Short circuit protection in dual configurable high side switch

Hulub, Marian; Murtaza, Cristian; Ionut, Ocoleanu; Mihai, Serban; Danchiv, Andrei

doi:10.1109/smicnd.2011.6095834

Cited by 3 publications

(2 citation statements)

References 5 publications

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“…While recent work on high-side switches has largely focused on using specialised processes (e.g. Bipolar-CMOS-DMOS [2,3]), this work is focused on utilising standard devices in a CMOS process. In the following, we present the operation of the CMOS high-side load switch.…”

mentioning

confidence: 99%

Multiplexing high‐side load switch using adaptive well biasing

DiLello

Rumberg²,

Graham

2016

Electron. lett.

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A high-side load switch is presented for applications that require multiplexing the supply terminal to multiple voltage sources that are different, unknown, and/or dynamic. The design incorporates p-channel switches with adaptive n-well biasing to ensure that no junction is forward biased. Measured results are presented from a circuit that has been fabricated in a standard 0.35 μm CMOS process. The circuit is also demonstrated in an application of programming non-volatile memory.

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confidence: 99%

Multiplexing high‐side load switch using adaptive well biasing

DiLello

Rumberg²,

Graham

2016

Electron. lett.

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“…While recent work on high-side switches has largely focused on using specialized processes (e.g. Bipolar-CMOS-DMOS [19,20]), this work is focused on utilizing standard devices in a CMOS process. In the following, we present the operation of the CMOS high-side load switch.…”

Section: Supply Loadmentioning

confidence: 99%

Low-Power Reconfigurable Sensing Circuitry for the Internet-of-Things Paradigm

DiLello¹

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With ubiquitous wireless communication via Wi-Fi and nascent 5th Generation mobile communications, more devices-both smart and traditionally "dumb"-will be interconnected than ever before. This burgeoning trend is referred to as the Internet-of-Things. These new sensing opportunities place a larger burden on the underlying circuitry that must operate on finite battery power and/or within energy-constrained environments. New developments of low-power reconfigurable analog sensing platforms like field-programmable analog arrays (FPAAs) present an attractive sensing solution by processing data in the analog domain while staying flexible in design. This work addresses some of the contemporary challenges of lowpower wireless sensing via traditional application-specific sensing and with FPAAs. A large emphasis is placed on furthering the development of FPAAs by making them more accessible to designers without a strong integrated-circuit background-much like FPGAs have done for digital designers.

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