Redondo Beach, CA, United States
Redondo Beach, CA, United States

TRW Inc. was an American corporation involved in a variety of businesses, mainly aerospace, automotive, and credit reporting. It was a pioneer in multiple fields including electronic components, integrated circuits, computers, software and systems engineering. TRW built many spacecraft, including Pioneer 1, Pioneer 10, and several space-based observatories. It was #57 on the Fortune 500 list, and had 122,258 employees. Wikipedia.

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Trw | Date: 2016-08-10

A collapsible steering column assembly comprising a steering shaft that is supported within a steering column shroud, the shroud comprising an upper shroud portion and a lower shroud portion, in which the upper shroud portion is located towards the end of the steering shaft that is nearest the steering wheel and the lower portion is located towards the end of the shaft furthest from the steering wheel, the upper portion being at least partially received within the lower portion so that the upper portion can telescopically collapse into the lower portion during a crash, a support bracket that in use is secured to a fixed part of the vehicle and includes two support bracket arms that depend from a base portion to embrace the shroud, a clamp rail that is releasably secured to the upper shroud portion, the clamp rail including a slot that extends generally horizontally, and a clamp pin that extends through an opening in each of the arms of the bracket and through the generally horizontal slot in the rail, the clamp pin carrying a clamp mechanism that is movable between an unclamped position in which the rail can move freely relative to the clamp pin and a clamped position in which the rail is fixed relative to the clamp pin. The rail is secured to the upper shroud portion by a deformable tab which protrudes from the upper shroud portion to hook onto a part of the rail that faces the steering wheel end of the shroud. In use of the assembly with the cam mechanism in the clamped condition the tab is deformable under a predefined load applied to the upper shroud so as to unhook from the rail allowing the upper shroud to move axially relative to the rail and hence relative to the clam pin to permit collapse of the steering column shroud.

Trw | Date: 2016-08-19

In accordance with one aspect of the present invention, a driver assist system for a vehicle includes a housing and a camera extending from the housing. A data processing circuit is mounted within the housing for processing and analyzing image data provided by the camera. A fluid filled heat sink transfers heat from the data processing circuit to the environment for cooling the data processing circuit.

Agency: GTR | Branch: EPSRC | Program: | Phase: Research Grant | Award Amount: 858.32K | Year: 2015

Autonomous robots, capable of independent and intelligent navigation through unknown environments, have the potential to significantly increase human safety and security. They could replace people in potentially hazardous tasks, for instance search and rescue operations in disaster zones, or surveys of nuclear/chemical installations. Vision is one of the primary senses that can enable this capability, however, visual information processing is notoriously difficult, especially at speeds required for fast moving robots, and in particular where low weight, power dissipation and cost of the system are of concern. Conventional hardware and algorithms are not up to the task. The proposal here is to tightly integrate novel sensing and processing hardware, together with vision, navigation and control algorithms, to enable the next generation of autonomous robots. At the heart of the system will be a device known as a vision chip. This bespoke integrated circuit differs from a conventional image sensor, including a processor with each pixel. This will offer unprecedented performance. The massively parallel processor array will be programmed to pre-process images, passing higher-level feature information upstream to vision tracking algorithms and the control system. Feature extraction at pixel level results in an extremely efficient and high speed throughput of information. Another feature of the new vision chip will be the measurement of time of flight data in each pixel. This will allow the distance to a feature to be extracted and combined with the image plane data for vision tracking, simplifying and speeding up the real-time state estimation and mapping capabilities. Vision algorithms will be developed to make the most optimal use of this novel hardware technology. This project will not only develop a unique vision processing system, but will also tightly integrate the control system design. Vision and control systems have been traditionally developed independently, with the downstream flow of information from sensor through to motor control. In our system, information flow will be bidirectional. Control system parameters will be passed to the image sensor itself, guiding computational effort and reducing processing overheads. For example a rotational demand passed into the control system, will not only result in control actuation for vehicle movement, but will also result in optic tracking along the same path. A key component of the project will therefore be the management and control of information across all three layers: sensing, visual perception and control. Information share will occur at multiple rates and may either be scheduled or requested. Shared information and distributed computation will provide a breakthrough in control capabilities for highly agile robotic systems. Whilst applicable to a very wide range of disciplines, our system will be tested in the demanding field of autonomous aerial robotics. We will integrate the new vision sensors onboard an unmanned air vehicle (UAV), developing a control system that will fully exploit the new tracking capabilities. This will serve as a demonstration platform for the complete vision system, incorporating nonlinear algorithms to control the vehicle through agile manoeuvres and rapidly changing trajectories. Although specific vision tracking and control algorithms will be used for the project, the hardware itself and system architecture will be applicable to a very wide range of tasks. Any application that is currently limited by tracking capabilities, in particular when combined with a rapid, demanding control challenge would benefit from this work. We will demonstrate a step change in agile, vision-based control of UAVs for exploration, and in doing so develop an architecture which will have benefits in fields as diverse as medical robotics and industrial production.

The invention relates to a subassembly (10) of a vehicle safety system comprising a tubular casing (20) and comprising a fastening element (30) that includes at least one fastening hole (13) and a peripheral portion (31) curved at least in portions, wherein the peripheral portion (31) is connected at least at one connecting point (11) to the tubular casing (20). In accordance with the invention, the peripheral portion (31) includes at least one breakthrough (40) and a coating passage (17) is formed at least in portions between the peripheral portion (31) and the casing (20), wherein the tubular casing (20) includes at least in portions, especially on its entire exposed surface (21), an anti-corrosion layer and/or the fastening element (30) includes at least in portions, especially on its entire exposed surface (32), an anti-corrosion layer.

Trw | Date: 2016-09-15

A gas generator (10) comprises an outer housing, which has at (east two housing parts (12), which are connected to each other, in the form of a diffuser bowl (14) with outflow openings (16) towards the outside and a cover (20) directly connected to the diffuser bowl (14). Inside the gas generator (10), at least one first and one second combustion chamber (30, 36) are provided, wherein the first combustion chamber (30) is delimited by an inner wall (32) and the second combustion chamber (36) is located within the space delimited by the diffuser bowl (14) and the cover (20). The diffuser bowl (14) and/or the cover (20) comprise a section (24) that is shaped, in particular deep-drawn, into an indentation, forming at least partially a circumferential section of the inner wall (32).

An electronic assembly comprises a housing, a cover for the housing, a printed circuit board receivable in the housing, and a compliant pin header assembly. The compliant pin header assembly is mountable in the housing by inter-engaging features on the header assembly and the housing. The compliant pin header assembly has compliant pins for engaging corresponding features on the printed circuit board to connect the compliant pin header assembly electrically to the printed circuit board. The cover, when the electronic assembly is assembled, engages the housing and also engages the printed circuit board at a location spaced from an outer periphery of the printed circuit board.

A pyrotechnical igniter (100) for an inflator of a vehicle safety system comprises at least two contact pins (102) physically separated from each other by an electrically insulating compound and a bridge wire (110) connected to both contact pins (102) in an electrically conducting manner. A fastening portion (112) in which the bridge wire (110) is welded to the contact pins (102) is provided at each of the contact pins (102).

Apparatus for use in a vehicle equipped with a vehicle-to-vehicle communication system. A remote keyless entry fob is provided for remote control of vehicle access. The fob includes a receiver for receiving a message broadcast by the vehicle-to-vehicle communication system and a memory for storing at least some elements of the message.

Trw | Date: 2016-03-22

A fastener (10) includes a clamp arm (26) which is connected with a base (24). The clamp arm (26) cooperates with the base (24) to form an entrance (80) into which an article (14) extends. A first locking tab (40) extends from the base (24) into a first opening (64) in the article (14). A second locking tab (120) extends from the clamp arm (26) into a second opening (142) in the article. When a withdrawal force is applied to the fastener, an arcuate portion (116) of an inner side surface (108) of the clamp arm (26) moves from a position spaced from an outer side surface (164) of the article (14) to a position in which the arcuate portion of the inner side surface of the clamp arm is disposed in abutting engagement with the outer side surface of the article.

Trw | Date: 2016-05-11

An inflatable vehicle occupant protection device (14) is provided for being inflated with inflation fluid towards a seat (22) of the vehicle (12). The protection device includes a front portion (70) presented towards the vehicle seat (22) and helping to define an inflatable volume (54). The front portion (70) includes a pair of extensions (344, 444) overlaid on one another and interconnected to form a pocket (100) defining a collapsed volume (120) outside the inflatable volume (54). The pocket (100) extends horizontally across the front portion (70) and towards the inflatable volume (54). A tether (500) has a first end portion (502) secured to both interconnected extensions (344, 444) and a second end portion (504) secured to a portion of the protection device such that the size of the pocket (100) remains larger than a predetermined amount when the protection device is fully inflated.

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