Other

Avaya Inc.

Goldman Sachs &Co. LLC

Siemens Rolm Communications Inc.

Constance F. Berger

Stephen C Berger

Russell Berger

Vivek Talwar

Jeff Rodman

Tony Griffiths

Werner Schaefer

Joseph Liguori

A tightening device () for use in installing an infant or child safety car seat in a motor vehicle and a wedge () having a recessed area or central cutout created by a cross-member () connecting two triangular-shaped side panels () used to expose an anchoring bracket () located within a vehicle seat.

Safety car seat tightening device and seat wedge for use in installing safety car seats

According to some embodiments, a method includes placing a device under test (DUT) in a test chamber and applying a pulse-modulated RF wireless test signal to the DUT in the test chamber. The method further includes detecting an acoustic output of the DUT. In addition or as an alternative to applying the pulse-modulated test signal, the test signal strength may be at a level of 30 V/m or 90 V/m. If the DUT is a telephone, it may be coupled via a voice signal path to another telephone, and an output of the other telephone may also be detected.

Testing voice-based office equipment for immunity to interference from wireless devices

A belt shortening device for winding and unwinding a vehicle seat belt is disclosed. The device includes a spindle mounted in a frame and connected to a crank arm to facilitate winding. The spindle includes a longitudinally extending slot which communicates with a laterally extending entry opening. A seat belt, when folded, is insertable into the longitudinally extending slot via the laterally extending entry opening. Once the vehicle seat belt is positioned within the longitudinally extending slot, the crank arm is manipulated to, thereby, rotate the spindle to wind the belt therearound. The laterally extending entry opening is positioned substantially mid-way along the length of the longitudinally extending slot to prevent ejection and slippage of the belt during winding.

Belt shortening device

A method for operating a TEM cell to determine the characteristics of a radiation source in a circuit. The circuit is placed in the TEM cell such that the relative orientation of the circuit and the TEM cell is measurable. The TEM cell provides an output signal indicative of the energy radiated by the circuit when the circuit is operated in the TEM cell. The output signal of the TEM cell is measured for at least 6 different relative orientations of the circuit and the TEM cell. The electric and magnetic dipole moments of a radiation source having an orientation and physical dimension associated therewith are determined from the measured output signals. The electric and magnetic dipole moments determined from the measured output values are compared to moments predicted by each of a plurality of antenna types to provide an estimate of the orientation of the radiation source relative to the circuit. In addition, embodiments of the present invention may also measure the output signal of the TEM cell as a function of frequency for at least one of the different relative orientations. This information may be used to determine a physical dimension associated with the radiation source. In one embodiment of the present invention, the measured output signal is evaluated as a harmonic series. In another embodiment of the present invention, the output signal of the TEM cell at a predetermined frequency is measured as a function of time to determine the modulation of the output signal.

Apparatus and method for determining the source and strength of

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Naples, FL, United States of America

Stephen C Berger