2021
UNISOKU
NEWSLETTER
Let the global
pandemic
be blown out!

Business Policy

経営方針

Corporate Philosophy

UNISOKU Co., Ltd. was founded by Dr. Toshihiko Nagamura in 1974 with the spirit of his
frontier mentality, “Provide unique measurement systems to the society”. In 2010, we joinedTokyo Instruments(TII) Group, the worldwide trading group for advanced scientificinstruments. Under the former President, Shoji Suruga, UNISOKU promoted globalizationand capital investment and succeeded in expanding our sales worldwide.
We keep listening to our customers, continuously improve our systems, and visit them
until their systems work properly and positive outcomes are obtained. This is our basic
policy to build a bond with our customers. We strive to develop unique instrumentsthat can provide significant impacts and create new values in the society, and continue
to grow in the constantly changing world. A variety of innovative measurement systems
have been continuously produced from UNISOKU, including not only very low
temperature/high magnetic field STM systems but also tip-enhanced Raman spectroscopy
President and CEO Yutaka Miyatakesystems possessing molecule-scale spatial resolution, cryogen-free STM systems, andoptical instruments such as picoTAS, which enables us to measure over a wide range of time scales including “Gap Time
Region” by utilizing our own RIPT method.
It is our mission and the origin of our growth to listen to our customers and provide them happiness and invaluable experienceby offering solutions to their problems with our skills and knowledge. We continue to challenge and never give up until our
products meet the customers’ needs, and strive to further improve our products and service.
株式会社ユニソクは､1974年に初代社長である長村俊彦氏の｢ユニークな測定器を世の中に提供していく｣というチャレンジ精神により誕生しました。2010年には､研究用計測機器の販売を行う株式会社東京インスツルメンツ(TII)のグループ会社となり､当時の同社社長､駿河正次氏を2代目社長として迎え､グローバル化と設備投資を進め､成長を遂げました。
弊社は､お客様の声に耳を傾け､改良を重ね､お客様の成果が出るまでお付き合いをさせていただくことを大切にしてきました。
私たちは計測を通して社会に役立つオンリーワン､ナンバーワンの価値を生み出し､変化に強い会社として成長を続けることを目指しています。極低温強磁場STM装置の他にも､分子スケールの空間分解能を持つ探針増強ラマンSTM製品や､液体ヘリウムを使わない
次世代無冷媒STM製品､分光製品では､従来法では困難だった時間領域を独自の計測技術(RIPT法)を用いて計測するピコ秒過渡吸収分
光製品(picoTAS)などユニークな計測装置を次々と世に送り出しております。
お客様の声に耳を傾け､課題解決を知恵と工夫で提案することにより､感動と幸福を与え続けることが我々の使命であり成長の源であると考えます。これからも満足していただけるまであきらめない姿勢で挑戦を続け､より良い製品とサービスの提供に取り組ん
でまいります。

Our Policy for Delivery and Repair Visit Work due to COVID-19

経営理念

UNISOKU contributes to the development of science and technology by providing
customers with measurement systems that meet their exploring minds.
お客様の探究心に応える計測を提供し、お客様の成果を通じて、科学技術の発展に貢献する。

The Code of Conduct

行動指針

Challenge courageously

果敢に挑戦

Think positively and look from others’ standpoints

物事を前向きに、相手の立場で考える

We express our gratitude. We achieve goals through mutual
cooperation. We think from the standpoints of customers,
partners and colleagues, and provide value for them.

感謝の気持ちを示し、互いに協力しながら目標を達成する
ことを目指します。
顧客・取引先・同僚の視点で考え、相手にとって価値あることの提供を目指します。

Create values

価値の創造

Even in difficult situations, we try something new with ourstrong will.

To meet ever-changing social needs, we aim to create values
that provide happiness and impressive experience to customers
by our knowledge and skills.

Pursue happinessWe work to share happiness with our customers and colleagues.

困難なことでも強い意志を持って果敢に挑戦することを目指します。

常に変化する世の中のニーズに応え、知恵と工夫で、幸福と感動を与える価値を創造することを目指します。

幸福の追求

仕事を通じて、顧客や同僚とともに歩み、分かち合える
幸福を見つけることを目指します。

COVID-19 の世界的感染に伴う納品・修理訪問の方針

Due to the pandemic COVID-19, we sincerely apologize for any late deliveries and suspending our on-site visit work.
Regarding restarting our on-site visit work, UNISOKU must follow the immigration policy announced by the Governmentof Japan for each country. Although it is difficult to restart traveling abroad depending on area, we do our best to keep thisinconvenience to a minimum by offering online support and/or local support by the SPECS-TII group. We deeply
appreciate your kind understanding in this regard. We are also grateful to our suppliers for their efforts to provide us
products and keep their production lines running during this difficult situation.
COVID-19の世界的感染拡大により､納品の遅れやお客様への訪問サービスの提供が滞っておりますことを心よりお詫び申し上げます。
弊社からの出張の再開に関しましては､日本政府による各国ごとの渡航安全基準と渡航先の入国基準に従う方針です。地域によっては渡航の再開は困難な状況ですが､オンラインサポートの提案､SPECS-TIIグループによるローカルサポートの活用など､お客様のご不便を低減するよう努力してまいります。これまでご理解をくださいましてありがとうございます。また弊社へのサプライヤーの皆様におかれましては生産能力の確保が厳しい中､弊社への製品提供にご尽力くださり感謝いたします。

SPECS-TII GroupSPECS-TIIグループ

UNISOKU joined TII group as a subsidiary company in 2010. In 2017, TII Group and SPECS GmbH established a jointcompany, SPECS-TII GmbH in Switzerland, for strengthening their worldwide sales and support. SPECS-TII GmbH thenestablished local firms in China, Russia and the United States for sales and support in those areas. UNISOKU and
SPECS-TII aim to provide further reassurance and service for our customers using our global network.
ユニソクは2010年に株式会社東京インスツルメンツの子会社としてTIIグループに加わりました。TIIグループはドイツSPECS GmbHとともに両社の製品の販売とサポートを世界的に協力する目的で2017年にホールディングカンパニー SPECS-TII GmbHをスイスに設立しました。SPECS-TII GmbHは､販売とサービスの拠点として中国､ロシア､米国に現地法人を立ち上げました。ユニソクはSPECS-TIIのグロー
バル連携のネットワークを使い､お客様へのさらなる安心とサービスの提供を目指してまいります。
01

COMPANY PROFILE

会社概要

TRADE NAME（商号） UNISOKU CO., LTD.（株式会社ユニソク）
CEO（代表取締役社長） Yutaka Miyatake（宮武 優）

FOUNDATION（設立） NOV. 1974（昭和 49 年 11 月）
LOCATION（所在地）2-4-3 Kasugano, Hirakata, Osaka, Japan（大阪府枚方市春日野 2 丁目 4 番 3 号）

CAPITAL（資本金）

50,000,000 JPY（5,000 万円）

BUSINESS（事業）Manufacturing and sales of our own UHV LT SPMs and Optical spectroscopy systems, research and development

MEMBERS（社員数）

49（49 名）( 走査型プローブ顕微鏡、高速分光装置製造販売「研究開発分野」にて事業 )02Events in
1月
JAN

Product Development News in 2020

2020

UNISOKU STM was introduced in “Doraemon Science World @ Future Life”.

ユニソクSTM装置が、小学館発行「ドラえもん科学ワールド 未来のくらし」に掲載

Highly Hydrogen-Sensitive Thermal Desorption Spectroscopy (TDS) System

UNISOKU received the 1st order of Liquid-He-Free UHV LT SPM system (End-user: Shanghai
Jiao Tong University, China).
無冷媒低温SPMをはじめて受注（エンドユーザー：中国・上海交通大学）

2月
FEB

2nd fluorescence lifetime option for picoTAS was delivered to Osaka University.

3月
MAR

The RIPT method development in JST-SENTAN program received an S grade (the highest evaluation).

picoTAS用蛍光寿命オプション2台納品

46期2/2台目 (阪大)1月
JAN

UNISOKU delivered Room Temperature THz-SNOM system to Fudan University (through TII).
UNISOKU started teleworking for the first time due to COVID-19.

コロナウィルス感染防止対策で初めてテレワークを導入

Arbitrary heating rate between
10-100℃/min for 150-1000℃
This work was in collaboration
with Prof. Hosono’s group (Tokyo Institute of Technology)
and supported by Ichimura Foundation for New Technology.

Tandem turbo-molecular pump

復旦大学(TII経由)常温THz-SNOMシステムを出荷

4月
APR

Load-lock chamber

Pyrometer

JST先端計測(RIPT法開発)でS評価獲得

1月
JAN

Cryogen-Free STM (USM1800)

無冷媒STM

STM image of HOPG

Our own helium liquefier system started operation.

dI/dV of Pb with Pb tip

社内ヘリウム液化装置稼働開始

6月
JUN

TSP2000 as the first optical system in China was delivered (Fudan University).

9月
SEP

UNISOKU attended the 81st JSAP Autumn Meeting 2020 (online).

・Base temperature below Tsample = 5 K
・Low vibration noise level realizedby our original design

中国には初めての分光システム納入となるTSP2000を出荷（復旦大学）

第81回応用物理学会秋季学術講演会 付設展示会（オンライン開催）

UNISOKU attended the Japanese Photochemistry Association 2020 (online).
2020年web光化学討論会（オンライン開催）

UNISOKU attended the 70th Japan Society of Coordination Chemistry (JSCC) online conference.
錯体化学会第70回討論会（オンライン開催）

UHV Kelvin Probe/Photoemission Spectroscopy SystemeUV light source

President Yutaka Miyatake gave an invited talk, “Development of domestically-produced extreme
environmental STM/AFM systems” at Nanoprobe Technology 167 committee (online).

10月
OCT

The 1st scanning microwave impedance microscope (sMIM) jointly developed with PrimeNano
was delivered.

11月
NOV

The Japan Society of Vacuum and Surface Science academic seminar/digital exhibition (online)
President Yutaka Miyatake delivered a lecture. “Developments of Low Temperature STM andsurrounding technologies”.

米国プライムナノ社と共同開発した走査マイクロ波インピーダンス顕微鏡1号機出荷

Raman Spectroscopy System for Thin Films Under Various Environmental Conditions

Where to deliver :Japan Atomic Energy Agency

Dr. Terasawa Tomo-oApplications
・Thin films grown by CVD/MBE
・Variable temperature measurements
・Surface-adsorbed molecules at low temperatures

Hall Effect Measurement System for the Autonomous Synthesis System

新入社員紹介New members have joined UNISOKU in 2020-21.

DesignDivision

生産課

設計課

ホール効果測定装置システム

Designed for automatic Hall effect measurements
and sample transfer by a robot arm

2020-21年 新しいメンバーが加わりました。

Production
Division

環境制御型 薄膜ラマン分光システム

Combination with Nanofinder® by Tokyo Instruments, Inc.
・Sample transfer & exchange in UHV conditions
・Raman spectroscopy measurements under gaseous/heating
environments

28th International Colloquium on Scanning Probe Microscopy (ICSPM28) (online)
Takehiro Ozawa of sales department gave a presentation about UNISOKU.

New Faces

・Kelvin probe by KP Technology Ltd.
・Sample transfer & exchange in UHV conditions
・Variable sample temperature

Tokyo Instruments, Inc.

2020年日本表面真空学会 学術講演会 併設デジタル展示会（オンライン開催） ※新企画 実用新技術セミナーのプログラム内で弊社代表 宮武 優が講演を行う。表題：「低温STMと周辺技術に関する開発の紹介」

第28回走査型プローブ顕微鏡に関する国際コロキュウム(ICSPM28)・第34回 特別研究会「走査型プローブ顕微鏡」（オンライン開催） ※弊社営業部の小澤太健展が企業発表行う。

超高真空ケルビンプローブ・光電子分光システム

Applications
In-situ work function & surface potential
measurements for thin films and cleansurfaces prepared in vacuum
Distributor :ナノプローブテクノロジー第167委員会（オンライン開催）にて弊社代表 宮武 優が「国産極限環境STM/AFMの開発」を講演

12月
DEC

高感度水素TDS(昇温脱離ガス分析法)システム~103 higher sensitivity to hydrogenthan other commercial TDS systems

Optical fiber for laser

Measurement
chamber
Quadrupole mass
spectrometer

2020年
製品開発
ニュース

This work was in collaboration
with Prof. Hitosugi’s group (Tokyo Institute of Technology)
and MI-6 Ltd. as a part of their NEDO project.
Scanning Noise Microscope (SNoiM)

03

We decided to hire him as a full-time employee from a contractual
worker because we recognize his sincere attitude and speed tolearn a new job. We expect him to have more experience inproduction and contribute to the production of high quality systems.

His experience in mechanical design is attractive for us. We
expect him to understand mechanical structures of UNISOKU
products and become a designer who can propose appropriate
designs to our customers in the future.

半年間の派遣会社からの就業を通し、仕事に真摯に取り組む姿勢と習得の早さを評価して採用しました。生産・組立の経験を積み、質の高い製品を作り上げることを期待しています。

機械機器の設計の経験に魅力を感じ、採用しました。
まずはユニソクの製品の機構を理解し経験を重ね、ユーザーの希望の機能を発現する適切な構造を提案できるような設計者になることを期待しています。

GaAs nano-device
SEM image

Electron temperature mapping-6 V

electrons

Te(K)Real-space imaging of electron temperature
with nanometer-scale spatial resolution
Q. Weng et al. Science 360, 775 (2018).

300 nmelectrons+8 V

This work is in collaboration
with Dr.s Weng and Komiyama (Kim group in RIKEN).

04

Introduction of
Products / Users / Publications
製品・ユーザー・論文の紹介

USM1400

超高真空低温走査型プローブ顕微鏡システム

Ultra High Vacuum Low Temperature SPM System

Ideal system for combining SPM with optical options
and extending to a multi-probe platform
Application fields:graphene, tip-enhanced Raman
spectroscopy, scanning tunnelingpotentiometry, etc.

Publication Stats in 2020
Total number of publications using UNISOKU systems* = 246 (240 in 2019)
Total impact factors ~ 1898 (1720 in 2019)
Corresponding to 44 Nature papers (40 in 2019)
The detailed information about the publication
Impact factor per employee ~ 40 (~36 in 2019)list is available on our website.
Approaching to the impact factor of Nature (~43)*including preprints

USM1400 Publication List in 2020 (Selected)

論文リスト“Sub-Nanometre Resolution in Single-Molecule Photoluminescence Imaging”
B. Yang et al., Nat. Photonics 14, 693 (2020).
“Reversible Superconductor–Insulator Transition in (Li, Fe)OHFeSe Flakes Visualized by Gate-Tunable Scanning Tunneling Spectroscopy”
R. Yin et al., ACS Nano 14, 7513 (2020).

Popular Research Fields

Num. of
Publications

Average
Impact Factor

Molecules

32

7.97

Topological Materials (Majorana)

31

15.77

Graphene (Twisted Bi-layer Graphene)

25

8.48

Transition Metal Dichalcogenides (TMDs)

21

10.69

Low Dimensional Structures (Nanowire,
Low Dimensional Superconductivity, etc)

21

7.28

“Tunable Lattice Reconstruction, Triangular Network of Chiral One-Dimensional States, and Bandwidth of Flat Bands in Magic Angle Twisted
Bilayer Graphene”
Y. Liu et al., Phys. Rev. Lett. 125, 236102 (2020).

RIPT Transient Absorption

13

8.17

“The Structure and Mechanism of Large-Scale Indium-Intercalated Graphene Transferred from SiC Buffer Layer”
T. Hu et al., Carbon 171, 829 (2021).

Monatomic Films excluding TMDs

10

10.18

Fe-based Superconductors (FeSe/STO)

9

12.50

USM1200

超高真空低温走査型プローブ顕微鏡システム“Experimental Realization of Two-Dimensional Buckled Lieb Lattice”
H. Feng et al., Nano Lett. 20, 2537 (2020).
“Dramatic Enhancement of Tip-Enhanced Raman Scattering Mediated by Atomic Point Contact Formation”
S. Liu et al., Nano. Lett. 20, 5879 (2020).
“Interfacial Superconductivity in FeSe Ultrathin Films on SrTiO3 Probed by In Situ Independently Driven Four-Point-Probe Measurements”
A. K. Pedersen et al., Phys. Rev. Lett. 124, 227002 (2020).

“Phase-Resolved Detection of Ultrabroadband THz Pulses Inside a Scanning Tunneling Microscope Junction”
M. Muller et al., ACS Photonics 7, 2046 (2020).
“Tunable Magnetism of a Single-Carbon Vacancy in Graphene”
Y. Zhang et al., Sci. Bull. 65, 194 (2020).
“Anisotropic Gapping of Topological Weyl Rings in the Charge-Density-Wave Superconductor InxTaSe2”
Y. Li et al., Sci. Bull. DOI: 10.1016/j.scib.2020.09.007

Ultra High Vacuum Low Temperature SPM System

Solution for long-term measurements with low cost cryogen
Application fields: molecules, transition metal dichalcogenides,

low-dimensional structures

USM1200 Publication List in 2020 (Selected)

論文リスト“Reconfigurable Photo-Induced Doping of Two-Dimensional Van Der Waals Semiconductors Using
Different Photon Energies”
S. Seo et al. Nat. Electron. 4, 38 (2021).
“Synthesis of Monolayer Blue Phosphorus Enabled by Silicon Intercalation”
J. L. Zhang et al., ACS Nano 14, 3687 (2020).
“Steering Effect of Bromine on Intermolecular Dehydrogenation Coupling of Poly(p-phenylene) on Cu(111)”
Y. Lin et al., ACS Nano 14, 17134 (2020).

“Sub-Nanometre Resolution in Single-Molecule Photoluminescence Imaging”
B. Yang et al., Nat. Photonics, 14, 693 (2020). Product used: USM1400
Sub-nanometer resolution imaging with scanning near-field optical microscopy (SNOM) has long been a challenge.
Yang et al. (Dong group, Univ. of Science and Technology of China) demonstrated spatially and spectrally resolved photoluminescence imaging of a single zinc phthalocyanine (ZnPc) molecule with a spatial resolution down to 0.8 nm. The unprecedented
spatial resolution was achieved by (1) a strongly localized-and-enhanced plasmon field using a Ag tip with an atomistic
protrusion on the apex, (2) a three-monolayer-thick NaCl dielectric spacer to electronically decouple the ZnPc molecule from aplasmonic substrate Ag(100), and (3) the precise control of the tip-sample tunneling junction with sub-nanometer scale. They
revealed intriguing photophysics of molecular fluorescence enhancement and quenching, and subtle plasmon-molecule interactions at the sub-molecular level, providing a new way for optical imaging, spectroscopy and engineering of light-matterinteractions at the sub-nanometer level.
(a)

(b)

(c)

“Orbital-Selective Dirac Fermions and Extremely Flat Bands in Frustrated Kagome-Lattice Metal CoSn”
Z. Liu et al., Nat. Commun. 11, 4002 (2020).
“On-surface Synthesis of Nitrogen Substituted Gold-Phosphorus Porous Network”
J. Zhang et al., Chem. Mater. 32, 8561 (2020).
“Molecular-Scale Investigation of the Thermal and Chemical Stability of Monolayer PTCDA on Cu(111) and Cu(110)”
C. Gu et al., ACS Appl. Mater. Interfaces 12, 22327 (2020).
“Single-Molecule Imaging of Dinitrogen Molecule Adsorption on Individual Iron Phthalocyanine”
C. Gu et al., Nano Res. 13, 2393 (2020).

05“Realization of a Buckled Antimonene Monolayer on Ag(111) via Surface Engineering”
S. Sun et al. J. Phys. Chem. Lett. 11, 8976 (2020).

(a) Experimental set-up.
(b) Tip-enhanced photoluminescence image of a single ZnPc molecule on NaCl/Ag(100).
(c) Line-profile along AB in (b), showing the spatial resolution of 0.8 nm.
06

USM1300

USM1300 Publication List in 2020 (Selected)

超高真空極低温強磁場中走査型トンネル顕微鏡システム

論文リスト“Precise Tuning of Band Structures and Electron Correlations by van der Waals Stacking of One-Dimensional W₆Te₆ Wires”
J. Deng et al., Nano Lett. 20, 8866 (2020).

Ultra High Vacuum Very Low Temperature High Magnetic Field SPM System

Best-selling very low temperature SPM system“Mottness Versus Unit-Cell Doubling as the Driver of the Insulating State in 1T-TaS₂”
C. J. Butler et al., Nat. Commun. 11, 2477 (2020).

Application fields: topological matters (Majorana),“Molecular Molds for Regularizing Kondo States at Atom/Metal Interfaces”
X. Li et al., Nat. Commun. 11, 2566 (2020).

twisted bi-layer graphene,monolayer superconductors etc.

USM1300 Publication List in 2020 (Selected)“Fermion-Boson Many-Body Interplay in a Frustrated Kagome Paramagnet”
J. Yin et al., Nat. Commun. 11, 4003 (2020).
“Spin-Orbit Quantum Impurity in a Topological Magnet”
J. Yin et al., Nat. Commun. 11, 4415 (2020).

論文リスト“Long-Range Focusing of Magnetic Bound States in Superconducting Lanthanum”
H. Kim et al., Nat. Commun. 11, 4573 (2020).

“Chiral Superconductivity in Heavy-Fermion Metal UTe₂”
L. Jiao et al., Nature 579, 523 (2020).

“Imaging the Coupling Between Itinerant Electrons and Localised Moments in the Centrosymmetric Skyrmion Magnet GdRu₂Si₂”
Y. Yasui et al., Nat. Commun. 11, 5925 (2020).

“Quantum-Limit Chern Topological Magnetism in TbMn₆Sn₆”
J. Yin et al., Nature 583, 533 (2020).

“Single Particle Tunneling Spectrum of Superconducting Nd₁-xSrxNiO₂ Thin Films”
Q. Gu et al., Nat. Commun. 11, 6027 (2020).

“Topological Superconductivity in a Van Der Waals Heterostructure”
S. Kezilebieke et al., Nature 588, 424 (2020).

“A New Majorana Platform in an Fe-As Bilayer Superconductor”
W. Liu et al., Nat. Commun. 11, 5688 (2020).

“Evidence for Dispersing 1D Majorana Channels in an Iron-Based superconductor”
Z. Wang et al., Science 367, 104 (2020).
“Nearly Quantized Conductance Plateau of Vortex Zero Mode in an Iron-Based Superconductor”
S. Zhu et al., Science 367, 189 (2020).
“Visualizing Coexisting Surface States in the Weak and Crystalline Topological Insulator Bi₂TeI”
N. Avraham et al., Nat. Mater. 19, 610 (2020).

“Atomically Thin Superconductors”
Z. Li et al., Small DOI: 10.1002/smll.201904788“Valley Polarization and Inversion in Strained Graphene via Pseudo-Landau Levels, Valley Splitting of Real Landau Levels, and Confined States”
S. Li et al., Phys. Rev. Lett. 124, 106802 (2020).
“Movable Valley Switch Driven by Berry Phase in Bilayer-Graphene Resonators”
Y. Liu et al., Phys. Rev. Lett. 124, 166801 (2020).

“Topological Frustration Induces Unconventional Magnetism in a Nanographene”
S. Mishra et al., Nat. Nanotechnol. 15, 22 (2020).
“Superhigh Uniform Magnetic Cr Substitution in a 2D Mo2C Superconductor for a Macroscopic-Scale Kondo Effect ”
C. Xu et al., Adv. Mater. DOI: 10.1002/adma.202002825“Many-Body Resonance in a Correlated Topological Kagome Antiferromagnet”
S. Zhang et al., Phys. Rev. Lett. 125, 046401 (2020).

“Epitaxial Growth of Single-Phase 1T'-WSe2 Monolayer with Assistance of Enhanced Interface Interaction”
W. Chen et al. Adv. Mater. DOI: 10.1002/adma.202004930“Strain Tunable Semimetal–Topological-Insulator Transition in Monolayer 1T′−WTe₂”
C. Zhao et al., Phys. Rev. Lett. 125, 046801 (2020).

“Interfacial Hydrogen-Bonding Dynamics in Surface-Facilitated Dehydrogenation of Water on TiO₂(110)”
S. Tan et al., J. Am. Chem. Soc. 142, 826 (2020).

“Direct Visualization of Ambipolar Mott Transition in Cuprate CuO₂ Planes”
Y. Zhong et al., Phys. Rev. Lett. 125, 077002 (2020).

“Proximity-Induced Superconductivity in Monolayer MoS₂”
D. J. Trainer et al., ACS Nano 14, 2718 (2020).
“Direct Observation of One-Dimensional Peierls-type Charge Density Wave in Twin Boundaries of Monolayer MoTe₂”
L. Wang et al., ACS Nano 14, 8299 (2020).
“An Anomalous Magneto-Optic Effect in Epitaxial Indium Selenide Layers”
W. Fu et al., Nano Lett. 20, 5330 (2020).

“Nearly Quantized Conductance Plateau of Vortex Zero Mode in an Iron-Based Superconductor”
S. Zhu, L. Kong, L. Cao, H. Chen et al., Science 367, 189 (2020). Product used: USM1300
The search for topological superconductors has been recently one of central issues in the condensed matter physics. In a vortex
core of the topological superconductor, Majorana bound states are predicted to exist at zero energy and obey Non-Abelian
statistics, offering potential applications in topological quantum computation. However, experimental demonstrations haveremained challenging. Zhu et al. (Gao group, Chinese Academy of Sciences) performed variable-tunnel-coupled STS measurements at Teff = 377 mK on vortex cores in FeTe0.55Se0.45, a strong candidate for the topological superconductor. They observed
nearly quantized conductance plateaus as a function of tunnel coupling for zero-energy bound states, whereas no plateaus wereobserved on finite energy bound states originating from conventional quasipartcles. The plateau behavior of the zero-bias conductance is theoretically supported as spectroscopic evidence for the existence of Majorana bound states. Their study moves one
step further toward the braiding operation in topological quantum computation.
(b)“Multiple In-Gap States Induced by Topological Surface States in the Superconducting Topological Crystalline Insulator Heterostructure Sn₁−xPbxTe−Pb”
H. Yang et al., Phys. Rev. Lett. 125, 136802 (2020).
“Superconductivity in a Hole-Doped Mott-Insulating Triangular Adatom Layer on a Silicon Surface”
X. Wu et al., Phys. Rev. Lett. 125, 117001 (2020).
“Observation of Discrete Conventional Caroli–de Gennes–Matricon States in the Vortex Core of Single-Layer FeSe/SrTiO3”
C. Chen et al. Phys. Rev. Lett. 124, 097001 (2020).

“Relativistic Artificial Molecules Realized by Two Coupled Graphene Quantum Dots”
Z. Fu et al., Nano Lett. 20, 6738 (2020).

(a)“Local Berry Phase Signatures of Bilayer Graphene in Intervalley Quantum Interference”
Y. Zhang et al., Phys. Rev. Lett. 125, 116804 (2020).

(c)“Chiral Superconductivity in Heavy Fermion Metal UTe2”
L. Jiao et al., Nature 579, 523 (2020). Product used: USM1300
Spin triplet superconductors consisting of electron pairs with spin 1 and an odd-parity wavefunction are topologically
nontrivial and expected to provide an ideal platform for realizing Majorana edge states but extremely rare in solid statesystems. Jiao et al. (Vidya Madhavan group, University of Illinois) performed STM measurements on the recently
discovered heavy fermion superconductor UTe2 (Tc = 1.6 K) and found clear signatures of competing Kondo effect andsuperconductivity within one unit cell. They also revealed ‘chiral’ in-gap states at step edges, which are theoretically predicted to exist at the boundaries of topological superconductors. Their result suggests that UTe2 is a strong candidate for chiraltriplet topological superconductivity.
(a) STM image of UTe2.
(b,c) dI/dV spectra taken at the location denoted in (a),showing the Kondo resonance and the superconducting
gap, respectively.
(d) STM image of UTe2 with a terrace.
(e) dI/dV spectra measured at the step edge marked bydots in (d), showing the chiral in-gap states.

(a) A variable tunnel coupling STM/STS for a vortex core of FeTe0.55Se0.45.
(b) dI/dV spectra taken at the vortex core as a function of the tunnel coupling (Teff = 377 mK).
(c) (top) A color-scale plot of (b). (middle) Line-cut at V = 0 meV, showing a conductance plateau.
(bottom) Line-cuts at high V values, showing the absence of the conductance plateau.
07

08

USM1500

超高真空低温強磁場中走査型プローブ顕微鏡システム

Ultra High Vacuum / Low Temperature / High Magnetic Field SPM System

Compact cryogenic high magnetic field SPM system
Application fields: monolayer films, topological matters,

transition metal dichalcogenides etc.

USM1600

希釈冷凍方式超高真空超低温強磁場中走査型トンネル顕微鏡システム

Dilution-Refrigerator Based UHV/Ultra Low Temperature/High Magnetic Field STM System

Electron temperature ~110mKApplication fields: topological matters (Majorana), etc.

USM1600 Publication List in 2020 (Selected)

論文リスト“Robust Hot Electron and Multiple Topological Insulator States in PtBi2”
X. Nie et al., ACS Nano 14, 2366 (2020).

USM1500 Publication List in 2020 (Selected)

論文リスト“Packing Sierpiński Triangles Into Two-Dimensional Crystals”
Y. Zhang et al., J. Am. Chem. Soc. 142, 17928 (2020).
“Te-Vacancy Induced Surface Collapse and Reconstruction in Antiferromagnetic Topological Insulator MnBi₂Te₄”
F. Hou et al., ACS Nano 14, 11262 (2020).
“Kinetics-Limited Two-Step Growth of Van Der Waals Puckered Honeycomb Sb Monolayer”
Z. Shi et al., ACS Nano 14, 16755 (2020).

"A Tunable and Unidirectional One-Dimensional Electronic System Nb2n+1SinTe4n+2"
Z. Zhu et al., npj Quantum. Mater. 5, 35 (2020).

JT-SPM

ジュールトムソン方式超高真空極低温磁場中走査型プローブ顕微鏡システム

Joule-Thomson Ultra High Vacuum Very Low Temperature High Magnetic Field SPM System“Charge Density Modulation and the Luttinger Liquid State in MoSe2 Mirror Twin Boundaries”
Y. Xia et al., ACS Nano DOI: 10.1021/acsnano.0c05397

Low temperature/high magnetic field SPM with optical accessTechnology taken over from SPECS. GmbH and improved and integrated with USM1200 series“Distinct Topological Surface States on the Two Terminations of MnBi₄Te₇”
X. Wu et al., Phys. Rev. X 10, 031013 (2020).

Application fields: molecules, graphene, etc.

“Atomic-Scale Observation of Topological Vortices in the Incommensurate Charge Density Wave of 2H-TaSe₂”
S. Lim et al., Nano Lett. 20, 4801 (2020).

JT-SPM Publication List in 2020 (Selected)

論文リスト“Tuning the Electronic Structure of an α-Antimonene Monolayer Through Interface Engineering”
Z. Shi et al., Nano Lett. 20, 8408 (2020).

“Resolving Quinoid Structure in Poly-Para-Phenylene Chains”
B. Yuan et al., J. Am. Chem. Soc. 142, 10034 (2020).

“Direct Observation of Full-Gap Superconductivity and Pseudogap in Two-Dimensional Fullerides”
M. Ren et al., Phys. Rev. Lett. 124, 187001 (2020).

"Precise Control of π-Electron Magnetism in Metal-Free Porphyrins"
Y. Zhao et al., J. Am. Chem. Soc. 142, 18532 (2020).

“Reversible Potassium Intercalation in Blue Phosphorene–Au Network Driven by an Electric Field”
Y. Liu et al., J. Phys. Chem. Lett. 11, 5584 (2020).
“Heterostructures of Tellurium on NbSe2 from Sub-Monolayer to Few-Layer Films”
J. Xian et al., Nanoscale 12, 1994 (2020).

“Packing Sierpiński Triangles into Two-Dimensional Crystals”
Y. Zhang et al., J. Am. Chem. Soc. 142, 17928 (2020). Product used: USM1500
Two-dimensional (2D) fractal patterns such as the Sierpiński triangles (STs) are theoretically predicted to exhibit intriguing
optical and electronic properties due to their aperiodic but ordered structures. However, realizing large-scale 2D crystals hasremained challenging. Zhang et al. (Yongfeng Wang group, Peking Univ.) succeeded in constructing a series of 2D packed
crystals of STs consisting of 1,3-bis (4-pyridyl) benzene (BPyB) molecules and Fe atoms on Au surfaces. Their STM characterization combined with theoretical calculations suggests that molecular free diffusion and structure matching between STs and Au
play important roles in the construction of 2D crystal of STs.

(a) The ST unit consisting of three BPyB and one Fe atom. (b) STM image of a typical ST on Au(111).
(c-e) Large-scale STM image of 2D crystals of STs. The coverage is 1, 0.65 and 0.57 monolayer, respectively.
(f-h) Close-up STM image of (c-e), respectively.
09“Localized Spin-Orbit Polaron in Magnetic Weyl Semimetal Co3Sn2S2”
Y. Xing et al., Nat. Commun. 11, 5613 (2020).

“Atomically Precise Synthesis and Characterization of Heptauthrene with Triplet Ground State”
X. Su et al., ACS Nano 20, 6859 (2020).
"Designer Spin Order in Diradical Nanographenes"
Y. Zheng et al., Nat. Commun. 11, 6076 (2020).
“Engineering of Magnetic Coupling in Nanographene”
Y. Zheng et al., Phys. Rev. Lett. 124, 147206 (2020).

“Precise Control of π-Electron Magnetism in Metal-Free Porphyrins”
Y. Zhao, K. Jiang et al., J. Am. Chem. Soc. 43, 18532 (2020). Product used: JT-SPM
Porphyrin is one of the most fundamental building blocks for functional molecular systems. The magnetism of localized spinsin the center of the porphyrin has long been studied, but realizing delocalized spins in the porphyrin, which offer potentials forbuilding correlated quantum spins, has remained elusive. Zhao et al. (Wang, Zhuang, Jia group, Shanghai Jiao Tong Univ.)
revealed that metal-free porphyrins adsorbed on Au(111) host delocalized singlet π-electron spins using STM/AFM andtheoretical calculations. The delocalized magnetism was precisely controlled by tailoring peripheral π-electron topology inmetal-free porphyrins and reversely switched on/off
via STM manipulation by tuning the interfacial
charge transfer between the porphyrin and Au
substrate. Their study provides an effective way toengineer π-magnetism induced by porphyrins,
implying potential applications for organic-molecules-based quantum information and spintronics.

Magnetism switching experiment by STM manipulation.
(a-c) From left to right: chemical structure, nc-AFM image
with a CO tip, constant-height STM image. (d) dI/dV spectra
taken at the marked location in STM images.
10picoTAS“Effect of Deuteration on Relaxation Dynamics of the Perylene Excimer
Studied by Subnanosecond Transient Absorption Spectroscopy”
Y. Shibasaki, R. Katoh et al., J. Phys. Chem. A 125, 1359 (2021). Product used: picoTAS

ピコ秒過渡吸収分光システム

Picosecond Transient Absorption Spectroscopy System

Prof. Katoh’s group in Nihon University found that the deuterated perylene excimer in solution had a

Original New Functions

longer lifetime than the undeuterated excimer. They studied the effect of deuteration on the relaxation

 TCSPC fluorescence lifetime
 Digital response capability New
 One-stroke scanner for thin film New
 Pseudo-CW performance enhanced

dynamics of the excimer of perylene in solution using subnanosecond time-resolved transientabsorption spectroscopy based on the randomly interleaved pulse-train (RIPT)

Scanner software isincorporated in picoTAS

method, and they concluded that the rate of internal conversion was suppressedby deuteration. Such a fundamental finding has been
overlooked because it had been difficult to performsystematic study for phenomena lying in nanosecond
region by conventional techniques. Prof. Katohsays, “This is actually a modest job.
However, I believe that this is an important dataand it would appear in textbooks in the future.”

TCSPC option

Digital response makes it easier to detect signal!

Demo Room for Optical Instruments Launched!

We Welcome Your Visit for Experiments

picoTAS+TCSPCTSP2000-HS

TSP2000-HS

レーザーフラッシュフォトリシス装置

Conventional UV/VIS/NIR Flash Photolysis System

CoolSpeK+
Upcycled HP 8453

分光製品デモルームを新たに設置し、 来客実験対応を強化しました

CoolSpeK UV/CD/IR

分光用クライオスタ ット

Cryostat for Spectrophotometer USP-203 Ser ies（OLIS, inc.）

Helios-FIRE

 Total number of shipments of

CoolSpeK since released > 450

Wide input voltage available now.

No transformer required New

 Newly compatible with

Cary 100 / 300 / Eclipse (Agilent Tech.),Spectrum Two (PerkinElmer)
UH5700 (Hitachi)

Normal ModeHigh Sens. Mode11

 Fully automated hands free design Microscope extension now available
 Broad probe spectral range, 320 - 2400 nm

CPL Solo

We started to handle OLIS, Inc. (USA) products New

 Filtered LED sources Gated photon counting detector
 No need for G-factor corrections
 NIR model is now available

Significant improvement of sensitivity!

 Digital response capability New
 Complete removal of Q-SW noise by pump-shutter New
 High sensitivity achived by 5 Hz shutter,12 bit oscilloscope and chopping mode New

Brand-new products by Ultrafast Systems,
Helios/Eos-Fire installed in one
of JapaneseInstitutes.
(Jan. 2021)

Upcycled HP8453 by OLIS Inc.
for CoolSpek is now available from us.

Small, affordable, and fully digital circularly polarized luminescence12

Ying-Shuang FuPeter Liljeroth

Huazhong Universityof Science and Technology, China

Aalto University, Finland
Research Interests

Research Interests• Low-temperature scanning tunneling microscopy
and spectroscopy• Atomic force microscopy• Two-dimensional materials,
metal-organic frameworks• On-surface synthesis• Artificial lattices• Designer quantum materials

・Molecular beam epitaxy growth of low dimensional materials
・Electronic properties of topological states of matter・Electronic properties of correlated states
in low dimensional systems
・Spin-resolved spectroscopic imaging
of magnetism in low dimensions

USM1300

USM1500

USM1200

Artificial Atomic Lattices

Topological Superconductivity in Van
Der Waals Heterostructures

Examples of Artificial Lattices Constructed
Using Chlorine Vacancies on Cu(100).

Topological Superconductivity in CrBr3-NbSe2
Heterostructures.

(a) topography(b) topography(c)(a) CrBr3

LDOS

NbSe2

0.4K-12T STM

2K-8T STM/AFM

Phason-Polaron Spectrum of Pure One-Dimensional
Charge Density Wave in a Single Mo6Se6 Nanowire

5K STM

Spin Resolved Intrinsic Antiferromagnetic
Order in a Van Der Waals Monolayer Crystal

Sample bias (V)

(b)

CrBr3

NbSe2

(c)

LDOS dispersive band

LDOS flat band(a) STM topography, LDOS map and spatially resolved dI/dV
spectroscopy on a dimer chain with two domain walls hosting
topological mid-gap states. (b) STM topography (top) and thedispersive and flat band LDOS maps of a 1D cross chain.
(c) Topography and LDOS maps of a Lieb lattice structureassembled from Cl vacancies.

X. Yang, et al. Phys. Rev. X, 10, 031061 (2020)

Electronic States of Bi Ultrathin Films
Modulated by a NbSe2 Substrate

topography

Topological States in Engineered Atomic Lattices,
R. Drost et al. Nat. Phys. 13, 668 (2017).
Tuneable Topological Domain Wall States in Engineered Atomic
Chains, Md N. Huda et al. npj Quant. Mater. 5, 17 (2020).
Designer Flat Bands in Quasi-One-Dimensional Atomic Lattices,
Md N. Huda et al. Phys. Rev. Res. 2, 043426 (2020).

Topological Edge State Residing at
Step Edge of WTe2

T = 350 mK(a) Schematic of the heterostructure. (b) STM topography and dI/dV
spectroscopy showing the presence of edge modes at the edges of the
CrBr3 monolayer. (c) Spatially resolved spectroscopy and LDOS maps of the
Majorana zero modes.
Topological Superconductivity in a Van Der Waals Heterostructure,
S. Kezilebieke et al. Nature 588, 424 (2020).
Moiré-Enabled Topological Superconductivity,
S. Kezilebieke et al. arXiv:2011.09760.

Yu-Shiba-Rusinov States and Spin-Flip Excitations in Molecular Systems
(a)

(b)
MnPc

13

L. Peng, et al., ACS Nano 13, 1885 (2019).

L. Peng, et al., Nat. Commun. 8, 659 (2017).

CoPc

(c)

(a),(b) STM topography and dI/dV spectroscopy of MnPc and CoPc molecules.
(c) Tunneling conductance as a function of the exchange coupling ρJ showing

the co-existence of YSR states and spin-flip excitations.

Coupled Yu-Shiba-Rusinov States in Molecular Dimers on NbSe2,
S. Kezilebieke et al. Nano Lett. 18, 2311 (2018).
Observation of Coexistence of YSR States and Spin-Flip Excitations,
S. Kezilebieke et al. Nano Lett. 19, 4614 (2019).
14

Toru Hirahara

Yi DuTokyo Institute of Technology,
Japan

Australian Institute for Innovative
Materials (AIIM)The University of Wollongong,
Australia

Research Interests

Research Interests

Interfacial Superconductivity in FeSe Ultrathin Films on SrTiO3 Probed by In Situ Independently
Driven Four-Point-Probe Measurements
A. Pedersen et al., Phys. Rev. Lett. 124, 227002 (2020).

STM Facilities in the Team・Scanning tunneling microscopy
・2D Xenes materials (silicene, germanene, stanene andblue phosphorene) and 2D frustrated lattice systems
・MBE growth of 2D device structures (photodetectors,
sodium ion batteries, etc.)

・Novel atomically thin 2D systems
・High-temperature superconductivity: FeSe/STO
・Magnetic topological insulators

USM1400

(a)

(b)

(c)

(d)

Realization of Flat Band with Possible Nontrivial Topology in Electronic Kagome Lattice
(a)

(b)

(c)

(a) STM image of the Kagome lattice on a twisted
multilayered silicene on the Ag(111) substrate.
(b,c) STS image simultaneously obtained with (a)at the flat-band energy, showing the Kagome pattern
and at the edge state energy, respectively.

Photograph of the USM1400 system(a) Photograph of the four probes. (b) Probe spacing dependence measurements to determine the conductivity dimension.
(c) Temperature dependence of the measured resistance for films with different thicknesses.
(d) Same as (c) but shown in normalized resistance to show the universal feature of the superconductivity onset at 40 K.

Superconductivity of Single Unit Cell FeSe/SrTiO3(001): Substrate-Surface Superstructure Dependence

T. Tanaka et al., Phys. Rev. B 98, 121410(R) (2018).

Superconducting Dome Revealed by Surface Structure Dependence in Single Unit Cell FeSe on SrTiO3(001)

USM1500(a) FeSe/√2×√2(b) FeSe/2×1

Z. Li et al., Sci. Adv. 4, eaau4511 (2018).

Experimental Realization of Two-Dimensional Buckled Lieb Lattice
(a)

(b)

(c)
(a) Atomic resolution STM image of
0.5 ML Sn on Al(100).
(b) Model structure of buckled Lieb latticecomprising Sn in a √2 ×√2 superstructure
and the topmost Al atoms of the Al(100)substrate.
(c) 3D band structure of the buckled Lieb
lattice, possessing a broken nodal line loop.

T. Tanaka et al., Phys. Rev. B 101, 205421 (2020).

H. Feng, et al., Nano Lett. 20, 2537 (2020).
2(nm)-12(nm)-1(c) FeSe/c(6×2)A(d) FeSe/c(6×2)B

Realization of Strained Stanene by Interface Engineering(a)Photograph of the USM1500 systemwith the load lock, sample preparation,and measurement chambers
152(nm)-1(b)(a) STM image of 1 ML Sn-deposited surface
on the Au(111) substrate, showing a √3×√7
superstructure.
(b,c) dI/dV spectra and in-situ Raman spectra
for the 2 ×2, √3 ×√3, and √3 ×√7 phases,
respectively.

2(nm)-1(a)-(d) Atomically resolved image of the 1UC FeSe grown on different STO surface superstructures.
(e): dI/dV spectra taken on the 1UC FeSe grown on different STO surface superstructures.
(f) Same as (e) but those obtained near the Fermi level showing the superconducting gap.

(c)Y.Liu et al., J. Phys. Chem. Lett. 10, 7, 1558 (2019).

16

Beer in Osaka

大阪のビール※Newsletter編集部調べ＜History＞
Shozaburo Shibutani founded Shibutani Beer, the 1st beer brewery
by Japanese, in 1872. Komakichi Torii founded Osaka beer (currently
ASAHI BREWERIES, LTD.) in 1889. SUNTORY started beer business in 1963.

The place where the ﬁrst
Japanese beer was
brewed in Dojima
国産ビール発祥の地碑

渋谷庄三郎が日本最初のビール醸造所設立「渋谷ビール」販売(1872年)
鳥井駒吉大阪麦酒(現アサヒ)創業 サントリーは1963年にビール事業を開始しました。

＜Statistics＞
Production of beer in Osaka is 2nd largest in Japan.
Beer consumption per person in Osaka is 2nd largest in Japan.

大阪のビールの生産量は国内2位、ビール一人当たり消費量2位

Local Beer Report

Minoh Beer

Beer and Wine
地ビール&
ワイナリーマップ

Production is 5th largest in Japan. 出荷量は全国5位

Kuninocho Beer ・國乃長ビール

Universal
Studios
JapanTM

Where is Osaka?

❸❹

Gomeiyama Merlot

・合名山メルロ（赤 辛口）

Osaka

Minoh Beer・箕面ビール
Weizen・ヴァイツェン

飲みやすさ Drinkability ★★★★★
さわやかさ Light ★★★★★
フルーツ感 Fruity ﬂavor ★★★
苦味 Bitterness ★
ABV.5.0%, IBU:12

Pale Ale・ペールエール
飲みやすさ Drinkability ★★★
麦芽感 Maltiness ★★★
ホップ感 Hoppy ﬂavor ★★★
苦味 Bitterness ★★
ABV.5.5%, IBU:34

Stout・スタウト
飲みやすさ Drinkability ★★
コク Body ★★★
焙煎香 Roasted ﬂavor ★★★★
苦味 Bitterness ★★
ABV.5.5%, IBU:32

Osaru IPA・おさるIPA*Osaru means monkeys in Japanese.

飲みやすさ Drinkability ★★★
さわやかさ Light ★★★
ホップ感 Hoppy ﬂavor ★★★★
苦味 Bitterness ★★★
ABV.6.0%, IBU:65

Imperial Stout・インペリアルスタウト

17

コク Body ★★★★
焙煎香 Roasted ﬂavor ★★★★
甘味 Sweetness ★★
苦味 Bitterness ★★★
ABV.8.5%, IBU:60

試飲レポ

❹❸
❺

ユニソク社員有志数名にて勤務後に試飲会を開催。
大阪のビールとワインを飲み比べてみました。

Kuninocho Beer・國乃長ビール

Kura Kölsch・蔵ケルシュ

飲みやすさ Drinkability ★★★★★
さわやかさ Light ★★★★★
麦芽感 Maltiness ★★
苦味 Bitterness ★★
ABV.5.0%, IBU:25

Kura Amber・蔵アンバー
飲みやすさ Drinkability ★★★★
コク Body ★★
焙煎香 Roasted ﬂavor ★★★
麦芽感 Moltiness ★★★
ABV.5.0%, IBU:20

A Beer from
Hirakata could
be popularworldwide!

KansaiInternational
Airport⓲MARCA BREWING・MARCAブルーイング
Hazy IPA・ヘイジーIPA

B 味道像

柠檬。 吃
烤肉的时
候喝是很
不错的。

C

Well balancedwine!

D Easy to drink.
The typical impressionof the dry white wine
is overturned.

E Wait,is it coﬀee?

Katashimo Winery・カタシモワイナリー

The oldest winery in West Japan, founded by Sakujiro Takai in 1914
The wine was served at G20 Osaka Summit 2019.
高井作次郎創業 (西日本最古)

2019年G20大阪サミットで提供

Kawachi Winery・河内ワイン館

Farm/factory tours and tastings are held regularly.

Osaka Local Craft Beer・大阪府内クラフトビール

B

飲みやすさ Drinkability ★★★★★
フルーティ Fruity ﬂavor ★★★★★
辛口 Dry taste ★★
苦味 Bitterness Zero
ABV.5.0%, IBU:10

Coﬀee Amber・コーヒーアンバー E

Hirakata Ale・HIRAKATAエール A

Local Winery Report

定期的に農園・工場見学・試飲会が行われている

飲みやすさ Drinkability ★★★★
酸味 Sour ★★★★
フルーティ Fruity ﬂavor ★★★★
苦味 Bitterness Zero
ABV.5.0%, IBU:10

Lemon Weizen・レモンヴァイツェン

Hirakata Beer・枚方ビール

飲みやすさ Drinkability ★★
飲みごたえ Body ★★
ホップ感 Hoppy ﬂavor ★★★
苦味 Bitterness ★★★
ABV.5.0%, IBU:40

マスカット香 Muscatel ﬂavor★★★★
辛口 Dry taste★★★★
酸味 Sour★★
さわやかさ、新鮮味 Freshness★★★★
ABV.12.0％

Grape Sour・グレープサワー<番外>ユニソクの地元枚方発ビール

飲みやすさ Drinkability ★★★★
ホップ感 Hoppy ﬂavor ★★★
フルーティ Fruity ﬂavor ★★★
苦味 Bitterness ★★
ABV.4.7%, IBU:40

・金徳葡萄酒 ナイアガラ（白 辛口)

飲みやすさ Drinkability ★★★
コク Body ★★★
ホップ感 Hoppy ﬂavor ★★★★
苦味 Bitterness ★★★
ABV.7.0%, IBU:35

Kijo Gold・貴醸ゴールド
飲みやすさ Drinkability ★★★
さわやかさ Light ★★
日本酒風味 Sake ﬂavor ★★★
甘味 Sweetness ★★★★
ABV.5.0%, IBU:20

Kawachi Winery D
河内ワイン
Kintoku Wine Niagara⓱( 関西国際空港 )現地に行って来ました！

バランス Balance★★★★
フルーティ Fruity ﬂavor★★★
ボディ(味の濃さ) Body★★★
(Medium body)
樽香 Barrel incense★★★
ABV.13.0％❶

Tasting Report<Statistics>
Wine production in Osaka used to be No. 1 in Japan.
Wine consumption per person is 5th largest in Japan. (As of 2018)

大阪のワインは1928~1938年の16年間、日本一の生産量
ワインの一人当たりの消費量5位(2018年現在)

Katashimo Winery C
カタシモワイナリー( ユニバーサル
スタジオ
ジャパン TM)

UNISOKU

堅下村葡萄の歴史パネル

❻

⓰❺
❼❻
⓭⓮⓫❷
⓬
⓯ ❿❽
❾

The oldest craft beer in Osaka 大阪最初のクラフトビール

Kansai
Airport

近代の大阪府内で栽培されている葡萄は、
明治11年（1878年）頃、当時の大阪府育苗

Introduction of Katashimo 園から柏原市に甲州葡萄の苗が移植されたのをきっかけに明治、大正期に中河内、
grapes village
南河内地域に広がり、現在にわたって栽培されており、100年以上の古い歴史がある。

❷❶

Wine in Osaka<History>
The grapes recently produced in Osaka originate from the transplantof Koshu grapes from Osaka nursery garden to Kashiwara city in 1878.
Since then, the grape production was expanded to wide areas in thesouthern part of Osaka during the Meiji and Taisho Eras and thus has
a long history of more than 100 years.

in Osaka

現地に行って来ました！

・箕面ビール

大阪のワイン

飲みやすさ Drinkability ★★★
コク Body ★★★
コーヒー感 Coﬀee ﬂavor ★★★★★
甘味 Sweet ★
ABV.4.5%, IBU:10

Minoh city, Osaka 大阪府箕面市❶ Minoh Beer 箕面ビール
Takatsuki city, Osaka 大阪府高槻市❷ Osaka Kuninocho Beer 大阪國乃長ビール❸ 3TREE BREWERY
Ibaraki city, Osaka 大阪府茨木市❹ Kamigata Beer 上方麦酒
Higashiyodogawa ward, Osaka city 大阪府大阪市東淀川区❺ Brewpub CenterPoint
Kita ward, Osaka city 大阪府大阪市北区❻ Brewpub Têtard ValléeChuo ward, Osaka city 大阪府大阪市中央区❼ BAK BEER
Chuo ward, Osaka city 大阪府大阪市中央区❽ Dotombori Beer 道頓堀地ビール
Chuo ward, Osaka city 大阪府大阪市中央区❾ Derailleur Brew Works
Nishinari ward, Osaka city 大阪府大阪市西成区
Nishi ward, Osaka city 大阪府大阪市西区❿ MARCA BREWING⓫ ONE's BREWERY
Nishi ward, Osaka city 大阪府大阪市西区
Ikuno ward, Osaka city 大阪府大阪市生野区⓬ Arimoto Beer 有本麦酒
⓭ Ichioka brewery 市岡ビール工房 地底旅行
Minato ward, Osaka city 大阪府大阪市港区
Nishi ward, Osaka city 大阪府大阪市西区⓮ BEER BELLY
Minato ward, Osaka city 大阪府大阪市港区⓯ Tempozan Beer 天保山ビール
Kita ward, Osaka city 大阪府大阪市北区⓰ Nakatsu brewery
Sakai
Shukaku
Beer
堺収穫麦酒
Sakai city, Osaka 大阪府堺市⓱
Izumisano city, Osaka 大阪府泉佐野市⓲ KIX BEER KIX BEER 泉佐野ブルーイング

Osaka Local Winery・大阪府内ワイナリー

Kashiwara city, Osaka 大阪府柏原市❶ Katashimo Winery カタシモワイナリー
Chuo ward, Osaka city 大阪府大阪市中央区❷ Fujimaru 島之内フジマル醸造所
Habikino-city, Osaka 大阪府羽曳野市❸ Asuka Wine 飛鳥ワイン
Habikino-city, Osaka 大阪府羽曳野市❹ Kawachi Wine (株)河内ワイン
Habikino-city, Osaka 大阪府羽曳野市❺ Nakamura Wine 仲村わいん工房
Hirakata-city, Osaka 大阪府枚方市❻ Hirakata sugi Ricoro farm 枚方杉リコロファーム

18

Where to Contact
in Your Area 代理店紹介
EUROPEISRAELNORTH AFRICA

nanoscore GmbHCHINASPECS-TII Technology (Beijing) Co., Ltd.
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Lambda Ray Co., Ltd.
55-16, 247beon-gil,
Mabuk-ro, Giheung-gu,
Yongin-si, Gyeonggi-do,
16891 Korea
TEL +82-31-693-5776
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www.lambdaray.co.kr

P. O. Box 1559
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For customers outside those areas, contact UNISOKU directly.

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