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    • 1. 发明授权
    • Flash cell fuse circuit
    • 闪存电池保险丝电路
    • US07277311B2
    • 2007-10-02
    • US11293760
    • 2005-12-02
    • Giovanni NasoGiovanni Santin
    • Giovanni NasoGiovanni Santin
    • G11C7/00
    • G11C29/789G11C16/0441G11C16/20G11C16/26G11C17/18
    • Fuse circuits based on a single flash cell or floating-gate memory cell are adapted for use in memory devices, particularly in low-voltage, flash memory applications. The fuse circuits include a floating-gate memory cell for storing a data value and a fuse latch to hold and transfer the data value of the floating-gate memory cell at power-up or upon request. A latch driver circuit can write data values to the fuse latch without affecting the data value stored in the floating-gate memory cell. The fuse circuits can further utilize the same structure, pitch, bit-line organization and word-line organization as the memory device's memory array. As the fuse circuits can utilize the same structure and organization, the data value of the fuse circuit can be programmed, erased and read using the same data path as the regular memory array.
    • 基于单个闪存单元或浮动栅极存储单元的保险丝电路适用于存储器件,特别是在低电压闪速存储器应用中。 熔丝电路包括用于存储数据值的浮动栅存储器单元和用于在通电或根据要求保持和传送浮栅存储单元的数据值的熔丝锁存器。 锁存驱动器电路可以将数据值写入熔丝锁存器而不影响存储在浮动栅极存储单元中的数据值。 熔丝电路可以进一步利用与存储器件的存储器阵列相同的结构,间距,位线组织和字线组织。 由于熔丝电路可以使用相同的结构和组织,因此可以使用与常规存储器阵列相同的数据路径对熔丝电路的数据值进行编程,擦除和读取。
    • 2. 发明授权
    • Flash cell fuse circuit
    • 闪存电池保险丝电路
    • US06845029B2
    • 2005-01-18
    • US10642959
    • 2003-08-18
    • Giovanni SantinGiovanni Naso
    • Giovanni SantinGiovanni Naso
    • G11C16/20G11C16/26G11C17/18G11C29/00G11C17/00
    • G11C29/789G11C16/0441G11C16/20G11C16/26G11C17/18
    • Fuse circuits based on a single flash cell or floating-gate memory cell are adapted for use in memory devices, particularly in low-voltage, flash memory applications. The fuse circuits include a floating-gate memory cell for storing a data value and a fuse latch to hold and transfer the data value of the floating-gate memory cell at power-up or upon request. A latch driver circuit can write data values to the fuse latch without affecting the data value stored in the floating-gate memory cell. The fuse circuits can further utilize the same structure, pitch, bit-line organization and word-line organization as the memory device's memory array. As the fuse circuits can utilize the same structure and organization, the data value of the fuse circuit can be programmed, erased and read using the same data path as the regular memory array.
    • 基于单个闪存单元或浮动栅极存储单元的保险丝电路适用于存储器件,特别是在低电压闪速存储器应用中。 熔丝电路包括用于存储数据值的浮动栅存储器单元和用于在通电或根据要求保持和传送浮栅存储单元的数据值的熔丝锁存器。 锁存驱动器电路可以将数据值写入熔丝锁存器而不影响存储在浮动栅极存储单元中的数据值。 熔丝电路可以进一步利用与存储器件的存储器阵列相同的结构,间距,位线组织和字线组织。 由于熔丝电路可以使用相同的结构和组织,因此可以使用与常规存储器阵列相同的数据路径对熔丝电路的数据值进行编程,擦除和读取。
    • 7. 发明授权
    • Negative-voltage charge pump with feedback control
    • 带反馈控制的负电压电荷泵
    • US5168174A
    • 1992-12-01
    • US729105
    • 1991-07-12
    • Giovanni NasoGiovanni SantinSebastiano D'Arrigo
    • Giovanni NasoGiovanni SantinSebastiano D'Arrigo
    • G11C16/30H02M3/07
    • H02M3/07G11C16/30
    • A charge-pump circuit implements ramp control, steady-state regulation and trimming of the negative voltage pulses. The circuit includes a negative-voltage charge-pump subcircuit having multiple phase inputs, a phase-enable input, an output, a supply voltage, a reference voltage, a ramp-control subcircuit for controlling the rate of change of the voltage at the output of charge-pump subcircuit, and an amplitude-control subcircuit for controlling the amplitude of the voltage at the output of the charge-pump subcircuit. The ramp-control has an input coupled to the output of the charge-pump subcircuit and an output coupled to the phase-enable input of the charge-pump subcircuit. The amplitude-control subcircuit has an input to the output of the charge-pump subcircuit and has an output coupled to the phase-enable input of the charge-pump subcircuit.
    • 电荷泵电路实现斜坡控制,稳态调节和调整负电压脉冲。 该电路包括具有多相输入的负电压电荷泵子电路,相启动输入,输出,电源电压,参考电压,斜坡控制子电路,用于控制输出端的电压变化率 以及用于控制在电荷泵子电路的输出处的电压幅度的幅度控制分支电路。 斜坡控制具有耦合到电荷泵子电路的输出的输入端和耦合到电荷泵子电路的相位使能输入的输出。 幅度控制分支电路具有对电荷泵子电路的输出的输入,并且具有耦合到电荷泵子电路的相位使能输入的输出。
    • 8. 发明授权
    • Flash memory sector tagging for consecutive sector erase or bank erase
    • 闪存扇区标记用于连续扇区擦除或存储体擦除
    • US06717862B2
    • 2004-04-06
    • US10229921
    • 2002-08-28
    • Giovanni NasoGiovanni SantinPasquale Pistilli
    • Giovanni NasoGiovanni SantinPasquale Pistilli
    • G11C1604
    • G11C29/12005G11C16/04G11C16/16G11C29/12
    • Methods and apparatus to facilitate erasure of multiple sectors of a memory device without the need for externally-supplied erase potentials are advantageous for device testing. During a scan of sector addresses, sector tagging blocks of a memory device provide an output signal to a write state machine indicating whether the addressed sector is tagged for erasure. The sector tagging blocks facilitate resetting of tags on a global basis and setting of tags on a single, bank-wide and/or global basis. Once initiated, the erase operation proceeds to erase each tagged sector of the memory device in sequence without the need for externally-supplied erase potentials and without the need for further direction of the tester hardware. The methods are particularly useful for erasing all sectors of a memory device or all sectors of one memory bank of the memory device.
    • 便于擦除存储器件的多个扇区而不需要外部提供的擦除电位的方法和装置对于器件测试是有利的。 在扇区地址的扫描期间,存储器件的扇区标记块向写入状态机提供指示被寻址扇区是否被标记为擦除的输出信号。 扇区标记块有助于在全球范围内重置标签,并在单个银行范围和/或全局基础上设置标签。 一旦启动,擦除操作继续进行以顺序地擦除存储器件的每个标记扇区,而不需要外部提供的擦除电位,并且不需要测试仪硬件的进一步的方向。 这些方法对于擦除存储器件的所有扇区或存储器件的一个存储器组的所有扇区特别有用。
    • 10. 发明授权
    • Active sense amplifier with dynamic pre-charge transistor
    • 具有动态预充电晶体管的有源读出放大器
    • US5056063A
    • 1991-10-08
    • US529292
    • 1990-05-29
    • Giovanni SantinGiovanni Naso
    • Giovanni SantinGiovanni Naso
    • G11C7/06G11C16/26
    • G11C7/067G11C16/26
    • A sense amplifier including a pair of P-conductivity-type current-mirror transistors, a N-conductivity-type reference transistor and a cascode-connected N-conductivity-type transistor and inverter connected according to prior-art. The amplifier also includes a N-conductivity-type pre-charge transistor with source-drain path connected in parallel with the source-drain path of P-conductivity-type mirror load transistor. The gate of the pre-charge transistor is connected to the gate of the N-conductivity-type cascode transistor, which is also connected to the output of cascode inverter.The pre-charge transistor functions to bypass the mirror load transistor when a discharged bitline is selected. As a result, the current charging the bitline capacitance is increased and the time needed for charging is decreased. As an additional benefit, the bitline-charging current through the pre-charge transistor bypasses the current mirror load transistor, greatly diminishing the probability of a read error being mirrored to the output of sense amplifier.
    • 一种读出放大器,包括一对P导电型电流镜晶体管,N导电型参考晶体管和根据现有技术连接的共源共栅型N导电型晶体管和反相器。 该放大器还包括一个N导电型预充电晶体管,源极 - 漏极路径与P型导电型镜面负载晶体管的源极 - 漏极路径并联连接。 预充电晶体管的栅极连接到N导电型共源共栅晶体管的栅极,其也连接到共源共栅反相器的输出。 当选择放电位线时,预充电晶体管用于旁路镜像负载晶体管。 结果,对位线电容的电流充电被增加,并且充电所需的时间减少。 作为额外的好处,通过预充电晶体管的位线充电电流绕过电流镜像负载晶体管,大大降低了读出误差被镜像到读出放大器的输出的概率。