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World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019
220
Original Article
IntroductIon
In recent years, the incidence of cardiovascular disease in
China was increasing year by year. The number of patients
with coronary heart disease is over 1 million every year in
China,whichseriouslyaectsthenormallivingstandards
of people. Acute myocardial infarction (AMI) is a common
cardiovascular disease. It could cause harm in a short period
and lead to death in severe cases.[1] AMI is an acute myocardial
necrosis caused by myocardial ischemia and hypoxia
induced by coronary artery disease. Some studies have
shownthatAMIiscloselyrelatedto plaque inammation.
Animal experiments have proved that the use of traditional
Chinesemedicine(TCM) with eect of clearing heat and
activating blood circulation could suppress the occurrence
and development of plaque.[2-4]
Qingre Huoxue prescription is composed of Ligusticum
wallichii(chuanxiong,10 g); Radix Paeoniae Rubra
Study on the Mechanism of Qingre Huoxue Prescription in
the Intervention and Treatment of Acute Myocardial Infarction
Based on Network Pharmacology
Cai‑Xia Jiaa, Jin‑Ping Wanga, Fei‑Long Zhanga, Xiao‑Han Panga, Wei‑Lu Wanga, Paulin‑Xue Xub, Kuo Gaoc, Jian‑Xin Chena
aPharmacology Major of Integrated Traditional Chinese and Western Medicine, School of Preclinical Medicine, Beijing University of Chinese Medicine, cScientific Research
and Experiment Center, Dongfang Hospital, Beijing University of Chinese Medicine, Beijing, China, bHarvard Medical School, 25 Shattuck Street Boston, MA 02115, USA
Objective:TheobjectiveistostudythemechanismofQingreHuoxueprescriptionin theinterventionandtreatmentofacutemyocardial
infarction (AMI) based on the method of network pharmacology. Materials and Methods:Fivedatabaseswereusedtoscreen the
chemicalcompoundsandtargetsofLigusticumwallichii(chuanxiong),RadixPaeoniaeRubra(chishao),Lignumacronychiae(jiangxiang),
Saower(honghua),Salvia miltiorrhiza (danshen), Scutellaria baicalensis (huangqin), and Ilex pubescens (mao dong qing) in Qingre Huoxue
prescription.Furthermore,Cytoscape‑V3.2.1softwarewasusedtoconstructthedrug‑component‑targetnetwork.Functionalproteinassociation
networks’ database and the Database for Annotation, Visualization, and Integrated Discovery (DAVID) were used to visualize the protein
interaction, pathway enrichment, and analysis. Results: A total of 44 active ingredients were screened out in Qingre Huoxue prescription.
Among them, 178 targets and 41 compounds related to Qingre Huoxue prescription’s function in treating AMI were obtained. After the analysis
of the drug-component-action target network on Qingre Huoxue prescription, 14 key compounds and nine key targets with three scores above
average were obtained. In addition, pathway enrichment and biological processes were conducted with the aid of the DAVID; and 8 related
pathwaysand10biologicalprocesseswereassociatedwithAMIandrelateddiseases;thePI3K‑AKTsignalingpathway,MAPKsignaling
pathway,andHIF‑1signalingpathwayarethemainpathwaysofQingreHuoxueprescriptionforthetreatmentofAMIandrelateddiseases.
Conclusion: Qingre Huoxue prescription could treat AMI by multiple components, targets, and pathways. This study provides ideas and
theoretical basis for further clinical studies on Qingre Huoxue prescription in treating AMI.
Keywords: Acute myocardial infarction, mechanism, network pharmacology, Qingre Huoxue prescription
Address for correspondence: Dr. Kuo Gao,
Scientific Research and Experiment Center, Dongfang Hospital,
Beijing University of Chinese Medicine, Beijing, China.
E‑mail: 515123134@qq.com
Dr. Jian‑Xin Chen,
Pharmacology Major of Integrated Traditional Chinese and Western
Medicine, School of Preclinical Medicine, Beijing University of Chinese
Medicine, Beijing, China.
E‑mail: cjx@bucm.edu.cn
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DOI:
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Abstract
How to cite this article: JiaCX,WangJP,ZhangFL,PangXH,WangWL,
XuPX,et al. Study on the mechanism of qingre huoxue prescription in the
intervention and treatment of acute myocardial infarction based on network
pharmacology. World J Tradit Chin Med 2019;5:220-7.
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© 2019 World Journal of Tradional Chinese Medicine | Published by Wolters Kluwer ‑ Medknow
Received: 09-11-2018, Revised: 29-03-2019,
Accepted: 08-04-2019, Published: 03-12-2019
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Jia, et al. Study on the mechanism of Qingre Huoxue Prescription in AMI
World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019 221
(chishao,12g);Lignum acronychiae (jiangxiang, 10 g);
Saower(honghua,10g);Salvia miltiorrhiza (danshen, 30 g);
S. baicalensis (huangqin, 15 g); and Ilex pubescens (mao dong
qing, 30 g).[5] Among them, Ligusticum wallichii is warm
natured, which could activate blood and circulation of qi, expel
wind,andalleviatepain;RadixPaeoniaeRubraiscold‑natured,
which could clear heat and cool blood as well as dispel stasis
and alleviate pain; Lignum acronychiae is warm-natured, which
could not only dispel blood stasis and stanch bleeding but also
regulateqitoalleviatepain;Saoweriswarm‑natured,which
could activate blood to regulate menstruation and dispel stasis to
relieve pain; Salvia miltiorrhiza is slightly cold-natured, which
could activate blood and dispel stasis, regulate menstruation and
relieve dysmenorrhea, and cool blood and eliminate carbuncle;
S. baicalensis is bitter and cold-natured, which could clear heat
anddampness,purgereandresolvetoxin,andrelievepainand
tranquilize mind;[6] Ilex pubescens is slightly cold-natured, which
could activate blood circulation, clear heat and resolve toxin,
and disperse swelling and relieve pain.[7] Wu et al.[5] collected
60 patients with AMI and treated them with routine western
medicine and add Qingre Huoxue prescription; in addition, it
was found that Qingre Huoxue prescription could improve the
level of proof factors in vivo and the score of clinical syndromes
compared with routine treatment alone. However, there are many
herbs and complex chemical components in this prescription.
The mechanism of multi-target and multi-channel treatment for
AMIofcoronaryheartdiseasestillneedsfurtherclarication.
Network pharmacology integrates multi-disciplinary techniques
and methods’ it explores the relationship between drugs and
diseases from the whole and is consistent with the overall
concept of TCM.[8]
This paper adopts the method of network pharmacology
to study the mechanism of Qingre Huoxue prescription in
treating AMI of coronary heart disease, aiming to provide
more information and ideas for the clinical treatment of AMI
of coronary heart disease.
materIals and methods
Selection of objective compounds from Qingre Huoxue
prescription
Qingre Huoxue prescription consists of Ligusticum wallichii,
RadixPaeoniaeRubra,Lignumacronychiae,Saower,Salvia
miltiorrhiza, S. baicalensis, and Ilex pubescens. TCM Systems
PharmacologyDatabaseandAnalysisPlatform(TCMSP
database, http://lsp.nwu.edu.cn/tcmsp.php) and literature were
used to collect chemical constituents;, the names of TCMs,
such as “chuanxiong,” “chishao,” and “honghua” were input
intheTCMSPdatabase.LiteraturesearchmadeuseofCNKI
andPubMedtosearcharticlesonsevenTCMs;thoseKeyword
Advertisingswere“chuanxiong,chishao,jiangxiang,honghua,
danshen, huangqin, mao dong qing,” “Ligusticum wallichii,
RadixPaeoniaeRubra,Lignumacronychiae, Safflower,
Salvia miltiorrhiza, S. baicalensis, and Ilex pubescens” and
then obtained relevant ingredients of TCM according to the
contents and inquired whether the obtained ingredients were
related to AMI and related diseases. According to other reports,
chemical constituents were selected under the conditions
of drug-likeness (DL) >0.18 and oral bioavailability (OB)
>30%.[9] Compounds that are inconsistent with OB and DL
conditions were retained because these compounds have been
reportedtohaveimportanteectsoncardiovasculardiseases
such as AMI. After obtaining seven alternative compounds
ofTCM, PubChemdatabasewasused tofurtherscreenthe
compoundswithexperimentalvericationtargetsforreserve.
The acquisition of Qingre Huoxue prescription targets and
related targets of acute myocardial infarction
PubChemdatabasewasusedtoquerythetargetinformation
of compounds screened in the previous step, and active targets
were selected. Gene names corresponding to each target
proteinwereobtained in UniProt database (https://www.
uniprot.org/).Unlesshumantargetswereexcluded,UniProt
numbers corresponding to the target were recorded. Drugbank
database (https://www.drugbank.ca/), Online Mendelian
Inheritance in Man database (OMIM, http://www.omim.org/)
and GeneCards database (The Human Gene Database, https://
www.genecards.org/) were used to search related targets of
AMI and to delete duplication. And then, these targets related
to acute myocardial infarction were mapped with the targets
ofQingreHuoxue Prescription, targets of Qingre Huoxue
PrescriptionintreatingAMIwereobtainednally.
Network construction and analysis
The obtained targets were processed with Cytoscape-V3.2.1
software, and the network diagram of TCM component target
was obtained through the Merge function. In addition, the
functional protein association networks’ database (String
database) was used for the construction of protein mutual
network.
Kyoto Encyclopedia of Genes and Genomes pathway
enrichment and gene ontology biological process analysis
Kyoto Encyclopedia of Genes and Genomes (KEGG) pathway
enrichment and gene ontology (GO) biological analysis
were conducted through using The Database for Annotation,
Visualization, and Integrated Discovery (DAVID database),
to predict the mechanism of Qingre Huoxue prescription in
the treatment of AMI.
results
Selection of objective compounds from Qingre Huoxue
prescription
DL refers to the similarity between compound molecules and
known drug molecules, which integrates pharmacokinetics and
safetyandhas agreatinuenceonpharmacology research.
At the same time, oral availability (OB) is an important
parameter for drugs entering the circulatory system through
oraladministration,andithasimportantguidingsignicance
for drug research and development.[10] The chemical
constituents were screened under the conditions of DL >0.18
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Jia, et al. Study on the mechanism of Qingre Huoxue Prescription in AMI
World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019
222
andOB>30%.ThroughthescreeningofTCMSP,superadd
literature,andPubChem, a total of 53 compounds were
obtained (The duplication between the herbs is not removed).
After removing duplication, 44 compounds were obtained, as
shown in Figure 1. Among the compounds collected, luteolin,
beta sterols, baicalin, and others appeared in a variety of
medicinal materials with extensive pharmacological activities.
The acquisition of Qingre Huoxue prescription targets and
related targets of acute myocardial infarction
PubChemdatabasewasusedtosearchtargetinformationof
compounds screened from Qingre Huoxue prescription and to
selectactivetargets.Forcompoundssharingatarget,removing
duplicates, and retaining only one, then 29 targets related to
Ligusticumwallichii,190 targetsrelatedto RadixPaeoniae
Rubra, 37 targets related to Lignum acronychiae, 154 targets
relatedtoSaower,173targetsrelatedtoS. miltiorrhiza,
154 targets related to S. baicalensis, and 69 targets related
to Ilex pubescens were obtained. Combining the targets of
all compounds, 409 targets were obtained after removal of
duplication. Drugbank database, OMIM, and Genecards
database were used to search acute myocardial infarct-related
targets; a total of 2661 targets of AMI were obtained after
removing duplicates. By mapping the targets corresponding
to Qingre Huoxue prescription, 178 targets and 41 compounds
related to Qingre Huoxue prescription in treating AMI were
obtained as shown in Table 1.
Network construction and analysis
CytoscapeV3.2.1(U.S. National Institute of General Medical
Sciences (NIGMS)) was used to construct the drug component
action-target network of Qingre Huoxue prescription, as shown
in Figure2.Thegreensquaresrepresentveherbs,theorange
rhomboids represent 41 compounds, and the yellow circles
represent 178 targets. Based on the Cytoscape-V3.2.1 network
analysis data, compounds and targets were screened according
to degrees of freedom, median centrality, and tight centrality,
and 14 key compounds and 9 key targets with three scores
above average were obtained at last (shows a large scale),
and most of these were from S. miltiorrhizaandSaoweras
shown in Tables 2 and 3.
The String database could be used to search known interactions
between proteins and to predict direct interactions between
Figure 1: Objective active compounds of Qingre Huoxue prescription
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Jia, et al. Study on the mechanism of Qingre Huoxue Prescription in AMI
World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019 223
proteins. We used String database to construct protein interaction
network for the treatment of AMI targets about Qingre Huoxue
prescription excluding nonhuman targets, as shown in Figure 2.
The top three of these compounds in terms of degrees of
freedom were ellagic acid, luteolin, and chrysin. Ellagic acid
has been reported to be able to prevent dietary atherosclerosis
in wild-type mice,[11]luteolincouldsignicantlyimprove
cardiac function and reduce the release of myocardial enzymes
andinammatorycytokinesaftermyocardialinfarction,[12] and
chrysinisanaturalavonoidthatcouldreduceinfarctsizeand
alleviateinammationandoxidativestressinmiceafteracute
ischemic stroke.[13]
Among these nine key targets screened out according to degrees
of freedom, median centrality, and tight centrality, androgen
receptor (AR) is widely presented in the cardiovascular
and cerebrovascular system. Studies have shown that bone
marrow mesenchymal stem cells (bm-mscs) could improve
the cardiac function of AMI, and bm-mscs also have ARs.[14,15]
Aldose reductase (gene AKR1B1) exists in nerve, heart,
and other tissues. Inhibiting aldose reductase can improve
the energy supply of ischemic myocardium and can reduce
ischemicinjuryofmyocardium.[16] Glycogen synthase
kinase-3 (GSK-3) beta belongs to the highly conserved
serine/threonine phosphokinase family and it plays a key role in
the cardiovascular system. Many myocardial protective drugs
arenallyfocusingonthetargetofGSK‑3throughavarietyof
signaling pathways, which could increase the phosphorylation
ofSer9,reducemPTPopeningtoprotectthemyocardium,and
aectthedierentiationofstemcellsintocardiacmyocytes.[17]
The treatment of AMI by Qingre Huoxue prescription may
be related to the inhibited expression of aldose reductase,
increased expression of AR, and overexpression of GSK-3 of
themyocardialstemcellsaboutdierentiatemyocardialcells
to repair damaged cardiac tissue, thereby improving cardiac
function.
The String database could be used to search for known
interactions between proteins and to predict direct interactions
between proteins. We used String database to construct protein
interaction network for the treatment of AMI targets with
Qingre Huoxue prescription excluding nonhuman targets,
as shown in Figure 3. In the network, nodes with a high
degree of values play important roles in the connection of the
network,theMAPTgenerankedtherstindegreeandplays
animportantroleintheMAPKsignalingpathway,andMAPK
inhibitors could inhibit endoplasmic reticulum stress and could
reduce myocardial apoptosis.
Enrichment of Kyoto Encyclopedia of Genes and Genomes
pathway and biological process analysis of gene ontology
KEGG pathway enrichment and GO bioassay were conducted
through using DAVID database; a total of 115 pathways
were enriched by KEGG pathway. According to P < 0.05
and literature screening, eight KEGG pathways and 10
biological pathways were associated with AMI and related
diseases, as shown in Figure 4a and b. The numbers in
Figure 4a and b represent the number of predicted targets
enriched in this pathway. That is to say, the target of TCM
ingredients may play a role in the pathways.
As can be seen from Figure4aandb,thePI3K‑AKT
signalingpathway,MAPKsignalingpathway,HIF‑1signaling
Table 1: 178 targets and 41 compounds related to
Qingre Huoxue prescription in treating acute myocardial
infarction
41 compounds AMI infarction‑related targets
Esculetin ITGB1;MMP1;TRPA1;IGF1R
Hydroquinone TEK;INSR;MET;EGFR
Scopoletin KDR;CCND1;PDGFRB;tat
Homovanillicacid BRAF;EPHB4;Lyn;PLK4
Formononetin PTK2;AKT1;CDK2;CCNA2
Beta-sitosterol HBB;MAPK1;EPHX2;GSR
Naringenin Dusp6;HSPA8;EIF4G1;PPP1CA
Isoliquiritigenin GRK2;ACP1;IL1B;F2
Baicalein lrp6;IL2;Ppara;Tnfsf11
Acacetin PIM1;BCHE;Plcg1;Prkaa2
Ent-epicatechin CHRM1;ADAM10;ADAM17;P4HB
Epiberberine TTR;Top1;MMP12;TNKS2
Oroxylin a Slc6a3; Adora1; TNKS; WRN
Wogonin MMP2;PARP1;SYK;MMP9
Chrysin MMP13;ALOX15B;MMP3;DAPK1
Quercetagetin RAPGEF3;MAPK10;FXN;PNLIP
Kaempferol JUN; CES1; STAT3; ACHE
Luteolin PTPN11;PTPN1;PTPRC;STAT1
Quercetin Kcnj2;MAPK13;MAPK14;EZH2
Rutin TERT;CASP9;MDM2;Ppp1r15a
Cryptotanshinone DNMT1;SRC;cacna1c;CYP1B1
Danshenola CYP1A1;CYP3A4;SMAD3;CYP2D6
DihydrotanshinoneⅠXDH;CYP2C19;AR;NR3C1
Isoimperatorin CASP3;CDK9;SMARCA2;ALOX5
Miltirone ⅡRELA;TP53;UGT1A1;CYP2C9
Miltirone MAPT;BLM;FEN1;GAPDH
Przewaquinonee MGAM; ABL1; EGLN1; ALOX12
Sclareol DPP4;GSK3B;PTGS1;BACE1
Tanshinone IIa OPRK1;OPRM1;OPRD1;POLB
Danshenol b BCL2L1; JAK2; Trpc4; Trpc6
Salvianolic acid a APAF1;FLT3;Ptgs2;Nos2
Tanshinone ii a sodium
sulfonate
Gabra3; MAOB; ABCG2; CDK5R1
Tanshinone i CDK1; CCNB1; AKR1B1; ABCB1
Sitosterol HDAC9; ESR1; NR1I2; TYR
Chlorogenic acid PPARG;NR1H4;VDR;CYBB
Caeicacid ESR2; DLD; DRD1; GAA
Ligustilide RUNX1;UHRF1;RGS8;PLA2G7
Ellagic acid TPM1;TNNI3;TNNT2;TNNC1
(+)‑Catechin AHR; CA2; CA3; CXCL8
Arbutin CYP19A1;ESRRA;GLI3;GLS
Ethyl gallate HIF1A;HTT;NFE2L2;NFKB1
RORC;THPO;ALOX15;PTGER2
CA9;CYP1A2;ERAP1;GNAI1
IMPA1;NOD2;RGS12;RIPK2
HSP90AA1;HSP90AB1
AMI: Acute myocardial infarction
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224
pathway, and other pathways are the main pathways for the
treatment of AMI and related diseases by Qingre Huoxue
prescription. Biological processes involve cellular response
to hypoxia and positive regulation of angiogenesis, etc.,
Studieshaveshown that PI3K‑AKT signaling pathway
plays a role in promoting angiogenesis and in improving
cardiac function after myocardial infarction was activated.
Vascularendothelialgrowthfactor(VEGF)isanimportant
regulatorofneovascularization.Itcouldeectivelypromote
ischemicmyocardialcollateralcirculation,increaseVEGF
expression, and promote angiogenesis.[18] In the Qingre
Huoxueprescription,27targetswereinvolvedinPI3K‑AKT
signaling pathway, which is the highest. It plays a role in
promoting angiogenesis after myocardial infarction and
in improving cardiac function after activation, and it is
an important signaling regulation pathway in platelet
activation.[19,20]Plateletactivationpathwayplaysaregulatory
roleintheprocess of Platelet adhesion and aggregation.
In the biological process of GO, positive regulation of
angiogenesis also indicated that the treatment of AMI with
Qingre Huoxue prescription might be related to angiogenesis
and platelet activation, which may be achieved through the
activationofPI3K‑AKTsignalingpathway.Themortalityof
heart failure after AMI is extremely high, which is related to
theapoptosisofcardiacmyocytes. MAPKinhibitorscould
inhibit endoplasmic reticulum stress and reduce myocardial
apoptosis,suggestingthatMAPKsignalingpathwayplaysan
important role in AMI myocardial apoptosis. Qingre Huoxue
prescription may treat AMI by weakening the apoptosis of
AMIcellsdamagedby MAPK signaling pathway.HIF‑1
is a nucleoprotein produced by cells under hypoxia that
consistsofalphaandbetasubunits.Ithasaprotectiveeect
on myocardial cells, and it can promote angiogenesis and
glycolysis.Increasedexpression of HIF‑1alphagenecould
increasecontentofVEGFintheblood,increasemyocardial
capillary density, and reduce myocardial infarction area.[21]
The expression of proteins related to the JAK-STAT channel
hasaprotectiveeect on myocardialischemia‑reperfusion
injury,andstudieshaveshownthatthemyocardialinfarction
area can be reduced through the mediation of the JAK-STAT
cell signaling pathway.[22] In addition, myocardial infarction
could cause death and loss of myocardial cells, immune system
disorders,andinammation.Toll‑likereceptorsplayacrucial
roleininducingimmuneandinammatoryresponses.[23]
Figure 2: Drug‑component‑target network map
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Jia, et al. Study on the mechanism of Qingre Huoxue Prescription in AMI
World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019 225
dIscussIon
At present, cardiovascular diseases are still top in the world
list of fatal diseases, and the fatality rate caused by AMI is
alsoincreasingyearbyyear.ForAMI,conventionalchemical
therapy has certain limitations in clinical treatment.[24] In the
eldofTCM,AMIbelongstothecategoryof“eclampsia”and
“genuine heartache.” It is very promising to use Chinese herbs
such as Spina date seed, Dalbergia odorifera, Radix puerariae,
and Angelica sinensis as a complementary therapy to the
treatment and prevention of cardiac remodeling after AMI.[25]
According to relevant studies, Qingre Huoxue prescription
couldimprovethelevelofinammatoryfactorsinpatientswith
AMI on the basis of Western medicine treatment, and it is good
in terms of safety.[5] Modern pharmacological studies have
shownthatSaowerhasantithrombosisandantiatherosclerosis
eects.[26] S. miltiorrhizahasprotectiveeectsonmyocardium,
vasodilation, and antiatherosclerosis.[27]RadixPaeoniae
Rubra has antithrombosis, antioxidation, and cardioprotection
effects.[28] Ligusticum wallichii has protective effect on
myocardium and antiplatelet aggregation;[29] S. baicalensis
has anti-inflammatory, antitumor, and antiangiogenesis
eects.[30] Lignum acronychiae has vasodilation, antioxidation,
Table 2: Results of network analysis on key active components of Qingre Huoxue prescription in the treatment of acute
myocardial infarction
Number Drug Compound Degree Median centrality Tight centrality
1 Radix paeoniae rubra Ellagic acid 61 2.366 0.423
2Saower;Salvia miltiorrhiza Luteolin 48 2.551 0.392
3Scutellaria baicalensis Chrysin 39 2.597 0.385
4Saower;Radixpaeoniaerubra Kaempferol 38 2.625 0.381
5Scutellaria baicalensis;saower;Radixpaeoniaerubra Baicalein 24 2.866 0.349
6Scutellaria baicalensis Acacetin 17 3.005 0.333
7 Ilex pubescens Hydroquinone 16 3.171 0.315
8Salvia miltiorrhiza Tanshinone IIa 15 2.977 0.336
9Salvia miltiorrhiza Cryptotanshinone 15 2.995 0.334
10 Lignum acronychiae Formononetin 14 3.051 0.328
11 Ligusticum wallichii Caeicacid 12 2.995 0.334
12 Salvia miltiorrhiza Tanshinone I 8 2.053 0.487
13 Saower Rutin 6 2.789 0.358
14 Lignum acronychiae Isoliquiritigenin 5 3 0.333
Table 3: The key target information and network analysis results of Qingre Huoxue prescription in the treatment of acute
myocardial infarction
Number Target name Gene Degree Median centrality Tight centrality
1 Microtubule-associated protein tau MAPT 8 0.411 0.073
2CytochromeP4501A2 CYP1A2 8 0.411 0.055
3 Androgen receptor AR 8 0.362 0.035
4 Aldose reductase AKR1B1 8 0.400 0.068
5 Carbonic anhydrase 2 CA2 7 0.397 0.052
6 Vitamin D3 receptor VDR 6 0.353 0.033
7 DNA polymerase beta POLB 6 0.372 0.044
8 Glycogen synthase kinase-3 beta GSK3B 6 0.384 0.046
9 Glyceraldehyde-3-phosphate
dehydrogenase
GAPDH 6 0.333 0.026
Figure 3: Protein interaction network of Qingre Huoxue prescription in
the treatment of acute myocardial infarction
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Jia, et al. Study on the mechanism of Qingre Huoxue Prescription in AMI
World J Tradit Chin Med | Volume 5 | Issue 4 | October-December 2019
226
anti‑inammatory,and other eects.[31] Ilex pubescens has
effects of lowering blood pressure, anticoagulation, and
anti‑inammationandimprovingimmunity.[32] However, the
mechanism of Qingre Huoxue prescription in treating AMI
is not clear.
Based on the method of network pharmacology, this study
investigated the relevant targets of Qingre Huoxue prescription
in the intervention of AMI and speculated the possible
mechanism of Qingre Huoxue prescription in the treatment of
AMI.Theresultsshowedthatthedierentcomponentsinthe
Qingre Huoxue prescription have similar or common targets and
maybehavesynergisticeects.SaowerandS. miltiorrhiza are
the compounds with the largest number of targets; they might
betheimportanteectiveChinesemedicineforclearingheat
and activating blood circulation. Targets of intervention for
AMI include androgen receptor, aldose reductase, and GSK-3
beta.Further,studiesonthetreatmentofAMI with Qingre
Huoxue prescription-related pathways involved arachidonic
acidmetabolism,VEGFsignalingpathway,JAK‑STAT
signaling pathway, Toll-like receptor signaling pathway, platelet
activation,HIF‑1signalingpathway,MAPKsignalingpathway,
andPI3K‑Aktsignalingpathway.
This study revealed the molecular basis and mechanism of
Qingre Huoxue prescription in the intervention of AMI, laying
a foundation for the development of TCM. However, there are
also some limitations, such as imperfect database information
may lead to omission of compounds and targets; because of
theauthor’scognitivedeciencies,theinterpretationmight
notbecomprehensive;lackofexperimentalvericationto
prove the accuracy of prediction. Therefore, it is imperative
to further study compounds and targets in the future from the
experimental perspective on the intervention of Qingre Huoxue
prescription in the treatment of AMI.
Financial support and sponsorship
Nil.
Conflicts of interest
Therearenoconictsofinterest.
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