Abstract: Described herein are two techniques referred to as “Adaptive Power Routing” and “Shield Sharing To Reduce Shield Count,” that allow power routing and signal routing to be integrated in a manner that provides more efficient and compact layout of design blocks as compared to traditional techniques. Adaptive power routing refers to completion of power routing to be postponed to the signal routing phase, at which time signal shielding requirements are also used to complete the power routing along with predefined power delivery constraints. Shield sharing optimization refers to the more efficient use of previously routed power lines and to the insertion of a reduced number of additional power lines so as to satisfy both shielding requirements and power supply requirements in a gridless environment.

Abstract: A method for exchanging information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of exchanging information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The exchange of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then exchanged between nodes within the same quadrant and subquadrants.

Abstract: Described herein are two techniques referred to as “Adaptive Power Routing” and “Shield Sharing To Reduce Shield Count,” that allow power routing and signal routing to be integrated in a manner that provides more efficient and compact layout of design blocks as compared to traditional techniques. Adaptive power routing refers to completion of power routing to be postponed to the signal routing phase, at which time signal shielding requirements are also used to complete the power routing along with predefined power delivery constraints. Shield sharing optimization refers to the more efficient use of previously routed power lines and to the insertion of a reduced number of additional power lines so as to satisfy both shielding requirements and power supply requirements in a gridless environment.

Abstract: Described herein are two techniques referred to as “Adaptive Power Routing” and “Shield Sharing To Reduce Shield Count,” that allow power routing and signal routing to be integrated in a manner that provides more efficient and compact layout of design blocks as compared to traditional techniques. Adaptive power routing refers to completion of power routing to be postponed to the signal routing phase, at which time signal shielding requirements are also used to complete the power routing along with predefined power delivery constraints. Shield sharing optimization refers to the more efficient use of previously routed power lines and to the insertion of a reduced number of additional power lines so as to satisfy both shielding requirements and power supply requirements in a gridless environment.

Abstract: Described herein are two techniques referred to as “Adaptive Power Routing” and “Shield Sharing To Reduce Shield Count,” that allow power routing and signal routing to be integrated in a manner that provides more efficient and compact layout of design blocks as compared to traditional techniques. Adaptive power routing refers to completion of power routing to be postponed to the signal routing phase, at which time signal shielding requirements are also used to complete the power routing along with predefined power delivery constraints. Shield sharing optimization refers to the more efficient use of previously routed power lines and to the insertion of a reduced number of additional power lines so as to satisfy both shielding requirements and power supply requirements in a gridless environment.

Abstract: A method for transferring information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of transferring information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The transfer of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then transferred between nodes within the same quadrant and subquadrants.

Abstract: A method for exchanging information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of exchanging information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The exchange of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then exchanged between nodes within the same quadrant and subquadrants.

Abstract: A method for transferring information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of transferring information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The transfer of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then transferred between nodes within the same quadrant and subquadrants.

Abstract: A method for exchanging information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of exchanging information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The exchange of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then exchanged between nodes within the same quadrant and subquadrants.

Abstract: A method for exchanging information within a mesh network that has an array of nodes defined by four quadrants. The method includes the initial step of exchanging information from a set of nodes in one quadrant to a set of nodes located in an adjacent quadrant. The exchange of information simultaneously occurs in both a vertical and horizontal direction within the array. Information is then exchanged between nodes within the same quadrant and subquadrants.