The present disclosure provides a hose reel enclosure for a hose reel. The hose reel enclosure can include a unitary housing, a hose reel assembly, and a hose guide. The unitary housing can include lateral supports. The hose reel assembly can be disposed within the unitary housing and can be configured to receive the hose. The hose guide can be disposed within the unitary housing and configured to receive a free end of the hose.

The present invention relates to a hose guide for a hose reel enclosure. The hose guide comprises a pair of travel bars, including a first travel bar and a second travel bar, and a guide member slidably disposed on each one of the pair of travel bars. The guide member allows for smooth and controlled movement of the hose within the hose reel enclosure, preventing tangling and ensuring efficient retraction and extension of the hose. The design of the hose guide provides improved functionality and ease of use, enhancing the overall performance and durability of the hose reel enclosure.

An inlet locking collar assembly for a hose reel enclosure is provided. The collar assembly can include a securing member, an inlet member, and a collar. The securing member can include an arm and a clip. The inlet member can include a first end, a second end, and a channel. The first end can be configured to be in fluid communication with a fluid source. The second end can be configured to receive an outlet member. The channel can be configured to receive the arm. The collar can include a first edge, a second edge, a flange, and a recess. The first edge can be configured to receive the outlet member. The second edge can be configured to receive the inlet member. The flange can include a notch configured to receive the clip. The recess configured to receive the arm.

A rotary union for a hose reel enclosure includes an inlet member in fluid communication with a fluid source. The rotary union further includes an outlet member rotatably disposed in the inlet member. The outlet member includes a first terminal in fluid communication with the inlet member and a second terminal in fluid communication with a hose in the hose reel enclosure. The rotary union also includes an inlet locking collar assembly. This design allows for efficient fluid transfer between the fluid source and the hose reel enclosure, providing a reliable and secure connection.

An auxiliary distribution station is configured to be used in cooperation with a primary distribution station. The auxiliary distribution system includes a mobile vehicle, an auxiliary hose reel and auxiliary hose, a lift, a tank, a pump, an auxiliary meter, and a tank hose. The auxiliary hose is configured to be fluidly connected with a hose of the primary distribution station. The lift is configured to move and deploy the auxiliary hose reel from the mobile vehicle. The pump is operable to pump fluid from the tank, through the meter, and through the tank hose.

A multiple flexible lance hose take-up drum apparatus or device in accordance with the present disclosure includes a base having three or more support legs and a hollow take-up drum assembly rotatably supported from the base. The drum assembly includes a hollow cylindrical shell, a bottom plate fastened to the shell, a high pressure fluid supply connection and a manifold positioned radially along a bottom plate of the shell for connection to one end of each of a plurality of flexible lance hoses. The base includes an L shaped support arm extending from the bases alongside the shell. A plurality of guide tubes are supported by the support arm and aligned over a rim of the shell for guiding flexible lance hoses into and out of the take-up drum assembly.

A coiled tubing unit includes a coiled tubing assembly and a slickline assembly sharing an axis of rotation with the coiled tubing assembly. A shaft of the coiled tubing assembly is received by bearings on a slickline drum of the slickline assembly and extends through an interior of the slickline drum. A swivel joint connection is rotatably affixed on an end of the main shaft as it exits the interior of the slickline drum, thus allowing for introduction of fluid or cabling into the main shaft and into the coiled tubing. The coiled tubing drum and slickline drum can rotate independently and are powered independently of each other. The coiled tubing and slickline assemblies are preferably affixed to a removable module, the removable module being positioned on a skid having a power unit and appropriate controls.

A cranking mechanism preferably includes a crank shaft, a one way bearing, a clutch, a reel shaft, a driven gear and at least one reel. The clutch preferably includes a clutch housing, a clutch pack and a pressure washer. The clutch housing includes a clutch pack housing and a drive gear. The one way bearing and the clutch are retained on the crank shaft. A hand knob is threaded on to a threaded end of the crank shaft to exert pressure on the clutch pack. The driven gear is pressed on to the reel shaft. The at least one reel is retained on at least one end of the reel shaft. The hand knob is tightened against the clutch pack to frictionally engage the crank shaft with the drive gear. The drive gear rotates the at least one reel.

A hose-reeling apparatus includes a base unit, a support unit, a joint unit and a reel unit. The base unit includes two casters provided thereon. The support unit includes a hollow post supported on the base unit and a sleeve provided on the hollow post. The joint unit includes a lower joint connected to the hollow post, a tubular plug inserted in an upper end of the hollow post, and an upper joint comprising a lower portion inserted in the tubular plug and an upper portion inserted in the shell. The reel unit includes a shell, a hollow reel, a crank, an outlet joint, a track, a driving rod, a sliding element, a transmission unit, a lower tube, and an upper tube.

A medical tubing housing device is provided including a housing having a front housing portion, a rear housing portion and a spool of medical tubing rotatably mounted within the housing. A retraction mechanism, including a drive plate and a spiral torsion spring, is mounted within the housing between the spool and the rear housing portion and the drive plate is in engagement with the spool. An inlet is provided on the rear housing portion for receipt of an external fluid source and is in fluid communication with the supply tubing through a collar of the housing and a connecting portion rotatably attached to the collar. The spiral torsion spring is movable between an unstressed condition and a stressed condition when the spool is rotated as the medical tubing is pulled out of the housing. The medical tubing housing device may also include a wall mount to mount the housing to a stable surface.