Comparison Deepcool Gamer Storm PF-X PF700X vs Gigabyte PS-Series P650SS
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|---|---|---|
| Deepcool Gamer Storm PF-X PF700X | Gigabyte PS-Series P650SS | |
| Outdated Product | from $109.62 | |
| User reviews | ||
| TOP sellers | ||
| Power | 700 W | 650 W |
| Form factor | ATX | ATX |
Specs | ||
| PFC | active | active |
| Efficiency | 88 % | 90 % |
| Cooling system | active | active |
| Fan size | 120 mm | 120 mm |
| Fan bearing | hydrodynamic | hydrodynamic |
| Certification | 80+ Bronze | 80+ Silver |
| Cybenetics Efficiency | Bronze | |
| Cybenetics Noise | A - | |
| ATX12V version | 2.52 | 3 |
Power connectors | ||
| MB/CPU power supply | 24+8+8(4+4) pin | 24+8+8(4+4) pin |
| SATA | 6 | 5 |
| MOLEX | 2 | 3 |
| PCIe 8pin (6+2) | 2 | 2 |
| Cable system | non-modular | non-modular |
| Braided wires | ||
Cable length | ||
| MB | 550 mm | 600 mm |
| CPU | 620 mm | 650 mm |
| SATA | 450 mm | 500 mm |
| MOLEX | 900 mm | 740 mm |
| PCIe | 550 mm | 600 mm |
Max. power | ||
| +3.3V | 18 А | 20 А |
| +5V | 18 А | 20 А |
| +12V1 | 58.3 А | 54.1 А |
| -12V | 0.3 А | 0.3 А |
| +5Vsb | 3 А | 3 А |
| +12V | 699 W | 650 W |
| +3.3V +5V | 110 W | 100 W |
| -12V | 3.6 W | 3.6 W |
| +5Vsb | 15 W | 15 W |
General | ||
| Over voltage protection (OVP) | ||
| Over power protection (OPP) | ||
| Short circuit protection (SCP) | ||
| Protection | OCP, OTP, UVP, SIP, NLO | UVP, OCP, OTP |
| Noise level | 30 dB | |
| Manufacturer's warranty | 3 years | |
| Dimensions (HxWxD) | 86x150x140 mm | 86x150x140 mm |
| Weight | 1.53 kg | |
| Added to E-Catalog | august 2025 | august 2024 |
Compare Deepcool Gamer Storm PF-X and Gigabyte PS-Series Deepcool PF700X и Gigabyte P650SS?
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Glossary
Power
The output power of the power supply, in other words, is the maximum power that it is capable of delivering to the system. For the computer to operate efficiently, the power supply must be greater than the total power consumption of the system at maximum load. The latter can be calculated by summing the power of individual components, however, in general, for office configurations , about 400 W — 450 W is considered sufficient, for medium gaming — about 600 W( 500 W, 550 W, 650 W, 700 W, 750 W), and for the top ones — power of 800 W and above ( 850 W, 1000 W and even more than 1 kW).
Efficiency
Efficiency, in this case — the ratio of the power of the power supply (see "Power") to its power consumption. The higher the efficiency, the more efficient the power supply, the less energy it consumes from the network at the same output power, and the cheaper it is to operate. Efficiency may differ depending on the load; the characteristics can indicate both the minimum efficiency and its value at an average load (50%).
It should be noted that compliance with one or another level of 80PLUS efficiency directly depends on this indicator (for more details, see "Certificate").
It should be noted that compliance with one or another level of 80PLUS efficiency directly depends on this indicator (for more details, see "Certificate").
Certification
The presence or absence of an 80+ certificate for the power supply. This certificate indicates high energy efficiency: to obtain it, the efficiency (see above) must be at least 80%, and in different modes (20%, 50% and 100% of the maximum load). There are several degrees of 80+:
— 80+. The original version of the certificate, assuming an efficiency of at least 82% (at least 85% for 50% load).
— 80+ White. The second name of the original 80+ certificate (see above).
— 80+ Bronze — efficiency not less than 85% (for half load — 88%).
— 80+ Silver — respectively 87% (90% for half load).
— 80+ Gold — 89% (92% for half load)
— 80+ Platinum — 90% (94% for half load).
— 80+ Titanium — 94% (96% for half load).
The power factor (see "PFC Type") must be at least 0.9 for the lower levels and at least 0.95 for the Platinum level. Also note that for redundant power used in server systems, the efficiency requirements are somewhat lower.
— 80+. The original version of the certificate, assuming an efficiency of at least 82% (at least 85% for 50% load).
— 80+ White. The second name of the original 80+ certificate (see above).
— 80+ Bronze — efficiency not less than 85% (for half load — 88%).
— 80+ Silver — respectively 87% (90% for half load).
— 80+ Gold — 89% (92% for half load)
— 80+ Platinum — 90% (94% for half load).
— 80+ Titanium — 94% (96% for half load).
The power factor (see "PFC Type") must be at least 0.9 for the lower levels and at least 0.95 for the Platinum level. Also note that for redundant power used in server systems, the efficiency requirements are somewhat lower.
Cybenetics Efficiency
Cybenetics Efficiency is a power supply unit (PSU) energy efficiency certification system that serves as an alternative to the 80 PLUS standard. It is more accurate as it considers efficiency at various load levels (10%, 20%, 50%, 100%) and at different input voltages (115V, 230V). The labeling of this system is identical to 80 PLUS:
Bronze — overall efficiency from 82% to 85% at 115V input voltage and from 84% to 87% at 230V;
Silver — 85 – 87% and 87 – 89% respectively;
Gold — from 87% to 89% (115V) and from 89% to 91% (230V);
Platinum — 89 – 91% at 115V and 91 – 93% at 230V;
Titanium — 91 – 93% (115V) and 93 – 95% (230V);
Diamond — ≥ 93/95%.
Bronze — overall efficiency from 82% to 85% at 115V input voltage and from 84% to 87% at 230V;
Silver — 85 – 87% and 87 – 89% respectively;
Gold — from 87% to 89% (115V) and from 89% to 91% (230V);
Platinum — 89 – 91% at 115V and 91 – 93% at 230V;
Titanium — 91 – 93% (115V) and 93 – 95% (230V);
Diamond — ≥ 93/95%.
Cybenetics Noise
The Cybenetics Lambda Certification System evaluates the noise levels of power supply units (PSUs), providing consumers with information about their acoustic characteristics. As a result, you can rely not only on the efficiency of the PSU but also on its noise level. Cybenetics Lambda certification levels include:
Standard — from 40 dB(A) to 45 dB(A) – noticeable noise;
Standard+ — from 35 dB(A) to 40 dB(A) – noticeable noise;
Standard++ — from 30 dB(A) to 35 dB(A) – moderate noise;
A- — from 25 dB(A) to 30 dB(A) – moderately quiet;
A — from 20 dB(A) to 25 dB(A) – quiet;
A+ — from 15 dB(A) to 20 dB(A) – very quiet;
A++ — less than 15 dB(A) – nearly silent.
Standard — from 40 dB(A) to 45 dB(A) – noticeable noise;
Standard+ — from 35 dB(A) to 40 dB(A) – noticeable noise;
Standard++ — from 30 dB(A) to 35 dB(A) – moderate noise;
A- — from 25 dB(A) to 30 dB(A) – moderately quiet;
A — from 20 dB(A) to 25 dB(A) – quiet;
A+ — from 15 dB(A) to 20 dB(A) – very quiet;
A++ — less than 15 dB(A) – nearly silent.
ATX12V version
A standard for power supplies that supplements the ATX specifications regarding power supply along the 12 V line. Introduced into use since the time of the Intel Pentium 4 processor. In the first series of the standard, the +5 V line was mainly used; from version 2.0, the +12 V line was introduced to fully power the components computer. Also in the second generation, a 24-pin power connector appeared, used in most modern motherboards.
SATA
The number of SATA power connectors provided in the PSU.
Nowadays, SATA is the standard interface for connecting internal hard drives, and it is also found in other types of drives (SSD, SSHD, etc.). Such an interface consists of a data connector connected to the motherboard, and a power connector connected to the PSU. Accordingly, in this paragraph we are talking about the number of SATA power plugs provided in the PSU. This number corresponds to the number of SATA drives that can be simultaneously powered from this model.
Nowadays, SATA is the standard interface for connecting internal hard drives, and it is also found in other types of drives (SSD, SSHD, etc.). Such an interface consists of a data connector connected to the motherboard, and a power connector connected to the PSU. Accordingly, in this paragraph we are talking about the number of SATA power plugs provided in the PSU. This number corresponds to the number of SATA drives that can be simultaneously powered from this model.
MOLEX
The number of Molex (IDE) connectors provided in the design of the power supply.
Initially, such a connector was intended to power peripherals for the IDE interface, primarily hard drives. And although the IDE itself is completely obsolete today and is not used in new components, however, the Molex power connector continues to be installed in power supplies, and almost without fail. Almost any modern PSU has at least 1 – 2 of these connectors, and in high-end models this number can be 7 or more. This situation is due to the fact that Molex IDE is a fairly universal standard, and with the help of the simplest adapters, components with a different power interface can be powered from it. For example, there are Molex - SATA adapters for drives, Molex - 6 pin for video cards, etc.
Initially, such a connector was intended to power peripherals for the IDE interface, primarily hard drives. And although the IDE itself is completely obsolete today and is not used in new components, however, the Molex power connector continues to be installed in power supplies, and almost without fail. Almost any modern PSU has at least 1 – 2 of these connectors, and in high-end models this number can be 7 or more. This situation is due to the fact that Molex IDE is a fairly universal standard, and with the help of the simplest adapters, components with a different power interface can be powered from it. For example, there are Molex - SATA adapters for drives, Molex - 6 pin for video cards, etc.
Braided wires
The presence of a braid in the complete wires of the system unit — for all or at least for some.
This feature has a positive effect on reliability, making the wire as resistant as possible to bending, abrasion, strong pressure and other similar influences; it also provides additional protection against accidental contact with sharp objects (for example, when repairing a PC). The disadvantages of braided wires, in addition to increased cost, are also increased thickness and greater rigidity than similar cables in conventional insulation. This can create some difficulties in organizing space inside the system unit.
This feature has a positive effect on reliability, making the wire as resistant as possible to bending, abrasion, strong pressure and other similar influences; it also provides additional protection against accidental contact with sharp objects (for example, when repairing a PC). The disadvantages of braided wires, in addition to increased cost, are also increased thickness and greater rigidity than similar cables in conventional insulation. This can create some difficulties in organizing space inside the system unit.
















