Bryant 355CAV installation instructions AIR Ducts

Page 19

 

Table 1 – Opening Dimensions (in./mm)

 

 

 

 

 

 

 

 

 

FURNACE

APPLICATION

PLENUM OPENING

FLOOR OPENING

CASING

(APPROVED FACTORY SUPPLIED CASED COILS AND COIL BOX:

 

 

 

 

WIDTH

CD5, CKR, CAPVP, CARVP, CAPMP, CARMP, CNPVP, CNRVP, AND

A

B

C

D

KCAKC)

 

Upflow Applications on Combustible or Noncombustible

16 in./

24-1/8 in./

16-5/8 in./

24-3/4 in./

 

Flooring (KGASB subbase not required)

406 mm

613 mm

422 mm

629 mm

 

 

 

 

 

 

 

Downflow Applications on Noncombustible Flooring (KGASB

15-7/8 in./

19 in./

16-1/2 in./

19-5/8 in./

 

subbase not required)

403 mm

483 mm

419 mm

498 mm

17 ½ in.

 

 

 

 

 

Downflow applications on combustible flooring (KGASB sub-

15-1/8 in./

19 in./

16-3/4 in./

20-3/8 in./

445 mm

base required)

384 mm

483 mm

425 mm

518 mm

 

 

 

 

 

 

 

Downflow Applications on Combustible Flooring with Factory

15-1/2 in./

19 in./

16-1/2 in./

20 in./

 

supplied cased coil or Factory supplied coil box (KGASB

 

394 mm

483 mm

419 mm

508 mm

 

subbase not required)

 

 

 

 

 

 

 

 

 

 

 

 

Upflow Applications on Combustible or Noncombustible

19-1/2 in./

24-1/8 in./

20-1/8 in./

24-3/4 in./

 

Flooring (KGASB subbase not required)

495 mm

613 mm

511 mm

629 mm

 

 

 

 

 

 

 

Downflow Applications on Noncombustible Flooring (KGASB

19-3/8 in./

19 in./

20 in./

19-5/8 in./

21 in./

subbase not required)

492 mm

483 mm

508 mm

498 mm

 

 

 

 

 

Downflow applications on combustible flooring (KGASB sub-

18-5/8 in.

19 in./

20-1/4 in./

20-3/8 in./

533 mm

base required)

473 mm

483 mm

514 mm

518 mm

 

 

 

 

 

 

 

 

Downflow Applications on Combustible Flooring with Factory

19 in./

19 in./

20 in./

20 in./

 

supplied cased coil or Factory supplied coil box (KGASB

 

483 mm

483 mm

508 mm

508 mm

 

subbase not required)

 

 

 

 

 

 

 

 

 

 

 

 

Upflow Applications on Combustible or Noncombustible

23 in./

24-1/8 in./

23-5/8 in./

24-3/4 in./

 

Flooring (KGASB subbase not required)

584 mm

613 mm

600 mm

629 mm

 

 

 

 

 

 

 

Downflow Applications on Noncombustible Flooring (KGASB

22-7/8 in./

19 in./

23-1/2 in./

19-5/8 in.

24-1/2 in./

subbase not required)

581 mm

483 mm

597 mm

498 mm

 

 

 

 

 

Downflow applications on Combustible flooring (KGASB

22-1/8 in./

19 in./

23-3/4 in./

20-3/8 in./

622 mm

subbase required)

562 mm

483 mm

603 mm

518 mm

 

 

 

 

 

 

 

 

Downflow Applications on Combustible Flooring with Factory

22-1/2 in./

19 in./

23-1/2 in./

20 in./

 

supplied cased coil or Factory supplied coil box (KGASB

 

572 mm

483 mm

597 mm

508 mm

 

subbase not required)

 

 

 

 

 

 

 

 

 

 

 

355CAV

AIR DUCTS

General Requirements

The duct system should be designed and sized according to accepted national standards such as those published by: Air Conditioning Contractors Association (ACCA), Sheet Metal and Air Conditioning Contractors National Association (SMACNA) or American Society of Heating, Refrigerating and Air Conditioning Engineers (ASHRAE) or consult The Air Systems Design Guidelines reference tables available from your local distributor. The duct system should be sized to handle the required system design CFM at the design static pressure.

When a furnace is installed so that the supply ducts carry air circulated by the furnace to areas outside the space containing the furnace, the return air must also be handled by a duct(s) sealed to the furnace casing and terminating outside the space containing the furnace.

Secure ductwork with proper fasteners for type of ductwork used. Seal supply- and return-duct connections to furnace with code approved tape or duct sealer.

Flexible connections should be used between ductwork and furnace to prevent transmission of vibration. Ductwork passing through unconditioned space should be insulated to enhance system performance. When air conditioning is used, a vapor barrier is recommended.

Maintain a 1-in. (25.4mm) clearance from combustible materials to supply air ductwork for a distance of 36 in. (914.4mm) horizontally from the furnace. See NFPA 90B or local code for further requirements.

For a furnace not equipped with a cooling coil, the outlet duct shall be provided with a removable access panel. This opening shall be accessible when the furnace is installed and shall be of such a size that the heat exchanger can be viewed for possible openings using light assistance or a probe can be inserted for sampling the air stream. The cover attachment shall prevent leaks.

Ductwork Acoustical Treatment

Metal duct systems that do not have a 90 degree elbow and 10 ft (3 m) of main duct to the first branch take-off may require internal acoustical lining. As an alternative, fibrous ductwork may be used if constructed and installed in accordance with the latest edition of SMACNA construction standard on fibrous glass ducts. Both acoustical lining and fibrous ductwork shall comply with NFPA 90B as tested by UL Standard 181 for Class 1 Rigid air ducts.

Supply Air Connections

Upflow Furnaces

Connect supply-air duct to 3/4-in. (19.0mm)flange on furnace supply-air outlet. The supply-air duct attachment must ONLY be connected to furnace supply-/outlet-air duct flanges or air conditioning coil casing (when used). DO NOT cut main furnace casing to attach supply side air duct, humidifier, or other accessories. All accessories MUST be connected external to furnace main casing.

Downflow Furnaces

Connect supply-air duct to supply-air opening on furnace. The supply-air duct attachment must ONLY be connected to furnace supply/outlet or air conditioning coil casing (when used) when installed on non-combustible material When installed on combustible material, supply air duct attachment must ONLY be connected to an accessory subbase or factory approved air conditioning coil casing. DO NOT cut main furnace casing to attach supply side air duct, humidifier, or other accessories. All accessories MUST be connected external to furnace main casing. Supply air opening duct flanges must be modified per Fig. 22.

Horizontal Furnaces

Connect supply-air duct to supply-air opening on furnace. The supply-air duct attachment must ONLY be connected to furnace supply/outlet or air conditioning coil casing (when used). DO NOT cut main furnace casing to attach supply side air duct,

19

Image 19
Contents Table of Contents Installation InstructionsRequired Notice for Massachusetts Installations CUT Hazard Safety ConsiderationsDimensional Drawing Dimensions In. / mmInstallation Codes and Standards Upflow Application Electrostatic Discharge ESD PrecautionsIntroduction ApplicationsCarbon Monoxide Poisoning Hazard Condensate Trap Alternate Upflow OrientationCondensate Trap Tubing Alternate Upflow Orientation Condensate Trap Field Drain Attachment Upper Inducer Housing Drain ConnectionCondensate Trap Freeze Protection Condensate Trap Location Downflow ApplicationsHorizontal Left SUPPLY-AIR Discharge Applications Horizontal Left Tube ConfigurationManual Shutoff GAS Valve Sediment Trapcondensate Trap Property DamageConstruct a Working Platform Horizontal Right SUPPLY-AIR Discharge ApplicationsUnit Operation Hazard Condenste Trap Field Drain Attachment LocationFire or Death Hazard Prohibit Installation on BackFIRE, EXPLOSION, Injury or Death Hazard InstallationUnit MAY not Operate Hazard Furnace, Plenum, and Coil Assembly or Coil Box Locations Reqd PER ROD AIR Ducts FIRE, Carbon Monoxide and Poisoning Hazard Fire HazardUnit MAY not Operate Gas Piping Bottom Closure PanelFire or Explosion Hazard Removing Bottom Closure Panel Maximum Capacity of Pipe WiringElectrical Shock Hazard Electrical Shock and Fire Hazard Disconnect Switch and FurnaceAccessories Factory Installed J-Box LocationFire or Electrical Shock Hazard Fire and Explosion Hazard AIR for Combustion and VentilationCement AstmMaterial Pipe Fittings DescriptionFurnace Control Direct Vent Termination Clearance Ventilated Combustion Air Vent Termination Clearance Vent Pipe Termination for Ventilated Combustion Air System Unit Corrosion Hazard Combustion AIR PipeCombustion Air Termination Ventilated Combustion Air Option Attachment of Combustion Air Intake Housing Plug FittingAttachment of Vent Pipe Vent PipeCombustion Air Termination-Direct Vent / 2-Pipe System Carbon Monoxide Poisoning Property Damage Hazard304.8mm minimum 76.2mm minimum Extended Exposed Sidewall Pipes Vent TerminationTwo-Pipe Termination Kit Direct Vent/2-Pipe System Only Vent Termination Kit Direct Vent/2-Pipe System Only042060 Btuh Maximum Allowable Pipe Length Ft / MUnit Size Personal Injury Hazard Condensate DrainAdditional Setup Switches SW4 START-UP, Adjustment and Safety CheckAir Conditioning A/C Setup Switches Continuous Fan CF Setup SwitchesPrime Condensate Trap with Water Example of Setup Switch in Off PositionWiring Diagram Furnace Setup Switch Description Inducer Housing Drain TubePurge Gas Lines Sequence of OperationTwo-Stage Thermostat and Two-Stage Low / High Heating See -55 for thermostat connections Thermidistat ModeHeat Pump Super Dehumidify ModeContinuous Blower Mode Continuous Blower Speed Selection from ThermostatStep-Modulating Furnace with Single-Speed Air Conditioning Furnace and Two-Speed Heat Pump Pump Furnace and Two-Speed Air ConditionerRedundant Automatic Gas Valve Set Gas Input RateBurner Orifice A07253 A07254 Burner Flame Altitude Derate Multiplier for U.S.AGas Rate cu Ft/Hr Set Temperature RiseSet Thermostat Heat Anticipator Check Primary Limit Control ChecklistCheck Safety Controls Check Pressure SwitchesCombustion and Vent Piping Checklist Installation
Related manuals
Manual 14 pages 23.93 Kb Manual 62 pages 7.79 Kb

355CAV specifications

The Bryant 355CAV is a state-of-the-art automated vertical machining center designed to enhance precision and efficiency in the manufacturing sector. Renowned for its robust construction, this machine is engineered to handle a broad spectrum of machining tasks, making it suitable for both small and large-scale production environments.

One of the standout features of the Bryant 355CAV is its advanced CNC control system, which provides users with exceptional ease of use. The intuitive user interface allows operators to program complex machining operations with minimal effort, significantly reducing setup times. The machine's high-speed spindle achieves impressive rotational speeds, which allows for quick material removal, ultimately optimizing productivity and throughput.

The Bryant 355CAV exhibits superior rigidity and stability due to its solid cast iron frame and carefully designed structural components. This construction minimizes vibrations during machining, ensuring that even the most intricate parts are produced with high accuracy. The machine's precision ground linear guideways further enhance its performance by providing smooth motion and high load capacity.

Equipped with a large work envelope, the Bryant 355CAV enables manufacturers to accommodate various part sizes and geometries. Additionally, its automatic tool changers can hold a variety of tools, thus facilitating quick transitions between different machining operations without requiring manual intervention. This flexibility is essential for meeting the diverse needs of modern manufacturing.

Another notable characteristic of the Bryant 355CAV is its energy-efficient design. It integrates modern technologies aimed at reducing power consumption while maintaining optimum performance. This environmentally conscious approach not only cuts operational costs but also aligns with the growing demand for sustainable manufacturing practices.

Moreover, the Bryant 355CAV features advanced monitoring capabilities, allowing operators to track machine performance in real time. Data analytics from these systems can be utilized to improve operational efficiency, reduce downtime, and enhance predictive maintenance protocols.

In summary, the Bryant 355CAV is a versatile, high-performance machining center that showcases cutting-edge features and technologies. Its combination of user-friendly controls, sturdy construction, energy efficiency, and advanced monitoring positions it as a vital asset for manufacturers aiming to elevate their productivity and precision in an increasingly competitive landscape.