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kexing46

½ð³æ (ÕýʽдÊÖ)

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¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ...
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:29
sltmac: ½ð±Ò+40, ·­ÒëEPI+1 2013-05-23 07:45:01
sltmac: ½ð±Ò+20 2013-05-23 07:48:17
By analyzing the electrochemical test results of prepared manganese oxide electrode materials, it's discovered many factors attribute to the nature of the manganese oxide capacitance, like phase structure, crystallinity, specific surface area, morphology and so on. Typically, layered manganese oxide and tunnel-type manganese oxide with larger pore size obtain higher capacitance, the tunnel-type manganese oxide with a smaller pore size has a very low specific capacitance due to the electrolyte ions¡¯ difficulty to enter the tunnel. Because of the lattice relaxation, in Low-crystallinity manganese oxide material, ion embedding/escaping reaction take place easily, and thus offer excellent high capacitance compared to the crystalline material. The manganese oxide of large surface area materials can often provide a more redox reactive sites, which has a higher specific capacitance. Manganese oxide material morphology are not only affected by its specific surface area, but also will affect the the ions embedding/escaping path, therefore it¡¯s another one of the important factors that decide the material capacitance. The hierarchical structure of the manganese oxide material has a great advantage in energy storage, because it has both advantages of nanometer size building unit and sub-micron size stacking structure.
2Â¥2013-04-12 10:47:34
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû

tszfyz

Ìú¸Ëľ³æ (ÖøÃûдÊÖ)

¡¾´ð°¸¡¿Ó¦Öú»ØÌû

¡ï ¡ï ¡ï ¡ï
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:35
sltmac: ½ð±Ò-5, Î¥¹æ´æµµ, »úÆ÷·­Ò룬³õ·¸£¬¿Û5BB 2013-04-20 09:46:56
ace area and morphology and so on. Usually, the layered manganese oxide and tunnel type manganese oxide with larger hole size of high specific capacitance, and the tunnel with smaller pore size type manganese oxide because the electrolyte ions to enter the tunnel and has low specific capacitance. Low crystalline manganese oxide materials due to the lattice relaxation, ion embedded/out easier for reaction, and therefore is superior high capacitance properties of crystalline materials. Large specific surface area of manganese oxide materials are often can provide more the REDOX reaction of active site and has higher specific capacitance. Manganese oxide materials morphology is related to its specific surface area, but also affects ions into/out of the path, and hence decided to capacitance material properties is one of the important factors. Hierarchical structure of the manganese oxide material when making energy storage has great advantages, because their nanoscale size piled structure building units and sub-micron size advantages.
3Â¥2013-04-12 11:11:24
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû

tszfyz

Ìú¸Ëľ³æ (ÖøÃûдÊÖ)

¡¾´ð°¸¡¿Ó¦Öú»ØÌû

¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:41
sltmac: ½ð±Ò-30, Î¥¹æ´æµµ, »úÆ÷·­Ò룬ÈçÔÙ·¢ÏÖ£¬»á½ûÑÔ´¦Àí£¬Ð»Ð»ºÏ×÷ 2013-05-23 07:48:08
Through comparison and analysis of the preparation of manganese oxide electrode materials of electrochemical test results, find the influencing factors of manganese oxide capacitive properties are various, such as the material of the crystal phase, crystallization, specific surface area and morphology and so on. Usually, the layered manganese oxide and tunnel type manganese oxide with larger hole size of high specific capacitance, and the tunnel with smaller pore size type manganese oxide because the electrolyte ions to enter the tunnel and has low specific capacitance. Low crystalline manganese oxide materials due to the lattice relaxation, ion embedded/out easier for reaction, and therefore is superior high capacitance properties of crystalline materials. Large specific surface area of manganese oxide materials are often can provide more the REDOX reaction of active site and has higher specific capacitance. Manganese oxide materials morphology is related to its specific surface area, but also affects ions into/out of the path, and hence decided to capacitance material properties is one of the important factors. Hierarchical structure of the manganese oxide material when making energy storage has great advantages, because their nanoscale size piled structure building units and sub-micron size advantages.
4Â¥2013-04-12 12:23:44
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû

hookhans

Ìú¸Ëľ³æ (ÖøÃûдÊÖ)

Farmer

¡¾´ð°¸¡¿Ó¦Öú»ØÌû

¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:48
sltmac: ½ð±Ò+20 2013-05-23 07:48:30
Revised based on L1, ref. only:
By comparison and analyses of the electrochemical test results of the prepared manganese oxide electrode materials, it is found that there are many factors affecting the capacitance properties of the manganese oxide, including crystal phases, crystallinity, specific surface area and morphology, etc. Usually, tunnel type manganese oxides with layered structure and those with relatively large pore sizes have higher specific capacitance, while those with relatively small pore sizes have relatively low specific capacitance due to difficulty of the electrolyte ions in entering into the tunnels. Due to lattice relaxation allowing ease of embedding/escaping reactions of ions, the low crystallinity manganese oxide exhibits superior capacitance performance compared to the crystalline material. The manganese oxide materials with large surface area usually can offer more redox active sites so that they have higher specific capacitance. The morphology of the manganese oxide material affects not only its specific surface area, but also the path of the ions embedding/escaping, therefore it is also one of the important factors determining the material¡¯s capacitance. The hierarchical structured manganese oxide materials have a great advantage in energy storage due to their advantage features of nanometer size building unit and sub-micron size stacking structure.
where-there-is-a-will-there-is-a-way.
5Â¥2013-04-12 13:11:59
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû

bwshanxi

ÖÁ×ðľ³æ (ÎÄ̳¾«Ó¢)

¡¾´ð°¸¡¿Ó¦Öú»ØÌû

¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï ¡ï
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:53
sltmac: ½ð±Ò+10 2013-05-23 07:48:40
It's found that many factors attribute to the nature of the manganese oxide capacitance, like phase structure, crystallinity, specific surface area, morphology and so on by analyzing the electrochemical test results of prepared manganese oxide electrode materials Typically, layered manganese oxide and tunnel-type manganese oxide with larger pore size owns higher capacitance, the tunnel-type manganese oxide with a smaller pore size owns a very low specific capacitance due to the electrolyte ions¡¯ difficulty to enter the tunnel. Ion embedding/escaping reaction take place easily, and thus offer excellent high capacitance compared to the crystalline material for the lattice relaxationin Low-crystallinity manganese oxide material. The manganese oxide with large surface area materials can often provide a more redox reactive sites, so it has a higher specific capacitance. Manganese oxide material morphology are not only affected by its specific surface area, but also will affect the ions embedding/escaping path, therefore it¡¯s an important factors that decide the material capacitance. The hierarchical structure of the manganese oxide material has a great advantage in energy storage as the reason that it has both advantages of nanometer size building unit and sub-micron size stacking structure.
±¾ÈËÆ·µÂºÃ,ÇڷܺÃѧ!ÇڷܳÁµíÓÅÐã,ÀíÏëÔì¾ÍÈËÉú!!
6Â¥2013-04-12 13:39:26
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû

Ц¶à»á»³ÔÐ

Ìú¸Ëľ³æ (ÖøÃûдÊÖ)

¡¾´ð°¸¡¿Ó¦Öú»ØÌû

¡ï ¡ï ¡ï ¡ï ¡ï
°®ÓëÓêÏÂ: ½ð±Ò+1 2013-04-15 19:31:59
sltmac: ½ð±Ò-6, Î¥¹æ´æµµ, »úÆ÷·­Ò룬³õ·¸£¬¿Û5BB 2013-04-20 09:47:25
ace area and morphology and so on. Usually, the layered manganese oxide and tunnel type manganese oxide with larger hole size of high specific capacitance, and the tunnel with smaller pore size type manganese oxide because the electrolyte ions to enter the tunnel and has low specific capacitance. Low crystalline manganese oxide materials due to the lattice relaxation, ion embedded/out easier for reaction, and therefore is superior high capacitance properties of crystalline materials. Large specific surface area of manganese oxide materials are often can provide more the REDOX reaction of active site and has higher specific capacitance. Manganese oxide materials morphology is related to its specific surface area, but also affects ions into/out of the path, and hence decided to capacitance material properties is one of the important factors. Hierarchical structure of the manganese oxide material when making energy storage has great advantages, because their nanoscale size piled structure building units and sub-micron size advantages.
7Â¥2013-04-13 20:24:06
ÒÑÔÄ   »Ø¸´´ËÂ¥   ¹Ø×¢TA ¸øTA·¢ÏûÏ¢ ËÍTAºì»¨ TAµÄ»ØÌû
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