WMSIC Electronic Components

TAIYO YUDEN EMK107BC6106MA-T EMK107BC6106MA

ModelEMK107BC6106MA-T
Package0603
BrandTAIYO YUDEN
Price Price on request Electronic component prices change quickly with market supply and demand. Please refer to the latest WMSIC quotation for current pricing.
Configuration
1 options
Configuration 25+

Available for RFQ

Technical data

Product details

18 specifications

Core information

Product name
TAIYO YUDEN EMK107BC6106MA-T
Type
TAIYO YUDEN
Minimum package
4000 圆盘

Technical parameters

Electronic Component
Electronic Component
Electronic Component
TAIYO YUDEN
Electronic Component
EMK107BC6106MA-T
Electronic Component
1
Electronic Component
10uF
Package
0603
Electronic Component
SMD Capacitor(MLCC)
Electronic Component
±20%
Electronic Component
0.04g
Electronic Component
1
Electronic Component
BM0231139249
Electronic Component
X6S
Voltage
16V
Electronic Component
Electronic Component
Electronic Component
4000

For datasheets, package documents, compatible-part guidance, or other technical resources, contact WMSIC customer service. Availability is confirmed case by case.

EMK107BC6106MA-T 产品概述

一、产品简介

EMK107BC6106MA-T 是 TAIYO YUDEN(太诱)推出的一款表面贴装多层陶瓷电容(MLCC),规格为 10 µF,容差 ±20%,额定电压 16 V,温度特性 X6S,封装为 0603(1608 米制尺寸)。该产品以体积小、频率响应好、可靠性高为特点,适用于电源去耦、旁路与滤波等应用场景,特别适合对体积与性能有双重要求的移动设备与消费类电子产品。

二、主要电气与机械参数

  • 容值:10 µF
  • 容差:±20%
  • 额定电压:16 V DC
  • 温度特性:X6S(宽温区间下的稳态介质特性)
  • 封装:0603(约 1.6 mm × 0.8 mm)
  • 型号来源:TAIYO YUDEN(太诱),型号标识 EMK107BC6106MA-T

三、性能特点与优势

  1. 小体积大容量:0603 封装实现了在有限 PCB 面积下较高的容值,利于整机小型化设计。
  2. 低等效串联电阻与电感(ESR/ESL):MLCC 天然具有较低 ESR/ESL,适合高频去耦与快速充放电场合。
  3. 宽温度特性:X6S 温度特性使得在较宽温度范围内具有相对稳定的电气行为,适合工业级与消费类环境下的应用。
  4. 表面贴装便于自动化装配:符合 SMT 工艺,适配常见回流焊流程,提高生产效率与一致性。
  5. 品牌与质量保障:TAIYO YUDEN 为知名被动元件制造商,品质和一致性有较好保证。

四、典型应用场景

  • 电源去耦与旁路:稳压器输入/输出、FPGA/MCU/SoC 的去耦电容。
  • DC-DC 转换器与能量存储:在开关电源近端用作滤波与瞬态响应。
  • 消费电子:智能手机、平板、笔记本、可穿戴设备等空间受限产品。
  • 通信设备与物联网终端:对高频噪声抑制和体积要求较高的模块。
    (注:若需在汽车或特殊工业环境使用,请确认器件是否具备相应认证与额外可靠性测试)

五、选型与使用注意事项

  1. 直流偏置效应:陶瓷电容在加直流偏置时会出现有效电容下降,尤其是高介电常数材料在小尺寸下更明显。建议在设计时考虑电压下的实际容量并留有裕量,必要时参考厂商的电容-电压(C–V)曲线。
  2. 温度与老化:陶瓷介质随温度变化与时间会有容量漂移,应根据工作环境与寿命要求评估长期容量变化并考虑退火或老化效应。
  3. 机械应力敏感性:表面贴装陶瓷电容对焊接后 PCB 弯曲、强压等机械应力敏感,装配时需避免对元件施加过大应力或在元件上做重压。
  4. 串联/并联使用:并联使用可进一步降低 ESR/ESL 或提升总容量,但需考虑封装一致性与 PCB 布局的杂散影响。

六、焊接与储存建议

  • 回流焊:遵循无铅回流峰值温度与曲线(通常按 IPC/JEDEC 指南),建议与焊膏和 PCB 厂家的工艺相匹配。常见无铅回流峰值在 245–260°C 区间(请依据具体工艺规范)。
  • 预处理与回流次数:控制回流次数与温度循环,避免过度热应力累计。
  • 防潮与烘烤:长期暴露在潮湿环境后,若包装破损或超过厂商建议的最大吸湿时间,应进行烘烤处理以避免回流时发生吸湿裂纹。
  • 存放环境:建议密封、干燥、避免强光与有害气体,并按制造商的保质期限使用。

七、设计建议与常见问答

  • 是否可以在 16 V 下直接使用?可以,但需注意直流偏置导致的实际容量下降,若设计对容值敏感,应进行实测或选择额定电压更高的型号。
  • 0603 封装是否可靠?0603 在 SMT 工艺中是常用规格,可靠性取决于焊接质量、PCB 设计与应力控制;需要遵循厂商的装配建议。
  • 如何评估是否满足高频去耦需求?关注元件的 ESR/ESL 与布局(尽量靠近供电引脚、短回路路径),必要时并联小容值低ESL 电容以覆盖更高频段。

总结:EMK107BC6106MA-T 将 10 µF 的较大容值与 0603 的小体积结合,适合现代电子产品中对体积与去耦性能兼顾的场合。选型时务必考虑直流偏置、温度漂移与机械应力等因素,并按照推荐的 SMT 与储存规范进行处理,以保证长期稳定性与良好电气性能。若需更详细的 C–V 曲线、温度特性曲线或可靠性数据,建议参考太诱官方规格书或联系技术支持获取原始测试资料。

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