Shogo Kiryu

发表

Detection threshold for distortions due to jitter on digital audio

Akira Nishimura, Shokichiro Yoshikawa, Juro Ohga, 2005 .

A Psychoacoustic Measurement and ABR for the Sound Signals in the Frequency Range Between 10 kHz and 24 kHz

Kaoru Ashihara, Shogo Kiryu, Mizuki Omata, 2008 .

Demonstration of the Panoramic Sound Field System

Kaoru Ashihara, Shogo Kiryu, Motoki Kawano, 2014 .

Development of quantum hall array resistance standards at NMIJ

Taro Itatani, Sucheta Gorwadkar, Nobu-hisa Kaneko, 2008, 2008 Conference on Precision Electromagnetic Measurements Digest.

Psychoacoustic Measurement and Auditory Brainstem Response in the Frequency Range Between 10 kHz and 30 kHz

Kaoru Ashihara, Shogo Kiryu, Mizuki Omata, 2010 .

Native graphene oxides at graphene edges

Yasuhiro Fukuyama, Nobu-hisa Kaneko, Shogo Kiryu, 2013, 2012 Conference on Precision electromagnetic Measurements.

Shunt Module Development for Simple DC High-Current Measurements

Masashi Saito, Atsushi Domae, Shogo Kiryu, 2018, 2018 Conference on Precision Electromagnetic Measurements (CPEM 2018).

A 2-Way Loudspeaker Array System with Pseudorandom Spacing for Music Concerts

Kaoru Ashihara, Shogo Kiryu, Yuki Ayabe, 2010 .

Evaluation of ac-dc difference of thermal converters using an SFQ-based D/A converter

Masaaki Maezawa, Akira Shoji, Hitoshi Sasaki, 2000, Conference on Precision Electromagnetic Measurements. Conference Digest. CPEM 2000 (Cat. No.00CH37031).

Estimate of Transmission state by using a control with DSP in a magnetic field resonance type wireless power transfer

Masaya Watada, Shogo Kiryu, Akira Mori, 2012 .

Preliminary Results of Calculation of a Sound Field Distribution for the Design of a Sound Field Effector Using a 2-Way Loudspeaker Array with Pseudorandom Configuration

Kaoru Ashihara, Shogo Kiryu, Yoshihiro Iijima, 2008 .

A Jitter Simulator on Digital Data

Kaoru Ashihara, Shogo Kiryu, 2001 .

An integrated dc squid gradiometer for biomagnetic application

Naoko Kasai, Shogo Kiryu, Kazuo Chinone, 1989, Systems and Computers in Japan.

Perception of Movements of a Focused Sound Generated with a Linear Loudspeaker Array System

Ichiki Manon, Kaoru Ashihara, Tomoaki Tanno, 2008 .

Initial Evaluation of an Evolvable Microwave Circuit

Yuji Kasai, Tetsuya Higuchi, Masahiro Murakawa, 2000, ICES.

A Preliminary Experimental Study on Perception of Movement of a Focused Sound Using a 16-Channel Loudspeaker Array

Kaoru Ashihara, Teruki Oto, Daiki Sato, 2007 .

New Design of Quantized Hall Resistance Array Device

Taro Itatani, Sucheta Gorwadkar, Nobu-hisa Kaneko, 2013, IEEE Transactions on Instrumentation and Measurement.

Feasibility study of on-chip class E DC-DC converter

Tadashi Suetsugu, Marian K. Kazimierczuk, Shogo Kiryu, 2003, Proceedings of the 2003 International Symposium on Circuits and Systems, 2003. ISCAS '03..

Analysis of voice-quality features of speech that expresses "anger", "joy", and "sadness" uttered by radio actors and actresses

Shoichi Takeda, Shogo Kiryu, Yuuri Yasuda, 2008, INTERSPEECH.

Wireless power transmission with a sown auxiliary coil to improve power efficiency for an implantable device

Shogo Kiryu, Ryunosuke Sasaki, Kohei Koizumi, 2020 .

Evaluation of Linearity Characteristics in Digital Voltmeters Using a PJVS System With a 10-K Cooler

Nobu-hisa Kaneko, Michitaka Maruyama, Chiharu Urano, 2015, IEEE Transactions on Instrumentation and Measurement.

First Attempt to Develop an On-Chip Double-Shielded QHR Device for Use in AC Measurements

Nobu-hisa Kaneko, Franz-Josef Ahlers, Takehiko Oe, 2013, IEEE Transactions on Instrumentation and Measurement.

Observation of Quantized Voltage Steps Using a Josephson Junction Array Driven by Optoelectronically Generated Pulses

Taro Itatani, Sucheta Gorwadkar, Nobu-hisa Kaneko, 2007, IEEE Transactions on Instrumentation and Measurement.

An Analysis of a Symmetric Wireless Power Transfer Circuit for a Frequency Control Method by Measurement of the Transmitter Current to Obtain Maximum Load Power

Yuichi Shimatani, Atsushi Domae, Shogo Kiryu, 2013 .