2022
UNISOKU
NEWSLETTER

U
K
O
S
I
N
U
2022

Current Delivery Situation

現在の納品状況

COVID-19 の感染拡大に伴う納品・訪問の遅れに対するお詫び

COVID-19 の世界的感染拡大による供給網の乱れは、2020 年前半から今日に至るまで弊社のサプライチェーンにも影響を与えており、特に電子部品関連や特殊な真空部品および超伝導マグネット等の納入に大幅な遅れをもたらしています。
納品をお待たせしているお客様には多大なご迷惑をおかけしておりますことをお詫び申し上げます。
今後もサプライヤーとの連絡を密にとり、弊社への受入れ段階での準備を整え、出荷を効率的に行ってまいります。
低温装置の社内テスト期間の短縮につきましては、液体ヘリウムの供給不足による出荷試験の遅延対策として、工場内に回収・再液化設備を設けました。十分な性能試験を短期間で行えるよう、精一杯努力してまいります。
納品のための訪問につきまして、中国での納品は SPECS-TII(Beijing) および弊社中国人技術者により、2020 年中盤から再開し、2021 年を通して実施いたしました。しかしながら、まだまだサポートが行き届いていない状況であり、お待たせしている
お客様におかれましては誠に申し訳ございません。

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。

UNISOKU contributes to the development of science andtechnology by providing customers with measurement
systems that meet their exploring minds.

Management Policy

今後につきましても感染状況とともに日本政府による指導と渡航先の入国規制を確認しながら、訪問による納品や修理を順次進めさせていただきます。
ご不便をおかけいたしますが何卒ご理解賜りますようよろしくお願いいたします。

ユニークな計測器の提供にチャレンジ

The global supply-chain disruption caused by the COVID-19 pandemic has affected our own supply chain since 2020.
In particular, the deliveries
Management
policy of some electronic parts, vacuum components, and superconducting magnets haveexperienced severe delays. To our affected clients, we sincerely apologize for any inconvenience this might havecaused, and we appreciate your patience and understanding.
We remain in constant contact with our suppliers to ensure timely production schedules and prompt productshipments. We have built a liquefier system for in-house liquid-helium recycling to counter the frequent
low-temperature equipment-test delays associated with liquid-helium shortages. We continue to make every effort toconduct the performance tests without delay.
Regarding the installation of newly delivered instruments, we have resumed our on-site visits in China both by
SPECS-TII Beijing and by local UNISOKU employees since the mid-2020. However, we apologize for any delay
current restrictions on our logistic support might have caused.
Further, while on-site installation visits have resumed in the EU, USA, and other regions, we have only been able toreach areas that have been granting quarantine exemption for fully vaccinated persons. We thank the customers inthese areas for their help in keeping our employees safe during their on-site visits.

President and CEO Yutaka Miyatake代表取締役 宮武 優

経営方針

欧米やその他地域での納品につきましては、まだ一部ではございますが、ワクチンの接種証明により隔離を免除される地域
や近隣の地域について、訪問による納品を進めさせていただきました。
訪問させていただいた弊社技術者の安全にご配慮くださり、ご協力くださった方々に深く感謝いたします。

Our Apologies for Delayed Delivery and Repair Visits Due to COVID-19 Disruptions

経営理念

Corporate Philosophy

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。以来、その精神を大切にし、お客様の声を聴きながら、新しい計測への挑戦と製品の改良を重ね、成長してまいりました。お客様の求める “観たい、測りたい” を実現できるよう、お客様にあった装置をご提案し、成果が出るまで訪問を重ね、お付き合いをさせていただくことを大切にしています。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。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。

The Challenge of Our Unique Instruments
Since its foundation in 1974, UNISOKU Co., Ltd. has taken on the challenge of "providing unique measuring
instruments to the world", in the spirit of its first president Toshihiko Nagamura. To date, with this spirit in mind,
we continue to listen to the voices of our customers, to take on new measurement techniques, and to improve ourexisting products. To satisfy their “desire to observe, know and solve” , we offer our customers cutting-edge
instruments and provide on-site visits until their systems work properly producing useful measurements and positive
results. Through these processes, we strive to build trustful relationships with our customers. We aim to grow as acompany that is adaptable to change and that contributes to society by providing significant impacts and new values
through measurement techniques. We will keep challenging ourselves, never giving up until our products meet thecustomers’ needs, and further improving our products and services.

From here onward, we will proceed with the postponed installation and repair on-site visits following the guideline set
both by the Government of Japan and by the local immigration authorities. Once again, we apologize for any

Company Profile

会社概要

delay-related inconvenience and we appreciate your kind understanding.
TRADE NAME（商号）
CEO（代表取締役）
FOUNDATION（設立）
LOCATION（所在地）01

UNISOKU CO., LTD.（株式会社ユニソク）
Yutaka Miyatake（宮武 優）

NOV. 1974（昭和 49 年 11 月）

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）

47（47 名）As of March 2022（2022 年 3 月現在）

( 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
MAR
3月
APR
4月

2021

Thank You Very Much for Your Work, Mr. Kurita.

Tatsuo Nakagawa gave an invited talk at the 101st Annual Meeting of The Chemical Society of Japan.

日本化学会 第101春季年会にて 中川がシンポジウムにて招待講演

UNISOKU achieved the 33rd Excellent Technology and New Product Award for medium sized companies.

栗田さん お疲れ様でした！

On 28 December 2021, we held a farewell party at UNISOKU for Kazuo Kurita, who had served us for 44 years,
and presented him with a memento and an album.
2021年12月28日 ユニソクにて44年務めて来られた栗田一男さんの送別会を行い、記念品やアルバムを贈呈しました。

第33回 中小企業優秀新技術・新製品賞 受賞

The project “Development of highly-hydrogen sensitive thermal desorption spectroscopy system” supported by
Ichimura Foundation for New Technology was completed.
市村清新技術財団「薄膜材料用超高感度水素検出装置の開発」完了認定

Kelvin probe + evaporator system was shipped for the first time.

ケルピンプローブ＋蒸着装置を初出荷

The demo room for optical instruments was used by the first customer.
開設したデモルームに初めてのお客様を迎える

JUN
6月

Low temperature SNoiM was shipped for the first time.

AUG
8月

The article “Construction of time-resolved transient absorption spectroscopy system by RIPT method” (in Japanese) by
Tatsuo Nakagawa was published in Photochemistry Vol. 52, No.2, 2021.

低温SNoiMシステムを初出荷

Photo introduced in the textbook“Junior High school Science 2”
令和3年度用「中学校 科学２」掲載写真

光化学協会誌「光化学」(Vol. 52, No.2, 2021)のトピックに「RIPT 法による過渡吸収分光システムの構築」（著者: 中川）が掲載される

UNISOKU joined the exhibition in the 32nd Meeting on Photochemistry of Coordination Compounds by
The Japanese Photochemistry Association (Online).
第32回 配位化合物の光化学討論会 展示会（オンライン開催）

SEP
9月

UNISOKU SPM system was introduced in the textbook for junior high school students, “Junior High school Science 2”
issued by GAKKOTOSHO Co., Ltd.
学校図書株式会社発行

令和3年度用「中学校科学２」に掲載

The optical instruments department performed real-time company introduction at the Exhibition in Annual Meeting on
Photochemistry 2021 (Online).
2021年光化学討論会 展示会（オンライン開催）、分光課でリアルタイム企業紹介を実施

UNISOKU joined the 15th Annual Meeting of Japan Society for Molecular Science 2021 (online).
第15回分子科学討論会 展示会（オンライン開催）

Meister of Machining and Mechanical Design, Kazuo Kurita, Retired after 44 years Working at UNISOKU.

TDS demo experiment service started.

NOV
11月

The 1st RydeenAmp mounted on USM1300 was shipped (University Utrecht).

TDSデモ実験受付開始

2021-12-28

雷電アンプ搭載USM1300を初出荷(ユトレヒト大学)

UNIFILM

OCT
10月

Tea with powdered honey
粉末はちみつ入り紅茶

Takehiro Ozawa gave a talk at Annual Meeting of The Japan Society of Vacuum and Surface Science 2021.
小澤が2021年日本表面真空学会学術講演会で講演

Te’ Miel SUPREMO got a huge hit in UNISOKU.

UNIFILM

ユニソク社内で粉末はちみつ入り紅茶が爆発的なヒット

Scenes from the Company and Small Talk

32 persimmons were harvested in the field of UNISOKU.

ユニソク敷地内で柿が実り、32個の収穫となった

Installation of picoTAS/CoolSpeK at University of Hong Kong was completed.
海外初の picoTAS/CoolSpeK を香港大に納品を完了

DEC
12月

2021_12_28

社内風景と話題A harvest of 32 persimmons
32個収穫した柿

Katsuya Iwaya gave a poster presentation about time-resolved STM system developed in collaboration with Shigekawa
group (University of Tsukuba) at ICSPM29 (online).
岩谷が国際会議ICSPM29において筑波大重川研と共同開発した時間分解STM装置についてポスター発表

Katsuya Iwaya gave an invited talk about TDS system developed in collaboration with Hosono group (Tokyo Institute ofTechnology) at MRM2021 (online).
岩谷が国際会議MRM2021において東工大細野研と共同開発した超高感度TDS装置について招待講演

Kazuo Kurita retired after working at UNISOKU for 44 years.
栗田一男氏（嘱託）が44年のユニソク勤務を終えご退職

03

Autumn 2021, maple

Radio exercise

Lunch break, Fun time !!

2021年秋、もみじ

有志でラジオ体操

昼休みの楽しいひと時
04

Planting at Mr. Nagamura's (former chairman)
farm (a volunteer farm club!)

長村(元会長)農園のさくづけ(有志にて農園部！)

RydeenAmp
2021年 製品開発 ニュース

無冷媒STM• Base temperature TSTM= 5 K• Low vibration noise level realizedby our original design• Atomic-scale shot noise measurements• High resolution dI/dV spectra• Operable in magnetic fields up to 7 Tesla• Integration into USM1300 now available

Collaboration with
Prof. Milan Allan group(Leiden Univ.)

Shot noise measurement on Au(111)
USM1300 cryostat

8x10

The design and performance of the prototype system
will be published somewhere(J. Kasai et al., submitted).

1K potRydeenAmp

Temperature stability@ TSTM = 5.2 K
)
-1/2

4

Current noise (pA Hz

8
6

9
7
4
1
0.5
0.1
0.05

4
2

f0 = 2.8 MHz
0

-2000

2000

2.5x10

4000

-9

2.4
2.3
2.2
2.1
2.0
1.9
-8

Frequency shift (Hz)

-4

0

4

8

Current (nA)

References

Direct Evidence for Cooper Pairing without a Spectral Gap in a Disordered Superconductor above Tc
K. Bastiaans et al., Science 374, 608 (2021).

Feedback OFF
Set-point:-100 mV/100pA

2

Current (nA)

60Tunneling current
noise spectrum

1

Temperature (K)Automatic
gas handling system-13

Integrated noise power (V2)Power spectral density (V2/Hz)

Cryogen-Free SPM (USM1800)

雷電アンプ

Imaging Doubled Shot Noise in a Josephson Scanning Tunneling Microscope
K. Bastiaans et al., Phys. Rev. B 100, 104506 (2019).

0.18
6Charge Trapping and Super-Poissonian Noise Centres in a Cuprate Superconductor
K. Bastiaans et al., Nat. Phys. 14, 1183 (2018).

4

STM
head

2

0.018

Amplifier for Scanning Tunneling Microscopy at MHz Frequencies
K. Bastiaans et al., Rev. Sci. Instrum. 89, 093709 (2018).

6
41Time (hours)

STM image of Au(111)

AFM image of NaCl(100)

2

4 6

10

2

4 6

100

2

4 6

Frequency (Hz)1000

Superconducting gap of Pb

Time-Resolved STM

1.2

dl/dV (a.u.)This work is supported by A-STEP, JST.

0.8

0.4

TSPM= 5.0 K
Fitting
-2

0

2

4

Sample bias (mV)

USM1600
Electron temperature ~ 110 mK

6

0

1.0
0.5

-2
0
2
Sample bias (mV)

0.0

4

05

ΔI(pA)

1.5

Al
-0.4

0.4

-25

Delay time
0 ns

100
0

-10
-15

Time-resolved
spectroscopy map

Relaxation time map
200

(ns)

GaAs(110)

50 ns
Step
edge

-20

-0.2
0.0
0.2
Sample bias (mV)

GaAs(110) surface(60 nm×60 nm, T=6 K)

300

-5

2.0

Pb

Time-resolved spectroscopy mapping

90 cm

Typical time-resolved tunneling spectrum

2.5

dl/dV (a.u.)

dl/dV (a.u.)-4

強磁場中STM

USM1300
Electron temperature ~ 360 mK-4-6• Time resolution of 70 ps• Carrier dynamics measurements with sub-nm spatial resolution
45 cm

0.0

3.5
3.0
2.5
2.0
1.5
1.0
0.5
0.0

• Compact table-top optical system(Integration into an existing SPM system is possible)

0.6

0.2

USM1300, 1600

Collaboration with Prof. Shigekawa Group (Univ. of Tsukuba)

USM1400-based

1.0

時間分解STM

-200

0

200

Delay time (ns)Bump
STM image06

220 nsUNISOKU SPMの応用分野

Application Fields of UNISOKU SPM
論文の紹介

Atoms/Molecules

原子/分子

STM-AFM-TERS

Publication Statsin

Determining Structural and Chemical Heterogeneities of Surface Species at the Single-Bond Limit
J. Xu et al., Science 371, 818 (2021).

2021

Probing Intramolecular Vibronic Coupling through Vibronic-State Imaging
F. Kong et al., Nat. Commun. 12, 1280 (2021).

Total number of publications using UNISOKU systems* = 252 (246 in 2020)
Total impact factors ~ 2030 (1902 in 2020)
Corresponding to 41 Nature papers (38 in 2020)
The detailed information about the publication
Impact factor per employee ~42 (~40 in 2020)
list is available on our website.
c.f. the impact factor of Nature ~50*including preprints
Popular Research Fields

Num. of
Publications

Average
Impact Factor

Topological Materials (Kagome, Majorana, Weyl)

37

14.14

(Nanowire, 2D Superconductivity, 2D vdW, etc)

Thin Films excluding TMDs

36

9.35

Graphene (Twisted Bilayer Graphene)

22

10.82

Molecules

19

9.09

Transition Metal Dichalcogenides (TMDs)

12

16.66

Fe-based Superconductors (FeSe/STO)

11

9.67

RIPT Transient Absorption

8

9.73

Atomic Point Contact Raman Spectroscopy of a Si(111)-7 × 7 Surface
S. Liu et al., Nano Lett. 21, 4057 (2021).
Anti-Stokes Light Scattering Mediated by Electron Transfer Across a Biased Plasmonic Nanojunction
S. Liu et al., ACS Photonics DOI: 10.1021/acsphotonics.1c00402

Atomic/Molecular Spin (ESR-STM)
Free Coherent Evolution of a Coupled Atomic Spin System Initialized by Electron Scattering
L. Veldman et al., Science 372, 964 (2021).
Electron Spin Resonance of Single Iron Phthalocyanine Molecules and Role of Their Non-Localized Spins in Magnetic Interactions
X. Zhang et al., Nat. Chem. DOI: 10.1038/s41557-021-00827-7
Engineering Atomic-Scale Magnetic Fields by Dysprosium Single Atom Magnets
Singha et al., Nat. Commun. 12, 4179 (2021).
Quantum Stochastic Resonance of Individual Fe Atoms
M. Hanze et al., Sci. Adv. 7, eabg2616 (2021).
Coherent Spin Control of Single Molecules on a Surface
P. Willke et al., ACS Nano DOI: 10.1021/acsnano.1c06394

Molecules
On-Surface Preparation of Coordinated Lanthanide-Transition-Metal Clusters
J. Liu et al., Nat. Commun. 12, 1619 (2021).

Determining Structural and Chemical Heterogeneities of Surface Species at
the Single-Bond Limit/ Molecules/ 分子
Atoms andmolecules原子
原子分子

Xu et al., Science, 371, 6531 (2021).

The structure identification of adsorbed species on surface has long been a challenge due to their rich chemical heterogeneities.
Xu et al. (Hou group, Univ. of Science and Technology of China) revealed structural and chemical heterogeneities of the pentacenemolecule and its derivatives at the single-bond limit by utilizing a combination of STM, nc-AFM, and tip-enhanced Raman
spectroscopy (TERS). They found that each molecule shows different microscope images and Raman spectrum maps, reflecting theexistence/absence of C-H stretching bond in the molecules. Owing to the unambiguous structural information obtained from the
combined measurements, the experimental results were better reproduced by DFT calculations. The combination of STM, AFM and
TERS provides a comprehensive solution for determining chemical structures and can be widely applied for studying surface catalysis,
on-surface synthesis, and 2D materials.
(c)

(a)

Electronic Characterization of a Charge-Transfer Complex Monolayer on Graphene
Kumar et al., ACS Nano 15, 9945 (2021).
Packing Biomolecules into Sierpiński Triangles with Global Organizational Chirality
C. Li et al., J. Am. Chem. Soc. 143, 14447 (2021).

Electron Spin Resonance of Single Ion Phthalocyanine Molecules and Role of
Their Non-Localized Spins in Magnetic Interactions
Zhang et al., Nat. Chem. DOI: 10.1038/s41557-021-00827-7

Atoms / Molecules

原子 / 分子Chemical engineering and fabrication of single molecular spins is a key for developing molecule-based quantum devices.
For this purpose, understanding of the magnetic interaction between molecules at the single molecular scale is crucial.
Zhang et al. (Choi group, Institute for Basic Science and Physics Department, Ewha Womans Univ., Korea) performed ESR-STM
measurements on individual iron phthalocyanines (FePc) molecules and investigated the magnetic interaction between FePc-FePc dimers.
Their experimental results combined with DFT calculations revealed the crucial role of non-localized spins in the magnetic interactions,indicating a strongly molecular-geometry-dependentexchange coupling. The capability of ESR-STM is now
extended from single atoms to much larger magnetic
molecules and will contribute to the development ofmolecule-based spintronic and quantum information
devices in the near future.

(b)(a)The calculated spin density of a [FePc]-1 molecule (in red)adsorbed on MgO/Ag(100) surface.
(b) STM image of the [FePc]-1-[FePc]-1 dimer in configuration (3, 4).
(c) Representative ESR spectra of the upper [FePc]-1
measured at the yellow dot in (b).
(d) ESR spectra of the upper [FePc]-1 in (b) as a function oftunneling current.
(e) STM image of the [FePc]-1-[FePc]-1 dimer in configuration (0, 5).
(f) ESR spectra of the upper [FePc]-1 in (e)Figure (a) Schematic images of pentacene molecule (α) and its derivatives (β and γ). (b) Constant height frequency shift images of (a).
(c) STM image, TERS map, and Raman simulation of α, β, γ species.

07

08

Application Fields of UNISOKU SPM
Thin Films (2D van der Waals Family TMD)

UNISOKU SPMの応用分野

Monolayer & Heterostructure Films
Artificial Heavy Fermions in a van der Waals Heterostructure
V. Vano et al., Nature 599, 582 (2021).

薄膜

Moiré Enhanced Charge Density Wave State in Twisted 1T-TiTe2/1T-TiSe2 Heterostructures
W. Zhao et al., Nat. Mater. DOI: 10.1038/s41563-021-01167-0
Atomic Visualization and Switching of Ferroelectric Order in β-In2Se3 Films at the Single Layer Limit
Z. Zhang et al., Adv. Mater. 34, 2106951 (2022).

Graphene

Lattice-Matched Metal-Semiconductor Heterointerface in Monolayer Cu2Te
J. Feng et al., ACS Nano 15, 3415 (2021).

Doping Graphene with Substitutional Mn
P. Lin et al., ACS Nano 15, 5449 (2021).

Realization of AlSb in the Double-Layer Honeycomb Structure: a Robust Class of Two-Dimensional Material
L. Qin et al., ACS Nano 15, 8184 (2021).

Quantum Interferences of Pseudospin-Mediated Atomic-Scale Vortices in Monolayer Graphene
Y. Zhang et al., Nano Lett. 21, 2526 (2021).

Electronic and Magnetic Characterization of Epitaxial CrBr3 Monolayers on a Superconducting Substrate
S. Kezilebieke et al., Adv. Mater. 33, 2006850 (2021).

Direct Observation of Global Elastic Intervalley Scattering Induced by Impurities on Graphene
C. Wang et al., Nano Lett. 21, 8258 (2021).
Atomic Structure and Electronic Properties of the Intercalated Pb Atoms Underneath a Graphene Layer
T. Hu et al., Carbon DOI: 10.1016/j.carbon.2021.04.020

Strain-Induced Bandgap Enhancement of InSe Ultrathin Films with Self-Formed Two-Dimensional Electron Gas
Z. Zhang et al., ACS Nano 15, 10700 (2021).

Graphene Nanoribbon Grids of Sub-10 nm Widths with High Electrical Connectivity
N. Kim et al., ACS Appl. Mater. Interfaces DOI: 10.1021/acsami.1c03437

Synthesis and Properties of Monolayer MnSe with Unusual Atomic Structure and Antiferromagnetic Ordering
M. Aapro et al., ACS Nano 15, 13794 (2021).

Fabrication and Mechanism of Pb-Intercalated Graphene on SiC
D. Yang et al., Appl. Surf. Sci. 569, 151012 (2021).

Charge Transfer Gap Tuning via Structural Distortion in Monolayer 1T-NbSe2
Z. Liu et al., Nano Lett. 21, 7005 (2021).
Direct Growth of van der Waals Tin Diiodide Monolayers
Q. Yuan et al., Adv. Sci. 8, 2100009 (2021).

Twisted Bilayer Graphene

Atomic Imaging of Electrically Switchable Striped Domains in β′-In2Se3
Z. Chen et al., Adv. Sci. 8, 2100713 (2021).

Correlation-Driven Topological Phases in Magic-Angle Twisted Bilayer Graphene
Y. Choi et al., Nature 589, 536 (2021).

Magnetic Doping Induced Superconductivity-to-Incommensurate Density Waves Transition
in a 2D Ultrathin Cr-Doped Mo2C Crystal
S. Li et al., ACS Nano 15, 14938 (2021).

Interaction-Driven Band Flattening and Correlated Phases in Twisted Bilayer Graphene
Y. Choi et al., Nat. Phys. 17, 1375 (2021).

Robust Charge-Density Wave Strengthened by Electron Correlations in Monolayer 1T-TaSe2 and 1T-NbSe2
Y. Nakata et al., Nat. Commun. 12, 5873 (2021).

Oscillations of the Spacing Between Van Hove Singularities Induced by Sub-Ångstrom Fluctuations ofInterlayer Spacing in Graphene Superlattices
Y. Zhao et al., Phys. Rev. Lett. 127, 266801 (2021).

Artificial Heavy Fermions in a van der Waals Heterostructure
Vano et al., Nature, 599, 582 (2021).

dI/dV(a.u.)(d)dI/dV(a.u.)(c)-0.5 -0.4 -0.3 -0.2 -0.1

0

0.1 0.2 0.3 0.4 0.5

Bias voltage (V)0

0.1 0.2 0.3 0.4 0.5

Bias voltage (V)

(e)

(f)
dI/dV(a.u.)(b)

dI/dV(a.u.)(a)-0.5 -0.4 -0.3 -0.2 -0.1

-0.5 -0.4 -0.3 -0.2 -0.1

0

0.1 0.2 0.3 0.4 0.5

Bias voltage (V)-0.5 -0.4 -0.3 -0.2 -0.1

0Uncovering the Self-Organized Nanowires on Au-Modified Ge(001) Surfaces
J. Lyu et al., J. Phys. Chem. C 125, 27876 (2021).

Thin Films

薄膜

Heavy fermion systems are known to exhibit exotic behaviors
such as quantum criticality and unconventional topologicalsuperconductivity but have been realized only in compounds
containing rare-earth elements with f electrons. Vano et al.,(Liljeroth group, Aalto University, Finland) realized artificial
heavy fermion systems by growing 1T-TaS2/1H-TaS2
heterostructures on HOPG and investigated their electronic
states, using low temperature STM and STS. Spectroscopy on
the 1T-TaS2 layer of the heterostructure shows a Kondo
resonance peak due to the interaction between localized
magnetic moments in the 1T-TaS2 and the 1H-TaS2 conduction
electrons. On the other hand, probing the 1H-TaS2 layer of theheterostructure shows the signature of a heavy fermion
hybridization gap. The realization of artificial heavy fermions ina van der Waals heterostructure will open a pathway towards
understanding heavy-fermion physics and ultimately enabling
the study of heavy-fermion superconductivity tunable by gating
and twist engineering.

0.1 0.2 0.3 0.4 0.5

Bias voltage (V)Doping Graphene with Substitutional Mn

Thin Films

Lin et al., ACS Nano, 15, 5449 (2021).

Magnetic functionalization of graphene has been extensively investigated for fundamental physics and applications in spintronics.
However, the substitutional doping of magnetic elements such as transition metals into graphene lattice is not thermodynamicallyfavored in general, and the doping methods previously reported were difficult to control. Lin et al., (Pereira group, KU Leuven, Belgium)
succeeded in the substitutional Mn doping into the graphene lattice by using ultra-low energy ion implantation and thoroughly
characterized the atomic and electronic structures of substitutional Mn atoms by a combination of various experimental techniques(STM, Raman spectroscopy, ARPES, XPS) and DFT calculations. They revealed that the Dirac-like band structure was retained at
a concentration of the order of 0.04%, providing an ideal platform to study the interplay between local magnetic moments and Dirac
electrons. Their doping method is expected to be applied for various dopant elements and 2D material hosts and allows us to
explore magnetic functionalization of 2D materials.

(a)

(d)

(b)

(c)
Figure(a) STM image ofthe Mn implanted graphene surface.
(b) STM image of the substitutional Mn defect.

Figure(a, b) STM image of 1T/1H-TaS₂ and 1H/1T-TaS₂ heterostructure on HOPG substrate, respectively.
(c-f) dI/dV spectrum on 1H-TaS₂ on HOPG, 1T/1H-TaS₂ heterostructure, 1T-TaS₂ on HOPG, 1H/1T-TaS₂ heterostructure, respectively.

09

薄膜(c) DFT simulated STM image of Mn defect.
(d) ARPES spectra of Mn implanted graphene.

10Application Fields of UNISOKU SPM

UNISOKU SPMの応用分野
Fe-based Superconductors

Superconductivity

超伝導

Nematic Transition and Nanoscale Suppression of Superconductivity in Fe(Te,Se)
H. Zhao et al., Nat. Phys. 17, 903 (2021).

Kagome Superconductors

Nanoscale Decoupling of Electronic Nematicity and Structural Anisotropy in FeSe Thin Films
Z. Ren et al., Nat. Commun. 12, 10 (2021).

Cascade of Correlated Electron States in a Kagome Superconductor CsV3Sb5
H. Zhao et al., Nature 599, 216 (2021).

Spatially Dispersing Yu-Shiba-Rusinov States in the Unconventional Superconductor FeTe0.55Se0.45
D. Chatzopoulos et al., Nat. Commun. 12, 298 (2021).

Roton Pair Density Wave in a Strong-Coupling Kagome Superconductor
H. Chen et al., Nature 599, 222 (2021).

Observation of an Electronic Order along [110] Direction in FeSe
K. Bu et al., Nat. Commun. 12, 1385 (2021).

Unconventional Chiral Charge Order in Kagome Superconductor KV3Sb5
Y. Jiang et al., Nat. Mater. 20,1353 (2021).

Incommensurate Smectic Phase in Close Proximity to the High-Tc Superconductor FeSe/SrTiO3
Y. Yuan et al., Nat. Commun. 12, 2196 (2021).

Charge Density Wave Orders and Enhanced Superconductivity under Pressure in the Kagome Metal CsV3Sb5
Q. Wang et al., Adv. Mater. 33, 2102813 (2021).

Two Distinct Superconducting States Controlled by Orientations of Local Wrinkles in LiFeAs
L. Cao et al., Nat. Commun. 12, 6321 (2021).

Three-Dimensional Charge Density Wave and Surface-Dependent Vortex-Core Statesin a Kagome Superconductor CsV3Sb5
Z. Liang et al., Phys. Rev. X 11, 031026 (2021).

Friedel Oscillations of Vortex Bound States under Extreme Quantum Limit in KCa2Fe4As4F2
X. Chen et al., Phys. Rev. Lett. 126, 257002 (2021).
Observation of Distinct Spatial Distributions of the Zero and Nonzero Energy Vortex Modes in (Li0.84Fe0.16)OHFeSe
T. Zhang et al., Phys. Rev. Lett. 126, 127001 (2021).

Multiband Superconductivity with Sign-Preserving Order Parameter in Kagome Superconductor CsV3Sb5
H. Xu et al., Phys. Rev. Lett. 127, 187004 (2021).

Thin Film Superconductors

Topological Superconductors (Majorana)

Direct Evidence for Cooper Pairing Without a Spectral Gap in a Disordered Superconductor Above Tc
K. Bastiaans et al., Science 374, 608 (2021).

Anomalous Superconducting Proximity Effect in Bi2Se3/FeSe0.5Te0.5 Thin-Film Heterojunctions
Y. Zhang et al., Adv. Mater. DOI: 10.1002/adma.202107799

Direct Observation of Nodeless Superconductivity and Phonon Modes in Electron-Doped Copper Oxide Sr1-xNdxCuO2
J. Fan et al., Natl. Sci. Rev. DOI: 10.1093/nsr/nwab225

Evidence of Topological Boundary Modes with Topological Nodal-Point Superconductivity
A. Nayak et al., Nat. Phys. 17, 1413 (2021).

Proximity Effects on the Charge Density Wave Order and Superconductivity in Single-Layer NbSe2
P. Dreher et al., ACS Nano 15, 19430 (2021).

Anisotropic Non-Split Zero-Energy Vortex Bound States in a Conventional Superconductor
H. Kim et al., Appl. Phys. Rev. 8, 031417 (2021).
Observation of Magnetic Adatom-Induced Majorana Vortex and its Hybridization
with Field-Induced Majorana Vortex in an Iron-Based Superconductor
P. Fan et al., Nat. Commun. 12, 1348 (2021).
Majorana Zero Modes in Impurity-Assisted Vortex of LiFeAs Superconductor
L. Kong et al., Nat. Commun. 12, 4146 (2021).

Roton Pair Density Wave in a Strong-Coupling Kagome Superconductor
Chen et al., Nature 599, 222 (2021).

Tomonaga–Luttinger Liquid in the Topological Edge Channel of Multilayer FeSe
H. Zhang et al., Nano Lett. DOI: 10.1021/acs.nanolett.1c02069

Evidence of Topological Boundary Modes with Topological Nodal-Point Superconductivity
Nayak et al., Nat. Phys. 17, 1413 (2021).

Superconductivity

超伝導

Topological superconductors have been extensively explored to realize topological quantum information processing. However,material realizations of intrinsic topological superconductors are still scarce. Nayak et al. (Beidenkopf group, Weizmann Institute of
Science, Israel) reported spectroscopic evidence for the existence of topological surface superconductivity in a transition metal
dichalcogenide 4Hb-TaS2, which consists of the alternating stacking of strongly correlated 1T-TaS2 and superconducting 1H-TaS2 layers.
They observed crystallographically anisotropic 1D boundaryedge modes and zero-bias states at the vortex core, together
with a finite density of states in the superconducting gap.
Their results combined with theoretical modelling suggestthat a topological nodal-point superconducting state isrealized in the natural compound 4Hb-TaS2.

Superconductivity

The kagome lattice of transition metal atoms offers us an ideal platform to investigate electronic correlation in the presence of geometricfrustration and topological band structures. Chen et al. (Hong-Jun Gao group, Chinese Academy of Sciences) reported unconventional
superconducting states of a new family of vanadium-based kagome metal, CsV3Sb5 using STM/STS. It was found that CsV3Sb5 exhibits
strong-coupling superconductivity that coexists with 4a0 unidirectional, 2a0×2a0 charge orders, and a pair density wave (PDW)
accompanied by bidirectional 4a0/3 spatial modulations of the superconducting gap, coherence peak, and gap-depth in the tunnelingspectrum. They also revealed that the PDW is a “mother state” responsible for the pseudogap and intertwined electronic order. These
results showing striking analogies and distinctions to high-Tc cuprates contribute to the understanding of the origin of correlated
electronic states and superconductivity in vanadium-based kagome metals.
(a) Crystal structure of CsV3Sb5.
(b) Superconducting gap spectra on Cs
and Sb surfaces at 300mK.
(c) STM image of Sb surface at 300mK.
(d) dI/dV map at -5mV simultaneously obtainedwith (c), resolving the 4a0, 2a0×2a0 chargeorders and 4a0/3 PDW.
(e) Fourier transformed image of (d).
(f-h) Fourier transformed image of
dI/dV map(-0.25mV) at 300mK,
dI/dV map(-5mV) at 300mK
and 2T, and dI/dV map(-5mV) at 4.2K
and 0T, respectively.

(a) Crystal structure of 4Hb-TaS2 (left). STM image of
4Hb-TaS2 showing both 1H and 1T terminations (right).
(b) Zero bias conductance map on the 1H termination.
B = 100 mT. T = 0.38 K.
(c) dI/dV spectra at the vortex core and far from it in (b).
(d) dI/dV spectra measured far away (blue) andclose to (red) the 1H step edge.
(e) Zero bias conductance map showing the continuous edge
mode under the 1T step edge.
(f) Anisotropic zero bias conductance profile in (e).
11

超伝導

12

Jinfeng Jia

Stevan Nadj-Perge

Laboratory of Low Dimensional
Physics and Interface Engineering,
Shanghai Jiao Tong University, China

Department of Applied Physics andMaterials Science, California Institute ofTechnology (CALTECH) , USA

Research Interests

Research Interests• Scanning Tunneling Microscopy and Spectroscopy• Quantum Transport• Low Dimensional Materials, Multi-Terminal Devices• Moiré Heterostructures• Magic-Angle Twisted Multi-Layer Graphene• Strongly Correlated Materials• Topological Superconductors

・Topological Superconductor
and Majorana Fermions・Topological Insulators and New Quantum Materials
・Surface and Interface Physics by
Low Temperature STM/STS

SPM Facilities in the TeamSPM Facilities in the Team

Topographic Imaging of
Magic-angle Superlattices
Twisted Bilayer Graphene

Twisted Trilayer Graphene

0.5 nm

USM1600 (Vector)

JT-SPM

Mapping Out the Development ofCorrelated Insulators with Twist Angle

USM1300
・9-2-2 T Vector Magnet
・STM/AFM Capability
・Six Independent Contacts on the Sample Holder
・Support for High Frequency Signals

USM1300 4PP (11 T)

Research Highlights“Robust Hot Electron and Multiple TopologicalInsulator States in PtBi2”“Discovery of Segmented
Fermi Surface Induced
by Cooper Pair Momentum”

B (T)

0

0

-2

-1
0
1
Filling factor, ν

2

3

4

Unconventional Superconductivity
in Twisted Trilayer Graphene
2.5

-6

+4

-3

-3

-2

-4

-3

-1

-2

-1

0

+2 +3 +40Filling factor, ν

1

+3

2

Selected References:(1) Y. Choi et al., Nat. Physics 15, 1174 (2019).
(2) Y. Choi, H. Kim et al., Nature 589, 536 (2021).
(3) Y. Choi, H. Kim et al., Nat. Physics 17, 1375 (2021).
(4) H. Kim, Y. Choi et al., arxiv: 2109.12127 (2021).

+1

3

4

U-shaped
SC regime-8
V-shaped
SC regime

-9

-2.4

-2.8

14

1.5

1.0
0.5

-10
-11

Filling factor, ν+2

VGate (V)

-7

-6
-2

2.0

-2.0

-8

-4

X. Nie et al., ACS Nano 14, 2366 (2020).

-3

-6

-4

13

-4

Normalized dI/dV (a.u.)

2

-8
-4

1.10°

1.00°
4
0

4

5nm

1.15°

1.05°

8
6

Z. Zhu et al., Science 374, 1381 (2021).

1.20°

Local Density of States Landau Fan
Diagram of Twisted Bilayer Graphene

-2

1.6
0.0

Twist angle

USM1300 (11 T)

1.25°

dI/dV (a.u.)

Features:
USM1600

10 nm

10 nm

Normalized dI/dV

USM1300 4PP (11 T)

-3.2
-6

0

VBias (mV)

6

0.0

-6

0

VBias (mV)6

Yasuhiro Sugawara

来社実験サービスのご案内

Nanophysics Group,
Department of Applied Physics,
Graduate School of Engineering,Osaka University, JapanWe Now Offer In-House Experimental Demonstrations.

Research Interests

・Photo-Induced Force Microscopy (Nano-Photonics)
・Catalytic Reactions by AFM and KPFM
・Charge States of Atoms and Molecules by AFM

Prof. Sugawara

弊社では最新製品のデモルームを開設し、来社実験サービスを行っています。興味を持っていただいた製品について、購入前に実際に性能を確認の上、購入後も満足して使っていただきたいと考えております。
また、装置購入が困難なお客様にも測定をしていただき研究の一助となりたいとも願っております。

Prof. Y. J. Li

Because we aim for after-purchase satisfaction, we provide our customers the opportunity to check the product performance before purchase.
Further, we also aim to help customers who are not ready to purchase our systems conduct their research. To these ends, we have set up a room
showing the newest instruments, both for demonstration purposes and for in-house experiment service.

SPM Facilities in the Team

ピコ秒過渡吸収分光 ＋ 蛍光寿命コンバインシステム

picoTAS + TCSPC

Combined System ofPicosecond Transient Absorption and
TCSPC Fluorescence Lifetime

Optical Beam Deflection Type AFM System (USM1400 Based)

Photoinduced Force Microscopy (PiFM)
AFM Image

PiFM Image

近赤外対応ナノ秒時間分解分光測定装置

Cryostat for Spectrophotometer
USP-203 Series

Conventional UV/VIS/NIR Flash Photolysis System

CoolSpeK ※Research Highlights“Optical Force Mapping at the Single-Nanometre Scale”

分光用クライオスタット

TSP-2000“Subatomic-Scale Force Vector Mapping
Using Bimodal AFM”
Ge(001)-c(4×2) Surface
Z = 0 pm

Quantum
dot

Fx

Fz

※CoolSpeKにつきましてはお客様のラボに伺い、お客様が所有している分光計と組み合わせることによる訪問デモ測定も随時行っております (国内限定サービスとなっております)。

We also offer on-site CoolSpek demonstration at your facility. CoolSpek adaptation to your spectrometer for demonstration measurements is available.
(only domestic)

J.Yamanishi et al., Nat. Commun., 12, 3865 (2021).

“Tip-Induced Control of Charge and Molecular Bondingof Oxygen Atoms”
AFM Image of Rutile TiO2(110) Surface

Hydrogen-Sensitive Thermal Desorption Spectroscopy System

Fy

HEMTO-TDS

超高感度熱脱離分析装置

Kelvin Probe Force Spectroscopy Manipulation
Before

デモ測定受付中

After

0.0

0.5
1.0
X distance (nm)Y. Naitoh et al., Nat. Phys. 13, 663 (2017).

1.5※訪問及び来社実験は対応しておりません。

This is a demo
measurement only

＊Visiting /in-house experiment
service is not available.

試料導入室を備えたスタンドアロンの3室構成のシステムをデモ測定器として準備しています。本計測は大気中での水分吸着に敏感な可能性がありますので、試料の導入方法や測定内容については相談して進めさせていただきます。
【Custom demo measurements】
We organize demonstration measurements of your samples using the HEMTO-TDS at our facility.
Contact us to discuss the details of the samples you are interested in!

Y. Adachi et al.,ACS Nano 13, 6917 (2019).
15

16

picoTAS + TCSPC

ピコ秒過渡吸収分光 ＋ 蛍光寿命コンバインシステム

Combined System of Picosecond Transient Absorption and TCSPC Fluorescence Lifetime

World’s First !

picoTAS-related Published Papers
Effect of Deuteration on Relaxation Dynamics of the Perylene Excimer Studied by Subnanosecond Transient Absorption Spectroscopy
Y. Shibasaki et al., J. Phys. Chem. A, 125, 1359 (2021).
Dynamic Spin–Spin Interaction Observed as Interconversion of Chemical Bonds in Stepwise Two-Photon Induced Photochromic Reaction
K. Mutoh et al., J. Am. Chem. Soc. , 143, 13917 (2021).
Extending the Lifetimes of Charge Transfer States Generated by Photoinduced Heterolysis of Photochromic Radical Complexes
Y. Kawanishi et al., Asian J. Org. Chem., 10, 891 (2021).
Fast T-Type Photochromism of Colloidal Cu-Doped ZnS Nanocrystals
Y. Han et al., J. Am. Chem. Soc., 143, 2239 (2021).
Light-Triggered Elimination of CO2 and Absorption of O2 (Artificial Breathing Reaction) in Photolysis of 2-(4-nitrophenyl)-1H-indole Derivatives
Q. Lin & M. Abe, Photochem. Photobiol. Sci., 20, 421 (2021).
p-Nitroterphenyl Units for Near-Infrared Two-Photon Uncaging of Calcium Ions
T. T. T. Pham et al., J. Photochem. Photobiol. A , 409, 113154 (2021).

光化学「トピックス」に解説執筆「中小企業優秀新技術・新製品賞」優良賞受賞
来社実験サービス in デモルーム 実施中

Our New Approach to TCSPCBrings New Possibility of
Fluorescence Lifetime
Measurement

Near-Unity Singlet Fission on a Quantum Dot Initiated by Resonant Energy Transfer
J. Zhang et al., J. Am. Chem. Soc., 143, 17388 (2021).
Impact of the Macrocyclic Structure and Dynamic Solvent Effect on the Reactivity of a Localised Singlet Diradicaloid with
π-Single Bonding Character
Z. Wang et al., Chem. Sci., 12, 613 (2021).
Mechanistic Study of Photocatalytic CO2 Reduction Using a Ru(ii)–Re(i) Supramolecular Photocatalyst
K. Kamogawa et al., Chem. Sci., 12, 9682 (2021).
1,3-Diradicals Embedded in Curved Paraphenylene Units: Singlet Versus Triplet State and In-Plane Aromaticity
Y. Miyazawa et al., J. Am. Chem. Soc., 143, 7426 (2021).

 Advantages of Unique Deconvolution Capability
 Challenge to NIR Emission Lifetime with < 1 ns
 Standalone TCSPC system is available now.

Impact of the Macrocyclic Structure on the Reactivity of a Localised Singlet Diradicaloid
Z. Wang et al., Chem. Sci., 12, 613 (2021).

CoolSpeK SLIM

分光用薄型クライオスタット

Ideal for the spectrometer such as pump-probes system which uses 2 mm cuvette.
Built-in stirrer, Attacheble to picoTAS.
2 mmセルなどと用いるポンプ・プローブ用などに最適
picoTAS にも搭載可能、スターラー内蔵CoolSpeK Shipped Over 500 Units

弊社製品
picoTAS への搭載例

Localised singlet diradicals (S-DR) are key intermediates in bond homolysis processes, but elusive dueto the fast radical–radical coupling reaction. Dr. Zhe Wang and Prof. Abe’s group, Hiroshima Univ.,
computationally designed then synthesized a naphthalene-containing macrocyclic structure, S-DR3b,
aiming “stretch effect” to realize extended lifetime of singlet diradicaloid. They intensively examined its
character using laser flash photolysis system, TSP-1000 and picoTAS, CoolSpeK, and found that
S-DR3b exhibited a low carbon–carbon coupling reaction rate about 1000 times slower thanDr. Zhe Wang
Prof. Manabu Abe non-macrocyclic molecule. Furthermore, a significant dynamic solvent effect was observed for the firsttime in intramolecular radical–radical coupling reactions in viscous solvents.
This theoretical and experimental study demonstrates that the stretch effect and solvent viscosity play important roles in retarding thebond formation process and establishes a new strategy towards a deeper understanding of the character and reactivity of S-DR.

CoolSpeK は出荷500台を突破
17

18

TastedWorld Liquor Tour ~Distributor Selection~

ABRAU DURSO Russian Sparkling Wine Brut ( アブラウドゥルソ ロシアンスパークリングワインブリュット )各代理店がおすすめする地元のお酒をユニソク社員が試飲するイベントを勤務後に実施しました !

Selected by SPECS-TII Russia (Russia・ロシア )Tasting Event at UNISOKU（Europe, USA and Russia）

The Russian sparkling wine ABRAU DURSO, famous since 1870, is a product of the Black Sea coast, near the
Sochi summer resort area, where excellent sparkling wine is produced. ABRAU DURSO is indispensable forwedding, birthday parties, or any special occasion. Just a one sip evokes the sparkling ocean view.

2021/12/27に実施しました。This event was held on 2021/12/27

アブラウドゥルソは 1870 年以来とても有名なロシアのシャンパンで、夏のリゾート地であるソチの近くである黒海沿岸で生産されています。黒海のこのあたりはおいしい葡萄が取れるのでシャンパンやワインが作られていますが、結婚式や誕生日など特別な日にぴったりなのはやはりこのアブラウドゥルソでしょう。海を眺めながら友人とのパーティー、ロシア料理を楽しみながらのアブラウドゥルソ。都会でも一口飲めば夏の太陽にきらきら輝く南国の海が目の前に広がってきそうです。

Allagash White（アラガッシュホワイト）
Selected by SPECS-TII Inc. (USA・アメリカ )Allagash White features a refreshing balance of citrus and spice (wheat, coriander, and Curaçao orange peel)that round out the flavor profile with little to no bitterness. Allagash White is best paired with savory dishes,
including sushi, as it has just the right hint of complementary acidity. Allagash White also brings balance to theteriyaki-like flavors in eel rolls and can tone down the heat in spicy tuna rolls. The subtle bitterness of the beerallows, for many other flavors to shine!
アラガッシュホワイトはシトラスとスパイスのさわやかなバランスが特徴です。酸味が程よく効いているため、寿司などの料理と合わせるのがおすすめです。うなぎ寿司の風味とバランスをとり、スパイシーツナロールの辛さを和らげます。
苦味が少ない分、他の味を引き立てます。

White Ale

白ビール
https://www.allagash.com/
beer/

Comment (UNISOKU)：
A sparkling wine with rich aroma and a sophisticated taste profile
香り豊かで味わいは穏やかなスパークリングワイン

Sparkling Wine

スパークリングワイン
https://en.abrau.ru/
collection/

Sushi with Teriyaki-like Eel

20 ビーズ・ヴィダルはナイアガラ地方で生産されるアイ
スワインです。黄金色で、アプリコットやシトラスの香りがします。食後のチーズケーキやアイスクリームにぴったりです。このワインはデザートワインが好きな人
なら誰でも気に入るでしょう。期待を裏切りません。
そして、我が家の猫のお墨付きです。乾杯 !

Cheesecake(Basque-style)Fermentationof Grapes
for White
Wines
白ワイン用
ブドウの発酵です。爽やかな甘味が特徴なワインです。

Comment (UNISOKU)：
Fresh, rich in aroma of grapes and sweet tasting wine
爽やかな青い葡萄の香り豊かな甘口ワイン

Food paring suggestions おすすめのおつまみ：
Mild cheeses (ricotta cheese),
non-aged goat cheese, or Bavaria Blu

Ricotta Cheese

Goat Cheese(Fromage au lait de chèvre)Cambozola(Blue Brie)

ワイン
https://www.august-ziegler.de/

スパイシーな香り
飲むと穏やか
泡立ちも上品
樽香も上品
程よく酸味も効いて
おいしい
辛さを感じる飲み口と思いきや、甘みもあり思ったより飲みやすい

蒸留酒

ChineseYellow Wine

マスカットのような
青い香り
甘いけど酸味もあり
しつこくない匂いは少し酸味が強いのかな？とおもいましたが口に含むと味を強く感じます。
後味もしっかりと苦みがのこり
これぞビール！って感じ。
リピートしたくなりました

黄酒

果汁
ベース

Without
Skin

Selected by nanoscore gmbh (Germany・ドイツ )Distilled
Liquor

醸造酒

Makgeolli

Grain
Based

韓国焼酎
(ソジュ)

Grain
Based

Barley大麦

米Shochu米

Lager Beer

白ワイン

下面発酵
ビール
（ラガー）

皮なし

19

飲みやすくていくらでもぐいぐい飲める

Rice

穀物ベース

Rice
White
Wine

辛口だけど香りと甘味もしっかりあって
さわやかな味わい

Soju

マッコリ

穀物ベース

非発泡性
ワイン

2018 年）

Wine

BrewageNon
Sparkling
Wine

AjilloIce Cream

Correlation Chart for Tasted Liquors 試飲したお酒の相関図

Fruit Juice
Based
スパークリング
ワイン

August Ziegler Scheurebe（アウグスト・ツィーグラー：ショイレーベ

マイルドな味わいのチーズ（リコッタチーズ, 若い(Non-aged)シェーブル, カンボゾーラ）

Ice Wine

Sparkling
Wine

Apetizers with olives

アウグスト・ツィーグラーはかつて隆盛を誇った甘口ワインから食事に合う辛口ワインまで、幅広く揃うワイナリー

20 Bees Vidal is an ice wine produced in the Niagara region with a rich golden color and a hint of apricot andcitrus. It is a perfect match for the after-dinner cheesecake, Italian delight or just plain ice cream. 20 Bees
Vidal is highly recommended to anyone who likes dessert wines—this one will not disappoint you and iseven fully endorsed by the taster’s cat. Cheers!

ブドウ

アヒージョ等

The August Ziegler Winery offers a wide range of wines, from sweet wines that once flourished to dry wines that pairwell with food. The Scheurebe is one of the refreshing sweet wines.

Selected by Worldwide Exchange LLC (USA・アメリカ )Grapes

オリーブをつかったピンチョス

TastedSpicy Tuna Roll

20 Bees Vidal（20 ビーズ ヴィダル ）アイスワインhttps://www.lakeviewwineco.com/

Food paring suggestions おすすめのおつまみ：
Apetizers with olives and Ajillo

焼酎

Sake
日本酒

Wheat
麦

20

言われなければウイスキーとして飲んでしまいそう
日本離れした焼酎

World Liquor Tour ~Distributor Selection~

TastedMowall（モウォール）各代理店がおすすめする地元のお酒をユニソク社員が試飲するイベントを勤務後に実施しました !

Selected by INA Korea Co., Ltd. (Korea・韓国 )Tasting Event at UNISOKU（East Asia）

The Mowall won the 2020 liquor of the year Presidential Award.
The Mowall taste profile is layered with a moderate sweetness, savory and slightly dry feeling.
It is a distilled soju that pairs well with all food, so it's good to drink for all occasions.

2021/12/27に実施しました。This event was held on 2021/12/27

Tasted2020 年に韓国酒品評会で最高賞の大統領賞を受賞。適度な甘みと香ばしさ、ややドライ感が重なった味わい。
どんな料理とも相性が良い蒸留焼酎なので、場面問わず飲むことができます。

Huangjiu（黄酒）塔牌本美（もち米ワイン）

Comment (UNISOKU)：The taste is like a mixture of fine flavors without peculiarities, with a smooththroat feel and a rich aftertaste.

Selected by SPECS-TII Technology (Beijing) Co., Ltd. (China・中国 )Huangjiu (Chinese: 黄酒 ) is a Chinese yellow wine with a 2,500 year-long history. Chinese people believe yellow
wine is a healthy drink because of its low alcohol content and high amount of amino acids. In traditional Chinese
medicine, yellow wine is sometimes used to enhance the efficacy of other remedies. Huangjiu is also used toseason many Chinese dishes and is an especially good combination with hairy crabs.

チャイニーズイエローワインとして知られる黄酒は、2500 年以上の歴史を持つ中国のアルコール飲料です。中国の人々は、黄酒はアルコール含有量が少なく、アミノ酸が多いため、健康的な飲み物であると信じています。
黄酒は飲むだけでなく中国料理に欠かせない調味料でもあります。特に毛ガニとの相性は抜群です。

クセのない上等な風味をいくつか混ぜ合わせたような味わいで、喉越しもよく後味も豊か。

Food paring suggestions おすすめのおつまみ：
Sashimi, tempura, and other Japanese dishes.

Soju
韓国焼酎

刺身、天ぷらなど和食なら何にでもTastedComment (UNISOKU)：
Soy sauce or caramel like toasty and slightly sweet tasting
liquor during meals

ほんのりとした甘味と醤油やカラメルのような香ばしさを併せ持つ食中酒

Shaoxing
Yellow Wine
紹興黄酒

Food paring suggestions おすすめのおつまみ：
Sweet and sour dishes like sweet and sour pork
酢豚等甘酢系、豚角煮
or soy-braised pork

http://www.tapaijiu.com/
index.php/Index/
show/tid/37

TastedSour Pork

https://www.buckskin.com.tw/

Soy-Braised Pork

Buckskin MUNICH HELLES ( バックスキン・ミュンヘンヘレス )旨味と甘みも持ち合わせた後味スッキリな日本酒

Buckskin シリーズの黒は苦すぎるし飲みやすさが際立つ青もいいのですが、その２つの真ん中のミュ
ンヘンヘレスが更に良いです。ミュンヘンヘレスは麦の香りが豊かでどんな料理にも合います。
ホタテのソテー、ポーチドエッグ、サラダ、サンドイッチなどの低カロリーのライトな食事から、フライドポテト、唐揚げ、ポークチョップなどの揚げ物の油っぽさを中和するのにもおすすめです。

Food paring suggestions おすすめのおつまみ：
Daily Japanese foods like Oden, Sweet dishes
like Inari sushi or potato salad are very good.
おでん等気負わない和食・イナリやポテサラ等
少し甘味の料理でもいいかも

カジュアルな食事の場面にて、チヂミやピンデトッ ( 韓国風おやきのようなもの ) と共に。

21

Selected by UNISOKU Co., Ltd. (Japan・日本 )ほんのり甘く穏やかな樽香を持った麦焼酎。ジャパニーズウィスキー好きにもお薦め。今、世界的に大人気かつ入手困難なのでウィスキーの代わりに飲むのも面白いかもしれません。

Comment (UNISOKU)：
Sweet, melting, tastes like lactobacillus beverage

Shochu焼酎
Sea food Korean pancake

樽）Comment (UNISOKU)：
Slightly sweet and gently barrel scented barley shochu. Recommended for enthusiasts of Japanese whiskies,
which have recently become popular worldwide and difficult to find. This might become its substitution.

Makgeolli is most suitable for casual parties, often with Korean pancakes.

Makgeolli
マッコリ

KUROUMA taru 40%（黒馬宮崎県神楽酒造による６年樽貯蔵焼酎を基調とした長期貯蔵酒。樽貯蔵に最適な麦焼酎を宮崎 高千穂の澄んだ空気の中で少しずつ呼吸させながら熟成を重ね、おだやかな甘い風味、そして芳醇でまろやかな味わいとなりました。さらに原酒を氷点下 20 度で濾過することにより、澄みきった芳香を引き出すことができました。
余韻の滑らかさ贅沢なアルコール分 40 度で味わう逸品です。

Selected by Lambda Ray Co., Ltd. (Korea・韓国 )Food paring suggestions おすすめのおつまみ：

Potato SaladThis is a six years old barley shochu from Kagura Shuzo in Miyazaki prefecture. The barley shochu breathes
and matures in barrels little by little in the clean air of Miyazaki's Takachiho, resulting in a gentle sweet flavor
and a rich and mellow taste profile. It is filtered at a temperature of -20 degrees to bring out its clear aroma,
producing a lingering smoothness and a luxurious 40% alcohol content.

Makgeolli in Pocheon（抱川のマッコリ）

甘口でまったりとした、乳酸飲料のように気軽に飲めるお酒

Inari Sushi

http://senkin.co.jp/

Roasted pork

Sausage

Oden

Sake
日本酒

Tasted

海鮮チヂミ

前田氏)
Selected by UNISOKU Co., Ltd. (Japan・日本

Comment (UNISOKU)：
Both umami and sweetness stand out, with a clean aftertaste.

Selected by Shumotek Corp. (Taiwan・台湾 )Sea food Korean pancake

Usui UI Kimoto- Junmai（羽水 ui 生酛純米）

栃木県にある仙禽酒造のブランドのひとつ「羽水」をリニューアルした日本酒。最も伝統的な酒造り技法とされる生酛造りを採用し、甘みと酸味を最大限に引き出した個性的な味になっています。

Comment (UNISOKU)：
Pleasant clean finish! 酸味が効いたごくごく飲めるビール
Food paring suggestions おすすめのおつまみ：
Classic sausage, Roasted pork ソーセージ・豚のロースト

TastedSashimiUsui UI is an improved sake from the original brand, USUI in Senkin Shuzo located in Tochigi prefecture.
The use of the most traditional brewing technique, Kimoto, brings the unique taste that maximizes sweetness
and sourness.

The Buckskin Schwarzbier is bitter-flavored and the Heferweizen tastes fine, but the one in the
between is even better:
The Munich Helles, with its refreshing barley fragrance, can match almost any food type, whether it is
low-calorie light foods such as sautéed scallops, poached eggs, salads, or sandwiches. It evencomplements French fries, Tang Yang chicken/pork chops and other deep-fried foods.

Lager beer
下面発酵ビール（ラガー）Tempurahttps://www.mowall.co.kr/

https://www.kagurashuzo.
co.jp/taru/

Food paring suggestions おすすめのおつまみ：(If it's on the rocks)
Nuts, Baked sweets or Salted rice crackers(ロックなら)ナッツ, 焼き菓子, 意外に塩味のあられも

22

Nuts

Baked sweets

Salted rice crackers

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Where to Contact
in Your Area

代理店紹介

■ SPM, ■ Optics, ■ SPM & Optics

EUROPE／ISRAEL／NORTH AFRICA

nanoscore GmbH

Maisebachstraße 3, 61479 Glashütten, Germany
TEL +49 (0) 6174-619-950
FAX +49 (0) 6174-619-949
t.berghaus@nanoscore.de
www.nanoscore.deAnarghya Innovations & Technology Pvt. Ltd.,INDIA

CANADA／USA／MEXICO

20 Cabot Blvd., Suite 300
Mansfield, MA 02048 USA
TEL +1-508-618-1292
usa@specs-tii.com
www.specs-tii.com (Coming Soon)

Worldwide Exchange LLC

No. 111, Jiabei 1st St. Zhunan, Miaoli County 35058,
TaiwanTEL +886-37-612810 (Office), +886-919-706759
febchangs@gmail.com
info@shumotek.com
www.shumotek.com

SOUTH KOREAINA Korea Co., Ltd.
12F, 110 Mallijae-ro, Mapo-gu,
Seoul, 04184 Korea
TEL +82-2-714-5456
FAX +82-2-714-5457
shpark@inakr.com
www.inakr.com

Lambda Ray Co., Ltd.

For customers outside those areas, contact UNISOKU directly.

Eventsunisoku.co.jp

TAIWANSHUMOTEK CORP.

55-16, 247beon-gil, Mabuk-ro,
Giheung-gu,Yongin-si,
Gyeonggi-do, 16891 Korea
TEL +82-31-693-5776
FAX +82-31-284-6089
jayjeong@lambdaray.co.kr
www.lambdaray.co.kr

P. O. Box 1559
Princeton, NJ 08542
info@wwe-us.com
www.wwe-us.com

CHINA

Room 418A, Building 39, 4Workers Stadium North Rd,
Chaoyang District, Beijing 100027, P.R.China
TEL +86-10-65010355
sales@specs-tii.com.cn
www.specs-tii.com.cn#32, 7th A Main Road, Muthyalanagar,
Mathikere, Bengaluru, Karnataka – 560054 India.
Tel: +91-80-23376488,
Fax: +91-80-23375606,
Cell & WhatsApp: +91-9845019130
sales@anarghyainnotech.com
www.anarghyainnotech.com

SPECS-TII Inc.

SPECS-TII Technology (Beijing) Co., Ltd.

Mail：info@unisoku.co.jp

学会・展示会情報

unisoku.com

20220411

Editor ; Riku Shibuya(Chief), Yoshihide Seino, Katuya Iwaya, Nozomi Nishiyama, Hiroko Fusadate, Chiaki Sawada