A bridge rope assembly includes a main body comprising a rope that has a first end and a second end. The rope has a splice therein to form an eye loop in the main body. The eye loop is configured to engage a first bridge loop of a harness. The main body comprises a first portion including the first end and a second portion including the second end. The first portion extends through the second portion of the main body such that the first end is positioned adjacent to the second end. A distance between the first and second ends is less than 2.0 inches.

A connector apparatus includes a first connector and a second connector. A housing defines a first channel and a second channel and a locking mechanism configured to secure one of the first and second connectors within the first channel or the second channel. The locking mechanism includes a disk with a rotational stop, and a latch arm pivotable between at least a latched position and an unlatched position. When the first connector is secured within the first channel by the disk and the second connector is inserted into the second channel, the second connector actuates the latch arm towards the unlatched position such that the disk is enabled to pivot and secure the second connector to the housing while simultaneously releasing the first connector from the housing.

Harnesses and methods of their manufacture are disclosed. The harnesses include a structural sub-assembly for use in construction of a waist band of a harness, the structural assembly including two primary load-bearing elements and a semi-loadbearing flexible substrate sheet, Each primary load-bearing element is formed from elongate, flexible textile webbing that extends, typically in a loop, that passes through multiple apertures in the sheet to form a woven structure with the sheet, Lengths of the two primary load-bearing elements (or one primary load-bearing element and another component of the structure) extend from a center line of the sheet upon one another and form a structure having three or more layers including the sheet The sub-assembly can be constructed by mounting the sheet on a jig and threading webbing components through apertures in the sheet prior to forming stitching to secure the webbing components.

A fall restraint assembly, including a harness, at least one base line including a first end and a second end, a first line including a third end slidingly connected to the at least one base line and a fourth end connected to the harness, and a second line including a fifth end slidingly connected to the at least one base line and a sixth end connected to the harness.

Techniques are described for monitoring and controlling fall protection equipment. For example, the techniques of this disclosure may be used to monitor the connection status of fall protection equipment, e.g., whether or not the fall protection equipment is connected to a support structure. The techniques described in the disclosure may determine whether the fall protection equipment is connected to a support structure based on changes in a resonant frequency of an electronic circuit of an inductive sensor within the fall protection equipment. The inductive sensor may be formed from sets of one or more coils, where a first set of one or more coils and a second set of one or more coils are wound in opposite directions.

A fall-protection system including a harness and a fall-protection apparatus with a lifeline bearing a connector configured to be connected to the harness; and, a fall-protection monitoring system with a base unit and with at least one sensor module configured to sense a condition of the connector and to communicate a signal indicative of the condition of the connector to the base unit.

Harnesses for supporting a person working at height are disclosed. They include a back, leg loops, two forward connection arrangements and a flexible load-bearing member that extends between the connection arrangements, the forward connection arrangements serving to transferring load from the back and the leg loops to the load-bearing member. Each forward connection arrangement includes: a base that is permanently connected to the harness and retention components that can be removably and rigidly connected to the base to removably secure the flexible load-bearing member to the body.

A rope anchor with a J-shaped a body having a hook and spine. The end of the spine has an attachment hole for a rope and an elongated, teardrop-shaped rope slot that is either enclosed or gated. The gate is biased closed to span the open side of the rope slot and pushed opened to allow access for a rope. A tip, composed of a flat chip of metallic material, fits into a slot at the end of the hook. The tip is generally triangular with two or three sharp corners, or square or rectangular with four sharp corners. The slot orients the tip so that only one of the sharp corners is exposed, or so that two adjacent sharp corners are exposed. When an exposed sharp corner is not suitable for use, the tip can be reoriented to expose a different sharp corner.

A fall arrest connector is used to connect at least a safety belt with a snap hook and a wearable harness for a user to wear. The fall arrest connector includes a retaining ring, a buckle ring, and a breakable connection. The retaining ring, including the first connecting portion, is connected to the wearable harness. The buckle ring, including the second connecting portion, is hooked by the snap hook. The breakable connection connects the second connecting portion and the first connecting portion. When the retaining ring or the buckle ring is pulled by a predetermined external force, the breakable connection is broken to separate the first and the second connecting portion. The retaining ring and the buckle ring could respectively be connected to the substitute protection device, which could provide the user an instant protection when the first connecting portion and the second connecting portion are separated.

A fall protection system includes an elevation mechanism including a base end and an elevated end, and that is configured to permit a user to scale the elevation mechanism. The first channel is disposed at a first side of the elevation mechanism and extends between the base end and the elevated end, and is configured to anchor a first shuttle to the elevation mechanism and permit the first shuttle to transition between the base end and the elevated end of the elevation mechanism. The second channel is disposed at a second side of the elevation mechanism and extends between the base end and the elevated end, and is configured to anchor a second shuttle to the elevation mechanism and permit the second shuttle to transition between the base end and the elevated end of the elevation mechanism.