14 April 2021
Anglia goes solar with new photovoltaic cell range
Anglia Components has announced a new PCB-mounted photovoltaic solar cell line for electronics applications in collaboration with Anysolar, offering a new way for electronics manufacturers to harness light energy.
The Anysolar PCB-mounted photovoltaic solar cell range can replace battery and mains power for low-power applications. It can be reflow soldered onto PCBs and parts compatible with traditional hand soldering processes.
The advantages of using Anglia’s photovoltaic cells include:
- Clean energy for sensors
- Low cost
- Long lifespan
- No cell degradation
- No emissions from energy production
- Replaces batteries and mains
- Discreet design
- Powered by indoor and outdoor light energy
The technology is based on monocrystalline silicon free from impurities, so the cells do not degrade like traditional solar cells do. This enables a longer lifespan and peak performance, to reduce recycling rates and keep electronics in service.
Anglia has invested in a profile of all the most popular cell sizes and formats of Anysolar’s Gen 3 solar cells. The cells offer a viable alternative power source to battery and mains power for simple sensors. The cell range offers power from 5.5 mA to 1.02 A so is suited to a variety of low-power sensor applications.
Commenting on the partnership, David Pearson, Technical Director at Anglia said, “Anglia is delighted to partner with Anysolar for this new product range which complements many of our established lines, such as low power MCU’s and sensors.”
“Anysolar provides a viable alternative power source for many of our customers applications such as remote IoT sensor nodes.”
KY Choi, President of Anysolar, added, “We are delighted to partner with a distributor that is so well-respected in the UK and Ireland industry. We really value our relationships with our customers and look for partners that share that value. Our solar modules offer Anglia customers an environmentally friendly new power source for their designs.”
How it works
A photovoltaic (PV) cell, also known as a solar cell, generates electricity when exposed to light particles (photons). The Anysolar PCB-mounted photovoltaic solar cell line optimises this process with a large surface area and monocrystalline silicon.
The photovoltaic effect is a physical and chemical phenomenon. When applied to electronics, it can be used to power low-power sensors. This reduces energy draw on a device’s core power source to optimise performance and efficiency.
For devices to become autonomous, PCB-mounted photovoltaic solar cells will also be necessary for energy. IoT devices are a good example. These devices require a self-sufficient power source to run separately from the grid.
In the future, it’s expected that IoT devices will be able to run without wires or batteries and light energy provides the best possible solution.
Anglia’s PCB-mounted photovoltaic solar cell line is capable of powering a wide range of sensors in IoT devices, including robots, drones and consumer electronics. Remote IoT sensor nodes (nodes that collect data and information related to objects passing by, such as in autonomous cars) are a good example of components prime for PV cells.
07 April 2021
NXP Announces i.MX 9 and i.MX 8 processor line for Intelligent Multi-sensor Applications
NXP Semiconductors has announced a new line of edge processors that deliver a giant leap in performance and security at the edge.
As edge computing rapidly evolves around us and demand for edge computing soars, performance demands are increasing at an exponential rate. This requires a new approach to security, power consumption and performance. Existing edge processors offer a solution now but are not ready for the next generation of real-time data.
Technologies like machine learning, artificial intelligence, robotics, autonomous driving and next-gen wireless infrastructure all depend on the edge. NXP Semiconductors is meeting the challenge with new i.MX 9 and i.MX 8 processor lines.
i.MX 8ULP and i.MX 8ULP-CS
The ultra-low power i.MX 8ULP and i.MX 8ULP-CS (cloud secured) Microsoft Azure Sphere-certified processors have the EdgeLock secure enclave, a pre-configured security subsystem that simplifies complex security technologies and helps designers avoid costly errors. It automates the following security functions:
- Root of trust
- Run-time attestation
- Trust provisioning
- Secure boot
- Key management
- Cryptographic services
The i.MX 8ULP-CS is Microsoft Azure Sphere-certified with Microsoft Pluton enabled on EdgeLock for highly secure hardware. With Azure Sphere, it has chip-to-cloud security built in, enabling use in a wide range of applications.
Both i.MX processors utilise Energy Flex architecture, which delivers as much as 75% improved energy efficiency compared to previous generations.
They have heterogeneous domain processing and 28nm FD-SOI process technology, making them among the most advanced edge chips in the world. The processors have one or two 1GHz Arm Cortex-A35 processors, a 216MHz Cortex-M33 real-time processor and a 200MHz Fusion DSP for low-power voice and sensor hub processing.
Every Azure Sphere-certified i.MX 8ULP-CS device also gets ongoing OS and security improvements for over ten years.
The i.MX 9 series is NXP Semiconductors’ range-topping high-performance edge processor for intelligent multi-sensor applications.
The i.MX 9 debuts a new generation of processors that have an independent MCU-like real-time domain and dedicated multi-sensory data processing engines for graphics, image, display, audio and voice. The i.MX 9 series also features EdgeLock secure enclave, Energy Flex architecture and hardware neural processing.
The i.MX 9 is for the next generation of edge computing applications including machine learning and artificial intelligence. It’s the first NXP line to use the Arm Ethos U-65 microNPU which enables low-power machine learning.
Importantly, Azure Sphere chip-to-cloud security is enabled within the i.MX 9 line, providing a clear upgrade path from the i.MX 8 series.
EdgeLock secure enclave is the big ticket item of the new processor lines, combining complex security technologies into a single pre-configured platform. With device-wide security intelligence, it provides a simplified path to certification, enabling non-stop trusted management services and applications.
With the release of these new processors, organisations of any size can now pursue IoT development and real-time technologies with the confidence that NXP and Microsoft have laid out a foundation of security via Microsoft Azure. The low-power requirements and chip-to-cloud security deliver innovation in the right areas.
You can find out more about the processors here.
If you are looking for NXP parts contact us today! firstname.lastname@example.org
31 March 2021
Is There a Passive Component Shortage?
Passive components include resistors, inductors, capacitors and transformers. They are among the most abundant electronic components in the world, but demand could start to outstrip supply this year in some industries.
To help you grasp the exponential growth of the passive component market, the market was valued at USD 30.98 billion in 2020 and is estimated to reach 39.59 billion by 2026 (Mordor Intelligence). That research cites the automotive industry as the key industry driver and Asia-Pacific as the biggest growth market.
Fact is that the world is getting more technologically advanced. Demand for passive components is only going to increase. You could draw a line now and skip five years from now. The line would shoot up. We’d bet money on it.
A short history of passive components
In 2017, a major surge in demand for standard passive components coupled with raw material shortages led to strained capacity. Resistors and transistors were badly needed, and suppliers were quoting 20-30 weeks.
In 2019, demand balanced out, and for the first few months of 2020 demand and supply were perfectly balanced. Then the COVID pandemic hit.
COVID-19 caused supply chain problems as component manufacturers scaled down operations. Meanwhile, as industries absorbed the effects of COVID-19, demand increased, and this put the industry in a sticky situation.
Today, demand for passive components has never been higher. The predicted softening of the market some people made in 2020 has not happened. 2021 is set up to be a boom year for passive components. This could cause shortages.
Why is demand so high today?
The reason for this high demand is investment in new technology. Whether it’s electric cars and charging infrastructure, 5G infrastructure, wireless backhaul, IoT or UAVs, demand for certain components is increasing and factories are struggling to keep up.
The good news is that with increased demand comes new investment in factories and manufacturing output. The risk is that the demand for passive components outstrips supply by such an amount that innovation stagnates.
We don’t think this will happen. However, this may force manufacturers to turn to outdated, legacy components. They can get away with this during prototyping. However, consumer-facing products will need the newest components. This will require a good supply of passive components in 2021 and beyond.
To meet this challenge, inventory management is key. However, sourcing components among fierce competition is a difficult task. You can be outbid and outmanoeuvred when sourcing components. This makes who you know key.
How to deal with the passive component shortage
If 2021 does bring about a passive component shortage, it’s a good idea to have an electronics component supplier like us.
With large stock holdings, global distributor reach, and a sophisticated electronic component search database, Cyclops Electronics can find and deliver day-to-day, shortage, hard-to-find components, and obsolete electronic components.
You can buy passive electronic components with confidence from us. Get in touch if you would like a chat about how we can help you. Our team specialises in sourcing electronic components and we work with all manner of customers.
24 March 2021
MLCC supply is beginning to tighten?
Multilayer ceramic capacitors (MLCCs) are used in many electronics from smartphone screens to laser guidance systems. There was a prolonged lull in demand for MLCCs stretching from 2019 through to 2020, however supply is now tightening and lead times for new components are extending.
This has caused some concern with those who use MLCCs to manufacture products. Will supply continue to tighten? When will it let up? These are good questions. The answer lies in understanding why supply is tightening.
Demand for MLCCs is tightening for several reasons:
- Demand from the automotive sector is increasing
- Demand from the communications and transport sectors is increasing
- Global inventories are depleting
- Supply chain challenges due to the coronavirus pandemic
- Manufacturing bottlenecks due to facilities running at maximum capacity
The main reason for supply tightening is an increased demand from the communications and transport sectors. These sectors consume over half of the world’s MLCC supply and the rollout of 5G is accelerating demand.
The global automotive market is also a big consumer of MLCCs. MLCCs are being used extensively in modern cars. Applications include in battery management, chargers, heater controllers and energy converters. Electric cars use MLCCs because they are reliable and can be surface mounted directly to boards.
Inventory management has been a difficult task what with 2020 throwing COVID-19 into the works. This hit the MLCC supply chain like a train. Demand dropped off. This led to suppliers correcting inventory levels and sometimes overcorrecting. When demand increased towards the back end of 2020, supply chains got exposed.
It is difficult to correct inventory when not enough MLCCs are being made. For every 10 that are made 8 get put into use immediately. This leaves little fat left.
Increasing lead times
All of this means increased lead times for MLCCs. Many electronic components suppliers and distributors have them on back order. Some types of MLCC have lead times extending over several months (a long time in a supply chain).
For example, large case (≥ 0603) low-CV commercial-grade MLCC lead times are around 22 weeks. This is a very long time. The only units that are in good supply are small case size (≤ 0402) low-CV commercial-grade MLCCs which are available now.
How can you meet demand?
As 2021 gets underway, we predict that MLCC supply will tighten. Inventories will get stretched and manufacturers will struggle to get a hold of the components they need. Now that you know this, you can prepare.
The best way to assure a healthy MLCC supply is to work with a global distribution partner like us. When you need to source hard-to-find electronic components quickly because of allocation, long lead times, obsolescence, or quality issues, we are here to help. We will work with you to source the MLCCs you need. Go to our home page to use our component search tool and enquire with us today https://www.cyclops-electronics.com/.
We work with all industry sectors, including the communications, transport, and automotive sectors, to source electronic components. We specialise in the procurement and delivery of electronic components and parts with on-time delivery.
10 March 2021
Chipageddon is upon us
Semiconductors go unseen yet they are at the heart of all our electronics. When supplies run short manufacturing lines slow down and the availability of products is affected. Last year had several examples, some of which may have affected you.
AMD’s Radeon RX 6800 XT GPU was released in December but got nowhere close to meeting demand. Sony’s PS5 and Microsoft’s Xbox Series X sold out immediately and are rarer than hen’s teeth today. Even Apple admitted that the chip shortage affected sales of the iPhone 12 because they had to stagger product launches.
Then, near Christmas, the word “Chipageddon” was used by an automotive industry insider to describe the chip shortage affecting the automotive industry.
It’s easy to overreact about things, but today’s chip shortage is worth getting in a sweat about. Supply and demand is faltering, and manufacturers are genuinely struggling to get the chips they need to make products.
Supply and demand is a basic economics model linking the relationship between the quantity of a commodity available and the quantity people want to buy to price determination. When supply exceeds demand, prices increase. When the opposite happens, prices decrease. It’s easy enough to understand.
If you’re still with us, the chip shortage has had two main impacts:
- Fewer chips are available
- Prices for chips are increasing
This is a double whammy. It means manufacturers are making fewer products and paying more to make them. These costs DO get passed to you, the consumer. It’s the reason why you see random 10% increases in smartphone prices.
You also have the issue of foundries running at max capacity coupled to the low number of foundries that manufacture the newest wafers.
Industries worst hit
By far the worst-hit industry by a chip shortage is the automotive industry. The world's largest carmakers are facing a critical shortage of semiconductors at a time when demand is increasing, and cars are getting smarter.
Today’s cars have as many as 50 semiconductors that run a variety of systems. In a few years, this number is expected to increase to over 100. 60 million cars are produced each year worldwide. It means the industry needs 3,000,000,000 semiconductors, an enormous number whichever way you look at it.
Another industry hit hard by a chip shortage is consumer electronics. Smartphone manufacturers like Apple and Samsung are struggling to meet demand because there are not enough semiconductors to go around. Sony and Microsoft can’t manufacture as many game consoles as they need to because of lack of supply.
What’s the solution?
Chipmakers need to expand capacity and build more factories. Manufacturers need to consider alternatives to primary component suppliers. The issue is that chip fabrication plants take two years to set up and a low-quality chip can stop an expensive product from shipping. This is as much a quality demand issue as a supply one.
One way you can make sure you have the chips you need is to partner with an electronic component distributor like us. We specialise in the procurement and delivery of electronic components and parts for a wide variety of industries.
Call: 01904 415 415
03 March 2021
New construction of the smallest microchips using graphene nano-origami
Material science and clever engineering has cut the space between components on microchips to nanometres. This has led to significant performance benefits because more components can fit on the chip.
However, there is a limit to how small things can go with current chip design. 7nm is as small as chips will go from here based on existing technology. Why? Because 7nm is the gap between components on a chip. This space is tiny. Going smaller isn’t feasible because we’re working with spaces that are too small.
It’s also incredibly expensive. Prototyping a 7nm chip costs around £80 million and there are only a handful of companies that can do it.
Graphene 'nano-origami' to the rescue
Graphene is a nanomaterial one atom thick. It has been talked about as a revolutionary material for over a decade and now experimental researchers have used it to develop the world’s tiniest microchips using a form of ‘nano-origami’.
The world’s tiniest microchips are 100 times smaller than silicon chips and thousands of times faster. The way they work is instead of having transistors on them, the graphene has kinks in the structure and these kinks act as the transistors.
On this breakthrough, Prof Alan Dalton in the School of Mathematical and Physics Sciences at the University of Sussex, said:
"We're mechanically creating kinks in a layer of graphene. It's a bit like nano-origami. Using these nanomaterials will make our computer chips smaller and faster.
It is absolutely critical that this happens as computer manufacturers are now at the limit of what they can do with traditional semiconducting technology. Ultimately, this will make our computers and phones thousands of times faster in the future.”
Is graphene the future of microchips?
Researchers are calling this breakthrough nano-origami technology "straintronics". It uses nanomaterials as opposed to electronics, eliminating the need for electronic components on the chip. This makes the chips 100 times smaller.
Another benefit to graphene microchips is speed. Graphene conducts electricity 250 times faster than silicon. In fact, it conducts electricity faster than any known substance. It truly is a ‘space-age’ nanomaterial for today.
Instead of building microchips with foreign materials like transistors, researchers have shown another way of doing things. By creating kinks in graphene, structures can be made that replace electronic components including transistors and logic gates.
Another benefit to graphene nano-origami is sustainability. No additional materials are added during the manufacturing process. Production also takes place at room temperature as opposed to high temperature with silicon chips.
The truth is that silicon microchips cannot feasibly go below 7nm. The next step in performance evolution with silicon chips will come from heat management and power density. Graphene is smaller, faster and just as capable. The next step is for manufacturers to develop the technology and take it to market.
Overall, while the immediate future is silicon, we are in no doubt that graphene is the future of microchips. It has too many performance advantages to ignore.
24 February 2021
Electronic component supply chain efficiency. Will we see another increase in supply and demand due to COVID-19 this year?
In 2020, the electronics components industry saw both increases and decreases in supply and demand depending on where you look.
For example, demand for semiconductors that enable servers, connectivity and cloud usage skyrocketed due to stay at home workforces. Meanwhile, demand for semiconductors used in the automotive industry declined as car sales fell.
In other words, the supply and demand for electronic components was different across various sectors. Now that 2020 is behind us, 2021 is looking to follow much the same path as we continue to contend with COVID-19.
However, there will be one big difference - most of the sectors that had reduced demand for components in 2020 will ramp up their purchase orders in 2021. This is the result of economies opening up and companies getting back to operations.
Supply and demand in 2021
We believe the electronic component industry will witness a significant increase in supply and demand in 2021. There are a few reasons for this. The first is that most industries hampered by the COVID-19 pandemic will open up. Car manufacturing is the big one. This will fuel a surge in demand for semiconductors and sensors.
2021 will also play host to cyclical sectors and several tailwinds. 5G, Wi-Fi 6, AI, robotics, cloud, communications, edge computing and AR / VR are the big ones. These technologies will fuel demand for new electronic components.
Supply constraints will persist
Factories will have to ramp up production to meet demand. 2019 was a bumper year for electronics and a lot of infrastructure was built to meet demand. 2020 stuck a fork in the road, placing higher demand on certain components. In 2021, demand will return to a form of previous normality, increasing supply constraints.
We expect supply constraints of components to grow in 2021. Manufacturers will struggle to get a hold of the parts they need.
This will increase the need for partnerships with electronic component distributors like us who are ingrained into the fabric of the industry.
Things will get better over time
With the global rollout of the coronavirus vaccine in place and manufacturing sectors protected from Government shutdowns in most countries, 2021 should be a year where we see supply constraints reduce over time.
Supply and demand will get back to 80% normality toward the end of 2021. 2022 should be much better. This assumes we get to grips with this horrible virus.
In the meantime, tailwinds will continue to fuel demand for electronic components in sectors like AI and edge computing. COVID-19 has only accelerated digital transformation in most sectors. This is a powerful tailwind.
Ultimately, the demand for passive and active components will increase in 2021. You can make sure you have access to the components you need by partnering with us. We specialise in the procurement and delivery of electronic components and parts for a wide variety of industries from the world's leading manufacturers.
17 February 2021
How does recycling electronics help create sustainability within the industry?
Thanks to advancements in material science and recycling technologies, it’s possible to recycle around 80% of most new electronics. For example, the smartphone in your hand or pocket has around 80% recyclable components.
The most valuable components in electronics are rare and precious metals. The quantity of these metals in your phone is tiny but the number of phones (and other electronics) that enter landfills is huge. This creates a lucrative opportunity for recyclers to invest in processes that can extract the most valuable components efficiently.
Recycling in the electronics industry
Recycling electronics is important to not only reduce e-waste, but also our dependency on the mining and manufacturing of new materials.
The electronics industry is at odds with environmentalists because the industry that’s pioneering solar and renewable energy technologies generates a lot of e-waste. You can’t have it both ways. If you want technology to fight climate change, it first has to advance to a point where it becomes neutral and self-sustained.
Mass recycling is the process that will enable this in the future. For now, it is a stop-gap to minimise the electronics industry’s impact on the environment. And it’s working, with 15% of e-waste recycled globally in 2019. This figure is rising by 2-3% per year. In 2030 we expect the global e-waste recycling rate to hit 50%.
European legislation requires every manufacturer and producer to arrange and finance the collection, treatment, recycling, and disposal of WEEE (Waste Electrical and Electronic Equipment). This is a positive step. In the future, we want to see 100% recycling efficiency, although this will require different materials to those used today.
Excess inventory management
Another area of the electronics industry where recycling is important is excess electronic components. These components are not assigned for manufacturing and have no purpose in production. They take up space and are depreciating assets.
These components tend to be discarded and written off. However, recycling is not the best thing for them. The best thing for them is putting them back into production. The old phrase “One man’s trash is another man’s treasure” springs to mind.
This process is known as excess inventory management and it requires an electronic component distributor to purchase unwanted stockpiles of components. These stockpiles are then re-sold through a distribution network.
This provides a few benefits to the seller:
- An instant, positive cash injection
- Reduced stockholding costs
- Reduced time spent managing surplus stock
Over at our sister company, Cyclops Excess who specialise in the purchase and management of excess stock that has been identified for disposition. This process turns unwanted electronic components into cash and introduces new revenue streams for you.
If you have unwanted excess stock contact them today, Excess offers three buying options to suit you and your business needs. Call 01904 415 415, email our team email@example.com or visit the website here https://cyclopsxs.com/
Where does excess inventory end up?
Most excess inventory ends up on the production line with manufacturers and OEMs to create new products. This puts the components into production and significantly increases the time from manufacture to end of life.
Other components can find no end-user. In this case, the components are sent to specialist recycling centers that purchase the components as scrap. Around 10% of excess inventory is sent on for recycling. The majority enters production.
10 February 2021
What does 2021 hold for the electronic components industry?
The coronavirus pandemic hit the electronic components industry like a freight train, knocking supply and demand for six. Now that 2021 is upon us, economies are starting to open up with pinned hopes on vaccines. This could be a banana skin, but 2021 should be a calmer year overall. The world should get back to business.
2021 in a nutshell
The avenues shut down for raw materials and shipments of electronic components will begin to open back up in 2021. This will create a healthier supply and demand market than 2020. Some issues will remain. Component shortages are likely, and this is especially true of newer parts that are found in connected devices.
Semiconductors will lead demand
The semiconductor industry saw a significant increase in global chip demand in 2020 and this will only continue in 2021. Cyclicity driven by 5G and Wi-Fi 6 upgrades and tailwinds like edge computing, AI and AR / VR will fuel demand.
Who will benefit most? Our money is on Broadcom, Arm, Qualcomm, Intel, AMD, Nvidia and Skyworks with TSMC winning on the foundry side.
DRAM will follow the path of semis
Dynamic random access memory (DRAM) is as essential to connected technologies as semiconductors. 2020 saw a sharp increase in recovery from the first quarter, and 2021 will exhibit a similarly healthy supply and demand situation.
Who will benefit most? Samsung, Micron and SK Hynix, who are the first, second and third largest manufacturers of DRAM respectively.
Shutdowns will continue
The risk of shutdowns of component production because of the coronavirus will remain in 2021. This will create extended lead times and supply issues. Governments may be forced to shutdown factories in localised areas.
The good news is this will become less common as the year goes on. The pandemic’s impact on production will reduce over time.
Tailwinds will fuel more demand than cyclicity
When evaluating electronic component demand, cyclicity and tailwinds are often pitched against each other. In 2021, we expect tailwinds like AI, edge computing, robotics and VR / AR to fuel greater growth than cyclical upgrades.
This is a sign of the times. The world is getting more connected and smarter. Innovation will fuel tailwinds and create booming tech sectors.
Counterfeiters will grow more prolific
One of the sad realities of electronic components is counterfeit components. They are becoming more sophisticated. As manufacturers clamber to get stock in this year, they are at a high risk of being targeted by counterfeiters.
Companies should rigorously control purchase sources, conduct quality inspections and use a trusted distribution partner to combat these risks.
Looking to the future
In 2020, the electronic components industry handled the coronavirus pandemic in an efficient and calculated manner. Supply and demand issues hit the industry, but they were solved for the most part in good time.
2021 will be calmer for several reasons: 1) We now have a lived experience of the coronavirus and know how to manage shutdowns efficiently, and 2) There is an increased need for us to get back to work and get on with our lives.
03 February 2021
How Cyclops helps tackle environmental issues in the electronics industry
There’s no industry as polarising as the electronics industry when it comes to the environment. This is the industry that generates 70% of all toxic waste on the planet, yet it’s also the industry that’s pioneering renewable energy to address climate change.
The best way to look at the electronics industry from an environmental point of view is as a work in progress. We know that the industry is facing several environmental challenges now and in the future. The question is, how should we respond to them?
We are a global electronic component distributor, supplying electronic components to global customers. Our position in the industry has given us a unique perspective of the environmental challenges it faces. In this article, we’ll discuss some of the challenges we are facing and how we are addressing them.
Improper component storage
One of the biggest problems in the electronics components industry is the lack of environmentally-controlled storage facilities.
The biggest danger to electronic components is humidity which has to be controlled to ensure the components do not degrade. Problems like moisture absorption and contact corrosion have to be considered in storage.
Cyclops only operates environmentally-controlled storage facilities. Our facilities are designed to ISO 9001 standards. ISO 9001 is the international standard that sets out the requirements for a quality management system.
Electronic components and electronic devices are shipped via land, sea and air. Some packages find their way in transit covering several countries in a single day. This generates unavoidable emissions as a natural by-product of operating.
These emissions can be reduced or offset in a few ways. The simplest way is to always use the most efficient transit methods and logistics firms that offset their emissions. This means the sender doesn’t have to offset their own emissions.
We go with this method because it allows us to meet our environmental obligations while also ensuring a high-quality delivery service.
Electronic waste (e-waste)
Electronic waste is the biggest issue facing the electronics industry. Only around 20% of e-waste is recycled each year. The rest enters landfill. It accounts for 70% of all toxic waste on the planet, which is an astonishing figure.
Cyclops is helping to reduce the amount of electronic waste that enters landfill by putting components that would otherwise enter landfill back into use.
You’d be surprised by the number of components we save that are new old stock. We save hundreds of thousands of components each year. Many of these are rare legacy electronic components that are no longer being made.
The electronics industry gave you the smartphone in your hand and the internet that connects you to this article. There’s no denying it’s an immeasurably valuable industry and our future will have more technology. That’s a certainty.
As civilisation becomes more reliant on technology, we will develop technologies that address the industry’s biggest environmental challenges. In particular, we hope to see a significant reduction in e-waste and emissions soon. For now, the future is what we make of it, and we’re optimistic about what the future holds.
Enter Electronic Component part number below.