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1. The Ice Chamber Thermodynamic "Time vs. Usage" Catch

  • The Problem: The text states that 10kg of ice cubes... can be stored up to 8 hours and enable 1 hour of continuous operation.

  • The Reality: This can easily be misinterpreted by a user. The 8-hour storage metric assumes the machine is sitting idle in a cool environment. The moment you start pumping 1130W of hot, atomized glycol fog directly through that ice chamber, the thermal energy will melt the ice rapidly. You get 1 hour of cumulative blast runtime maximum before the ice chamber turns completely into warm water, regardless of how long it has been sitting.

  • The Fix: Clarify that active usage dramatically accelerates the ice melt rate, requiring a fresh ice pack-in right before the headline performance element (such as a wedding couple's "first dance").

2. Clarifying the Active Fluid Consumption Math

  • The Problem: The sheet lists the Fluid tank capacity as 2.5 Liters and Fluid consumption as 25 ml/min.

  • The Math Breakdown: At full continuous blast, 2.5 Liters text{ ml divided by text{ ml/min}$ yields exactly 100 minutes (1 hour and 40 minutes) of total fluid runtime.

  • The Synergy: This pairs perfectly with the ice consumption rate (1 hour), proving that your ice supply will always melt and drain before the chemical fluid tank runs entirely empty.

  • The Fix: Highlight this operational pairing so technicians know that ice replenishment is their primary logistical bottleneck, not fluid levels.

3. Explaining the Drainage Pump Mechanics

  • The Problem: The copy casually notes that the drainage pump can be activated manually or set to automatic.

  • The Event Risk: The internal pump must push melted ice water out through a drainage tube. If an operator forgets to attach the external drainage hose or point it into a dedicated bucket, the automatic cycle will dump water directly onto the venue stage floor, creating a severe slipping hazard around electrical equipment.

  • The Fix: Explicitly list the drainage hose requirement in the setup directives.

Master Technical Specifications Matrix

To align this data with elite touring production sheets and equipment catalogs, structure the parameters into this clean layout:

Engineering Attribute

Professional Stage Effect Specification Profile

Product Model

Antari ICE-101 Low-Lying Ice Fogger

Heater Core Rating

1130 W

Initial Heat-Up Chamber Time

Approx. 4.5 Minutes

Volumetric Smoke Output

43 $\text{m}^2$ / minute (~1,500 $\text{ft}^3$/min)

Fluid Tank Capacity

2.5 Litres (0.66 Gallons)

Fluid Consumption Rate

25 ml / minute (Max Output)

Ice Chamber Payload Capacity

10.0 kg (22 lbs) Regular Ice Cubes

Ice Longevity (Idle vs. Active)

Up to 8 Hours Static Standby | ~1 Hour Continuous Blast Runtime

Water Evacuation System

Onboard Drainage Pump (Selectable Manual Switch / Auto-Cycle)

Approved Consumables

Water-Based Fluids (Antari FLL Low Fog / FLC / FLR Formulations)

Control Signal Integration

DMX512, Built-In Timer, Manual Control Node

DMX Hardware Footprint

1 Channel Architecture (Volume Output Control)

Mains Hardware Connections

IEC Power Input | 3-Pin XLR Data Ports

Electrical Input Profile

EU Variant: 220-240VAC, 50/60Hz (5A Draw)


US Variant: 100-120VAC, 50/60Hz (9.5A Draw)

Chassis Dimensions

660 mm (L) × 355 mm (W) × 443 mm (H)

Net Weight (Dry / Unloaded)

24.4 kg (53.8 lbs)


Antari ICE-101 – Ice Machine with Remote

R 13 000,00Price
Quantity
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