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September, 2016


The Internet of Manufacturing Continued from previous page


Applying the New Language OML can be applied today in four


broad areas: as part of Industry 4.0 closed-loop feedback systems; as part of IoM “big data” systems; in the supply chain for accurate mate- rials traceability, inventory ac - cur acy, and just-in-time logis- tics; and with manufacturing execution systems (MES) for process-level compliance, trace- ability, and poka-yoke control. Closed-loop feedback sys-


layouts. The information also con- tains a complete build record of each product made, which is a combina- tion of material traceability and process traceability, and ensures cor- rect operation procedure by direct


OML supports the creation of a


true plug-and-play architecture. By adopting this specification, any new machine or process


tems, the analysis of productiv- ity and asset utilization, the creation of live just-in-time material operations based on actual material usage and spoilage can all be created using OML. Having full visibility of an operation allows the computer sys- tem to optimize the flow and alloca- tion of products to production lines and accommodate changes in cus- tomer demand, without losing pro- ductivity due to unnecessary setup changes or inefficient SMT feeder


introduced into a manufacturing operation can be integrated


immediately without having to rewrite software interfaces, algorithms and data definitions.


process interaction and control. With OML, data exchange is


bidirectional. As well as the collec- tion of process data, set-up and con- trol can be handled remotely. The built-in normalization definitions within OML are based on more than


Continued on next page


RH Measurements... Continued from page 65


AMS devices simultaneously meas- ure RH in real-time at five locations on the wafer while it is transferred in the same way as a wafer to qualify N2 and XCDA environments.


Measuring RH in Reticle Environments


When proper measures are not 7/29/16 3:14 PM Page 1


taken to control the phenomenon, 193 nm immersion scanners are adversely affected by something called “reticle haze.” There are three areas that need to be controlled in order to reduce this haze effect on reticles, one of which is controlling RH. Reticle haze is increased when


H2O is present. There are several limita-


tions with the current reticle environment RH measurement methods, for example, handheld RH sensors are inconvenient and can compromise the reticle envi- ronment. In addition, many areas are inaccessible to handheld RH sensors, in-situ RH sensors or benchtop type RH sensors. The importance of particle,


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leveling, vibration, and RH control has rarely been overlooked in the reticle environment. However, the need to maximize both yields and tool uptimes in reticle mask envi- ronments requires best-in-class practices. Whether for diagnostics, qualifi-


cation or preventive maintenance, equipment engineers need to effi- ciently and effectively make measure- ments and adjustments to the tools. Legacy particle, vibration, leveling and RH measurement methods are typically cumbersome, non-represen- tative, not real-time, compromise the production environment, are costly, and require time to take the tool offline for these tasks. By contrast, best practice meth-


ods involve collecting and displaying data in real-time, speeding equip- ment alignment or setup. Real-time data also speeds equipment diagnos- tic processes, saving valuable time and resources. Equipment engineers can also make the right adjustments consistently by using objective and


reproducible data that enhances process uniformity. The ReticleSense® AMSR from CyberOptics is an actual glass reticle


that measures H2O in the reticle environment and is compatible with ASML, Canon and Nikon scanners. AMSR travels throughout the entire reticle environment and measures RH. It helps to locate the sources of


the H2O, resulting in increased reti- cle lifetime. Two additional measure- ment capabilities of the device include measuring x, y and z vibra- tion and inclination. The AMSR travels the entire


path of the reticle and can measure humidity in all locations. In immer-


ReticleSense glass reticle RH sensor.


and XCDA reticle mask environ- ments, the use of a real-time meas- urement device, the AMS, delivers on three compelling bottom lines for the fab — saving both time and expense and improving yields. Contact: CyberOptics Corp.,


sion scanner environments, monitor- ing humidity is critical to reducing reticle haze. Equipment qualifica- tions can be done faster as the same device also measures vibration and leveling. Controlling inclination, RH and vibration are all important fac- tors in increasing yield and reducing downtime. For RH measurements in N2


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WATTS


UP TO 300


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