Abstract: Described herein are systems and methods for providing interaction with a terminal. For example, various embodiments take the form of validators, validator components, components for interaction with validators, and software/methods for the operation of such validators and components. One embodiment provides a networked validator having functionality to display information via a LCD equipped bezel, interact with varied forms of token via a common input portal, and/or dispense printed tickets though an aperture inherently adapted to receive currency notes.

Abstract: Described herein are systems and methods for providing interaction with a terminal. In overview, a validator for a terminal (such as a gaming machine or the like) includes a central processing unit, and a memory module coupled to the central processing unit, the memory module configured for maintaining software instructions that are executable via the central processing unit, and for maintaining diagnostic information concerning the validator. A primary communications port coupled to the central processing unit allows interaction between the validator and the terminal. A secondary communications port for allows communications between the validator and a handheld remote device, such that diagnostic information regarding the validator is able to be displayed via the handheld remote device. The handheld device executes corresponding software instructions to facilitate interaction with the validator.

Abstract: Described herein are systems and methods for processing audio data. For example, one embodiment provides a device configured to receive an audio signal, and process that audio signal based on a frequency mapping protocol, thereby to provide a modified audio signal. The resulting modified signal is audibly communicated to a user. In overview, the frequency mapping protocol allows components of an audio signal that within specified frequency ranges to be mapped to other frequency ranges, attenuated, or in some cases blocked altogether. The user is also able, at least in some embodiments, to use the same device to perform testing of their hearing. In some embodiments the frequency mapping protocol is modifiable by a user, for example by way of a software application running on a PC or other computational platform. This allows a significant degree of flexibility in terms of the device's operation; a user is effectively able to customize the device for his/her specific hearing requirements.

Abstract: Described herein are systems and methods for providing interaction with a terminal. For example, various embodiments take the form of validators, validator components, components for interaction with validators, and software/methods for the operation of such validators and components. One embodiment provides a networked validator having functionality to display information via a LCD equipped bezel, interact with varied forms of token via a common input portal, and/or dispense printed tickets though an aperture inherently adapted to receive currency notes.

Abstract: The apparatus has a sensor disposed on the first end of an elongate connector by means of fixed interface link. A recorder unit is disposed on the second end of the connector opposite the first end. The connector is bendable within a predefined curvature range. When the apparatus is deployed into the sea, it is adapted to free-fall through the body of water and to land on the seafloor such that the sensor is spaced apart from the recorder unit. The apparatus is additionally adapted to substantially vibrationally de-couple the sensor from the recorder unit. The length of the connector is dynamically variable within a predefined range so as to minimise vibration coupling between the recorder unit to the sensor. Physical separation of the sensor and the recorder unit, together with the mechanical characteristics of the connector, ensure that the sensor is substantially vibrationally de-coupled from the recorder unit.

Abstract: Two (or more) components must be aligned to each other in the pitch, roll, and azimuth axes. One component is adjustable relative to the other non-adjustable component. The pitch and roll angles are measured with a high accuracy digital protractor. The readings are taken from fixed reference points on the non-adjustable and the adjustable components, and the position of the adjusting component is modified until the pitch and roll of the adjusting component matches the pitch and roll of the non-adjusting component. The azimuth angle is measured by using two line generating lasers, one that produces a visible azimuth axis on the non-adjustable component and the other which produces the visible azimuth axis on the adjustable component. The separation of the two lines is measured such that one measurement is in close proximity to the laser generators and the other is at a distance from the laser generators.