Jeremy Schlachter

Publication Activity (10 Years)

Years Active: 2015-2018
Publications (10 Years): 8

Top Topics

Discrete Cosine Transform

Top Venues

IEEE J. Emerg. Sel. Topics Circuits Syst.

Publications

Vincent Camus, Mattia Cacciotti, Jeremy Schlachter, Christian C. Enz
Design of Approximate Circuits by Fabrication of False Timing Paths: The Carry Cut-Back Adder. IEEE J. Emerg. Sel. Topics Circuits Syst. 8 (4) (2018)
Mattia Cacciotti, Vincent Camus, Jeremy Schlachter, Alessandro Pezzotta, Christian C. Enz
Hardware Acceleration of HDR-Image Tone Mapping on an FPGA-CPU Platform Through High-Level Synthesis. SoCC (2018)
Jeremy Schlachter, Vincent Camus, Krishna V. Palem, Christian C. Enz
Design and Applications of Approximate Circuits by Gate-Level Pruning. IEEE Trans. Very Large Scale Integr. Syst. 25 (5) (2017)
Jeremy Schlachter, Mike Fagan, Krishna V. Palem, Christian C. Enz
A study on the energy-precision tradeoffs on commercially available processors and SoCs with an EPI based energy model. SoCC (2017)
Mike Fagan, Jeremy Schlachter, Kazutomo Yoshii, Sven Leyffer, Krishna V. Palem, Marc Snir, Stefan M. Wild, Christian C. Enz
Overcoming the power wall by exploiting inexactness and emerging COTS architectural features: Trading precision for improving application quality. SoCC (2016)
Jeremy Schlachter, Vincent Camus, Christian C. Enz
Design of energy-efficient discrete cosine transform using pruned arithmetic circuits. ISCAS (2016)
Vincent Camus, Jeremy Schlachter, Christian C. Enz
approximate adder with fixed-point implementation and floating-point precision. DAC (2016)
Vincent Camus, Jeremy Schlachter, Christian C. Enz, Michael Gautschi, Frank K. Gürkaynak
Approximate 32-bit floating-point unit design with 53% power-area product reduction. ESSCIRC (2016)
Jeremy Schlachter, Vincent Camus, Christian C. Enz
Near/Sub-Threshold Circuits and Approximate Computing: The Perfect Combination for Ultra-Low-Power Systems. ISVLSI (2015)
Shyamsundar Venkataraman, Akash Kumar, Jeremy Schlachter, Christian C. Enz
Designing inexact systems efficiently using elimination heuristics. DATE (2015)
Vincent Camus, Jeremy Schlachter, Christian C. Enz
Energy-efficient inexact speculative adder with high performance and accuracy control. ISCAS (2015)
Jeremy Schlachter, Vincent Camus, Christian C. Enz, Krishna V. Palem
Automatic generation of inexact digital circuits by gate-level pruning. ISCAS (2015)
Vincent Camus, Jeremy Schlachter, Christian C. Enz
Energy-efficient digital design through inexact and approximate arithmetic circuits. NEWCAS (2015)
Peter D. Düben, Jeremy Schlachter, Parishkrati, Sreelatha Yenugula, John Augustine, Christian C. Enz, Krishna V. Palem, Tim N. Palmer
Opportunities for energy efficient computing: a study of inexact general purpose processors for high-performance and big-data applications. DATE (2015)