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Dive into the research topics where Friedrich Schroeder is active.

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Featured researches published by Friedrich Schroeder.


international solid-state circuits conference | 2015

4.1 22nm Next-generation IBM System z microprocessor

James D. Warnock; Brian W. Curran; John Badar; Gregory J. Fredeman; Donald W. Plass; Yuen H. Chan; Sean M. Carey; Gerard M. Salem; Friedrich Schroeder; Frank Malgioglio; Guenter Mayer; Christopher J. Berry; Michael H. Wood; Yiu-Hing Chan; Mark D. Mayo; John Mack Isakson; Charudhattan Nagarajan; Tobias Werner; Leon J. Sigal; Ricardo H. Nigaglioni; Mark Cichanowski; Jeffrey A. Zitz; Matthew M. Ziegler; Tim Bronson; Gerald Strevig; Daniel M. Dreps; Ruchir Puri; Douglas J. Malone; Dieter Wendel; Pak-Kin Mak

The next-generation System z design introduces a new microprocessor chip (CP) and a system controller chip (SC) aimed at providing a substantial boost to maximum system capacity and performance compared to the previous zEC12 design in 32nm [1,2]. As shown in the die photo, the CP chip includes 8 high-frequency processor cores, 64MB of eDRAM L3 cache, interface IOs (“XBUS”) to connect to two other processor chips and the L4 cache chip, along with memory interfaces, 2 PCIe Gen3 interfaces, and an I/O bus controller (GX). The design is implemented on a 678 mm2 die with 4.0 billion transistors and 17 levels of metal interconnect in IBMs high-performance 22nm high-x CMOS SOI technology [3]. The SC chip is also a 678 mm2 die, with 7.1 billion transistors, running at half the clock frequency of the CP chip, in the same 22nm technology, but with 15 levels of metal. It provides 480 MB of eDRAM L4 cache, an increase of more than 2× from zEC12 [1,2], and contains an 18 MB eDRAM L4 directory, along with multi-processor cache control/coherency logic to manage inter-processor and system-level communications. Both the CP and SC chips incorporate significant logical, physical, and electrical design innovations.


Archive | 2010

Multistage, hybrid synthesis processing facilitating integrated circuit layout

Harry Barowski; Harold Mielich; Friedrich Schroeder; Alexander Woerner


Archive | 2012

System and Method for Placing Integrated Circuit Functional Blocks According to Dataflow Width

Friedrich Schroeder; Alexander Woerner; Stefan Bonsels; Tobias Werner


Archive | 2011

method for controlling the supply voltage for an integrated circuit and an apparatus with a voltage regulation module and an integrated circuit

Stefan Bonsels; Cedric Lichtenau; Antje Mueller; Thomas Pflueger; Friedrich Schroeder


Archive | 2017

DETECTING CIRCUIT DESIGN FLAWS BASED ON TIMING ANALYSIS

Wilhelm Haller; Kurt Lind; Friedrich Schroeder; Stefan Zimmermann


Archive | 2017

DETECTING DISPENSABLE INVERTER CHAINS IN A CIRCUIT DESIGN

Ulrich Krauch; Kurt Lind; Friedrich Schroeder; Stefan Zimmermann


Archive | 2015

PIPELINE DEPTH EXPLORATION IN A REGISTER TRANSFER LEVEL DESIGN DESCRIPTION OF AN ELECTRONIC CIRCUIT

Maarten J. Boersma; Thomas Fuchs; David Lang; Friedrich Schroeder


Archive | 2013

SIMD ACCELERATOR FOR DATA COMPARISON

Wilhelm Haller; Ulrich Krauch; Kurt Lind; Friedrich Schroeder; Alexander Woerner


Archive | 2013

CREATING AN END POINT REPORT BASED ON A COMPREHENSIVE TIMING REPORT

Kurt Lind; Peter Loeffler; Siegmund Schlechter; Friedrich Schroeder


Archive | 2008

CIRCUIT DESIGN METHODOLOGY TO REDUCE LEAKAGE POWER

Tobias Gemmeke; Friedrich Schroeder; Stefan Bonsels; Dieter Wendel

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