, ( : A : TM ED TA. 1 mm ml 8. 0 mol/ L H 2 SO ml PTFE, 30 min

Similar documents
: : O : A. ; 8511A TOL EDO 320 p H. A. R. Vol. 7 No. 3 Aug EL ECTROCHEMISTR Y : (2001) (1.

Vol. 11 No. 4 Nov ELECTROCHEM ISTRY ( GB ). : O 646, R : A ), 120 cm 2 ( TSM2005)

Supporting Information

: A : TQ (DM TA) TG-DTA (2 cm 5 cm),, 20 min,

Supporting Information

Supporting Information

High Salt Removal Capacity of Metal-Organic Gel Derived. Porous Carbon for Capacitive Deionization

Electronic Supplementary Information

Supporting Information. Bi-functional Catalyst with Enhanced Activity and Cycle Stability for. Rechargeable Lithium Oxygen Batteries

Supporting Information

Nanosheet-Constructed Porous BiOCl with Dominant {001} Facets for Superior Photosensitized Degradation

Perovskite Solar Cells Powered Electrochromic Batteries for Smart. Windows

Supporting Information. Ce 3+ -Doping to Modulate Photoluminescence Kinetics for Efficient CsPbBr 3 Nanocrystals Based Light-Emitting Diodes

In-Situ Fabrication of CoS and NiS Nanomaterials Anchored on. Reduced Graphene Oxide for Reversible Lithium Storage

Supporting Information

, ( :0646 : A. . Wang [5 ] Penven [8 ] [ Pd (N H 3 ) 2 Cl 2 + N H 4 Cl ] p H. p H Penven. Vol. 6 No. 2 May EL ECTROCHEMISTR Y

Tuning the Shell Number of Multi-Shelled Metal Oxide. Hollow Fibers for Optimized Lithium Ion Storage

Supporting Information. Metal-Organic Frameworks Mediated Synthesis of One-Dimensional Molybdenum-Based/Carbon Composites for Enhanced Lithium Storage

Supporting Information

Sulfur-bubble template-mediated synthesis of uniform porous g-c 3 N 4 with superior photocatalytic performance

Science and Technology, Dalian University of Technology, Dalian , P. R. China b

Supporting Information for: Atomic Substitution Enabled Synthesis of Vacancy-Rich Two- Rechargeable Magnesium Batteries

Electronic Supplementary Information. Composite Gel Polymer Electrolyte for Lithium-sulfur

Supporting information

KOH : ; 30 wt. % KOH, %, Na 3 PO 4. ,. 40 g/ L Na 2 CO 3 25 g/ L Na 3 PO 4, 100 ma/ cm 2. 3 mol/ L H 2 SO 4.

Supporting Information

Supporting Information for

Metal-Organic Framework Derived Iron Sulfide-Carbon Core-Shell Nanorods as a Conversion-Type Battery Material

Supporting information

Ultrasmall Sn nanoparticles embedded in nitrogen-doped porous carbon as high-performance anode for lithium-ion batteries

Th- GSH : O 657 : A. ], Yoneyama Schlereth NADH [5 ], EG &G 273A Po2 tentiostat/ Galvanostat (USA). Th (Chroma. Co) GSH.

CHEM J-8 June /01(a)

Huan Pang, Jiawei Deng, Shaomei Wang, Sujuan Li, Jing Chen and Jiangshan Zhang

Supporting Information. Phenolic/resin assisted MOFs derived hierarchical Co/N-doping carbon

Comment on "cycling Li-O2 batteries via LiOH formation and decomposition"

Low-cost and high energy density asymmetric supercapacitors based on polyaniline nanotubes and MoO 3 nanobelts

Engineering NiS/Ni 2 P Heterostructures for Efficient Electrocatalytic Water Splitting

Supporting Information An Interlaced Silver Vanadium Oxide-Graphene Hybrid with High Structural Stability for Use in Lithium Ion Batteries

Metal Organic Framework-Derived Metal Oxide Embedded in Nitrogen-Doped Graphene Network for High-Performance Lithium-Ion Batteries

Name: Regents Chemistry Date:

Supporting information A Porous Zr-cluster-based Cationic Metal-Organic Framework for Highly Efficient Cr 2 O 7

Composition-Controlled PtFe Nanostructures as Counter

Supporting Information

12.05 Galvanic Cells. Zn(s) + 2 Ag + (aq) Zn 2+ (aq) + 2 Ag(s) Ni(s) + Pb 2+ (aq) «Ni 2+ (aq) + Pb(s)

Electronic Supplementary Information

Hierarchical MoO 2 /Mo 2 C/C Hybrid Nanowires for High-Rate and. Long-Life Anodes for Lithium-Ion Batteries. Supporting Information

Micro/Nanostructured Li-rich Cathode Materials with. Enhanced Electrochemical Properties for Li-ion. Batteries

Supporting Information

Supporting Information

An Advanced Anode Material for Sodium Ion. Batteries

CHEMISTRY 13 Electrochemistry Supplementary Problems

Supporting information

Tailorable and Wearable Textile Devices for Solar Energy Harvesting and Simultaneous Storage

General Synthesis of Graphene-Supported. Bicomponent Metal Monoxides as Alternative High- Performance Li-Ion Anodes to Binary Spinel Oxides

Journal of Materials Chemistry A ELECTRONIC SUPPLEMENTARY INFORMATION (ESI )

Carbon Dots Modified Mesoporous Organosilica as an Adsorbent for the. Removal of 2, 4-Dichlorophenol and Heavy Metal Ions

Supporting Information for

CHEM J-12 June 2013

Electronic Supplementary Information. Lithium-Oxygen Batteries: Bridging Mechanistic Understanding and Battery Performance

Graphene oxide hydrogel at solid/liquid interface

Capillary Effect-enabled Water Electrolysis for Enhanced. Electrochemical Ozone Production by Using Bulk Porous Electrode

5th International Conference on Information Engineering for Mechanics and Materials (ICIMM 2015)

Supplementary Information

Supporting Information

Supporting Information. Facile electrospinning formation of carbon-confined metal oxide cube-intube. nanostructures for stable lithium storage

Electrodeposited nickel hydroxide on nickel foam with ultrahigh. capacitance

Main controlling factors of hydrocarbon accumulation in Sujiatun oilfield of Lishu rift and its regularity in enrichment

Supporting Information

Electrode Potentials and Their Measurement

2008, hm 2. ( Commodity Bundle) [ 6], 25 4 Vol. 25 No JOURNAL OF NATURAL RESOURCES Apr., , 2, 3, 1, 2 3*,

Electronic Supplementary Information

Kinetically-Enhanced Polysulfide Redox Reactions by Nb2O5. Nanocrystal for High-Rate Lithium Sulfur Battery

Supporting Information. Co 4 N Nanosheets Assembled Mesoporous Sphere as a Matrix for Ultrahigh Sulfur Content Lithium Sulfur Batteries

Supporting Information

Supporting Information for:

Supporting Information

All materials and reagents were obtained commercially and used without further

Trapping Lithium into Hollow Silica Microspheres. with a Carbon Nanotube Core for Dendrite-Free

Supporting Information

Electronic Supplementary Information

Supplementary Information for

New Journal of Chemistry Electronic Supplementary Information

High Voltage Magnesium-ion Battery Enabled by Nanocluster Mg3Bi2

Electronic Supplementary Information. Facile Synthesis of Germanium-Graphene Nanocomposites. and Their Application as Anode Material for Lithium Ion

Supporting Information for: Three-Dimensional Cuprous Oxide Microtube Lattices with High Catalytic

Fabrication of Metallic Nickel-Cobalt Phosphide Hollow Microspheres for. High-Rate Supercapacitors

Facile synthesis of nanostructured CuCo 2 O 4 as a novel electrode material for high-rate supercapacitors

Study on form distribution of soil iron in western Jilin and its correlation with soil properties

One-pot synthesis of bi-metallic PdRu tripods as an efficient catalyst for. electrocatalytic nitrogen reduction to ammonia

Supporting Information

1. Experimental section

Multicomponent (Mo, Ni) metal sulfide and selenide microspheres with empty nanovoids as anode materials for Na-ion batteries

Critical Role of Redox Mediator in Suppressing Charging Instabilities of Lithium-Oxygen Batteries

Supporting Information

Facile synthesis of accordion-like Ni-MOF superstructure for highperformance

Experimental and numerical simulation studies of the squeezing dynamics of the UBVT system with a hole-plug device

Supporting information

Supporting Information

Electronic Supplementary Information

Fan, Hai-fu Institute of Physics, Chinese Academy of Sciences, Beijing , China

Transcription:

6 1 2000 2 EL ECTROCHEMISTR Y Vol 6 No 1 Feb 2000 : 1006-3471 (2000) 01-0095-07, 3,,, (, 430072) : PbCO 3,, 2 0 ma/ cm 2,, 74 4 % ;, 2 0 ma/ cm 2, 90 % :,, : TM 912 1 : A,,, [1 ( ] ), [2,3 ],, 1 1 1 PbCO 3, 300, 50 m ; PbO BaSO 4 ; ED TA ; PTFE 60 % 1 2 8 mm Pb- Sb, 1 mm,, 5 5 g PbCO 3, 0 5 % BaSO 4 0 4 % 0 2 %, 2 4 ml 8 0 mol/ L H 2 SO 4 0 1 ml PTFE, 30 min :1999208204, : 1999-09-21 3 : (29677013) 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

96 2000 5 5 g PbCO 3 2 4 ml 8 0 mol/ L H 2 SO 4 0 1 ml PTFE, 12 h, 30 2 24 h, 1 0 mol/ L H 2 SO 4,, 2 65V ( vs CdSO 4 / Cd), 2 h,, - 0 17 V 2 h,,, Pb,CdSO 4 / Cd 5 0 mol/ L H 2 SO 4, 1 3 XRD XRD D/ Max- RA 12 kw X-,X Cu K, = 1 5418, 40 kv, 50 ma 1 4,, EB T, ED TA, Faraday PbCO 3 Q t 24 6 mah 23 8 mah PbO 44 4 mah 43 2 mah 2 2 1 1 0 mol/ L H 2 SO 4, ( 2 0 ma/ cm 2 ) (10 0 ma/ cm 2 ), 5 0 mol/ L H 2 SO 4 1 PbCO 3 ( PbCO 3 ), 15 min 2 22 V,, 1100 min, 1 2 0 ma/ cm 2 PbCO 3 PbO 2, ( i d = 2 0 ma/ cm 2 ) Q d Fig 1 The discharge curve of PbCO 3 -type positive electrode 18 3 mah, 74 4 % formed in 2 0 ma/ cm 2 ( i d = 2 0 ma/ cm 2 ) 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

1 : 97 1, f,c d PbO ( PbO ),,, [4,, ],,, PbSO 4 PbO 2, PbO 2 Pb- Sb, PbO 2,,PbO 2 [5 ] 1, PbCO 3, PbO 1 PbCO 3 Tab 1 The charge/ discharge parameters of the PbCO 3 -type positive electrodes formed by constant current i f / ma cm - 2 i c / ma cm - 2 i d / ma cm - 2 Q c / ma h Q d / ma h ( Q d / Q t ) / % 2 0 2 0 2 0 24 18 3 74 4 10 0 2 0 2 0 24 11 5 46 7 4 0 4 0 20 8 7 35 4 10 0 10 0 20 3 2 13 0 10 0 3 2 0 2 0 44 24 54 1 3 The electrode is prepared by PbO X-, 2 X-, PbSO 4,, PbO 2 0 ma/ cm 2 PbO 2, - PbO 2, PbSO 4, 10 0 ma/ cm 2-2 PbCO 3 XRD Fig 2 X- ray diffraction patterns of PbCO 3 -type positive electrode before (a) PbO 2, PbSO 4 and after formatin in (b) 2 0 ma/ cm 2 and in (c) 10 0 ma/ cm, PbO 2 2 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

98 2000, PbSO 4 PbO 2, 2 2 1 0 mol/ L H 2 SO 4 (1 0 ma/ cm 2 ) ( t c / T m = 0 83, i c = 2 0 ma/ cm 2, i a = 1 0 ma/ cm 2, t c, T m, i c i a ) Pb2 CO 3 2 0 ma/ cm 2 3, 2 min 0 14 V, 400 min, 3 PbCO 3 ( i d = 2 0,, 1 300 ma/ cm 2 ) min, Fig 3 The discharge curve of PbCO 3 -type negative electrode formed 3 by unsymmetrical square wave ( i d = 2 0 ma/ cm 2 ) 21 7 mah, 91 2 %, 2 PbO, PbCO 3 1 0 ma/ cm 2,,, PbCO 3 [3 ], PbO [3, ] 5 0 ma/ cm 2 PbO PbCO 3, PbCO 3, [5 ],,, XRD, 2 2 PbCO 3 Tab 2 The charge/ discharge parameters of the PbCO 3 -type negative electrodes formed by various methods i f / ma cm - 2 i c / ma cm - 2 i d / ma cm - 2 Q c / ma h Q d / ma h ( Q d / Q t ) / % 1 0 1 0 2 0 8 0 7 5 31 5 1 0 6 0 7 5 6 0[ ]25 2 i c = 2 0/ i a = 1 0 2 0 2 0 22 8 21 7 91 2 5 0 3 2 0 4 0 34 28 64 8 3 The electrode is prepared by PbO 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

1 : 99, PbCO 3 PbSO 4,,, H 2 SO 4, 90 % PbCO 3 PbSO 4, 1 2 1 0 mol/ L H 2 SO 4 ( ), 3,, PbCO 3 CO 2,, [4,, ] 3 PbCO 3 Tab 3 The charge/ discharge parameters of the PbCO 3 -type negative electrodes formed by unsymmetrical square wave i c / ma cm - 2 i d / ma cm - 2 Q c / ma h Q d / ma h ( Q d / Q t ) / % 4 0 4 0 23 18 78 3 10 0 10 0 22 5 15 65 2 20 0 20 0 23 15 65 2 2 3 PbCO 3,,, 5 0 mol/ L H 2 SO 4, 4,, 4 0 ma/ cm 2, 2 08 2 01 V 550 min, 18 3 mah, 4, CdSO 4 / Cd Fig 4 The discharge curve of the PbCO 3 -type prototype of lead-, acid battery,, 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

100 2000 3 PbCO 3 H 2 SO 4 PTFE PbCO 3 BaSO 4 H 2 SO 4 PTFE,,, 2 0 ma/ cm 2,, 74 4 %,, 2 0 ma/ cm 2, 90 %, 4 0 ma/ cm 2, 2 08 2 01 V Studies of t he Preparation of Electrodes from Lead Carbonate for Lead-acid Battery The Preparation of Paste Electrodes DAI Zhong- xu, WAN G Di- hua 3, KE Hao- hao,zou Jin-yun, ZHOU Yun- hong ( Dept of Chem, Faculty of Chem and Envi ronmental Science, W uhan U niv, W uhan 430072, China) Abstract : The positive and negative pastes were prepared by mixing PbCO 3 and H 2 SO 4 so2 lution as well as relative additives, respectively The effect s of t he various formation met hods and t he charge/ discharge conditions on discharge capacity and active material utilization of bot h elec2 trodes were examined The results indicate that the performance of the positive electrode formed at 2 0 ma/ cm 2 is better than that formed at higher current density under the same charge/ dis2 charge condition, the PAM utilization reaches 74 4 % under discharging at 2 0 ma/ cm 2 ; and the property of the negative electrode formed by unsymmetrical square wave is superior to that formed by constant current when using the same density, the AM utilization of the former is more than 90 % under discharging at 2 0 ma/ cm 2 Moreover, the discharge behavior of a lead/ acid battery composed of t he above positive and negative elect rodes was discussed Key words : Lead carbonate, Lead/ acid battery, Paste elect rodes, Preparation 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet

1 : 101 Reference s : [1 ] Lu Keyuan, Yu Hong, An Zhentao, Chen Jiayong A nwe approach to lead hydrometallugy[j ] Progress in Chemistry, 1998, 10 (3) :344 [2 ] Dai Zhongxu, Wang Dihua, Zou Jinyun, Zhou Yunhong A study on lead carbonate as electrode materials of lead- acid battery[j ] Environmental Science, 1999,20(3) :55 [3 ] Dai Zhongxu, Wang Dihua, Jiang J unwei Zhou Yunhong and Zou Jinyun, Studies of the preparation of clec2 trodes from lead carbouate for lead- acid battery I the activation of electrodes[j ] Electrochemistry(Chineses), 1999, 5 (4) :437 [4 ] Xu Pindi, Liu Houtian Lead-acid batteries- Fundamental theory and technical principle[ M ] Shanghai :Shang2 hai Science and Technique Literature Press,1996,321 353 [5 ] Lu Mingxiang et al Chemical power Sources[ M ] Tianjin : Tianjin University Press, 1992,193 194 1994-2008 China Academic Journal Electronic Publishing House All rights reserved http://wwwcnkinet