Literature DB >> 31667234

Experimental data demonstrating the effects of silver nanoparticles on basement membrane gene and protein expression in cultured colon, mammary and bronchial epithelia.

Susan T Yeyeodu1, Megan E Martin2, Denise K Reaves2, Jeffrey R Enders3,4, Lindsey M Costantini2, Jodie M Fleming2,3,5.   

Abstract

This data article is related to the research article entitled "Silver nanoparticles alter epithelial basement membrane integrity, cell adhesion molecule expression and TGF-beta secretion", available in the journal Nanomedicine: Nanotechnology, Biology, and Medicine [1]. This Data in Brief consists of data that describe changes in the expression of basement membrane (BM)-associated genes and proteins in three non-transformed epithelial cell lines following acute (6 h) and chronic (24 h plus 7-day chase) exposure to silver nanoparticles (AgNPs). Human BEAS2B (lung), MCF10AI (breast), and CCD-18Co (colon) cultured epithelia were analyzed for protein expression by LC-MS/MS and for gene expression by pathway-focused QRT-PCR arrays of 168 focal adhesion, integrin, and extracellular matrix (ECM) genes known to be localized to the plasma membrane, the BM/ECM, or secreted into the extracellular space. Ingenuity pathway analysis (IPA) of combined gene and protein expression datasets was then used to predict canonical pathways affected by AgNP exposure.
© 2019 The Author(s).

Entities:  

Keywords:  Basement membrane; Epithelial cells; Extracellular matrix; Intracellular signalling pathway analysis; Silver nanoparticles; TGF-Beta

Year:  2019        PMID: 31667234      PMCID: PMC6811978          DOI: 10.1016/j.dib.2019.104464

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table The majority of data describing in vitro silver nanoparticle (AgNP) toxicity has been generated from transformed (cancer) cell lines. In contrast, the data provided in this article characterizes AgNP-induced changes in the protein and gene expression of non-transformed (“normal”) epithelial cell lines derived from lung, colon and breast tissue. Thus, these data provide baselines for comparison in future experiments that explore the pathophysiology of diseases induced by AgNP toxicity. More broadly, the control/baseline datasets of gene and protein expression from normal lung, colon and breast cell lines available in this article can be used for comparison a) with gene and protein expression in normal or diseased lung, colon and breast tissue in vivo, and b) with the same or similar cell lines tested in vitro and in vivo that have been altered by disease, genetic engineering or exposure to pathogens, therapeutic agents or toxins. The datasets available in this article identify panels of genes and proteins affected by AgNPs which embed in the extracellular matrix (ECM) and basement membrane (BM). These data have the potential to inform experiments to determine the outside-in/extracellular signaling effects of AgNP exposure on epithelial cells that support AgNP-stimulated intracellular signaling events and overall organ function. Most published datasets on molecular changes in the ECM include either proteomic or transcriptomic data, but not both, from a variety of species, tissue sources and/or methods of sample preparation. Data provided here include the expression of both proteins and genes associated with the ECM. Comparison of protein and gene expression data can be used to reveal post-transcriptional processes such as those that regulate ECM composition during tissue repair in murine lung [2]. These in vitro data provide a starting point for future, more clinically relevant in vivo experiments that can address the complex interactions between the ECM and diverse cell types in surrounding tissues [c.f. Ref [3]].

Data

Table 1, Table 2 summarize changes in protein expression induced by acute and chronic AgNP treatment, respectively, of BEAS2B (lung), MCF10AI (breast), and CCD-18Co (colon) cultured epithelia as determined by LC-MS/MS data. Table 3 summarizes changes in protein expression between 6 hours and 8 days in the three epithelial cell lines based on data in Table 1, Table 2. Table 4 provides QPCR array data of acute and chronic AgNP-induced changes in basement membrane-associated genes in BEAS2B (lung), MCF10AI (breast), and CCD-18Co (colon) cultured epithelia. Table 5, Table 6, Table 7 summarize IPA analysis derived from LC-MS/MS protein data of AgNP-treated colon, lung and mammary epithelia, respectively. Fig. 1, Fig. 2 illustrate the top canonical pathways and primary causal networks, respectively, associated with acute AgNP exposure in the three epithelial cell lines based on LC-MS/MS analysis data. Fig. 3, Fig. 4 display top canonical pathways and primary causal networks, respectively, associated with chronic AgNP exposure in the three epithelial cell lines based on LC-MS/MS analysis data. Fig. 5, Fig. 6 display top canonical pathways and primary causal networks, respectively, associated with changes between acute and chronic AgNP exposure in the three epithelial cell lines based on LC-MS/MS analysis data. Fig. 7A–F display top canonical pathways based on QPCR pathway-directed microarray data from the three epithelial cell lines exposed to acute (A-C) and chronic (D-F) AgNP; Fig. 7G-L display primary causal networks based on QPCR pathway-directed microarray data from the three epithelial cell lines exposed to acute (G-I) and chronic (J-L) AgNP.
Table 1

Molecules significantly changed by Acute AgNP treatment conditions.

Colon (CCD-18Co
Lung (BEAS2B)
Mammay (MCF10A)
Gene IDp-valueGene IDp-valueGene IDp-value
APOB0.000231287625763HNRNPA15.22453673611143E-06RRP1B0.000226525652823
ARFGEF10.000387774005441HNRNPA1L25.22453673611143E-06PRMT10.000277225136104
SLC38A20.000609581098547EIF4A36.87382699979445E-05PLXNA20.000595724408464
ANKRD280.000777563004275SUMO10.000158217906813TMOD30.000611830255566
ZC3HAV10.000997417455523RPS160.000291671637778DDX50.000828034211712
ACTBL20.001014735842262PRMT10.000396085680618PTGS10.000895634661421
ZYX0.001346984623106COX6C0.00063743218428PROM20.000900204274014
DAD10.001835370392037HNRNPM0.000899754279671DIRC20.00108293371946
BMS10.002155539571948GRHPR0.000952778373007SLC25A220.001111438313227
TET10.002176421762365CLTC0.00102559841612SLC25A180.001111438313227
LGALS3BP0.002673740447079LDLR0.001607596755182SUN10.001116263275584
PPT10.003146313110455SEPT110.001756524759143UNC84A0.001116263275584
SPC250.003512671124945MT-ATP80.002099214535705IFITM20.001234253745949
C2CD20.004438969494329COPA0.002155699935746IFITM30.001234253745949
MRPL420.004535499380405NOP20.002305914499089PPP1R13L0.001295201972592
TXNRD10.004832496990513DDOST0.002665187005749AASDHPPT0.001343264099889
MFN20.005164066451884HNRNPA30.002707503804777TWF20.001547352122358
UBQLN10.005204059931719TKT0.002762578655347SLC25A60.001793098302442
PDLIM40.005233337791473SLC4A70.00286263749303CRNKL10.001818746811442
DNAJA10.005291134458888HCFC10.003006557651275DSG20.002671776404765
SRSF30.00568059031865SLC38A20.003108020748191TBL30.002943163375187
CSK0.005976254559695COPB10.003192685433245NOL60.003023225724231
CD630.006385313301993XPO10.003326097538269MYADM0.003097377351363
BST20.006393047026118UQCR100.003536164258916RAB5A0.003229958392031
HIST1H4A0.006963299805153ALG20.003595634496192TUFM0.003584379653529
PIN10.008162424584833SQSTM10.003649096724747EIF3G0.003639818418501
ABCD10.008270028881683MTAP0.00365891849275COX6C0.003656540643359
SCFD10.008295551069184PHB20.003680460873438STAT20.004114370694272
CDC370.008449180528454TGM20.003735797493511TPR0.004128792357932
EPB41L30.008779692934559PGK10.003837974426636ZYX0.004586543137969
CSRP10.008812094722484STT3A0.003983126512355FAM49B0.004623576237298
VMA210.009123740930331DLD0.004567900069862TXNRD10.004803846659445
PELO0.009181647523479MRE11A0.004597782505694RPL50.005353032557464
FMNL20.009462481308876ACOT70.004789157736081EDC40.005512620049495
FMNL30.009462481308876GAR10.004954045883672EHD10.006362860538077
EPPK10.010520586220155NME10.00508867370817YWHAZ0.006423275463892
ALG50.010603295146752CSTF30.005303608785095PGD0.006490026654547
ITGA70.010995484265858NOL100.005535613804721TSPAN40.006818153191625
MRPL230.01118857384593F30.006105317297521LASP10.007471541030816
ADCK30.012207478208278PI4KA0.006186743175936SRRM20.007486015366276
GPI0.012433926051881PI4KAP10.006186743175936SUMO10.007570862774265
MAP1B0.012691405109492PI4KAP20.006186743175936CYC10.008020043280681
UBE2Z0.013263454104745DHX90.00635577849047GMPS0.00810507461498
RPS80.013557237900314PABPC40.006381937339507CLTC0.008597932512424
TCP11L10.014992103510163ILVBL0.006457575040699ACAA10.008968965519452
EXOSC100.01531213171489SNW10.006872111198003LDHB0.009145481609885
PPP1CB0.015642280711026SNRNP2000.007336436965766EPHA20.009201711519531
PGK10.015655033856218UTP180.007749669700717HINT10.010339271132165
VAMP30.015694876320621EMC70.00781356791533ENY20.010357399487267
IRX20.015764863584757TSG1010.007865231475941DNM20.010520566525831
CPOX0.01632320868632SLC25A60.00802132872281TMEM41B0.010604775651278
PDLIM10.016659982574041C7orf550.008263335751838TXNDC50.010799586865328
ABCD30.016939515674337LUC7L20.008263335751838LIMA10.010902445119101
MRPS70.017267793214114RPS17L0.008352298272271COPB10.010915980091817
MRPL220.017426787627885RPS170.008352298272271SURF40.010923100269767
STAT30.017926910993197SNTB20.008683761058809CCT50.011068492668342
PTRHD10.018081185312224NAT100.009348888558558CD630.011523486913144
SLC25A60.018323846391774DSTN0.009564207862485DDX210.01184792321053
SNTB20.018514708893976MRPS170.009634507997786NUP2140.012377399450407
TM9SF10.018706484886245CNIH40.010097579194506PTPRF0.012875816281539
SLC16A30.018817318334633EPPK10.010264940677707TXNL10.012965334296902
UBE2K0.019092948606322PRPF310.01031939130842DYNC1H10.013720143081198
TEX2640.019280931663299NSA20.010354924910338CMBL0.014255026741696
PRMT10.019585873076313RCC20.010707968093177MRPS270.015717066238882
WDR430.019781698932739CAND10.010789032771595PITRM10.01588357064183
RPS140.020278018860415FASN0.010993643748442RETSAT0.016743935933565
GAK0.020395432950892LPCAT10.011741620035102NCAPH0.016917450470554
CYB5R30.0205562332646XRCC60.011762969543044GNG120.016947400202581
SUN10.02108714735809CAD0.011881280489847HDAC20.017024013497087
UNC84A0.02108714735809VDAC10.012009352959895CDC42BPB0.017101837162619
HEATR10.021327832970384SRP90.012045461706109TMPO0.01823375774635
VDAC20.021349972536658LASP10.01221550927402RPL7L10.018235398395922
TGFBR10.021511283554538PHGDH0.012465007861747CHD40.018318731088722
GNB10.021540662118313CCDC220.012659180610054MYL60.018522058276328
PRPF40.022199684698654ZMYM6NB0.013021170688271GCLC0.018732779452971
RABGGTA0.022675671380617EIF3G0.013079608020579SF3A10.018876740802136
SF10.022808076937076SRRM20.013414883973585EIF4G20.018959391066718
SLK0.022823974978211RTN40.013648201733525USP140.019179519025448
GPR89B0.02329850965464RPL150.013660882591582AGO20.019284383323512
GPR89A0.02329850965464CCT20.014195883308151GSPT10.019779462622023
GPR89C0.02329850965464ZYX0.014757729780239GSPT20.019779462622023
COG50.023879723148424GOLPH30.015249596442067HPRT10.01984767514602
TNKS1BP10.024901205286217DNAJC90.015465816960935DARS0.019928435750908
ATAD3A0.025112116126869TUBGCP20.015959617879774DKFZp781B112020.019928435750908
C7orf500.025607462477173RPN20.016016784839929NAPG0.019978083669788
COX200.026016463019183MBOAT70.016081913266331NCLN0.020067924342772
CADM10.026507049199252DIMT10.016292818734234TOMM400.020521701130667
RFC50.026737103030205NUP850.01634009411703SAR1A0.020724286077859
TTYH30.026805998055966RAB120.016403760411276RSL24D10.021241734165922
GALE0.02690833138777MYBBP1A0.016531247739701VDAC20.021381418886571
TMEM20.026923733507169HNRNPA00.016703765974718PPID0.021523459034648
DHX150.027244051598445SLC2A10.017427224134666TPM30.021541792499738
DDX50.028028957598023SFRS30.017623012021422DKFZp686J13720.021541792499738
S100A100.02808587188919SRSF30.017623012021422VPS290.021549980162664
AGFG10.028183306162743PDLIM50.01778762846831COG30.021806197236079
RFC30.028278848051549IMPDH20.017819648130724GALK10.02232138134806
SLC25A110.028645520264937IPO40.01804396610513ENDOD10.022387317369289
AKAP20.030146185334183PHIP0.018205473701429BET1L0.022679788718574
PPP1CA0.030262879694153AHCY0.018240872252383CCT70.022730741149432
SPG70.030281021487912GOSR20.018294071314393RPS180.022996177165986
RHEB0.030554567930204SLC27A40.018416766205275ALDH9A10.023716574165439
PFDN60.031201181576692MYO1B0.018482824386929CKMT1A0.024034527148651
MGST30.031306640128498MPDU10.018557831087075CKMT1B0.024034527148651
PNO10.031307364447942PANX10.019071908576041TTC10.025148665897153
VIM0.031358414796026SDHC0.019075634895094NAA100.025175947737159
FUS0.031412121808725MRPL190.019158670533296KPRP0.025213621112955
SCD0.031512655684839SF3A20.019212482122539SDHC0.025233851313238
CIT0.031620521865646TOMM220.019727420298637PDCD6IP0.025403778132636
AIP0.032014844557122HEBP20.019800274167558RPS140.025456143415631
TCEA10.032092806465569GFPT10.02097993150754PFN20.025552474210762
HIST2H2AC0.032468566441941SLC12A40.02113653732755NUCB20.025755370532827
HIST2H2AA30.032468566441941ELAVL10.021286176701248HARS0.025832193501161
HIST1H2AJ0.032468566441941CIRBP0.02193919172492MRPS260.025833599339365
HIST1H2AH0.032468566441941SF10.022260062809103TRIM560.025925228184471
H2AFJ0.032468566441941SHCBP10.022324174309417MPDU10.026011222428955
HIST1H2AD0.032468566441941MAL20.022712755154418CNP0.026054846147087
HIST1H2AG0.032468566441941CDC420.023415915788278TIPRL0.026121499386631
PFKM0.032564784238456SLC25A120.023546046832408ADD30.026180587212181
PHPT10.033810776336437MFSD100.024395218408174RFC40.026445326090428
CCT30.034103921816157MT-ND40.024797656886567PRPF4B0.026598192168766
CNIH10.034398032590271FNDC3B0.024908410022408PSMB70.026723742098685
SEC630.034448863368575SF3A10.024917137134698SEC23IP0.027272640285834
CAV10.03512370499182HMGB20.025133472809083RPL30.027448749040366
VPS4A0.035177748776296EDC40.025430230593435TRIOBP0.027830659966861
NIFK0.035208710033552UBA10.025451629420939ITPRIP0.028062120438334
DDX560.035335123071924PRPS10.025891302966963SCRN10.028202583079995
RPN10.035448143087613NUSAP10.026279132372623SAMD90.029007073507971
VAPA0.035860077864977VIM0.026432420058083DSP0.029412852005501
RPLP10.036016088054509DYNC1H10.026651675925698SLC22A180.029536101317406
PPL0.036078215514732ANLN0.026877792966651TLN10.029858440714657
NCKAP10.036107690459537OPA10.027187790423726UBE2L30.029888411412698
COL12A10.036282319391976MPZL10.02742009257935CSRP10.0306249864334
LANCL10.036307143134736IQGAP30.027549630223456DCTN20.030790565236411
PPIE0.036634493505003NCKAP10.027559381462937VDAC30.031492367797067
PPP1R14B0.037008549700082TUBB0.028009752300089ATP6V0D10.031916655797513
LIMK20.037008549700082ITPR30.028117176896396HEATR10.032619213256822
LCLAT10.038061507275881TNPO10.028437158410456GTPBP10.032674060269372
MRPL150.038169122052756CD2AP0.029060545751431TMED30.033181681867598
UGDH0.038779239507662CENPV0.029091933038999YBX30.03331498183205
HYDIN0.039075449883277VDAC20.029179665586678ANP32E0.033397321701816
TMEM1890.039747329423226HNRNPA2B10.029220015831537HMGN10.03356708416162
TM9SF40.040673054254152RPS20.029461736174923YWHAE0.034163998120851
FXR20.040829706737347EIF4G20.029974765886337MAFF0.035064083498786
PMPCB0.040883397384934ETFB0.030695030868564RAB2A0.035171296100089
PGD0.040912225263318RPS150.030781461470498TIA10.035392299549179
RAB2A0.041162183143889EIF2S20.030784172299042EXOSC70.035595080898318
KIF5B0.041669486435787SAR1B0.030838535857171ATP6V1B20.035803052658837
BCL2L130.041771873917816DKFZp434B20170.030838535857171FUS0.036441682386489
UNC45A0.042124827954157IGF2BP30.030872049584788CLDN70.036546144240182
NXF10.042850480961424ARPC30.031987116181073PRKDC0.037095090609212
RAB5C0.042869367525556ACO10.032117255422848VCP0.037102459751318
CD1510.043266188997899IRP10.032117255422848ERP440.037343624594792
TIMM500.043394976827042MAT2B0.032271888399787CSTF20.037420316615045
GOLGA30.043537126164822APEH0.032555166382833CSTF2T0.037420316615045
FNDC3A0.044006679086649CLN60.032671687397793OPTN0.038187216882936
TXNL10.044518752124354SUPT6H0.032723164348351DNAJA10.038268287845525
KIRREL0.045101995992972PTPN110.032817102203369NIP70.038463060840025
LIG30.045291823434148PRPSAP10.033061071171445PPIA0.038532699912562
SNAP230.045895564156962DDX180.033287311443996RAB180.039059924662796
NOSIP0.046113165902934MRPL400.033676079849436JUP0.03933743261992
SAA10.046848901378812RANBP20.03398204657942RPL270.039392245139739
SAA20.046848901378812MRPS90.034114137013208ACTR20.039458476129526
NQO10.047747859995291TMEM41B0.034202794326918NDUFS50.039544504706276
TAGLN20.047783974601158DPY19L10.034611265244431COX5A0.039545905854819
NSUN20.048012722570739HNRNPH30.034669293216987AIP0.040081683170476
ATP5J2-PTCD10.048371395260439MAP40.035380316264461CNIH10.040366441374702
ATP5J20.048371395260439MRPL240.035385575585143FIS10.040554669639993
DNAJB120.048413435850043HNRNPL0.036067160368316RPS280.040670126653114
ACAT20.048589978572823NDUFA70.036220748711523CCT20.041426603041589
SLC16A10.04925352323993DHCR240.036951786318875SPINT10.041439882363767
PLP20.049592649783622ACTR1B0.036974085697414MAT2A0.041599571891297
PTK70.049644732836356SLC25A50.037127662642273FANCI0.04183417007332
EXOSC30.049733274331674STXBP30.037526990078928ACTN40.04192774647679
PA2G40.037581519046135CCT40.042095800079964
DNAJB60.037875156106342RPL220.042811884245188
PTBP10.038963008743012SENP30.042869486062521
RPL7L10.039003739921948TNKS1BP10.043130443515044
HSD17B40.039260634090604GNL30.043188388290949
SRSF110.039785998732668POLR1E0.043427195420168
SF3B140.039828649381785PTPN110.044023633793177
RPL50.040001871164344SRRT0.044273264416013
DYNC1LI20.040022541203206NAE10.044363285311374
RPLP00.040147383640671AP2M10.045025010332129
RPLP0P60.040147383640671TSN0.045138793492276
CPD0.040186592664847UBA30.045559721745492
PPID0.040361707033336PSMD80.046565078068495
SUMO20.040395738553069HERC40.046660634608427
SUMO30.040395738553069OCIAD20.04671856763971
SUMO40.040395738553069SLC9A3R10.046762209368986
DCAF130.04054935551503RILPL10.046789770847869
MAGOHB0.040581033563259UQCRFS10.047702345753846
MAGOH0.040581033563259UQCRFS1P10.047702345753846
RRP90.041273246174669DKC10.04795464126666
AP2A10.041648103686184TBCE0.048603097803917
ANO100.042200995103737HIST1H1B0.048861479341825
DLST0.042204489965383EIF2AK20.049504002314705
MACROD10.042682916500242GFM10.049779715297848
IARS0.043206099549642AHCY0.049792910769453
EDF10.043548325934466PRKRA0.049839143690143
SQRDL0.043613512665377
HSPB10.043806623613469
GOLGB10.04382355563834
DHRS7B0.04393961099647
PTDSS10.044114769743999
RPN10.044262709794297
ACAT10.044294656309863
MYL90.044658311671535
PAFAH1B10.044912251394459
VPS4A0.045022611148262
AKR1B10.045111729481386
MYADM0.045150497042427
MAN1B10.045162773746598
ENO10.045458068411755
DNAJC130.045478443240726
PLEC0.045478628559484
PRKDC0.045669263041687
ATAD10.045674530590761
PKM0.045902509313299
KPNB10.046125946922567
SRGAP10.046549140051299
SRGAP2C0.046549140051299
SRGAP20.046549140051299
ESYT10.046730563360088
NCAPH0.046861455420858
SNRPC0.046869684140825
CS0.04755599026804
PSMD110.048438884346468
GSPT10.048545960403953
GSPT20.048545960403953
HSPD10.048720365410717
ARPC40.049320443585959
ARPC4-TTLL30.049320443585959
UBE3C0.049377611892574
NPLOC40.049516218669462
PREB0.049695906471427
Table 2

Molecules significantly changed by Chronic AgNP treatment conditions.

Colon (CCD-18Co)
Lung (BEAS2B)
Mammay (MCF10A)
Gene IDp-valueGene IDp-valueGene IDp-value
NOP160.000102267436579GSTP17.45643995698985E-06HYDIN0.000816188767313
GPX10.000152579246674ALDOA0.000126669607621WDR750.001129968106219
GCLC0.001577772847639ENO20.000128617761485RAP1A0.001146283517896
ACOT70.001701546468697PDCD50.000231705348233ALCAM0.001198374611824
PPIE0.002197984924673RPA20.000239028999395SF3B30.001690834284681
RPL230.002812948977478UBE2V10.00029827135473IGF2BP20.003138310869382
METAP10.00364559525432PRCP0.000496925549926PCK20.003391334688521
EEF1E10.005028364742025MYDGF0.000563091741403ALDOC0.003704193814977
CSNK2B0.006606345090918NOC2L0.000678889595585RPS150.003761814029399
RPS20.007177169322026PHGDH0.00084050762021ARPC50.004579138490763
UPF10.007804331612779PLS30.000938938956854SWAP700.005302059813726
TET10.008133468633597HACD30.000986588415963DARS20.006429605928229
NOP90.009155197498028GDI10.001421557721266HMOX10.006584083999339
IER3IP10.010264583234286TPI10.001676897491934UBE2I0.006606767027723
DUT0.010323661215839HM130.001795054222325CDH10.006641949572697
EML20.010348056747955TCEA10.001856079700328NUP620.007022285827574
HMGN10.010744683887679DR10.002059000262156CAPZA20.007052340265518
PVRL20.011380138867175WASL0.002123331494806PYCARD0.007112389756527
VAMP30.01204909230113GSTM30.002158151177994SLC35E10.00724612147683
NDUFB50.012714595059011TBRG40.002172283740892CWF19L10.007719032917852
FBLIM10.01283437873768BLVRA0.002258835500326LGALS10.007859290736339
ATP6AP10.013162524809982NIT20.002354704296246MRPL400.009043559941229
NMNAT10.013248987410444HDGF0.002760620843881SEC14L20.01112202343708
STT3B0.014094839318089MDH20.002822109996685GEMIN40.011320673187743
BBOX10.014713087359506RPL7A0.002833294156389SLC22A180.01133567223914
WDR260.01532692379904RPL22L10.003059963371581ATP6AP20.011649916970073
MSN0.015697051512636COL12A10.003150938670078ERP440.01198952805729
EZR0.016505993113143TBCA0.003284428202612TPD520.013175063090262
EXOSC30.017112656177424HEBP10.00335798962136RPL320.013659249151337
SDF20.01746491417822BCAT20.00357374823763FERMT20.014273172200358
COPS20.017919843720826HADHA0.003642307549926DLAT0.014991339737263
ARFGAP30.017938217652366ACTR30.003691625984744RBM100.015078237143828
RPL340.018087930017053ENO10.003726618759228STXBP30.015094689912414
MSH30.018120841975091SLC25A130.003839028443258NDUFV20.015216133011573
AGRN0.018259205965206CNDP20.003887471798332CTBP20.01571033734899
LAMB10.018394118203222GPI0.004088592009321MRPS270.016049228324964
ETFDH0.018413514414389PFN10.004217920463606C8orf330.016212682083836
SEC22B0.020068658622312RPL40.004266145237169PHB0.016676148233628
PSMA10.021530970909853HP1BP30.004446105859121ERGIC10.017164096487019
SDCBP0.022379034486178BCCIP0.004453404363675FNDC3B0.01733179768575
GPD20.02244517685837CLIC10.004491061119877SPRYD40.017358748908178
GSTK10.022491445710759AGTRAP0.004625687898471SEC630.017628335036449
UBE2D2; UBE2D30.022884210788563RBMS20.004672356043434SLC25A120.017663960504409
FBXO300.023178708974589DIABLO0.004900543683575BLVRA0.017668963917925
RPS27L0.023257577801858TPP10.00499127435589RPL150.018263220710871
NPC10.023730183889373NUTF20.004994813525281EHD20.019178631343528
TMED10.023784086587189CANX0.0053394938392PPP1R70.019890756990299
SEL1L0.024431857961076FAHD10.00554526112985SNW10.020424152770559
GPR89B; GPR89A0.024860017069391OSBP0.005582687966443ACOT70.021322909477462
RNPS10.027039898591936RPL170.005598867277088PGAM10.021685513903222
LEMD20.027226398278768ACTG10.005902721469646IK0.022613575231829
SUMO10.028478544004075KATNAL20.005959784104908SET0.024090601594695
PFN20.030529395586625APEX10.006195861425584MOB1A; MOB1B0.024632931209177
EPB41L20.030687328957884HNRNPA2B10.006224403844595HMG20A0.024793347476798
CERS20.030760542209042DNAJC110.00643541409521PPP1R12A0.025273448815583
NDUFA130.030887729364763GDI20.006475868335677RNMT0.02549888476998
PARP40.030985287147997HMOX20.006562776494759FAM98A0.02615839126873
TOR1AIP20.03150295320592HEXB0.00657735650682YARS20.026372003274182
PTPN10.031796568770893ALDH7A10.006680417144639DLST0.027570698608198
KIAA00200.032336647896505PEBP10.006967037529185SEC61A10.027930312444246
CDS20.033367800213701MTFP10.007136263958499SLC44A20.027989241567404
SNTB20.033371674760233GFPT10.007224998955874STK240.028223886282563
ANO100.033438683455801LARP40.007270799245228XPO70.029137392190364
SRP90.034304532705989ACO1; IRP10.007275580887762ITPRIP0.029409444451346
NEB0.035073625381054GGH0.007311654716582CASK0.029967597448605
TGM20.035285677361793DUT0.007358727957047ACO1; IRP10.030153972421968
FN10.035678964400989RPL13A0.007367668247224ITGB10.030154993071213
UNC45A0.036734114544859NUDT50.007619239415585RPL30.030176307065026
GNAI30.037149135902154GLB10.00770766079442SIN3A0.030243131245225
TFB1M0.037334019512378NNT0.00783006302382IFI160.031010435035415
VAMP70.037857137210366CNIH40.007948332026921P4HA20.031051204234091
RPP300.037922502625981SCARB10.008187002846514LIN7C0.031465089586857
PHPT10.038158051644266TALDO10.008200645900475NCBP10.031504185726774
KPNA30.038531334601815SRPRB0.008263869532791AKR7A20.031537408696946
MRPL420.038559733995003SSR40.008266804862299MAL20.031616192036917
ARPC5L0.039688184018198PSMB30.008457859926762DDX270.031627414853244
ARPC1B0.040725053810991ACSF20.008724540123793ARL8B0.032040754384568
EMC70.040758316545541TXNDC170.009350078186141CNDP20.032618013897939
SPR0.041036762551352SCCPDH0.009524082336948CSNK2A10.032626600872834
BRI3BP0.042092293615321ANXA30.009580844233407LRRC8A0.032749601873397
UQCRQ0.042679557753263UBA10.009606655538542ADCK40.032831701379408
MYCBP0.042683637716761GLO10.009621513604419TMEM2050.033165352792111
GDA0.04295574609257TGM30.009640267569003CNIH10.034332807244484
SAFB0.043062927875486PTCD30.009710074486304ETHE10.034871305459349
OGT0.045182640527177ITGA20.010014514494091VAV20.035450630842936
ATP2B40.045286029081919RPL290.010050987918552MFN20.036604484629507
SEC23A0.045397496085182PRDX50.010123686033618SMARCE10.037191466868621
TUBA4A0.045717549560607PTMA0.010144442407195DDX520.037249302710433
CYB5A0.046202953031268RAN0.010230053798161CYC10.038423669924853
SCAMP20.046835574077924ECH10.010243395706381C4orf270.038462544731574
NUP620.047117250609744PARK70.010296287817891VDAC10.038873925768868
STX170.047692253910341CS0.010442790042035LMF20.038938752428805
TOMM70A0.048248790705325ETFB0.010474937477572NDUFS10.039069794233402
UBE2I0.048459491964116TRIM250.010566382108713SPCS10.040198125041144
CLIP10.048936307199615HIBADH0.010580578640405DDX10.040368668280252
LRRFIP10.049177168904081SRSF90.01075400769739FIP1L10.040472111913078
GOLGB10.049889433421408RPS260.010854641326663TMED40.040499151069757
PFKP0.010924255807384BET10.040547151528895
RPL60.011035564185991RBM140.040789398734788
KPNA40.011035966452746RPS19BP10.041010820137085
RPS80.011037766536237SDHB0.041068347067555
EMD0.011235044257754TMEM1470.041505677162942
NME10.011443976251276DDB10.042437267755066
MRPL130.01155874592855BAZ1B0.042689860135034
RAC20.011898150839041EXOSC60.042963657988297
DLAT0.012381156352691ZC3H150.043030716387912
SRSF10.012491961236189MRPL380.04352164469537
RPL270.012812595090028TRIP130.043776323959272
PCMT10.012944682584357ASNA10.044335927825863
HSPB10.013101233652799TSPO0.044654389849355
ANP32E0.013359893401875UGDH0.04470230735611
QARS0.01341303073706PPP5C0.044861830134044
FASN0.013617998216036MYL60.045677428882186
CD820.013627123917691PDLIM70.045934551610414
RPL30.013750327944981C30.04652278437984
PSIP10.014010182827145HARS0.047086082489919
LEPREL10.014183108113014OGFOD10.04740847939116
PHB0.014259234000647ITGB50.047414684143427
LMAN10.014318142154276PHB20.04745158976481
CTSL0.014359913906275ARID1B0.047904475240394
MIF0.014391813288184NUDCD20.048334553467461
NDUFAF20.014464278489264POR0.048590368609121
BCAP310.014465942074504UBAP2L0.049707916926706
HINT20.014627253424083
STIP10.014774840127175
RRS10.015066179313672
HSD17B120.015253959570474
CYCS0.015298213471277
STMN20.015354623735198
CLPB0.015721285848007
COA30.015901890669628
DTYMK0.015920128066351
RPL140.015965234370569
AK20.01603672968963
LRBA0.016042456528674
RPS130.016369253978614
NASP0.01637507557196
IMP30.016383334287533
ITGA50.016632469745852
UBE2M0.016753870099399
GYS10.016921619971655
RNPEP0.017179503180866
FKBP80.01726038798928
UBE2N; UBE2NL0.017299740359642
RPS180.0173924391667
PCNA0.017498961663866
PAFAH1B20.017645052422399
RPS30.018032729224429
LAMB30.018154146579258
UBE2I0.018161955843411
PPIH0.018196816215514
MLLT40.018247001000656
SOD10.018612615105467
CHCHD30.018644297733898
TUBB30.018807414763783
SLC16A30.019033444053568
ARL30.019536711267107
SRSF60.019647282809113
PDHB0.019798806030319
CIRH1A0.019842393135787
OASL0.019859061761995
ACSL30.020237339213001
STOML20.020483679909488
CLTC0.020693951401821
SMNDC10.020718039952823
LBR0.020774356704003
RPL70.020889510422727
NPEPPS0.020893976821206
PTGES30.02093107189285
RDH110.020969398043848
CTSD0.020994910274986
SLC35F6; C2orf180.021080045656798
PEA150.021172190221945
NUDCD20.021175350280847
HMOX10.021348623708601
GSTO10.02180736635184
TNKS1BP10.02180739580043
PRDX20.021822394220515
TMEM2300.021865082580508
SFN0.021930723293761
RPS90.021994141047509
SFXN10.022434755987925
TP530.02243964826995
GLOD40.022454168156741
CLIC40.022876768089019
RPS4X0.02294406975963
IDH3A0.023170788889634
TXN20.023422139415138
RANBP10.023596098515313
ANXA40.023657669538504
ECHS10.023665764895205
KDSR0.024162102451466
EZR0.024448111842932
RPL350.024472390973923
NQO10.024610661666055
SSR30.024645181015016
RPL80.024871672974189
NSF0.02541040191879
PUF600.026144164026018
DDAH20.026199371702795
MAPRE10.026364088245755
COL17A10.026647641160506
C7orf500.026817718058601
BSG0.026903086460419
LRRC10.027221426515277
ARHGDIA0.02737338438047
ETFA0.027607834567285
SERPINB3; SERPINB40.027759034097406
MTPN0.027892153494141
DHCR70.028214097200114
MACROD10.028435002356811
IDH3B0.028578067958511
GCN1L10.028791187902989
RPS70.028795839381372
COX200.028943226138703
EIF2AK20.029121979799936
TAGLN20.029182400239015
DARS0.029208853138582
NAMPT0.02934103459428
CKAP40.029350177121742
CFL20.029814548089492
CALR0.029828201431842
MBOAT70.029922447134157
VCL0.030135234063699
COPS30.030237003948058
TECR0.030259523093885
RAB5B0.030945805476466
PPAT0.031350837794656
MYOF0.031650866367988
ELAVL10.031825212710529
PPT10.031938331760119
RPL50.032082426815355
AKR1A10.032318025627655
PKP30.032358086286257
ACOX10.032806969764807
CCRL20.032961364799662
FUS0.0332399255545
TMCO10.033241569937229
APOA1BP0.034104089255631
MOB1A; MOB1B0.034421159540398
PRC10.034461460172348
LETM10.034589987285492
AIMP10.035315463826148
MRPL10.035408240298784
ELAC20.035636084242757
SKIV2L0.035649285140241
RPL310.035948001771965
UBE3A0.035967989168347
ACADVL0.035992525562705
SF3A20.036048954876786
ATP2A20.036466380659332
CTPS10.03714262636898
CLPTM1L0.037312665489251
NNMT0.037600543126092
VDAC10.038548770287204
TOP10.038807106980567
ROMO10.038935314839272
STK100.039084553169413
APOL20.039480404371444
CKMT1A; CKMT1B0.039852857975913
AKR7A2; AKR7L0.040008240097819
ITGA60.040052649049214
SCRN10.04006006154094
PABPC1; PABPC30.040404684567024
CRYZ0.040440887333519
SLC2A10.040627991197916
IARS0.040677613011327
STMN10.040919612076939
CD1510.041130255280449
DDX520.041193945322288
FSCN10.041247681191657
MTAP0.041734409025387
PTGR10.041984390644271
PLP20.042344164521116
NIFK0.042488180020558
HYOU10.042818692032959
WDR360.043062702013525
ERP290.043169739840048
AKAP20.043274338130695
EWSR10.04364686388609
IDH20.043669739530499
DDX39A0.04448000475581
IFIT30.04451113083264
MITOL0.044831227430505
PABPN10.045415748105986
DDX39B; hCG_20056380.045936894486145
MDH10.046186040623421
SLK0.04634823334454
ANXA110.046931526835144
DIMT10.046993980399505
SF3A30.047190951854311
LARS0.047502461149355
ZC3HAV10.047699297295937
PTRF0.047823730748009
MX20.04860036239019
MRPL20.048817239934627
LDHB0.04901515070203
MTX20.049305989013682
Table 3

Molecules significantly changed by AgNP over time (6h–8 D).

Colon (CCD-18Co)
Lung (BEAS2B)
Mammay (MCF10A)
Gene IDp-valueGene IDp-valueGene IDp-value
BMS18.90219940492576E-05PHGDH1.8053442924279E-05CRTAP1.38824578153055E-05
EARS20.000580512548097FANCI0.000145735560319CRNKL10.000124692932315
PFN20.00085416472985CA90.000218124378047CDV30.00014104323199
TMEM430.000958499854163PPIB0.000417218290915MRPS60.000320024565658
PRMT10.00109574608526DIMT10.000424690095643PTPRF0.000429600146451
SEMA4B0.001555472521316HNRNPA30.000428502138495TUFM0.000740275207812
ATP2B40.001698930474385KPNA20.000502793916883PROM20.001133964467288
NDUFAF20.001700512654477AGPS0.000642394237796ADCK40.001276347656479
MSMO10.001735738155222HNRNPA1; HNRNPA1L20.000651481635001VKORC1; PRSS530.001397488248341
GLG10.001904481206718PHIP0.000660206476014EEF20.001510762439164
MFN20.001937382622799MDH20.000707464937396NOP100.001615975047584
UQCRQ0.002022181810998KATNAL20.000754502222013PTGS10.001742414963999
PAICS0.002062992348856SSB0.000852598974295PRMT10.0017840349926
SLC16A30.002175446171388GAR10.000879257749421EEF1D0.001897354999761
DSTN0.002284460834409PDCD40.000929801918333CA120.001906439027995
SEC61A10.002312671099911MECP20.000936170604018ACADVL0.001909492796127
RAB2A0.002815434658227433540.00101331201271CDC370.002067185848874
DDRGK10.002839622736533ATP5A10.001020283817231ARL8B0.002164715238048
PPA10.003423965354165APEX10.001030859779331PTK70.002920589471035
PPP1CB0.003525865383642ACSL10.001070134046221HMOX10.002975925713993
ACAT20.003526189077429CS0.001205001577414FOSB0.003265700786809
MRPL410.003576656281789DHX90.001235655502854EEF1A1; EEF1A1P50.003328714888703
VAMP30.003689449187691ACTR20.001287843721569NDUFAF40.003341951335523
ACOT70.003984937595472DNAJC80.001297209919875AASDHPPT0.003503501903208
NSUN20.004014433732789IQGAP10.001341191265058VRK10.003543184529049
PTDSS10.004259517739362HMGB20.001413715314304TRIM560.003716819878129
NASP0.004489983733883SEC61B0.001519755901349ATP6AP20.003863786968723
RPS90.004591240375858PHC2; PHC30.001697507514262DDOST0.00389766025237
FAR10.004690589048227ELAVL10.002066169578682KDSR0.004325605942177
TPD52L20.00471358433446SF3A20.002180795977084GRB20.004357270702677
GAK0.004786717870142TUBG1; TUBG20.002260204503535SRSF40.00440347433841
PVRL10.004820788002019NCL0.002318901448865PTRHD10.004434544932656
LDLR0.004943632169242PPP2CA; PPP2CB0.002350536128954SF3B30.0044986214236
FKBP80.005260313885939HMGB1; HMGB1P10.002394337896824RBM30.004503047496039
HM130.005451132510723AATF0.002396462580377DNAJA10.004544591036216
SNRPB0.005786639734548LPCAT10.002403755779022IGF2BP20.004574932401217
DPYSL20.005919292000497NOP20.002757058733241TMEM330.004659806381862
RPL180.005980138056627SNRPA10.00285943477434ADSL0.00472196595539
PGRMC20.005988866495383MCM30.002905159287196LRRC10.00472351451803
DUT0.006075622651652PDCD6IP0.002953262365103FAM162A0.005025312275628
MRPL150.006185025601255ITGB40.003065248157419PRKDC0.005353105160119
CPT20.006401739170173EIF5A; EIF5AL10.003100883897571STEAP30.005450725756852
AFG3L20.006795252893284ILF20.003106168481721LARP40.005637114159459
SLC39A140.006801725054794CLTC0.003228332897914MOB1A; MOB1B0.005887523661818
SDF2L10.006829834464515NDUFS40.003422145347307MAT2A0.006149498474513
HADHA0.006923780290653DPY19L10.003427706260351CCT20.006361637078673
PTGES0.007167765644743DSC20.003690410005985CASK0.006576503432456
MRPL220.007244888413221ASAP10.003707216176263TET20.006592349501587
NAMPT; NAMPTL0.007407158263087ARPC4; ARPC4-TTLL30.004104736983589PHACTR10.006721957485993
STAT30.007781233826464DYNC1LI20.004224244785702MYADM0.006900752150609
DKC10.008252890211008HSD17B40.00428490715789EIF3G0.006984531211746
TMPO0.008608706360001EIF2B40.004288019362093TOR1AIP10.007039465915218
PRDX10.00864601722588PSMB30.004364944519813LRP10.007268283795628
MAN1B10.008992235234772ACTG10.004437513772166ERVMER34-10.00781532697896
CYB5R10.009002989284376IGF2BP20.004519382308052S100P0.007923453771122
GPR89B; GPR89A; GPR89C0.009685035752879HNRNPAB0.004556671182456ITPRIP0.008141793511831
TOMM70A0.00985727829812TGM20.004559272090698CCT80.008179553129528
RPS3A0.009912903092974TUBGCP20.005365550535116CSDE10.00826017763814
CPD0.010358035005117PPP2R1B0.005367405307559PPP1R70.00841905211178
FDFT10.011384097329045MTHFD10.005656321008585MYOF0.008445362517772
S100A90.011424333483424VCL0.005964086861058BSG0.00849751844836
CSK0.011457219717351TLN10.006095596206959TOR1AIP10.008581380621816
SCFD10.011479252278492GOLPH30.006282031747958CTPS10.008698647936996
SLC22A180.011486958799417ANK30.006287454411422BAIAP20.008954476729437
TCEB20.011536222884829PSMB80.006422887698561COPB10.009054941491304
HMGCS10.011566863040949PDIA30.006503238027354RALA; RALB0.009125503281881
VAPA0.011931203504948CAP10.006525331944948LOXL20.009333406602794
FLOT20.012423390656404PSIP10.006552991186172P4HA20.009570230984127
SEC22B0.013264646154545HNRNPH30.006637755565934ATP5C10.009575490857271
RBM27; RBM260.013274920344656MRPS230.00680490262868ALDH18A10.009660205876263
CRKL0.013329337406524DLAT0.006841330140428BET1; DKFZp781C04250.009963704035784
PCK20.013422523676446ACTB0.006852554643281CD460.009977977977685
EMC70.013446415975091HTRA20.006917601786759OPTN0.010005503721279
GOLGB10.013539643669106PTBP10.007037265329399TWF10.010110476377996
OPA10.013620493118979RRM20.007183363425031SDPR0.01023964305226
EPB41L20.013670914742496ABCB60.007447140906832METTL7A0.010246137843823
CCDC470.013682725662798EPPK10.007716005722363PLXNB20.010297308727828
RANBP20.014264930587397MBOAT70.008214656935344ITPR30.010360522601888
TET10.014465089526579IGF2BP30.008483815857937DDX50.010396762419392
NOP560.014812651064485ANXA40.008831706454686LDHB0.010525314892529
FAM3C0.014949945967253NAT100.008889749507977DPF20.010718245540652
DHCR240.015258898631198ZMYM6NB0.009028705123634PALLD0.010862863685376
MMP10.015503619770998DCTN10.009104149717639ACSL10.011050727900649
VDAC20.015569953952931RAB230.009171892429894SLC39A80.011224351738872
ACSL10.016042813950581NPEPPS0.009338158807476MRC20.011351052477394
MTDH0.016467528303085MYH90.009356838244682CAPRIN10.011423927859134
S100A20.016741133495714ITGB50.009621639112021AHCYL10.011538336028154
DDX540.016898811285716POLD30.009700671180402UBXN10.011710709461661
HAT10.016957551894552USP390.010080371666871G3BP10.012190186940909
TNKS1BP10.017038488014705NOL100.010199257943419NCLN0.012191757044491
MRPS50.017242150144882PTPN110.010298708433261GARS0.01226993645158
ATP5F10.017482591955095MTFP10.010508653017005GLTSCR20.012373642409443
LRRC590.017497736466554ACLY0.010630225846536H1F00.012391159774542
PAM16; CORO70.017505705670074PA2G40.010711255263334RAB5C0.012451264397786
RPL13A0.017799573413327HNRNPL0.010727648432897EIF4E0.012604842707167
CACYBP0.018081655057736UBA10.010749252116201EDF10.012974829602012
MRPS70.018405887613552SQRDL0.011052780553527HPCAL1; HPCA0.013023264696894
HSPA80.018674160720574SLC16A30.011057538177478SLC4A70.013417930187314
GFPT10.019219175579789ITGA20.011181808114291MKI67IP0.013640282288026
TMEM2050.019228425633663CPD0.011315664438743BAG30.013646748366157
ATAD3A0.01937322947724CHID10.011342362913486IMPDH20.013713496902997
CLGN0.019856100758262HSPB10.01145525870626ADAR0.013722617067255
NOC3L0.019910881368507HNRNPA2B10.01147435299909ASPH0.014124565945207
KIAA10330.019996134058914PITPNB0.011493657017458RANBP30.014132905197258
CFL10.020207610065077WDR10.011563980610722DCTN20.014218014455009
SLC25A110.020271584440865NSF0.011751090703484MTHFD1L0.014342746950884
SRPRB0.020369401057665SF3B140.011924177678341ANXA110.014558574946331
PTCD30.020558894838134MT-ATP80.012389248827531FANCI0.014562181909303
CPNE20.020585953677876DNPH10.012636746006702UCHL30.014827502676493
RFC30.020846587202663UTP180.012738202273522GCLC0.014856681473226
PRDX40.021087968519987MAT2B0.012777067848653PPAT0.015390532359132
ABCE10.021206336900293SRP90.013124370158829TPM40.01541570246255
SF3A20.021216685239066DNAJC90.013128026104643CDC42BPB0.016024236255626
SLC25A60.021233985596989ZYX0.013491194541454BRE0.016099983995371
PPP4R10.021237080466552MKI670.013665798111442ATXN2L0.01620499824511
UBE2L30.021755378971892GRHPR0.013687394641254SUN20.016415792225076
PLP20.022423464596259AHCY0.013864741954791BAZ1B0.01647568873437
B4GALT10.022497175851742ACTN10.013869944769392DHRS10.016925427778175
SART30.022539149889191PKM0.014033052062318CCT50.017549165654663
FAF20.022613502238812SDPR0.014314176889041FN10.017742774619541
RPL30.022884175151928DTX3L0.014813886286115GMPPA0.017827086566209
TPT10.023064459976129EEF20.014913482699055TPX2; HCA900.018467398710235
QPCTL0.023530312264859PFKP0.014921308173293UBR50.018585889733867
DCTN40.023533047019734SERPINB3; SERPINB40.015142098664205EEF1E1; hCG_20432750.018764134227863
GBP10.023860206485164OPA10.015651013812695SFXN30.018899390510519
ACAA20.024273116872023FAM210A0.016095938399802TFAM0.018907895372525
ITGA60.024460779682392MCM70.01638235449348COX5A0.018990409820182
GNL30.024461585314268PSMB50.01645743175702LAS1L0.018996290885632
FKBP100.024764899231212MRPS170.016607562048242SLC22A180.019020470664245
ATP5L0.025053126305267CISD10.016738285723702PTGFRN0.019205314758441
FUS0.025295216312364SMS0.016881618933555RAB9A0.019233735516008
GSTK10.025297999125265PABPC40.016959793878621SPINT10.019306208101242
IDI10.025769120572354RANBP20.01709520508628LRRC470.019600642191467
LARP10.026090019191885MRPL190.017191129809307MPHOSPH100.019901101590421
GM2A0.026211202662908AKR1B10.017235118648035POR0.019943506452004
S100P0.026242159423751FLNB0.017528246914698GTPBP40.020411163453904
TIMM500.026368881718374RAB8A0.017657492031244DYNC1LI20.020521673214148
EEF1A1; EEF1A1P50.026455458999469MYBBP1A0.017683339264619TPM3; DKFZp686J13720.020673961516362
RPL60.026519050886935TSG1010.018032135874411SLC16A30.021122829920431
COL12A10.027125327550966ATP5B0.018168971784517SRSF90.021385364052327
CTTN0.027189965784027ANP32B0.018351834807075PLOD10.021420536109697
MIF0.027373625049678NRD10.018369336182959ZNF5960.021439577608275
LONP10.028054520312259DTYMK0.01839857971388ELAVL10.021549645217667
TPD520.028902183670432LRP10.018478130155762CLDN10.022249291134437
APOBEC3B0.029357203718889LYAR0.0188599510884NYNRIN0.022291201155762
PDLIM40.029371583486424PDLIM50.01948578154129SRRM20.02237088061985
CAPZB0.02947534824956CORO1C0.020139145475688DSC20.02241485891727
MYO1B0.029690706412625IARS0.0205087741632678-Sep0.022572895644673
SACM1L0.029695559920528TMEM700.020511233657948MUC10.022916287179215
MRPL170.029762529190204SNRPA0.020798326139302SSR30.023303188090899
WASF20.030141500513569EZR0.02080090838173GYS10.023356274345637
TBCA0.030527010444042GYS10.02093260272211CPD0.02364192803677
DHCR70.030543737241943VDAC10.021055014454826TAP10.023677781729719
KDSR0.030672727525867CSNK1A10.021118216399513BRI3BP0.024016437595199
MRPL420.0317278166702HEATR10.021296660083121CD810.024030848272941
NUP1550.03181166305823GTF3C50.021319312828767MBOAT70.024086510679547
TGM20.031894083637145SDHA0.021608258885608RPS180.024386137116713
ATP2A20.031908559073805PTPRF0.021792994509922EIF4G20.024613866175271
TM9SF10.031969306896574CSTF2; CSTF2T0.022096066282373PRKCDBP0.024696481731597
MKI670.032040264783722SSR10.022175969376362LMNB20.024696723593748
RRM10.032088167495377TOMM220.022358732666662IFI160.024736716054353
DHRS30.032258811063461APEH0.022467677613292ARIH20.025006913139186
OSGEP0.03242892500434HADHB0.022681285577697UGDH0.02512329776908
RAB6A0.032730965260824BRD30.02279708211803C2CD20.025135919635132
SLFN50.032732086192529SET0.022803164810375CAMK2D0.025249701165095
SNX90.032797473993557MCM50.023085178488747EIF3I0.025324087949335
EIF2S20.033225974846872ILVBL0.023210248816811VAV20.025366388837686
KIF2C0.033384237238931HSPG20.023743425872312CYC10.025404790177633
TUFM0.033811311367651AHNAK0.023822441798008PKP20.025591616673106
GNB10.034028660351212HNRNPM0.02411217158064EFHD20.025613990078106
SEC11C0.034106823114781SLC12A40.024272054796737PES10.02572307386099
SLC4A70.034747621219689ERAP10.024426303170543EGFR0.026908186291107
SRP90.035138860484259HNRNPC; HNRNPCL10.024597310128795DDAH10.027054115571908
PGD0.035356250545387VCP0.024803095886508ATP13A10.027314433301865
JUN0.036228767313019SNRPE0.024813200343911HNRNPUL2; hCG_20447990.027324595301086
DDX210.036700475064551CBX30.024981524816091GTF2E20.027406991781637
KRT180.036856025142515CCT80.025115535177894HK20.02748451561476
PCNA0.03703869064914ATIC0.025223176492831HSPA80.027985176196406
SNRPC0.038110046554018PSMD110.025267203503216GIPC10.027990313755136
MRPL110.038492944430456NOC2L0.025507775121587OPA10.028148787025882
NDUFV10.039024412147863AGK0.025882023915COX6C0.028260177789986
ALG50.039052078257846MRPS220.025949589587507PTRF0.02896729832085
8-Sep0.040059500866036431640.026010316117037VCL0.029031421288978
UBXN40.0400967416522HMOX20.026416445783298HSPH10.029244507810198
ACADVL0.040240933560833SHCBP10.026583208170188PCNA0.029277631478876
ARHGEF20.040254560251934SFRS3; SRSF30.027019821067031EIF4A10.029479968919527
PPIA0.040306648839516HSPE10.027137205726697CCT70.029759672121472
HNRNPA00.040659089090388CCT70.02714854364587RBMS20.029900191654786
H1FX0.040660880674766RNMT0.027253996052488TBL30.029995552557221
RSL1D10.040727388100261SF3A10.027345766680684COPB20.030143004032391
PCBP10.041060444256767MPHOSPH100.027422953397422CD360.030243794347784
OAT0.041086025424954FKBP80.027740329905471ZNF2070.031127518695247
RPS60.041548246869191ANXA10.027806028691289NAE10.03116262124055
CSRP10.041946757227102STXBP30.027810703762034CKAP40.031294490810304
IMPDH20.041995675064809PAF10.028043692670092AHCY0.03165947398025
FASN0.042330735683394LSM14A0.028431533445829SDHC0.03168187879169
HMGA10.042488060386211GAPDH0.028636042671187TGOLN20.0320690029155
METAP10.042807060161675DHRS70.028796767365608SARS0.032070856673193
C8orf330.043227193515104LMNA0.028871863087915RAN0.032198960301805
TPM10.043608051290617UQCRB0.029024329069001IPO50.032255099460764
RAN0.043765731081875ERLEC10.029083387174762PPP2R5E0.032520779421543
CCDC220.043824377519062SQSTM10.029169195075913C16orf580.033359174417097
RAB100.044466049522161COPA0.029274244672455EIF1; EIF1B0.033507840309973
LARP4B0.044951519016979TMEM41B0.029418154814256MAOA0.033991984285425
MYBBP1A0.044959031659762TMEM2010.029507601823265ITGA50.03430524174733
AGK0.045256893668999CYR610.029522502556828SUN1; UNC84A0.034560197490484
DDX60.045551723070911UPP10.029535838877329DDX210.034663482213619
C11orf480.046089436630983UBA20.029565249998906TMEM1470.034725012172955
NSDHL0.046589087554638TSNAX; DISC10.029918634422305CSRP20.035307269369821
NOP100.046752959712243POP10.029922416844011PKM; PKM20.036030516337652
RDH140.046770767991563MFSD100.030916399699859NMD30.03610741648908
SRP190.047035327924292SLC25A60.030920334864811OAS30.03622386344081
ARCN10.047037375951493TMEM1090.03097032505605DSG20.036394241248742
TMED100.047087696669729FAH; DKFZp686F132240.031115673654671DPYD0.036627222704875
SLC1A50.047114495205909IVD0.031137349382847SRPK10.0371079748104
HN1L0.047210340053632AK20.031417238810662ARPC30.037157040890348
DGAT10.047764365984012WBP110.031459734874857DAD10.037364429262822
DAD10.048049082283705433580.032009608000601METAP10.037466860624585
CDC370.048135690824494EEF1E1; hCG_20432750.032323017024403CIRBP0.037578531107296
PDAP10.04822096561611IDI10.032337941583088P4HA10.037844551779456
ERGIC10.048327525975867MT-ND40.032376042948936BCAT20.038013706114236
RPL280.049026456822722DCAF70.032852011030742NRP10.038082753950453
IGF2BP20.049058985937291ATP2A20.032936727886379NDRG10.038373208406378
SFXN10.049195408876161PDE120.033263239848297UBE2L30.038591504225394
UNC45A0.049615153151326ACO1; IRP10.03328535637132CD970.038860065477331
SCD0.049680382150559LETM10.033936598315055TMEM20.038969995613597
PHB20.03397175405248PYGB0.039081679189421
ITGA10.034266242543753TMSB100.039963848570791
ZNF3460.035407962723055SEC22B0.04049143360414
NDRG10.035527696328217MYL60.04049832981817
ERP290.035576077357172PHB0.040619099392457
C30.03580248449937MGST30.040889045475386
TCP10.035861077110922STXBP20.04094875851427
PVR0.035894764662706GPRC5A0.040953982772269
FASN0.036002208550064VPS4A0.040955809249011
CCT20.036332378659438LDLR0.04131058146994
GSR0.036419796652096PDCD6IP0.041603615762278
HNRNPA00.03673880791215PRMT50.041667495894254
PSMD120.037431136201535ALDH9A10.041752535855664
NUSAP10.037826127496952SMARCA4; SMARCA20.042011999483051
CENPV0.038581116557614SMPD40.042295434605128
NUCB20.038802623857286API50.042307237242215
ANXA30.038841172531667CORO1B0.042448810515789
NOL60.038987589115343NME10.042592236969446
SLC25A40.03913970311486PHGDH0.042665900795564
ANPEP0.039479772494105LIMA10.042752962711963
ACOT70.039623921007478KPNA10.042906494618499
TFAM0.039707734968897CCT30.043664703493753
RPLP0; RPLP0P60.040087400766381PSME30.043770201664382
NUP1530.040111740483302DARS; DKFZp781B112020.044048713395684
AK30.040163982093579FNDC3B0.04409099304968
RRS10.040527898253699PDCD40.044255002794194
MPDU10.040875557468697KARS0.04428763149879
PPME10.040893092710894YWHAB0.044435424781182
NXF10.041071516841707TUBA4A0.044822390243966
COLGALT10.041637645286223HSP90AB2P0.045275665873445
TCERG10.041817433270138MFF0.045305132154466
MYH140.04200459437687SRI0.045339113744608
DKC10.042045226104732SUMO2; SUMO3; SUMO40.045389142630342
CHP10.042321931446982SMU10.045693951967544
ACADVL0.04251795230916PGRMC10.045854689656102
YTHDF20.042557149834127UFL10.045994516676888
ITM2C0.042664998944362TMPO0.046071527099456
FNDC3A0.043020485898521GLG10.046210152745552
DDX230.043041446364437STX120.046233460411152
TM9SF10.044250928692254QARS0.046266638866445
RBM340.044452556043337NDUFB80.046327835309821
PARP10.044642062465197NAGK0.046635248106221
HSPA50.044940359567747UBA50.047018290706918
LRRC8A0.045128672116194DCBLD10.047123009546817
GNAI30.045215904061064RMDN30.047126494670995
APMAP0.045332288978615C3orf200.047396813435199
ERVMER34-10.045751082576868CPT1A0.047454336018546
SLC25A30.046011301133572LRRC8A0.047708173691333
PSMD30.046034878028335TNC0.047757621338458
LOC7287630.0461135520587PSMB70.047922090360813
ACTR30.046140724299598SLC25A110.048267993682209
ABHD100.04614997610942ITGB50.048350367510199
DOCK110.046269853302418RPA20.048873156537706
PIN40.04659637792031GBP10.049176725246684
AHNAK20.046681926091011PAPSS10.049526079782675
NOC4L0.0467975144642NDUFAF20.049665450756475
NACAP10.047591433048054
CD970.047882227230363
MT-CO30.047965144307878
SDHB0.048181890662094
SMPD40.048403063887703
FIS10.048873636426099
IDH20.048977469868803
RPL26; KRBA20.049123691061664
ARPC1A0.049507518430601
MPZL10.049733549424119
APP0.049980781519213
Table 4

Fold Regulation of AgNP-treated epithelial cells compared to controls.

Gene IDChronic Treatment
Acute Treatment
ColonLungMammaryColonLungMammary
ACTN1−11.58−1.451.02−1.32−1.20−2.03
ACTN2−108.441.13−2.213.791.682.40
ACTN45.60−1.14−1.91−1.21−1.33−1.08
ADAMTS1−1.194.52−1.061.881.122.05
ADAMTS13−23.121.98−2.70−2.631.101.25
ADAMTS83.265.191.45−1.601.211.07
AKT13.451.03−1.77−2.26−1.35−2.41
AKT21.83−1.17−1.45−1.571.22−10.50
AKT34.07−1.291.09−1.66−1.42−2.42
ANOS1−9.452.74−1.09−3.79−1.02−1.04
ARHGAP51.67−1.85−1.101.161.87−2.40
BCAR11.951.16−2.11−4.31−2.58−3.37
CAPN22.25−1.441.02−1.01−4.95−1.27
CAV170.30−1.89−1.05−2.0121.80−1.18
CAV21.29−1.41−1.141.04−2.96−2.32
CAV3−2.422.01−1.10−1.38−1.794.91
CD44−1.013.241.52−1.63−2.00−1.37
CDC422.95−1.43−1.18−1.03−1.331.12
CDH12.102.491.682.281.05−1.21
CLEC3B1.432.114.44−1.971.14−1.09
CNTN14.551.0410.76−4.454.165.04
COL11A12.741.29−1.09−2.432.48−8.89
COL12A11.421.771.94−2.55−1.70−1.93
COL14A1−1.089.754.90−2.053.291.55
COL15A11.984.244.13−1.13−1.0550.15
COL16A11.181.701.70−1.37−1.26−1.21
COL1A1−1.222.021.45−2.30−1.351.10
COL4A2−1.202.312.50−1.36−1.29−1.16
COL5A1−1.87−1.02−1.09−2.18−1.61−1.03
COL6A1−1.872.24−1.05−1.201.16−1.07
COL6A2−1.221.78−1.09−1.72−1.121.16
COL7A172.59−1.28−2.11−2.391.741.06
COL8A11.15−2.76−1.38−3.00−1.67−2.07
CRK−65.28−1.46−1.42122.212.41−305.50
CRKL−1.78−1.51−1.98−1.361.28−1.69
CTGF1.583.02−1.253.122.502.21
CTNNA1−1.263.041.30−1.60−1.81−1.28
CTNNB12.622.472.12−1.34−1.95−1.29
CTNND1−1.082.611.20−1.761.21−1.06
CTNND2−177.491.15−4.661.611.051.27
DIAPH1−1.151.02−2.04−1.30−1.57−2.17
DOCK1−132.75−1.081.13−2.401.12−310.80
DST3.251.24−1.101.05−2.66−1.14
ECM1−1.194.30−1.41−1.131.411.78
FLNA1.141.20−3.47−1.12−2.18−1.04
FLNB6.091.16−1.451.23−2.35−1.25
FN11.011.781.69−2.10−1.71−1.47
FYN−1.50−1.821.23−1.471.161.15
GRB26.071.25−1.64−1.67−1.48−2.40
GSK3B−57.24−1.33−1.042.181.51−85.26
HAS11.3229.56−1.29−2.8114.561.01
HRAS3.51−1.79−1.011.19−29.33−4.56
ICAM11.662.206.391.062.87−2.05
ILK−1.54−1.99−1.32−2.19−3.33−3.54
ITGA12.142.372.66−1.11−1.38−2.42
ITGA11−2.44−4.21−1.04−3.21−2.68−1.18
ITGA29.293.091.54−1.48−3.89−1.90
ITGA2B10.531.16−1.05−2.401.51−1.18
ITGA31.151.05−1.76−2.26−5.71−3.16
ITGA411.88−2.06−1.524.551.03−5.76
ITGA5−2.201.991.86−2.13−1.93−1.43
ITGA61.013.911.966.342.16−1.39
ITGA7−2.061.70−1.74−1.74−1.64−1.75
ITGA8−1.884.58−1.04−2.40−5.4117.30
ITGA91.04−2.50−1.131.1113.34−2.04
ITGAL−1.3849.483.891.052.313.03
ITGAM1.4841.71−1.874.9110.54−1.49
ITGAV1.51−1.941.90−1.17−1.90−2.52
ITGAX−1.431.502.94−1.712.48−2.24
ITGB14.443.311.67−1.59−2.04−1.87
ITGB2458.6613.511.68−1.232.74−1.15
ITGB3−429.333.193.863.41−1.35−751.03
ITGB42.351.52−2.13−1.36−1.96−4.64
ITGB565.352.291.54−1.34−2.43−1.81
ITGB62.091.33−1.2257.411.5189.06
LAMA1−1.213.571.08−1.721.73−3.31
LAMA2−5.122.781.061.301.583.47
LAMA3−1.124.161.98−1.96−1.76−2.12
LAMB11.253.171.45−1.88−2.01−2.61
LAMB3−1.074.611.671.651.13−1.06
LAMC11.433.471.61−1.74−2.55−1.61
MMP1119.835.52−1.681.03−15.07−3.54
MMP10332.772.15−1.065.00−1.58−1.02
MMP11−1.761.20−1.11−5.23−1.43−1.57
MMP129.02−1.14−1.093.02−5.43−1.15
MMP1342.092.99−9.891.9022.682.75
MMP14−190.30−1.08−1.14−1.441.121.10
MMP15−3.25−1.62−1.39−2.25−1.08−1.92
MMP161.073.15−1.75−2.09−2.50−1.77
MMP2−5.231.591.07−1.86−1.321.41
MMP3−1.032.42−1.091.77−25.52−2.25
MMP7−10.752.922.625.30−1.491.21
MMP8−1.1962.20−2.02−2.745.32−1.27
MMP9−1.591.52−1.011.131.653.22
NCAM11.071.851.90−1.742.63−2.03
PAK1−86.56−1.37−1.04−1.212.11−1.85
PAK22.22−1.58−1.02−1.171.26−3.55
PAK3−1.45−1.30−1.91−1.96−1.131.32
PAK4−3.07−1.14−1.88−1.28−1.38−2.18
PARVA−160.35−1.78−1.2221.04−3.66−4.55
PARVB−171.771.14−1.07−1.24−1.82−2.74
PARVG2.98−1.081.093.301.751.36
PDPK1−1.02−1.361.07−1.18−1.08−1.16
PECAM1263.8525.031.53−1.303.40−1.05
PIP5K1C−647.331.41−2.271.33−1.40−9.54
PLEC1.441.50−1.63−11.15−166.75−288.35
PRKCA−1.10−1.221.08−2.82−3.33−6.49
PRKCB1.291.17−1.315.58−23.00−15.76
PRKCG−7.492.461.821.19−1.28384.04
PTEN−1.20−1.331.02−3.95−1.692.28
PTK2−282.25−1.361.05−277.83−9.17−3.65
PXN−2.26−1.13−1.56−2.81−6.391.73
RAC1−1.47−1.441.13−1.76−1.82−3.90
RAC2−229.22−1.14−1.59−2.401.51−1.18
RAF1−561.97−1.82−1.12−1.621.04−7.03
RAP1A2.23−1.331.08−1.34−1.662.48
RAP1B1.97−1.141.22−1.631.003.03
RAPGEF12.79−1.16−1.715.87−2.75−3.22
RHOA2.31−1.391.15−1.851.242.38
ROCK1−151.76−1.53−1.14−17.80−11.80−2.02
ROCK2−210.17−1.641.07−2.401.51−1.18
SELE10.232.56−1.093.612.38−1.36
SELL−1.4119.821.661.5510.561.75
SELP−1.221.04−3.04−1.177.81−1.04
SGCE1.112.451.43−1.75−2.14−2.17
SHC12.60−1.15−1.68788.14−590.58−1.18
SOS11.29−1.181.04−2.40−608.22−1.18
SOS2−168.03−1.44−1.08947.78−4.02−1.18
SPARC−2.052.081.06−1.71−1.39−1.01
SPG7−2.291.47−1.18−2.77−1.80−1.62
SPP1148.792.52−1.19−1.30−273.371.05
SRC1.381.18−1.74−1.971.47−3.91
TGFBI1.333.471.70−1.44−2.78−1.43
THBS11.442.041.80−2.20−4.671.03
THBS2187.761.711.90−5.42−11.971.32
THBS3−3.061.91−1.41−3.02−1.54−1.27
TIMP1−1.813.131.36−2.11−1.58−1.10
TIMP2−3.272.822.04−1.83−1.55−1.12
TIMP3−1.113.721.401.133.53−4.32
TLN11.45−1.35−1.25−2.401.51−1.18
TNC123.591.71−1.08−2.18−2.291.80
TNS17.94−1.09−4.31−1.58−2.272.44
VASP−1.621.07−2.0123.431.1924.06
VAV1−42.27−1.291.97−2.401.51−1.18
VAV2−1.131.06−1.501.53−3.151.63
VCAM11.011.05−1.09−2.30−7.85−1.04
VCAN2.091.481.64−2.32−1.20−1.17
VCL−1.40−1.35−1.341.052.62−2.94
VTN−1.842.04−1.81−1.90−1.71−2.24
ZYX−989.39−1.71−1.18−1.42−3.041.51
Table 5

IPA analysis derived from LC-MS/MS protein data of AgNP-treated colon cells IPA Summary: Colon.

acutechronicchange
Top Canonical Pathways
Colanic Acid Building Blocks BiosynthesisRhoA SignalingSuperpathway of Cholesterol Biosynthesis
Glycolysis IRemodeling of EpithelialAdherens JunctionsCholesterol Biosynthesis I
NER PathwayHypoxia Signaling in theCardiovascular SystemCholesterol Biosynthesis II (via 24,25-dihydrolanosterol)
UDP-N-acetyl-d-galactosamine Biosynthesis IIEpithelial AdherensJunction SignalingCholesterol Biosynthesis III (via Desmosterol)
Cardiac -adrenergic SignalingActin Cytoskeleton SignalingMevalonate Pathway I
Top Upstream Regulators
let-7XBP1SREBF2 (inhibited)
mir-122COLQSCAP (inhibited)
CNTFSORT1ERBB2
HCAR1mir-122INSR
PDLIM1PGRPOR (activated)
Fold Change Up
APOB (+36.7X)SUMO1 (+4.9X)MFN2 (+5.8X)
ACTBL2 (+13.4X)PPIE (+4.6X)RDH14 (+4.7X)
ARFGEF1 (+10.7X)TET1 (+3.3X)MMP1 (+4.3X)
PPT1 (+5.2X)RPP30 (+3.1X)CPD (+3.7X)
TM9SF1 (+4.3X)ARFGAP3 (+3.0X)S100A9 (+3.2X)
CSK (+3.6X)PHPT1 (+3.0X)TET1 (+3.0X)
MRPL42 (+3.3X)BBOX1 (+2.8X)MRPL22 (+3.0X)
PHPT1 (+3.0X)UNC45A (+2.6X)DHRS3 (+2.8X)
PPIE (+2.9X)AGRN (+2.3X)MRPS5 (+2.7X)
SPG7 (+2.8X)GOLGB1 (+2.1X)S100P (+2.6X)
Fold Change Down
ITGA7 (−14.9X)HMGN1 (−11.7X)HMGCS1 (−62.5X)
EPPK1 (−13.7X)GPD2 (−9.1X)MKI67 (−21.0X)
SPC25 (−6.9X)GPX1 (−8.9X)FDFT1 (−16.5X)
MFN2 (−5.2X)GSTK1 (−6.3X)COL12A1 (−6.7X)
HYDIN (−3.9X)IER3IP1 (−5.8X)S100A2 (−6.5X)
TCP11L1 (−3.9X)MSH3 (−4.9X)DHCR24 (−6.4X)
TMEM189 (−3.6X)EPB41L2 (−4.2X)LDLR (−5.5X)
TET1 (−3.3X)VAMP7 (−3.9X)MSMO1 (−5.4X)
PPL (−3.2X)ATP6AP1 (−3.2X)GSTK1 (−5.2X)
RABGGTA (−3.2X)DUT (−3.0X)VAMP3 (−5.2X)
Molecular and Cellular Functions
Cellular Assembly and OrganizationDrug MetabolismProtein Synthesis
Cellular Function and MaintenanceMolecular TransportLipid Metabolism
RNA Post-Transcriptional ModificationCellular Function and MaintenanceSmall Molecule Biochemistry
Cellular MovementCell MorphologyVitamin and Mineral Metabolism
Carbohydrate MetabolismCellular Assembly andOrganizationMolecular Transport
Top Tox Lists
Cardiac Necrosis/Cell DeathHypoxia-Inducible Factor SignalingCholesterol Biosynthesis
NRF2-mediated Oxidative Stress ResponseMitochondrial DysfunctionOxidative Stress
LXR/RXR ActivationOxidative StressCardiac Necrosis/Cell Death
Positive Acute Phase Response ProteinsIncreases Renal ProliferationFatty Acid Metabolism
Increases Liver DamageIncreases Depolarization of Mitochondria and Mitochondrial MembraneCardiac Hypertrophy
Table 6

IPA analysis derived from LC-MS/MS protein data of AgNP-treated Lung cells.

acutechronicchange
Top Canonical Pathways
EIF2 SignalingEIF2 SignalingRemodeling of EpithelialAdherens Junctions
Sirtuin Signaling PathwayTCA Cycle II (Eukaryotic)Integrin Signaling
TCA Cycle II (Eukaryotic)NRF2-mediated Oxidative Stress ResponseEpithelial AdherensJunction Signaling
Telomere Extensionby TelomeraseGlycolysis ISirtuin Signaling Pathway
RAN SignalingGluconeogenesis IMitochondrial Dysfunction
Top Upstream Regulators
TP53TCRTP53 (activated)
MYCTP53 (inhibited)MYC
LONP1MAPTMMP12
CST5 (activated)PSEN1EGFR
PCGEM1APPLONP1
Fold Change Up
CSTF3 (+9.8X)MX2 (+19.4X)ACSL1 (+28.6X)
MAL2 (+3.8X)IFIT3 (+11.5X)CA9 (+27.5X)
NME1 (+3.1X)OASL (+5.1X)YTHDF2 (+10.8X)
VPS4A (+3.0X)CLPB (+4.5X)TGM2 (+10.1X)
SNW1 (+2.9X)MRPL2 (+4.2X)MECP2 (+9.4X)
DLST (+2.8X)COX20 (+3.9X)DOCK11 (+8.5X)
NDUFA7 (+2.8X)ITGA2 (+3.9X)HEATR1 (+7.9X)
GRHPR (+2.8X)SLK (+3.6X)MT-ND4 (+7.9X)
SRSF11 (+2.6X)RRS1 (+3.6X)NDRG1 (+7.6X)
NUSAP1 (+2.5X)UTP4 (+3.3X)PTPRF (+7.6X)
Fold Change Down
SLC38A2 (−18.3X)MACROD1 (−8.4X)SQSTM1 (−14.9X)
MT-ND4 (−8.5X)BCAT2 (−6.9X)CYR61 (−3.6X)
MRPS17 (−8.3X)DDAH2 (−6.5X)SERPINB4 (−3.1X)
F3 (−8.3X)PPT1 (−6.0X)SERPINB3 (−3.1X)
MRPL40 (−7.3X)NIT2 (−5.4X)IDI1 (−3.0X)
SLC12A4 (−6.7X)TBRG4 (−4.4X)NUSAP1 (−2.9X)
ITPR3 (−6.2X)PTGR1 (−3.7X)NRDC (−2.9X)
TGM2 (−5.7X)WASL (−3.5X)APEH (−2.9X)
MT-ATP8 (−5.7X)COL12A1 (−3.4X)GRHPR (−2.9X)
UTP18 (−5.2X)PEA15 (−3.1X)FNDC3A (−2.8X)
Molecular and Cellular Functions
RNA Post-Transcriptional ModificationRNA Damage and RepairRNA Post-TranscriptionalModification
Protein SynthesisProtein SynthesisCell Death and Survival
RNA Damage and RepairCell Death and SurvivalCellular Development
Cell Death and SurvivalRNA Post-Transcriptional ModificationCellular Growth andProliferation
Molecular TransportFree Radical ScavengingProtein Synthesis
Top Tox Lists
Mitochondrial DysfunctionNRF2-mediatedOxidative Stress ResponseMitochondrial Dysfunction
TR/RXR ActivationRenal Necrosis/Cell DeathCardiac Necrosis/Cell Death
Renal Necrosis/Cell DeathAryl HydrocarbonReceptor SignalingNRF2-mediated OxidativeStress Response
Cardiac Necrosis/Cell DeathOxidative StressDecreases TransmembranePotential of Mitochondria and Mitochondrial Membrane
Hypoxia-Inducible Factor SignalingFatty Acid MetabolismDecreases Depolarization ofMitochondria and Mitochondrial Membrane
Table 7

IPA analysis derived from LC-MS/MS protein data of AgNP-treated mammary epithelia IPA Summary: Breast.

acutechronicchange
Top Canonical Pathways
EIF2 SignalingSirtuin Signaling PathwayRegulation of eIF4 andp70S6K Signaling
Sirtuin Signaling PathwayHeme DegradationMethionine DegradationI (to Homocysteine)
Mitochondrial DysfunctionTCA Cycle II (Eukaryotic)Cysteine BiosynthesisIII (mammals)
Remodeling of EpithelialAdherens JunctionsMitochondrial DysfunctionCaveolar-mediatedEndocytosis Signaling
Oxidative PhosphorylationActin Nucleation byARP-WASP ComplexPI3K/AKT Signaling
Top Upstream Regulators
TP53KDM5ATP53
MMP12EsrraHSF1
HSF1miR-149-5pPGR
CST5 (activated)miR-291a-3pHIF1A
RICTORCollagen type IIIIL5
Fold Change Up
CRNKL1 (+14.6X)HMOX1 (+12.4X)PROM2 (+19.9X)
AASDHPPT (+5.1X)CWF19L1 (4.7X)PTPRF (+19.1X)
MYADM (+5.0X)SEC14L2 (+4.3X)LRP1 (+17.9X)
NCAPH (+4.6X)PPP1R7 (+3.2X)HMOX1 (+12.4X)
OPTN (+4.3X)SPRYD4 (+3.1X)FN1 (+12.3X)
GFM1 (+3.5X)DDX27 (2.9X)CA12 (+9.2X)
GTPBP1 (+3.5X)ARPC5 (+2.9X)ZNF596 (+8.6X)
TRIOBP (+3.4X)FIP1L1 (+2.6X)PRSS53(+6.4X)
TMPO (+3.0X)RPS19BP1 (+2.5X)VKORC1 (+6.4X)
RILPL1 (+2.9+)CTBP2 (+2.2X)PDCD4 (+6.3X)
Fold Change Down
NIP7 (−9.0X)HYDIN (−7.6X)CRNKL1 (−12.1X)
PLXNA2 (−4.8X)ATP6AP2 (−6.3X)TNC (−9.6X)
PROM2 (−4.5X)SWAP70 (−4.4X)NOP53 (−8.9X)
IFITM3 (−3.6X)GEMIN4 (−3.8X)ATP6AP2 (−8.5X)
IFITM2 (−3.6X)ARID1B (−2.8X)CRTAP (−7.9X)
PTGS1 (−3.4X)RNMT (−2.8X)TMSB10/TMSB4X (−5.7X)
NUCB2 -(3.2X)BAZ1B (−2.6X)RBM3 (−5.2X)
PTPRF (−3.2X)NUDCD2 (−2.5X)NYNRIN (−5.2X)
CDC42BPB (−3.1X)TRIP13 (−2.3X)PALLD (−4.8X)
TRIM56 (−2.9X)HPF1 (−2.2X)NRP1 (−4.8X)
Molecular and Cellular Functions
Cell Death and SurvivalProtein SynthesisCell Death and Survival
RNA Post-Transcriptional ModificationCell MorphologyProtein Synthesis
Protein SynthesisCellular Function andMaintenanceProtein Degradation
Post-Translational ModificationCell Death and SurvivalCellular Development
Protein FoldingCell-To-Cell Signaling andInteractionCellular Growth andProliferation
Top Tox Lists
Mitochondrial DysfunctionMitochondrial DysfunctionMitochondrial Dysfunction
NRF2-mediatedOxidative Stress Resp.Long-term Renal InjuryAnti-oxidative Resp. (Rat)Xenobiotic MetabolismSignaling
Cell Cycle: G2/M DNA Damg. Chkpt. Reg.Positive Acute PhaseResponse ProteinsHypoxia-InducibleFactor Signaling
Cell Cycle: G1/S Checkpoint RegulationProtect. fr. Hypox.-inducedRenal Ischemic Inj. (Rat)Cardiac Necrosis/Cell Death
Renal Necrosis/Cell DeathIncr. Transmb. Pot'l. of Mitoand Mito MbNRF2-mediatedOxidative Stress Response
Fig. 1

Functional analysis of proteins altered by acute AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and changes in protein abundance was detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line.

Fig. 2

Functional analysis of proteins altered by acute AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and changes in protein abundance were detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation.

Fig. 3

Functional analysis of proteins altered by chronic AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 8 days and changes in protein abundance was detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line.

Fig. 4

Functional analysis of proteins altered by chronic AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 8 days and changes in protein abundance were detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation.

Fig. 5

Functional analysis of proteins altered by AgNP exposure over time. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and 8 days, and changes in protein abundance over time were detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line.

Fig. 6

Functional analysis of proteins altered by AgNP exposure over time. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and 8 days and changes in protein abundance was detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation.

Fig. 7

Analysis of extracellular matrix, integrin, and focal adhesion genes altered by AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP and changes in gene expression identified by pathway-focused QPCR arrays. Functional analyses of AgNP-induced changes were generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during acute (A–C) and chronic (D–F) AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line. (C, D) Primary causal signaling networks engaged during acute (G–I) and chronic (J–L) AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation.

Molecules significantly changed by Acute AgNP treatment conditions. Molecules significantly changed by Chronic AgNP treatment conditions. Molecules significantly changed by AgNP over time (6h–8 D). Fold Regulation of AgNP-treated epithelial cells compared to controls. IPA analysis derived from LC-MS/MS protein data of AgNP-treated colon cells IPA Summary: Colon. IPA analysis derived from LC-MS/MS protein data of AgNP-treated Lung cells. IPA analysis derived from LC-MS/MS protein data of AgNP-treated mammary epithelia IPA Summary: Breast. Functional analysis of proteins altered by acute AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and changes in protein abundance was detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line. Functional analysis of proteins altered by acute AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and changes in protein abundance were detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation. Functional analysis of proteins altered by chronic AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 8 days and changes in protein abundance was detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line. Functional analysis of proteins altered by chronic AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 8 days and changes in protein abundance were detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation. Functional analysis of proteins altered by AgNP exposure over time. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and 8 days, and changes in protein abundance over time were detected by LC MS/MS. Top canonical pathways were identified and generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line. Functional analysis of proteins altered by AgNP exposure over time. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP for 6 h and 8 days and changes in protein abundance was detected by LC MS/MS. Primary causal signaling networks engaged during AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation. Analysis of extracellular matrix, integrin, and focal adhesion genes altered by AgNP exposure. Colon, lung, and mammary cell models (CCD-18Co, BEAS2B, and MCF10AI, respectively) were exposed to AgNP and changes in gene expression identified by pathway-focused QPCR arrays. Functional analyses of AgNP-induced changes were generated via IPA. Histograms show the top significant canonical pathways with each respective –log (p-value) on horizontal axis during acute (A–C) and chronic (D–F) AgNP exposure. Threshold z-score for p-value is indicated with a horizontal orange line. (C, D) Primary causal signaling networks engaged during acute (G–I) and chronic (J–L) AgNP exposure as predicted by IPA. Lines and arrows between nodes represent direct (solid lines) and indirect (dashed lines) interactions between proteins. Red and green indicate up or down-regulation, respectively, and intensity of color indicates degree of regulation. Supplementary data includes Table S1 (consisting of raw MS LFQ intensity values used to generate Table 1, Table 2, Table 3), and PDF files of IPA summaries of LC-MS/MS data from all three cell lines at all three AgNP exposure conditions (acute, chronic and changes over time (OT)), which were used to generate Table 5, Table 6, Table 7

Experimental design, materials and methods

Cell Culture

MCF10A, BEAS2B, and CCD-18Co cell models were obtained from American Type Culture Collection (Manassas, VA). Cells were cultured as directed by the supplier and all epithelial cells were cultured in “standard growth medium” (DMEM containing 10% FBS) during AgNP exposure for consistency.

AgNP Exposure

Each cell line was plated at concentrations predetermined to establish a confluent cell monolayer within three days. Cells were then cell cycle synchronized overnight in serum-starved medium, and then treated with 40 nm AgNP or AgNP diluent in standard growth medium for 6 or 24 hr. For chronic AgNP treatment, serum-starved confluent cells were treated for 24 hr with 40 nm AgNP or diluent (control cells) and then replaced with fresh medium (-AgNP) and cultured for eight days, with changes in medium every 2–3 days as needed.

Filter-aided Protein Sample Preparation

Cell pellets were subjected to filter-aided sample preparation [4] for protein cleanup using Vivacon 30,000 kDa molecular weight cutoff filters and reconstituted with 100 μL of 50 mM ammonium bicarbonate solution. Tryptic digestion was carried out by hydrating lyophilized trypsin to a stock solution of 1.0 μg/μL with 0.01% acetic acid in water; trypsin was added to the sample mixture at a 1:50 (v/v) ratio and then incubated at 37 °C for 4 hr. After digestion, peptides were acidified with HCl to a final concentration of 250 mM (pH ≤ 3) and aliquoted for LC-MS.

Nanoflow Liquid Chromatography (LC)

Pico-frit columns were purchased from New Objective (Woburn, MA) and packed to a length of 20–30 cm with reverse phase ReproSil-Pur 120 C-18- AQ 3.0 μm particles (Dr. Maisch GmbH HPLC, Ammerbuch-Entringen, Germany). Peptide separation was achieved on the column by injecting 2.0 μL of sample and using a gradient of mobile phase A (98.0% water, 2.0% acetonitrile, and 0.1% formic acid) and mobile phase B (80.0% acetonitrile, 20.0% water 0.1% formic acid). The LC method consists of a 120 min gradient with a linear ramp from 0.0% B to 40.0% B, a 1 min ramp to 100% B which is held for 6 min (123–129 minutes), followed by equilibration of the column at 0.0% B (130–140 minutes) running at a constant flow rate of 300 nL/min.

Orbitrap Mass Spectrometry (MS)

Orbitrap tandem mass spectrometry was performed using a Thermo Scientific Q-Exactive HF (Bremen, Germany) in a top 20 data dependent acquisition mode (DDA), where the 20 most abundant precursors were selected for fragmentation per full scan. MS1 and MS2 scans were performed at a resolving power of 120,000 and 15,000 at m/z 200, respectively. A dynamic exclusion window of 20 seconds was used to avoid repeated interrogation of abundant species. Automatic gain control was 1e6 and 1e5 for MS1 and MS2 scans, respectively. Samples were run in random order, and a quality control BSA digest was run and monitored every fifth injection to ensure proper LC-MS/MS reproducibility using AutoQC [5].

Protein Identification

Resulting raw data was loaded into MaxQuant (Version 1.5.6.0) [6], wherein MS/MS spectra were searched against a human proteome FASTA file downloaded from the Swiss-Prot protein database. The search included variable modifications of methionine oxidation and N-terminal acetylation, and fixed modification of cysteine carbamidomethylation. Peptides of a minimum of eight amino-acids and a maximum of two missed cleavages were allowed for the analysis. The peptide and protein identification false discovery rate (FDR) was set to 0.01. The resulting proteinGroups.txt data was imported into Perseus (Version 1.6.2.1) [7]. Here, reverse proteins or those only identified by site were filtered out. Next, the LFQ Intensity data was log 2 transformed and those proteins that did not produce a valid value in a minimum of two out of the three replicates in at least one group (i.e., proteins that were only detected once within a triplicate group), were filtered out. All remaining missing values were imputed using a normal distribution with a width of 0.3 and downshifted 1.8 standard deviations. Contaminants were then removed and group comparisons were performed using a two-sample student's t-test utilizing a Benjamini-Hochberg FDR calculation set to 0.05 for truncation. Table 1, Table 2 summarize changes in protein expression induced by acute and chronic AgNP treatment, respectively, of BEAS2B (lung), MCF10AI (breast), and CCD-18Co (colon) cultured epithelia as determined by LC-MS/MS. Table 3 summarizes changes in protein expression between 6 hours and 8 days in the three epithelial cell lines.

Quantitative Real Time PCR Arrays

Total RNA was isolated using the RNeasy kit (Qiagen; Hilden, Germany). RNA was reverse transcribed using the RT2 First Strand Kit, and RT2 Profiler PCR arrays (for focal adhesions, ECM and adhesion molecules) were used according to the manufacturer's instructions. Relative fold changes in gene expression were determined via the ΔΔCT method using online analysis tools provided by Qiagen. Genes altered by acute and chronic AgNP exposure in BEAS2B (lung), MCF10AI (breast), and CCD-18Co (colon) cultured epithelia are found in Table 4.

Ingenuity pathway analysis (IPA)

Protein and mRNA datasets were imported into IPA for functional analysis (Qiagen, https://www.qiagenbioinformatics.com/products/ingenuity-pathway-analysis). The most significant networks and canonical pathways were predicted in IPA using restrictive statistical parameters to identify pathways affected by significantly altered proteins or mRNAs. Algorithms defining networks and pathways are drawn from the Ingenuity Knowledge Base, a large, manually curated collection of nearly 5 million findings from the biomedical literature or integrated from third-party databases [8]. Canonical pathways classify molecules in the given dataset as per their reported ultimate biological function. Pathway significance is indicated by the number of molecules represented in the provided dataset with respect to the total number of identified molecules reported to affect the specific biological function. In the representative figures, calculated z-scores indicate top canonical pathways based on altered protein levels for the three epithelial cell lines exposed to acute (Fig. 1) and chronic (Fig. 3) AgNP exposure, as well as analysis of changes in protein expression between acute and chronic levels (Fig. 5). The ratio (orange dots connected by a line) indicates the ratio of proteins from the dataset that map to the pathway divided by the total number of genes that map to the same pathway. Primary causal network analysis of acute (Fig. 2) and chronic (Fig. 4) AgNP exposure and analysis of changes in protein expression between acute and chronic levels (Fig. 6) draws from approximately 40,000 nodes that represent mammalian genes and their products, chemical compounds, microRNA molecules and biological functions. Nodes are connected by approximately 1,480,000 edges representing experimentally observed cause–effect relationships that relate to expression, transcription, activation, molecular modification and transport as well as binding events. Top canonical pathways and primary causal networks were also determined from QPCR pathway directed microarray data (Fig. 7).

Specifications Table

Subject areaMolecular Biology
More specific subject areaExtracellular Matrices in Cultured Epithelia
Type of dataTables (Excel files), Figures (Power Point)
How data was acquiredLC-MS/MS, QRT-PCR, IPA
Data formatRaw and Analyzed
Experimental factorsCultured epithelial cells were treated with AgNPs under acute (6 h) and chronic (8 d) conditions and compared with controls
Experimental featuresProtein expression was evaluated using LC-MS/MS; gene expression was evaluated using QRT-PCR; key regulatory pathways were predicted with IPA.
Data source locationDurham, NC (USA)
Data accessibilityPublicly available from this article.
Related research articleM. Martin, D. Reaves, B. Jeffcoat, J. Enders, L. Costantini, S. Yeyeodu, D. Botta, T. Kavanagh, J. Fleming, Silver nanoparticles alter epithelial basement membrane integrity, cell adhesion molecule expression, and TGF-β1 secretion, Nanomedicine. Jul 24:102070. (2019) https://doi.org/10.1016/j.nano.2019.102070[1].
Value of the data

The majority of data describing in vitro silver nanoparticle (AgNP) toxicity has been generated from transformed (cancer) cell lines. In contrast, the data provided in this article characterizes AgNP-induced changes in the protein and gene expression of non-transformed (“normal”) epithelial cell lines derived from lung, colon and breast tissue. Thus, these data provide baselines for comparison in future experiments that explore the pathophysiology of diseases induced by AgNP toxicity.

More broadly, the control/baseline datasets of gene and protein expression from normal lung, colon and breast cell lines available in this article can be used for comparison a) with gene and protein expression in normal or diseased lung, colon and breast tissue in vivo, and b) with the same or similar cell lines tested in vitro and in vivo that have been altered by disease, genetic engineering or exposure to pathogens, therapeutic agents or toxins.

The datasets available in this article identify panels of genes and proteins affected by AgNPs which embed in the extracellular matrix (ECM) and basement membrane (BM). These data have the potential to inform experiments to determine the outside-in/extracellular signaling effects of AgNP exposure on epithelial cells that support AgNP-stimulated intracellular signaling events and overall organ function.

Most published datasets on molecular changes in the ECM include either proteomic or transcriptomic data, but not both, from a variety of species, tissue sources and/or methods of sample preparation. Data provided here include the expression of both proteins and genes associated with the ECM. Comparison of protein and gene expression data can be used to reveal post-transcriptional processes such as those that regulate ECM composition during tissue repair in murine lung [2].

These in vitro data provide a starting point for future, more clinically relevant in vivo experiments that can address the complex interactions between the ECM and diverse cell types in surrounding tissues [c.f. Ref [3]].

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