A support arrangement for a fluid monitoring system is provided, configured for being secured within a vertical shaft and for facilitating positioning of a fluid monitor suspended therefrom. The support arrangement includes an attachment arrangement to be secured to a vertical access shaft of an open channel fluid transport system, a cross rail assembly including a cross rail and being configured to be mounted to the attachment arrangement for being supported thereby, and a lifting assembly mounted on the cross rail and configured for suspension therefrom of the fluid monitor along a vertically-extending suspension axis. The cross rail is configured to be rotatable about a vertical axis when at least partially received within the attachment arrangement. The lifting assembly is configured to be selectively secured to one of a plurality of lateral positions along the length of the cross rail.

The anchor and clevis system comprises a quick, tactical, and safe means to deploy a canine into an attic or other intended space to conduct a search and/or for the apprehension of a criminal suspect and comprises an anchor adapted to lock onto a support structure and a clevis attached to the anchor and threaded to accept a pole for remote deployment. Attached to the anchoring device by a carabiner is the top pulley. A lift rope is threaded through the top pulley allowing the user on the ground or lower floor to quickly lift a dog into an attic with minimal exposure to harm. The lift rope engages a lower pulley allowing a subject to be lifted by one user. Attached to the lower pulley by a second carabiner is a snap-shackle release system which allows the user to disengage the dog from the device remotely.

The anchor and clevis system comprises a quick, tactical, and safe means to deploy a canine into an attic or other intended space to conduct a search and/or for the apprehension of a criminal suspect and comprises an anchor adapted to lock onto a support structure and a clevis attached to the anchor and threaded to accept a pole for remote deployment. Attached to the anchoring device by a carabiner is the top pulley. A lift rope is threaded through the top pulley allowing the user on the ground or lower floor to quickly lift a dog into an attic with minimal exposure to harm. The lift rope engages a lower pulley allowing a subject to be lifted by one user. Attached to the lower pulley by a second carabiner is a snap-shackle release system which allows the user to disengage the dog from the device remotely.

A solar array lifting assembly and method. The device and method use a support pole, a pole bracket for supporting a solar array made up of a frame and solar panels, a pole bracket securing mechanism for securing the pole bracket at a predetermined height, and a lifting assembly for lifting the pole bracket and solar array along the support pole.

A solar array lifting assembly and method. The device and method use a support pole, a pole bracket for supporting a solar array made up of a frame and solar panels, a pole bracket securing mechanism for securing the pole bracket at a predetermined height, and a lifting assembly for lifting the pole bracket and solar array along the support pole.

The present disclosure provides a device, system and method for hoisting and lowering a load, comprising a device having a front plate that may be displaced to reveal a sheave, and a friction accessory. The friction accessory is arranged to create friction between a rope and the device when a load is suspended from the device using the rope and where the device is secured to a support structure. The system may be prepared by an operator, having ascended to an elevated location, and further allows the operator to lower the load from the elevated location prior to descending.

The present disclosure provides a device, system and method for hoisting and lowering a load, comprising a device having a front plate that may be displaced to reveal a sheave, and a friction accessory. The friction accessory is arranged to create friction between a rope and the device when a load is suspended from the device using the rope and where the device is secured to a support structure. The system may be prepared by an operator, having ascended to an elevated location, and further allows the operator to lower the load from the elevated location prior to descending.

An overhead storage device or system may include a mechanism for hoisting the object to be stored (e.g., a bicycle) at an elevated height (e.g., above grade or floor level). In general, the present teachings may include a cable pulley engaged with a constant torque spring unit structurally configured to apply an approximately constant torque to the cable spool that promotes rotation of a spool thereof for winding of a lift cable about the spool to lift a load. Also disclosed are techniques for improving such a constant toque lifting unit such as an inertial brake structurally configured to slow down or stop an undesired, accelerated winding of a lift cable, a self-coiling device structurally configured to advantageously wind the lift cable a predetermined amount (e.g., for removal of same as a hinderance), and an attachment mechanism structurally configured to securely couple to a load.

An overhead storage device or system may include a mechanism for hoisting the object to be stored (e.g., a bicycle) at an elevated height (e.g., above grade or floor level). In general, the present teachings may include a cable pulley engaged with a constant torque spring unit structurally configured to apply an approximately constant torque to the cable spool that promotes rotation of a spool thereof for winding of a lift cable about the spool to lift a load. Also disclosed are techniques for improving such a constant toque lifting unit such as an inertial brake structurally configured to slow down or stop an undesired, accelerated winding of a lift cable, a self-coiling device structurally configured to advantageously wind the lift cable a predetermined amount (e.g., for removal of same as a hinderance), and an attachment mechanism structurally configured to securely couple to a load.

The pulley comprises a securing head and a first flange. A first shaft extends from the first flange. A second flange and a sheave are mounted rotatable around the first shaft with respect to the first flange. A rod is fixed to the first flange and mounted movable between a first position and a second position with a first movement. In the first position, the rod engages with the second flange to keep the second flange in the first position. In the second position, the rod allows rotation of the second flange. A blanking plate is fixed on the second flange and mounted movable between a first position and a second position with a second movement different from the first movement. The blanking plate partially covers the rod to prevent movement of the rod from the first position to the second position.