A school security assembly for preserving security of a public building includes a drop box that is positionable adjacent to an entrance of a public building for receiving an object to be delivered to a recipient inside the public building. A communication unit is positioned adjacent to the drop box and the communication unit is in communication with the person when the person approaches the drop box. The communication unit is in communication with a surveillance station in the public building to facilitate the person to communicate with an authorized representative in the public building.

A notification control device includes: a sound notification controller sending a first notification control signal for causing a first device to provide a first notification, obtaining first response information to the first notification, and determining whether the first response information is in response to notification information; an image notification controller sending a second notification control signal for causing a second device to provide a second notification, obtaining second response information to the second notification, and determining whether the second response information is in response to the notification information; and a canceller sending a cancellation process signal for cancelling (a) the second notification when the sound notification controller determines that the first response information is in response to the notification information and (b) the first notification when the image notification controller determines that the second response information is in response to the notification information.

This application describes systems and methods for locating, securing, accessing and utilizing a discrete enclosure or workspace. The discrete enclosure or workspace may be located in a public, private or semi-private setting and may comprise a combination of working platforms or surfaces, seats, desks and other apparatus, as well as computer hardware and software. Systems may comprise natural language processing, artificial intelligence, machine learning and other adaptive learning capabilities to enhance the use of the discrete workspace. The workspace may be dimensioned to be used for a wide variety of activities by one or more users.

Provided is a multifunctional radio. A waveband lens, a volume knob, a frequency modulation knob, a switching key and an SOS key are arranged on an outer panel surface of a front shell. A hand rocker, a reading lamp and an antenna are arranged on a rear shell. A first placing groove and a second placing groove are respectively formed at the top and the bottom of the rear shell. A first power output module is arranged in the first placing groove. A second power output and input module is arranged in the second placing groove. A lighting lamp module, a lighting switch key and a reading lamp module are arranged on a radio shell.

In one aspect, a computerized method for implementing voice and acupressure-based lifestyle management includes the step of measuring a speed at which a user is speaking. A wearable device records the user's voice with a microphone and communicates a digital recording of the user's voice to a computer processor. The method includes the step of measuring a time spacing between a set of user's words and a length of the set of user's words. The method includes the step of determining at least one anomaly by comparing the digital recording of the user's voice with a benchmark recording of the user's voice. The method includes the step of alerting the user of the detected anomaly.

A school security assembly for preserving security of a public building includes a drop box that is positionable adjacent to an entrance of a public building for receiving an object to be delivered to a recipient inside the public building. A communication unit is positioned adjacent to the drop box and the communication unit is in communication with the person when the person approaches the drop box. The communication unit is in communication with a surveillance station in the public building to facilitate the person to communicate with an authorized representative in the public building.

In one aspect, a computerized method for implementing voice and acupressure-based lifestyle management includes the step of measuring a speed at which a user is speaking. A wearable device records the user's voice with a microphone and communicates a digital recording of the user's voice to a computer processor. The method includes the step of measuring a time spacing between a set of user's words and a length of the set of user's words. The method includes the step of determining at least one anomaly by comparing the digital recording of the user's voice with a benchmark recording of the user's voice. The method includes the step of alerting the user of the detected anomaly.

Provided is technology to reduce interlayer noise occurring in a multi-story house such as an apartment, and more particularly, an environmental and contextual custom-built artificial intelligence (AI) based, interlayer noise abatement apparatus that defines a standard of interlayer noise based on a user environment or a user-specified context, allows an interlayer noise maker to recognize when the noise exceeding the above standard occurs and allows the interlayer noise maker to voluntarily reduce the interlayer noise, and a method of the same.

An emergency care device is provided. The emergency care device includes a device housing, a processing unit, a temperature sensor, at least one touch sensor, and a signal transmitting unit. The processing unit is disposed in the device housing. The temperature sensor is coupled to the processing unit, wherein the temperature sensor is adapted to send a temperature sensing signal to the processing unit. The touch sensor is coupled to the processing unit, wherein the touch sensor is adapted to send a touch sensing signal to the processing unit. The signal transmitting unit is coupled to the processing unit, wherein the processing unit controls the signal transmitting unit to send an emergency signal according to the temperature sensing signal and the touch sensing signal.

A smart doorbell system includes a doorbell switch, an input device, a chime circuit, and a ring circuit. A chime circuit includes a power connection terminal and a first rectifier circuit and a second rectifier circuit coupled to the power connection terminal and connected in parallel. The power connection terminal receives an alternating current including a first direction current and a second direction current that alternate. The input device is coupled to the chime circuit and generates a control signal. The control signal controls one of the first and second direction currents to pass through a corresponding one of the first and second rectifier circuits. The doorbell switch is coupled to the chime circuit and the ring circuit. A trigger signal is generated through the other one of the first and second direction currents when the doorbell switch is pressed, such that the ring circuit produces a ringing sound.