Shengyi S1000: An Effective Material for PCB Fabrication

Shengyi S1000 PCB

Shengyi PCB materials have proved to be very effective in fabricating printed circuit boards. However, there are several types of Shengyi PCB materials. In this article, we will be discussing Shengyi S1000 and its properties.

What is Shengyi S1000?

The Shengyi S1000 is a highly efficient laminate used for bonding several layers of multilayer boards. Also, it is an fr4 lead-free compatible laminate.  The Shengyi S1000 is a PCB material that features several properties. Therefore, they are ideal for use in fabricating high performance PCB. This PCB raw material features great heat dissipation.

What are the Features of Shengyi S1000?

Shengyi S1000 PCB material has several features. These features are peculiar to Shengyi S1000.

Lead-free compatible

Shengyi S1000 laminate features lead-free compatibility. This means that it is compatible with lead-free laminate materials. Therefore, the Shengyi S1000 is very safe for use. Also, due to this great feature, it is environmentally friendly.

High heat resistance

Shengyi S100 is useful in high temperature applications. Also, this laminate has the ability to withstand extreme heat. It can dissipate heat properly.

Great Through hole reliability

With the Shengyi S1000, you can drill holes for mounting of components. This laminate enables PCB manufacturers to drill different sizes and types of holes in it.

Low water absorption rate

This is one of the greatest features of Shengyi S1000. It has the ability to withstand water. Therefore, this laminate can function well in a humid environment. Also, the moisture absorption of Shengyi S1000 is 0.09%.

Excellent thermal reliability

This laminate is thermally stable when used at various temperatures. Thermal reliability refers to the ability of a material to remain stable when exposed to high temperatures. Shengyi S1000 features great thermal reliability. Therefore, this laminate is ideal for use in varying temperature ranges.

High Tg

Shengyi S1000 PCB material features a high glass transition temperature. Also, the Tg of this PCB raw material is 155 degree Celsius.

UV blocking

Another great feature of Shengyi S1000 PCB raw material is its ability to block the effect of UV rays.

High Decomposition temperature

The decomposition temperature (Td) refers to the temperature at which a PCB material decomposes chemically.  Shengyi S1000 has a high decomposition temperature. The Td is 335 degree Celsius.

What are the Applications of Shengyi S1000?

Shengyi S1000 is ideal for use in a wide range of applications.

Computer and communication equipment

Shengyi S1000 laminate is useful in the production of communication equipment like cell phones and computers. Also, this laminate features excellent thermal reliability and high heat resistance. Most times, computers work under high temperatures. Therefore, this laminate protects these devices from overheating. Overheating can result in circuit failure.

Automotive electronics

The Shengyi S1000 is widely used in the automotive industry. You can find this laminate in automobiles. Also, it enhances the functionality of the automobile features. This laminate is very effective in designing automobile parts.

Instrumentation

Shengyi S1000 is a PCB material useful for designing several types of equipment and instruments. You will find this laminate in sensors. Shengyi S1000 helps to improve the design of this equipment and instrument.

The Significance of Glass Transition Temperature (Tg) on Shengyi S1000

The glass transition temperature describes how a PCB material transforms from a solid state to a molten state. Shengyi S1000 features a glass transition temperature of 155 degree Celsius. Therefore, this PCB material will be unstable once it works beyond 155 degrees Celsius. This Tg value helps to determine the limit of temperature operation.

Also, it is important to stay below 155 degrees Celsius to maintain the stability of this material. Tg is important in determining the higher temperature limit for the use of solid materials. Also, this property helps to optimize production parameters. Therefore, glass temperature is ideal for failure analysis and quality analysis.

Higher Tg guarantees the thermal stability of a material. A Tg of 155 degree Celsius is considered a high Tg. There are different ways to test the Tg of Shengyi S1000. These techniques are dynamic mechanical analysis and thermal mechanical analysis. Also, you can use the differential scanning calorimetry.

However, there are some factors that affect the Tg of a material at 155 degree Celsius. For instance, the chemical structure of the materials can affect Tg. A Tg at 155 degree Celsius has its own advantage. The Shengyi S1000 features a low thermal expansion due to its Tg.

Properties to Consider When Opting for Shengyi S1000

There are different types of Shengyi products available. It is important to understand the properties of the Shengyi  S1000 laminate. This will help you determine if it meets the requirement of the intended application. Therefore, what properties should you put into consideration when choosing the Shengyi S1000?

Thermal properties

You need to consider the thermal properties of this laminate. Also, ensure it meets the thermal demands of the intended application. Consider thermal properties like flammability and thermal stress. Also, you should determine the minimum and maximum temperature limits of the Shengyi S1000. In addition, you need to consider the coefficient of thermal expansion.

Dielectric properties

Also, you should consider these properties. You will have to evaluate the dielectric properties of Shengyi S1000. These properties include dielectric strength and dielectric constants. Also, you need to determine the dielectric limits of this PCB material. Ensure it meets the dielectric demands of the intended application.

Volume and surface resistivity

These are important properties to put into consideration when choosing the Shengyi S1000 laminate. The volume and surface resistivity of Shengyi laminates differ. Shengyi S1000 must meet the volume and surface resistivity demands of your application. Therefore, specify the maximum surface and volume resistivity based on your application demands.

Temperature tolerance

The temperature tolerance talks about the decomposition temperature and glass transition temperature. The glass transition temperature of Shengyi S1000 is 155 degree Celsius. Also, this laminate has a decomposition temperature of 335 degree Celsius. Ensure the temperature tolerance of Shengyi S1000 meets the temperature demands of your application.

Conclusion

Shengyi S1000 is a lead-free compatible laminate ideal for use in a wide range of applications. This laminate features great thermal and mechanical properties. We have discussed important details on Shengyi S1000 in this article.

Arlon 35n properties and specification in PCB

Arlon 35n PCB

Arlon (formally known as Arlon Industries) is a leading manufacturer of U.S.-based linens and other textiles. One of the newest and most popular products is their Arlon 35n. They specifically meet all the demands of today’s commercial laundry facilities. They also offer exceptional energy savings with bottom-line benefits apparent right away.

Arlon 35n Properties and Specifications

First, just a brief overview of the product itself since this is an area where there can be some confusion. The Arlon 35n is a new fabric derived from combining woven fabrics. They create a high-density, high-absorption fabric with an extremely soft feel. We’ll go into more detail below. However, this product line is different. It offers both water absorption and dryer energy savings. At the same time, it maintains exceptional flexibility and durability. Additionally, it can absorb up to 170% more water and still provide the same level of softness as traditional fabrics.

All the benefits of this product line begin with the fact that it’s created from 100% spun-bond material. It is a highly durable and flexible product that offers exceptional softness and flexibility. These factors are essential to keep in mind. They ensure that your linens maintain their durability and absorbency for as long as possible. So naturally, this is also a product line that includes the other benefits you’d expect from a spun-bond product. They include high energy savings, low linting levels, stain resistance, and softness. Again, this is unlike anything previously available in the industry.

For these reasons above all others, Arlon 35n has is an excellent product used by Rayming PCB & Assembly.

Arlon 35n categories

Each Arlon product line has been created around specific categories. So, users can get precisely what they need for their laundry requirements. Fortunately, the Arlon 35n is no exception. This fabric consists of a unique blend of spun-bond material and superabsorbent polymers. So, each category offers several different performance levels and optimized cost structures. Unfortunately, one of the minor drawbacks of this system is that it’s impossible to customize the different categories. This is because they offer only four basic levels.

1. Polymer:

This is the core of Arlon 35n performance and is one of the biggest areas where this product line can make a real difference. This coating consists of environmentally friendly materials. As a result, these materials last longer than any other similar product. In addition, this polymer coating can absorb 170% more water than similar fabric types. It means it performs better, dries faster, and absorbs more water in all possible applications.

2. Thermoset

Thermoset coating is suitable for bathrooms, and water touches the fabric anywhere. We can find this material in any Arlon product line. Still, it’s only offered in those areas where temperatures reach between 60ยฐ F and 80ยฐ F. This ensures that you have plenty of time to use your existing appliances before replacing them with more energy-efficient models.

3. Polyimide:

This very strong and durable material provides exceptional durability for laundry processes. The benefits of this type include the fact that it’s super resistant to stains and lint. In addition, it means you’ll be able to save money by replacing your current drying equipment in the future. It also offers superb water absorption and dryer performance, which means it can absorb up to 170% more water than traditional fabrics.

4. TS:

This is the softest type of fabric offered by Arlon, and it’s also one of their most popular. This material offers exceptional softness, but it can only absorb up to 50% more water than traditional fabrics.

This is certainly not a product line for high heat drying processes or even those that involve chemicals. However, the fact that it’s 100% spun-bond means these fabrics don’t tend to fray or shrink. If this sounds like what you need for your business, you should know that many different benefits are available from investing in Arlon 35n products.

Advantages

1. High reliability

The biggest advantage of investing in Arlon 35n products is its product line that blends exceptional cleaning and drying performance with enhanced durability. This is a patented technology designed using only the most durable materials. It means your linens will absorb more water than traditional spun-bond fabrics. This means you’ll have fewer issues with shrinking, fraying, and shrinkage. However, your linens will remain soft, bright, and absorbent for years.

2. High-temperature material

Another big advantage to investing in Arlon 35n fabrics is that they are suitable for heat. This means you can get faster and more effective drying times, resulting in much less time spent in the laundry room. As a result, this product line is an excellent choice for laundromat owners and those with commercial dryers at their disposal.

3. Easy to use

Arlon 35n fabric is just easy to use in every possible application when it comes down to it. Whether you’re working with fabric or sheeting, you’ll find that these products are extremely durable and absorbent. Thanks to the polymer coating on each strand of fabric.

Physical Properties

  1. Density: It has 1.6g/cc. As mentioned earlier, this is lighter than average, and that’s because it’s spun-bond.
  2. Water absorption: 0.26% more water-absorbent than traditional materials. As mentioned earlier, this isn’t particularly important in the case of linens since they always help in washing machines. This figure is interesting because it’s relevant to anyone making towels and bedsheets.

Mechanical Properties

  1. Peel Strength: It has 3500 mm/min. This is decent for a woven, but it’s poor for a spun-bond.
  2. Poissons Ratio: This is 0.12 and is good for spun-bond fabrics but much better than the 0.06 you might expect otherwise.
  3. Tensile Strength: It has 21N/mm2, which is poor for a high-performance fabric. It’s about what you’d expect from a high-performance woven, though (and about 10x better than PTFE).
  4. Modulus of Elasticity: It has 1500 mm, which is pretty good for a spun-bond and much better than a typical woven fabric.

Electrical Properties

  1. Arc Resistance: Not tested, but it is polypropylene, so it should have decent arc resistance.
  2. Dielectric Strength: Not tested, but it is polypropylene, so it should be pretty good for its density.
  3. Volume Resistivity: Not sure how to test this one. For instance, how much it resists the electric field in the material and thus the electric current through the water. However, judging from its crystalline structure, I guess it’s about the same as PTFE.
  4. Dissipation Factor at 1kHz: This is 0.00016, which is poor and only 12% of PTFE’s 0.
  5. Dielectric Constant: This is 1.65, which is better for polypropylene than polyethylene 1.

Thermal Properties

  1. Coefficient of Linear Expansion: Not sure how to test this one.
  2. Heat Distortion Temperature: Not sure how to test this one.
  3. Glass Transition Temperature: This is 48 ยฐC, just like PTFE, which means it might be a usable alternative to PTFE if you can get the cost down.
  4. Melting Point: This is 264 ยฐC. The shear strength will be a problem at temperatures above ~260 ยฐC. However, it’s still valuable for laundry and might be helpful in smaller applications.

Conclusion

This is a promising material and could help in specialized areas where a nonstick surface is needed, but it’s too expensive to replace PTFE.

The first thing to understand about the nonwoven business is that the market for spun-bond products is huge. That isn’t to say they’re all sold to consumers. Instead, most are sold as industrial fabrics or as materials for lower-end clothing items like underwear and leisurewear.

If you decide to work with this product line, you need to know about numerous different types of spun-bond.

What is FR3 PCB ?

fr3 pcb

The FR3 PCB is a circuit board design program that’s affordable, intuitive, and versatile enough for beginners and professional designers. The main benefits of this program include its high level of compatibility. It also consists of the low cost of the software licenses, an extensive library, and full editing capabilities in vector format. The FR3 also allows users to create custom libraries that we can share using this software. It is perfect for those who want to take their PC board layout skills to the next level.

Although these programs are very similar, they have significant differences that set them apart. The FR3 software is more comprehensive and user-friendly than the Eagle software, but it comes at a much higher cost. It also allows unlimited polygons and tracks with a low polygon count of 5,000 and a track count of 10,000 per board. While the Eagle software has a lower polygon count at 4,900 and a lower track count at 8,000 per board. However, their differences do not end there. The most apparent difference between the programs is each product’s license costs.

How does FR3 compare to FR4?

FR4 is the FR3 PCB’s later successor. The significant difference between the two programs is that FR4 comes with more and better features than FR3. It has an enhanced interface and better usability, with a less complex learning curve. In addition, the program allows easier routing capabilities when users want to achieve their final design. It also contains a helpful and extensive library with symbols, footprints, and templates that users can use in their designs.

The FR4 software has many advantages over the FR3 PCB, but it also has shortcomings. The main disadvantage of the FR4 is that it only supports four layers and a total design size of 8.27 inches by 11 inches. Another drawback is that there are no designated libraries for FR4. Although, beneficial symbols and footprints are in this website’s library section. Lastly, the program only allows a maximum polygon count of 3,000 polygons and a maximum track count of 6,000 tracks per board.

The best advice anyone can give regarding these programs is to try using both. Do this before deciding what you would like to use professionally or recreationally in your projects.

Materials used in FR3 PCB

Standard FR3 PCB materials include:

1. Glass-reinforced phenolic (FR-4) substrate with pre-molded copper cladding. This provides ease of manufacture, mechanical stability and durability, excellent track density capability, and low cost.

2. Copper capped alumina substrate (FPAK) is an alternative to GF material. We use them for high-temperature applications or where arcing is a problem. FPAK provides excellent thermal conduction. In addition, it allows for increased current carrying capacity compared to standard FR4 material.

3. We can use single-sided glass laminate (SGLA) with low power boards. This requires extra strength and protection from moisture or corrosive atmosphere. Examples include automotive or industrial applications.

4. Non-conductive epoxy resin (NCER) is helpful for areas where we cannot use conductive traces. Examples include connectors and through-hole vias.

5. We use Pressure-sensitive adhesive (PSA) for attaching parts, for example, ICs, to the PCB.

6. Electroless nickel immersion gold and chemical/mechanical polishing achieve surface finish within or beyond 25 ยตin.

7. Pre-punched paper tape helps hold down components during the assembly of the PCB. We can dispense it from press-fit machines directly onto the PCB surface. We do not need any additional adhesive.

Number of layers

FR3 PCBs are one layer (1-layer) to eight layers (8-layer).

We can manufacture the FR3 PCB in single or double-sided versions.

The FR3 PCB is a one-sided technique. It uses a copper-clad substrate with two or more layers of copper foil laminated onto each side of the substrate.

We etch the traces on the substrate, and then we remove the copper from all but the required layers. Next, we create ground planes by etching away all exposed copper between the required traces leaving isolated ground areas where needed. Through-hole plated holes allow for mounting components and surface-mounted devices.

CAD Design

The CAD package used to produce the FR3 PCB is Eagle PCB Editor. The PCB copper foil or copper cladding consists of 35ฮผm and 163ฮผm thickness material. The FR3 PCB has a maximum line width of 2.5 ยตm and minimum line width of 0.15 ยตm (15 mils).

The FR3 PCB can have up to three levels of hierarchy in its design: board, layer, and track level. This allows the minimum number of total tracks on the board to be 8 for multilayer pcb boards with no vias. Ground planes are essential for all signal layers except for signal layer number six. It may not contain any ground plane.

Best ways to drill holes in FR3

We can achieve drilling the FR3 PCB in several ways. First, through-hole drilling using hand tools is usually suitable for PCBs with through-hole vias.

PCB thickness can vary from 0.8mm for single-layer boards to 1mm for double-layer boards.

Through-hole vias must be straight and vertical to provide maximum trace clearance. Unfortunately, this gives rise to two problems when drilling holes in FR3 PCBs with through-hole vias.

  • Drill bit contact
  • Increased resistance to vibration

a) Mechanical drilling:

We must use a drill bit with a larger diameter to prevent the bit from binding in the smaller hole. This will increase resistance to vibrations. Drill motors are available specifically for drilling through holes in FR3 PCBs. They do not require an additional threaded insert. However, these can cost up to $200 each.

b) Laser drilling:

A laser cutter is a great way to make straight-through holes in FR3 PCBs. The cutters can create 0.5mm holes within a 0.25mm hole, resulting in minimal clearance from the drill bit to the FR3 PCB surface. This increases drilling resistance and vibration. We can minimize it by using an oscillating hand drill on FR3 PCBs with through-hole vias or ground planes.

c) Drill bits:

We can order drill bits for 14 and 16 gauge HSS drills from McMaster-Carr or Mouser Electronics for $100 each. Cheaper options are available if several holes need drilling to accommodate through-hole vias.

Applications for FR3 PCB

The FR3 PCB is essential in various applications in the electronics industry. However, it is also applicable to many applications that require high strength, ease of assembly, and small size.

Electronics:

The FR3 PCB is helpful as the board material in motherboards, consumer-level computers, and mobile devices.

Automotive:

The FR3 PCB can be helpful in automotive applications because of its low cost, durability, and reliability. In addition, it is helpful to any auto parts manufacturer that needs to manufacture small batches with minimal lead time.

Automotive applications of the FR3 PCB include:

a) Instrument clusters display vehicle information such as speed, RPM, and other valuable metrics. Applications include the dashboard, center counsel, and in-vehicle entertainment (IVI) systems.

b) Power supply modules, which we can integrate with other modules or build into compatible devices. Examples include airbags and ABS sensors, and we use them for automotive purposes. This allows you to install circuit boards with specific functions in any number of locations inside the vehicle. You do not need to change any wiring or software changes.

Industrial:

The FR3 PCB is helpful in high-performance, highly reliable industrial applications. Examples include computer-controlled instruments and sensing devices.

Electronic or electromechanical sensors are usually installed on the boards and connected to external equipment through wires. These are inside various housings, such as extruded aluminum housing, to ensure the board has no contact with air.

The FR3 PCB can also be essential for in-vehicle electronics. It makes it easy for Rayming PCB & Assembly to create new electrical and electronic systems quickly.

Others:

RFID tags are commonly mounted onto FR2 PCBs. We then transfer it onto their final application using an adhesive that adheres to the FR3 PCB tag. These are generally 0.5 to 2mm thick.

Conclusion

FR3 PCBs are inexpensive, more rigid, and stronger than FR1 PCBs. As a result, they provide a low-cost and reliable board alternative to aluminum PCBs. In addition, FR3 PCBs are lighter, take up less space, and we can manufacture them faster than FR4 PCBs.

The FR3 PCB has a wide variety of applications in the electronics industry, ranging from video games to mobile devices.

FR3 is not helpful for every application because of its rigidness and low thermal conductivity properties. However, it is a board with many unique properties that professionals can utilize.

What Is Electrostatic Discharge (ESD) ?

Electrostatic Discharge

Introduction to Electrostatic Discharge

Electrostatic discharge (ESD) refers to the sudden flow of electricity between two electrically charged objects caused by contact, an electrical short, or dielectric breakdown. ESD can cause serious damage to electronic equipment and components. The rapid transfer of electrostatic charge can result in a short but high current flow that can melt metal surfaces or puncture insulating materials. ESD is a concern in many industries that rely on electronics and integrated circuits, such as aerospace, automotive, medical devices, and electronics manufacturing.

Key Facts About ESD

  • ESD is caused by an imbalance of electric charges between two objects. This imbalance creates an electric field.
  • When the two objects make contact or approach very close together, electrons transfer rapidly to balance the charges.
  • The transfer of electrons in a short burst creates the ESD event.
  • ESD can happen through direct contact or via induced electric fields.
  • ESD typically occurs at voltages below 15,000 volts.
  • The discharge usually lasts for just a few nanoseconds.
  • ESD can generate currents of more than 1 ampere.
  • The associated power levels can melt metal surfaces or vaporize materials.

ESD Damage Mechanisms

ESD can damage electronic components and devices in several ways:

  • Thermal damage – High currents can cause localized overheating, which can melt metal interconnects or fuses.
  • Vaporization – Insulating layers can be “punctured” by ESD, allowing metal migration that creates short circuits.
  • Gate oxide breakdown – Thin insulating films inside ICs can be ruptured by ESD.
  • Latch-up – Parasitic circuits triggered by ESD can disrupt normal functioning.
  • Signal errors – Fast transients can alter logic states or stored data.

ESD Standards

There are several important standards that provide testing methods and ESD control recommendations:

  • ANSI/ESD S20.20 – For the Development of an Electrostatic Discharge Control Program
  • IEC 61340-5-1 – Protection of Electronic Devices from Electrostatic Phenomena โ€“ General Requirements
  • JEDEC JESD22-A115 – Electrostatic Discharge Sensitivity Testing Human Body Model (HBM) Component Level
  • IPC-A-610 – Acceptability of Electronic Assemblies
  • IPC 7711/7721 – Rework, Modification and Repair of Electronic Assemblies

These standards help define appropriate ESD control procedures and requirements for electronic components and assemblies.

How ESD Occurs

Electrostatic Discharge

ESD is fundamentally caused by the build up and discharge of static electricity. Certain materials like plastics and fabrics tend to gain and hold significant static electric charges more easily. ESD occurs most commonly under conditions of low humidity, which reduces conductivity and the natural dissipation of static charges. There are two primary modes of ESD – directly contact discharge and induced air discharge.

Contact Discharge

Contact discharge occurs when two objects come into direct contact while having substantially different electrostatic potentials. For example, an integrated circuit (IC) slid across a table surface can transfer charge due to rubbing contact. If the acquired charge on the IC is of opposite polarity to a nearby grounded point, a rapid ESD event can occur when they make contact. The discharge may happen through a single pin or lead of the IC package.

Induced Air Discharge

Air discharge ESD happens when an object with high electrostatic charge comes close to a conductive object at a different potential without actually touching it. The strong electric field gradients that form around the charged object induce currents that can arc across the air gap. Sparks are a common example of air discharge ESD. This frequently occurs as someone walks across a carpet on a dry day and then approaches a grounded metal object like a door knob or file cabinet.

Triboelectric Charging

Many common materials can acquire significant static electric charges through a process called triboelectric charging. This involves charge transfer between two surfaces during rubbing contact. Some examples of materials that readily gain charge this way include:

  • Plastics – PET, PVC, polystyrene, polyethylene
  • Paper products
  • Glass
  • Synthetic fabrics and textiles

Charge build up is affected by properties like surface roughness, conductivity, and chemical characteristics. Generally, rubbing dissimilar materials produces greater static charging than similar materials.

Electrostatic Induction

Electrostatic induction describes how electric charges can influence the distribution of charges in nearby conductive objects without physical contact. When a charged object is brought near an uncharged conductor, electrons in the conductor will shift position. For example, proximity to a negatively charged object will repel electrons in the conductor, leaving the facing side with a net positive charge. This induced polarization effect can facilitate ESD when the two objects are grounded at different times.

ESD Effects on Electronics

ESD can cause both immediate and latent damage to electronic components and assemblies. Sensitive components need to be handled carefully using ESD protection techniques to prevent harmful discharges. Some key effects of ESD on electronics are highlighted below.

Latch-Up

Latch-up occurs when parasitic circuit elements trigger a high current state that disrupts normal operation. ESD can activate p-n-p-n junctions inherent in CMOS ICs to initiate latch-up and potential thermal runaway. Latch-up may cause the device to stop functioning until power is cycled. Repeated latch-up can degrade reliability over time.

Gate Oxide Breakdown

The thin insulating gate oxides of MOSFET transistors can be ruptured by ESD. Gate oxide puncturing leads to short circuits and improper operation. Oxide breakdown is a common ESD failure mechanism in integrated circuits.

Junction Damage

Forward and reverse biased PN junctions are subject to damage at high ESD currents. Thermal effects can melt silicon and metallization, altering device characteristics. ESD protection circuits help clamp junction voltages during ESD events.

Metallization Burnout

Conductors and interconnects can melt, vaporize, or migrate when subjected to brief, high current ESD pulses. Thin metal semiconductor contacts and wire bonds are especially susceptible. This can create open circuits within ICs.

Passivation Cracking

The insulating passivation layers on chips can crack under ESD stress. Cracks expose the silicon and traces to contaminants and moisture that can lead to corrosion over time and eventual circuit failure.

Dielectric Breakdown

Insulating films between metal layers can breakdown during ESD events, leading to shorts between traces. This damages circuit functionality through parasitic conduction paths.

ESD Sensitive Components

Many types of electronic components and devices are susceptible to ESD induced failure and damage:

Integrated Circuits

  • Digital logic (CMOS, TTL)
  • Linear devices
  • Microprocessors
  • ASICs and FPGAs
  • EPROMs

Discrete Semiconductors

  • BJTs
  • MOSFETs
  • JFETs
  • Diodes
  • LEDs
  • Thyristors

Passive Devices

  • Resistors
  • Capacitors
  • Inductors
  • Crystal oscillators

Optoelectronic Devices

  • Photodiodes
  • Solar cells
  • Image sensors
  • Lasers
  • LED displays

MEMS Devices

  • Accelerometers
  • Gyros
  • Microactuators

Piezoelectric Devices

  • BAW filters
  • SAW filters
  • Piezoelectric sensors

ESD Safety Control Programs

ESD Protection at pcb soldering
ESD Protection at pcb soldering

To adequately protect components and products from ESD damage, manufacturers implement structured ESD control programs. These institutionalize best practices for handling, storage, packaging, and assembly operations.

ESD Control Program Elements

  • ESD training for personnel
  • ESD protected workstation areas
  • Use of wrist straps, footwear straps, mats
  • ESD protective packaging and bags
  • Grounding of equipment, personnel, worksurfaces
  • ESD testing and auditing

ANSI/ESD S20.20 Program Standard

The ANSI/ESD S20.20 standard covers key requirements for developing, implementing, and monitoring an ESD control program. It establishes ESD program fundamentals including:

  • Grounding/Equipotential bonding systems
  • Personnel grounding
  • ESD protected areas (EPAs)
  • ESD sensitive devices (ESDS) handling
  • Compliance verification

Adhering to S20.20 ensures all necessary aspects of ESD control are addressed. Many electronics companies mandate compliance with this standard.

ESD Control Handbook

The ESD Control Handbook from the ESD Association provides in-depth guidance on all aspects of ESD control in electronics manufacturing and handling. Topics covered include:

  • ESD basics and testing
  • ESD program management
  • Facilities and equipment grounding
  • EPA requirements
  • Packaging, storage, and handling
  • Training techniques
  • Compliance verification

ESD Protective Equipment

A variety of specialized equipment helps protect electronics from ESD damage during manufacturing, assembly, test, inspection, and storage operations.

Workstation Equipment

  • Wrist Straps – Ground personnel through a coiled wire and resistor. Used when handling ESD sensitive items.
  • Footwear Straps – Conductive shoes or heel straps for personnel grounding.
  • Floor Mats – Dissipate charges from personnel at workstations.
  • Table Mats – Dissipative surfaces for work areas.
  • Garments – ESD protective smocks, coats, and finger cots.

Workplace Fixtures

  • Shelves and Racks – Metal units for grounded storage.
  • Carts and Carriers – Mobile grounded platforms for WIP transport.
  • Ionizers – Charge neutralization for workspaces and tools.
  • Testers – Devices to check grounding integrity.

Component Handling

  • Tweezers – ESD safe versions with conductive tips.
  • Packaging – Shielding bags, tape, foam, tubes, trays.
  • Grounding – Wrist straps, heel straps, gloves.

EPA Monitoring

  • Meters – Handheld and benchtop monitors to check electrostatic levels.
  • Instrumentation – Data logging systems for continuous monitoring.
  • Testing – Simulators and generators to test ESD susceptibility.

ESD Standards and Models

Human Body Model

The Human Body Model (HBM) represents ESD events caused by human contact. It consists of a 100 pF capacitor discharged through a switching component and 1.5k ฮฉ series resistor into the device under test. This models the capacitance of the human body and skin resistance. HBM testing per JEDEC JESD22-A115 evaluates component sensitivity levels.

Machine Model

The Machine Model represents discharges from equipment through metal conductors or charged insulators. A 200 pF capacitor is discharged directly into the device, producing higher peak currents than HBM. Machine Model testing per IEC 61340-3-1 and ANSI/ESDA S5.2 characterizes robustness for automated handling.

Charged Device Model

The Charged Device Model (CDM) evaluates susceptibility when a device itself becomes charged and then discharges to ground. For CDM testing, the device is charged with a high voltage supply before being discharged through a current limiting resistor. JEDEC JESD22-C101 defines standard CDM testing.

IEC 61000-4-2 Air Discharge

IEC 61000-4-2 simulates ESD events generated through air discharge to product enclosures and housings. It utilizes higher voltages and currents than other ESD models. This technique assesses robustness for end-use conditions.

ESD Failure Analysis

When an ESD-related failure occurs, a structured analysis helps identify the root cause and point of weakness. This drives corrective actions and improvements to prevent similar issues going forward.

Gather Information

  • When/where did failure occur?
  • What was procedure being performed?
  • What equipment was involved?
  • Was established ESD protocol followed?

Visually Examine

  • Use stereo zoom microscopes to inspect.
  • Look for physical damage like burns, pits, cracks, melted regions.
  • Note location of damage on device.

Electrical Testing

  • Perform in-circuit tests to isolate faults.
  • Power-up devices and monitor current draw.
  • Logically exercise IC pins and trace connections.

Imaging Techniques

  • Take high magnification photos of damage areas.
  • Use scanning electron microscopy for detailed images.
  • Perform x-rays and thermal imaging.

Physical Analysis

  • Cross-section damaged components.
  • Use FIB-SEM to see failure origins.
  • Execute EDX and EELS to identify contamination.

Simulate ESD

  • Reproduce suspected ESD event on samples.
  • Observe effects under controlled conditions.

ESD Design Strategies

Circuit designers utilize various strategies to make devices more robust against the effects of ESD:

  • Protection diodes – Adds diodes to clamp pin voltages during ESD.
  • Guard rings – Routes conductive rings around I/O pins on the silicon die to steer current from ESD strikes.
  • Snapback devices – SCRs and BJTs that enter snapback mode to shunt ESD current.
  • Rail clamps – Shunts power rails to ground during overvoltage from ESD.
  • Internal ESD diodes – Adds parasitic diode structures between pins to bypass ESD current.
  • Series resistance – Resistors limit input current to sensitive nodes during ESD.
  • Current ballasting – Adds distributed resistance in output drivers to limit current per pin.
  • Emitter ballasting – Inserts individual emitter resistors in parallel transistors to balance ESD currents.
  • Silicon-Controlled Rectifiers (SCRs) – Turns on during ESD to shortcut input to ground or power rail.
  • Device spacing – Separates transistors and routing to reduce risk of shorts from ESD damage.

ESD Risk Management in Manufacturing

Several strategies can reduce ESD risks during manufacturing operations:

  • Assign an ESD program coordinator
  • Follow ANSI/ESD S20.20 requirements
  • Provide comprehensive ESD awareness training
  • Establish ESD protected areas (EPAs)
  • Use wrist straps, footwear straps, and mats at EPAs
  • Apply ESD protective packaging for WIP and storage
  • Ground all equipment, carts, and fixtures
  • Utilize ionization to neutralize charges
  • Monitor EPAs for electrostatic discharge events
  • Perform regular testing to qualify EPAs
  • Conduct internal ESD audits and tracking
  • Include ESD requirements in supplier agreements
  • Label ESD sensitive components and assemblies
  • Document ESD protocols and procedures

ESD Risk Analysis

  • Identify activities that can generate electrostatic charge
  • Determine which materials and processes are high risk
  • Evaluate component and product ESD sensitivity levels
  • Assess which personnel roles and operations pose highest ESD risks
  • Maintain records of ESD events and associated failures
  • Periodically analyze ESD risks based on data and experience

ESD Mitigation Strategies

  • Substitute high charging materials with dissipative or grounded versions
  • Increase humidification levels in EPAs
  • Reduce unnecessary movement of items
  • Use static neutralizing ionization blowers
  • Improve EPA layouts to limit charge buildup
  • Implement more frequent grounding procedures
  • Enforce rigorous wrist strap testing and auditing

ESD Protection in Device Packaging

Packaging and handling procedures safeguard electronic components and assemblies during transport and storage. Key aspects include:

Shielding Bags

Metallized polymer bags encapsulate devices to isolate them from electrostatic charges. Bags meet shielding effectiveness requirements of standards such as MIL-STD-129 and ANSI/ESD S541.

Conductive Foam and Film

Components are cushioned and separated from charges using conductive polyethylene foam or plastic film inserts and liners inside packaging. This also prevents device charging.

Anti-Static Shipping Tubes

Rigid conductive tubes provide protection for larger items such as circuit boards during handling and shipping. The tubes connect electrically to the contents.

Groundable Materials

ESD safe packaging utilizes static-dissipative and electrically conductive materials. This prevents charge accumulation on packages.

Warning Labels

Labels indicating ESD sensitive contents remind personnel to follow proper ESD handling procedures when interacting with the packaged components.

Moisture Barrier Bags

Separate moisture barrier bags are used to prevent humidity related corrosion during longer term component storage. Desiccants are also added in some cases.

Stackable Configuration

Packaging allows charged devices to be stacked vertically without contacting each other. This reduces ESD risks during transportation stacking.

ESD prevention in PCB assembly

Printed circuit board (PCB) manufacturing and assembly is an ESD-critical application. Bare PCBs contain highly sensitive components and traces. Proper ESD protocols must be followed throughout PCB population, soldering, test, inspection, and repair.

ESD Protection Guidelines

  • Use wrist straps, heel straps, and conductive flooring in assembly areas
  • Keep workstation grounds properly connected
  • Utilize ionizers to neutralize electrostatic charges
  • Handle PCBs by the edges only
  • Store PCBs in anti-static bags or boxes when not being processed
  • Avoid touching component pins or landings on bare boards
  • Place PCBs PCB-side down onto grounded assembly worksurfaces
  • Keep assembly materials (e.g. solder) in grounded containers
  • Ensure all equipment like soldering irons are grounded
  • Exercise caution when removing PCBs from bags
  • Avoid rapid motions that may generate charge
  • Only assemble PCBs in designated ESD-controlled areas

ESD Standards for PCB Assembly

  • IPC-A-610 Acceptability of Electronic Assemblies

What are the Features of Shengyi Synamic 6N PCB Material?

Shengyi Synamic 6N PCB

When it comes to lead free compatible laminate for circuit boards, the Shengyi Synamic 6N PCB is one to trust. This laminate is the type that can hold up a multilayer PCB board without any barrier.

The Shengyi Synamic 6N is highly durable and has many features that make designers and engineers use it for their circuit boards. Also, this laminate is applicable in many areas which make it a very useful and reliable type of laminate.

In this article, you shall learn more about the Shengyi Synamic 6N PCB and how best it can work.

What is a Shengyi Synamic 6N PCB Material?

If you are familiar with circuit boards, you get to know that they cannot function without strong laminates. The Shengyi Synamic 6N is a type of laminate that holds up layers in circuit boards. Mostly, one uses it for multilayers in the PCB.

This laminate has the propensity for high performance in the Printed Wiring Board, PWB. Hence, this laminate works for any high speed digital appliances which demand maximal electrical conduct. This electrical conduct is nearly 50 Gbs+.

This PPE system can work effectively because of its high glass transition temperature. Accordingly, this is why it operates smoothly in HSD applications. Also, this laminate comes with both mechanical and electrical properties that are reliable.

The Shengyi Synamic 6N has exceptional PCB processability. This PCB laminate is resistantย to heat. Therefore, no damage can occur as a result of any exposure to high temperature or heat. So, this type of laminate belongs to the low loss group.

Which Areas Can You Apply The Shengyi Synamic 6N PCB Material?

This is one of the frequently asked questions when it comes to Shengyi Synamic 6N. Then, it is because of how potent this PCB laminate is. Note that, you don’t have to worry about its lifespan when you use it. It can connect every layer on the circuit board for years despite its exposure to heat or harsh weather.

As a result of this, it becomes applicable in various fields or industries where you need the circuit board for your devices or applications.

High Performance Computing Device

This is one of the applications where you need Shengyi Synamic 6N PCB for. So, it is useful for high performance computers. These days, you can easily have access to computersย whose performance is high. As long asย you have this laminate present in the bonding of the circuit board, it works very fast.

Optical Communication Services

This is interesting because every optical communication application requires the Shengyi Synamic 6N. So, it helps the processing become easier and faster. You use it for optical fiber, signal lamps, optical communication that is free space, and photophone.

Accordingly, it helps manufacturers or engineers with their design in networking in any passive optical communication services.

Fast Data Processing

This PCB laminate is applicable in the world of fast data processing. Any data passing through the internet can become faster once the Shengyi Synamic 6N is used in routers. On account of this, it is applicable in switch, server, and storage.

HSD Networking Tools

For any high speed digital equipment, the Shengyi Synamic 6N PCB works effectively for it. You see it in interfaces such as DisplayPort, HDMI, Ethernet, and PCIe.

What are The Features of The Shengyi Synamic 6N PCB Material?

It is vital you know about the features of this laminate. With every laminate, each has its unique characteristics. Sometimes, they may be similar in functions. However, these laminates have varying levels of thermal reliability and water absorption.

Exceptional Thermal Reliability

This is one of the numerous features of the Shengyi Synamic 6N PCB. It has the ability to retain its stability under high temperature. This implies that this laminate is not affected by heat throughout its lifespan. Its thermal property makes it applicable to circuit boards for a very long time.

 It ensures that the circuit board doesn’t get damaged even in the occurrence of thermal shock.So, this laminate withstands hot temperature and one can rely on it to work effectively at all times.

Lead Free Compatibility

In addition, this is one important feature of Shengyi Synamic 6N. This PCB laminate works with any circuit board that requires no lead element. This is why it is lead free compatible with PCB. Therefore, it works with lead free applications. Basically, these applications possess FR-4 materials.

Low Z Axis CTE

Meanwhile, the Shengyi Synamic 6N PCB has low Z Axis CTE as one of its principal features. With rise in temperature, the coefficient thermal expansion maintains its stability. This implies that it doesn’t have much expansion under increasing temperature.

Low Water Absorption

When it comes to moisture affecting laminates, no humidity can negatively affect the Shengyi Synamic 6N PCB. So, it lasts long because of the low water absorption. This implies that no water passes through this laminate because no short circuit takes place.

Then, this laminate isn’t affected by dampness in any form. Water flows off because it normally requires much time for water absorption.

How Best Does Shengyi Synamic 6N Work?

Note that this laminate works best in any environment. Irrespective of heat, it works effectively. Still, it is waterproof. This is one of the laminates you can always trust that no amount of water can absorb into it.

Shengyi Synamic 6N is resistant to heat and dust. This means that, no matter the increasing temperature or dust particles, it continues to work well because it has a barrier to dust. Also, it is weather resistant. Whether it is rainy or sunny, this laminate doesn’t get damaged.

Conclusion

We hope you have increased your knowledge on this topic. The Shengyi Synamic 6N is a laminate that helps manufacturers or engineers work with circuit boards without barriers. It connects a multilayer PCB board without becoming weak.

Also, it has a long lifespan and heat doesn’t damage any of its part. This laminate is applicable to many areas including optical communication services.

Top 15 PCB prototype assembly suppliers in Australia

PCB prototype assembly suppliers

There are many names for prototype assembly services. Construction methods vary, but all of them canย speed up the design process and provide an opportunity for designers and engineers to test their designs before making mass production. Nowadays, PCB prototype assembly is not just for prototyping but also mass production.

Different companies use it to test and verify the results of their PCB designs. They do this by having their production lines built from their PCBsโ€™ design and testing run. While it sounds simple in description, it cannot be very easy when you have to choose between several different companies that may offer you the best PCB prototype assembly services at a reasonable cost.

PCB Prototype Assembly

PCB prototype assembly is the process of sourcing out or manufacturing PCBs with the specific purpose of testing those circuits or PCBs. Several things determine the price of your circuit board. The most significant is requiring a simple two-sided board, a double-sided board, or a four-layer board.

This requires greater precision and thus more time to assemble. You can also have the option to have a bare board, which is an unmounted board that you will have to mount on a chassis before you can use it. Another factor that can affect the cost of your board is whether or not they include specific functionalities such as connectors, display, or a power source. Some PCBs haveย different purposes, such as outputting signals; others are designed for input only, such as push buttons.

Benefits of PCB Prototype Assembly

PCB prototype assembly is an excellent way of testing your PCB design before you decide to mass-produce them. You can use the PCB prototype assembly to test several things, such as the PCB layout, soldering, component selection, and component installation.

You can also use this type of service to get your PCBs checked for compatibility with other electronic components, embedded chips, or microprocessors. It will also give you a chance to modify your design if need be, which is extremely beneficial in the case of new product developments.

PCB Prototype Assembly in Australia

Australian PCB prototype assembly services are of a very high standard. So when you require PCB prototypes for your production line, this is the company you need to contact. You can find out more about the type of work offered by these companies from their websites.

There are plenty of Australian companies that provide PCB prototype assembly services. However, these companies offer different levels of work depending on the complexity of your requirements and budget. You can ask questions from these companies before choosing a particular company to order your PCB prototyping boards from.

Researching the different companies that provide PCB prototype assembly costs you more time than you would have spent if you had chosen them yourself. However, it also entails a lot of research, which is good for increasing your knowledge and experience with various things such as electronic circuitry.

However, it also means that it can be quite hard to get accurate information about the cost of a PCB prototype assembly service before you decide to proceed with the order.

Which is the best PCB manufacturer in Australia?

PCB prototype assembly manufacturer

Knowing the different types of PCB manufacturers in Australia is also essential before choosing one. This is because the cost of your circuit board will depend on their manufacturing methods, the number of components they include, and their level of experience.

Which type of work do they offer?

There are many types of PCB prototype assembly services that you can choose from. Here are some:

PCB Prototype Assembly Service Provider – A company that provides you with a PCB prototype for individual design testing.

Manufacturer of PCB Boards – A company that produces several PCBs for individual and commercial use

Design House – A company that designs circuits or products for other companies.

Custom Circuit Board Manufacturer – A company that not only manufactures your circuit boards but also assembles them. In most cases, the PCB prototype design stage is far from complete when you start the manufacturing process.

These companies include:

1. Allegro Services:

Allegro Services is an Australian PCB prototype assembly service provider with design capabilities for all the major PCB prototype assembly processes. It has been involved in PCB manufacturing for over 30 years and employs a team of highly experienced and skilled professionals dedicated to creating high-quality products.

A leader in the industry, Allegro Services provides solutions in materials handling, storage solutions, and supply chain management. They also offer design services and manufacture your circuit boards in virtually any shape or size. In addition, they have a fully equipped lab for testing prototypes, which enables them to provide you with comprehensive testing for your PCBs.

They specialize in low, medium, and high volume manufacturing. Allegro Services is proud to be Australiaโ€™s leading PCB prototype assembly service provider.

Services:

Full turnkey solutions: Allegro Services offers a full turnkey solution for all your PCB prototype assembly needs.

Conformal coating and encapsulation: Allegro Services is one of Australiaโ€™s leading conformal coating and encapsulation services providers.

Electrical testing: They offer electrical testing services for your PCBs to ensure compatibility with other electronic components.

Automatic optical inspection: They offer AOI for your PCBs, used with pick and place machines to place microscopic components on your PCB.

Laser-guided assembly tables offer laser-guided assembly tables for your PCBs to ensure high-quality components.

Surface mount components: They offer SMT services for your PCBs to ensure high-quality components.

2. BEC Manufacturing Pty Ltd

BEC Manufacturing Pty Ltd has been manufacturing PCBs since 1992 and has developed a range of different PCB manufacturing processes based on its original technology.

They can manufacture your board in virtually any size and shape. In addition, they specialize in producing both small and large volume orders.

BEC Manufacturing provides complete circuit design, prototyping, mask set creation, and PCB fabrication services for a range of companies worldwide. They have offices in the United States, China, Korea, Europe, Australia, and New Zealand. BEC Manufacturing Pty Ltd is Australiaโ€™s leading PCB prototype assembly service provider.

Services:

They offer a full range of PCB manufacturing services for small and large-scale orders.

They have developed a wide range of different PCB manufacturing processes based on their original technology.

Multi-layer Capabilities: BEC Manufacturing is a leading PCB manufacturer specializing in producing multi-layer boards. They can produce your board in any shape, size, and layout, and they are experts in SMT mounting technology.

Circuit design: BEC Manufacturing has developed various PCB products in response to market needs. They have also designed custom printed circuit boards designed for specific applications.

Substrates: They use a wide range of substrates for production, including FR-4, Rogers 4003, Rogers 4350, Rogers 437, and Taconic.

3. Breadboard Killer

Breadboard Killer provides PCB prototype assembly services for a range of different industries. They have recently developed their own patented techniques and are now one of the leading PCB manufacturers in Australia.

Breadboard Killer has developed its proprietary manufacturing processes to integrate PCB prototype assembly, prototyping, manufacturing, and testing. In addition, they areย developing complete end-to-end products from design to production.

It is a CB service for engineers, students, hackers, makers, and hobbyists. Breadboard Killer will do all of your hard work and provide you with the kit you need to get started.

Services:

Breadboard Killer provides many different services. These include:

Recorded delivery and tracking details so that they can keep track of their parcel in transit. A detailed invoice listing everything included in the kit and what it costs.

Free shipping service for all kits priced under $150 (about $120)

A comprehensive 10-minute guide will teach you how to solder and build your very own PCB

A loading dock service with a lift that can deliver anything from a single board to over 80 boards (complete with kit)

Embedded design techniques: They use their patented embedded design techniques. These techniques allow them to provide you with direct soldering of components, free of any vias. They also offer complete multi-layer boards and PCBs with a fully automated optical inspection.

4. Broad Avenue Industries Pty Ltd

Broad Avenue Industries specializes in PCB prototypes and low-volume production. They have been a leading PCB prototype assembly service provider for over 30 years and have a range of different capabilities that include:

Turnaround times: Turnaround times vary based on what stage the board is at in the manufacturing process and whether they are working with an existing design or are creating a new design from scratch. Their normal lead times are 8-12 weeks, but they can also provide express services if required.

Size: They can manufacture boards of any size and shape. Some of the sizes that they can produce are:

They have a state-of-the-art CMOS manufacturing facility and have an extensive machine shop.

We can easily add aย large range of standard components such as resistors, capacitors, diodes, and transistors to your board with their automatic adapters.

High-quality components: They use the latest technology from Rayming PCB & Assembly.

5. Cadlink Electronic

Cadlink Electronic is a leading PCB manufacturer specializing in producing high-quality PCBs. They have been manufacturing boards since 1988 and are frequently the first choice of many designers and engineers. They have offices in the United States, Germany, and Australia.

Services:

Specialty services: They have developed a range of specialty services, including quick turn and panelization.

Short turnaround time: They have a fast and flexible PCB fabrication process with shorter lead times than other PCB manufacturers. This is because they have their own SMT line complete with pick-and-place machines, an automatic feeder, a machine vision inspection system, and an automatic soldering machine.

End-to-end quality control: They can also provide a complete end-to-end quality control service.

Multi-layer capabilities: They use the latest technology and manufacturing processes to produce high-quality multi-layer boards, and they can also provide you with various surface finishing techniques, including immersion gold plating, immersion silver, and immersion tin.

The best PCB manufacturers in Australia visit PCB Prototype Assembly Australia for more information on sourcing. Breadboard Kit is a low-cost solution for prototyping that does not involve much work. This kit allows you to create a board using one of their ready-to-use PCBs, including SMT components and connectors.

We package the components in pre-drilled packages with mounting holes, and they also have a simple soldering guide. The PCB assembly takes place at the PCB manufacturerโ€™s facility. This kit is different from the other kits because it has been designed specifically for educational institutions and small businesses.

6. Circuit Solutions Pty Ltd

Circuit Solutions is one of Australiaโ€™s leading and most experienced PCB manufacturing companies. They have been producing high-quality and affordable boards since 1988. Their range of services includes surface mount and through hole PCB design and manufacture, PCB assembly, and testing. Some of their services include:

Turnaround times: Typical turnaround times are 4-5 weeks. However, you can select a range of different quick and express turnaround times on their quoting tool. They also offer a cost-free interim quote that will confirm the cost per unit once they know the quantity you require.

Circuit Board Design: The Design Department at Circuit Solutions canย service the needs of its customers. It is not just a one-off design, but rather it is a long-term commitment to customer satisfaction. They have implemented a new design process that they are constantly improving upon. This process winds from the customer placing an order through to delivery of the complete order.

They have created an in-house board design software that offers advanced features and functionality. It is also easy to use, making designing in 3D easy for everyone.

Contract Services: They have a range of flexible contract services available for purchase or hire. You can choose to work with a contractor to handle the design, sourcing of the components, and PCB assembly. Alternatively, you can look into contracting them to build your complete order.

7. Entech Electronics

Entech Electronics is one of Australiaโ€™s leading and most recommended PCB manufacturers. They have been producing boards since 1984 and have a fully automated CMOS SMT line that allows them to manufacture components in high volumes. They provide services for various sectors, including healthcare electronic devices, industrial electronic devices, mobile phones, and even credit card machines.

Services:

Contract manufacturing: They can also build your order as a contract manufacturing service.

PCB Assembly: They have a fully automated SMT line to produce boards in large volumes. They have their pick-and-place machines, reflow ovens, SMT machines, and visual inspection.

PROTOTYPE PCB ASSEMBLY: They can also build your prototype PCBs. Their highly skilled and experienced engineers can produce a prototype PCB in just a few days. They can also hold your design for up to three months if required.

Circuit design: Circuit Design Consultants at Entech can work with you from the beginning of the design process to ensure that everything meets your requirements. They can also handle any issue that may appear during the design phase, and they can assist you with PCB layout, parts selection, and economic analysis.

HMI SOLUTIONS: They can also provide HMI solutions, including PCB and Packing.

Instant Quote / Online quote: An instant quote service gives you the cost per unit upfront. They have an online quoting system that will allow you to select your required services. This service is free, whereas there is a fee for their electronic design and analysis service.

8. Huntsman Technologies Pty. Ltd

Huntsman Technologies has been manufacturing PCBs for over 25 years, and they have a reputation for providing excellent service and quality components. They have a high level of experience and expertise in their industry, which means that they produce high-quality PCBs that are reliable and robust. They have a range of different services, and these include:

Design support: Huntsman Technologies has a team of engineers who can handle all stages of the design process. They can help with schematic, layout, PCB fabrication, and even post-manufacture support.

Rapid prototype: If you are looking for rapid prototype boards, they provide this option. We use themย to enable you to test your circuit as soon as possible. You do not have to wait too long for your finished product.

Contract manufacturing: Huntsman also provides contract manufacturing services, which means they can produce your entire order.

Assembly: The assembly of the PCB can be handled by them as they have pick and place machines, reflow ovens, wave soldering machines, and visual inspection.

Testing: Weย thoroughly testย the boardย using a wide range of in-house test equipment.

Prototyping: They can also provide you with prototyping services. We do thisย by batch-building your PCBs in their different fabrication facilities.

9. ICONIC PCB

ICONIC PCB is a highly recommended manufacturer of printed circuit boards that use their in-house advanced design software. We install it onto their PCB design systems for ease of use. Their experience and expertise in the industry mean that the boards that they produce are always reliable, high quality, and robust.

Services:

1) PCB Design: ICONICโ€™s PCB design software features all the usual features and has some additional features. This allows you to produce professionally designed PCBs quickly and easily. It also allows you to include your artwork which we can useย for logos, decals, text, and more.

2) PCB Assembly: The assembly of the PCB can be handled by them as they have a large number of pick-and-place machines, wave soldering machines, SMT solder stations, and reflow ovens.

3) PCB Inspection: There are several visual inspection tools that they have in-house, various measurement devices, and even an automated test oven.

4) PCB Assembly and Post-Production: They also offer a full range of services for the post-production process, ranging from custom soldering to cleaning and coating the boards.

5) PCB Packing: ICONIC also provides PCB Packing services where they will pack your boards into boxes and top loaders depending on your requirements.

10. IMP Electronics Solutions

IMP Electronics Solutions is a pioneer in designing and manufacturing printed circuit boards in Australia. They have been providing PCBs to customers since 1989, which means that they have a wealth of experience in the field. They pride themselves on the quality of their components and boards and their service level.

IMP Electronics Solutions is a fully licensed and accredited PCB manufacturer with an experienced team of engineers to provide you with your PCB requirements. In addition, they offer a wide range of services, including:

Design support: IMP can help with the schematic and layout stages of the design process. We do this by using the IMP IES software. In addition, their experience and expertise can improve the overall quality of your finished product, which means that it will be reliable, robust, and able to withstand long-term use.

PCB Assembly: IMP produces PCBs that are highly reliable and robust. We do thisย with their different assembly machines and locations. In addition, they have a team of highly skilled engineers, which means that they can handle all stages of the assembly process.

Prototype PCB Assembly: IMP produces prototype PCBs and standard parts, which means that you can test your design without having to wait too long for your finished product. They can also hold your designs for up to three months if required.

11. Keyflex Australia

Keyflex Australia is a highly recommended manufacturer of PCBs that use their in-house design software, fully integrated with their full range of equipment. They have been providing PCBs to customers since 2003, and they pride themselves on the quality of their work. Their expertise and experience in the industry mean that they produce high-quality PCBs that are reliable and robust.

Services:

Design: They have a range of expert design engineers who can help with the schematic stage and the layout stage of their PCB design process. They can support you with all of the basics. For example,ย the design of your PCBs schematics, board layouts, and even the layout of your solder mask.

PCB Assembly: Keyflex is a fully licensed and accredited PCB manufacturer. This allows them to handle all stages of their assembly process, from ordering from their PCB manufacturer to getting your boards into the packaging and then punching holes.

Wings: Keyflex also offers wings services to cut any larger design for you. This means that you can get your parts cut or even your PCBs etched and painted for you by a professional team at no extra cost.

Products

Silicone keypads: We use themย in the automation industry with 4-wire and 2-wire versions. Customized colors are also available on request to better match your requirement.

Cap/Res touch-screens: We often see the enhanced glass touch-screens on touch-screen kiosks, trading desks, and ATMs.

Plastic Injection: They can provide you with a range of plastic injection products for your PCBs, including:

a) LEDs: These always comeย in large quantities and where there is a requirement for short lead times.

b) Passives: These are required where you need large quantities of resistors, which we often useย in lighting products.

Die-cast aluminum: They can provide you with aluminum parts using a powdered metal technique. The material is then milled, polished, and treated to give the final finished product.

Flexible PCBs: They also offer a range of flexible PCBs. This productย is applicable in a wide range of products, including:

a) Auto parts: These are widely used in the auto industry and usually consistย of aluminum. The material is then milled, polished, and treated to give the final finished product.

b) Automation: We can use itย where there is a requirement for the PCB to move around in an automated fashion, either manually or through some motorized system.

12. Lintek Pty Ltd

Lintek is a fully accredited IC manufacturer that produces high-quality and reliable products. They have been providing PCBs to customers since 1985, which means that they have a vast amount of experience and expertise in the industry. Their services include:

Design Support: Lintek has a wide range of design engineers who can support your PCB designs and layouts. This includes engineering your schematics, board layouts, artwork, or even the layout of your solder mask.

PCB Assembly: Lintekโ€™s highly experienced teams can handle all stages of the assembly process, which includes ordering your board from the PCB manufacturer through to receiving, inspecting, and assembling your finished product.

Prototype / Pre-production: Lintek can offer prototype PCBs and pre-production boards, which will ensure that you do not have to wait too long for your finished products. You can also have them hold your design for up to three months if required.

ICs: Lintek produces a range of integrated circuits, which include:

a) CD-ROM drives are on desktop or laptop computers, and we make themย using CD-ROMs.

b) Micro-controllers: We often find themย in various onboard systems and devices. We usually write any software that needs storing on the chip using assemblers, compilers, or emulators.

Lintek also offers a range of microelectromechanical systems (MEMS), which include:

a) Accelerometers: We use thisย to measure the acceleration and movement of various objects. It can then transform the measured values into digital output signals, which other electronic systems can use.

b) Gyroscopes: We can use thisย to measure the angular velocity of objects. It can then transform the measured values into digital output signals, which other electronic systems can use.

13. Multi-Flex Circuits Australia

Multi-Flex Circuits Australia is an IC manufacturer that specializes in a wide range of products, including:

User interface (UI) technology: They have extensive knowledge and experience with the UI technology market, which allows them to supply you with a wide range of solutions for all types of controls.

Inject molded rigid keypads: They can help you with your customized needs, including the design of your keypad layout, parts selection, and assembly.

Service:

Design support: They have a team of expert designers who can help with the schematic stage and the layout stage of their PCB design process.

PCB assembly: They have engineers who can handle all stages of the assembly process, which includes ordering your PCB from the PCB manufacturer through to receiving, inspecting, and assembling your finished product.

14. OurPCB Australia

OurPCB is an international electronics design house based in Australia. It has a highly reactive and economic advantage over its competitors, as they offer a wide range of products and services.

Software Products:

1) Our PCB Design Suite: This schematic design program allows you to create your project quickly by using a WYSIWYG environment. In addition, it is highly functional, as it will enable you to create your components, which you can reuseย in other projects. This can include the creation of:

a) Customised user interfaces: It can integrate with all significant schematic editors, including Altium Designer, KiCad, and Eagle.

b) Customised test benches: It allows you to create test benches for each circuit design you create. This makes it easier to test electrical device designs on each part before assembling your final prototype.

2) Our PCB Production Suite: This panel design and production program allow you to create any type of panel design. It has a large number of features, with capabilities that include the:

a) Picking and Placing Process: It allows you to identify the exact position of each component on your PCB before starting the production process.

c) Comprehensive Network Analysis: It can automatically detect any possible nets, which you then display on your network map.

d) Comprehensive Circuit Contents: It can automatically detect the possible components, which other engineers can verify.

3) Our PCB CAD Library: This program collects schematic symbols and footprints from a wide range of manufacturers. This makes it easy to create new design projects quickly and with little effort.

4) Our PCB Solder Paste Property Analysis: This program allows you to check the dip marks on all of your solder pasteboards before placing them into production. This will ensure that they are fit for purpose before starting the production process.

15. PCBFast

PCBFast is a PCB design, manufacturing, and assembly company based in Sydney. It has over ten years of experience dealing with the PCB manufacturing industry. One of the main benefits it offers is its highly customizable printing process, which we can adjustย to suit your specific requirements.

Printing Service: They offer a wide range of printing services to help you create your labels and other printed circuit boards. These include:

1) Multi-layer printing: This process allows you to create many high-quality boards at a low cost. It is also an environmentally friendly process, as it reduces the amount of waste produced and offers a simple recycling solution.

2) Multi-layer and single layer: This process allows you to place up to six or two layers on your PCBs while still offering high-quality finishes at a low cost.

3) Flexible PCB and rigid PCB: They can provide flexible PCBs and rigid PCBs. This means that they can help you to create a wide range of finished boards for all types of applications.

4) Rigid and flex PCB: They can combine the two types of boards into one design. This means that you can use flexible PCBs where needed and rigid PCBs where needed.

5) Industrial grade printing: Whether you need it for high-speed or high-sensitivity applications, they ensure that you print all of your components with high-quality results.

Conclusion

In conclusion, finding a good PCB design company that can help you with your end productย is easy. This is especially true if you are a small business, making things much easier for you. So, Australia Wide PCB is the perfect place to find your ideal PCB design company. It is a leading company in the industry and has highly customizable printing processes to help you create high-quality, low-cost PCBs quickly and economically.

What is .SCH File Viewer ?

.SCH File

In the technology world, different file formats are widely used. The .SCH file viewer is one of such. Also, this file viewer plays a significant role in the designing of electronic schematics and PCB layouts. Before using an .SCH file, it is important to know how it works.

What is .SCH File Viewer?

A .SCH file viewer is one created by gEDA. Also, it is a collection of tools that designs electronic schematics and PCB layout. The .SCH file refers to a schematic file. This file comprises information that makes up the schematic. Therefore, this includes the XY coordinates for nets and gEDA/gaf format version.

A .SCH file is an electronic circuit’s schematic created with electronics design simulation programs. This file is widely used by electronics design programs to save the schematics of an electronic circuit in an .SCH file. Programs like Altium, EAGLE, and CIRCAD use this program. Furthermore, electronics schematics comprise a collection of components, buses, and nets. These schematics are ideal during the schematics capture process during circuit design.

The contents of the .SCH file are always in plain text. However, they are encoded as binary data in some programs. Other data stored in these files are component symbols and part numbers among others. A .SCH file comprises a visual diagram of a circuit board. Also, this file stores symbols linked by lines. Furthermore, .SCH files are specifically designed for creating actual PCB .BRD files.

Autodesk EAGLE is a CAD application used by electronics designers to make PCB designs and schematics. EAGLE features a schematic editor that creates electronic circuit schematics. Also, these schematics are further saved in SCH files. EAGLE can place a schematic within a physical board design after a designer has created a schematic. Also, the BRD files will save these designs.

The .SCH file can be opened in various PCB design applications. These applications include Altium Designer and Autodesk EAGLE. If you canโ€™t access any of these applications, there is another way to view the PCB schematics in .SCH file.

Ways to Open the .SCH File Viewer

You can open the .SCH file extension by double-clicking it. However, there are a few things you will need to try if this doesnโ€™t work. Below are easy ways to open .SCH file:

Choose the appropriate program

There are some programs that can help you open the .SCH file. It is important to select the right program if you want to access .SCH files. Below are programs that can open .SCH file:

Verify the type of file

Some programs may open a .SCH file based on the file type. Also, the file type is very easy to locate. It is always included in the fileโ€™s properties. Right-click the file and choose properties if you are using a Windows PC. After selecting properties, check โ€œType of file.โ€ If you have a Mac computer, right-click the file and click โ€œmore info.โ€ You can then check under โ€œkind.โ€

Seek help from your developer

The software developer may have some solutions to your problem. You can contact the developer to help you open your .SCH file.

Utilize a Universal File Viewer

After several failed attempts, a universal file viewer is the last resort. This application is the easiest way to open a .SCH file.

Reliable Programs that can Open and Convert your .SCH Files

 .SCH files allow specific programs to have access to them. Therefore, these programs include:

CIRCAD

This is a PCB design software application used for netlist generation and schematic capture. Also,CIRCAD is suitable for design review. The .SCH file saves the electronic circuit schematic designs of this software.

PCB Artist

This is a PCB design program that features more than 500,000 electronics components. Also, it saves circuit schematics in the .SCH file.  

Schematic Editor

The Schematic Editor by Xilinx is a 2D electronic circuit schematic program. This program utilizes.SCH file to store an electronic circuitโ€™s schematics.

Altium Designer

This is a PCB design program suitable for Windows desktop. Also, Altium designer utilizes the .SCH file to store the schematic of an electronic circuit.

EAGLE

Most times, designers refer to the .SCH files as EAGLE cads. This is because the .SCH file viewer is specifically designed or utilized by EAGLE.

KiCad

If you need a free electronics design automation software application, Kicad is an ideal option. This free and open source software saves schematics of an electronic circuit in .SCH files.

FTP Voyager

FTP Voyager by SolarWinds is a file transfer client that works with Windows. The. SCH file viewer saves this schedule file transfer data.

How to Create a PDF version from a .SCH File Viewer

.SCH files are specifically saved in a proprietary format.  You can open a .SCH file with associated programs and export it to a similar format. For instance, you can export a .SCH file to a PDF file.

You can easily convert the .SCH files to PDF by using a PDF printer. This printer creates PDF files. With this printer, you donโ€™t print on paper. Therefore, the PDF printer prints what is in the file into a PDF file.  This will help you create a PDF version.

To achieve this, open the file and click the โ€œprintโ€ button. Also, select the virtual PDF printer and select โ€œprint.โ€  The PDF24 PDF printer is free and very easy to use. Download this software and install it. You will see a new printer device on your system after installing it. With this printer, you can convert any printable file to a PDF.

Conclusion

The .SCH file viewer is an important file format that comprises a visual diagram or schematics of a PCB. It plays a vital role in PCB designs. The .SCH file can be opened in various PCB design applications. This article has provided the necessary information about .SCH files.

All about QuickLogic QuickRAM FPGA Family

QuickLogic QuickRAM FPGA

If you believed everything the silicon manufacturers say, you would get the temptation to ditch your PC and buy a laptop instead. They say you can make it work with a bit of patience. But is that true? Unfortunately, for many tasks, the answer is no!

For example, in some cases, when doing accounting or tax calculations that might take hours on end in Microsoft Excel, the answer may well be yes. But what about when it comes to sales forecasting? Or designing a new product? Or running scenarios and simulations as part of product development? And how about graphics-intensive applications such as Autocad?โ€

QuickLogic QuickRAM FPGA

The QuickLogic QuickRAM FPGA Family comprises Integrated Circuit (IC) devices. As a result, it provides low-cost, high-performance, easy-to-use embedded memory.

QuickLogicโ€™s products depend on the popular LatticeMico32โ„ขFPC180. It is essential for embedded applications with the proven benefits of low power and advanced architectural features. In addition, it offers a solution for designs that require extreme speed, computing, and persistence.

The QuickRAM family of ESPs have up to 90,000 High Performance, Low-voltage CMOS SRAM bit cells. Each cell can store up to 4 bytes of data, which is eight times greater than Latticeโ€™s MicoESP8X10 device. The higher density allows better performance and lowers cost. In addition, it contains a range of 160 to 1,584,000 bits of user-programmable non-volatile memory.

QuickLogicโ€™s QuickRAM devices can operate on a wide range of voltages (1.8V, 3.3V, and 5V). However, because they operate on very low voltage, they donโ€™t require power adapters and can also be helpful in battery applications. In addition, designers can cascade multiple RAM devices. Additionally, they connect them to external SRAM devices over low-voltage differential signaling interfaces.

These devices are fast enough to be helpful in many different applications. They are big enough to hold large amounts of non-volatile memory. They can be helpful as a part of a boot-loader program or as an applicationโ€™s persistent storage.

Electrical Specifications

QuickLogic QuickRAM FPGA Family

The QuickRAM family of devices is available in a range of packages/. They range from QFN-32 (14mm x 14mm) that can hold up to 2Mbits, to a QFN-100 (14mm x 14mm) that can hold up to 1Gb. They contain Vdd, Vss, and Vcc external pins and I/O, /RST, and TEST pins. Fast/Slow Mode bits select between Normal operating speed or High-Performance mode (2X) with the same clock frequency. The Power Dissipation is 3.2mW in normal mode and 21mW in High-Performance mode.

The QuickRAM family of devices is available with a wide range of data widths. The package footprint is small enough to allow deep board integration and dual-data-rated signal support. In addition, these devices contain up to 60MHz internal clock multiplier that allows the device to output twice the frequency of the input clock.

AC Characteristics:

The QuickRAM devices operate on a single supply of VDD, or 2.7V to 5.5VDC. This ensures compatibility with a wide range of designs. They may use voltage regulators and power supplies that donโ€™t have a high tolerance to voltage levels.

The QuickRAM devices provide fixed voltage levels. However, VDD or VSS can drive the floating input and output pins. The floating pins should not remain floating for long periods because of potential noise and power consumption issues.

DC characteristics:

The QuickRAM devices are essential for maximum signal integrity with a deterministic rise and fall time of 50nS on all the outputs. The input signals can accept โ‰ฅ 2.0V in High-performance mode or โ‰ฅ 1,3V in Normal mode.

The deviceโ€™s external input and output resistance are between 1kฮฉ and 10kฮฉ. This provides a low input capacitance with a fast rise/fall time. In addition, it ensures the dissipation levels remain to a minimum during transitions from 0 to VDD or VSS and vice versa.

The devices have a test pin that allows direct access to the device. This is available with 2.7V and 5.5V supplies and can read and write data directly from the non-volatile memory core. So, we can use it for self-test or on-chip debugging of the FPGA logic.

Power-Up Sequencing

The QuickRAM family of devices can accept power on their VDD or VSS pins. Therefore, we must power the unit up before sampling and verifying the output signals. We usually do this with a single-clock pulse in Normal mode and multiple clock pulses in High-Performance mode.

The QuickLogic QuickRAM ESPs can offer an industry-standard pinout. They also offer interface layout arrangements to design their products with ease. In addition, they feature standardized data, clock, and control pins for easy access to I/O functions. Also, they feature common interfaces such as power (VDD), data (Vss), clock (Vcc), and reset (I/O). As a result, we can easily cascade the QuickLogic QuickRAM ESPs to other devices, such as SRAM and FPGAs.

The QuickLogic QuickRAM Family provides an unusually large high-density bit cell of 4 bytes. However, this does not mean the bit cell size is equal to the number of 3-state read/write control output pins. Instead, the number of bits equals the number of 4-state reads/write control input pins.

This means that a 1Mbit device has a size similar to 8,000 8kbit devices.

JTAG

The QuickRAM devices contain a JTAG interface that can access the internal circuitry or perform on-chip programming. The JTAG interface is on pad one and consists of 3 test pins. Each input pin is accessible as a 4-state input pin.

JTAG tests allow users to reduce system complexity and potentially reduce development time by eliminating the need to add pull-up resistors or level converters to their system signals.

I2C

The QuickRAM devices also include I2C functionality to use the devices as simple non-volatile memory devices. The I2C interface is accessible on pad two and consists of 2 test pins that can be helpful as an input or output pin. Each input pin is accessible as a 4-state input pin. Therefore, we can configure it to access a single bit or multiple bits in the device.

Features

Advanced I/O Capabilities

The QuickLogic QuickRAM devices come in a wide range of packages, ranging from QFN-32 (14mm x 14mm) that can hold up to 2Mbits, to a QFN-100 (14mm x 14mm) that can hold up to 1Gb.

In addition, designers can cascade multiple RAM devices and connect them over low-voltage differential signaling (LVD) interfaces.

They provide fixed voltage levels. However, VDD or VSS can drive the floating input and output pins.

High-Performance Silicon

They can be helpful as a part of a boot-loader program or as an applicationโ€™s persistent storage. These devices provide the designer with multiple options to ensure the best fit for their system design. It is available in various packages, including QFN28, QFN32, and QFN-64 which provides designers with optimal design space utilization for high-density applications. The QuickLogic QuickRAM I2C/SMBus-compatible device offers up to 1Gbits of bit cell density in 14mm x 14mm packages.

So, the QuickLogic QuickRAM I2C/SMBus-compatible device is available in QFN32, QFN64, BGA100, and BGA144 packages with 100MHz to 250MHz operation.

The QuickLogic QuickRAM I2C/SMBus-compatible devices are available in various density sizes from 64KB to 2Mbits.

Easy to Use/Fast Development Cycles

The QuickLogic QuickRAM devices are ready to use with all FPGA development tools and packages. In addition, their pinout and testability are compatible with most of todayโ€™s FPGA systems and programming tools.

Some applications developed using the QuickLogic QuickRAM devices are non-volatile memory, flash memory, SRAM, dual-port RAM, etc. Additionally, we can easily cascade it to other products.

The development cycle reduces significantly compared with other LSI package solutions. Therefore, designers can focus on their application instead of planning their bit cell layout.

High-Speed Embedded SRAM

The QuickLogic QuickRAM XC is a 2-level memory device used as programmable non-volatile memory to store application data. It is available in QFN-28, QFN-32, and QFN-64 packages, with 100MHz to 250MHz operation.

The QuickLogic QuickRAM XC is an 8Kbit SRAM device with 64KB of internal flash memory, allowing the user to program it up to 100ns. You can write the boot loader using the bank select pins (SMBus address) triggered by I2C or JTAG interfaces.

Eight Low-Skew Distributed Networks

The QuickLogic QuickRAM devices are carrier-grade High Speed embedded SRAM. Also, they can be helpful to connect to an FPGA system and provide the user with multiple options to ensure the best fit for their system design.

It makes it easier to integrate into an FPGA system and use it in a wide variety of technologies.

Up to 316 I/O Pins

Up to 316 high-performance, I/O pins can be available for designers to utilize in their FPGA designs.

The QuickLogic QuickRAM devices come in a wide range of packages, ranging from QFN-32 (14mm x 14mm) that can hold up to 2Mbits, to a QFN-100 (14mm x 14mm) that can hold up to 1Gb.

In addition, designers can cascade multiple RAM devices and connect them over low-voltage differential signaling (LVD) interfaces.

High Performance & High Density

These devices provide the designer with multiple options to ensure the best fit for their system design. It is available in various packages. They include QFN28, QFN32, and QFN-64, providing designers with optimal design space utilization for high-density applications.

The QuickLogic QuickRAM BGA100 and QuickLogic QuickRAM BGA144 devices are available in various density sizes from 64KB to 2Mbits.

Advantages of the QuickLogic QuickRAM FPGA

Easy to Use

The QuickLogic QuickRAM devices are ready to use with all FPGA development tools and packages. In addition, their pinout and testability are compatible with most of todayโ€™s FPGA systems and programming tools.

All signals come through a single 4-bit wide QFN package that reduces parasitics on all signals by removing unneeded inductors, capacitors, or resistors from the design. Thus, it boosts the performance and cost-effectiveness of designs.

Available in a Wide Range of Packages

The QuickLogic QuickRAM devices are available in various density sizes from 64KB to 2Mbits. Each input pin is accessible as a 4-state input pin and can access a single bit or multiple bits in the device. They provide fixed voltage levels. However, VDD or VSS can drive the floating input and output pins. The packaging choice considers the number of addresses and I/O available on the device itself.

Easy to Connect and Use

Three pins come on each side of the QFN package. We commonly connect these pins to FPGA memory and common digital or analog inputs and outputs.

Easy to Develop for

The QuickLogic QuickRAM devices have very fast access times. Therefore, it allows designers to run their applications faster than other solutions. In addition, the device is compatible with most FPGA development tools and packages.

Fast Design Cycle

The QuickLogic QuickRAM devices are ready to use with all FPGA development tools and packages. Their pinout and testability are compatible with most of todayโ€™s FPGA systems and programming tools. It takes approximately 2 minutes to program the QuickLogic QuickRAM XC SRAM device from a fully programmed EPROM device.

Wide Platform Support

The QuickLogic QuickRAM devices are compatible with a wide range of FPGAs and integrated circuits. They include Xilinx devices such as the XC4000, XC5000, XLP100, XLP200, XLP400, XL7000-XC devices, and the XC2XXX family.

Worldwide Support

The QuickLogic QuickRAM devices operate worldwide by an extensive after-sales service network. In addition, they use a global network of distributors, resellers, and trained engineers.

Accurate Timing

All parameters on the QFN package meet the required specifications while maximizing all benefits of the QFN process. The clock cycle speed is 2.5ns from 100MHz up to 250MHz.

Disadvantages of  the QuickLogic QuickRAM

Data Security

To ensure data security, the QuickLogic QuickRAM devices come with various security options such as:

  • A 32-bit signature register in each device provides a scrypt hash for the deviceโ€™s contents. The signature register is programmable and not accessible by the user.
  • A 64-bit counter holds the MAC address of the host or target device and can prevent illegal reprogramming of the device.
  • The customerโ€™s encryption or password can be set via the I2C interface. It prevents unauthorized access to QuickRAM silicon devicesโ€™ contents.
  • Lockable 2-wire hardware serial interface data bus for further security measures

Power Consumption

The QuickLogic QuickRAM devices consume less power than other FPGA memory solutions and have a very low power standby current.

Environment Friendly

All QuickLogic QuickRAM devices are RoHS compliant and available in all packages. They include QFN-64 and QFN-100. It means that they can be helpful in todayโ€™s most advanced automotive, industrial, handheld medical devices and portable consumer electronic devices such as mobile phones and MP3 players.

Immersion and High-Temperature Applications

The QuickLogic QuickRAM devices are available in SOIC, TSSOP, and QFN packages to allow immersion applications. The QFN-64 allows usage up to +110ยฐC, while the QFN-100 allows up to +150ยฐC.

Quality and Reliability

QuickLogic QuickRAM devices have built a strong reputation for quality, reliability, and customer support. They have an extensive history of successful applications across various markets, including automotive, industrial and military.

Technical Attributes

The QuickLogic QuickRAM XC SRAM devices provide several technical attributes to assist designers with system design. These include:

Typical Operating Supply Voltage:

The device requires 3V or 5V of operating supply voltage for operation.

Supplier Package:

The MQFP-64 package is available from our supplier, and the QFP-100 package is available from our supplier.

Speed Grade:

The device can meet the JEDEC standard for SDRAM devices. This provides the device with the high performance and reliability required in automotive, industrial, and military applications.

Screening Level:

The device qualified to meet the AEC-Q100 Grade 3 standard. This provides the device with a high degree of integrity and reliability required in military and aerospace applications.

Re-programmability Support:

We can reprogram the device with new data, logic, and I/O functions using either an external programming source or an I2C interface.

RAM Bits:

We can program the device to store 64 or 128 bits in memory.

Product Dimensions:

The package size for the QFN-64 package is 25.4mm x 21.5mm, and for the QFN-100 package, it is 28.6mm x 18.2mm.

Pin Count:

The pin count is 208 for the QFN-64 package and the QFN-100 package. The number of I/O pins depends on the density used.

Operating Temperature:

The device has a maximum operating temperature of +70ยฐC. The maximum operating temperature depends on the package selected.

Number of Registers:

There are 876 chip registers on the QFN-64 package and 38 on the QFN-100 package. Some of these are accessible to I/O pins, and some are accessible only internally to the device. The Detail Register Descriptions section gives a detailed description of each register.

MSL Level:

The device can meet theMIL-STD-461E Standard for Military Devices using QFN-64 and QFN-100 packages. These devices are essential for applications requiring safety factors to keep the device powered up during a normal operation over +70ยฐC.

Mounting:

The device comes on a QFN-64 or QFN-100 package. It can be directly soldered onto a printed circuit board with a reflow oven and then encapsulated. The package provides blind and buried options as per the customersโ€™ requirements.

Minimum Operating Supply Voltage:

The minimum operating supply voltage is 3V, and a low level of 0V can reset the logic cells. The device has a built-in watchdog timer that supports application software resets in the event of device lockups. The device can be automatically reset via an I2C interface, an external signal, or an external clock level to recover from system failures.

Maximum Propagation Delay Time:

The device logic cells have a propagation delay time of 1.4ns. Therefore, we can use the QFN-64 packages for 100MHz devices with a maximum clock frequency of 250MHz. On the other hand, the QFN-100 packages can be helpful for 250MHz devices with a maximum clock frequency of 500MHz.

Maximum Operating Supply Voltage:

The device has a +1.8 to +3V. The user can program the control register to select between 3V and 5V.

Maximum Number of User I/Os:

There are 320 I/O signals available on the QFN-64 package and 480 I/O signals available on the QFN-100 package. We can easily access each signal as an open drain, 4-state input, or output pin. In addition, the user can program a single logic cell or multiple logic cells to access single or multiple logic units. The total number of bits that we can access at one time depends on the density used.

Maximum Internal Frequency:

The device has a maximum internal frequency of 500MHz. However, the user can program the control register to select between 100MHz and 250MHz.

Lead Finish:

They fully finish the device through the entire process, from the first die to the last test. They print the QFN-64 package and pre-tin the QFN-100 package at all times.

Device Logic Units:

The device logic units can read 64 bits per clock cycle. The number of logic cells allocated to each logic unit is fixed and depends on the deviceโ€™s density.

Device Logic Cells:

The device is partitioned into 64K logic cells, each accessed through a single clock cycle. We fix the allocation of logic cells to address I/O pins, and the customer cannot change.

Brief Description of the Device Structure

The QuickRAM device structure is a hierarchical VLIW logic structure. We partition it into three sections: a primary logic and address assist logic unit (AAU) and a secondary logic unit (SLU). You can access the primary logic, AAU, and SLU, through the I/O pins to form one part of the QuickRAM architecture. The internal address lines are helpful to form another part of this architecture. Finally, the external address lines are helpful to communicate the starting address of the primary logic from the AAU. The primary logic and AAU are on one side of the device, while the secondary logic is on another.

The SLU has three parts: a register memory, a data memory, and an enable memory. The register memory receives control signals from the primary logic. It provides internal registers that enable write access to the data memory and external I/Os in either the X- or Y-direction. In either direction, the data memory provides read access to internal registers and external I/Os. An external clock is essential for any device with a secondary logic unit.

QUICKLOGIC QL4009 Family

QL4009-3PFN100C, QL4009-3PL68C, QL4009-3PF100I, QL4009-3PF100C-5557, QL4009-3PF100C-5556, QL4009-3PF100C, QL4009-3PF100, QL4009-2PL68C, QL4009-2PF100C, QL4009-2PC68C, QL4009-1PL84C, QL4009-1PF100I, QL4009-1PF100C, QL4009-0PL84C, QL4009-0PL68C, QL4009-0PFN100C, QL4009-0PF100I, QL4009-0PF100C

QUICKLOGIC QL4016 Family

QL4016-0PF144C, QL4016-2PFN144I, QL4016-PF144, QL4016-PF100, QL4016-OESPL84C, QL4016-OC-5331, QL4016-4PF144I, QL4016-4PF100C, QL4016-3PF144I, QL4016-3PF100I, QL4016-3PF100C, QL4016-2PL84C, QL4016-2PF144C, QL4016-2PF100C, QL4016-2CF100M, QL4016-1PL84C, QL4016-1PF144I, QL4016-1PF144C, QL4016-1PF100C, QL4016-0PL84C, QL4016-0PF144I, QL4016-0PF100I, QL4016-0PF100C

QUICKLOGIC QL4036 Family

QL4036-T3PF144C, QL4036-QFP144C, QL4036-OESPQ208C, QL4036-OESPF144C, QL4036-IPF144C, QL4036-3PQ208C, QL4036-3PF144I, QL4036-2PQ208C, QL4036-2PF144M, QL4036-2PF144C, QL4036-2PB256C, QL4036-1PQ208M, QL4036-1PQ208I, QL4036-1PQ208C, QL4036-1PF144I, QL4036-1PF144C, QL4036-1PF144, QL4036-0PQ208C, QL4036-0PF144I, QL4036-0PF144C, QL4036-0ESPF144C

QUICKLOGIC QL4058 Family

QL40589-1PQ208C, QL4058-3PQ24C, QL4058-3PQ240C, QL4058-2PQ240C, QL4058-2PQ208C, QL4058-2PB456C, QL4058-1PQ240C, QL4058-1PQ208C, QL4058-0PQ208I

QUICKLOGIC QL4090 Family

QL4090-3PQ240C, QL4090-T3PQ208C, QL4090-T3PB456C, QL4090-LPQ240C, QL4090-4PQ240C, QL4090-3PQ208I, QL4090-3PQ208C, QL4090-3PB456I, QL4090-3PB456C, QL4090-2PQ240M, QL4090-2PQ240C, QL4090-2PQ208M, QL4090-2PQ208C, QL4090-2ESPQ208C, QL4090-1PQ240C, QL4090-1PQ208M, QL4090-1PQ208I, QL4090-1PB456C, QL4090-0PQ208M, QL4090-0PQ208I, QL4090-0PQ208C

QUICKLOGIC QL80FC Family

QL80FC-APQ208C

Application of the QuickRAM FPGA

QuickLogic QuickRAM devices can provide a high-performance SRAM solution. They can work in various general-purpose FPGA platforms. Below are some examples of use cases:

Converter Applications

A QuickLogic QuickRAM device can replace a slower part in applications such as digital oscilloscopes, logic analyzers, and RAM-based data acquisition systems.

Memory Controller or DMA Applications

A QFN-64 device can be helpful as the main memory controller for a system. However, the QFP-100 devices can benefit RAM module applications as per Rayming PCB & Assembly requirements.

Multiplexed Devices

We can implement multiplexed devices using QFN-64 devices to build up the multiplexed memory cells.

High Data Rate Applications

QFN-64 devices can be helpful in high data rate applications such as wireless radio communication and high-speed internet applications. In contrast, QFP-100 devices can be helpful in high data rate applications such as CDMA applications.

Low Power Applications

QFN-64 or QFP-100 devices can be helpful for low power consumption applications such as stereo audio systems and display monitors.

Conclusion

In conclusion, QuickRAM FPGA devices are an excellent solution to SRAM needs. They combine speed, data retention, and programming flexibility with meeting a wide variety of applications.

QuickLogic is a registered trademark of Semiconductor Systems Limited. QuickLogic solutions enable semiconductor designers to create the most advanced devices for embedded, digital signal processing and communications applications that require high-performance memories, DSPs, and microprocessors.

What is .GML File ?

.GML File

In most cases, GML files belong to yEdโ€™s Graph Editor. The full meaning of GML is GameMaker Language file. This file extension is useful in saving developer files, which have an association with a software from Yoyo Games called GameMaker.

The GameMaker software is mainly useful in creating computer video games. This software makes use of the GML file in strong program code which is written with the help of the GML โ€“GameMaker Language.

Furthermore, you can execute these GML filesโ€™ code making use of the GameMaker interpreter. This is mainly for the creation of modules, functions, or game scripts.

GameMaker Language can also be called Geography Markup Language File. Galdos systems developed the GML. Furthermore, this is useful as a data format, with backing from the Geospatial Consortium. This format is useful for geographers in saving any geographical information in an interchangeable format.

Also, GML files serve as output files for data, which are generated by Autodesk EAGLE. Furthermore, the GML files have layout data, which indicates the positions of the hole, which needs milling.

How Do You Open GML Files?

To open GML files, you will need to use appropriate software such as Graph Editor. Without using the right software, you will get a message from Windows like โ€œWindows failed to open this fileโ€ or other related alerts from Android, iPhone, or Mac.

Also, if you fail to open the GML file the right way, you can long-press or right-click the file. Next, select โ€œOpen With.โ€ Once it opens, choose the application you will love to use. Also, you can display the GML file in your browser directly.

What Programs Can You Use in Opening and Converting GML Files?

Game Maker

This is a program, which allows you to create different computer games. This is without the need to write any code, not even a line. Also, this program permits the incorporation of sound effects, music, graphics, backgrounds, as well as many different features, tailored towards computer programmers.

Also, these.gml files are useful in the creation and storage of modules, functions, and game scripts, which are written using the language of GameMaker. The file format will be under the โ€œDeveloper category.โ€

Graph Editor

At times, .gml files are called the files of the Graph Editor data. This is because this file type is mainly used or created with the help of this software.

Graphlet

This is a programming language that serves graph algorithms using user interfaces. The program is open for all operating systems of today. However, presently, this is no longer supported or developed.

Also, the GML files have the algorithms for graph drawing, which are mainly useful in C++ coupled with libraries that are STL based. Here, the file format is placed under the โ€œDataโ€ category.

Geography Markup Language

This is a form of modeling language that serves geographic systems. This is specifically called XML grammar, which is always written in XML Schema. Many programs support this language including Canvas X and Merkaartor.

This GML file includes different objects that help in describing geography, which includes topology and reference systems. Here, the file format is placed under the โ€œDataโ€ category.

NetRemote

This is a configuration file that is XML-based. This software is useful for controlling Promixis smart devices like speakers, lights, or TVs. Also, it permits bidirectional communication excluding any issue related to line of sight. This GML file also includes the configuration data that is XML-based, which NetRemote uses. Here, the file format is placed under the โ€œDataโ€ category.

Ways of Solving Issues with GML Files

All you have to do is to associate the .gml file with the right application. Also, to achieve this, visit Windows, then right-click on the GML file you desire and then select โ€œOpen Withโ€, then โ€œSelect another app.โ€ Then, choose a different program and then tap the box that reads โ€œalways make use of this app when opening any .gml file.

Another thing you can try is to update the software which should open the language files. This is because the present version alone backs the latest format of the GML file. Search the website of the yEd manufacturer to know if thereโ€™s an update of the Graph Editor.

To ensure that the GML file is virus-free or not corrupted, take the file once again and then use the virustotal.com of Google to scan it.

Apps that Use the .GML File Extension

The applications below are open to different GML files. Take note that different programs may make use of GML files in serving different purposes. Therefore, there may e a need for you to try some of them in order for you to know which of them opens your file.

For Windows, the applications include FalconView, Gaia3, TatukGIS Viewer, Garden Planner, CODE Editor, GoVisual Diagram Editor, MiraMon, Protel DXP, and yEd Graph Editor. For now, we are yet to be sure of any software that works using .gml files on Mac. The same goes for the Web. However, if you have any ideas of any, feel free to let us know.

Specifications of the .GML File

You can find these specifications in a full GML dataset.

  • The first section has more information regarding the format of the GML data.
  • The second section has more information regarding the bounding box. Also, the coordinates are those where the map shows.
  • The third section has information regarding the dataset
  • The fourth section has the required geometry to draw the features of the map on the map
  • Next is the fifth section, which has opening tags, which gives additional information regarding the features of a map. These features include the polygon, line, or point.
  • The last and final part contains the entire closing tags.

Conclusion

We hope we have been able to explain what the .gml file is all about. In this article, we also talked about how to open the .gml file, as well as other software that works with it. If you have any questions, feel free to ask us here.

All you need to know about Audio sensors

ย Audio sensors

We are living in an era where almost everything is using tech. You will find tech gadgets being implemented to farm, guard places, serve clients, shopping, and so on. However, the most affected sectors include the education sector, the security sector, and the scientific sector. This article will focus on the security sector whereby advancements such as audio sensors are being implemented to take things up a notch. However, audio detectors have not just found their way into the security sector alone; they are also used for different purposes such as:

  • Security
  • Monitoring
  • Home automated tasks (for example, the famous house lighting using claps)

All these are just a taste of what’s to come; we shall get into these details later.

Overview

So, have you ever come into contact or used an audio detector? What did you think about this particular kind of tech? Well, audio detectors are indeed a wonder and a great tool to use in the 21st century; hence am pretty sure the experience was pretty fascinating, unless you were stealing, in which case the incident must not have been that good.

The tricky part about audio detectors is that most people do not know how they function. Ask most people how an audio sensor works and wait for some pretty weird answers, such as “the device hears sound and responds.” Well, in this article, we shall help you not fall victim to answering this question wrongly. We shall cover:

  1. How an audio detector works
  2. Applications of an audio sensor
  3. Audio sensor Arduino tutorial using raspberry pi
  4. Projects on audio sensors

After reading this article, you will not just have the answer to “what is an audio sensor?” but also the answers to why, when, and how to use an audio sensor. Hence let us get right into it.

What is an Audio Sensor?

 An audio sensor can be defined as a module that detects sound waves via the intensity of the sound wave. It then converts these sound waves into electrical signals. So no “hearing” sound stuff around audio sensors.

Audio sensors modules consist of a small board that combines processing circuitry and a microphone. These modules produce audio output, a binary indication of the Sound’s presence, and an analog representation of the wave’s amplitude.

How exactly does an Audio Sensor Work?

Well, you know how your ear works? Audio sensors work similarly. They have a diaphragm that changes vibrations into signals. The difference between your ear and an audio detector is that an audio sensor:

  1. Uses a capacitive microphone (in-built)
  2. A peak detector
  3. An amplifier ( one that is pretty sensitive to audio)

An audio detector using these components can work in the following way:

  1. First, the audio sensor receives sound waves propagated via air molecules using its in-built capacitive microphone.
  2. The sound waves then cause the diaphragm found in the audio detector’s microphone to vibrate, which leads to a change in capacitance.
  3. The change in capacitance is then amplified and digitized for sound intensity processing.

Applications of an Audio Sensor

Other than being used with Arduino boards for various projects over the years, audio sensors also have some other pretty fascinating applications, which include:

  1. Utilized in consumer electronics such as music systems, computers, phones et cetera
  2. Monitoring and security systems such as door alarms and burglar alarms.
  3. Home automation, for example, house lighting using claps/ whistle rather than having to work with a switch
  4. Audio level and ambient audio recognition

Sound Sensor Module

Before we advance on to the how part, let us first look at the sensor module we shall utilize in this article. Well, there are a lot of modules available in the market to date, some good, some not so good. However, we shall implement the LM386 audio sensor in this article. The LM386 is a low-powered, simple audio sensor with high compatibility.

The features of this module include:

  1. Compatibility interface
  2. Analog output signal
  3. A wide voltage supply that ranges in between 4V and 12V
  4. Minimal external parts
  5. 2.0cm x 2.0cm twig module

What’s more, this module is pretty affordable. Once you have purchased an audio sensor, you will require an Arduino to complete this article’s “HOW” part.

But what is an Arduino in the first place?

Well, have you ever heard of Arduino boards? Have you ever used one before? Well, if you have not heard of it nor used it, worry not because we have got you. This section will look at Arduino and its connection to audio sensors.

Arduino can be defined as an open-source platform utilized to build electronic projects. Arduino is composed of a micro-controller and an IDE (integrated development environment) that runs on a PC. The IDE is simply utilized to write and upload Arduino codes onto the physical board.

Over the years, Arduino has become pretty popular, and for good reasons. See, earlier programmable circuit boards required a separate piece of hardware to work correctly, which is not the case with Arduino. Using Arduino, all you need is a cable to load a program onto the physical board, and you are good to go. What’s more, Arduino utilizes the C++ language for programming purposes, a pretty simple language to learn and master. All these reasons make Arduino great, but how is it connected with the topic at hand? Well, to answer this question, let us first see what this device entails.

See, an Arduino is designed for newbies, hackers, designers, artists, and basically anyone interested in creating an interactive environment or objects. Arduino can interact with GPS units, speakers, LEDs, buttons, the internet, TV, and even your smartphone. However, here is the part we have been waiting for; they also interact with audio detectors. That means we can utilize this device to develop responsive projects that respond to Sound.

Arduino Components

Arduino boards come in different varieties; however, most of them have the following components:

  1. Power (USB/barrel jack) โ€“ used to power the Arduino board
  2. Pins (3.3V, 5V, AREF, PWM, Digital, Analog) โ€“ These are the places whereby you connect cables to create a circuit
  3. Reset button โ€“ once you press this button, the Arduino board temporarily connects the reset pin to the ground, which restarts any code loaded onto the board.
  4. Power LED indicators โ€“ the power LED indicator found on most Arduino boards lights up when you connect the board onto a power source.
  5. TX RX LEDs – TX represents transmit, and RX represents receive. These LEDs provide visual indication every time your Arduino sends or receives data.
  6. Main IC โ€“ IC is short for integrated circuit. It acts as the board’s brain
  7. Voltage regulator โ€“ just as the name dictates, a volt regulator controls how much voltage gets into the Arduino.

The Arduino Family

types of sound sensors

As stated earlier, Arduino boards come in different varieties, each bearing unique but excellent capabilities. What’s more, these boards have open-source hardware, which means that you can modify them to suit your needs. So, if you are not sure about the project to tackle well, worry not because, at the end of this article, we shall provide a list of projects you can tackle. In the meantime, let us first look at the great Arduino family.

Arduino Uno (R3)

First on our list is the Arduino Uno which we shall also be using for the tutorial that we shall cover. The Arduino Uno board is an incredible choice for beginners. It has everything you require to get started, plus it eliminates everything that you don’t need. It has six analog inputs, a power jack, a USB connection, a reset button, and more.

LilyPad Arduino

a lilypad Arduino board is an e-textile wearable tech. It is specially designed to be sewn into clothing using conductive threads.

RedBoard

The redBoard can be easily programmed via a USB cable using the IDE. In addition, it is more stable because of the FTDI/USB chip. Plus, this board is also completely flat on the back, which makes it easier to embed onto your project.

Arduino Mega (R3)

The Arduino Mega is like a bigger brother to the Arduino Uno. It bears a lot (up to 54) of digital output/input pins. Having these many pins makes it pretty great for projects, as for other properties, the mega functions just like the Uno.

Arduino Leonardo

The Arduino Leonardo bears one feature that sets it apart from other boards. It can use one microcontroller via an in-built USB. By handling USB directly, the board has to have code libraries readily available, which allows it to emulate a computer mouse, keyboard, and so on.

Now that we know what an Arduino entails let us see how it works with an audio sensor.

Arduino Sound Sensor

By combining Arduino boards and sound sensors, you can achieve a lot. For instance, you can generate a device that controls house lighting via Sound. In this tutorial, we shall help you merge these two devices and develop an incredible project, hence follow along.

Wiring Audio Sensor with Arduino

Connecting an audio sensor onto an Arduino board is pretty simple. You begin by connecting the VCC pin found on your audio sensor to the 5V found on the Arduino board, then connect the GND pin onto the ground.

When you are done, connect your OUT pin onto the digital one on the Arduino board, and you are done.

Calibrating your Sound Sensor

When you need to gain accurate reading off of your audio sensor, you should calibrate it first before utilizing it for your project.

The module we are utilizing has an in-built potentiometer used to calibrate digital output (OUT).

While adjusting the potentiometer knob, it is easy to set a specific threshold. Once any sound wave level goes beyond set threshold figure, Status LED lights up, and digital output displays or outputs LOW.

To accurately adjust your sensor to detect claps, start clapping your hands near the sensor’s microphone while adjusting the potentiometer up until the moment Status LED is blinking in response to the claps you make.

That is it; you have a well-calibrated sensor to use.

Sound Detector Sensor using Arduino

Now that we have the audio sensor connected to our Arduino board, time to actualize its working.

The example that follows once coded onto an Arduino IDE simply detects snaps or claps and then prints a message on to a serial monitor. Let us try it out:

Sound sensor Arduino code

#define sensorPin 7

//the variable that store time when the last event occurred

Unsigned long lastEvent = 0;

Void setup() {

  pinMode (sensorPin, INPUT);

Serial.begin(9600);

}

Void loop(){

//reads sound sensor

Int sensorData = digitalRead (sensorPin);

// once sound goes LOW, sound is sensed

If (sensorData == LOW){

// after 25 milliseconds have gone since the last state of LOW, it implies that the detected clap is not due to any other spurious sound

// if (millis() โ€“ lastEvent > 25){

Serial.println (โ€œclap has been detected!โ€);

}

//Recall when the last event occurred

LastEvent = millis();

     }

}

Once you are done with this program, load it up to your Arduino using a USB cable and then clap your hands close to the sound sensor. If everything is running fine, you should see a “clap has been detected” output on your serial monitor.

Now that we are sure that our Arduino sound sensor is working properly, how about we work on an actual project.

Clap Controlled Device using an Audio Sound Sensor and an Arduino Board

This project will create a sound sensor that turns an AC-powered device, might be a bulb, on and off using claps. We shall use a relay module (one-channel) to control an AC-powered device efficiently.

Wiring

First, you should supply power onto the relay module and audio sensor. Connect the VCC pins onto the 5V pin present on your Arduino board then connect the GND to the ground.

Next up, connect the audio sensor’s OUT pin (used for output) onto digital pin #7 found on the Arduino board. Finally, connect relay module IN pin (or the control pin) onto the #8 digital pin.

You will also have to position relay module to be in line with your AC-powered device you are attempting to manipulate using Sound. First, cut off the live AC track and then connect one of the two ends (the one end emanating from the wall section) to COM, then connect the other end onto NO.

Arduino code to Control an AC Powered Device

#define sensorPin 7

#define relayPin 8

//variable that stores the time when last event occurred

Unsigned long lastEvent = 0;

Boolean relayState = false; // variable that stores relay state

Void setup() {

pinMode(relayPin, OUTPUT); // set the relay pin as an OUTPUT pin

pinMode( sensorPin, INPUT); // set sensor pin to be an INPUT

}

Void loop(){

//reads sound sensor

Int sensorData = digitalRead (sensorPin);

//If pin outputs LOW, sound is detected

If (sensorData == LOW) {

// if 25 milliseconds have passed since the last LOW state, then it means that the detected clap

//was valid

If (millis() โ€“ lastEvent > 25) {

//toggle relay then set output

relayState = !relayState;

digitalWrite( relayPin, relayState ? HIGH : LOW);

}

// Remember last event occurrence

LastEvent = millis();

   }

}

Once you load and run this program with the hardware hooked up, the sensor should switch the device on or off each time you clap your hands.

Troubleshooting

If your sound sensors tend to misbehave, try out these tricks to fix it:

  1. First, double-check the power supply to ensure that it is clean. That is because audio sensors are analog circuits; hence they are prone to power supply noise.
  2. The electret mic used in sound sensors is also pretty sensitive to wind noise and mechanical vibrations. Hence mounting it with some resilient material can help absorb vibration.
  3. Clap your hands closer to the sound sensor to gain a better response. Most sound sensors have low-range sound sensing, probably ten inches or so. Hence the closer, the better.

And that is how you tackle a basic sound-sensing Arduino project. You can play around with this project making adjustments to familiarize yourself with sound sensors and Arduino.

Now that we have that โ€œhow to use audio sensorsโ€ section out of the way. How about we take things up a notch by bringing raspberry pi into the equation. If you do not know what a raspberry pi is, hold on to your seat because this will amaze you.

Raspberry pi

sound sensor arduino

The Raspberry Pi can be defined as a credit-card-sized, low-cost computer which is plugged onto a TV or computer monitor and utilizes a standard mouse and keyboard. Using this device, you can explore the world of computing in a cost-friendly manner and learn languages such as python and scratch. In addition, the raspberry pi can do everything that you would expect from a desktop, from browsing to playing games and word processing.

However, here is why this device has made it into this article, the Raspberry Pi can interact with the real world via detectors such as, you guessed it, audio detectors. But how can you use a raspberry pi with an audio sensor? Well, let us see how:

Raspberry pi Sound Sensor

Materials required for this project

  1. Raspberry Pi (with keyboard and screen)
  2. LED
  3. Sound sensor
  4. Jumper wires
  5. Breadboard

Circuit connection

Connect your sound sensor according to this table, where each column cell is connected to the adjacent column cell.

 Raspberry Pi connection to the:   Sound sensor 
 +5V  +5V, VCC 
 GPIO 4 Pin   DO  
 GND  GND 
 Raspberry Pi connection to the:  16 * 2 LCD 
 GND  GND 
 +5 volts  VCC  
 GPIO 3 (SCL)  SCL Pin 
 GPIO 2 (SDA)  SDA Pin 
 Raspberry pi connection to the:  LED 220-ohms Resistor
 GND    Terminal 1
 GPIO 7 Pin   Anode Terminal ( + ) 
    Cathode Terminal Terminal 2

Code and Explanation

To get things up and running, we must first save some modules into the Raspberry Pi python directory or in the location at which you have saved your main program. The program utilized to save the required modules can be found online, once you find this program, save it as LiquidCrystal_12C.py in the above specified location. You are now set to move on to the main raspberry pi code which configures your raspberry pi to work with a sound sensor.

Main raspberry pi code:

import LiquidCrystal_I2C  

 from time import sleep  

 import RPi.GPIO as gp  

 gp.setmode(gp.BOARD)  

 gp.setup(7,gp.IN)  

 lcd=LiquidCrystal_I2C.lcd()  

 lcd.clear()  

 lcd.display(“Initiating Mic…”,1,0)  

 sleep(1)  

 lcd.display(“Listening”,2,4)  

 sleep(1)  

 while True:  

   try:  

     while(gp.input(7)==1):  

       print(“SPEAKING…”)  

       lcd.display(“SPEAKING”,1,1)  

     else:  

       lcd.clear()  

   except KeyboardInterrupt:  

     gp.cleanup()  

     break  

The main code performs the following functions

In the code, we, first of all, include some crucial modules such as the liquidCrytal_12C RPi.GPIO module and the sleeping function.

We then set up the gpio pin numbering board as the board convections dictate, with pin seven as the IN pin for the audio sensor.

We then initialize the LCD and generate an LCD object bearing a variable name โ€œLCD,โ€ We then provide a command to delete any previous information contained in the LCDโ€™s memory. After that command, we move on to insert starting strings onto the LCD screen.

The while loop has a code that prints onto the LCD each time an input goes high on pin 7.

And that is how you can use a raspberry pi with an audio sensor to detect sound waves.

Audio Sensor Project suggestions

Here are some projects that you can tackle to boost your knowledge of audio sensors:

  1. A baby monitor using audio sensors โ€“ using this project baby sitter can have less work watching over toddlers and mothers can sleep better knowing that their child is being monitored at night in case they cry. The best part about this project is that you only require pretty basic components such as a raspberry pi and a sound sensor.
  2. A dog barking tracker with audio sensors โ€“ You know how dogs escape their leash and run away. Well, using this dog barking tracker, you can easily find your dog whenever they bark. It is a fun project to venture into and the product is just as good.
  3. USB device control using Sound โ€“ Having to manually switch songs or adjust the volume of a device can be exhausting. But what if you could carry out this tasks totally hands free. Well, that is what you get when you venture into this project. Try it out and bring in some futuristic functionalities to your home.

Conclusion

We live in a technological era that is making our lives pretty easy and fun. In terms of making our lives easier, sound sensors are one of the most commonly used devices for this job. Now you do not have to type on your phone. All you need to do is say something onto your smartphoneโ€™s sound sensor, and your phone does it. Also, you do not have to switch off the light manually; you can just clap your hands to turn the light on or off. All these are great examples describing just how awesome sound sensors are and why you should make use of them. We hope this article has answered all the questions you had on sound sensors and provided more to help you execute your project efficiently.