Abstract: A method synchronizes headset output signals of an extended reality headset having a headset receiver, wherein the extended reality headset is worn by a user when the user is operating a piece of exercise equipment having an exercise transmitter to transmit an exercise output signal. A motion sensing detector detects motion of the user, wherein the motion sensing detector includes a motion transmitter to transmit a motion signal. The method begins with receiving the exercise output signal from the exercise transmitter using the headset receiver. The motion signal is then received from the motion transmitter using the headset receiver. The headset output signals are then synchronized as they are emitted by the extended reality headset to match the exercise output and motion signals such that the user can sense the headset output signals congruently with what the user can feel when exercising on the piece of exercise equipment.

Abstract: A method calibrates an extended reality headset to be worn by a user for use with a piece of exercise equipment having at least one exercise device. The method includes the step of inputting data identifying physical parameters of the at least one exercise device. An operation space is then identified about the at least one exercise device for the user to occupy while using the piece of exercise equipment. A digital control space is then presented with control inputs allowing the user to control the piece of exercise equipment and/or to control the digital rendering of the extended reality environment. A digital rendition of the piece of exercise equipment and the at least one exercise device is rendered in the view of the user wearing the extended reality headset while operating the piece of exercise equipment.

Abstract: A method controls a piece of exercise equipment when a user of the exercise equipment is using a virtual reality headset. The method begins by receiving sensor inputs detecting a position of the user with respect to the exercise equipment. An operational zone of the exercise equipment is then determined. It is then identified when the user is moving toward a warning area within the operational zone of the exercise equipment. The method then sends signals to the virtual reality headset. Based on the signals, the virtual reality headset creates audible and visual outputs to instruct the user to move back fully into the operational zone of the exercise equipment.

Abstract: A suspension band assembly to be used to support a hard hat on a head of a user. The suspension band assembly includes a primary support loop to receive the head of the user therein. An electronic peripheral is fixedly secured to the primary support loop. An attachment strap extends out from the primary support loop to a strap distal end. An anchor is fixedly secured to the strap distal end for securing the attachment strap to the hard hat. An electrical anchor contact is fixedly secured to the anchor to provide an electrical connection between the hard hat and the electronic peripheral located on the primary support loop.

Abstract: A method for alerting a user of a first portable communications assembly that another user of a second portable communications assembly is within a predetermined distance includes the step of receiving a distance signal transmitted by the transmitter in the second portable communications assembly. A distance between the first and second portable communications assemblies based on the distance signal is calculated based on the strength of the distance signal or based on a time stamp embedded in the distance signal. An alert is emitted when the distance calculated between the first and second portable communications assemblies is less than the predetermined distance.

Abstract: A conversion assembly is secured to a hard hat having a protective dome cover defining a peripheral rim, and a visor. The conversion assembly includes a compartment and a plurality of electronic circuits housed within the compartment. A mechanical connector removably secures the compartment to the protective dome cover of the hard hat.

Abstract: A method for alerting a user of a first portable communications assembly that another user of a second portable communications assembly is within a predetermined distance includes the step of receiving a distance signal transmitted by the transmitter in the second portable communications assembly. A distance between the first and second portable communications assemblies based on the distance signal is calculated based on the strength of the distance signal or based on a time stamp embedded in the distance signal. An alert is emitted when the distance calculated between the first and second portable communications assemblies is less than the predetermined distance.

Abstract: A wearable communications assembly is worn by a user and includes a wearable device adapted to be worn by an individual in a defined area. A contextual sensor such as an environmental sensor is affixed to the wearable device in a manner such that the contextual sensor senses a condition of the defined area. The contextual sensor creates a contextual signal. The wearable communications assembly also includes a storage device electrically connected to the contextual sensor for receiving and storing the contextual signal such for download when the wearable communications assembly is in communication with system apart from the wearable communications assembly. The communication between the wearable communications assembly and the system apart therefrom may be wireless and/or wired.

Abstract: A suspension band assembly to be used to support a hard hat on a head of a user. The suspension band assembly includes a primary support loop to receive the head of the user therein. An electronic peripheral is fixedly secured to the primary support loop. An attachment strap extends out from the primary support loop to a strap distal end. An anchor is fixedly secured to the strap distal end for securing the attachment strap to the hard hat. An electrical anchor contact is fixedly secured to the anchor to provide an electrical connection between the hard hat and the electronic peripheral located on the primary support loop.

Abstract: A suspension band assembly to be used to support a hard hat on a head of a user. The suspension band assembly includes a primary support loop to receive the head of the user therein. An electronic peripheral is fixedly secured to the primary support loop. An attachment strap extends out from the primary support loop to a strap distal end. An anchor is fixedly secured to the strap distal end for securing the attachment strap to the hard hat. An electrical anchor contact is fixedly secured to the anchor to provide an electrical connection between the hard hat and the electronic peripheral located on the primary support loop.

Abstract: A conversion assembly is secured to a hard hat having a protective dome cover and a visor. The conversion assembly includes a plurality of compartment housings operatively secured together. A plurality of electronic circuits is housed within the plurality of compartment housings. A mechanical connector removably secures the conversion assembly to the hard hat when functions performed by the plurality of electronic circuits are required for a person wearing the hard hat. The invention provides enhanced functionality to an already existing hard hat, helmet or other protective head gear.

Abstract: A hard hat assembly is designed to be worn on a head of a user. The hard hat assembly includes a helmet shaped to cover an upper portion of the head of the user. The helmet defines a primary opening to receive the head therein. The helmet also defines a periphery about the primary opening. A brim extends outwardly from the helmet adjacent the periphery to a brim outer edge. A brim panel is removably securable to the brim and, along with the brim, creates one or more compartments between the brim and the brim panel. An electrical circuit is fixedly secured within the compartments.

Abstract: A geo-localization device and methodology use a plurality of wireless localization technologies, predictive methods and filtering to deliver accurate and reliable 3-dimensional positioning data for static and moving objects both outdoor and indoor.

Abstract: A wearable communications assembly is worn by a user and includes a wearable device adapted to be worn by an individual in a defined area. A contextual sensor such as an environmental sensor is affixed to the wearable device in a manner such that the contextual sensor senses a condition of the defined area. The contextual sensor creates a contextual signal. The wearable communications assembly also includes a storage device electrically connected to the contextual sensor for receiving and storing the contextual signal such for download when the wearable communications assembly is in communication with system apart from the wearable communications assembly. The communication between the wearable communications assembly and the system apart therefrom may be wireless and/or wired.

Abstract: A geo-localization device and methodology use a plurality of wireless localization technologies, predictive methods and filtering to deliver accurate and reliable 3-dimensional positioning data for static and moving objects both outdoor and indoor.

Abstract: Accessory device and method to identify the position of humans or objects and detect their relative proximity in industrial environments.

Abstract: A geo-localization device and methodology use a plurality of wireless localization technologies, predictive methods and filtering to deliver accurate and reliable 3-dimensional positioning data for static and moving objects both outdoor and indoor.

Abstract: A method calibrates a sensor for a defined parameter using a calibration station adapted to receive the sensor while it is secured to a wearable device. The calibration station includes a device to close the space surrounding the sensor to control the space. A quantity of an element being measured/calibrated is injected into the space. The quantity of the element is then measured by the sensor. A measured signal is transmitted to the calibration station. The measured signal is compared to a predetermined level. The method identifies when the measured signal differs from the predetermined level by a threshold amount and indicates or adjusts the sensor, depending on the application.

Abstract: A biometric sensor assembly measures biometric data of a wearer of a hardhat. The biometric sensor assembly includes a suspension harness to be removably secured to the hardhat. A biometric sensor is attached to the suspension harness in a way that allows direct or indirect contact with the wearer to enable measurement of the biometric data. The biometric sensor assembly also includes an electrical connection of the biometric sensor and the hardhat for data and power transmission.