Qualcomm Incorporated

Satyanarayana Sahu

Xiangdong Chen

Venugopal Boynapalli

Hyeokjin Lim

Mukul Gupta

Mickael Malabry

Radhika Vinayak Guttal

Renukprasad Hiremath

Animesh Datta

Ohsang Kwon

Qi Ye

Ramaprasath Vilangudipitchai

Benjamin Bowers

Dorav Kumar

Joshua Lance Puckett

William Goodall, Iii

Li Qiu

Zhengyu Duan

Steven James Dillen

Satish Raj

Rajesh Verma

Divya Gangadharan

Shiva Ram Chandrasekaran

Triveni Rachapalli

Arun Tyagi

Chih-lung Kao

Mathew Philip

Vinod Gupta

Hananel Kang

Praveen Narendranath

Chih-Iung Kao

Renukprasad Shreedhar Hiremath

Hyeokjin Bruce Lim

A MOS device of an IC includes pMOS and nMOS transistors. The MOS device further includes a first Mlayer interconnect extending in a first direction and coupling the pMOS and nMOS transistor drains together, and a second Mlayer interconnect extending in the first direction and coupling the pMOS and nMOS transistor drains together. The first and second Mlayer interconnects are parallel. The MOS device further includes a first Mlayer interconnect extending in a second direction orthogonal to the first direction. The first Mlayer interconnect is coupled to the first Mlayer interconnect and the second Mlayer interconnect. The MOS device further includes a second Mlayer interconnect extending in the second direction. The second Mlayer interconnect is coupled to the first Mlayer interconnect and the second Mlayer interconnect. The second Mlayer interconnect is parallel to the first Mlayer interconnect.

Multiple via structure for high performance standard cells

Metal oxide semiconductor device of an integrated circuit

Hybrid diffusion standard library cells, and related systems and methods are disclosed. The hybrid diffusion standard library cells may be fabricated with reduced costs because masks corresponding to fixed base layers remain constant across integrated circuit (IC) devices. In one aspect, a hybrid diffusion standard library cell is provided. The hybrid diffusion standard library cell employs multiple diffusion regions, wherein a break region separates at least two of the multiple diffusion regions. The hybrid diffusion standard library cell includes one or more MEOL interconnects at fixed locations that are configured to connect transistors to a first metal layer. The hybrid diffusion standard library cell includes at least one transistor. Including the break region between multiple diffusion regions helps to limit the locations of the fixed MEOL interconnects, which limits possible locations for base level transistors and fixes the base layer design.

Hybrid diffusion standard library cells, and related systems and methods

A MOS IC may include a first contact interconnect in a first standard cell that extends in a first direction and contacts a first MOS transistor source and a voltage source. Still further, the MOS IC may include a first double diffusion break extending along a first boundary in the first direction of the first standard cell and a second standard cell. The MOS IC may also include a second contact interconnect extending over a portion of the first double diffusion break. In an aspect, the second contact interconnect may be within both the first standard cell and the second standard cell and coupled to the voltage source. Additionally, the MOS IC may include a third contact interconnect extending in a second direction orthogonal to the first direction and couples the first contact interconnect and the second contact interconnect together.

Standard cell architecture for parasitic resistance reduction

A semiconductor device includes: a processing core having a plurality of sub cores, a plurality of power rails spanning from a first sub core to a second sub core of the plurality of sub cores, the plurality of power rails configured to provide an operating voltage to each of the first sub core and the second sub core, and a plurality of cells defining a boundary between the first sub core and the second sub core, each of the cells providing a discontinuity in a respective power rail, wherein the discontinuity includes a break in the respective power rail in more than one layer of the semiconductor device.

Systems and methods to separate power domains in a processing device

A standard cell IC includes pMOS transistors in a pMOS region of a MOS device. The pMOS region extends between a first cell edge and a second cell edge opposite the first cell edge. The standard cell IC further includes nMOS transistors in an nMOS region of the MOS device. The nMOS region extends between the first cell edge and the second cell edge. The standard cell IC further includes at least one single diffusion break located in an interior region between the first cell edge and the second cell edge that extends across the pMOS region and the nMOS region to separate the pMOS region into pMOS subregions and the nMOS region into nMOS subregions. The standard cell IC includes a first double diffusion break portion at the first cell edge. The standard cell IC further includes a second double diffusion break portion at the second cell edge.

Metal oxide semiconductor cell device architecture with mixed diffusion break isolation trenches

In an aspect of the disclosure, apparatuses for reducing the cost of using an ECO standard cell library in chip design are provided. Such an apparatus may be a MOS device including several regions. The MOS device may include a pMOS transistor and an nMOS transistor in a first region of the device. The pMOS transistor gate of the pMOS transistor and the nMOS transistor gate of the nMOS transistor may be formed by a gate interconnect extending in a first direction across the device. The MOS device may include several unutilized pMOS transistors and several unutilized nMOS transistors in a second region of the device adjacent to the first region. Fins of the pMOS transistors and the nMOS transistors in the first region may be disconnected from fins of the unutilized pMOS transistors and the unutilized nMOS transistors in the second region.

V1 and higher layers programmable ECO standard cells

A standard cell IC may include a plurality of pMOS transistors each including a pMOS transistor drain, a pMOS transistor source, and a pMOS transistor gate. Each pMOS transistor drain and pMOS transistor source of the plurality of pMOS transistors may be coupled to a first voltage source. The standard cell IC may also include a plurality of nMOS transistors each including an nMOS transistor drain, an nMOS transistor source, and an nMOS transistor gate. Each nMOS transistor drain and nMOS transistor source of the plurality of nMOS transistors are coupled to a second voltage source lower than the first voltage source.

Standard cell architecture for reduced leakage current and improved decoupling capacitance

A MOS device includes a first MOS transistor having a first MOS transistor source, a first MOS transistor drain, and a first MOS transistor gate. The MOS device also includes a second MOS transistor having a second MOS transistor source, a second MOS transistor drain, and a second MOS transistor gate. The second MOS transistor source and the first MOS transistor source are coupled to a first voltage source. The MOS device includes a third MOS transistor having a third MOS transistor gate, the third MOS transistor gate between the first MOS transistor source and the third MOS transistor source, the third MOS transistor further having a third MOS transistor source and a third MOS transistor drain, the third MOS transistor source being coupled to the first MOS transistor source, the third MOS transistor drain being coupled to the second MOS transistor source, the third MOS transistor gate floating.

Source separated cell

A pulse generator includes a latch module for storing first/second states, a pulse clock module for generating a clock pulse, and a delay module for delaying the clock pulse at a second latch-module input. The latch module has a first latch-module input coupled to a clock, the second latch-module input, and a latch-module output. The pulse clock module has a first pulse-clock-module input coupled to the clock, a second pulse-clock-module input coupled to the latch-module output, and a pulse-clock-module output. The delay module is coupled between the latch-module output and second pulse-clock-module input or between the pulse-clock-module output and second latch-module input. The delay module provides functionallyat a delay module output, where Iis a function of I and Iis a function of Iand B, and where I is a delay module input, Bis a first input bit, and Iis a first net input.

Area-efficient metal-programmable pulse latch design

A MOS device includes first and second sets of power rails. The first set of power rails extends across the MOS device and includes at least two power rails for providing a first voltage to the MOS device. The first set of power rails is interior to an edge of a cell boundary in the MOS device. At least one power rail of the first set of power rails extends over a pMOS active region of the MOS device. The second set of power rails extends across the MOS device and includes at least two power rails for providing a second voltage to the MOS device. The second set of power rails is interior to an edge of the cell boundary in the MOS device. At least one power rail of the second set of power rails extends over an nMOS active region of the MOS device.

Multiple split rail standard cell library architecture

A MOS device for reducing an antenna effect is provided. The MOS device includes a diode including a first nMOS transistor having a first nMOS transistor source, a first nMOS transistor drain, a first nMOS transistor gate, and an nMOS transistor body. The nMOS transistor body is coupled to a first voltage source and is an anode of the diode. The first nMOS transistor source, the first nMOS transistor drain, and the first nMOS transistor gate are coupled together and are a cathode of the diode. The MOS device further includes an interconnect extending between a driver output and a load input. The interconnect is coupled to the cathode of the diode. The interconnect may extend on one metal layer only between the driver output and the load input.

Circuit and layout for a high density antenna protection diode

At least one configurable circuit cell with a continuous active region includes at least one center subcell, a first-side subcell, and a second-side subcell. Each center subcell includes first and second pMOS transistors and first and second nMOS transistors. The first pMOS transistor has a first-pMOS-transistor gate, source, and drain. The first-pMOS-transistor source is coupled to a first voltage source. The second pMOS transistor has a second-pMOS-transistor gate, source, and drain. The second-pMOS-transistor source is coupled to the first voltage source. The first-pMOS-transistor drain and the second-pMOS-transistor drain are a same drain. The first nMOS transistor has a first-nMOS-transistor gate, source, and drain. The first-nMOS-transistor source is coupled to a second voltage source. The second nMOS transistor has a second-nMOS-transistor gate, source, and drain. The second-nMOS-transistor source is coupled to the second voltage source. The first-nMOS-transistor drain and the second-nMOS-transistor drain are a same drain.

Continuous diffusion configurable standard cell architecture

A CMOS device including a standard cell includes first and second transistors with a gate between the first and second transistors. One active region extends between the first and second transistors and under the gate. In a first configuration, when drains/sources of the first and second transistors on the sides of the gate carry the same signal, the drains/sources are connected together and to the gate. In a second configuration, when a source of the first transistor on a side of the gate is connected to a source voltage and a drain/source of the second transistor on the other side of the gate carries a signal, the source of the first transistor is connected to the gate. In a third configuration, when sources of the first and second transistors on the sides of the gate are connected to a source voltage, the gate floats.

Growing community of inventors

San Diego, CA, United States of America

Satyanarayana Sahu