Wednesday, June 15, 2011
Experimental Demonstration of Viability of Energy Minimizing Computing using Nano-magnets (IEEE Nano 2011)
J. Pulecio, S. Sarkar and S. Bhanja, “Experimental Demonstration of Viability of Energy Minimizing Computing using Nano-magnets”, to IEEE Conference on Nanotechnology, 2011
Novel knowledge module on fusion of logic and memory to undergraduate students (IEEE MSE)
D. Karunaratne, S. Rajaram, P. De, K. Kusmierek and S. Bhanja, “Novel knowledge module on fusion of logic and memory to undergraduate students”, to IEEE Microelectronic System Education Conference, 2011.
Tool for Analysis and Quantification of Fabrication Layouts in Nanomagnet-based Computing (IEEE NANO 2011)
R. Panchumarthy, D. Karunaratne, S. Sarkar and S. Bhanja, “Tool for Analysis and Quantification of Fabrication Layouts in Nanomagnet-based Computing”, to IEEE Conference on Nanotechnology, 2011.
A Review of Magnetic Cellular Automata Systems (Invited to IEEE ISCAS), 2011
S. Bhanja and J. Pulecio, “A Review of Magnetic Cellular Automata Systems”, (Invited paper) to IEEE International Symposium on Circuits and Systems (ISCAS), 2011.
QCAPro - An Error-Power Estimation Tool for QCA Circuit Design (Invited paper to IEEE ISCAS), 2011
S. Srivastava, A. Asthana, S. Bhanja and S. Sarkar “QCAPro - An Error-Power Estimation Tool for QCA Circuit Design”, (Invited paper) to IEEE International Symposium on Circuits and Systems (ISCAS), 2011.
Download the tool
Low Power Magnetic Quantum Cellular Automata Realization Using Magnetic Multi-Layer Structures (Invited Paper in IEEE JETCAS) 2011
J. Das, S.M. Alam and S. Bhanja, "Low Power Magnetic Quantum Cellular Automata Realization Using Magnetic Multi-Layer Structures", in IEEE Journal of Emerging Technologies CAS, June 2011 (Invited Paper).
Abstract: In this paper, we report Magnetic Quantum Cellular Automata (MQCA) realization using multi-layer cells with tilted polarizer reference layer with a particular focus on the critical
need to shift towards the multi-layer cells as elemental entities from the conventional single-domain nanomagnets. We have reported a novel spin-transfer torque current induced clocking
scheme, theoretically derived the clocking current, and shown the reduction in power consumption achieved against the traditional mechanism of clocking using magnetic fields typically generated from overhead or underneath wires. We have modeled the multilayer
cell behavior in Verilog-A along with the underlying algorithm used in implementing the neighbor interaction between the cells. The paper reports the switching and clocking current magnitudes, their direction and the power consumption associated with switching and clocking operation. Finally, we present the simulation results from Verilog-A model of switching, clocking
and neighbor interaction. Low power consumption due to spin transfer torque current induced switching and clocking along with the reasonable Magneto-Resistance (MR) distinguishing the
two energy minimum states of the device, make these devices a promising candidate in MQCA realization.
Abstract: In this paper, we report Magnetic Quantum Cellular Automata (MQCA) realization using multi-layer cells with tilted polarizer reference layer with a particular focus on the critical
need to shift towards the multi-layer cells as elemental entities from the conventional single-domain nanomagnets. We have reported a novel spin-transfer torque current induced clocking
scheme, theoretically derived the clocking current, and shown the reduction in power consumption achieved against the traditional mechanism of clocking using magnetic fields typically generated from overhead or underneath wires. We have modeled the multilayer
cell behavior in Verilog-A along with the underlying algorithm used in implementing the neighbor interaction between the cells. The paper reports the switching and clocking current magnitudes, their direction and the power consumption associated with switching and clocking operation. Finally, we present the simulation results from Verilog-A model of switching, clocking
and neighbor interaction. Low power consumption due to spin transfer torque current induced switching and clocking along with the reasonable Magneto-Resistance (MR) distinguishing the
two energy minimum states of the device, make these devices a promising candidate in MQCA realization.
Subscribe to:
Posts (Atom)