The design of a mid-infrared micro-spectrometer based on an array of differently tuned narrow-band metamaterial absorbers is presented. The spectral response is tailored by the design of the unit cell. Each spectral band is composed of a thermopile detector with a 300 7180 μm2 Al-based metamaterial absorber fabricated in a CMOS compatible post-process. The challenges in the fabrication of the sub-μm features within the unit cell over a several mm2 absorber area by equipment that is part of the standard infrastructure of a MEMS facility is addressed. The design and fabrication method utilized here for the first time enables the CMOS fabrication of integrated large-area plasmonic components on thermal detectors
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
This paper presents the design of a micropyrometer for infrared (IR) detection. The electronic parts...
A CMOS-compatible approach is presented for the fabrication of a wideband mid-IR metamaterial-based ...
A CMOS-compatible approach is presented for the fabrication of a wideband mid-IR metamaterial-based ...
<p>The design and fabrication of wideband mid-infrared metamaterial absorbers are presented. The emp...
The design and fabrication of wideband mid-infrared metamaterial absorbers are presented. The emphas...
Integration of an\ua0array\ua0of\ua0differently\ua0tuned\ua0mid-infrared metamaterial-based\ua0absor...
The design of a metamaterial-based absorber for use in a mid-IR microspectrometer-based gas sensor i...
A thermopile-based detector array for use in a miniaturized Infrared (IR) spectrometer has been desi...
The miniaturized IR spectrometer discussed in this paper is comprised of: slit, planar imaging diffr...
A thermopile-based detector array for use in a miniaturized Infrared (IR) spectrometer has been desi...
The miniaturized IR spectrometer discussed in this paper is comprised of: slit, planar imaging diffr...
The design of a metamaterial-based absorber for use in a mid-IR microspectrometer-based gas sensor i...
We experimentally demonstrate a CMOS compatible medium wave infrared metal-insulator-metal (MIM) met...
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
This paper presents the design of a micropyrometer for infrared (IR) detection. The electronic parts...
A CMOS-compatible approach is presented for the fabrication of a wideband mid-IR metamaterial-based ...
A CMOS-compatible approach is presented for the fabrication of a wideband mid-IR metamaterial-based ...
<p>The design and fabrication of wideband mid-infrared metamaterial absorbers are presented. The emp...
The design and fabrication of wideband mid-infrared metamaterial absorbers are presented. The emphas...
Integration of an\ua0array\ua0of\ua0differently\ua0tuned\ua0mid-infrared metamaterial-based\ua0absor...
The design of a metamaterial-based absorber for use in a mid-IR microspectrometer-based gas sensor i...
A thermopile-based detector array for use in a miniaturized Infrared (IR) spectrometer has been desi...
The miniaturized IR spectrometer discussed in this paper is comprised of: slit, planar imaging diffr...
A thermopile-based detector array for use in a miniaturized Infrared (IR) spectrometer has been desi...
The miniaturized IR spectrometer discussed in this paper is comprised of: slit, planar imaging diffr...
The design of a metamaterial-based absorber for use in a mid-IR microspectrometer-based gas sensor i...
We experimentally demonstrate a CMOS compatible medium wave infrared metal-insulator-metal (MIM) met...
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
The use of masked UV (i-line) lithography in a MEMS foundry for CMOS-compatible fabrication of large...
This paper presents the design of a micropyrometer for infrared (IR) detection. The electronic parts...