元素比值在嫩江—黑河地区金成矿预测的应用初探

doi:10.11872/j.issn.1005-2518.2022.06.185

Abstract

Abstract:

In order to explore the application of element ratio in gold metallogenic prediction，based on the collection of 1∶250 000 regional geochemical exploration data in Nenjiang-Heihe area，the data were standardized with the abundance of upper crust，and the ratios of Au to front halo elements and tail halo elements and the ratios of front halo elements to tail halo elements were calculated.Then，the geochemical parameters of each element and the ratios of characteristic elements were counted，their geochemical characteristics were analyzed.The geochemical contour map of Au and the ratios of characteristic elements at a logarithmic interval of （0.1~0.2） lgC was drawn，and the distribution characteristics of them were summarized.Finally，combined with the distribution law of existing gold deposits and the distribution characteristics of gold deposits on the geochemical isoline map of various variables，we delineated the prospecting target area.The results show that after the dimensionality is eliminated by standardization，the average value range of characteristic element ratios is 0.60~15.58，with little difference，which is convenient for statistical analysis and geochemical isoline drawing.And the spatial distribution characteristics of characteristic element ratios are closely related to the distribution of existing gold deposits.Their high background and high value areas have obvious northeast and northwest distribution trends，and some have north-south and east-west distribution trends，it is consistent with the distribution direction of existing gold mines.According to the distribution characteristics of existing gold deposits on the geochemical contour map of Au and the ratios of the characteristic element，a total of 7 metallogenic targets are delineated.The study shows that the element ratio has achieved a certain effect in the prediction of gold mineralization，which provides a scientific basis for the search for gold deposits in Nenjiang-Heihe area and a new idea for the study of new prospecting methods.

Key words: element ratio, gold mine, metallogenic prediction, geochemical method, regional prospecting, Nenjiang-Heihe area

CLC Number:

P618.51

Anzong FU,Xinlang YU,Chenglu LI,Wenpeng YANG,Yuanjiang YANG,Bo ZHENG,Ruijun ZHAO. Application of Element Ratios in Gold Metallogenic Prediction in Nenjiang-Heihe Area[J].Gold Science and Technology, 2022, 30(6): 822-834.

Figures/Tables 6

Fig.1

Table 1

Table 2

Fig.2

Fig.3

Fig.4

References 0

	Cao Yingchang， Wang Yanzhong， Xu Taoyu，et al，2007.Application of the ratio of characteristic elements in provenance analysis：A case study from the upper part of the fourth me-mber of the Shahejie Fm.in the W 58 area，Dongying Depression［J］.Acta Sedimentologica Sinica，25（2）：230-238.
	Defant M J， Drummond M S，1990.Derivation of some modern arc magmas by melting of young subducted lithosphere［J］.Nature，347：662-665.
	Hao Libo， Feng Shuowei， Zhao Yuyan，et al，2014.Rimary axial zonal sequence of the Sandaowanzi gold deposit in northern Da Hinggan Mountains and its significance［J］.Geo-physical and Geochemical Exploration，38（2）：284-288.
	Jiang Jingye， Cheng Jianping， Qi Shihua，et al，2006.Applied Geochemistry［M］.Wuhan：China University of Geosciences Press.
	Li C L， Li L， Yuan M W，et al，2020.Study on pyrite thermoelectricity，ore-forming fluids and H-O-Rb-Sr isotopes of the Yongxin gold deposit，Central Asian Orogenic Belt：Implications for ore genesis and exploration［J］.Ore Geology Reviews，121：103568.
	Li Chenglu，2018.Gold Metallogeny and Prospecting in the Nenjiang-Heihe Tectonic Mélange Zone，Heilongjiang Province［D］.Beijing：China University of Geosciences（Beijing）.
	Li Chenglu， Li Shengrong， Yuan Maowen，et al，2020a.Genesis of the Keluo Au deposit in the Nenjiang-Heihe tectonic melangeit，Heilongjiang Province：Evidence from chemical composition and pyrite He-Ar，S，Pb isotopes［J］.Earth Science Frontiers，27（5）：99-115.
	Li Chenglu， Yu Yuanbang， Yuan Maowen，et al，2020b.Discovery and geological significance of gold-silver bearing minerals and tellurides in the Yongxin gold deposit in the northeastern Great Xing’an Range［J］.Earth Science Frontiers，27（4）：244-254.
	Li Hui， Yu Bin， Li Deliang，et al，2015.Structural superimposed halo model of different type gold deposit for deep blind ore prediction［J］.Mineral Resources and Geology，29（5）：648-653，658.
	Li Yu，2018.Geochronology and Geochemistry of the Mesozoic Igneous Rocks in the Xing’an Massif，NE China：Constraints on the Evolution of the Mongol-Okhotsk Tectonic Regime［D］.Changchun：Jilin University.
	Li Y， Xu W L， Wang F，et al，2017.Triassic volcanism along the eastern margin of the Xing’an Massif，NE China：Constrai-nts on the spatial-temporal extent of the Mongol-Okhotsk tectonic regime［J］.Gondwana Research，48（1）：205-223.
	Liu Baoshan， Cheng Zhaoxun， Qian Cheng，et al，2021.Geochronology and geodynamic background study of the late triassic bimodal pattern intrusive rock in Da Hinggan Mountains Duobaoshan area［J］.Earth Science，46（7）：2311-2328.
	Liu Baoshan， Yang Xiaoping， Li Chenglu，2017.Ductile shear zone and gold mineralization of Sanhetun gold deposit in Nenjiang，Heilongjiang Province［J］.Mineral Resources and Geology，31（3）：503-506，513.
	Liu Xuguang， Jun Lü， Li Hui，et al，2019.Structural superimposed halos model and prospecting targets prediction of the Sandaowanzi gold deposit，Heilongjiang［J］.Mineral Exp-loration，10（10）：2645-2653.
	Qu Huaxiang， Huang Baoqi，2019.Paleoclimate change reflected by element ratios of terrigenous sediments from deep-sea oxygen isotope MIS6 to MIS5 at MD12-3432 station in northern South China Sea［J］.Earth Science Frontiers，26（3）：236-242.
	Tang Chen， Zhang Dongcai， Yu Yuejiang，et al，2013.Report on evaluation results of mineral resources potential in Heilongjiang Province［R］.Harbin：Heilongjiang Institute of Geological Survey.
	Tang Rong， Feng Xiuli， Feng Li，et al，2020.Geochemical characteristics and paleoenvironmental significance of the major elements in the sediments of Core TS6 from the southern part of Southwest Taiwan Basin of the South China Sea［J］.Marine Geology and Quaternary Geology，40（2）：58-69.
	Treuil M， Joron J M，1975.Utilisation des elements hygromagmatophiles pour la simplifications de la modelisation quantitative des precessus magmatiques［J］.Society of Italia Mineralogy and Petrology，31：125-174.
	Wang J， Su B X， Robinson P T，et al，2021.Trace elements in olivine：Proxies for petrogenesis，mineralization and discrimination of mafic-ultramafic rocks［J］.Lithos，388/389：106085.
	Wang Yida， Ma Jiuju， Li Hui，et al，2015.Structure superimposed halo model and effect of the deep blind ore prediction in Sandaowanzi gold deposit，Heilongjiang Province［J］.Contributions to Geology and Mineral Resources Research，30（4）：623-629.
	Wang Zaicong， Zou Zongqi，2019.A brief introduction to the application of elemental ratios of siderophile and chalcophile elements in earth sciences［J］.Bulletin of Mineralogy，Petrology and Geochemistry，38（2）：224-236.
	Yan Mingcai， Chi Qinghua，1997.The Chemical Composition of the Continental Crust and Rocks in the Eastern Part of China［M］.Beijing：Science Press.
	Yang Fushen， Li Chenglu， Shi Guoming，et al，2019.Existence of early Paleozoic NW-trending orogenic belt and its geo-significance in Duobaoshan-Huolongmen area，Heilongjiang［J］.Mineral Resources and Geology，33（2）：191-202.
	Yu Bin， Li Hui， Li Yongcai，et al，2017.Structural superimposed halo practical model for deep blind ore prediction in typical deposits［J］.Gold Science and Technology，25（2）：1-6.
	Zhang Yu， Du Bingying， Zhang Tie’an，et al，2020.Record of magmatic rocks and related type of deposit for Paleozoic and Mesozoic ocean-land transition in Nenjiang-Heihe area，Heilongjiang Province［J］.Earth Science，45（7）：2360-2378.
	操应长，王艳忠，徐涛玉，等，2007.特征元素比值在沉积物物源分析中的应用——以东营凹陷王58井区沙四上亚段研究为例［J］.沉积学报，25（2）：230-238.
	郝立波，冯朔伟，赵玉岩，等，2014.大兴安岭北段三道湾子碲金型矿床的原生晕分带及意义［J］.物探与化探，38（2）：284-288.
	将敬业，程建萍，祁士华，等，2006.应用地球化学［M］.武汉：中国地质大学出版社.
	李成禄，2018.黑龙江省嫩江—黑河构造混杂岩带金矿成矿作用及找矿预测［D］.北京：中国地质大学（北京）.
	李成禄，李胜荣，袁茂文，等，2020a.黑龙江省嫩江—黑河构造混杂岩带科洛金矿床成因：来自黄铁矿化学成分及He-Ar、S、Pb同位素证据［J］.地学前缘，27（5）：99-115.
	李成禄，于援帮，袁茂文，等，2020b.大兴安岭东北部永新金矿床金银系列矿物和碲化物的发现及其意义［J］.地学前缘，27（4）：244-254.
	李惠，禹斌，李德亮，等，2015.不同类型金矿深部盲矿预测的构造叠加晕模型［J］.矿产与地质，29（5）：648-653，658.
	李宇，2018.兴安地块中生代火成岩的年代学与地球化学：对蒙古—鄂霍茨克构造体系演化的制约［D］.长春：吉林大学.
	刘宝山，程招勋，钱程，等，2021.大兴安岭多宝山晚三叠世双峰式侵入岩年代学及地球动力学背景［J］.地球科学，46（7）：2311-2328.
	刘宝山，杨晓平，李成禄，2017.黑龙江省嫩江三合屯韧性剪切带与金矿化［J］.矿产与地质，31（3）：503-506，513.
	刘旭光，吕军，李惠，等，2019.黑龙江三道湾子金矿床构造叠加晕模式及找矿靶区预测［J］.矿产勘查，10（10）：2645-2653.
	曲华祥，黄宝琦，2019.南海北部MD12-3432站深海氧同位素MIS6期到MIS5期陆源沉积物元素比值反映的古气候变化［J］.地学前缘，26（3）：236-242.
	唐臣，张东财，于跃江，等，2013.黑龙江省矿产资源潜力评价成果报告［R］.哈尔滨：黑龙江省地质调查研究总院.
	唐荣，冯秀丽，冯利，等，2020.南海台西南盆地南部海域TS6孔常量元素地球化学特征及其古环境意义［J］.海洋地质与第四纪地质，40（2）：58-69.
	王一大，马久菊，李惠，等，2015.黑龙江三道湾子金矿深部盲矿预测的构造叠加晕研究［J］.地质找矿论丛，30（4）：623-629.
	汪在聪，邹宗琪，2019.亲铜（亲铁）元素含量比值在地球科学中的初步应用实例［J］.矿物岩石地球化学通报，38（2）：224-236.
	鄢明才，迟清华，1997.中国东部地壳与岩石的化学组成［M］.北京：科学出版社.
	杨福深，李成禄，石国明，等，2019.试论黑龙江省多宝山—霍龙门地区早古生代NW向造山带的存在及其控岩控矿意义［J］.矿产与地质，33（2）：191-202.
	禹斌，李惠，李永才，等，2017.典型矿床深部盲矿预测的构造叠加晕实用模式［J］.黄金科学技术，25（2）：1-6.
	张昱，杜兵盈，张铁安，等，2020.黑龙江省嫩江—黑河地区古、中生代洋陆转换的岩浆岩记录及相关的矿床类型［J］.地球科学，45（7）：2360-2378.

Related Articles 15

[1]	Dexi MA,Xirong REN,Jiong SONG,Baowei ZHANG. Application of High Density Electrical Method in Prospecting for Duoguma Antimony Gold Ore Spot in North Bayan Har Mountains [J]. Gold Science and Technology, 2022, 30(4): 498-507.
[2]	Hailong CHEN,Zhibin XU,Xiaohong YANG,Haiyan YANG,Shenggang WU,Boren ZHENG,Lei GAO,Junhui CHEN. Application of Hydrocarbon-Mercury Superimposed Halo Method in Deep Prospecting of Wangu Gold Deposit and Its Periphery in Hunan Province [J]. Gold Science and Technology, 2022, 30(3): 366-381.
[3]	Baichuan SUN,Ruidong YANG,Lulin ZHENG,Jun CHEN,Haili REN,Junbo GAO,Wei CHENG. Potential Resource Evaluation and Treatment Suggestions of Gold Tailings （Slag） in Southwest Guizhou [J]. Gold Science and Technology, 2022, 30(3): 470-482.
[4]	Xinwei ZHANG, Yonghui SONG, Ping DONG, Ning YIN, Long LIAO, Panpan ZHANG. Research Progress on Carbonaceous Matters and Its “Preg-robbing” Mechanism in Carbonaceous Gold Ores [J]. Gold Science and Technology, 2022, 30(2): 302-312.
[5]	Yu ZHANG,Junhao WEI,Wenjie SHI,Guomeng LI,Xinqi ZHOU,Guozheng Mao,Chenglin LIU. Soil Geochemical Anomaly Information Extraction and Metallogenic Prediction of the Buzhu Gold（Antimony） Deposit in the Kangma County，South Tibet [J]. Gold Science and Technology, 2022, 30(1): 1-18.
[6]	Chengyu YI,Yingjie PEI,Shuai MA. Experimental Study and Application of Grinding Medium Ratio Optimization in Jiaojia Gold Mine [J]. Gold Science and Technology, 2022, 30(1): 122-130.
[7]	Tianjiao WU,Huan CAO,Fangyin NIU,Jianping JIN,Haijun WANG,Jun CHEN,Yaru WEI. Study on Gold Extraction from a Carbon-bearing Fine-grained Refractory Gold Ore by Flotation Process [J]. Gold Science and Technology, 2021, 29(5): 761-770.
[8]	Bing YU,Haicheng QIU,Changming YU,Qingdong ZENG,Qin DU,Jie YE,Jian-ping LI,Haitao CHEN. Application of EH4 Magnetotelluric Method in Ore-controlling Structure and Metallogenic Prediction of the Wulong Gold Deposit in Liaodong Peninsula [J]. Gold Science and Technology, 2021, 29(5): 637-646.
[9]	Guobin WANG,Zhuoyue LAN,Ruikang WANG,Qingping ZHAO,Di YANG,Boqi LI. Effect of Silver Content on Galena Flotation and Research Progress on Its Mechanism [J]. Gold Science and Technology, 2021, 29(5): 749-760.
[10]	Yifan LI,Hongkui LI,Xuelin HAN,Ke GENG,Yubo ZHANG,Guodong CHEN. Genesis of Xiadian Gold Deposit in Jiaodong：Evidence from Fluid Inclusions and Isotopes [J]. Gold Science and Technology, 2021, 29(2): 184-199.
[11]	Xingdong ZHAO,Nan ZENG,Yumin CHEN,Hui WEI,Chenglong WANG,Chenglu HOU,Yunlong DU,Chunchao FAN. Design of the Medium-deep Hole Caving and Subsequent Filling Continuous Mining Technology in Underground Unmanned Mining Area of Sanshandao Gold Mine [J]. Gold Science and Technology, 2021, 29(2): 200-207.
[12]	Shanfei WANG, Kang WANG, Fengshan MA, Rong LU. Optimization of Three-underground Mining Technology and Disaster Prevention in Sanshandao Gold Mine [J]. Gold Science and Technology, 2020, 28(5): 734-742.
[13]	Zhen ZHANG, Shengyuan NING, Zengtian XU. Mineralogy of Gold-bearing Pyrite and Its Significance for Deep Prospecting in the Jiuqu Gold Deposit，Linglong Area，Jiaodong Peninsula [J]. Gold Science and Technology, 2020, 28(3): 328-336.
[14]	Yunzhong QIN, Haijun SONG. Prospecting Model and Metallogenic Prediction of Yandan-Yantang Gold Deposit in Leye County，Guangxi [J]. Gold Science and Technology, 2020, 28(3): 317-327.
[15]	Wei QI,Wei LI,Zhenyang LI,Guoyan ZHAO. Rock Mass Quality Evaluation of Underground Mine Based on CRITIC-CW Method [J]. Gold Science and Technology, 2020, 28(2): 264-270.

Metrics

Viewed

Full text

Abstract

Cited

Shared

Discussed

Comments

Recommended 0

No Suggested Reading articles found!

元素（氧化物）	算术均值	均方差	变化系数	上地壳丰度	浓度克拉克值	元素（氧化物）	算术均值	均方差	变化系数	上地壳丰度	浓度克拉克值
Au	1.66	28.80	17.32	0.74	2.25	Mn	1 125.67	1 606.13	1.43	575	1.96
Ag	0.06	0.05	0.83	0.055	1.03	Nb	8.33	5.35	0.64	12	0.69
As	12.10	20.88	1.73	1.9	6.37	Ni	12.85	17.16	1.34	24	0.54
Sb	0.58	1.10	1.89	0.18	3.22	P	676.17	729.73	1.08	590	1.15
Bi	0.16	0.33	2.08	0.13	1.21	Pb	22.94	17.92	0.78	17	1.35
Hg	0.03	0.23	9.24	0.0078	3.22	Sr	263.57	174.05	0.66	330	0.80
W	0.95	1.20	1.27	0.9	1.05	Th	5.39	2.76	0.51	8.6	0.63
Mo	1.12	1.32	1.18	0.6	1.87	Ti	2 149.51	1 940.77	0.90	3 000	0.72
F	273.69	193.07	0.71	540	0.51	V	58.48	58.90	1.01	68	0.86
Cd	0.06	0.08	1.23	0.072	0.88	Y	12.41	7.85	0.63	17	0.73
Sn	1.64	0.94	0.57	1.5	1.09	Zn	35.30	27.80	0.79	60	0.59
B	14.18	16.21	1.14	17	0.83	Zr	132.98	92.37	0.69	162	0.82
Li	15.52	10.84	0.70	16	0.97	SiO₂	72.00	7.76	0.11	61.77	1.17
Be	1.89	0.71	0.38	1.6	1.18	Al₂O₃	11.86	2.49	0.21	13.61	0.87
U	1.39	0.87	0.62	1.5	0.93	TFe₂O₃	3.60	3.30	0.91	4.78	0.75
Ba	703.68	317.22	0.45	740	0.95	K₂O	3.14	0.85	0.27	3.06	1.03
Co	16.47	22.99	1.40	12	1.37	Na₂O	2.20	0.96	0.43	2.96	0.74
Cr	23.63	33.89	1.43	52	0.45	CaO	1.11	0.91	0.82	5.6	0.20
Cu	10.34	47.92	4.63	18	0.57	MgO	0.66	0.71	1.08	2.73	0.24
La	18.11	10.42	0.58	35	0.52

特征元素比值	算术均值	均方差	变化系数	特征元素比值	算术均值	均方差	变化系数
Au/As	0.60	4.81	7.96	As/Ni	15.58	18.09	1.16
Au/Sb	1.01	17.71	17.61	Sb/Bi	3.01	4.23	1.41
Au/Hg	1.86	64.95	34.87	Sb/Mn	2.64	4.65	1.76
Au/Bi	1.98	24.67	12.46	Sb/Co	3.57	5.08	1.42
Au/Mn	2.28	30.12	13.20	Sb/Ni	8.85	13.70	1.55
Au/Co	3.17	47.09	14.87	Hg/Bi	3.86	32.50	8.43
Au/Ni	7.17	90.37	12.61	Hg/Mn	4.59	32.47	7.07
As/Bi	6.01	7.96	1.33	Hg/Co	5.86	47.95	8.19
As/Mn	4.35	5.55	1.28	Hg/Ni	13.15	79.95	6.08
As/Co	6.07	7.81	1.29

Application of Element Ratios in Gold Metallogenic Prediction in Nenjiang-Heihe Area

RichHTML

PDF (PC)