WMSIC Electronic Components

XINLUDA XL74LS07

ModelXL74LS07
PackageSOIC-14
BrandXINLUDA
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 Date code within 2 years

Available for RFQ

Technical data

Product details

19 specifications

Core information

Product name
XINLUDA XL74LS07
Type
XINLUDA
Minimum package
2500 圆盘

Technical parameters

Electronic Component
Electronic Component
Electronic Component
XINLUDA
Electronic Component
XL74LS07
Electronic Component
1
Package
SOIC-14
Electronic Component
Buffers / Drivers / Transceivers
Electronic Component
74LS
Electronic Component
0.319g
Electronic Component
6
Electronic Component
1
Features
Level Conversion
Electronic Component
BM0230014975
Operating Temperature
40℃~+85℃
Operating Voltage
4.75V~5.25V
Output Type
Electronic Component
Current(IOH)
250uA

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

XL74LS07 产品概述

一、概述

XL74LS07 是一款符合 74LS 系列规范的六路缓冲/驱动器(六个开漏输出),由 XINLUDA(信路达)生产,常见封装为 SOIC-14。器件工作电压 4.75V 至 5.25V,工作温度范围 -40℃ 至 +85℃,适合多种 TTL 逻辑系统中作为下拉驱动或总线接口使用。其开漏输出结构适合需要多个器件共用线(线与门)、外接上拉电阻实现电平拉高,或驱动外部负载(如 LED、继电器驱动电路的低端)时使用。

二、主要技术参数

  • 输出类型:开漏(Open-Collector / Open-Drain)
  • 工作电压(VCC):4.75V ~ 5.25V
  • 通道数:6(六路)
  • 下拉电流(IOL):典型 40 mA(下拉能力)
  • 上拉允许电流(IOH):0.25 mA(不能作为电源源)
  • 器件系列:74LS(低功耗肖特基 TTL)
  • 工作温度:-40℃ ~ +85℃
  • 传播延迟(tpd):约 10 ns @ 5V,负载 15 pF
  • 封装:SOIC-14(常见);电源与接地引脚采用标准 74 系列引脚分配(VCC 与 GND 在标准位置)

三、功能与特点

  • 六路开漏输出:每路输出均为开漏结构,具有良好的下拉能力,适合有共享总线或需要外部上拉控制的场合。
  • 高下拉能力:单路下拉电流可达 40 mA,可直接驱动小型负载或作为继电器/小型 LED 的低端开关(需加限流或驱动器保护)。
  • 无源上拉依赖:输出不能主动拉高,需外接上拉电阻或与其他上拉源共同使用,上拉电流 IOH 非常小(0.25 mA),限制其作为电源驱动的能力。
  • 兼容 74LS 系列:与其它 74LS 器件接口兼容,适用于传统 TTL 设计与混合集成电路系统中。
  • 快速响应:在 15 pF 负载条件下典型传播延迟约 10 ns,满足一般数字逻辑速度要求。

四、典型应用

  • 总线线与多器件开漏接口(例如共用中断线、I/O 总线的线-与逻辑)
  • 驱动继电器或晶体管基极、指示灯(通过限流电阻)
  • 与外部上拉电阻配合,实现电平翻转或与非门等逻辑结构
  • TTL 系统中的缓冲与信号整形
  • 与高电压侧接口通过合适电平移位电路配合使用(注意不能将 VCC 以外电压直接施加到输出)

五、应用注意事项与设计建议

  • 必须使用外部上拉电阻:由于输出为开漏结构,所有输出线在不导通时必须通过上拉电阻拉到逻辑高。上拉电阻阻值在速度与电流之间取舍:
    • 建议取值范围:1 kΩ ~ 10 kΩ。R = 1 kΩ 时上升时间快(RC 较小),但在输出低电平时器件及上拉电阻的电流更大;R = 10 kΩ 时功耗小但上升较慢(对 15 pF 负载,τ = RC ≈ 150 ns)。
    • 若需要高速切换或驱动多负载,优先选择 1 kΩ ~ 4.7 kΩ。
  • 避免作为电源源:器件 IOH 仅 0.25 mA,不应期望输出为其他设备提供电源或驱动需要源电流的负载。
  • 热与功耗考虑:若多个通道同时下拉大电流(接近 40 mA),器件内部功耗上升,需要考虑封装散热与总耗散限制,避免长期在最大额定电流下工作。
  • 负载与传播延迟:传播延迟会随负载电容与上拉阻值增大而延长,系统时序设计时应留足裕量。
  • ESD 与焊接:SOIC-14 为标准贴片封装,注意防潮包装与回流焊温度曲线(遵循厂商焊接规范),并采取 ESD 防护措施以避免输入/输出引脚损坏。

六、封装与可靠性

XL74LS07 常见封装为 SOIC-14,适合自动贴片与流水线焊接。工作温度范围 -40℃ 至 +85℃ 满足商用与工业级大多数应用场景。长时间在高温、高电流状态下使用时需评估器件结温与系统散热设计。

七、采购与替代

  • 品牌:XINLUDA(信路达),型号命名通常为 XL74LS07 或等效标识,订购时请确认完整料号与封装信息。
  • 替代选择:市场上有多家厂家生产 74LS07(如 TI、ON Semiconductor 等),功能与引脚兼容时可替代;更高驱动能力或无源上拉需求可考虑使用 CMOS 开漏/缓冲器或专用驱动器。

总结:XL74LS07 为一款通用的六路开漏 TTL 缓冲/驱动器,适合需要可靠下拉驱动与多器件共享线的场合。设计时重点关注上拉电阻选值、负载电流与散热约束,能在传统 5V TTL 系统中稳定发挥作用。

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