FSPGroupUSA.com Technical Support Center
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FSP Engineering Driven Quality
When it comes to power supply manufacturing, FSP possesses superior industrial capability. Since its listing in 2002, it has made great strides towards becoming one of the three largest PC power manufacturers in the world. In recent years, FSP has concentrated on R&D and manufacturing of high wattage power supplies, allowing a transfer from low, medium and high wattage PC power supplies to power supplies for industrial computers and server systems. Owing to its professional R&D skills, systemized production, and insistence on product quality, it has been able to turn in a nice report and report card as one of the top global power supply providers, currently ranking at Top-5.
In the wake of the emergence of global environmental awareness and the implementation of the European Union environmental policy, the demand for and attention on energy-saving products is increasing, and Green Products have become the latest end. On 27 January 2003, the European Union issued the RoHS (Restriction of Hazardous Substances) Directive, therewith outlining regulations for the use of heavy maters (lead (Pb), cadmium (Cd), mercury (Hg), hexavalent chromium
(Cr6+)) and flame retardants (PBB (Polybrominated Biphenyls) and PBDE (Polybrominated Diphenyl Ethers)) in electrical and electronic equipment imported into the Member States of the European Union, strictly controlling levels of electromagnetic waves may be harmful to the human body, demanding reduced material waste during manufacturing processes, and requiring a reuse/recycle rate of 75%. This Directive will become effective on 1 July 2006.
With the concepts of environmental protection and material recycling in mind, the FSP Group is the first to introduce a low-waste of solvents containing fluorine (bromine) has been banned from materials and manufacturing processes, the use of chemical compounds containing heavy metals, (such as cadmium, lead, mercury and hexavalent chromium) for casings has been restricted, and used material have been reduced by 600grams, substantially eliminating weight of any electronic articles that are discarded for recycling. The superior high-performance active PFC circuit design of our various power supplies delivers a performance of 85% at full speed, while the low power consumption design of less than 1W in the standby mode considerably reduces electricity costs, making this a truly environmentally friendly product of superior quality.
Seeking stable operation of computer systems and even higher performance, great expectations and demands are placed on power supplies, that have seen a development from low to high wattage, from general output to high performance, and from noisy to silent products. End-users have of course reaped the most benefits from advancements in product technology and design. With high-standard and economic power, our lives have undergone considerable transformations, and FSP has placed its part in being a responsible product developer.
The Importance of Quality-Built Power Supplies
With the concepts of environmental protection and material recycling in mind, the FSP Group is the first to introduce a low-waste of solvents containing fluorine (bromine) has been banned from materials and manufacturing processes, the use of chemical compounds containing heavy metals, (such as cadmium, lead, mercury and hexavalent chromium) for casings has been restricted, and used material have been reduced by 600grams, substantially eliminating weight of any electronic articles that are discarded for recycling. The superior high-performance active PFC circuit design of our various power supplies delivers a performance of 85% at full speed, while the low power consumption design of less than 1W in the standby mode considerably reduces electricity costs, making this a truly environmentally friendly product of superior quality.
Seeking stable operation of computer systems and even higher performance, great expectations and demands are placed on power supplies, that have seen a development from low to high wattage, from general output to high performance, and from noisy to silent products. End-users have of course reaped the most benefits from advancements in product technology and design. With high-standard and economic power, our lives have undergone considerable transformations, and FSP has placed its part in being a responsible product developer.
The three elements that play a major role in the stable operation of a computer, are its motherboard, its memory and most importantly its power supply. When assembling a computer, the average computer user is more likely to pay more attention to the role of the motherboard and memory in the stability of the computer, while many consumers are ignorant of the importance of selecting a good power supply. Novice computer users mostly use brandless power supplies that come with the case, yet many users do not know that the design of such power supplies does not conform to standard power supplies, which may well result in reduced performance and unstable operation of the computer and cause damage to computer peripherals!
Electronic components are affected differently by the different designs of power supplies, therefore, in case of any slight problem occurring when the power supply is transforming utility power (AC current) into +3.3V, +5V, +12V current useable by the computer, the power supply may not be able to operate normally. Or, in case of poor design of the power supply, under certain circumstances it may result in an unstable electric current and insufficient power supply. The computer may seem to operate normally, but in reality the life-span of peripherals is gradually shortened. Therefore, when assembling or purchasing a computer, it is advisable to choose a power supply with a good reputation for quality and to avoid those power supplies that come with the computer case, unless of course you can be sure of the quality of that particular product.
Electronic components are affected differently by the different designs of power supplies, therefore, in case of any slight problem occurring when the power supply is transforming utility power (AC current) into +3.3V, +5V, +12V current useable by the computer, the power supply may not be able to operate normally. Or, in case of poor design of the power supply, under certain circumstances it may result in an unstable electric current and insufficient power supply. The computer may seem to operate normally, but in reality the life-span of peripherals is gradually shortened. Therefore, when assembling or purchasing a computer, it is advisable to choose a power supply with a good reputation for quality and to avoid those power supplies that come with the computer case, unless of course you can be sure of the quality of that particular product.
Type of Power Supplies Available in the Market
Currently, two types of power supply can be distinguished, namely AT and ATX power supplies. AT power supplies have a long established history. From the era of 386 and 486 processors to the current Pentium processors, AT power supplies have been the mainstream product. However, as present and future computers all support ACPT (Advanced Configuration and Power Management Interface), the ATX standard will be the mainstream of the future. So what is the difference between AT and ATX power supplies? The easier way to establish the difference is to take a look at the power supply connector on the motherboard. An AT-style motherboard connector has two parts (a P8 and P9 connector) with each six pins. An ATX-style motherboard connector consists of one single 20-pin connector with fool-proof design, so you do not have to worry about burning your motherboard in case you connect the power supply incorrectly.
What You Should Know About Power Supplies:
- How to Recognize a Good Power SupplyAlthough the circuitry and overall design supplies have not been subjected to much change over time, technological advancements have brought about slight changes in the materials and design used for the interior of power supplies. It is these slight changes that can form a guideline for consumers when purchasing a power supply. Following, a few things you should know about power supplies.
- The More Cooling Fans, The Better?
Fans are relied upon effectively disperse the wasted heat generated by the power supply. In addition to the commonly seen single fan power supplies, power supplies with a double or even triple fan design for even better heat convection and concurrent dispersion of heat inside the computer case have emerged on the market. Although in theory better dissipation efficiency can be attained with a large number of fans, a good case design can actually also successfully dissipate waste heat. In single fan products, the fan is positioned at the bottom of the power supply, while the back of the power supply is equipped with a large honey comb structure that allows for the dissipation of waste heat inside the case. A large number of fans may generate excessive noise, which is why single fan power supplies have gradually become the mainstream product. Therefore, the key is not the number of fans, but the dissipation efficiency.
- The Larger The Fans Fins (Blades) the better?
When opening the case of a power supply, the first thing you will notice is the cooling fan and its blades (fins) of the CPU heat sink! Although the design concept used in many products is based on the theory that the larger the blades (fins) are, the better the heat dissipation will be, this theory does not necessarily apply to power supplies! In power supplies, the main function of the blades (fins) is to transform energy lost in the power transformation and output process into waste heat, and conduct this along the blades (fins) of dissipation. In other words, this waste heat is actually energy that is lost during operation of the power supply. The size of the fins should therefore be interrelated to the efficiency of the power supply. High-efficiency power supplies can adequately use and transform power, and thus unnecessary to equip them with large blades (fins). Besides, consumer who have studied fins probably know that rather than fin size, the fins' dissipation area is what's important when evaluating the dissipation efficiency, because the larger the dissipation area is, the greater the dissipation efficiency will be. Another key factor for the dissipation efficiency is whether the fins have single-piece design.
- Power Factor Correction (PFC) Makes Power Supply More Environment-friendly
In order to comply with the European EN6100-3-2 and IEC1000-3-2 standard for electrical equipment, the design of power supplies meant for export to Europe includes a PFC (Power Factor Correction) circuit which reduces the difference between effective power (input AC) and apparent power (power consumption) and thus minimizes wasted energy. This way power can be saved and the goal of producing an environmentally friendly product achieved, while at the same time consumers are enable to economize on their electricity bill. There are two types of PFC circuits, namely active PFC and passive PFC. Passive PFCs mostly have a big choke (inductor), while active PFCs are equipped with a controller chip.
Today's power supplies have many ergonomic and consumer-considerate designs. An adjustable fan speed, for example, enables the user to find a balance between heat dissipation and noise, while with the fully automatic voltage setting of many power supplies users do no longer need to worry about using the correct voltage when abroad. Other power supplies have focused on wiring, using better materials, coated anti-interference power cords, or wires of various length for easy planning and management. Serial-ATA power connectors are also the trend of today and the future. When purchasing a power supply, these are all design characteristics that consumers can take into consideration.
- Weight Is Definitely Not the Decisive Factor
The weight of components if definitely no longer a factor in deciding upon the quality of a power supply! High-quality power supplies are those power supplies that have a proper design and that comply with the relevant norms and standards. The method that was used in the past to determine the quality, comparing weight, can only be considered as unfair. Of course, standard-compliant power supplies are usually not that light. Users who have once used an inferior brand power supply that came with the computer case probably understand what is important. On the market, most power supplies are sold pre-assembled with a computer case. To reduce costs, a good computer case is not necessarily paired with a good power supply, and we therefore strongly advice to purchase a computer case and power supply separately.
Risk of an Inferior Quality Power Supply
Hard disk burnout after power failure!
After the computer is turned on and ready, it will send a PG (Power Good) signal to the motherboard. Upon receiving this signal, the system will boot and the hard disk will start to read and write. When at this point there is low voltage and insufficient power, the hard disk will experience and abnormal rotation speed due to which the magnetic heads of the hard disk cannot to suspended to their normal position and will scratch disk.
Unstable screen picture
Using an inferior quality power supply may influence the AGP display, giving a rippled or unstable picture. If a problem with the display card is ruled out, the problem most probably lies in an unstable power supply to the motherboard.
Overload causing burnout of chips, cards and/or motherboard.
Sudden cutoff from power supply or computer shutdown due to power failure. Nose of the peripheral hardware, nor the CPU, memory, motherboard and display card, will be able to work normally. As the +5V and +12V output voltage terminals of an inferior quality ATX power supply use the same voltage regulator circuit, it may occur that a higher +5V load causes a higher +12V output voltage. Since most chips, cards and motherboards require a +12V power supply, a substantial increase in the +12V voltage of an inferior quality power supply may lead to burnout of these components.
Excessive Noise of Sound Card
Inferior quality power supplies are well below the standard for electromagnetic screens and current output purity. In such a power environment, they can hardly be expected to produce a nice sound. False and deceitful label specifications of inferior quality power supplies lead to unexpectedly frequent re-starts of the computer.
Power Supply Label Data
Unstable screen picture
Using an inferior quality power supply may influence the AGP display, giving a rippled or unstable picture. If a problem with the display card is ruled out, the problem most probably lies in an unstable power supply to the motherboard.
Overload causing burnout of chips, cards and/or motherboard.
Sudden cutoff from power supply or computer shutdown due to power failure. Nose of the peripheral hardware, nor the CPU, memory, motherboard and display card, will be able to work normally. As the +5V and +12V output voltage terminals of an inferior quality ATX power supply use the same voltage regulator circuit, it may occur that a higher +5V load causes a higher +12V output voltage. Since most chips, cards and motherboards require a +12V power supply, a substantial increase in the +12V voltage of an inferior quality power supply may lead to burnout of these components.
Excessive Noise of Sound Card
Inferior quality power supplies are well below the standard for electromagnetic screens and current output purity. In such a power environment, they can hardly be expected to produce a nice sound. False and deceitful label specifications of inferior quality power supplies lead to unexpectedly frequent re-starts of the computer.
Performance Indexes:
1. Wattage: A power supply can transform alternating current (AC) of the utility power into direct current (DC) required by your computer. Most power supplies provide the computer with +3.3V, +5.5V, +12V, -12V, -5V power, and we usually use the wattage (watts) to evaluate the power's capability.
2. Capacitance: Capacitance plays a very important role in power supplies. A high-capacity filter capacitor can provide the computer with a better and purer input current, which is extremely important for the stability of the computer. If the input current is not pure, this will lead to chaotic signals, interfering with the normal processing of signals by the computer and causing instability. Many cheap power supply manufacturers use low-capacity filter capacitors to cut costs, resulting in the computer's performance falling short. There are even inferior quality power supplies that pose the risk of an exploding capacitor when the computer is struck by lightning or affected by any other unexpected impact.
3. Output: AC inputs stands for input from the external power source (utility power), in Taiwan 110V, and the specification is therefore 115V (+-10% margin). The 230V specification is for use abroad, while amperage and frequency are relevant corresponding specifications. The voltages supplied by the power supply after transformation of AC current into DC current useable by the computer and most important to gamers, are +3.3V, +5V and +12V. The +3.3V and +5V are usually required by processors, chipsets, display cards, and PCI and USB devices, while storage devices, CD-ROMs etc. need +12V. Users, and in particular function, must also pay attention to the +5Vsd (standard power) indication, because the WOL function, for example, requires a power of voltage (HV) equipment such a high-end high-speed processor with a high-end display card, choosing a high quality power supply is of crucial importance. The data provided on bales of power supplies available on the market are not always identical. As each manufacturer may be different ideas, labeling often seems ambiguously unclear. There are manufacturers that indicate the maximum power of a continuous output, while other indicate the peak surge output. As long as there is not set norm, through the indicated specifications may be similar, some power supply brands will show no problem in case of overload, while others will stop working altogether after only 1 or 2 seconds of overload. Imagine if we were to compare the other detailed output specifications, short circuit protection data, etc. of power supplies and take into consideration factors such as power quality. Therefore, choosing a high quality power supply is extremely important!
4. Input Voltage Range: On the label, the indicated input voltage range is usually 100-240 Vac, which covers global commercial voltage levels.
5. Input Frequency: The commercial range for input voltage frequency is usually 50 or 60 Hz, while electrical specifications are usually 47-63Hz.
6. Efficiency: Efficiency = (output power)/(input power), the input-output surplus becomes energy.
7. Turn-on Delay Time: The time that it takes for the output voltage to reach a stable voltage range after the system is powered on,
8. Hold Up Time: The time during which the output can be maintained after the system is powered off.
1. Wattage: A power supply can transform alternating current (AC) of the utility power into direct current (DC) required by your computer. Most power supplies provide the computer with +3.3V, +5.5V, +12V, -12V, -5V power, and we usually use the wattage (watts) to evaluate the power's capability.
2. Capacitance: Capacitance plays a very important role in power supplies. A high-capacity filter capacitor can provide the computer with a better and purer input current, which is extremely important for the stability of the computer. If the input current is not pure, this will lead to chaotic signals, interfering with the normal processing of signals by the computer and causing instability. Many cheap power supply manufacturers use low-capacity filter capacitors to cut costs, resulting in the computer's performance falling short. There are even inferior quality power supplies that pose the risk of an exploding capacitor when the computer is struck by lightning or affected by any other unexpected impact.
3. Output: AC inputs stands for input from the external power source (utility power), in Taiwan 110V, and the specification is therefore 115V (+-10% margin). The 230V specification is for use abroad, while amperage and frequency are relevant corresponding specifications. The voltages supplied by the power supply after transformation of AC current into DC current useable by the computer and most important to gamers, are +3.3V, +5V and +12V. The +3.3V and +5V are usually required by processors, chipsets, display cards, and PCI and USB devices, while storage devices, CD-ROMs etc. need +12V. Users, and in particular function, must also pay attention to the +5Vsd (standard power) indication, because the WOL function, for example, requires a power of voltage (HV) equipment such a high-end high-speed processor with a high-end display card, choosing a high quality power supply is of crucial importance. The data provided on bales of power supplies available on the market are not always identical. As each manufacturer may be different ideas, labeling often seems ambiguously unclear. There are manufacturers that indicate the maximum power of a continuous output, while other indicate the peak surge output. As long as there is not set norm, through the indicated specifications may be similar, some power supply brands will show no problem in case of overload, while others will stop working altogether after only 1 or 2 seconds of overload. Imagine if we were to compare the other detailed output specifications, short circuit protection data, etc. of power supplies and take into consideration factors such as power quality. Therefore, choosing a high quality power supply is extremely important!
4. Input Voltage Range: On the label, the indicated input voltage range is usually 100-240 Vac, which covers global commercial voltage levels.
5. Input Frequency: The commercial range for input voltage frequency is usually 50 or 60 Hz, while electrical specifications are usually 47-63Hz.
6. Efficiency: Efficiency = (output power)/(input power), the input-output surplus becomes energy.
7. Turn-on Delay Time: The time that it takes for the output voltage to reach a stable voltage range after the system is powered on,
8. Hold Up Time: The time during which the output can be maintained after the system is powered off.
Common Safety Standard Certifications
Our products have passed the safely standards of various countries, including the FI (Finland), N (Norway), CSA (Canada Standards Association), D (Denmark), CB (International Certification Body), UL (American Underwriters Laboratory), DVE (Germany), TUT (North-America), and SWEDEN *Sweden) safety standard. They have also obtained electromagnetic compatibility and electromagnetic radiation interference related certification, such as CE (European safety standard for electrical equipment), FCC (American Federal Communications Commission) and CCEE (Chinese Great Wall) certification. Most consumers, when they do not understand the specifications indicated on the power supply, look at the number of passed certifications to determine whether they are dealing with a good or bad power supply. Of course, if a product has passed safety standard certification, this indicates that it complies with a certain norm for electrical equipment in that particular country, however, that same safely standard can be divided into many different subcategories with each subcategory having different implications. CSA certification, for example, does not only distinguish region and product type, but also distinguishes different classes, so who can guarantee the universal quality of power supplies? When a power supply has passed many different safety standard marks are easily coped and the public is often deceived by underground certification. There are even manufacturers of brandless power supplies who label their products with false specifications without concern for the implications for the users. If safely standard indications can be falsified, then how can you distinguish original from fake? Once a product has passed a safety standard certification, you can check relevant information either with the organization that issued the certification or on that organization's website. Of course, this requires time, so when purchasing a power supply, another option would be to choose a product from a reputable large manufacturers include a copy of the safety standard certification in their packaging as a user reference, and although this is a responsible method of the manufacturer, the user has no way of knowing whether this copy isn't fake also.
What Are EMI Waves?
Electromagnetic waves are waves that are created as result of the interaction between an electric field and a magnetic field and that move through the air. The way they move can be compared to the wave movement of the sea. Our living space is full of all types of invisible electromagnetic waves, the existence of which we are never aware of. An improperly designed and manufactured power supplies may emit higher than regulated amount of electromagnetic waves which in some medical research, have suggested that long-term overexposure to these electromagnetic waves are the main cause many diseases, including various types of cancers.
