With data at your fingertips, you can easily monitor and manage systems of any size regardless of physical location. With continuous monitoring and real-time alerts, DicksonOne is VFC-compliant for monitoring vaccine refrigerators. Our trained team of professionals is ready to help you through the compliance process from start to finish.
Reach out today to start the conversation. Call Welcome to the new DicksonData. You'll need to reset your password to gain access to your account. If you can't find something or need help placing an order, call us at Skip to content. Maintain Consistency in Your Environment. Your food products need optimal and stable conditions in order to guarantee consistency and prevent degradation. Having the right environmental monitoring system in place can mean the difference between business as usual and a failed audit, or even sick consumers.
Monitoring essential data from processing to placemat will help protect your products, your bottom line, and your customers.
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Protecting the End Consumer. Supporting the Production Process. Production Every ingredient and every end product require consistent conditions to ensure quality and meet regulatory controls. Transportation Any point in the food supply chain that goes without monitoring can lead to a failed audit and product spoilage.
Storage Keep your products fresh and safe, even in storage, by recording and controlling the surrounding environment. At Dickson, we understand the complex process of food and beverage processing, production and distribution. Our systems are designed to help you monitor essential environmental data so your assets, and consumers, stay protected.
Streamline corrective actions and unify processes when excursions occur to reduce or eliminate the risk for product loss. TWE A capacitive 8" touchscreen offers our best user experience ever, and now features customizable views, alarms, and more. DWE The DicksonOne data logger collects temperature, humidity, and differential pressure data and automatically delivers it to the cloud.
DSB We've taken features from our bestselling data loggers and turned them into a single, powerful device.
Wireless Temperature Monitoring in Food & Retail
Notifications Easily configure email, text, or phone messages or audible alarms for excursions. Calibration Recalibrate on the fly without having to send in your device. Scalability Whether it's one device or a thousand, seamlessly collect and organize your data in a single hub for systems of any size. Efficiency Our products alert you when something goes wrong so your team is free to work.
Looking for an Unparalleled Monitoring Experience? DicksonOne may be the solution for you. Secure Unlimited data storage with bank-grade security for safe transmission of data and unparalleled reliability. Automated DicksonOne loggers send data to the cloud automatically, freeing up resources to do what they do best.
How to undertake food safety monitoring in your business - HACCP Mentor
Custom Create recurring reports, delivered how and when you want them with Dickson's custom reporting feature. The metal oxide in the surface layer determines the selectivity of the sensors; an optional added catalyst noble metals, mostly platinum will also influence selectivity as well as their operating temperature. They reach sensitivity ranges from 5 to ppm and are relatively insensitive to water in the range of 30—80 percent relative humidity, which is quite important for food applications.
Nowadays, it is possible to find scientific publications on the use of electronic noses for nearly every food matrix. The most prominent examples are coffee and wine, although both clearly show the limitation of electronic noses. As practically relevant aroma profiles usually consist of many different volatile compounds, a separation of all substances by high-resolution chromatography is desirable but very expensive and elaborate.
A basic goal is thus to increase the specificity and sensitivity of the sensing elements, allowing for the omission of advanced separation techniques. Further work in this field focuses on the development of mobile devices that combine gas chromatography and detectors to simplify the analysis and reduce the analysis time drastically. Hence, the basic goal, of course, is to improve the performance of the sensor to make the chromatographic part of the device unnecessary.
Jim Gibson, Five Guys Vice President Food Safety and Quality Assurance
Which volatile substances may be appropriate for chemical sensing is further influenced by their suitability within the process, their detectability in an available sensing mode and their expected concentration and background levels. In the case of alcoholic beverages, the major volatile substance—ethanol—must be taken into account as a potentially interfering substance. To achieve the basic goal described above, new detector materials are being developed and fused with each other.
The materials tested are tin dioxide SnO 2 , tungsten oxide WO 3 and SnO 2 fused with a catalytically active platinum addition or chromium titanium oxide. To ensure the highest amount of information, sensor systems are equipped with an array of sensors of the same or different working principles so-called hybrid or multisensor systems. The required composition of the sensor array, however, strongly depends on the matrix and selected target molecules. Realizable fields of application are processes in which very specific odorants need to be captured or in which the aroma profile consists of only a few volatile molecules.
Potential fields of application for more complex future sensors will include the storage, processing and distribution of foods.
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Monitoring the ripening of fruit and fresh produce is another potential field. The amount of raw data from up to 30 single sensors requires complex statistical data processing. Evaluation software of sensor systems often includes functions for these sophisticated statistical approaches, like principal component analysis, partial least squares or artificial neural network calculations.
Importantly, these mathematical postmeasurement steps require a high degree of experimental repeatability and technical standardization to be applied by automatic algorithms without the need for manual expert evaluation. Desired Industrial Applications and Future Trends Sensors have a great potential for use in the food processing industry for process and quality control. The application areas are in the fields of pathogen detection in raw materials, processing and quality control of final product.
So far, most of the sensors that have been implemented in the food industry on the production line have been for the environmental monitoring of hazardous gases like hydrocarbons, ammonia and hydrogen sulfide that may occur during production.
However, these kinds of sensors, including physical sensors, provide information on the performance of the process, which may indirectly contribute to controlling the hygienic quality of the process but does not provide direct information on the quality of the product being processed. Since most research has been conducted under laboratory conditions, these options strongly depend upon the application and the process surroundings.
In a typical bioprocess, cells are grown under strictly controlled monocultural conditions in fermenters or bioreactors in liquid media that provide essential nutrients, vitamins, etc. The products from the bioprocesses range from enzymes to biopharmaceuticals or valuable food odors, which naturally all impose high demands on product quality and safety.
Gas sensor array systems have proven very useful for both quantitative and qualitative bioprocess monitoring, which allows the real-time determination of cell status, growth rates and product concentration. Another advantage of this technology is that it can be used to discover contamination with foreign microorganisms on-line in real time in the bioreactor tank after only a few hours of processing, which is a significant gain over traditional microbiological methods. The application of noninvasive, on-line monitoring methods like gas sensor arrays could therefore certainly contribute to improvements in the quality of bioprocessed products.
This has also been documented by several studies. The necessary instrumentation, which can work without supervision, can be implemented in an existing process technology to avoid disturbing the ongoing process. Furthermore, these systems should be integrated into the overall quality assurance and traceability system.
Currently, existing methods cannot serve these needs of regulatory agencies and food producers. Future real-time testing with reliable sensor technology will provide value to food producers by reducing treatment costs and product recalls. As the demands for food safety increase, the requests for fast sensing technologies will only rise with them.
Because of ever-increasing regulations and transparency demands by customers, the food industry must know more about its products than ever before. While traditional food processors would like to control the process and thus measure process parameters at the production site to obtain maximum certainty, many more diagnostic devices are needed or highly desirable. At the production site, this means that these devices—in contrast to external commercial analysis—need to work at least at-line or by-line, and better on-line or in-line.
Matthias Kotthoff, Ph. References 1. Lelieveld, HLM et al. Pearce, TC et al.
- Bibliographic Information;
- A Survey on Automated Food Monitoring and Dietary Management Systems.
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