The video discusses the use of color sensors to monitor the condition of lubricating oil in machine tools. It explains that when the lubricating oil deteriorates, it can cause malfunctions in the machine. By using color sensors, the oil can be replaced at the optimum time by quantitatively measuring the degree of deterioration in the oil''s color. The video demonstrates how the color of the lubricating oil is measured using light emitted from the sensor, which is transmitted through the oil and reflected by a reflective plate. Four types of petroleum product color standard samples are used to compare the output voltage of the sensors. The video shows that the RGB output voltage values differ for each sample, and the output voltage ratio differs as well. This information can be used to monitor changes in the color of the lubricating oil.

The video discusses the use of color sensors for object detection. It explains that color sensors can provide more stable detection compared to general optical sensors, especially when there is a small difference in reflection ratio between the detected object and the conveyor. The video demonstrates this by comparing the measurement of yellow objects on a white conveyor using both a general optical sensor and a color sensor. While the output voltage ratio from the general optical sensor is extremely small, the difference in RGB ratio measured by the color sensor is much larger, enabling more stable detection. Overall, the video highlights the advantages of using color sensors based on differences in color rather than light quantity for object detection.

Certainly! Based on the information you provided, here is a short summary of the video: The video demonstrates how to use a color sensor to change its operation based on different colors. When a purple cup is placed, the RGB output voltage ratio of the color sensor is shown in a graph. Similarly, when a red cup is placed, the RGB output voltage ratio differs from purple. This difference in output voltage ratios can be used to change the operation for each color. The video then shows how to measure and compare RGB output voltage values and ratios using 10 muscle color cards. By setting optimal threshold values, it becomes possible to identify 10 muscle colors. The video also highlights that color sensors are less susceptible to changes in detection distance.

Omron''s new PCB connector socket (XW4M) features a second spring that, when connected to the plug (XW4N), ensures contact reliability through the combined contact force of both springs. The dual-spring design reduces the required insertion/removal force via a release lever that opens the second spring when inserting and removing.

Omron's G9EN-1 DC Power Relays switch non-polarized resistive loads up to 60A, 400 VDC; it achieves a weight reduction of 55% and a cubic volume reduction of 51%, compared to previously released DC Power Relays. Compatible with screw terminal and tab terminal layouts, it is perfect for use in electric, hybrid or fuel cell vehicles. In factory or consumer applications, it can be used in electric forklifts, industrial robotics, energy storage systems or PV Inverters.

Omron presents two of its newest additions to their MEMS sensor portfolio in this video. Building on over 22 years of MEMS development and experience, they eagerly share the NEW D6F-PH Differential Pressure and D6T Thermal IR sensors with the market. Both products are built with remarkable quality and highly sought after features and benefits. These products are very well suited for a broad array of industries and applications, that include, but are not limited to: Medical, Building Automation, Energy, HVAC, Security, and Transportation. Please enjoy the video and contact Omron with any questions, technical inquiries, requests for pricing and samples, etc. You can find us online at components.omron.com, email us at components@omron.com, or call us at 847-882-2288.

Sensor Product Manager and Assistant Medical Market Manager, Ms. Donna Sandfox, demonstrates and speaks of the NEW D6F-PH MEMS Mass Flow Sensor from Omron Electronic Components at the 2012 Sensors Expo in Chicago. The sensor uses the Omron mass flow MEMS Chip, and will have the same external structure as their highly acclaimed D6F-P0010A1. However, the internal flow path has been redesigned to produce a low flow (70 mL/min), high impedance sensor with a differential pressure range of 0-250 Pa. When used in a bypass type design (or set-up similar to a differential pressure sensor), this product is not sensitive to variations in the bypass tube length. The product is targeted for, but not limited to, the HVAC market, as tubing in HVAC damper controls is often installed in the field, which makes it a challenge to maintain consistent tube lengths.

This product training module offers a succinct, but tremendously informative presentation of Omron''s MEMS flow sensor line-up, as well as their superior MEMS technology.
- video developed and released by Omron Electronic Components LLC, Americas

"The main feature of the MEMS Flow Sensor is its ability to measure flow speed from 1 mm to 40 m/s, which covers the range from the fluttering of a butterfly''s wings to the roar of a typhoon. At the heart of the MEMS Flow Sensor, there is a tiny sensor element. That is the MEMS Flow Sensor chip which is only 1.5 mm square.

Conventional flow sensors use a resistance measurement method based on a natural characteristic that causes the electrical resistance of a material to change due to changes in temperature. This method has a number of disadvantages, though, such as the high cost required for the extremely time-consuming adjustment of the resistance balance.

High Sensitivity Enables Detection of Stationary Human Presence

OMRON''s unique MEMS and ASIC technology achieves a high SNR.

Superior noise immunity with a digital output.

High-precision area temperature detection with low cross-talk
field of view characteristics.

Omron has developed this new, super-sensitive sensor for non-contact thermal measurement that makes full use of proprietary Omron MEMS sensing technology. The D6T sensor, operating on infrared radiation sensing principle, is very suitable for human detection. It can detect the presence of people in an area without the need for movement and thus it is an outstanding alternative to pyroelectric sensors or PIR detectors in home automation, building automation, healthcare, security and industrial applications.

Sensor Product Manager and Assistant Medical Market Manager, Ms. Donna Sandfox, demonstrates and speaks about the SOON TO BE RELEASED 2SMPP-02 sensor. Expanding on their Piezo Resistive Pressure Sensor technology, a MEMS Absolute Pressure Sensor is nearing completion. Able to detect changes in elevation at a resolution less than 1 vertical meter, it could be used, for instance, to determine what floor of an office building a person is on. With an operating pressure of 50 to 110 kPa, target applications for this product include enhancement of GPS Navigation, Portable Navigation Devices, Weather Forecasting Equipment, and Vertical Velocity Indication.

Donna Sandfox of OMROM gives a demonstration of environmental sensors used for total room comfort.

Omron MEMS thermal area sensor checks for human presence and hot food
http://www.diginfo.tv/v/12-0135-r-en.php

DigInfo TV - http://diginfo.tv

11/7/2012 Exhibition Micromachine/MEMS

Donna Sandfox of OMROM gives a demonstration of environmental sensors used for total room comfort.