Abstract: The invention relates to a belt retractor (5) for a vehicle seat belt system, comprising a frame (10), a belt reel (14) which is rotatably arranged within the frame (10), and a locking system which can lock the belt reel in a webbing-sensitive manner, wherein the locking system includes an inertia pawl (30) which per se co-rotates with the belt reel (14) and is pivotable from a home position in which the belt reel is freely rotatable about a pivot axis (S) to a locking position, characterized in that a means to trigger pivoting of the inertia pawl (30) is provided which is responsive to exceeding a predetermined centrifugal force.

Abstract: An arm rest for a vehicle seat includes a console part and an arm support mounted at the console part so as to be swivelable about a swivel axis between a use position and a rest position. Latching teeth fixedly arranged at the console part or at the arm support engage a latching engagement member mounted at the arm support or at the console part so as to be shiftable. An inertia member mounted so as to be shiftable between at least one release position and at least one blocked position. The inertia member, in the blocked position, prevents unlatching of the latching engagement member from a latched status, wherein inertia member is shifted from the release position into the blocked position upon an acceleration of the arm rest due to the inertia of the inertia member.

Abstract: A pilot lever includes: a sleeve portion configured to be rotatably fitted on a mounting boss erected on a clutch rotatably arranged coaxially with a take-up drum; and an engagement claw portion projecting outward from an outer circumferential surface of the sleeve portion so as to face a locking gear attached integrally and coaxially with the take-up drum, and configured to engage with the locking gear. In case of an emergency, the engagement claw portion engages with one locking gear tooth formed on an outer circumference portion of the locking gear. The engagement claw portion is then elastically deformable toward the sleeve portion when pushed by the one locking gear tooth under the engaged state. If the engagement claw portion and the one locking gear tooth are disengaged, the elastic deformation of the engagement claw portion is released.

Abstract: In an acceleration sensor, a guide portion is formed on a swing push-us member contiguous to a pushing portion and further to a pull-out direction side than the pushing portion. A top-edge portion of the guide portion is sloped to gradually get lower on progression away from the pushing portion in the pull-out direction. When a coupling claw moves in the take-up direction together with the sensor gear, the guide portion contacts the coupling claw from below the leading end of the coupling claw. The guide portion swings the coupling claw upwards as the sensor gear is rotating in the take-up direction, and guides the coupling claw to be on the pushing portion. The swing push-us member can be prevented from unintentionally obstructing the coupling claw when the sensor gear is returning to the initial position, even without provision of structure to restrict the swing push-us member from rising.

Abstract: A self-locking belt retractor has a vehicle-sensitive controlled blocking system in which a mass (14) moves a locking lever (17) engaged in the toothing (29) of a controlled disk. The sensor mass (14) is fitted in a holder part (10) on a support surface (23) that can be tilted in case of vehicle accelerations, the locking lever (17) on the end (19) facing away from the engaging tip (18) being connected to the sensor mass (14) in a form-fitting manner and forming a support (21). A form fit occurs in an extension (15) of the sensor mass (14) which protrudes through a hole (33) in the contact surface (23) of the holder part (10). A projection (31) projecting into a hole (33) is provided at the border of the hole (33) facing the locking lever (17) that is contacted by the locking lever (17) in case of a deflection.

Abstract: A seatbelt retractor inertial locking system for motor vehicle belt restraint systems. The inertial locking system incorporates features to reduce the influence of contaminants from causing unwanted locking of the associated retractor. The feature is in part provided by the positioning of a point contact between a ball mass and a locking lever. The inertia actuator forms the inertial ball mass nest surface which has a vented construction which permits the escape of contaminants and further contributes to reducing noise generated by contact between the ball mass and the nest surface.

Abstract: Provided is a webbing winding device having a lock mechanism in which a driven body is less influenced by an inclination of a driving body. A peripheral wall extends from an edge portion of a penetration hole formed at a sensor gear constituting the lock mechanism toward a link member, and a guide hole is formed at a bottom wall formed at the front end of the peripheral wall. An engagement pin of the link member passes through the guide hole from the base end portion rather than the front end portion thereof in the protruding direction. Further, in the front end side of the engagement pin passing through and protruding from the guide hole, the outer peripheral portion is spaced apart from the inner peripheral portion of the peripheral wall.

Abstract: An omni-directional mechanical acceleration sensor is disclosed for use in applications including, but not limited to, vehicular seat belt systems, aircraft safety harness systems and initiation of airbag safety systems. The mechanical acceleration sensor incorporates at least two masses which, upon an acceleration event occurring, will cause a lever, to pivot thereby releasing the lever from engagement with an actuating means which would then initiate the applicable safety system.

Abstract: This is the current invention of the components or their construction for the seat belt retractor. The invention enables the fitting angle of the seat belt to be adjustable to the specified range of the vehicle stabilization, deceleration/acceleration sensor. The bracket holder is constructed on the holder sensor, and contains the formation of the No. 1 hole, and the No. 2 hole that locks onto the No. 1 or 2 cylinders selectively. The retractor is adjustable to the biased angle to maintain its horizontality according to the vehicle's dynamic slope and rapid deceleration/acceleration.

Abstract: In a V-sensor of a webbing take-up device, concave portions are formed in supporting walls of a supporting member having a spring property, and peak ends of a rotating shaft of a sensor pawl gets into the concave portions, and the rotating shaft is thereby supported by the supporting walls. Cone-shaped concave portions come into contact by pressure with the cone-shaped peak ends of the rotating shaft due to the elasticity of the supporting walls, and therefore, when the rotating shaft attempts to be displaced in the axis direction thereof and in a direction orthogonal to the axis direction of the rotating shaft, the elasticity of the supporting walls withstand displacement of the rotating shaft. As a result, occurrence of a rattle of the rotating shaft, that is, the sensor pawl can be prevented or restrained.

Abstract: A seatbelt retractor includes an acceleration sensor. The acceleration sensor includes a sensor case having a supporting surface which is maintained horizontal. A self-standing inertia body whose bottom surface is placed on the supporting surface is installed inside the sensor case in a self-standing condition, and which tilts when a horizontal acceleration is exerted. An actuating member which, in accordance with a tilting movement of the self-standing inertia body, activates a lock mechanism to lock the extraction of the seat belt. An outer contour of a contact area where the supporting surface of the sensor case and the bottom surface of the self-standing inertia body are in surface contact is configured such that a distance from a center axis of the self-standing inertia body to the outer contour differ, in a horizontal plane, in a first direction and in a second direction orthogonal to the first direction.

Abstract: A method for adjusting sensitivity of a load detecting device of a seat for a vehicle includes a seat assembling step for assembling the seat with plural load sensors assembled, a zero point adjusting step for obtaining a non-load output value by totaling output values of the load sensors when no load is applied on the seat and memorizing the non-load output value in a memory of a processing device, an adjusted output value calculating step for obtaining an adjusted output value by subtracting the non-load output value from a total of the output values of the load sensors when a predetermined load is applied on the seat, a trimming coefficient calculating step for calculating a trimming coefficient by dividing a designed output value by the adjusted output value, and a trimming coefficient memorizing step for memorizing the trimming coefficient in the memory of the processing device.

Abstract: A holding mechanism for a vehicular acceleration sensor, comprising: a pair of lever arms operable to move independently of one another; and an inertia weight held between the lever arms, wherein movement of the inertia weight, in use, when under acceleration, causes at least a part of at least one lever arm or both arms to move in a generally linear direction.

Abstract: An inertia sensitive actuator especially adapted for use with a dual spool retractor for a motor vehicle seat belt system, The dual spool retractor includes shoulder belt and lap belt spool assemblies engaging with the shoulder belt and lap belt portions of the seat belt webbing, The dual spool retractor incorporates an inertia sensitive actuator having an excitation mass which is coupled with both of the retractor spool assemblies via linkages,

Abstract: A vehicle sensitive retractor control system having reduced sensitivity to Z-axis acceleration experienced during normal driving. The retractor control system incorporates a rolling mass and a locking lever which, in a resting position, are arranged such that the locking lever does not engage a ratchet wheel of a seat belt retractor spool. In response to accelerations in the horizontal plane, the rolling ball mass becomes unseated from its resting position and engages the locking lever, causing it to pivot and lock the retractor. In response to Z-axis acceleration, the rolling mass is prevented from contacting the locking lever by a mass restrictor. A soft damping spring is also provided to bias the locking lever against a lever rest. The spring is sized to overcome the inertia of the locking lever and prevent it from “bouncing up” and engaging the ratchet wheel in response to Z-axis accelerations.

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30, 32, 33) detects changes in vehicle speed. The mass (30, 32, 33) has a guide surface (34, 35, 36) for interacting with the actuator (26). The guide surface (34, 35, 36) moves between an unlocking position in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position in which the actuator (26) locks the seatbelt retractor (14). The guide surface (30) has an inner profile portion (62) and at least an outer profile portion (64). The actuator (26) is in contact with the inner profile portion (62) in the unlocking position while moving into contact with the outer profile portion (64) as the actuator (26) moves towards the locking position. The inner profile portion (62) causes a different acceleration of the actuator (26) than the outer profile portion (64).

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30, 32, 33) detects changes in vehicle speed. The mass (30, 32, 33) has a guide surface (34, 35, 36) for interacting with the actuator (26). The guide surface (34, 35, 36) moves between an unlocking position in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position in which the actuator (26) locks the seatbelt retractor (14). The guide surface (30) has an inner profile portion (62) and at least an outer profile portion (64). The actuator (26) is in contact with the inner profile portion (62) in the unlocking position while moving into contact with the outer profile portion (64) as the actuator (26) moves towards the locking position. The inner profile portion (62) causes a different acceleration of the actuator (26) than the outer profile portion (64).

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30) detects changes in vehicle speed. The mass (30) has a guide surface (34) for interacting with the actuator (26). The guide surface (34) moves between an unlocking position (38) in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position (42) in which the actuator (26) locks the seatbelt retractor (14). The actuator (26) has an actuator arm (25) with a surface contacting portion (54) in contact with the guide surface (34) and an open slot (57) above the surface contacting portion (54). The surface contacting portion (54) is connected to the actuator arm (25) by a beam structure (56) having a spring rate Kbeam sufficient to maintain the open slot (57) open during normal vehicle operation.

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30, 32, 33) detects changes in vehicle speed. The mass (30, 32, 33) has a guide surface (34, 35, 36) for interacting with the actuator (26). The guide surface (34, 35, 36) moves between an unlocking position in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position in which the actuator (26) locks the seatbelt retractor (14). The guide surface (30) has an inner profile portion (62) and at least an outer profile portion (64). The actuator (26) is in contact with the inner profile portion (62) in the unlocking position while moving into contact with the outer profile portion (64) as the actuator (26) moves towards the locking position. The inner profile portion (62) causes a different acceleration of the actuator (26) than the outer profile portion (64).

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30, 32, 33) detects changes in vehicle speed. The mass (30, 32, 33) has a guide surface (34, 35, 36) for interacting with the actuator (26). The guide surface (34, 35, 36) moves between an unlocking position in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position in which the actuator (26) locks the seatbelt retractor (14). The guide surface (30) has an inner profile portion (62) and at least an outer profile portion (64). The actuator (26) is in contact with the inner profile portion (62) in the unlocking position while moving into contact with the outer profile portion (64) as the actuator (26) moves towards the locking position. The inner profile portion (62) causes a different acceleration of the actuator (26) than the outer profile portion (64).

Abstract: A seatbelt retractor assembly (10) has a seatbelt retractor (14) and an actuator (26) for locking and unlocking the seatbelt retractor (1). An inertial sensor mass (30, 32, 33) detects changes in vehicle speed. The mass (30, 32, 33) has a guide surface (34, 35, 36) for interacting with the actuator (26). The guide surface (34, 35, 36) moves between an unlocking position in which the actuator (26) unlocks the seatbelt retractor (14) and a locking position in which the actuator (26) locks the seatbelt retractor (14). The guide surface (30) has an inner profile portion (62) and at least an outer profile portion (64). The actuator (26) is in contact with the inner profile portion (62) in the unlocking position while moving into contact with the outer profile portion (64) as the actuator (26) moves towards the locking position. The inner profile portion (62) causes a different acceleration of the actuator (26) than the outer profile portion (64).

Abstract: A seat belt retractor (10) has an actuator (14) for unlocking and locking the seat belt retractor (10). An inertial sensor (18) detects changes in vehicle acceleration and interacts with the actuator (14) to lock and unlock the seat belt retractor (10). The inertial sensor (18) has one inertial sensor mass, each mass (26, 27, 29, 30, 32, 33) has a wide portion (70) and a narrow portion (72). Preferably each inertial sensor mass (26, 27, 29, 30, 32, 33) has a high density body (31) embedded in the wide portion (70) of the elastomeric material (34). The inertial sensor mass (26, 27, 29, 30, 32, 33) has a greater density than the elastomeric material (34). Moreover, the elastomeric material (34) at least partially surrounds an exterior circumferential surface (38) of the inertial sensor mass (26, 27, 29, 30, 32, 33).

Abstract: A seat belt retractor for a vehicle safety restraint has a spool rotatably mounted in a frame. A ratchet wheel is rotatably mounted to rotate with the spool. A control member is mounted in the frame. A locking pawl is pivotally mounted in the frame to pivot into engagement with the ratchet wheel. A sensor is responsive to the spool. Upon activation of the sensor, a cam surface and a cam follower couple the locking pawl to the control member. The cam surface has a discontinuity arranged so that the cam follower loses contact with the cam at high speeds but stays in contact with the cam surface at low speeds. Preferably, the discontinuity is a raised portion providing a first ramp in one direction in one portion on one side of the discontinuity of the cam surface and a second ramp in a different direction in a second portion of the cam surface on the other side of the discontinuity.

Abstract: The inertia sensor is a sensor for a seatbelt retractor used for sensing deceleration. The inertia sensor is composed of a primary mass, a secondary mass, and a lifter. The primary mass provides the inertia for the self compensating function. The secondary mass provides the inertia for sensing deceleration. The inertia sensor is not triggered when subjected to tilting angles of 30 degrees or less in any direction. Upon experiencing decelerating motion, the secondary mass tilts relative to the primary mass whereby this relative angular displacement causes the lifter to raise. The lifter rotates a locking pawl into an engagement position, which initiates the locking mechanism of the seatbelt retractor.

Abstract: A vehicular seatbelt retractor is provided with a webbing control device and a pawl device, in which a mass member is inserted into a first tooth portion body of a clutch wheel and is positioned in a retainer ring of a retainer, so that its wing latch faces a second sprocket of the retainer ring. The webbing control device includes a retainer, a locking element and a clutch wheel, and the pawl device includes a housing and a standing weight mounted to be rocked from side to side in the housing.

Abstract: A vehicle-sensitive sensor for a belt retractor for vehicle safety belt systems, comprises an inertia body displaceable in case of decelerations and accelerations of the sensor, and a two-armed lever. A first arm of the two-armed lever forms a coupling pawl, and a second arm of the two-armed lever is able to be engaged by the inertia body such that, in case of a displacement of the inertia body, the lever is pivoted so that the coupling pawl is directed into a clutch toothing.

Abstract: A vehicle sensor for a retractor for a vehicle safety restraint has a sensor mass in the form of an upturned hollow cup, formed in a single piece by injection molding or die casting, resting on an upstanding post. It may be of metal or high-density plastic material. Preferably a profiled pad is fixed or mounded on the underside of the lever or on the upper surface of the cup. In this way the arrangement causes the lever to lift through substantially the same angle whichever the direction of acceleration activating the sensor. This sensor is an improvement over known sensors because it is simpler and cheaper to manufacture, easier to calibrate relatively accurately, and does not exhibit right/left dependency.

Abstract: An adjustment mechanism for a safety belt retractor locking sensor has a shaft rotatably mounted in a lock cup spade of a retractor and a cam part eccentrically mounted relative to the shaft. The cam part is received within an elliptical hole in the housing. Rotation of the cam part about the axis of the shaft causes the housing to move relative to the lock cup spade. Projections on the spade engaging in the vertical slots in the housing constrain the housing to move substantially vertically. Vertical adjustment of the housing relative to the retractor affects the position of the lever tip relative to the ratchet wheel of the retractor.

Abstract: The invention relates to a safety belt apparatus with a belt roller (11) which is preferably subjected to a bias force in the wind-up direction by a spring and onto which a seat belt (12) is wound up to a greater or a lesser extent, with an acceleration sensor (13) with a movable mass (19) and an auxiliary pawl (15) which is impacted by the latter controlling with the auxiliary pawl (15) a position control ratchet wheel (14) which in turn acts via a transmission (16) on a main pawl (17) which is rotationally fixedly connected to the belt roller (11) in order that the latter engages into a main ratchet crown (18) during the blocking of the position control ratchet wheel (14) by the auxiliary pawl (15) in order to stop the further drawing out of the belt (12).