Abstract: A semiconductor integrated circuit device includes a first circuit block configured to receive data from a plurality of data I/O (input/output) lines and output test data in a test mode, and a second circuit block configured to connect the plurality of data I/O lines and the first circuit block, output the data of the plurality of data I/O lines in a normal mode and output the test data provided from the first circuit block in the test mode.

Abstract: A semiconductor package includes: a plurality of memory packages which are arranged on a substrate; and a logic chip, which has a rhombus shape including first through fourth corners and first through fourth sides connecting the first through fourth corners, is arranged adjacent to the plurality of memory packages, and includes a plurality of terminals that are electrically connected to the plurality of memory packages, as seen on a plan view of the semiconductor package, wherein the plurality of terminals include system address terminals which are adjacent to the first corner of the logic chip and first and second system data terminals which are respectively arranged on the first and second sides contacting the first corner. Another semiconductor package and a method of fabrication are disclosed.

Abstract: A first semiconductor device equalizes levels of a bit line and a complementary bit line of a high-order bit line pair in a first memory block using a first drive voltage signal whose level is controlled when a power-down mode or a self-refresh mode is activated according to a level combination of high-order command/address signals. A second semiconductor device equalizes levels of a bit line and a complementary bit line of a low-order bit line pair in a second memory block using a second drive voltage signal whose level is controlled when the power-down mode or the self-refresh mode is activated according to a level combination of low-order command/address signals.

Abstract: An array structure of a single-poly nonvolatile memory includes a first and a second MTP sections, a first and a second OTP sections. The first MTP is connected to a first word line, a first source line, a first erase line and a plurality of bit lines. The second MTP section is connected to a second word line, a second source line and shares the first erase line and the plurality of bit lines with the first MTP section. The first OTP section is connected to a third word line and shares the first source line and the plurality of bit lines with the first MTP section. The second OTP section is connected to a fourth word line, a third source line, and shares the plurality of bit lines with the first MTP section, the second MTP section and the third OTP section.

Abstract: According to one embodiment, a semiconductor device includes a processor chip, and a memory chip stacked on the processor chip with bumps and including a memory cell unit and a memory logic unit. The bumps are arranged on the memory logic unit. An address and data are transferred between the processor chip and the memory chip by use of shared bumps of the bumps.

Abstract: A regulator circuit may include a comparison unit configured to compare a reference voltage with a feedback voltage and generate a first switching signal. The regulator circuit may include a current supply unit configured to receive a pumping voltage, and determine a level of a second switching signal in response to the first switching signal. The regulator circuit may include an output driver configured to control the level of the second switching signal in response to an output voltage, receive the pumping voltage, and generate the output voltage in response to the second switching signal. The regulator circuit may include a feedback signal generation unit configured to detect a level of the output voltage and generate the feedback voltage.

Abstract: A memory system is programmed with minimal program disturb and reduced junction and channel leakage during self-boosting. Pre-charging bias signals are applied to word lines adjacent to a selected word line before a program signal is applied to the selected word line and a pass signal is applied to the remaining word lines. The pre-charging bias signals apply a pre-charge to the memory cells. The pre-charging bias signals are chosen to improve the isolation of the memory cells on word lines adjacent to the selected word line, improve self boost efficiency and reduce current leakage to prevent or reduce program disturb and/or programming errors especially in the inhibited memory cells on the selected word line.

Abstract: A nonvolatile memory device includes a memory cell array including a plurality of memory cells, a first metal layer, a peripheral circuit configured to control the memory cell array, a second metal layer, and a pad. The first metal layer is disposed on the memory cell array and includes a plurality of cell region interconnections connected to the memory cell array. The second metal layer is disposed on the peripheral circuit and includes a plurality of peripheral region interconnections connecting the peripheral circuit and the plurality of cell region interconnections. The pad is disposed on the second metal layer and exchanges data, an address, or a command with the peripheral circuit during operation of the device. The second metal layer is lower than the first metal layer relative to a substrate of the device.

Abstract: An array structure of a single-poly nonvolatile memory includes a first and a second MTP sections, a first and a second OTP sections. The first MTP is connected to a first word line, a first source line, a first erase line and a plurality of bit lines. The second MTP section is connected to a second word line, a second source line and shares the first erase line and the plurality of bit lines with the first MTP section. The first OTP section is connected to a third word line and shares the first source line and the plurality of bit lines with the first MTP section. The second OTP section is connected to a fourth word line, a third source line, and shares the plurality of bit lines with the first MTP section, the second MTP section and the third OTP section.

Abstract: 3-terminal magnetic circuits and devices based on the spin-transfer torque (STT) effect via a combination of injection of spin-polarized electrons or charged particles by using a charge current in a spin Hall effect metal layer coupled to a free magnetic layer and application of a gate voltage to the free magnetic layer to manipulate the magnetization of the free magnetic layer for various applications, including non-volatile memory functions, logic functions and others. The charge current is applied to the spin Hall effect metal layer via first and second electrical terminals and the gate voltage is applied between a third electrical terminal and either of the first and second electrical terminals. The spin Hall effect metal layer can be adjacent to the free magnetic layer or in direct contact with the free magnetic layer to allow a spin-polarized current generated via a spin Hall effect under the charge current to enter the free magnetic layer.

Abstract: An OTP memory array includes a plurality of differential P-channel metal oxide semiconductor (PMOS) OTP memory cells programmable and readable in predetermined states of program and read operations, and is capable of providing sufficient margins against global process variations and temperature variations while being compatible with standard logic fin-shaped field effect transistor (FinFET) processes to obviate the need for additional masks and costs associated with additional masks.

Abstract: Asymmetric transistors may be formed by creating pocket implants on one source-drain terminal of a transistor and not the other. Asymmetric transistors may also be formed using dual-gate structures having first and second gate conductors of different work functions. Stacked transistors may be formed by stacking two transistors of the same channel type in series. One of the source-drain terminals of each of the two transistors is connected to a common node. The gates of the two transistors are also connected together. The two transistors may have different threshold voltages. The threshold voltage of the transistor that is located higher in the stacked transistor may be provided with a lower threshold voltage than the other transistor in the stacked transistor. Stacked transistors may be used to reduce leakage currents in circuits such as memory cells. Asymmetric transistors may also be used in memory cells to reduce leakage.

Abstract: A memory includes non-volatile memory devices, each of which has multiple nonvolatile memory cells. A write controller streams bits to the memory devices in groups of N bits using a write data channel having write bus drivers, receivers and write bus topology that take advantage of high-speed signaling to optimize a speed of writing to the memory devices. Consecutive groups of bits are written to consecutive memory cells within respective memory devices. A self-referenced read controller reads bits from the memory devices using a read channel having read drivers, receivers, and read bus topology that include no design requirements for high-speed or low-latency data transmission.

Abstract: Semiconductor memory is provided wherein a memory cell includes a capacitorless transistor having a floating body configured to store data as charge therein when power is applied to the cell. The cell further includes a nonvolatile memory comprising a resistance change element configured to store data stored in the floating body under any one of a plurality of predetermined conditions. A method of operating semiconductor memory to function as volatile memory, while having the ability to retain stored data when power is discontinued to the semiconductor memory is described.

Abstract: A semiconductor memory apparatus may include: a memory area; and a controller including a register configured to store parameter setting data, and to provide the parameter setting data to the memory area based on a data transmission enable signal enabled according to a parameter setting command or parameter get command.

Abstract: A magnetic junction usable in magnetic devices is described. The magnetic junction includes at least one reference layer, at least one nonmagnetic spacer layer and a free layer. The nonmagnetic spacer layer(s) are between the reference layer(s) and the free layer. The free layer has a magnetic thermal stability coefficient having a plurality of magnetic thermal stability coefficient phases. A first phase magnetic thermal stability coefficient has a first slope below a first temperature. A second phase magnetic thermal stability coefficient has a second slope above the first temperature and below a second temperature greater than the first temperature. The first and second slopes are unequal at the first temperature. The magnetic thermal stability coefficient is zero only above the second temperature. The free layer is switchable between stable magnetic states when a write current passed through the magnetic junction.

Abstract: Methods for reducing leakage currents through unselected memory cells of a memory array during a memory operation are described. In some cases, the leakage currents through the unselected memory cells of the memory array may be reduced by setting an adjustable resistance bit line structure connected to the unselected memory cells into a non-conducting state. The adjustable resistance bit line structure may comprise a bit line structure in which the resistance of an intrinsic (or near intrinsic) polysilicon portion of the bit line structure may be adjusted via an application of a voltage to a select gate portion of the bit line structure that is not directly connected to the intrinsic polysilicon portion. The intrinsic polysilicon portion may be set into a conducting state or a non-conducting state based on the voltage applied to the select gate portion.

Abstract: An auxiliary power supply device can include a first power storage unit, a first charging circuit to receive input power and charge the first power storage unit, a second power storage unit having lower power supply speed than the first power storage unit and longer power supply time than the first power storage unit, a second charge circuit to receive input power and charge the second power storage unit, and a switching unit to supply the stored power of the first power storage unit to external devices for a predetermined time when a sudden power-off occurs and supply stored power of the second power storage unit to the external devices after the predetermined time elapses.

Abstract: A voltage generation circuit may include: a comparison unit configured to compare a reference voltage and a feedback voltage and output a comparison signal to a node; an output unit configured to generate an internal voltage and the feedback voltage according to a voltage level applied to the node; and a control unit configured to discharge the node when a level of the internal voltage drops to less than a preset level.

Abstract: Techniques for recovery of partially programmed blocks in non-volatile storage are disclosed. After programming memory cells in an open region of a partially programmed block, a fail bit count with respect to programming the memory cells is performed. If the fail bit count is above a threshold, then a recovery operation is performed of other memory cells in the partially programmed block. The recovery operation (such as erase) may remove charges that are trapped in the tunnel dielectric of memory cells in the open region of the partially programmed block. Note that this erase operation may be performed on memory cells in the open region that are already erased. The erase operation may remove trapped charges from the tunnel dielectric. In a sense, this “resets” the memory cells. Thus, the memory cells can now be programmed more effectively. Both programming and date retention may be improved.