EO Residual Gas Treatment System
The equipment is used to treat the residual gas after EO Gas Sterilization process. It contains spray cabinet, the purifying stuffing absorbing tower, spray circulation pipeline, water collecting tank, storage tank, steam water separator, chillers etc. to achieve the effective absorption of eo gas, to achieve the discharge standards.
Advantage:
Automatic control system :
automatic circularly purifying, automatic adding liquid, automatic acid adding, liquid
conveying and automatic delay function.
Real time monitoring:
Initial concentration of exhaust gas, purification gas emission concentration,
level, pH value and so on. Once purified gas emissions exceeded,
instantly and automatically acousto-optic alarm.
FAQ:
1. Are you a manufacturer?
Yes, we are the professional manufacturer set up in 1992, located at a beautiful town of Zhejiang Province.
2. Can you provide the oversea service?
Yes, after the machines arrive at your factory, we will arrange engineers go to install the machine and train your operators.
3. Can we visit your factory?
Of course. We highly welcome clients come to visit our factory. It will be our great honor to meet you.
4. How can you guarantee the quality?
100% qualified products before the delivery. The clients can inspect the products at our factory.
1 year warranty ( failure caused by machine quality ) from the equipment arrive at the
EO Residual Gas Treatment System Ethylene Oxide Sterilization,Ethylene Oxide Gas Sterilization ,Gas Sterilization,EO Residual Gas Treatment System Yuhuan Zhengri Technology Co., Ltd. , http://www.syringemachine.com
High-precision graphene infrared detectors come out
ã€China Instrument Network Instrument Development】 Recently, the Graphene Flagship, an international alliance of more than 150 research teams from 23 countries, has developed a high-precision new infrared detector using nano-graphene.
As all people feel united, their power is broken. The casting of global science and technology soft power cannot be separated from the participation of every country. Recently, the International Union Graphene Flagship, consisting of more than 150 research teams from 23 countries, has developed a high-precision new infrared detector using nano-graphene.
According to the team, the new detector detects nano-level variations in thermal radiation - equivalent to one-thousandth of the energy released when the hand gently swings. The advantage of graphene is its openness in high-performance infrared imaging and spectroscopy. Researchers from Graphene Flagship, from the University of Cambridge (UK), Embry Corporation (UK), Photonics Science Institute (ICFO; Spain), Nokia and Ioannina University (Greece) have developed a graphene-based, Infrared radiation detection is a highly accurate pyroelectric radiation meter for measuring small changes in temperature.
The work published in Nature Communications demonstrates the highest reported temperature sensitivity of graphene-based uncooled thermal detectors, which can decompose temperature changes into tens of μK. Only a few nanometers of IR radiation power is needed to produce such a small temperature change in the isolation device, about 1000 times less than the IR power delivered to the detector by a close-to-close human hand.
Graphene infrared detector detects extremely small thermal radiation changes
The high sensitivity of the detector is very useful for spectral applications beyond thermal imaging. Using a high-performance graphene-based IR detector, it can provide a strong signal with less incident radiation and can isolate different parts of the IR spectrum. This is crucial in safety applications where different materials (eg explosives) can be distinguished by their characteristic IR absorption or transmission spectra.
Dr. Alan Colli, Principal Engineer and Head of Research at Embry, said: "Using more sensitive detectors can limit the large tropics, and still use photons in a very narrow spectral range to form images and do multiple spectra. Infrared imaging has certain signatures for safety inspections, materials are emitted or absorbed in a narrow band, and therefore a detector trained in a narrow band is needed, which is looking for explosives, harmful substances or any sort."
A typical IR photodetector operates by a thermoelectric effect or as a bolometer that measures the change in resistance due to heating. A graphene-based pyroelectric bolometer combines these two methods with the excellent electrical properties of graphene for optimal performance. Graphene as a signal's built-in amplifier eliminates the need for external transistors, which means that there is no loss of parasitic capacitance and significantly lower noise.
The high conductivity of graphene also provides convenient impedance matching with external readout integrated circuits (ROICs) for interfacing with detector pixels and recording devices. With continued improvement in the quality of graphene (eg, higher mobility), robust devices with extended dynamic range (temperature range over which the device will work reliably) can be manufactured while maintaining the same excellent temperature responsiveness.
Professor Andrea Ferrari, director of the Cambridge Graphene Center, said, “This work is another example of the steady progress of graphene in the application roadmap. Embrton is a new company specializing in the production of graphene photonics and electronics. And thermal sensors, this work exemplifies how basic science and technology can lead to rapid commercialization.†Andrea Ferrari is a science and technology officer at Graphene Flagship and chairman of the Graphene Flagship management team.
Prof. Frank Koppens, a collaborator of the project, is the leader of ICFO's Quantum-Nano-optoelectronics technology and leads Graphene Flagship's photonics and optoelectronics work package. “One of the most promising applications of graphene is broadband photodetection and imaging. It is impossible to combine visible light and infrared detection in one material system based on any other prior art. Graphene Flagship plans to further develop hyperspectral. The imaging system develops unique directions for graphene,†he said.
Dr. Daniel Neumaier (AMO, Germany) is the leader of the integrated electronics and photonics division of Graphene Flagship and has not been directly involved in this work. He said: "In the past few years, the market size of infrared detectors has increased dramatically. These devices are being used in more and more applications, and spectral safety inspections are becoming more and more important. This requires high sensitivity at room temperature. The current work is a huge step forward in meeting these requirements of graphene infrared detectors." The related work was published in full in Nat. Commun.2017. (DOI: 10.1038/ncomms14311).
(Original title: The International Alliance has developed a high-precision graphene infrared detector)