A buckle for a seat belt device has a latch member that is configured to be engaged with a tongue when the tongue is inserted into the buckle; a buckle base having a bottom wall and a first side wall and a second side wall that stand up from the opposite side edges of the bottom wall, each of the first and second side walls having latch holding portions that hold the latch member, the latch holding portions each being formed of a cutout extending from an upper end of each of the first and second side walls of the buckle base; and a bridging member configured to be assemblable to the first and second side walls so as to span the latch holding portions in a front-rear direction.

A vehicle safety release system effecting an automated release and having, inter alia, a seatbelt, an integrated circuit (control unit), a power source, a transmitter, and a collision detection sensor, is contemplated. The safety release system also contemplates a manual release built to work in tandem with the system's automated release. The safety release system may be operated by both a manual input and the input from one or more collision detection sensors. When a push button is depressed a signal is sent to the control unit to release the seatbelt. Aspects of embodiments of the invention also contemplate access to the seatbelt's base latch to enable removal, if needed.

A device for reversibly connecting together a first element and a second element designed to be alternately connected and disconnected includes a male element, inserted into a female element to move from a mutually disengaged state to a mutually engaged state, and a slider, for actuation/release of the engaged state, which is slidingly engaged by the male element into the female element. The relative movement of the actuation/release slider and the male element is transferred to first releasable locking members of the male element, which cooperate with corresponding second locking members of the female element to move from a stable locked state to a stable unlocked state of the male element by a movement of the slider in the direction of insertion. Furthermore, the male element includes a handle having the slider at least partially and slidingly housed therein.

Methods, systems, and apparatuses for ensuring safety of a worker are disclosed. The system includes a first fastener configured to secure two or more ends of a harness around the user, a first sensor unit attached to the first fastener, the first sensor unit configured to generate a first signal when the first fastener is in a locked position, a tether attached to a portion of the harness, the tether configured to tether the user to a stationary or movable object, and a second fastener attached to one end of the tether, the second fastener configured to secure the one end of the tether to the stationary or movable object, a second sensor unit attached to the second fastener, the second sensor unit configured to generate a second signal when the second fastener is in a locked position, and a controller unit wirelessly connected to the first sensor unit and the second sensor unit, the controller unit configured to generate a third signal when the first or the second signal is not received by the controller unit within a predetermined period of time.

Devices and methods are provided as an environmentally conscious way to replace standard rubber bands. The devices include a reusable retainer band that comprises of a breakaway feature. The device further includes a wrap near the buckle to provide rigidity. The methods of use provide steps to use a device to loop around a firearm to secure wires, straps, or accessories.

A protective helmet including a helmet shell for at least partially covering the head of a helmet wearer, and a holding strap arrangement arranged on the helmet shell for holding the helmet shell on the head of the helmet wearer. The holding strap arrangement includes a chin strap connected to the helmet shell, a first closure part connected to the helmet shell, and a second closure part connected to the chin strap and can be brought into closed connection with the first closure part, with a closure being formed. The closure automatically opens in a first closed position if a predetermined opening tensile force acts between the closure parts, and the closure parts separate from each other. In a second closed position, the first closure part and the second closure part are always in closed connection with each other irrespective of a tensile force acting between the closure parts.

A stored energy release comprises an actuatable member slidably received within a housing. The actuatable member has an extended orientation wherein a portion of the actuatable member extends outwardly from the housing and a retracted orientation wherein the actuatable member resides within the housing. A biasing member is located between the actuatable member and the housing biases the actuatable member to the retracted orientation. A shaft is within the housing with the actuatable member configured for sliding movement along the shaft. A retaining member is located between the actuatable member and the shaft. The retaining member maintains the actuatable member in the extended orientation whereby potential energy is stored within the biasing member. A piezoelectric element selectively engages the retaining member to disable the retaining member and release the stored potential energy within the biasing member to place the actuatable member in the retracted orientation.

A harness system is provided and includes an upper buckle, an upper strap and a restraining assembly. The upper strap includes shoulder portion and a waist portion divided by the upper buckle. A through slot is formed on the upper buckle. The restraining assembly includes an anti-sliding structure, a beam structure disposed on the upper buckle and a stopping component. The through slot includes a first portion and a second portion divided by the beam structure and respectively adjacent to the shoulder portion and the waist portion. The upper strap passes through the first portion of the through slot from bottom to top and passes through the second portion of the through slot from top to bottom. The stopping component is detachably disposed on the shoulder portion and configured to abut against the upper buckle for restraining a sliding movement of the upper buckle relative to the upper strap.

A buckle assembly includes a first frame member defining a first slot, which includes a first open end positioned at a first side of the first frame member and which includes a first closed end positioned spaced apart from a second side of the first frame member; a second frame member defining a second slot, which includes a second open end positioned at a second side of the second frame member and a second closed end positioned spaced apart from a first side of the second frame member, wherein one of the first or second frame members has a pivot member upon which the first and second frame members are rotatable relative to one another; and a third frame member defining at least two slots which extend through the third frame member and is configured to position within a recess defined within the second frame member.

A stored energy release comprises an actuatable member slidably received within a housing. The actuatable member has an extended orientation wherein a portion of the actuatable member extends outwardly from the housing and a retracted orientation wherein the actuatable member resides within the housing. A biasing member is located between the actuatable member and the housing biases the actuatable member to the retracted orientation. A shaft is within the housing with the actuatable member configured for sliding movement along the shaft. A retaining member is located between the actuatable member and the shaft. The retaining member maintains the actuatable member in the extended orientation whereby potential energy is stored within the biasing member. A piezoelectric element selectively engages the retaining member to disable the retaining member and release the stored potential energy within the biasing member to place the actuatable member in the retracted orientation.