物理法石墨烯粉末

货号: P494552
只有 %1 左
储存条件
室温
运输条件
常规运输
价格
低至 ¥899.90

概述

产品描述:

物理法制备石墨烯没有还原氧化石墨烯的基团的残留,因此它的特点是高导电率(实测电阻率:1.02 mΩ•cm; 电导率: 992.1545 S/cm)、高导热率、完美的晶格,是优秀的导电导热的复合材料。另外在催化剂载体上,也有广泛的应用。


产品规格与参数:

项目号

名字

规格

包装

P494552-A1.7nm-1g

物理法石墨烯粉末

99%;厚度 <1.7nm;直径 80×80μm

1g

P494552-A1.7nm-250mg

物理法石墨烯粉末

99%;厚度 <1.7nm;直径 80×80μm

250mg

P494552-B3nm-250mg

物理法石墨烯粉末

98%;厚度 <3 nm;D50 7-12μm;D90 11-17μm

250mg

P494552-B3nm-1g

物理法石墨烯粉末

98%;厚度 <3 nm;D50 7-12μm;D90 11-17μm

1g

P494552-C3nm-5g

物理法石墨烯粉末

99.7%;厚度 <3 nm;直径 80×80μm

5g

P494552-C3nm-1g

物理法石墨烯粉末

99.7%;厚度 <3 nm;直径 80×80μm

1g

P494552-D4nm-5g

物理法石墨烯粉末

99.7%;厚度 4~7 nm;直径 6×6μm

5g

P494552-D4nm-1g

物理法石墨烯粉末

99.7%;厚度 4~7 nm;直径 6×6μm

1g

P494552-E3nm-5g

物理法石墨烯粉末

99.7%;厚度 <3 nm;直径 6×6μm

5g

P494552-E3nm-1g

物理法石墨烯粉末

99.7%;厚度 <3 nm;直径 6×6μm

1g

Product description:

Graphene prepared by physical method has no residue of the group reducing graphene oxide, so it is characterized by high conductivity (measured resistivity: 1.02 m Ω• cm; conductivity: 992.1545 S/cm), high thermal conductivity, perfect lattice, and is an excellent conductive and thermal conductive composite material. In addition, it is also widely used in catalyst support.


Product specifications and parameters:

SKU

Name

Specifications

Pack Size

P494552-A1.7nm-1g

Physical method graphene powder

Thickness <1.7nm;Diameter 80×80μm

1g

P494552-A1.7nm-250mg

Physical method graphene powder

Thickness <1.7nm;Diameter 80×80μm

250mg

P494552-B3nm-250mg

Physical method graphene powder

Thickness <3 nm;D50 7-12μm;D90 11-17μm

250mg

P494552-B3nm-1g

Physical method graphene powder

Thickness <3 nm;D50 7-12μm;D90 11-17μm

1g

P494552-C3nm-5g

Physical method graphene powder

Thickness <3 nm;Diameter 80×80μm

5g

P494552-C3nm-1g

Physical method graphene powder

Thickness <3 nm;Diameter 80×80μm

1g

P494552-D4nm-5g

Physical method graphene powder

Thickness 4~7 nm;Diameter 6×6μm

5g

P494552-D4nm-1g

Physical method graphene powder

Thickness 4~7 nm;Diameter 6×6μm

1g

P494552-E3nm-5g

Physical method graphene powder

Thickness <3 nm;Diameter 6×6μm

5g

P494552-E3nm-1g

Physical method graphene powder

Thickness <3 nm;Diameter 6×6μm

1g


规格

英文名称
Physical method graphene powder
储存条件
室温
运输条件
常规运输
名称和识别符
分子类型
小分子

技术文档

📋 安全数据表 (SDS)

全面的危险、操作、储存及法规合规文件。

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✅ 分析证书 (COA)

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📊 产品数据表

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🔬 规格说明书

该级别的完整质量属性和验收标准。

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高级数据

质检证书(CoA,COO,BSE/TSE 和分析图谱)
C of A & Other Certificates(BSE/TSE, COO):
输入批号以搜索分析图谱:
技术文档和文章
石墨烯材料全景指南:本体材料 × GO/rGO 前驱体 × 功能化掺杂 × 分散墨水与复合器件(含选型路线图)
Panorama Guide to Graphene Materials: Bulk Graphene × GO/rGO Precursors × Functionalization & Doping × Dispersions/Inks and Composite Devices (with a Selection Roadmap)
石墨烯油墨为什么难做:从片层分散到可打印导电图案
Why Graphene Inks Are Difficult to Make: From Sheet Dispersion to Printable Conductive Patterns
导电油墨的核心平衡:渗流网络、可打印性与力学可靠性
The Core Balance in Conductive Inks: Percolation Networks, Printability, and Mechanical Reliability
喷墨、凹版还是连续成膜?二维石墨烯导电图案的工艺选择与成膜控制
Inkjet, Gravure, or Continuous Film Formation? Process Selection and Film-Formation Control for Two-Dimensional Graphene Conductive Patterns
从平面图案到自支撑结构:高含量石墨烯复合油墨的三维打印成型逻辑
From Planar Patterns to Self-Supporting Structures: The 3D Printing Formation Logic of High-Content Graphene Composite Inks
石墨烯生物传感器的信号转换机制:从分子识别到电学/光学信号读出与材料选型
Signal Transduction Mechanism of Graphene Biosensors: From Molecular Recognition to Electrical/Optical Signal Readout and Materials Selection
溶液计算器