Last Updated： Aggregation Period:Aug 19, 2026～Sep 15, 2026
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Aug 19, 2026～Sep 15, 2026
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Aug 19, 2026～Sep 15, 2026
This ranking is based on the number of page views on our site.
7171～7200 item / All 7843 items
Why can't we detect abnormalities quickly?
The cause lies in the measurement frequency range. Initial damage to bearings cannot be detected at conventional frequencies below 1 kHz. This white paper summarizes the reasons why measurements in the high-frequency range (10 kHz to 30 kHz) change predictive maintenance.
Many equipment troubles depend on how quickly initial damage to bearings can be detected.
This document presents actual measurement data showing that bearing damage progresses from high frequency to medium frequency to low frequency, while organizing the differences in diagnostic accuracy brought about by high frequency measurements.
Okayama University Silicon Photonics Engineering Laboratory
Exhibition and demonstration of photonic city electric sensors to prevent electrical accidents in satellites.
Automatic control devices, position, angle, and control sensors.
Our company started with the repair of instruments mounted on ships and aircraft, as well as the manufacturing of gyros for attitude control devices. Since then, we have been committed to prioritizing quality in the manufacturing and repair of position, angle, and control sensors used in automatic control equipment, as well as various measuring instruments. We will respond to changes in the times, challenge ourselves with advancing technologies, engage in environmentally friendly manufacturing, and consider the harmony between people and nature to contribute to the development of local communities.
Advanced predictive maintenance utilizing Azure Databricks. Detection accuracy that takes into account changes in the surrounding environment.
We will explain our (NTP) achievements in building an advanced failure prediction model that combines equipment data with spatial data. In addition to IoT sensor data such as equipment vibration and pressure, we integrated surrounding environmental data, such as pedestrian flow and material placement obtained from LiDAR and cameras, along a time axis. As a result, we successfully visualized the "impact of environmental changes on equipment," which had previously been difficult to capture, significantly improving the accuracy of abnormal signal detection. The case of digital twin implementation through a near-real-time dashboard directly contributes to stable operations on-site. Please download our support achievement document summarizing the actual implementation scheme and results for free right now.
The low-cost small liquid level sensor measures liquid levels using an internal hermetic reed switch and a magnetic float.
Manufacturer: KUS, Dongguan Zhengyang Electronic Mechanical Co., Ltd. Headquarters: Dongguan City, China Certifications Obtained: TS16949 ISO9001 ISO14001 CE TUV PED+AD2000 Product Name: KUS Low-Cost Compact Liquid Level Sensor for Meteorological Data Measurement Model: S5 Series Overview: The low-cost compact liquid level sensor measures liquid levels (such as water, fuel, oil, and chemical liquids) using an internal hermetically sealed reed switch and a magnetic float. Applications: It can be used in construction machinery, trucks, buses, work vehicles, agricultural machinery, meteorological data measurement, power generation equipment, and fuel tanks for ships, small tanks, and tanks with special shapes.
The low-cost small liquid level sensor measures liquid levels using a float that incorporates a built-in hermetic reed switch and magnet.
Manufacturer: KUS, Dongguan Zhengyang Electronic Mechanical Co., Ltd. Headquarters Factory: Dongguan City, China Certifications Obtained: TS16949 ISO9001 ISO14001 CE TUV PED+AD2000 Product Name: KUS Low-Cost Compact Liquid Level Sensor for Power Shovels Model: S5 Series Overview: The low-cost compact liquid level sensor measures liquid levels (water, fuel, oil, chemical liquids, etc.) using an internal hermetically sealed reed switch and a magnetic float. It can be used in construction machinery, trucks, buses, work vehicles, agricultural machinery, meteorological data measurement, power generation equipment, fuel tanks for ships, small tanks, and tanks of special shapes.
The low-cost small liquid level sensor measures liquid levels using a built-in hermetic reed switch and a magnetic float.
Manufacturer: KUS, Dongguan Zhengyang Electronic Mechanical Co., Ltd. Headquarters Factory: Dongguan City, China Certifications Obtained: TS16949 ISO9001 ISO14001 CE TUV PED+AD2000 Product Name: KUS Low-Cost Liquid Level Sensor for Agricultural Machinery Model: S5 Series Overview: The low-cost small liquid level sensor measures liquid levels (water, fuel, oil, chemical liquids, etc.) using an internal hermetically sealed reed switch and a magnetic float. It can be used in construction machinery, trucks, buses, work vehicles, agricultural machinery, meteorological data measurement, power generation equipment, fuel tanks for ships, small tanks, and specially shaped tanks.
It is the world's hit product, the bimetallic control thermostat (TPS).
The Temperature Power Sensor (TPS) is the product name for Matsuo's bimetallic control thermostat. Please refer to it as TPS. It is a globally successful product created by Matsuo. Traditionally, bimetal thermostats were mostly disk-type protectors, and there were very few that could be used as controllers. Matsuo began challenging this difficult field (bimetallic control thermostats) in 1975 and started full-scale sales in 1980. For more details, please download the catalog.
This is a control-type thermostat developed with the goal of being small and low-priced.
The principle of the temperature power sensor is the "control-type thermostat," developed with the goal of providing a high-performance bimetal thermostat that can be used as a controller in a compact and low-cost form. It combines a sharp jumping spring with a semi-permanent lifespan and a flat bimetal that does not experience material distortion, using two bimetals to increase sensitivity. The sharp jumping spring made of beryllium copper guarantees the high performance of the small DIFF. thermostat, switching ON/OFF with an extremely small hysteresis (approximately 0.05 m/m), which corresponds to about 3 degrees when converted to temperature. It can withstand over 2 million cycles of repeated operation. For more details, please download the catalog.
We will compare the lifespan of temperature power sensors and disc-type thermostats.
We will compare the characteristics of the temperature power sensor (controller) and the disk-type thermostat (protector). The lifespan of the "temperature power sensor" is 100,000 cycles at rated load (within the range of no temperature change) and 7 million cycles at minimal load (within the range of no temperature change), while the "disk-type thermostat" has a lifespan of 10,000 cycles for use as a protector (within the range of not becoming inoperative). Both have a contact configuration that turns OFF with rising temperature and turns ON with rising temperature, but the "temperature power sensor" has transfer contacts. For more details, please download the catalog.
The mechanical lifespan of the temperature power sensor is constrained when used under heavy load.
This is an explanation about lifespan under different loads. The mechanical lifespan of the temperature power sensor exceeds 2 million cycles, but when used under heavy load, the lifespan is limited due to contact wear. The lifespan indication is based on 100,000 cycles at rated load, so if used below the rated load, the lifespan will be even longer. For more details, please download the catalog.
In air and water, water is more effective at absorbing heat from objects, so the thermal time constant is smaller.
In the thermal time constant of temperature power sensors, those with good thermal conductivity become familiar easily, while those with poor thermal conductivity take longer to become familiar. The degree of familiarity is expressed in terms of the thermal time constant. We measured the thermal time constants of the MQT8 series of temperature power sensors. The thermal time constant is represented by the time it takes to reach 60% of the temperature change range. As shown in the difference table, regardless of whether the temperature change range is large or small, if the object and measurement conditions are the same, the same values are indicated. The thermal time constants measured in air with a wind speed of 1 to 1.5 m are 102 seconds for MQT8, 160 seconds for M2, and 195 seconds for M3. In water, the thermal time constant is smaller because water is more effective at extracting heat from the object than air. For more details, please download the catalog.
Advanced products like TPS are first adopted in regions with a significant technological accumulation.
I will explain the regional share of Temperature Power Sensors (TPS). It has been over 20 years since Temperature Power Sensors were introduced to the market. During this time, they have gradually penetrated the world with catchphrases such as "high-performance thermos that can replace electronic thermos at a fraction of the price." It is natural for advanced products like TPS to be adopted first in regions with significant technological accumulation. In developing regions, the manufacturing stage involves receiving designs from advanced regions, so it will take time before they reach the level of creating unique products using TPS. For more details, please download the catalog.
This is an introduction to the acquisition of standards for temperature power sensors and disc-type thermostats.
The specifications list includes the certification details for the Temperature Power Sensor (TPS) and disk-type thermostats. For example, in the disk-type thermostat certification list, we present a table showing [03EN, 03EP, 05EN, 05EP (Phenol)] with [UL: (Standard Number) UL873 (Certification Number) E43274], [CSA: (Standard Number) CSA C22.2 No.24 (Certification Number) LR67165 LR67166], and more. For more details, please download the catalog.
Analog sensor [Standard sensitivity type]
NVE's AA series and AB series analog GMR sensors have unique magnetic detection capabilities that are unparalleled. <Features> ● High sensitivity to applied magnetic fields ● Excellent temperature stability ● Low power consumption ● Compact size <Application Examples> Position, speed, and current sensors for industrial and automotive use Handheld devices Implantable medical devices Low-voltage battery-operated sensors <About AA Series Sensors> Utilizing GMR materials patented by NVE and flux concentrators on the chip, these sensors output signals with direction-dependent sensitivity. They detect in one direction (sensitive axis) within the IC plane, and when the sensor is rotated away from the sensitive axis, the sensitivity decreases according to a cosine curve. Additionally, they provide the same output for both positive and negative magnetic fields along the sensitive axis (unipolar output). Configuration: Wheatstone bridge Package: SOIC8, MSOP8 (available in die (bare chip) form upon request) Family Types: Standard AA series, AAH series, AAL series (different GMR materials used)
AC current sensor General Measurement CTL Universal Series
This is an expanded version of the medium-sized series for both PC board and panel mounting.
AC current sensor Precision measurement CTL-Z series
This is a medium-sized series with a φ12 hole for both PC board and panel mounting.
AC current sensor Precision measurement CTL-Z series
This is a medium-sized series with a φ24 hole for output lead wire type.
DC current sensor ultra-small DC microcurrent sensor
It is a super small DC microcurrent, designed for PC board mounting, and is a dual power supply type.
+5V single power supply driven, low drift split-type DC current sensor
- Compatible with +5V power supply - Output centered around 2.5V with ±2V (direction can be determined) - Insulation measurement possible - Integrated sensor and amplifier structure; split mounting type
There are no measurement errors due to double reflections from the converter mouth or lance hole.
The micro-ranger "MWS-10RF" for converter level measurement can accurately and quickly determine the lance position by measuring the molten steel surface level before blowing in the converter, as well as measuring the level of the bottom of the furnace. By always blowing at the optimal position, it is possible to improve quality. WADECO's mWave(TM) software continuously displays the received signal waveform, FFT spectrum waveform, and measurement trajectory, and allows for recording, playback, and fast-forwarding as needed. Using this recording and playback function, you can simulate and determine the optimal parameter values, as well as monitor, record, and replay measurement conditions. It has been delivered not only to Japanese steel mills but also to overseas customers. For more details, please download the catalog.
Short delivery time with stock sales! All items available for sale from one piece.
Edmund Optics offers a wide range of zoom lenses suitable for many imaging needs. Zoom lenses can be easily set up with cameras and other imaging systems without spending time on tedious refocusing or recalibration. Zoom lenses are an ideal choice for most applications that require multiple magnifications or for applications where manual refocusing cannot be repeated. Zoom lenses can be used as microscopes or for integration with microscope objective lenses, making them suitable for inspection and life science applications. We also offer imaging systems that make component selection easier. ■ For more details, please visit the official Edmund Optics website via the link below.
極細シース型で温度素子はK熱電対のみとなる温度測定用製品です！
『極細シース 0.5』は、極小部分の温度測定に好適な 極細シース型の温度センサです。 外径がΦ0.15、Φ0.25及びΦ0.5の製品です。 温度素子はK熱電対のみとなります。 ご用命の際はお気軽にご連絡ください。 【特長】 ■外径がΦ0.15、Φ0.25及びΦ0.5の製品をご用意 ■極小部分の温度測定に適している ■温度素子はK熱電対のみ(N・J・Tは外径Φ0.5のみ製作可能) ※詳しくはPDFをダウンロードしていただくか、お気軽にお問い合わせください。
チューブ径が最小で外径6mmまで対応可能な薬液ライン用製品です！
『インライン一般型 S型』は、半導体やプリント基板等の洗浄、 エッチング、めっき等の薬液ラインに使用可能な温度センサです。 両端が継ぎ手で構成されているため、組み付け、交換が容易に 行えます。これまで不可能だった温度設定が可能になります。 2026年6月現在、S型については現在受注を停止させていただいております。 【特長】 ■半導体やプリント基板等の薬液ラインに使用可能 ■チューブ径が最小で1/4インチまで対応可能 ■ユースポイント近傍での温度設定が可能 ■両端が継ぎ手で構成 ■組み付け、交換が容易に行える ※詳しくはPDFをダウンロードしていただくか、お気軽にお問い合わせください。
