Search Results - "Mismer, C."

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  1. 1

    High speed, antenna-enhanced 10.3 μm quantum cascade detector by Quinchard, G., Mismer, C., Hakl, M., Pereira, J., Lin, Q., Lepillet, S., Trinité, V., Evirgen, A., Peytavit, E., Reverchon, J. L., Lampin, J. F., Barbieri, S., Delga, A.

    Published in Applied physics letters (28-02-2022)
    “…The strong potential of intersubband detectors in the field of mid-infrared photodetection places this technology as a relevant alternative to HgCdTe detectors…”
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    Journal Article
  2. 2

    160-GSa/s-and-Beyond 108-GHz-Bandwidth Over-2-Vppd Output-Swing 0.5-μm InP DHBT 2:1 AMUX-Driver for Next-Generation Optical Communications by Hersent, R., Konczykowska, A., Jorge, F., Blache, F., Nodjiadjim, V., Riet, M., Mismer, C., Renaudier, J.

    “…This letter reports on a 108-GHz bandwidth 0.5-<inline-formula> <tex-math notation="LaTeX">\mu \text{m} </tex-math></inline-formula> InP DHBT…”
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    Journal Article
  3. 3

    0.7- \mu m InP DHBT Technology With 400-GHz } and } and 4.5-V BVCE0 for High Speed and High Frequency Integrated Circuits by Nodjiadjim, V., Riet, M., Mismer, C., Hersent, R., Jorge, F., Konczykowska, A., Dupuy, J.-Y.

    “…We report the performances of a 0.7-μm InP/GaInAs DHBT developed in III-V Lab demonstrating both f T and f MAX of 400 GHz as well as a high fabrication yield…”
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    Journal Article
  4. 4
  5. 5

    InP DHBT On-Wafer RF Characterization and Small-Signal Modelling up to 220 GHz by Davy, N., Deng, M., Nodjiadjim, V., Mukherjee, C., Riet, M., Mismer, C., Ardouin, B., Maneux, C.

    “…In this paper, we perform on-wafer characterization of an InP double heterojunction bipolar (InP DHBT) up to 220 GHz using conventional characterization and…”
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    Conference Proceeding
  6. 6

    Analog-Multiplexer (AMUX) circuit realized in InP DHBT technology for high order electrical modulation formats (PAM-4, PAM-8) by Hersent, R., Konczykowska, A., Jorge, F., Riet, M., Mismer, C., Nodjiadjim, V., Duval, B., Dupuy, J-Y.

    “…Analog-Multiplexers (AMUXs) are attractive architectures to increase electro-optical transmitters' analog bandwidth through the time interleaving of several…”
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    Conference Proceeding
  7. 7

    Research Toward Wafer-Scale 3D Integration of InP Membrane Photonics With InP Electronics by Abdi, S., Nodjiadjim, V., Hersent, R., Riet, M., Mismer, C., de Vries, T., Williams, K. A., Jiao, Y.

    “…In this study, we focus on the development of key processes towards wafer-scale 3-dimentional/vertical (3D) integration of Indium-Phosphide (InP) photonic…”
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    Journal Article
  8. 8

    High speed mid-IR Quantum Cascade Detector at room temperature by Quinchard, G., Mismer, C., Trinite, V., Evirgen, A., Larrue, A., Hakl, M., Lampin, J-F, Peytavit, E., Barbieri, S., Delga, A.

    “…We present a high-speed antenna enhanced Quantum Cascade Detector at 10.3μm. By using a coherent detection scheme and thin InGaAs/AlInAs heterostructure…”
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    Conference Proceeding
  9. 9

    Microwave/microfluidic sensor fabricated on a flexible kapton substrate for complex permittivity characterization of liquids by Chahadih, Abdallah, Cresson, Pierre Yves, Hamouda, Zahir, Gu, Sijia, Mismer, Colin, Lasri, Tuami

    Published in Sensors and actuators. A. Physical. (15-06-2015)
    “…•A microwave microfluidic sensor is fabricated on a flexible kapton substrate.•Printing technologies (inkjet and3D printing)are used for fabrication.•Complex…”
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    Journal Article
  10. 10

    High speed antenna enhanced mid-infrared quantum cascade detector by Quinchard, G., Barbieri, S., Delga, A., Larrue, A., Garcia, M., Mismer, C., Trinite, V., Evirgen, A., Hakl, M., Lampin, J-F, Peytavit, E.

    “…We demonstrate a λ=10.3 μm Quantum Cascade Detector embedded in a subwavelength optical patch antenna cavity. In this structure, the responsivity is enhanced…”
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    Conference Proceeding
  11. 11

    V-Band Via-Less GCPW-to-Microstrip Transition Designed on PET Flexible Substrate Using Inkjet Printing Technology by Chahadih, A., Cresson, Pierre Yves, Mismer, C., Lasri, Tuami

    “…In this letter, a grounded coplanar waveguide-to-microstrip (GCPW-to-MS) transition without via holes is presented. The transition is designed on a PET®…”
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    Journal Article
  12. 12

    0.7-$\mu$ m InP DHBT Technology With 400-GHz ${f}_{{T}}$ and ${f}_{\text{MAX}}$ and 4.5-V BV CE0 for High Speed and High Frequency Integrated Circuits by Nodjiadjim, V., Riet, M., Mismer, C., Hersent, R., Jorge, F., Konczykowska, A., Dupuy, J.-Y.

    “…We report the performances of a 0.7-μm InP/GaInAs DHBT developed in III-V Lab demonstrating both f T and f MAX of 400 GHz as well as a high fabrication yield…”
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    Journal Article
  13. 13

    0.7-[Formula Omitted]m InP DHBT Technology With 400-GHz [Formula Omitted] and [Formula Omitted] and 4.5-V BVCE0 for High Speed and High Frequency Integrated Circuits by Nodjiadjim, V, Riet, M, Mismer, C, Hersent, R, Jorge, F, Konczykowska, A, J-Y Dupuy

    “…We report the performances of a 0.7-[Formula Omitted] InP/GaInAs DHBT developed in III-V Lab demonstrating both [Formula Omitted] and [Formula Omitted] of 400…”
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    Journal Article
  14. 14

    160-GSa/s-and-Beyond 108-GHz-Bandwidth Over-2-V ppd Output-Swing 0.5-μm InP DHBT 2:1 AMUX-Driver for Next-Generation Optical Communications by Hersent, R., Konczykowska, A., Jorge, F., Blache, F., Nodjiadjim, V., Riet, M., Mismer, C., Renaudier, J.

    “…This letter reports on a 108-GHz bandwidth 0.5- μm InP DHBT analog-multiplexer-driver (AMUX-driver). To the best of the authors’ knowledge, this 2:1…”
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    Journal Article
  15. 15

    A Compensated Finite-Ground Elevated Coplanar Waveguide Interconnect Strategy for InP Based Integrated Circuits Above 100 GHz by Johansen, T. K., Hersent, R., Nodjiadjim, V., Riet, M., Mismer, C., Ardouin, B.

    “…In this paper, a low-loss interconnect strategy for InP integrated circuits operating above 100 GHz is proposed. The interconnect strategy is based upon…”
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    Conference Proceeding
  16. 16

    112 GBaud (224 Gb/s) large output swing InP DHBT PAM-4 DAC-driver by Konczykowska, A., Hersent, R., Jorge, F., Riet, M., Nodjiadjim, V., Mismer, C., Bolognesi, C. R., Ostinelli, O., Dupuy, J.-Y.

    “…In this paper, we report on the design, optimisation and and electrical measurements of a PAM-4 DAC-driver fabricated in 0.7-μm InP/GaAsSb DHBT technology,…”
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    Conference Proceeding
  17. 17

    InP/GaAsSb DHBTs: THz Analog Performance and Record 180-Gb/s 5.5Vppd-Swing PAM-4 DAC-Driver by Bolognesi, C. R., Arabhavi, A. M., Hersent, R., Hamzeloui, S., Jorge, F., Wen, X., Riet, M., Luisier, M., Nodjiadjim, V., Ciabattini, F., Mismer, C., Ostinelli, O., Konczykowska, A.

    “…"Type-II" InP/GaAsSb DHBTs are the first non-GaInAs -based transistors to show oscillation frequencies > 1 THz with the associated benefits of higher breakdown…”
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    Conference Proceeding
  18. 18

    Planar Goubau Lines for on chip terahertz microscopy by Chahadih, A., Zehar, M., Moreno, G., Mismer, C., Turer, I., Ghaddar, A., Lampin, Jean-Francois, Takano, K., Hangyo, M., Akalin, T.

    “…For terahertz microscopy, we propose an original approach with Planar Goubau Lines (PGL) by taking advantage of the confinement around the metallic strip. The…”
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    Conference Proceeding