Javascript 将JS对象提取为JSON
上面的URL包含这样一个对象 我想将其解压缩并以JSON格式打印到标准输出。有人能给我看一下实现这个目标的完整代码(python或nodejs)吗Javascript 将JS对象提取为JSON,javascript,python,node.js,json,regex,Javascript,Python,Node.js,Json,Regex,上面的URL包含这样一个对象 我想将其解压缩并以JSON格式打印到标准输出。有人能给我看一下实现这个目标的完整代码(python或nodejs)吗 var i = { CHROMOSOMES: { HUMAN: [{ name: "1", value: "1" }, { na
var i = {
CHROMOSOMES: {
HUMAN: [{
name: "1",
value: "1"
}, {
name: "2",
value: "2"
}, {
name: "3",
value: "3"
}, {
name: "4",
value: "4"
}, {
name: "5",
value: "5"
}, {
name: "6",
value: "6"
}, {
name: "7",
value: "7"
}, {
name: "8",
value: "8"
}, {
name: "9",
value: "9"
}, {
name: "10",
value: "10"
}, {
name: "11",
value: "11"
}, {
name: "12",
value: "12"
}, {
name: "13",
value: "13"
}, {
name: "14",
value: "14"
}, {
name: "15",
value: "15"
}, {
name: "16",
value: "16"
}, {
name: "17",
value: "17"
}, {
name: "18",
value: "18"
}, {
name: "19",
value: "19"
}, {
name: "20",
value: "20"
}, {
name: "21",
value: "21"
}, {
name: "22",
value: "22"
}, {
name: "X",
value: "X"
}, {
name: "Y",
value: "Y"
}, {
name: "reserved loci",
value: "reserved"
}, {
name: "mitochondrial",
value: "mito"
}, {
name: "pseudoautosomal",
value: "XandY"
}]
},
STATUSES: [{
name: "Approved",
value: "Approved"
}, {
name: "Entry and symbol withdrawn",
value: "Entry Withdrawn"
}],
ATTRIBUTES: {
HGNC: [{
name: "HGNC ID",
value: "gd_hgnc_id"
}, {
name: "Approved symbol",
value: "gd_app_sym"
}, {
name: "Approved name",
value: "gd_app_name"
}, {
name: "Status",
value: "gd_status"
}, {
name: "Locus type",
value: "gd_locus_type"
}, {
name: "Locus group",
value: "gd_locus_group"
}, {
name: "Previous symbols",
value: "gd_prev_sym"
}, {
name: "Previous name",
value: "gd_prev_name"
}, {
name: "Synonyms",
value: "gd_aliases"
}, {
name: "Name synonyms",
value: "gd_name_aliases"
}, {
name: "Chromosome",
value: "gd_pub_chrom_map"
}, {
name: "Date approved",
value: "gd_date2app_or_res"
}, {
name: "Date modified",
value: "gd_date_mod"
}, {
name: "Date symbol changed",
value: "gd_date_sym_change"
}, {
name: "Date name changed",
value: "gd_date_name_change"
}, {
name: "Accession numbers",
value: "gd_pub_acc_ids"
}, {
name: "Enzyme IDs",
value: "gd_enz_ids"
}, {
name: "NCBI Gene ID",
value: "gd_pub_eg_id"
}, {
name: "Ensembl gene ID",
value: "gd_pub_ensembl_id"
}, {
name: "Mouse genome database ID",
value: "gd_mgd_id"
}, {
name: "Specialist database links",
value: "gd_other_ids"
}, {
name: "Specialist database IDs",
value: "gd_other_ids_list"
}, {
name: "Pubmed IDs",
value: "gd_pubmed_ids"
}, {
name: "RefSeq IDs",
value: "gd_pub_refseq_ids"
}, {
name: "Gene group ID",
value: "family.id"
}, {
name: "Gene group name",
value: "family.name"
}, {
name: "CCDS IDs",
value: "gd_ccds_ids"
}, {
name: "Vega IDs",
value: "gd_vega_ids"
}, {
name: "Locus specific databases",
value: "gd_lsdb_links"
}],
EXTERNAL: [{
name: "NCBI Gene ID",
source: "NCBI",
value: "md_eg_id"
}, {
name: "OMIM ID",
source: "OMIM",
value: "md_mim_id"
}, {
name: "RefSeq",
source: "NCBI",
value: "md_refseq_id"
}, {
name: "UniProt ID",
source: "UniProt",
value: "md_prot_id"
}, {
name: "Ensembl ID",
source: "Ensembl",
value: "md_ensembl_id"
}, {
name: "Vega ID",
source: "Vega",
value: "md_vega_id"
}, {
name: "UCSC ID",
source: "UCSC",
value: "md_ucsc_id"
}, {
name: "Mouse genome database ID",
source: "MGI",
value: "md_mgd_id"
}, {
name: "Rat genome database ID",
source: "RGD",
value: "md_rgd_id"
}, {
name: "LNCipedia",
source: "LNCipedia",
value: "md_lncipedia"
}, {
name: "GtRNAdb",
source: "GtRNAdb",
value: "md_gtrnadb"
}]
},
ORDER_BY: [{
name: "HGNC ID",
value: "gd_hgnc_id"
}, {
name: "Approved symbol",
value: "gd_app_sym_sort"
}, {
name: "Approved name",
value: "gd_app_name"
}, {
name: "Status",
value: "gd_status"
}, {
name: "Locus type",
value: "gd_locus_type"
}, {
name: "Locus group",
value: "gd_locus_group"
}, {
name: "Previous symbols",
value: "gd_prev_sym"
}, {
name: "Previous name",
value: "gd_prev_name"
}, {
name: "Synonyms",
value: "gd_aliases"
}, {
name: "Name synonyms",
value: "gd_name_aliases"
}, {
name: "Chromosome",
value: "gd_pub_chrom_map_sort"
}, {
name: "Date approved",
value: "gd_date2app_or_res"
}, {
name: "Date modified",
value: "gd_date_mod"
}, {
name: "Date symbol changed",
value: "gd_date_sym_change"
}, {
name: "Date name changed",
value: "gd_date_name_change"
}, {
name: "Accession numbers",
value: "gd_pub_acc_ids"
}, {
name: "Enzyme IDs",
value: "gd_enz_ids"
}, {
name: "NCBI Gene ID",
value: "gd_pub_eg_id"
}, {
name: "Ensembl gene ID",
value: "gd_pub_ensembl_id"
}, {
name: "Mouse genome database ID",
value: "gd_mgd_id"
}, {
name: "Specialist database links",
value: "gd_other_ids"
}, {
name: "Specialist database IDs",
value: "gd_other_ids_list"
}, {
name: "Pubmed IDs",
value: "gd_pubmed_ids"
}, {
name: "RefSeq IDs",
value: "gd_pub_refseq_ids"
}, {
name: "Gene group ID",
value: "family.id"
}, {
name: "Gene group name",
value: "family.name"
}, {
name: "CCDS IDs",
value: "gd_ccds_ids"
}, {
name: "Vega IDs",
value: "gd_vega_ids"
}, {
name: "Locus specific databases",
value: "gd_lsdb_links"
}, {
name: "NCBI Gene ID (supplied by NCBI)",
value: "md_eg_id"
}, {
name: "OMIM ID (supplied by OMIM)",
value: "md_mim_id"
}, {
name: "RefSeq (supplied by NCBI)",
value: "md_refseq_id"
}, {
name: "UniProt ID (supplied by UniProt)",
value: "md_prot_id"
}, {
name: "Ensembl ID (supplied by Ensembl)",
value: "md_ensembl_id"
}, {
name: "Vega ID (supplied by Vega)",
value: "md_vega_id"
}, {
name: "UCSC ID (supplied by UCSC)",
value: "md_ucsc_id"
}, {
name: "Mouse genome database ID (supplied by MGI)",
value: "md_mgd_id"
}, {
name: "Rat genome database ID (supplied by RGD)",
value: "md_rgd_id"
}, {
name: "LNCipedia ID (supplied by LNCipedia)",
value: "md_lncipedia"
}, {
name: "GtRNAdb ID (supplied by GtRNAdb)",
value: "md_gtrnadb"
}],
OUTPUT: ["Text", "Make URL for text"]
};
您可以尝试使用regex获取实际的JavaScript对象。但是,如注释中所述,您需要首先执行代码,这可能会很危险
//NodeJS
常量请求=要求(“请求”);
请求(“https://www.genenames.org/js/custom-downloads-bf.js“,(错误、正文、响应)=>{
const MatchedResponse=body.match(/{C.*?};/gm)[0];//将对象从“{C”匹配到“};”
让我们来回应;
评估(“JSONResponse=“+MatchedResponse”)
log(JSON.stringify(JSONResponse));
});
如果您担心对象中嵌入了恶意代码,您应该在执行之前创建一个函数来验证代码。我可能会美化.js(例如使用): 然后运行它:
sed -n $'/^[ \t]*CHROMOSOMES/,/^[ \t]*};/p' |
sed -e '1s/^/{/' -e '$s/;//'
唯一可靠的方法是实际执行该代码。如果您不信任来源,则这可能是危险的。虽然我想你可以用沙箱来装…怎么装呢?有没有办法在nodejs程序中创建一个沙盒来运行代码?有,有几个模块可以实现这一点。这里有一个问题:你介意在输入custom-downloads-bf.js文件上编写一个脚本吗?但是这个正则表达式似乎不太可靠。如果从“{C”到“}”还有其他对象呢?