List of Other analytical equipment products
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It can enhance the user's immersion.
- Other analytical equipment
We will exhibit at the Information Processing Society of Japan from March 15 (Friday) to March 17 (Sunday), 2024.
At the booth, we will introduce our equipment, provide demonstrations, and explain the data that can be obtained. We are also distributing materials summarizing research presentations using Tobii's eye tracking from 2022! Please feel free to stop by. For details about the conference, click here: https://www.ipsj.or.jp/event/taikai/86/index.html
"Mobile Research Lab" Tobii Pro Fusion
- Other analytical equipment
We will exhibit at the Institute of Electronics, Information and Communication Engineers from March 4 (Monday) to March 8 (Friday), 2024.
At the booth, we will introduce our equipment, provide demonstrations, and explain the data that can be obtained. We are also distributing materials summarizing research presentations using Tobii's eye tracking from 2022! Additionally, we plan to hold an industrial session, so please feel free to stop by. For more details about the conference, please visit here: https://www.ieice.org/jpn_r/activities/taikai/general/2024/index.html
Accident prevention and rapid recovery response are now possible! It becomes clear what has not been taught to the younger generation.
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For the realization of further safe and stable transportation! Training and succession with higher quality in a shorter period!
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Eye tracking (gaze tracking and gaze measurement) is useful for educating beginners.
- Other analytical equipment
We provide a report that analyzes and summarizes know-how! Education can be advanced step by step!
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You can create comprehensive manuals! Young professionals learn the efficiency of skilled workers and adhere to deadlines!
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The era demands a remote support and guidance system! Introducing smart glasses capable of gaze measurement.
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For the realization of further safe and stable transportation! The veteran conductor is ensuring visual confirmation!
- Other analytical equipment
![[Column] To Companies Engaged in Tr...](https://image.www.ipros.com/public/product/image/49b/2000691706/IPROS26090341557614262656.png?w=280&h=280){kind=small}
To achieve stable transportation! Do you have any concerns regarding safety training for crew members?
- Other analytical equipment
Verbalize the knowledge behind actions and backgrounds! Utilizing eye tracking (gaze measurement and analysis) can improve equipment operating rates through rapid and appropriate trouble response.
- Other analytical equipment
![[Column] Reducing Picking Errors! F...](https://image.www.ipros.com/public/product/image/620/2000691732/IPROS32312522064786064361.png?w=280&h=280){kind=small}
Reduce picking errors on-site and improve labor productivity! Clarify the differences in workers' skills through eye tracking (gaze measurement and analysis)!
- Other analytical equipment
![[Column] To companies with setup ch...](https://image.www.ipros.com/public/product/image/738/2000691734/IPROS47989309396064514673.png?w=280&h=280){kind=small}
Verbalize the specific necessary actions and the knowledge that supports them! Review the work and improve production efficiency!
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The recycling motor dismantling machine cuts the motor and stator and separates copper from the iron and aluminum cover; this is a recycling machine for motor copper separation.
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It overturns the common knowledge of solution component analysis.
- Other analytical equipment
We provide manufacturing technology and data analysis evaluation technology.
- others
- Non-destructive testing
- Other analytical equipment
"Experiences Regarding Shannon's First Theorem" - Original Technology Development -
* "Shannon's First Theorem" The relationship between information and entropy (as information increases, entropy decreases) Entropy: The average amount of information per symbol from a memoryless information source ... "Experiences Related to Shannon's First Theorem" — Original Technology Development — 1) Theme "Shannon's First Theorem is practically useful based on experience" 1-1) Useful for creating models related to the consideration of basic systems (Note 1) 1-2) Useful as foundational knowledge regarding data and noise (While it may be difficult to understand its necessity in routine development tasks, when considered from the perspective of high originality in research and development of new products, it is very effective as a research viewpoint (Note 2)) Note 1: Example - Consistency and systematization of objects related to system development (e.g., algorithms) Note 2: Example - Cause analysis of machine vibrations, electrical noise, program bugs, and defects...
Technology to control low-frequency resonance phenomena and high-frequency nonlinear phenomena.
- Scientific Calculation and Simulation Software
- Other analytical equipment
- others
Manufacturing technology for ultrasound probes (consulting support)
Manufacturing Technology for Ultrasonic Probes (Consulting Available) ――Surface Treatment of Piezoelectric Elements――Dynamic Characteristics Evaluation Technology―― The Ultrasonic System Research Institute has developed manufacturing technology for ultrasonic probes that can control ultrasonic propagation states from 500 Hz to over 900 MHz, based on the classification of ultrasonic propagation characteristics (acoustic characteristics). This includes surface treatment of piezoelectric elements and evaluation of dynamic characteristics. We can develop original ultrasonic probes tailored to specific purposes (for vibration and sound pressure measurement, oscillation control, or dual-use types). This technology is available for consulting. If you are interested, please contact us via email. Ultrasonic Probe: Overview Specifications - Measurement Range: 0.01 Hz to 200 MHz - Oscillation Range: 0.5 kHz to 25 MHz - Propagation Range: 0.5 kHz to over 900 MHz (confirmed through analysis) - Materials: Stainless steel, LCP resin, silicon, Teflon, glass, etc. - Oscillation Equipment: Example - Function Generator Propagation Characteristics of Ultrasonic Probes 1) Vibration Modes 2) Nonlinear Phenomena 3) Response Characteristics 4) Interactions
Optimization technology for ultrasonic cleaning machines
- others
- Other analytical equipment
- pump
Manufacturing technology for ultrasound probes (consulting support)
Manufacturing Technology for Ultrasonic Probes (Consulting Available) ――Surface Treatment of Piezoelectric Elements――Dynamic Characteristics Evaluation Technology―― The Ultrasonic System Research Institute has developed manufacturing technology for ultrasonic probes that can control ultrasonic propagation states from 500 Hz to over 900 MHz, based on the classification of ultrasonic propagation characteristics (acoustic characteristics). This includes surface treatment of piezoelectric elements and evaluation of dynamic characteristics. We can develop original ultrasonic probes tailored to specific purposes (for vibration and sound pressure measurement, oscillation control, or dual-use types). This technology is available for consulting. If you are interested, please contact us via email. Ultrasonic Probe: Overview Specifications - Measurement Range: 0.01 Hz to 200 MHz - Oscillation Range: 0.5 kHz to 25 MHz - Propagation Range: 0.5 kHz to over 900 MHz (confirmed through analysis) - Materials: Stainless steel, LCP resin, silicon, Teflon, glass, etc. - Oscillation Equipment: Example - Function Generator Propagation Characteristics of Ultrasonic Probes 1) Vibration Modes 2) Nonlinear Phenomena 3) Response Characteristics 4) Interactions
Ultrasonic oscillation control technology for controlling nonlinear vibration phenomena
- others
- Other analytical equipment
- Non-destructive testing
Ultrasonic oscillation probe utilizing a combination of stainless steel wire and Teflon tube.
The Ultrasonic System Research Institute has developed a technology for controlling ultrasonic oscillation using nonlinear vibration phenomena caused by surface elastic waves in wire materials. By confirming the basic acoustic properties (response characteristics, propagation characteristics) of various wire materials (stainless steel, copper, resin, etc.), the combination of stainless steel and Teflon tubes enables complex acoustic characteristics. As a result, the desired ultrasonic propagation state can be achieved through oscillation control. Using an ultrasonic oscillation control probe, we set the conditions for sweep oscillation based on the measurement and analysis of the intended purpose and interactions. In particular, to control low-frequency resonance phenomena, we utilize high-frequency nonlinear phenomena. For this purpose, sound pressure measurements require a measurement range of over 100 MHz. The key point is to evaluate the dynamic vibration characteristics of the system based on the measurement and analysis of sound pressure data. We have established and confirmed new evaluation criteria (parameters) that indicate the state of ultrasound suitable for the intended purpose. Note: - Nonlinear characteristics (dynamic characteristics of harmonics) - Response characteristics - Fluctuation characteristics - Effects due to interactions
Ultrasonic probe-based sweep oscillation system - a technology for controlling low-frequency resonance phenomena and high-frequency nonlinear phenomena.
- Non-destructive testing
- Other analytical equipment
- others
Ultrasonic oscillation probe utilizing a combination of stainless steel wire and Teflon tube.
The Ultrasonic System Research Institute has developed a technology for controlling ultrasonic oscillation using nonlinear vibration phenomena caused by surface elastic waves in wire materials. By confirming the basic acoustic properties (response characteristics, propagation characteristics) of various wire materials (stainless steel, copper, resin, etc.), the combination of stainless steel and Teflon tubes enables complex acoustic characteristics. As a result, the desired ultrasonic propagation state can be achieved through oscillation control. Using an ultrasonic oscillation control probe, we set the conditions for sweep oscillation based on the measurement and analysis of the intended purpose and interactions. In particular, to control low-frequency resonance phenomena, we utilize high-frequency nonlinear phenomena. For this purpose, sound pressure measurements require a measurement range of over 100 MHz. The key point is to evaluate the dynamic vibration characteristics of the system based on the measurement and analysis of sound pressure data. We have established and confirmed new evaluation criteria (parameters) that indicate the state of ultrasound suitable for the intended purpose. Note: - Nonlinear characteristics (dynamic characteristics of harmonics) - Response characteristics - Fluctuation characteristics - Effects due to interactions
Ultrasonic probe capable of controlling ultrasonic propagation conditions above 900 MHz.
- Other analytical equipment
- Non-destructive testing
- others
Control technology for acoustic flow (nonlinear phenomena) using a portable ultrasonic cleaner.
Ultrasonic Oscillation Control Technology Using Portable Ultrasonic Cleaners and Ultrasonic Probes The Ultrasonic System Research Institute has developed a technology to control "nonlinear phenomena of ultrasound (acoustic flow)" through the combination of portable ultrasonic cleaners and ultrasonic probes for megahertz oscillation control. This technology controls the dynamic characteristics of ultrasound (cavitation and acoustic flow) based on the analysis of changing ultrasonic sound pressure data (nonlinear). Tailored to the structure, material, and acoustic properties of specific objects, it measures and confirms the interactions between ultrasound, the object, the water tank, fixtures, and cleaning solutions to establish optimal oscillation conditions for the ultrasonic probe that suit the intended purpose. Note: Oscillation waveform, oscillation output, control conditions, etc. (e.g., square wave, duty 47%, 13V, sweep oscillation, 3-18 MHz...) Through original measurement and analysis technology for ultrasonic propagation states, we provide consulting services for the evaluation of acoustic flow and a wealth of know-how.
Development of an original ultrasonic system utilizing surface elastic wave control technology based on sound pressure measurement analysis.
- others
- Other analytical equipment
- Secondary steel products
A technology for controlling two types of ultrasonic probes from a single oscillation channel.
The Ultrasonic System Research Institute has developed a technology to control nonlinear ultrasonic phenomena by utilizing the interactions generated by simultaneously oscillating two types of ultrasonic probes from one oscillation channel of a function generator. Note: Nonlinear (resonance) phenomena refer to the resonance phenomenon of ultrasonic vibrations that occurs when harmonics generated by original oscillation control are realized at high amplitudes due to resonance. By optimizing the ultrasonic propagation characteristics of various materials according to their intended purpose, efficient ultrasonic oscillation control becomes possible. Through the measurement and analysis of sound pressure data from ultrasonic testers, this system technology allows for the dynamic changes of surface elastic waves to be controlled according to their intended use. Practically, the use of multiple (two types of) ultrasonic probes for multiple (two types of) oscillations (sweep oscillation, pulse oscillation) generates complex vibration phenomena (original nonlinear resonance phenomena), achieving high sound pressure at high frequency propagation states, or low frequency propagation states with high sound pressure levels tailored to the desired natural frequency.
We have developed a "basic experimental system" for ultrasonic cleaning.
- others
- Other analytical equipment
- Water Treatment
Ultrasonic sound pressure data analysis and evaluation technology (Leading to new ultrasonic applications from ultrasonic sound pressure and vibration data)
The Ultrasonic System Research Institute conducts consulting related to ultrasonic applications using a technology that measures, analyzes, and evaluates the propagation state of ultrasound, applying feedback analysis techniques based on multivariate autoregressive models. By organizing the measurements, analyses, and results obtained from ultrasonic testers chronologically, we establish and verify new evaluation criteria (parameters) that indicate the appropriate ultrasonic state for the intended purpose. Note: - Nonlinear characteristics (dynamic characteristics of acoustic flow) - Response characteristics - Fluctuation characteristics - Effects due to interactions By developing original measurement and analysis methods that consider the acoustic properties of the target object and surface elastic waves, we deepen our understanding of the relationships between various effects related to vibration phenomena, referencing statistical mathematical concepts. As a result, there is an increasing number of cases demonstrating that new nonlinear parameters are very effective regarding the propagation state of ultrasound and the surface of the target object. In particular, evaluation cases related to cleaning, processing, and surface treatment effects lead to successful control and improvement based on favorable confirmations.
To stabilize the effects of cavitation, a statistical perspective is essential — a technology to optimize nonlinear ultrasonic phenomena according to specific purposes.
- others
- Scientific Calculation and Simulation Software
- Other analytical equipment
Ultrasonic sound pressure data analysis and evaluation technology (Leading to new ultrasonic applications from ultrasonic sound pressure and vibration data)
The Ultrasonic System Research Institute conducts consulting related to ultrasonic applications using a technology that measures, analyzes, and evaluates the propagation state of ultrasound, applying feedback analysis techniques based on multivariate autoregressive models. By organizing the measurements, analyses, and results obtained from ultrasonic testers chronologically, we establish and verify new evaluation criteria (parameters) that indicate the appropriate ultrasonic state for the intended purpose. Note: - Nonlinear characteristics (dynamic characteristics of acoustic flow) - Response characteristics - Fluctuation characteristics - Effects due to interactions By developing original measurement and analysis methods that consider the acoustic properties of the target object and surface elastic waves, we deepen our understanding of the relationships between various effects related to vibration phenomena, referencing statistical mathematical concepts. As a result, there is an increasing number of cases demonstrating that new nonlinear parameters are very effective regarding the propagation state of ultrasound and the surface of the target object. In particular, evaluation cases related to cleaning, processing, and surface treatment effects lead to successful control and improvement based on favorable confirmations.
Consulting on ultrasonic cleaning technology using optimization techniques for cavitation and acoustic flow.
- others
- Other analytical equipment
- Traceability
Ultrasonic sound pressure data analysis and evaluation technology (Leading to new ultrasonic applications from ultrasonic sound pressure and vibration data)
The Ultrasonic System Research Institute conducts consulting related to ultrasonic applications using a technology that measures, analyzes, and evaluates the propagation state of ultrasound, applying feedback analysis techniques based on multivariate autoregressive models. By organizing the measurements, analyses, and results obtained from ultrasonic testers chronologically, we establish and verify new evaluation criteria (parameters) that indicate the appropriate ultrasonic state for the intended purpose. Note: - Nonlinear characteristics (dynamic characteristics of acoustic flow) - Response characteristics - Fluctuation characteristics - Effects due to interactions By developing original measurement and analysis methods that consider the acoustic properties of the target object and surface elastic waves, we deepen our understanding of the relationships between various effects related to vibration phenomena, referencing statistical mathematical concepts. As a result, there is an increasing number of cases demonstrating that new nonlinear parameters are very effective regarding the propagation state of ultrasound and the surface of the target object. In particular, evaluation cases related to cleaning, processing, and surface treatment effects lead to successful control and improvement based on favorable confirmations.
A technology has been developed to control the nonlinear phenomena of ultrasonic vibrations propagating to the target object based on classification techniques of ultrasonic waves and oscillation cont...
- others
- Other analytical equipment
- Non-destructive testing
Dynamic control technology of ultrasound applied using Shannon's juggling theorem.
The Ultrasonic System Research Institute has developed a "Dynamic Control Method for Megahertz Ultrasound" by applying Shannon's Juggling Theorem. << Application of Shannon's Juggling Theorem >> (F + F2 + ...) * H = (V + V2 + ...) * N F: The oscillation ratio of the base ultrasonic 1 F2: The oscillation ratio of the base ultrasonic 2 F3: The oscillation ratio of the base ultrasonic 3 H: Basic time (maximum control cycle time) (H = MAX(oscillation cycle of ultrasonic 1, oscillation cycle of ultrasonic 2, ...)) V: Megahertz oscillation cycle time by ultrasonic probe 1 V2: Megahertz oscillation cycle time by ultrasonic probe 2 V3: Megahertz oscillation cycle time by ultrasonic probe 3 V4: Megahertz oscillation cycle time by ultrasonic probe 4 (In the case of pulse oscillation, cycle time = 1) N: Adjustment parameters for harmonics 7, 11, 13, 17, 23, 43, 47, ... The key point (know-how) is to control the occurrence state of nonlinear phenomena based on the measurement, analysis, and evaluation of sound pressure data.
Application of a new surface inspection technology using megahertz ultrasonic oscillation.
- Non-destructive testing
- Other analytical equipment
- others
Sweep oscillation control technology using an ultrasonic probe for controlling resonance phenomena and nonlinear phenomena.
The Ultrasonic System Research Institute is applying and developing manufacturing technology for original ultrasonic probes. We have developed technology to control the nonlinear vibration phenomena of surface elastic waves through oscillation control techniques based on the acoustic characteristics of the probes, and we provide consulting services for various ultrasonic utilization technologies. The key point is the optimization of the ultrasonic propagation section (Note). Note: By relaxing and homogenizing surface residual stress, stable ultrasonic oscillation control becomes possible. Setting technology for oscillation control conditions: 1) Setting of oscillation waveforms corresponding to the vibration modes of devices and equipment. 2) Setting of sweep conditions corresponding to the vibration modes of devices and equipment. 3) Setting of output levels corresponding to the vibration modes of devices and equipment. To achieve this, it is important to evaluate the characteristics related to ultrasonic propagation conditions through operational verification of the ultrasonic propagation characteristics of the original probe (sound pressure level, frequency range, nonlinearity, dynamic characteristics, etc.). Ultrasonic propagation characteristics: 1) Detection of vibration modes (changes in autocorrelation). 2) Detection of nonlinear phenomena (changes in bispectrum). 3) Detection of response characteristics (impulse response). 4) Detection of interactions (power contribution rate).
Application of megahertz ultrasonic oscillation control technology
- Scientific Calculation and Simulation Software
- Other analytical equipment
- others
Technical documentation on ultrasonic sound pressure measurement.
<<Analysis and Evaluation of Ultrasonic Sound Pressure Data>> 1) Regarding time series data, we will analyze and evaluate the statistical properties of the measurement data (stability and changes of ultrasonic waves) through feedback analysis using a multivariate autoregressive model. 2) The effects of the oscillation part due to ultrasonic oscillation will be analyzed and evaluated in terms of the response characteristics of ultrasonic vibration phenomena concerning the surface condition of the target object through impulse response characteristics and autocorrelation analysis. 3) The interaction between the oscillation and the target object (cleaning items, cleaning solutions, water tanks, etc.) will be evaluated through the analysis of power contribution rates. 4) Regarding the use of ultrasonic waves (cleaning, processing, stirring, etc.), we will analyze and evaluate the dynamic characteristics of ultrasonic waves based on the nonlinear phenomena (results of bispectral analysis) of the target object (propagation of surface elastic waves) or the ultrasonic waves propagating in the target liquid, which are the main factors of the ultrasonic effect. This analysis method is realized based on previous experience and achievements by adapting the dynamic characteristics of complex ultrasonic vibrations to the analysis methods of time series data. The following tool will be used for the analysis: "R," a free statistical processing language and environment.
Ultrasound measurement and analysis can be easily performed with the ultrasound tester NA (10MHz oscilloscope type).
- Other analytical equipment
Ultrasound, Fine Bubbles, and Surface Elastic Waves - Surface Treatment Technology -
The Ultrasonic System Research Institute has developed (and published) technology to control the propagation phenomena of megahertz ultrasonic waves using ultrasound and fine bubbles/microbubbles and surface elastic waves. By optimizing the acoustic properties of surface elastic waves (in resin, steel, stainless steel, glass, ceramics, etc.) for the technology that alleviates surface residual stress using ultrasound and fine bubbles/microbubbles, we have developed methods for utilizing ultrasound tailored to specific purposes. In particular, there has been an increase in achievements related to ultrasonic cleaning, plating treatment, and the homogenization effect of liquids. Ultrasonic Probe: Outline Specifications Measurement Range: 0.01 Hz to 100 MHz Oscillation Range: 1 kHz to 25 MHz Propagation Range: 1 kHz to over 900 MHz Materials: Stainless steel, LCP resin, silicon, Teflon, glass, etc. Oscillation Equipment Example: Function Generator Ultrasonic Propagation Characteristics 1) Detection of vibration modes (changes in self-correlation) 2) Detection of nonlinear phenomena (changes in bispectrum) 3) Detection of response characteristics (analysis of impulse response) 4) Detection of interactions (analysis of power contribution rates)
Consulting support for the development of ultrasonic devices based on technology that controls surface acoustic waves through surface treatment of ultrasonic probe piezoelectric elements.
- Other measuring instruments
- Non-destructive testing
- Other analytical equipment
Development of ultrasonic sound pressure data analysis and evaluation technology considering interaction and response characteristics.
We are evaluating the characteristics of ultrasonic equipment according to the purpose of use. <<Analysis and Evaluation of Ultrasonic Sound Pressure Data>> 1) Regarding time series data, we analyze and evaluate the statistical properties of the measurement data (stability and changes of ultrasound) through feedback analysis using a multivariate autoregressive model. 2) The effects of the oscillation part due to ultrasonic oscillation are analyzed and evaluated in relation to the surface condition of the target object through impulse response characteristics and autocorrelation analysis as response characteristics of the ultrasonic vibration phenomenon. 3) We evaluate the interaction between the oscillation and the target object (cleaning items, cleaning solutions, water tanks, etc.) through the analysis of power contribution rates. 4) Regarding the use of ultrasound (cleaning, processing, stirring, etc.), we analyze and evaluate the dynamic characteristics of ultrasound based on the nonlinear phenomena (results of bispectral analysis) of the target object (propagation of surface elastic waves) or the ultrasound propagating in the target liquid, which are the main factors of the ultrasonic effect. This analysis method is realized based on past experiences and achievements by adapting the dynamic characteristics of complex ultrasonic vibrations to the analysis methods of time series data using ultrasonic measurement data.
Low-capacity, high-speed replacement gas cell! Measurement is possible without calibration and without background measurement.
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Specialized in the mid-infrared region rich in chemical information for the measurement wave number domain! Usable in both lab and process environments.
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Using a robust interferometer! Active in industrial fields such as security and defense, chemical industry, and urban air quality monitoring.
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Meets the IP67 dust and water resistance standards! Targeted at everyone involved in field applications!
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A compact FTIR spectrometer with a footprint equivalent to one A4 sheet of paper! It enables incoming inspection of raw materials, quality control, and quantitative analysis of target components.
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Eliminate bottlenecks! Complete analysis tasks more quickly with less effort and higher throughput.
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FT-IR with excellent qualitative capabilities! It can accurately and in real-time quantify the concentration of each component.
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Increase productivity with Bruker's innovative technology! Maximize your FT-IR analysis!
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Excellent performance! The user interface supports 17 languages, including Japanese.
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Application in various fields is possible! Automatically monitor gas concentration with high precision and in real-time.
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Verified through the "EURO6" measurement test for phased automobile emissions regulations in the EU.
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Rapid and efficient monitoring! Ensuring the safety and quality of feed achieved through FT-NIR and XRF!
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Equipped with a telescope sight scope! Can be used for remote sensing of harmful gases, etc.
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![[Technical Data] High-Throughput Sc...](https://image.www.ipros.com/public/product/image/216/2000769714/IPROS18107906307725572260.png?w=280&h=280){kind=small}
A dramatic improvement in operational efficiency is expected, as well as new applications!
- Other analytical equipment