The VIDA Armour ARM1000 is a 1000VA / 600W line-interactive UPS designed to provide short-duration battery backup and voltage protection for compatible desktop PCs, monitors, NAS devices, routers, switches, CCTV/NVR equipment and other IT electronics. It includes built-in AVR, an LCD display, USB Type-B monitoring, three UK sockets, three IEC outputs, two RJ45 surge-protection ports and two 12V 7Ah sealed lead-acid batteries.

The exact manufacturer model is VIDA ARM1000.

The Memox SKU is ARM1000.

The EAN/UPC is 5056733100499.

The UPS is rated at 1000VA apparent power.

The manufacturer-rated maximum real output is 600W.

No. VA and watts are different electrical ratings. The ARM1000 is rated at 1000VA apparent power but a maximum of 600W real output.

600W is the published maximum output, not an ideal target for a continuously loaded system. Leave practical headroom for power spikes, changing workloads, battery ageing and additional devices.

A sensible general approach is to avoid designing the system right at the 600W ceiling. Measure the actual combined load and leave headroom for startup and transient demand; higher-load PCs may be better served by a 900W or 1600W UPS.

No. A PSU's wattage is its maximum rated capacity, not the PC's constant consumption. UPS sizing should be based on the system's actual or worst-case power draw rather than only the PSU label.

Possibly. The PSU's 850W label is its capacity, not the PC's constant draw. The important figure is the complete system's actual AC consumption. If the PC plus monitor can approach the ARM1000's 600W limit, choose a larger UPS.

Only if the actual system draw stays comfortably below 600W. A high-end PC fitted with a 1000W PSU can exceed what this UPS can safely support during heavy gaming or transient spikes, so a larger pure-sine model is often the better pairing.

It is generally not a good match for a high-end system capable of using a large share of a 1200W PSU. The ARM1000 is limited to 600W and should not be chosen for loads that can approach or exceed that figure.

Yes if the computer's actual wall-power draw remains comfortably below the UPS's 600W output limit. A 600W PSU does not continuously consume 600W.

No. Exact ARM1000 specifications list sine-wave mains input/output in normal utility operation but square-wave inverter output when the UPS is running from battery.

While utility mains is present, connected equipment receives normal sine-wave AC through the UPS. During a power cut, the ARM1000 inverter is specified as square-wave output. Some electronics tolerate this well, while equipment that specifically requires pure sine-wave backup should use a pure-sine UPS.

Compatibility cannot be guaranteed for every Active PFC PSU. Major UPS manufacturers recommend pure sine-wave backup for the broadest Active PFC compatibility because some PFC power supplies can shut down or behave poorly on stepped or square-wave battery output.

It may work if the PSU tolerates square-wave UPS output and the system load stays below 600W, but an 80 PLUS rating does not guarantee waveform compatibility. For a valuable or high-end Active PFC gaming PC, a pure-sine UPS is the safer choice.

Possibly, but the ARM1000's 600W ceiling and square-wave battery output make it better suited to moderate systems than high-end ATX 3.x gaming rigs. Check the PSU manufacturer's UPS/waveform guidance and leave generous power headroom.

Yes for many moderate gaming PCs whose real load stays comfortably below 600W and whose PSU accepts square-wave UPS output. For high-end Active PFC systems, especially with large GPUs, a higher-capacity pure-sine UPS is a better choice.

Yes if their combined actual wattage remains within the UPS limits. Remember that adding a monitor reduces the runtime available to the PC.

Yes if the total UPS load remains within 600W and the required runtime is acceptable.

Often yes, but calculate the combined load. The more devices you connect, the shorter the battery runtime.

Generally not the preferred pairing. High-end RTX 4090/5090-class systems can have high sustained and transient demand, and the ARM1000 is limited to 600W with square-wave battery output. A larger pure-sine UPS is much more appropriate.

Yes. Very high transient loads can trigger UPS overload protection even when average consumption appears acceptable, which is why capacity headroom matters.

No. A UPS protects power continuity and quality; it does not increase CPU or GPU performance.

It uses line-interactive topology.

A line-interactive UPS normally powers equipment from the mains while monitoring voltage. Its AVR can correct supported voltage variations without immediately switching to battery, and the inverter takes over when mains power fails or moves outside its acceptable range.

No. It is line-interactive, not an online double-conversion model.

A line-interactive UPS normally uses mains power with AVR and transfers to its inverter when necessary. An online double-conversion UPS continuously powers the load through its conversion stages and typically provides zero transfer time, but usually costs more and can consume more power.

Yes. Line-interactive UPS systems are widely used for PCs, NAS systems, network equipment and small servers in homes and offices.

Exact ARM1000 technical listings specify a transfer time of approximately 6ms or less.

Yes. Exact ARM1000 specifications consistently list approximately 6ms or less when changing from line mode to battery mode.

Many computer power supplies can ride through a short transfer of this length, but compatibility depends on the PSU and load. The waveform during battery mode is a separate consideration from transfer time.

Yes. The ARM1000 includes built-in Automatic Voltage Regulation (AVR).

AVR helps correct supported mains-voltage fluctuations before battery operation is needed, reducing unnecessary battery use during sags or higher-than-normal voltage conditions.

Yes. The ARM1000 is designed to manage supported over-voltage and under-voltage conditions through its line-interactive regulation/protection system.

AVR can correct certain voltage sags and over-voltage conditions while preserving battery charge for actual outages.

No. AVR is specifically useful because it can regulate supported mains fluctuations without continuously discharging the battery.

It is designed to help protect against under-voltage conditions and uses AVR to manage supported voltage fluctuations. If voltage falls outside the UPS's acceptable range, it can transfer to battery.

Yes. Over-voltage and under-voltage protection are listed for the ARM1000.

Yes.

Exact ARM1000 listings specify approximately 320 joules of surge protection with instantaneous response.

Yes. The product literature lists relay automatic circuit cut-off protection as part of the ARM1000 design.

Yes. ARM1000 listings specify full-time EMI/RFI noise filtering.

Yes.

Cold start allows the UPS to start supported connected equipment from battery when mains power is unavailable, provided the batteries have sufficient charge.

Cold start is intended for temporary UPS operation, not to turn the unit into a long-runtime portable power station. Battery runtime is limited and depends heavily on load.

Yes.

The LCD is intended to provide at-a-glance UPS status such as operating state, battery/load information and power conditions. Exact displayed fields depend on firmware.

Yes.

Yes. Audible alarms notify the user of battery operation and other UPS conditions.

The published noise specification is up to approximately 45dB at one metre.

No guarantee should be made. Relays, electronics, alarms and cooling behaviour can create audible noise, especially during battery operation or charging.

The exact ARM1000 specification lists two internal 12V 7Ah batteries.

It uses sealed lead-acid / VRLA batteries.

VRLA means Valve-Regulated Lead-Acid. These sealed batteries are commonly used in UPS systems and do not require normal electrolyte top-ups.

They are described as maintenance-free sealed lead-acid batteries, although their health and runtime still need periodic checking.

VIDA technical listings quote approximately 15–20 minutes, but runtime is highly load dependent and is not a fixed guarantee.

No. The quoted 15–20-minute figure is explicitly load dependent. A high load, aged batteries or unfavourable conditions can reduce runtime substantially.

The batteries must supply more current at higher loads, so their stored energy is consumed much faster.

Usually yes. A NAS and router may consume far less power than a high-end gaming PC.

No. Exact runtime requires the actual connected load plus battery condition and operating conditions.

No. Use actual system power draw where possible.

A plug-in energy meter can measure typical AC draw. For gaming/workstations, also consider peak sustained load and transient demand.

The specification states approximately 8 hours to reach around 90% charge after discharge.

Yes. Battery age, discharge depth, temperature and charging conditions affect recharge time.

Yes. Allow the batteries to reach a healthy charge before relying on backup operation.

Yes. UPS systems are designed to protect the load while maintaining their batteries.

Normally yes, so the batteries remain charged and the unit can respond immediately to an outage.

Yes. Lead-acid batteries age with time as well as cycling, and heat accelerates degradation.

Typical VRLA UPS batteries often need replacement after several years, but actual life depends heavily on heat, discharge cycles and storage.

Yes. A battery can show normal voltage at rest but collapse when asked to provide high current.

A practical routine is to test battery transfer periodically and review battery condition about every 6–12 months.

No. Repeated deep discharges shorten lead-acid battery life.

They are serviceable components, but the ARM1000 is not publicly documented as a user hot-swap model. Battery replacement should be done safely by a qualified person.

Yes. Replacing the full battery set with matched batteries is generally preferable.

It is not recommended because differing age and condition can create imbalance and reduce reliability.

Do not change battery specification without manufacturer approval because charger design and physical fit are matched to the UPS.

Not unless VIDA explicitly approves a compatible replacement system. The ARM1000 is designed for sealed lead-acid batteries.

No hot-swap capability is documented.

Reduced runtime, early low-battery alarms, failed tests or immediate shutdown after a mains failure can indicate battery deterioration.

Yes. Heat is one of the main causes of accelerated VRLA battery ageing.

Approximately 0°C to 40°C.

Approximately 20% to 90% relative humidity, non-condensing.

Avoid unventilated enclosed spaces because heat can shorten battery and electronics life.

No. Keep it away from direct heat and leave clear airflow.

No. It is intended for indoor use.

Approximately 125mm wide x 225mm high x 320mm deep.

Approximately 9.7kg.

Retail databases vary slightly, but current ARM1000 product data commonly lists the bare unit at about 9.7kg and the boxed package around 10.1–10.7kg. Treat weight as approximate for handling and shelf planning.

There are six AC outputs in total: three UK Type-G sockets and three IEC outputs.

There are three UK Type-G / BS 1363 output sockets.

Three IEC outputs.

Yes. The exact ARM1000 specification lists three UK mains sockets plus three IEC outputs, for six AC outputs in total.

The ARM1000 documentation lists the three UK and three IEC connections as the unit's AC outputs and does not identify a separate surge-only outlet bank.

Compatible devices with standard UK plugs, provided the combined load stays within the UPS limits.

PCs, monitors, servers and network equipment often use IEC power cables.

Package descriptions consistently include the UPS mains lead, USB cable and manual; some ARM1000 listings also mention an IEC C14-to-C13 lead. If a specific number of IEC equipment leads is essential to your installation, check the current box contents rather than assuming multiple leads are supplied.

Yes. It is a UK-market 230/240V model.

Do not rely on a travel adapter for permanent UPS installation. Use a model approved for the destination electrical system.

Yes. It has a USB Type-B monitoring connection.

Yes. It is the square-style device connector commonly used on printers and UPS units.

Yes.

UPSmart is the monitoring software distributed for VIDA Armour UPS models. ARM1000 product listings link to VIDA's downloadable UPSmart installer.

It can typically display power/battery status, log events and support controlled computer shutdown when configured correctly.

No. Automatic shutdown must be installed, configured and tested on the target computer.

It can power Windows 11 PCs. For USB monitoring, verify that the current UPSmart package works correctly on the specific Windows installation.

Yes electrically. USB shutdown integration depends on Linux/NUT driver support for the UPS protocol.

I have not found ARM1000 on an official Network UPS Tools compatibility list, so NUT support should not be promised without testing.

Yes electrically, but automatic USB shutdown is separate. Synology supports compatible USB UPS devices, and the ARM1000 should be tested because VIDA does not publish Synology certification.

No. DSM must understand the UPS communication protocol.

Connect USB, enable USB UPS support in DSM, confirm the UPS is detected and then perform a brief controlled mains-failure test before relying on automatic shutdown.

Yes electrically when within the load limits. For automatic UGOS shutdown, UGREEN says the UPS must provide USB or network signalling that UGOS Pro can read.

No ARM1000 listing was found in UGREEN's current tested-model examples, so plug-and-play shutdown should be verified rather than promised.

Yes electrically. QNAP supports compatible USB UPS devices, but USB recognition should be tested on the exact QNAP system.

Only if QTS/QuTS hero recognises the USB UPS communication.

Some NAS platforms support network UPS master/slave arrangements, but this is a NAS software feature rather than a direct ARM1000 feature.

No. It is a monitoring/data connection.

Yes. It has two RJ45 connectors.

They are intended for network/data-line surge protection, typically in an in/out arrangement.

No.

No. They are surge-protection connections rather than a built-in IP-management interface.

The public ARM1000 specification does not publish a guaranteed data rate, so Gigabit throughput should not be promised without testing.

PoE pass-through capability is not specified. Use a surge protector explicitly rated for the required PoE standard if PoE line protection is needed.

Yes. The router can simply be powered from a UPS outlet.

Yes if the ONT/modem, router and required switches/access points are all backed up and the upstream ISP network remains active.

Yes, within the total load limit.

Yes if the switch plus all PoE devices stay within the UPS wattage capacity.

Yes. It can back up compatible NVRs, PoE switches, routers and related equipment.

Yes, usually by powering the NVR and PoE/network infrastructure.

Yes, provided the server's actual demand fits within the UPS capacity.

Potentially, but check peak wattage and inrush. The UPS itself is a tower/desktop unit.

No.

Yes if the shelf is rated for its weight/depth and ventilation remains clear.

Yes. Workstations are one of its strongest use cases.

Yes, subject to load and runtime requirements.

Yes from a normal AC-load standpoint, provided total wattage remains within the UPS capacity.

Yes from an AC-load standpoint.

Yes if combined consumption stays within the rating, although the TV reduces runtime.

Yes for compatible electronics, subject to load and inrush requirements.

Potentially. Audio equipment varies in inrush current, so leave headroom.

Potentially, but large amplifiers can have significant startup/current peaks.

Generally no. Laser printers can draw very high current when the fuser heats and major UPS manufacturers warn against using them on battery-backed UPS outputs.

Their short-term power demand can overload a UPS or cause repeated transfer events.

Usually with much lower risk than a laser printer, but check maximum consumption and remember it reduces runtime.

Large copiers can have high heater/inrush loads and are generally poor UPS loads unless specifically engineered for them.

No. High-power heating appliances are not appropriate loads for this IT UPS.

No. Motor inrush and high draw make vacuums inappropriate UPS loads.

Do not assume compatibility. Compressor motors have high startup current and require a UPS/inverter specifically sized for motor loads.

Only after assessing the motor's real startup/inrush current. Motor loads are more demanding than ordinary IT equipment.

Only after checking the boiler's electrical, earthing and pump-inrush requirements and manufacturer guidance.

No. A general IT UPS should not be treated as medically certified life-support power.

Daisy-chaining additional surge strips or extension systems is generally discouraged by major UPS manufacturers. Use the UPS outlets or properly engineered distribution.

For reliable earthing and current capacity, direct connection to a properly wired wall outlet is preferable unless VIDA specifically approves another arrangement.

A properly rated PDU can be used in a professional setup if the combined downstream load remains within the UPS and PDU ratings.

Yes, provided the total connected VA/watt demand stays within the ARM1000's ratings and individual cables/devices are correctly rated.

No. Outlet count does not determine load. Six low-power devices can be acceptable, while one high-power device can exceed the 600W limit.

The overload protection can alarm or disconnect the load to protect the unit.

Turn off or disconnect non-essential equipment until the load is safely below the rating.

Line-interactive UPS relays can click when AVR changes state or when the unit transfers between mains and battery.

The mains voltage or frequency may have moved outside the UPS's accepted range.

Yes. More discharge cycles generally increase battery wear.

Possibly, but generator voltage/frequency stability matters. Test the actual generator/UPS combination rather than assuming universal compatibility.

If generator voltage or frequency falls outside the UPS's acceptable input range, the UPS may remain on battery.

The product data lists 230–240VAC operation.

The product data lists 230–240VAC output.

Yes.

Current product listings identify UKCA and CE compliance.

Listings include a UK mains cable, IEC C14-to-C13 cable, USB cable and user documentation.

Current ARM1000 listings describe boxed/retail packaging and include the UPS, mains cable, USB cable and manual. Packaging presentation can vary by distribution batch.

You can view local status on the LCD, but computer software monitoring requires the communication connection.

No. The two RJ45 ports are for data-line surge protection, not built-in Ethernet or web-based UPS management. The standard monitoring connection is USB Type-B.

A single USB connection normally talks to one host. Multiple-device shutdown needs appropriate network UPS software or management architecture.

Check the USB cable, try a direct USB port, restart the software and avoid hubs while troubleshooting.

Yes. A direct connection is preferable when troubleshooting.

Confirm the NAS detects the UPS, reports battery status and actually performs the configured shutdown during a controlled test.

The correct delay depends on load and runtime. Begin shutdown with plenty of battery remaining rather than waiting for a low-battery condition.

No. It is intended for short-duration continuity and safe shutdown; VIDA quotes approximately 15–20 minutes depending on load.

No. It reduces abrupt-shutdown risk but does not protect against drive failure, malware, deletion or every form of corruption.

Yes electrically, provided gateways, switches, PoE loads and access points stay within capacity.

Yes, subject to total power demand.

Yes. If the PoE switch stays powered, its connected cameras can continue operating.

Yes if all required network equipment is on battery backup and the ISP remains available.

Yes if the switch and any PoE load fit within the total rating.

Yes in many setups; calculate load and verify NAS USB compatibility separately.

Yes. Battery backup can help avoid abrupt power loss during writes.

Yes if the complete workstation load stays comfortably below 600W and its PSU is compatible with square-wave battery output. High-end GPU workstations are better matched with a larger pure-sine UPS.

Yes, subject to the total load of the PC and connected audio equipment.

Yes. UPS backup is commonly used for POS computers, terminals and network hardware.

Yes.

Yes if its tower form factor, runtime and noise are suitable.

It can operate there, but alarms, relay clicks and cooling noise may be intrusive.

Possible causes include weak batteries, a communication or output fault, an unexpected connected load, or the device not tolerating the UPS's square-wave inverter output. Test the UPS with a known compatible load before assuming the router itself is faulty.

Check the wall outlet, mains cable, battery charge and protection/breaker state. Disconnect the load and seek support if it remains dead.

Possible causes include aged batteries, overload, battery connection faults or an internal UPS fault.

Check the load, battery age and temperature. A major runtime loss after several years often indicates battery replacement is due.

Check the LCD for overload, battery, fault or voltage indications and verify the incoming mains supply.

A brief controlled test is useful after saving work and using a non-critical load. Switching off the wall socket is generally safer than unplugging live cables under load.

Start with a lower-risk load to confirm transfer before relying on it for critical hardware.

Yes. Monitoring software should be verified with a controlled outage rather than assumed to work.

Lead-acid batteries self-discharge. Long storage requires periodic charging and a cool, dry environment.

No. Hazardous voltages can be present inside UPS equipment.

Yes. The batteries can supply very high current even with mains disconnected.

Use an appropriate lead-acid battery recycling or hazardous-waste collection facility, not household rubbish.

Choose ARM1000 for lower-cost 600W protection when your measured load is modest. Choose ARM1500 for more power headroom at 900W. Both lower Armour models are commonly specified with square-wave inverter output, so users requiring pure sine wave should look at ARM2000 or above.

ARM1500 provides more wattage headroom, but it is not the same as a pure-sine model. For an Active PFC gaming PC whose manufacturer recommends pure sine-wave backup, the ARM2000 is the more appropriate Armour step-up.

ARM1000 is 1000VA/600W with square-wave inverter output and two 12V 7Ah batteries. ARM2000 moves to 2000VA/1600W and pure sine-wave battery output, making it far more suitable for high-end Active PFC PCs and heavier workstation/server loads.

Choose ARM2000 when your load needs substantially more than 600W, when high transient headroom is important, or when you specifically need pure sine-wave battery output for sensitive or Active PFC equipment.

Choose ARM1000 for affordable line-interactive protection of compatible home/office equipment. Choose an online double-conversion UPS when zero transfer time, tighter power conditioning or mission-critical operation is required.

ARM1000 is a lower-cost line-interactive option with square-wave battery output. A pure-sine UPS costs more but offers broader compatibility with Active PFC and sensitive electronics during battery operation.

A surge protector cannot power equipment during an outage. The ARM1000 adds battery backup and AVR.

ARM1000 prioritises automatic short-duration backup and fast transfer; portable power stations prioritise stored energy and portable runtime.

It is best for moderate-load desktop PCs, monitors, routers, switches, NAS systems, CCTV/NVR equipment and other compatible electronics that need short-duration backup, AVR and USB monitoring without requiring pure sine-wave battery output.

It is not ideal for loads near or above 600W, high-end gaming/workstation PCs that require pure sine-wave backup, multi-hour outages, laser printers, heaters, large motors/compressors, medically critical life-support equipment or applications requiring zero-transfer online UPS operation.

Its strongest features are 1000VA/600W capacity, built-in AVR, approximately 6ms transfer, six AC outputs, LCD monitoring, USB Type-B communication, RJ45 surge protection, cold start and two 12V 7Ah VRLA batteries.

The main limitations are the 600W maximum output, square-wave inverter waveform, finite load-dependent runtime, VRLA battery ageing, no built-in network-management interface and no guaranteed plug-and-play USB shutdown compatibility with every NAS.

Confirm your real maximum wattage, required runtime, outlet types, whether your PSU/device accepts square-wave UPS output, whether USB shutdown integration is required and whether the 600W ceiling leaves enough headroom.

Check NAS power draw, desired shutdown delay and whether the NAS OS recognises the ARM1000's USB protocol. Electrical backup and USB shutdown compatibility are separate requirements.

Measure or estimate worst-case PC draw, include monitors/peripherals and leave enough transient headroom.

Check the server's actual peak wattage, PSU waveform tolerance, runtime requirement and USB shutdown compatibility. For critical servers, redundant PSUs or Active PFC systems, a pure-sine or online UPS may be more appropriate.

Yes for compatible moderate-load home and small-office equipment. Its AVR, six outputs, USB monitoring and 600W capacity remain useful, but high-end gaming/workstation buyers should understand that battery output is square wave rather than pure sine.

It means the ARM1000 passes normal sine-wave utility power while mains is available, but when the battery inverter takes over during an outage its AC output is specified as square wave. This is different from a pure-sine UPS.

Retailers may use terms such as square wave, stepped wave or simulated sine wave for non-pure-sine UPS outputs, but the exact ARM1000 specification explicitly says square wave on inverter. Do not advertise it as pure sine wave.

Exact ARM1000 technical listings specify approximately 320 joules of surge protection. This indicates a limited surge-energy protection capability; it does not make the UPS immune to every lightning strike or severe electrical fault.

VIDA lists Intelligent CPU Control as a core feature of ARM1000. It refers to the UPS's internal electronic control of monitoring and protection functions rather than a feature that changes the performance of the connected computer CPU.

Choose ARM650 for a smaller, lower-power setup such as a router, light PC or networking equipment. Choose ARM1000 when you need up to 600W, six AC outputs and the larger two-battery configuration.

Choose ARM1000 when 600W is sufficient and price is the priority. Choose ARM1200 when you need additional wattage headroom up to 720W. Both are line-interactive lower Armour models and should not be confused with the pure-sine ARM2000.

Current ARM1000 technical listings specify a 1-year manufacturer warranty. Keep proof of purchase for warranty support.

Choose ARM1000 for compatible home or small-office loads comfortably below 600W that need AVR, short battery backup and USB monitoring; choose a larger pure-sine UPS for high-end Active PFC gaming/workstation equipment.