Band 11 Receiver Development

Similar documents
Development of SIS mixers for future receivers at NAOJ

Band 10 Bandwidth and Noise Performance

Multibeam Heterodyne Receiver For ALMA

Quasi-optical submillimeter-wave SIS mixers with NbN/A1N/NbN tunnel junctions

DESIGN CONSIDERATIONS FOR A TWO-DISTRIBUTED-JUNCTION TUNING CIRCUIT

TERAHERTZ NbN/A1N/NbN MIXERS WITH Al/SiO/NbN MICROSTRIP TUNING CIRCUITS

ALMA MEMO #360 Design of Sideband Separation SIS Mixer for 3 mm Band

ALMA Band-1: Key Components, Cartridge Design, and Test Plan

High Resolution Spectrometers

of-the-art Terahertz astronomy detectors Dr. Ir. Gert de Lange

ALMA Interferometer and Band 7 Cartridge

Broadband Fixed-Tuned Subharmonic Receivers to 640 GHz

Development of cartridge type 1.5THz HEB mixer receivers

An SIS unilateral finline mixer with an ultra-wide IF bandwidth

7-6 Development of Epitaxial NbN THz Mixers

Phonon-cooled NbN HEB Mixers for Submillimeter Wavelengths

Low noise THz NbN HEB mixers for radio astronomy: Development at Chalmers/ MC2

Heterodyne Receivers

DEVELOPMENT OF SECOND GENERATION SIS RECEIVERS FOR ALMA

ALMA MEMO 399 Millimeter Wave Generation Using a Uni-Traveling-Carrier Photodiode

Tolerance Analysis of THz-Range Lens-Antenna and Balanced SIS Mixers

YBa 2 Cu 3 O 7-δ Hot-Electron Bolometer Mixer at 0.6 THz

ALMA Band 9 technology for CCAT. Andrey Baryshev

ALMA Band 1. Charles Cunningham and Stéphane Claude. IRMMW-THZ 2005, Williamsburg. IRMMW-THZ 2005, Williamsburg

Focal Plane Receiver Architecture for ASTE and Total Power Array of ALMA. Jung-Won Lee

Sideband-Separating SIS Mixer at 100GHz Band for Astronomical Observation

Wideband Passive Circuits for Sideband Separating Receivers

A Planar SIS Receiver with Logperiodic Antenna for Submillimeter Wavelengths. F. Schdfer *, E. Kreysa* T. Lehnert **, and K.H.

Wideband 760GHz Planar Integrated Schottky Receiver

WIDE-BAND QUASI-OPTICAL SIS MIXERS FOR INTEGRATED RECEIVERS UP TO 1200 GHZ

Planar Frequency Doublers and Triplers for FIRST

Design, fabrication and measurement of a membrane based quasi-optical THz HEB mixer

California Institute of Technology, Pasadena, CA. Jet Propulsion Laboratory, Pasadena, CA

Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

EVLA Front-End CDR. EVLA Ka-Band (26-40 GHz) Receiver

Influence of Temperature Variations on the Stability of a Submm Wave Receiver

Anne-Laure Fontana, Catherine Boucher, Yves Bortolotti, Florence Cope, Bastien Lefranc, Alessandro Navarrini, Doris Maier, Karl-F.

Millimeter- and Submillimeter-Wave Planar Varactor Sideband Generators

AM Noise in Drivers for Frequency Multiplied Local Oscillators

ALMA cartridge-type receiver system for Band 4

DESIGN OF PLANAR IMAGE SEPARATING AND BALANCED SIS MIXERS

Slot Lens Antenna Based on Thin Nb Films for the Wideband Josephson Terahertz Oscillator

Indium Phosphide and Related Materials Selectively implanted subcollector DHBTs

PROGRESS ON TUNERLESS SIS MIXERS FOR THE GHZ BAND

Preliminary Tests of Waveguide Type Sideband-Separating SIS Mixer for Astronomical Observation

MICROMACHINED WAVEGUIDE COMPONENTS FOR SUBMILLIMETER-WAVE APPLICATIONS

A 200 GHz Broadband, Fixed-Tuned, Planar Doubler

ALMA Memo August A Split-Block Waveguide Directional Coupler

Increased bandwidth of NbN phonon cooled hot electron bolometer mixers

Quantum Sensors Programme at Cambridge

The upgreat heterodyne array receivers for the SOFIA telescope

Miniaturization of Branch-Line Coupler Using Composite Right/Left-Handed Transmission Lines with Novel Meander-shaped-slots CSSRR

Performance of Inhomogeneous Distributed Junction Arrays

Optical Interconnection in Silicon LSI

A FIXED-TUNED 400 GHz SUBHARIVIONIC MIXER

ALMA Memo # 453 An Integrated Sideband-Separating SIS mixer Based on Waveguide Split Block for 100 GHz Band

High Power RF MEMS Switch Technology

Updates on THz Amplifiers and Transceiver Architecture

The ALMA Band 6 ( GHz) Sideband- Separating SIS Mixer-Preamplifier

ISSCC 2006 / SESSION 10 / mm-wave AND BEYOND / 10.1

: MAMBO/MPO 018/02 : 1 : 26-AVRIL-02 MAMBO : A : 1 NOTE INTERNE

Performance of a 230 GHz Finline SIS Mixer With a Wide IF Bandwidth

Characterization of an integrated lens antenna at terahertz frequencies

Electro-Optic Sensors for RF Electric Fields: a Diagnostic Tool for Microwave Circuits and Antennas

Etude d un récepteur SIS hétérodyne multi-pixels double polarisation à 3mm de longueur d onde pour le télescope de Pico Veleta

Design and Characterization of a Sideband Separating SIS Mixer for GHz

PLC-based integrated devices for advanced modulation formats

Performance of the ALMA Band 10 SIS Receiver Prototype Model

Design of a Sideband-Separating Balanced SIS Mixer Based on Waveguide Hybrids

Towards a Second Generation SIS Receiver for ALMA Band 10

Terahertz Limb Sounder TELIS. Axel Murk M. Birk, R. Hoogeveen, P. Yagoubov, B. Ellison

A 350 GHz SIS Imaging Module for. the JCMT Heterodyne Array. T.M. Klapwijk 3. Abstract

Millimeter and Submillimeter SIS Mixers with the Noise Temperature Close to the Quantum Limit

Advanced ACTPol Multichroic Horn-Coupled Polarimeter Array Fabrication on 150 mm Wafers

Mixer-Preamp to Receiver Interface Considerations for ALMA Band 6

Millimeter Wave Product Catalogue VivaTech Consulting S.A.R.L.

Two Level System Noise (TLS) and RF Readouts. Christopher McKenney. 4 th Microresonator Workshop 29 th July, 2011

MICROWAVE MICROWAVE TRAINING BENCH COMPONENT SPECIFICATIONS:

Holography Transmitter Design Bill Shillue 2000-Oct-03

POSTER SESSION n'2. Presentation on Friday 12 May 09:00-09:30. Poster session n'2 from 11:00 to 12:30. by Dr. Heribert Eisele & Dr.

TU3B-1. An 81 GHz, 470 mw, 1.1 mm 2 InP HBT Power Amplifier with 4:1 Series Power Combining using Sub-quarter-wavelength Baluns

Estimation of the Loss in the ECH Transmission Lines for ITER

95GHz Receiver with Fundamental Frequency VCO and Static Frequency Divider in 65nm Digital CMOS

A 1.1V 150GHz Amplifier with 8dB Gain and +6dBm Saturated Output Power in Standard Digital 65nm CMOS Using Dummy-Prefilled Microstrip Lines

K band Focal Plane Array: Mechanical and Cryogenic Considerations Steve White,Bob Simon, Mike Stennes February 20, 2008 COLD ELECTRONICS

Innovations in EDA Webcast Series

Features TEMP. RANGE ( C)

A BROADBAND QUADRATURE HYBRID USING IM- PROVED WIDEBAND SCHIFFMAN PHASE SHIFTER

HEB Quasi optical Heterodyne Receiver for THz Frequencies

Gain Slope issues in Microwave modules?

mhemt based MMICs, Modules, and Systems for mmwave Applications Axel Hülsmann Axel Tessmann Jutta Kühn Oliver Ambacher

Revisions: jee Initial jee Corrected label on Figs 6 and 7, Updated Block Diagram

Vertical Integration of MM-wave MMIC s and MEMS Antennas

EMBRACE DS5 presentation

100+ GHz Transistor Electronics: Present and Projected Capabilities

SERIES MXP BALANCED MIXERS FEATURES: APPLICATIONS: DESCRIPTION

A NOVEL BIASED ANTI-PARALLEL SCHOTTKY DIODE STRUCTURE FOR SUBHARMONIC

ALMA Band 5 ( GHz) Sideband Separation Mixer

An SIS-based Sideband-Separating Heterodyne Mixer Optimized for the 600 to 720 GHz Band.

An Inductor-Based 52-GHz 0.18 µm SiGe HBT Cascode LNA with 22 db Gain

Transcription:

Band 11 Receiver Development Y. Uzawa on behalf of Band 10 team 2013 July 8 2013 EA ALMA Development Workshop 1

Outline Band 10 status Band 11 specifications and required technologies Preliminary consideration on Band 11 development Summary 2013 July 8 2013 EA ALMA Development Workshop 2

Band 10 Cartridges WG SIS mixer for pol. 0 4 K stage 15 K stage WG SIS mixer for pol. 1 110 K stage 300 K plate More than 50 cartridges have been produced so far. 2013 July 8 2013 EA ALMA Development Workshop 3

DSB noise temperature (K) Summary of Receiver Sensitivity 400 350 300 Min-to-Max Average Spec 100% Spec 80% 250 200 150 100 800 820 840 860 880 900 920 Additional noise from LO source 2013 July 8 51 cartridges (102 IF outputs) LO frequency (GHz) 2013 EA ALMA Development Workshop 4

PAI #80 PAI #70 PAI #60 PAI #50 Plan(2011.12) Achievement Deadline(2014/3/31) recovery plan Schedule Band 10 Achievement VS Plan Early 2014 PAI #40 PAI #30 PAI #20 PAI #10 PAI #0 2013 July 8 2013 EA ALMA Development Workshop 5

Band 11 Specifications Al Wootten, 2010 2013 July 8 2013 EA ALMA Development Workshop 6

Tasks for Band 11 Optics (Band 10 design feasible) WG horn: to be developed Heterodyne mixer SIS (baseline): to be developed HEB (backup): developed at Univ. of Tokyo IF system (current InP amp. available for SIS) SiGe HBT amp.: to be developed for HEB Local oscillator PA and multiplier: no available in Japan Cartridge prototyping 2013 July 8 2013 EA ALMA Development Workshop 7

Physical optics analysis GRASP analysis and Gaussian beam fitting Simulated by A. Gonzalez Freq (GHz) 868 1300 1500 Gaussicity (%) 99.964 99.968 99.967 w0x (mm) 2.033 1.358 1.177 w0y (mm) 2.033 1.358 1.177 z (Focus position, mm) -0.466-0.490-0.495 Pointing angle X (deg) 0 0 0 Pointing angle Y (deg) 0.975 0.967 0.965 Slight design modification to fix a small phase distortion could yield good optics for Band 11 2013 July 8 2013 EA ALMA Development Workshop 8

Heterodyne Mixer Element l Current Instrumentation: SIS vs HEB DSB noise temperature (K) 1500 1000 500 0 SIS (WG) (QO) HEB (WG) (QO) 0.5 1 1.5 Frequency (THz) Univ. of Tokyo (Collaborator) 20 hf / k B 10 hf / k B 5 hf / k B l SIS: quantum limited sensitivity < 1 THz l HEB: State-of-the-art > 1 THz, frequency dependence weak 2013 July 8 2013 EA ALMA Development Workshop 9

HEBs for ASTE Telescope T. Shiino, et al. (Univ. of Tokyo) 1.5 THz Mixer Mount 1.475 THz Trx= 490 K (~7 hf/kb) IF: 1.0-1.2 GHz, limited by IF circuits 0.8-0.9 THz HEB Mixer 2013 July 8 1.3-1.5 THz HEB Mixer SiGe HBTs may extend the IF band. 2013 EA ALMA Development Workshop 10

SiGe HBTs under Consideration BFU725F (NXP), NESG7030M (RENESAS) Circuit design (based on S. Weinreb, Rev. Sci. Inst., 80, 044702, 2009) 0 0 0 1 2 3 4 5 Frequency (GHz) 2013 July 8 2013 EA ALMA Development Workshop 11 Noise (K) 140 120 100 80 60 40 20 Simulated by T. Kojima Gain @ 300 K Noise @ 300 K Noise @ 4 K?? 35 30 25 20 15 10 Simulation performance @ 300 K To be tested @ 300 & 4 K 5 Gain (db)

Band 11 SIS Mixers SIS junctions Nb//NbN: (Δ 1 +Δ 2 ) ~ 3.6 mev (up to ~1.5 THz) NbN//NbN: 2Δ ~ 5.6 mev (up to ~2.4 THz) Tuning circuits Integrated planar-circuits using normal metals Waveguides (back-short, E-plane tuner) 2013 July 8 2013 EA ALMA Development Workshop 12

SIS Junction Parameters NbN/(AlN or MgO)/NbN junction (NICT, collaborator) Gap voltage: 5.6 mv Specific capacitance: 120 ff/µm 2 ωc J R N product: ~ 5 @ 1.4 THz (20% bandwidth) Required current density: ~74 ka/cm 2 J C = 54 ka/cm 2 NbN/AlN/NbN NbN/MgO/NbN Z. Wang, et al. (1997) A. Kawakami, et al. (2001) 2013 July 8 2013 EA ALMA Development Workshop 13

Planar Tuning Circuit Design All-Al tuning circuit A Tuner Transformer Feed 1.0 Designed by T. Kojima 3 5 0.8 Junction size: 0.6 µmφ J c =75 ka/cm 2 A 5.6 22 Unit: µm Coupling 0.6 0.4 0.2 0.0 1.2 1.3 1.4 1.5 1.6 Frequency (THz) 2013 July 8 2013 EA ALMA Development Workshop 14

Investigation on All-Al Microstrip Open-ended stub SIS junction Investigated by M. Kroug 35-um-long stub Appearance of step RF loss: low enough to make an inductance Position of step voltage Phase velocity: as expected by theory Resonance step at 2.4 mv Feasibility confirmed 2013 July 8 2013 EA ALMA Development Workshop 15

WG Tuning Circuit Design Back-short (old tech.) 83 um 166um 1.0 0.8 Designed by T. Kojima Integrated circuit WG back-short 70 um Coupling 0.6 0.4 70 um Substrate thickness :15 um Dielectric constant: 9.6 WG size :166 um x 83 um (WR-0.6) 0.0 1.2 1.3 1.4 1.5 1.6 Frequency (THz) Worth trying 2013 July 8 2013 EA ALMA Development Workshop 16 0.2 Junction size: 0.2 µm J c =75 ka/cm 2

Noise Budget @ ~1.4 THz Single-ended Receiver Balanced Receiver Operating Temp. [K] Gain [db] Input noise [K] Noise at Rec. Input [K] Input noise [K] Noise at Rec. Input [K] Vacuum window 295 > -0.2 13.9 13.9 13.9 13.9 IR filter 110 > -0.2 5.2 5.4 5.2 5.4 IR filter 15 > -0.2 0.7 0.8 0.7 0.8 Cold optics 4 > -0.2 0.2 0.2 0.2 0.2 Waveguide 4 > -0.4 0.4 0.5 0.4 0.5 LO coupler 4 > -0.5 5 11.6 10-dB couple for single end 3-dB couple for balanced Tuning circuit 4 > -1.2 1.3 2.0 1.3 1.8 Mixer 4 > -5.0 < 134.4 263.6 <134.4 237.3 2 hf/k B Isolator 4 > -1.0 1.0 6.4 1.0 5.8 1 st Amplifier 4 31.0 < 5.0 39.1 5.0 35.1 Room temp. IF 295 24 <1100 5.4 <1100 4.8 Including a cable in 4K-300 K 46 349 306 < specification!! High Tc materials such as Nb 3 (Ge,Si) would improve the performance. 2013 July 8 2013 EA ALMA Development Workshop 17

Nb 3 (Ge,Si) film and junction Ph.D thesis Maximum T C : 23 K!! corresponding to ~ 1.7 THz 2013 July 8 2013 EA ALMA Development Workshop 18

Measured junction gap: 4.7 mev Δ Nb3(Ge,Si) = 4.7 mev - Δ Pb (1.2 mev) = 3.5 mev corresponding to ~ 1.7 THz Interesting material!! 2013 July 8 2013 EA ALMA Development Workshop 19

Advanced Tool for Thin Film and Junction Fabrication - Purchased by SIS device group (T. Noguchi) - Manufacturer: AJA (Massachusetts, USA) - Delivered in October 2012 nitridation chamber sputter chamber loading chamber 2013 July 8 2013 EA ALMA Development Workshop 20

Band 10 status Summary Going well (the production is scheduled to end in early 2014) Band 11 development Feasibility study has been started Optics: WG horn is necessary, based on Band 10 optics SIS: WG NbN mixers are the most likely approach (collaborate with NICT) HEB: IF amp. based on SiGe HBTs will be tested (collaborate with Univ. of Tokyo) Undiscussed issue LO: no available at the moment 2013 July 8 2013 EA ALMA Development Workshop 21