A computer can execute instructions to: receive, power-receiving vehicle data identifying a power-receiving vehicle; identify one or more power-supplying vehicles for providing charging to the power-receiving vehicle; determine a rank for each of the identified one or more power-supplying vehicles based on the received power-receiving vehicle data and data received from the one or more power-supplying vehicles; upon selecting one of the one or more power-supplying vehicles, provide a navigation instruction to navigate at least one of the power-receiving vehicle and the selected power-supplying vehicle to a charging location based on a power-receiving vehicle location and a selected power-supplying vehicle location; and send access data to the power-receiving vehicle to access a charge port of the selected power-supplying vehicle; send a first light actuation instruction to the power-supplying vehicle based on a charging status; and send a second light actuation instruction to the power-receiving vehicle based on charging status.

A computer can execute instructions to: receive, power-receiving vehicle data identifying a power-receiving vehicle; identify one or more power-supplying vehicles for providing charging to the power-receiving vehicle; determine a rank for each of the identified one or more power-supplying vehicles based on the received power-receiving vehicle data and data received from the one or more power-supplying vehicles; upon selecting one of the one or more power-supplying vehicles, provide a navigation instruction to navigate at least one of the power-receiving vehicle and the selected power-supplying vehicle to a charging location based on a power-receiving vehicle location and a selected power-supplying vehicle location; and send access data to the power-receiving vehicle to access a charge port of the selected power-supplying vehicle; send a first light actuation instruction to the power-supplying vehicle based on a charging status; and send a second light actuation instruction to the power-receiving vehicle based on charging status.

Problem; To provide an evacuation guidance system which is capable of safely and reliably guiding evacuees in response to the outbreak and spread of a fire.

Solution; An evacuation guidance system is configured from multiple sensor modules 20, network lines 30, guidance indicators 40, and a guidance control device 50. Each sensor module includes multiple input/output port pairs, fire detection sensors, and a data control unit. The multiple input/output port pairs are connected to input/output port pairs of other sensor modules by means of network lines, thereby configuring a mesh-like autonomous network. The data control unit: generates and outputs fire data after adding fire location data; upon receiving fire data, outputs the fire data after adding its own route flag; and stops the output of fire data when the fire data contains its own route flag. Upon identifying the location of the fire outbreak from the fire data, the guidance control device calculates optimum evacuation routes and causes the guidance indicators to turn on/off or flash.

Selected drawing; FIG. 2

A chair capable of providing somatosensory vibration based on an external signal comprises a body, a plurality of vibrators and a vibration controller. The body comprises a framework and a plurality of mesh fabrics disposed on the framework. The vibrators are hung on the framework through at least two connectors and are arranged corresponding to one of the mesh fabrics. Each of the plurality of vibrators is provided with a vibration surface directly contacting one of the mesh fabrics. Each of the plurality of vibrators operates based on at least one vibration starting signal. The vibration controller is disposed on the body and is in data connection with the vibrators. The vibration controller generates at least one vibration starting signal based on a received external signal, and provides at least one vibration starting signal to each of the plurality of vibrators in a wired or wireless manner.

A chair capable of providing somatosensory vibration based on an external signal comprises a body, a plurality of vibrators and a vibration controller. The body comprises a framework and a plurality of mesh fabrics disposed on the framework. The vibrators are hung on the framework through at least two connectors and are arranged corresponding to one of the mesh fabrics. Each of the plurality of vibrators is provided with a vibration surface directly contacting one of the mesh fabrics. Each of the plurality of vibrators operates based on at least one vibration starting signal. The vibration controller is disposed on the body and is in data connection with the vibrators. The vibration controller generates at least one vibration starting signal based on a received external signal, and provides at least one vibration starting signal to each of the plurality of vibrators in a wired or wireless manner.

An energy detection warning device includes a housing. An electronic indication component is disposed within the housing. One or more sensors are disposed within the housing and are configured to detect an energized conductor present within a particular proximity of a location of the energy detection warning device, and detect a direction in which the energized conductor is located with respect to the location of the energy detection warning device. The direction is an approximate direction. The device also includes a microcontroller configured to: receive input from the one or more sensors, and actuate the electronic indication component, in response to receipt of the input, to indicate the direction in which the energized conductor is located with respect to the location of the energy detection warning device.

An energy detection warning device includes a housing. An electronic indication component is disposed within the housing. One or more sensors are disposed within the housing and are configured to detect an energized conductor present within a particular proximity of a location of the energy detection warning device, and detect a direction in which the energized conductor is located with respect to the location of the energy detection warning device. The direction is an approximate direction. The device also includes a microcontroller configured to: receive input from the one or more sensors, and actuate the electronic indication component, in response to receipt of the input, to indicate the direction in which the energized conductor is located with respect to the location of the energy detection warning device.

An indicator module includes first electrodes disposed on a first support surface, each of the first electrodes having a flexible portion having a sloped section forming an oblique angle with the first support surface, a second electrodes disposed on a second support surface spaced apart from the first support surface along a longitudinal direction, a set of conductors elongated substantially in the longitudinal direction, each of the first electrodes being electrically connected to the a respective one of the second electrodes via a respective one of the conductors, and an indicator circuit, such as a set of LEDs, electrically connected to one or more of the conductors and adapted to generate a human perceptible signal when the indicator circuit receives electrical power from the one or more of the conductors.

An indicator module includes first electrodes disposed on a first support surface, each of the first electrodes having a flexible portion having a sloped section forming an oblique angle with the first support surface, a second electrodes disposed on a second support surface spaced apart from the first support surface along a longitudinal direction, a set of conductors elongated substantially in the longitudinal direction, each of the first electrodes being electrically connected to the a respective one of the second electrodes via a respective one of the conductors, and an indicator circuit, such as a set of LEDs, electrically connected to one or more of the conductors and adapted to generate a human perceptible signal when the indicator circuit receives electrical power from the one or more of the conductors.

Systems and methods for improved operations of ski lifts increase skier safety at on-boarding and off-boarding locations by providing an always-on, always-alert system that “watches” these locations, identifies developing problem situations, and initiates mitigation actions. One or more video cameras feed live video to a video processing module. The video processing module feeds resulting sequences of images to an artificial intelligence (AI) engine. The AI engine makes an inference regarding existence of a potential problem situation based on the sequence of images. This inference is fed to an inference processing module, which determines if the inference processing module should send an alert or interact with the lift motor controller to slow or stop the lift.