Just about everything is about chemistry and using your industry to teach students about chemistry can be a good way to get a new generation interested in what you do. For those who use electroplating and anodizing to coat various metals with other metals, you can set up a few simple experiments to show students what you do and how it benefits your customers.
You will need some key supplies for these experiments including an anodizing tank, an electroplating tank, electrodes and a power source. You will also need an item to either electroplate or anodize and solutions to aid in this process. It is important to also have the proper safety equipment and cleaning stations for each process. Since electroplating and anodizing are basically opposites, with one adding a layer of material to deter oxidation and the other adding a layer of oxidation to the material, it is important to keep the supplies separated according to the task.
Because you are using the processes to teach about chemistry and how it helps with your industry, it is important to give some key information such as which materials work the best in each process, how the charge of the current and solution help add the layers and even how you can make designs with this process. By going over how each variable of the process changes the outcome, such as the saturation of the solution and the cleanliness of the items, you can show students how dedication to details gives the best outcome.
Teaching the science behind key industry processes such as electroplating and anodizing can help inspire more students to join your industry after graduation. This can also help inspire new innovations in technology and in the process itself to make your job easier over time. You can use this in small scale situations such as telling your kid’s class about your career or in larger demonstrations at job fairs.…
As modern technology and the possibilities of cable assemblies continue to develop, there are many parts of this tech niche ready to be explored. One major subset of this industry is that of wire harnesses. For those unfamiliar with the term or product, wire harnesses are sets of specifically organized wires, terminals, and connectors that run through a machine (most often a vehicle of sorts) that could even be compared to the nervous system of the body.
Wire harnesses are designed to protect multiple cables. If a wire harness is opened, it often reveals many cables running from place to place and system to system. The harnesses are typically made of a plastic material that protects cables from extreme temperatures or the elements. For systems that run through machinery like vehicles, extreme temperatures can be reached, so it is important that cables that are critical to the design and function of the machine are not worn down and can be protected. Wire harnesses are also a low-cost investment, so they keep things working longer in the long run.
Wire harnesses are designed to solve two major problems. First, they can help maneuver around geometric limitations that may be causing design issues. Secondly, they can help to solve additional electrical requirements. Essentially, wiring systems will often need to be organized in very specific ways to make sure that all the different pieces of a product can do their jobs correctly. For machines as large as airplanes, for example, these functions are more critical than ever.
Cables and their wire harnesses are designed to match their environment and can be designed to protect against heat, extreme cold, water, or frictional wear and tear as necessary. With more technological advancements every day, wire harnesses are greatly beneficial to put some of the more outdated worries to rest. Machines are in good hands when cables are protected by capable wire harnesses.…
Whether you’re seeking independence from the grid, cheaper energy bills or doing what you can to help the environment, solar energy appeals to many homeowners. However, while it’s not a monumental task to set up a solar electric system for your house, it’s not a trivial matter either. Before and during your search for solar panel installation New Jersey, keep these guidelines in mind as you prepare to make the switch.
Estimating Your Solar Potential
The amount of energy that solar panels can provide can vary based on location, architecture and surroundings. Similarly, the savings that you’ll see on your energy bills can be influenced by homeowners associations, state and federal incentives and whether or not you can sell electricity back to the grid. Make sure that your roof has ample sunlight exposure and won’t need replacing in the near future, and check for any local restrictions on home solar panels. Contractors and online resources can help you get an estimate of the likely impact of solar panels.
Rating Your Home’s Energy Needs
Your contractor will need to know about your home’s average energy usage on a yearly and monthly basis; before you contact them to assess your home, gather what info you can from prior energy bills. Additionally, it’s a good idea to get an assessment of just how your home’s energy is used. Switching to solar power can be done more easily if you find ways to improve on energy efficiency, and an energy audit can highlight just how to do that.
Doing Research on Local Contractors
A good solar energy system comes from a skilled and certified contractor. Look into your local options and check online reviews or what friends, family and neighbors have to say about them. When you’ve narrowed down the list, conduct interviews with the contractors to verify their capabilities and get bids on installation, hardware and other costs. Even when you’ve selected a contractor for the job, ask for open, transparent estimates and suggestions and work with them to give your own input so they can decide what’s right for you.…
Throughout the industrial sector, machines like boilers, furnaces and kilns help drive material processing, manufacturing and energy production. One feature, vital yet easily overlooked, is common to all of these: the use of heat-resistant materials known as refractories. Many different materials fall under this class, but their use has been present since the earliest brick kilns and ovens. An understanding of what role refractories serve is important in maintaining the modern manufacturing processes that rely on them.
Properties of Refractories
In industrial contexts, a refractory is a non-metallic material that retains its strength and integrity at high temperatures, at least above 1000 °F (538 °C / 811 K). Traditionally, refractories were made in brick form, but modern refractories can exist as preformed shapes like interlocking tiles, aggregates or cements that are formed and fired where necessary or lightweight ceramic fibers. Most refractories are composed of ceramics or minerals, with various oxides and carbides being common components, and they vary in chemical reactivity and acidity/alkalinity.
How Refractories are Chosen
The ideal refractory to use in a given scenario or machine depends on the environment it’ll be exposed to—temperature, atmosphere, materials being processed, expected byproducts, etc. For instance, a given material may excel in high-temperature environments without oxygen, such as graphite, but would combust in the presence of oxygen. Similarly, coke oven door plugs, used to seal the interior atmosphere, contain refractories that must resist both carbon penetration and thermal shock caused by sudden changes in temperature to keep the seal from breaking.
Where Refractories are Used
Refractories are common anywhere where high temperatures are involved, both in and out of industrial settings. Clay kilns and fireplaces use simpler refractory materials, while high-grade alumina composites make up the heat shielding installed on space shuttles. Coke ovens, smelting crucibles, boilers and more remain structurally stable during operation thanks to various refractories lining or comprising their interiors.…
Power dividers go by many names, including directional couplers, power combiners (when used in reverse), and power splitters are considered passive devices most commonly used for radio technology purposes. The purpose of these devices is to couple a specific amount of electromagnetic power in a port or transmission line, which allows a signal to be useful for another circuit.
With directional couplers, a crucial feature is that they only couple the power flowing in a single direction. The power entering the output port is coupled to the specific, isolated port, but not to the coupled port. Directional couplers, work to split the power equally between two ports. This design is referred to as a hybrid coupler, such as the 180 degree hybrid combiner.
Understanding Directional Couplers
Usually, the construction of directional couplers involves the use of two coupled transmission lines that are set close enough together so the energy passing through one is coupled to the other. This is a technique that’s favored at microwave frequencies where the transmission line design is used to implement several circuit elements.
However, a lumped component device is also possible at lower frequencies, including the audio frequencies used for telephony. With microwave frequencies, specifically the higher bands, the waveguide designs can be used. Many of the waveguide couplers respond to one of the conducting transmission line designs; however, there are other types that are unique to the specific waveguide.
The Use of Power Dividers and Directional Couplers
There are many applications for power dividers and directional couplers. These include creating a signal sample for monitoring or measurement, feedback, antenna beam forming, combining feeds from and to antennas, separating the received and transmitted signals on the telephone lines, and creating taps for systems distributed by cable, such as cable TV.
Understanding the use of these couplers and combiners is the best way to ensure they are used properly. Be sure to keep this information in mind to know the benefits they can offer.…
Whether you’re an employee or a manager of many employees, it’s important to be aware of possible workplace hazards and make safety a priority. Workplace injuries are very common and often severe enough to keep employees away from work. These are some common types of accidents and how they can be prevented.
For occupations that require working at height, falls are always a risk. There are standards in place to protect workers, but accidents usually occur when employers fail to implement them correctly or when employees misunderstand how to wear fall protection gear. It’s important for companies to recognize any locations that require a plan for fall protection, implement that plan and train all associated employees in that plan.
In jobs that require working among dust within an enclosed space, dust explosions are a dangerous possibility. These occur when combustible dust such as wood or paper becomes highly concentrated and is ignited. An explosion requires a certain set of conditions, but when those conditions are met even a single spark can trigger a disaster. Prevention requires undergoing a dust hazard analysis, such as xpproducts.com, to reduce risk of an explosion.
Workplaces such as warehouses utilize forklifts, and they can quickly become a hazard if they are not handled responsibly. Most forklift accidents occur when the operator is distracted, loading too much or driving too quickly and can include knocking over inventory, hitting a wall or injuring another worker. Employees should be trained in the correct standards for operating heavy equipment, but it’s also important to make sure employees do not have a reason to feel rushed.
Workplace accidents are common but often easily preventable. If you’re an employee, be sure to pay attention to training and procedures and keep an eye out for possible hazards; if you’re a manager, you should utilize training and inspections while making sure your division isn’t understaffed.…
Operating your own company can come with a lot of responsibility. When your business focuses on manufacturing products to be distributed and sold around the world, then you need to take extra steps to ensure you are doing what’s best for your future. There are a number of key decisions you need to make to keep your manufacturing company operational. Consider these tips to stay on the right path and find the success you desire.
One of the biggest decisions you are going to make as a manufacturer is whether or not a product is ready for market. Before you can make this decision, you need to go through a handful of steps. Quality assurance can take many forms and it is advised you put your product through rigorous tests in order to discover if there are any problematic areas in design or function. Market research may also help in this regard, as you can learn about consumer expectations of your products or services.
Bottling and Packaging
After determining a product you manufacture is ready for launch, you need to decide upon how you are going to have it packaged. While design is part of this equation, you also want to think about the practicality. Where will the bottles and packages be coming from? Who will be doing the work? Using bottle and labeling services is a wonderful way for you to get your business ready for a new product without having to take on more work yourself.
When you are responsible for running your own manufacturing business, it can be a very exciting and frustrating experience. There are several important decisions to mull over before you take any action. Determine whether or not your product is ready for consumers, consider the details of packaging, and see what you are able to accomplish with your business.…