombinationtherapy. Nanoscale,8(22),pp.11625-11634.doi:
10.1039/C6NR02273A
·Lima-Tenório,M.K.,Pineda,E.A.G.,Ahmad,N.M.,Agusti,G.,Manzoor,S.,Kabbaj,D.,Fessi,H.and
Elaissari,A.,2016. Aminodextranpolymer-functionalizedreactivemagneticemulsionsfor
potentialtheranosticapplications. ColloidsandSurfacesB:Biointerfaces,145,pp.373-381.doi:
doi:10.1016/j.colsurfb.2016.05.020
·Koutsiouki,K.,Angelopoulou,A.,Ioannou,E.,Voulgari,E.,Sergides,A.,Magoulas,G.E.,
Bakandritsos,A.andAvgoustakis,K.,2016. TATPeptide-ConjugatedMagneticPLA-PEG
NanocapsulesfortheTargetedDeliveryofPaclitaxel:InVitro. AAPSPharmSciTech,pp.1-13.
doi:10.1208/s12249-016-0560-9
·Subramanian,M.,Pearce,G.,Guldu,O.K.,Tekin,V.,Miaskowski,A.,Aras,O.,Unak,P.,2016. A
PilotstudyintotheuseofFDGmNPasanalternativeapproachinneuroblastomacell
hyperthermia. IEEETransactionsonNanobioscience[acceptedforpublication].(99).doi:
10.1109/TNB.2016.2584543
·Srivastava,M.,Meena,S.S.,Mandal,R.K.,Yusuf,S.M.andPrasad,N.K.,2016. ACmagneticfield
regulatedin-vivoswitchofHf-substitutedmagnetite(HfxFe3− xO4,0.01≤x≤0.8)
nanoparticles. JournalofAlloysandCompounds[acceptedforpublication].doi:
10.1016/j.jallcom.2016.06.287
·Espinosa,A.,Bugnet,M.,Radtke,G.,Neveu,S.,Botton,G.A.,Wilhelm,C.andAbou-Hassan,A.,
2015. Canmagneto-plasmonicnanohybridsefficientlycombinephotothermiawithmagnetic
hyperthermia?. Nanoscale,7(45),pp.18872-18877.doi:10.1039/c5nr06168g
·Espinosa,A.,DiCorato,R.,Kolosnjaj-Tabi,J.,Flaud,P.,Pellegrino,T.andWilhelm,C.,2016. Duality
ofironoxidenanoparticlesincancertherapy:amplificationofheatingefficiencybymagnetic
hyperthermiaandphotothermalbimodaltreatment. ACSnano,10(2),pp.2436-2446.doi:
10.1021/acsnano.5b07249
·DiCorato,R.,Béalle,G.,Kolosnjaj-Tabi,J.,Espinosa,A.,Clement,O.,Silva,A.K.,Menager,C.and
Wilhelm,C.,2015. Combiningmagnetichyperthermiaandphotodynamictherapyfortumor
ablationwithphotoresponsivemagneticliposomes.ACSnano,9(3),pp.2904-2916.doi:
10.1021/nn506949t
·Chudzik,B.,Miaskowski,A.,Surowiec,Z.,Czernel,G.,Duluk,T.,Marczuk,A.andGagoś,M.,2016.
EffectivenessofmagneticfluidhyperthermiaagainstCandidaalbicanscells. International
JournalofHyperthermia,32(8),pp.842-857.doi:10.1080/02656736.2016.1212277
magneTherm™publicationsPI-405-35
nanoThericsLtd,Studio3–Unit3,SilverdaleEnterpriseCentre,Staffordshire,ST56SR.UnitedKingdom.www.nanotherics.com
·Guibert,C.,Fresnais,J.,Peyre,V.andDupuis,V.,2017. MagneticFluidHyperthermiaprobedby
bothcalorimetricanddynamichysteresismeasurements. JournalofMagnetismandMagnetic
Materials,421,pp.384-392.doi:10.1016/j.jmmm.2016.08.015
·Miaskowski,A.,Sawicki,B.andSubramanian,M.,2016.Identificationofdiffusioncoefficientsin
heatequationonthebaseofnon-adiabaticmeasurementsofferrofluids. InComputational
ProblemsofElectricalEngineering(CPEE),17thInternationalConferenceon.IEEE.September.
·Choi,H.,Kim,S.J.,Kim,C.S.andChoi,E.H.,2016. Characterizationofpartially-invertedzinc
ferritewithabio-plasmatreatment.JournaloftheKoreanPhysicalSociety,69(5),pp.847-851.
doi:10.3938/jkps.69.847
·Lak,A.,Niculaes,D.,Anyfantis,G.C.,Bertoni,G.,Barthel,M.J.,Marras,S.,Cassani,M.,Nitti,S.,
Athanassiou,A.,Giannini,C.andPellegrino,T.,2016. FaciletransformationofFeO/Fe3O4coreshell
nanocubestoFe3O4viamagneticstimulation.ScientificReports,6,p.33295.
·Laili,CR.,Hamdan,S.2016. HeatingBehaviourofIronOxideNanomaterialsviaMagnetic
NanoparticleHyperthermiaAsianJournalofChemistry 2675-2679.
dx.doi.org/10.14233/ajchem.2016.20068
·Voulgari,E.,Aristides,B.,Galtsidis,S.,Zoumpourlis,V.,Burke,B.P.,Clemente,G.S.,Cawthorne,C.,
Archibald,S.J.,Tucek,J.,Zboril,R.andKantarelou,V.,2016. Synthesis,characterizationandin
vivoevaluationofamagneticcisplatindeliveryNanosystembasedonPMAA-graft-PEG
copolymers. JournalofControlledRelease.doi:10.1016/j.jconrel.2016.10.021.
·Beck,M.M.,Lammel,C.andGleich,B.,2016. ImprovingHeatGenerationofMagnetic
NanoparticlesbyPre-OrientationofParticlesinaStaticThreeTeslaMagneticField.Journalof
MagnetismandMagneticMaterials.doi:10.1016/j.jmmm.2016.11.005
·Crippa,F.,Moore,T.L.,Mortato,M.,Geers,C.,Haeni,L.,Hirt,A.M.,Rothen-Rutishauser,B.and
Petri-Fink,A.,2016. Dynamicandbiocompatiblethermo-responsivemagnetichydrogelsthat
respondtoanalternatingmagneticfield. JournalofMagnetismandMagneticMaterials.doi:
10.1016/j.jmmm.2016.11.023
·Benyettou,F.,Flores,O.,Alonso,J.,Ravaux,F.,Rezgui,R.,Jouiad,M.,Nehme,S.I.,Parsapur,R.K.,
Olsen,J.C.,Selvam,P.andTrabolsi,A.,2016. Mesoporous γ‐IronOxideNanoparticlesfor
MagneticallyTriggeredReleaseofDoxorubicinandHyperthermiaTreatment. Chemistry-A
EuropeanJournal,22(47),pp.17020-17028.doi:10.1002/chem.201602956
·Choi,H.,Lee,S.,Kouh,T.,Kim,S.J.,Kim,C.S.andHahn,E.,2017. Synthesisandcharacterization
ofCo-Znferritenanoparticlesforapplicationtomagnetichyperthermia. JournaloftheKorean
PhysicalSociety,70(1),pp.89-92.doi:10.3938/jkps.70.89
·Choi,H.,An,M.,Eom,W.,Lim,S.W.,Shim,I.B.,Kim,C.S.andKim,S.J.,2017. Crystallographicand
magneticpropertiesofthehyperthermiamaterialCoFe2O4@AlFe2O4. JournaloftheKorean
PhysicalSociety,70(2),pp.173-176.doi:10.3938/jkps.70.173
·Bonvin,D.,Arakcheeva,A.,Millán,A.,Piñol,R.,Hofmann,H.andEbersold,M.M.,2017. Controlling
structuralandmagneticpropertiesofIONPsbyaqueoussynthesisforimprovedhyperthermia.
RSCAdvances,7(22),pp.13159-13170.doi:10.1039/C7RA00687J
Patents
·Krishnan,K.M.,Ferguson,R.M.andKhandhar,A.P.,UniversityofWashingtonthroughitscenterfor
commercialization,2011. Tunedmultifunctionalmagneticnanoparticlesforbiomedicine.U.S.
PatentApplication13/805,763.doi:10.1517/14712598.8.10.1571
·Trabolsi,A.andBenyettou,F.,NewYorkUniversity,2016. Compositionsandmethodsforimaging
andtreatment.U.S.Patent20,160,038,610.
·Riedinger,A.,Pellegrino,T.,GuardiaGiros,P.,Curcio,A.,Cingolani,R.andManna,L.,Fondazione
IstitutoItalianoDiTechnologia,2015. Heat-SensitiveNanoparticleSystem.U.S.Patent
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·Subramanian,M.,Jones,C.N.,nanoThericsLimited,2016. Methodandapparatustoenablereal
timenon-contactinvitrotemperaturemeasurementfornanoparticlecalorimetryintime
varyingmagneticfield. GB1611248.4