Zobrazeno 1 - 8
of 8
pro vyhledávání: '"Niveditha Arumugam"'
Autor:
Sassan Tabatabaei, Pavan Gupta, Michael H. Perrott, Carl Arft, Jintae Kim, Sudhakar Pamarti, Aaron Partridge, Hae-Chang Lee, Fred Lee, Shouvik Mukherjee, Fari Assaderaghi, Niveditha Arumugam, James Christian Salvia
Publikováno v:
IEEE Journal of Solid-State Circuits. 48:276-291
MEMS-based oscillators offer a silicon-based alternative to quartz-based frequency references. Here, a MEMS-based programmable oscillator is presented which achieves better than ±0.5-ppm frequency stability from -40°C to 85°C and less than 1-ps (r
Autor:
Bruno W. Garlepp, Niveditha Arumugam, Shouvik Mukherjee, Sudhakar Pamarti, Cathy Lee, Michael H. Perrott, S Perumal, V Tsinker, Fred Lee, E G Hoffman, B T Soto
Publikováno v:
IEEE Journal of Solid-State Circuits. 45:2566-2581
MEMS-based oscillators have recently become a topic of interest as integrated alternatives are sought for quartz-based frequency references. When seeking a programmable solution, a key component of such systems is a low power, low area fractional-N s
Autor:
Vinod Menon, Grosjean Charles I, Rajkumar Palwai, Jim Pedicord, Paul M. Hagelin, Aaron Partridge, Ginel C. Hill, Pavan Gupta, Niveditha Arumugam, Carl Arft, Guy Clark
Publikováno v:
2015 IEEE 65th Electronic Components and Technology Conference (ECTC).
Real-time clocking for space-constrained mobile and wearable applications require low-power 32.768 kHz references with small form-factor and tight frequency stability, at a competitive price built in an ultra-high volume capable manufacturing process
Autor:
Kofi A. A. Makinwa, Sudhakar Pamarti, Niveditha Arumugam, Rajkumar Palwai, Hae-Chang Lee, Paul M. Hagelin, Terri S. Fiez, Jim Salvia, Aaron Partridge, Vinod Menon, Grosjean Charles I, Shouvik Mukherjee, Lijun Will Chen, Samira Zaliasl, Kimo Joo, Meghan Phadke, Ginel C. Hill
Publikováno v:
IEEE Journal of Solid State Circuits, 50(1)
This paper describes the first 32 kHz low-power MEMS-based oscillator in production. The primary goal is to provide a small form-factor oscillator (1.5 × 0.8 mm 2 ) for use as a crystal replacement in space-constrained mobile devices. The oscillator
Externí odkaz:
https://explore.openaire.eu/search/publication?articleId=doi_dedup___::e4c17d9fe0cdac65d253877b01d8a9e4
http://resolver.tudelft.nl/uuid:ba4f4b6a-78bb-4d26-87fc-c9a6e5d3c59f
http://resolver.tudelft.nl/uuid:ba4f4b6a-78bb-4d26-87fc-c9a6e5d3c59f
Autor:
Kimo Joo, Sudhakar Pamarti, Will Chen, Hae-Chang Lee, Shouvik Mukherjee, Meghan Phadke, Kofi A. A. Makinwa, Aaron Partridge, Samira Zali Asl, Jim Salvia, Preston Galle, Vinod Menon, Grosjean Charles I, Niveditha Arumugam, Rajkumar Palwai, Terri S. Fiez
Publikováno v:
ISSCC
Mobile time-keeping applications require small form-factor, tight frequency stability, and micro-power 32.768kHz clock references. Today's 32kHz quartz resonators and oscillators are facing challenges in size reduction. Previously described MEMS-base
Autor:
Carl Arft, Fari Assaderaghi, Pavan Gupta, M. Lutz, Ginel C. Hill, Paul M. Hagelin, Niveditha Arumugam, Renata Melamud, Aaron Partridge, Grosjean Charles I
Publikováno v:
2012 Solid-State, Actuators, and Microsystems Workshop Technical Digest.
Autor:
Aaron Partridge, Sassan Tabatabaei, Shouvik Mukherjee, Michael H. Perrott, Fred Lee, Jin-Tae Kim, Sudhakar Pamarti, Hae-Chang Lee, Jim Salvia, Pavan Gupta, Carl Arft, Niveditha Arumugam, Fari Assaderaghi
Publikováno v:
ISSCC
MEMS-based programmable oscillators have emerged as a promising alternative to crystal-based frequency references, with previously reported work demonstrating sub-ps integrated jitter [1]. Here we show frequency stability better than ±0.5ppm from
Autor:
Sudhakar Pamarti, Benjamin Soto, Niveditha Arumugam, Eric Hoffman, Sathi Perumal, Cathy Lee, Fred Lee, Bruno W. Garlepp, Vadim Tsinker, Shouvik Mukherjee, Michael H. Perrott
Publikováno v:
ISSCC
MEMS resonators have recently emerged as an alternative structure to crystal resonators in providing frequency references which achieve better than 50 ppm accuracy over the industrial temperature range. As illustrated in Fig. 13.1.1, a programmable o