Abstract: A semiconductor apparatus includes a chip ID generation unit, a chip ID transmission unit and a chip stack information generation unit. The chip ID generation unit is configured to generate a chip ID signal. The chip ID transmission unit is configured to output the chip ID signal to a common line on the basis of whether another chip is electrically coupled therewith. The chip stack information generation unit is configured to be electrically coupled with the common line in response to the chip ID signal and generate a stack information signal.

Abstract: An integrated circuit includes a plurality of mode register set (MRS) setting blocks configured to generate a plurality of additive latency (AL) codes in response to an MRS signal, and a decoding unit configured to decoding the plurality of AL codes in response to a stack information signal to generate a plurality of AL setting signals.

Abstract: A semiconductor integrated circuit includes a semiconductor chip or a plurality of semiconductor chip stacked therein, wherein each semiconductor chip includes, a compatible mode selection unit configured to select a chip allocation signal allocated to the semiconductor chip, among a plurality of chip allocation signals inputted through a plurality of pads, in response to a stack package information, and an internal circuit configured to perform a given operation in response to the chip allocation signal selected by the compatible mode selection unit.

Abstract: A semiconductor apparatus has a plurality of chips stacked therein, and generation timing of read control signals for controlling read operations of the plurality of stacked chips is controlled such that times after a read command is applied to when data are outputted from respective chips are made to substantially correspond to one another.

Abstract: A semiconductor apparatus comprises a power-up signal generation section configured to generate a power-up signal, a driver configured to drive and output the power-up signal, and a main circuit block configured to perform predetermined functions in response to an output from the driver, wherein the power-up signal generation section and an input terminal of the driver are connected by a disconnectable element.

Abstract: A semiconductor integrated circuit includes: a first interface block configured to transmit and receive signals within the same chip; a second interface block configured to transmit and receive signals to and from different semiconductor chips; and a switching block configured to select a signal path in which the signal transmission and reception of the first interface block is not performed through the second interface block, in response to a chip structure signal.

Abstract: A semiconductor system for identifying stacked chips includes a first semiconductor chip and a plurality of second semiconductor chips. The first semiconductor chip generates a plurality of counter codes by using an internal clock or an external input clock and transmits slave address signals and the counter codes through a through-chip via. The second semiconductor chips are given corresponding identifications (IDs) by latching the counter codes for a predetermined delay time, compare the latched counter codes with the slave address signals, and communicate data with the first semiconductor chip through the through-chip via according to the comparison result.

Abstract: A semiconductor apparatus may comprise: a first chip ID generation unit configured to receive an enable signal through a first through-silicon via and a clock signal through a second through-silicon via and generate a first chip ID signal and a delayed enable signal; a second chip ID generation unit configured to receive the delayed enable signal through a third through-silicon via from the first chip ID generation unit and the clock signal and generate a second chip ID signal; a first chip selection signal generation unit configured to receive the first chip ID signal and a main ID signal and generate a first chip selection signal; and a second chip selection signal generation unit configured to receive the second chip ID signal and the main ID signal and generate a second chip selection signal.

Abstract: A semiconductor apparatus includes a normal data line, an auxiliary data line and a data line selection unit. The normal data line is connected with a data selection unit. The auxiliary data line is connected with the data selection unit. The data line selection unit outputs data to one of the normal data line and the auxiliary data line in response to a command signal.

Abstract: An integrated circuit includes a plurality of mode register set (MRS) setting blocks configured to generate a plurality of additive latency (AL) codes in response to an MRS signal, and a decoding unit configured to decoding the plurality of AL codes in response to a stack information signal to generate a plurality of AL setting signals.

Abstract: A semiconductor integrated circuit includes a semiconductor chip or a plurality of semiconductor chip stacked therein, wherein each semiconductor chip includes, a compatible mode selection unit configured to select a chip allocation signal allocated to the semiconductor chip, among a plurality of chip allocation signals inputted through a plurality of pads, in response to a stack package information, and an internal circuit configured to perform a given operation in response to the chip allocation signal selected by the compatible mode selection unit.

Abstract: A semiconductor device including an internal voltage generator circuit that provides an internal voltage having a different level depending on the operation speed is provided. The semiconductor device includes an internal voltage generator circuit configured to receive operation speed information to generate an internal voltage having a different level depending on the operation speed; and an internal circuit operated using the internal voltage.

Abstract: A semiconductor integrated circuit includes: a semiconductor chip; a through-chip via passing through a conductive pattern disposed in the semiconductor chip and cutting the conductive pattern; and an insulation pattern disposed on an outer circumference surface of the through-chip via to insulate the conductive pattern from the through-chip via.

Abstract: A semiconductor apparatus includes: a slave chip including a signal transfer unit configured to determine whether or not to transfer an input signal in response to a chip select signal; a master chip including a replica circuit unit having the same configuration as the signal transfer unit and a signal output unit configured to receive an output signal of the signal transfer unit and an output signal of the replica circuit unit and generate an output signal in response to the control signal; a first through-chip via vertically formed through the slave chip, and having one end connected to the master chip to receive the input signal and the other end connected to the signal transfer unit; and a second through-chip via vertically formed through the slave chip, and having one end connected to the signal transfer unit and the other end connected to the signal output unit.

Abstract: A semiconductor memory apparatus that generates a voltage by performing a pumping operation in response to an oscillator signal includes a driving voltage detecting unit configured to control the cycle of the oscillator signal in accordance with the level of a driving voltage that is used to perform the pumping operation.

Abstract: A semiconductor integrated circuit includes: a plurality of chips configured to receive an external voltage. Each one of the chips detects a signal delay characteristic of the one of the chips to generate an internal voltage having a level corresponding to the signal delay characteristic.

Abstract: An integrated circuit system includes a first chip including a first node and configured to generate first identification information indicating the first chip in response to a voltage of the first node, a second chip including a second node and configured to generate second identification information indicating the second chip in response to a voltage of the second node, and a channel connected to the first node and the second node and generate a voltage difference between the first node and the second node.

Abstract: A semiconductor device including a wafer having an upper surface and a lower surface, circuit layers formed on the upper surface and the lower surface of the wafer, respectively, and a through electrode formed to penetrate the wafer is presented. The through electrode can be configured to electrically coupled the circuit layers formed on the upper surface and the lower surface of the wafer. The semiconductor device can be stacked to form a stacked package.

Abstract: An integrated circuit system comprising a first chip including a first period signal generation unit configured to generate a first period signal, transmit a first signal applied from a circuit outside of the integrated circuit system to a second chip, and transmit a second signal transmitted from the second chip to the circuit outside of the integrated circuit system, and the second chip including a second period signal generation unit configured to generate a second period signal, a code generation unit configured to generate codes corresponding to a difference between periods of the first period signal and the second period signal, and a delay unit configured to delay the second signal by using a delay value that is changed according to the codes.

Abstract: A semiconductor apparatus includes an individual chip designating code setting block configured to generate a plurality of individual chip designating codes which have different code values or at least two of which have the same code value, in response to a plurality of chip fuse signals; and an individual chip activation block configured to compare the plurality of individual chip designating codes with chip selection address in response to the plurality of chip fuse signals, and enable one of a plurality of individual chip activation signals based on a result of the comparison.