59 results about "Countdown timer" patented technology

An electromechanical Smart Lock is unlocked by the Smart Lock timely receiving a time sensitive access-code that solves a cryptographic hash algorithm (e.g., SHA-3 or the like) running on that Smart Lock. To enable this functionality, the Smart Lock knows at least three items of information: status of a countdown timer, its cryptographic hash algorithm, and its unique identifier. Further, the Smart Lock may have various elements for receiving the time sensitive access-code, such as, but not limited to, a QR code camera, a barcode scanner, a camera, a microphone, a keypad, and / or optionally, an antenna(s) / radio(s) for RFID / NFC inputs to the Smart Lock. Server(s) may also know the same three items of information for each given Smart Lock; and the Server(s) may provide time sensitive access-codes to (authorized) user(s) and / or to their devices. Users may request, receive, and / or send the time sensitive access-codes via text messaging (or other elements).

The application discloses a traffic signal lamp trigger type countdown control output method, comprising the following steps: S100, configuring signal lamp fixed time countdown time length and configuring current cycle phase information; S200, reading the cycle phase information of the traffic signal lamp at the current time node and the signal lamp fixed time countdown time length, and generating a running phase chain table; S300, judging whether the time before the non-traffic light color of the current lost traffic right phase meets the configured fixed time countdown time length; S400, if the configured fixed time countdown time length is met, triggering the corresponding countdown timer; if the configured fixed time countdown time length is not met, performing countdown correction and calculating the countdown extension time; and S500, repeating steps S200-S400. The application can generate a running phase chain table under the condition that traffic intersection parameters are pre-configured, pre-add, real-time update and calculate signal control data to achieve accurate control of the time when the trigger signal triggers the countdown timer, and realize the trigger type pulse control countdown algorithm.

The invention relates to a system and method for authenticating a user during a session using a device. In one example, a system for authenticating a user during a session using a device includes an input device configured to capture and transmit input data, a processor operatively connected with the input device, the processor including an authentication engine executable by the processor, the authentication engine configured to: receive input data from the input device, and transmit the input data to the input device; detecting the presence of a user in the input data, starting a countdown timer if the presence of the user is not detected, continuously detecting the presence of the user during the start-up of the countdown timer, ending the session if the presence of the user is not detected during the start-up of the countdown timer and the countdown reaches its end time, and; if the presence of the user is detected during the start-up of the countdown timer, the user is re-validated and the session is kept effective.

A system for controlling an aircraft is disclosed. The system may include a display configured for touchscreen interaction by a user and a controller communicatively coupled to the display. The controller may be configured to display a graphical user interface (GUI) and may include one or more processors configured to execute a set of program instructions. These instructions may be configured to cause the processors to display the GUI with a selectable graphical element representing a control function, detect a touch input on the selectable graphical element, display a sliding timer graphically integrated with the selectable graphical element indicating an elapsed time of the touch input relative to a predetermined activation threshold, and activate the control function when the elapsed time meets or exceeds the predetermined activation threshold.

The utility model discloses a countdown timer which comprises a digital display panel and a control circuit board, the digital display panel comprises a digital driving circuit and a digital segment code, and the digital driving circuit is driven by the control circuit board to be in communication connection with the digital segment code. And the digital driving circuit comprises an MOS (Metal Oxide Semiconductor) tube for controlling the color of the digital segment code and a first singlechip for controlling countdown display of the digital segment code. According to the countdown timer of the utility model, the single-chip microcomputer and the drive circuit can be integrated on the digital display panel of the countdown timer, and a part of functions of the control circuit board can be shared by utilizing the relatively abundant space of the digital display panel, so that the size of the control circuit board is smaller.

An information handling system operating an On the Box (OTB) Artificial Intelligence (AI) productivity tool may comprise a first solid state data storage device for storing a machine learning model, and a hardware processor for executing code instructions of a software application and of a machine learning model access coordination module to receive a request for the software application to access the machine learning model, store the machine learning model in a second random access memory (RAM) data storage device, direct the software application to provide input into the machine learning model, detect a period of time exceeding a machine learning model unloading countdown timer has elapsed since the software application has last provided input values into the machine learning model, and remove the machine learning model from RAM to decrease hardware component resource consumption at the information handling system when the machine learning model is unused.

Processes and systems for operating an aircraft having a first engine and a second engine, a non-transitory computer readable media comprising computer executable instructions that when executed cause a processor to execute the steps of the present processes. A plurality of taxiways are determined and zones for changing to or from single engine taxing operations are also determined and displayed. Additionally, countdown timers for takeoff or engine shutdown may be displayed.

Examples include a communication device including a user interface (UI), a first electronic processor configured to detect and process UI input events, and a second electronic processor communicatively connected to the first electronic processor and configured to detect and process UI input events. The first electronic processor executes an application having a user inactivity timeout feature by initializing a countdown timer for a first time period, and, in response to expiration of the countdown timer, determining a user inactivity time for the communication device. The user inactivity time is a lesser of a time since a UI input event was last detected by the first electronic processor and a time since a UI input event was last detected by the second electronic processor. In response to the user inactivity time being greater than or equal to the first time period, the first electronic processor performs an application timeout function.

Methods for an augmented-reality system for enabling rapid selection of a virtual feature with limited user interaction includes establishing a data connection between a head-mounted display device (“HMD”) and a network, and the HMD generating and displaying a virtual selectable feature based on detection of an item or characteristic appearing in a view of the real-world environment, as well as obtaining first information from a HMD sensor indicating a particular user interaction with the HMD, such as the user gazing at the feature for potential selection. The HMD then displays a countdown timer that operates over a predetermined time interval. If the HMD determines that the user interaction is continuous for that time interval; it transmits a request signal to a computer server offering content associated with the selected virtual feature; and displays virtual content, and / or executes a software program based on the received content from the computer server.

1. The name of the design product: countdown timer (three-in-one visualization). 2. The use of the design product: for timing. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view 1.

A power tool including an implement driven by a motor; an inertial measurement unit; and a control circuitry in communication with the motor and IMU, wherein the control circuitry: receives motor data associated with a condition of the motor; determines angular change of the power tool from motion data received from the IMU or receives angular change data from the IMU; initiates a countdown timer in response to the condition of the motor reaching a threshold; and generates a control instruction to maintain power to the motor upon the countdown timer reaching a prescribed value if the angular change is greater than an angular change threshold at any time during a duration of the countdown timer and reduce power to the motor upon the countdown timer reaching the prescribed value if the angular change is less than the angular change threshold during an entire duration of the countdown timer.

Methods of autonomous repeat request enhancement are provided. The method includes: determining whether a value of a countdown timer is less than a threshold; and in response to the value of the countdown timer being less than the threshold, performing a retransmission for a protocol data unit (PDU) if the PDU has not been acknowledged in a status report. Another method includes: determining whether a value of a countdown timer is less than a threshold; in response to the value of the countdown timer being less than the threshold, including a poll in a PDU; and transmitting the PDU. The other method includes: determining whether a value of a countdown timer is greater or equal to a threshold; and in response to the value of the countdown timer being less than the threshold, stopping performing a retransmission for a PDU if receiving a negative acknowledgement for the PDU.

Systems, methods, and software are disclosed herein for monitoring network data service from a non-terrestrial cell in various implementations. In one example, a computing apparatus receives a service information block from a non-terrestrial cell hosting a current session of network data service to the computing apparatus. The computing apparatus processes a service time parameter of the service information block to determine a time remaining of the current session of the network data service. The computing apparatus then enables display, in a user interface of the computing apparatus, of a countdown timer based on the time remaining of the current session.

This application provides a method, apparatus, electronic device, and computer-readable medium for displaying the countdown timer. The method includes: receiving a countdown duration dynamic setting instruction for the timer; displaying a dynamic pattern representing the countdown duration in a countdown display area of ​​the timer according to the countdown duration dynamic setting instruction; receiving a countdown start instruction for the timer; and displaying a dynamic pattern representing the remaining countdown duration in the countdown display area according to the countdown start instruction. This solution, by displaying a dynamic pattern in the countdown display area of ​​the timer to represent countdown information, can clearly and accurately display the countdown information of the timer, thereby effectively improving the user experience of the timer.

Technology is disclosed for controlling reads in a memory device supporting different types of reads having different performance times (e.g., a relatively fast read such as a globally-referenced read and a slower read such as a self-referenced read). The data out latencies of the different read types may be different to accommodate the different performance times. The memory controller may mix the different types of reads. The memory controller tracks expected usage of the data bus and schedules read commands accordingly to avoid data collisions. A countdown timer may be used to track the earliest clock cycle at which the memory device may return data for a new read command to be issued. The memory controller may record what clock cycles the data bus is projected to be occupied with data and schedule read commands based on the projected data bus occupancy to avoid data collisions.

A computer-implemented augmented reality-based method provides a user device access to data content items by generating instructions to augment a display of the user device with selectable image features, wherein selection of one selectable image features enables access to an associated available data content item subject to a fee payment. The method includes generating instructions to enable selection by a user a selectable image features by a selection confirmation activity; further augmenting the display to provide a countdown timer icon upon and during the user device's detection and tracking of the selection confirmation activity by the user; upon the user device's detection and tracking of the user selection activity for the predetermined countdown duration time, and transmitting a transaction authorization signal to a content provider offering the associated data content item without concurrently requiring payment for the transaction, when a total cost is less than a predetermined maximum amount.

1. Name of the Design Product: Countdown Timer. 2. Use of the Design Product: For the countdown on or off of electrical appliances. 3. Design Key Points of the Design Product: Lies in the shape. 4. Picture or Photograph that Best Illustrates the Design Key Points: Stereogram.

An endoscope management device including: a display, an ID reader, a processor comprising hardware, a countdown-timer, and a communication interface for wirelessly connecting the processor to an external communication network. Wherein the processor is configured to: detect an endoscope ID code of a freshly pre-cleaned endoscope by the ID reader; start the countdown-timer which outputs a remaining time until a predetermined time interval ends or until a predetermined target time is reached, display current endoscope information on the display, and make the current endoscope information available in the communication network by the communication interface. Wherein the current endoscope information including: one or more of a name and a serial number associated with the detected endoscope ID code, and the current remaining time as output by the countdown-timer.

The utility model discloses a traffic signal lamp fault detection device, which is characterized by comprising a wiring unit used for being connected with a traffic signal machine cabinet; wherein the traffic signal machine cabinet comprises a traffic signal lamp with a countdown timer; the data acquisition unit is connected with the wiring unit and is used for acquiring voltage and power data of the traffic signal lamp; the analysis processing unit is connected with the data acquisition unit and is used for analyzing the acquired data to obtain on-off states and fault types of the traffic lights and the countdown timer; the positioning unit is connected with the analysis processing unit and is used for positioning the detection equipment; the communication unit is connected with the analysis processing unit and is used for connecting the detection equipment with external equipment in a communication manner; and the power supply unit is connected with the analysis processing unit and used for providing electric energy for the detection equipment.

The invention provides a method, a system and a device for remotely configuring a road traffic signal countdown timer. According to the embodiment, in the configuration process of the road traffic signal countdown timer, the overall configuration of the road traffic signal countdown timer can be automatically achieved only by remotely setting the signal machine, extra use of a high vehicle, on-pole debugging and road blocking are not needed, maintenance personnel do not need to go to the site for checking, and the debugging and maintenance cost is reduced.

Systems, methods, and software are disclosed herein for monitoring network data service from a non-terrestrial cell in various implementations. In one example, a computing apparatus (110) receives a service information block from a non-terrestrial cell (121) hosting a current session of network data service to the computing apparatus. The computing apparatus processes a service time parameter of the service information block to determine a time remaining of the current session of the network data service. The computing apparatus then enables display, in a user interface (1 15) of the computing apparatus, of a countdown timer based on the time remaining of the current session.

The application relates to the field of internet medical treatment and digital health management, and discloses an internet KAP (knowledge, attitude and practice) health management and follow-up system for epilepsy patients, which comprises a user terminal, a wearable device, a communication gateway and a cloud server. The wearable device calculates a sign energy integral and broadcasts a characteristic inversion signal when the integral exceeds a threshold value; the user terminal activates an abnormality confirmation state machine and a false alarm prevention countdown timer after receiving the signal; the communication gateway detects an uplink bandwidth after confirming the abnormality; when the bandwidth is lower than a transmission lower threshold value, an alarm parameter is serialized and packed into a byte characteristic string and is mapped to a bottom layer control channel for transmission; the cloud server analyzes data and calculates an emergency response priority index, and then executes corresponding hierarchical scheduling instructions. The application avoids the problem that a regular data channel transmission is blocked in a weak network environment, realizes a closed loop of local false alarm prevention interception, network adaptive transmission and cloud dynamic scheduling, and improves the reliability of emergency alarm and the accuracy of rescue.

1. The name of the design product: countdown timer. 2. The use of the design product: for countdown. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view. 5. The bottom surface of the design product is the part that is not easy to see or cannot be seen during use, and the top view is omitted.

A method for presenting video content includes receiving and presenting primary video content, receiving a supplemental video content pod, presenting non-skippable videos with a countdown timer, and then presenting skippable videos with a skip control. Another method for providing a supplemental video content pod includes providing the pod to a client device, which then presents non-skippable videos with a countdown timer and skippable videos with a skip control upon reaching a break marker. A system comprises processors and memory to provide a supplemental video content pod to a client device, causing it to present non-skippable and skippable videos with respective controls.

Systems and techniques may generally be used for provisioning local storage data object containers. A public-facing interface may receive a satisfaction identifier for a data object axiom instrument and may acquire user consent acknowledging ephemeral disclosure of recovery credentials to initiate a satisfaction workflow. A service layer may validate the identifier against a satisfaction ledger and may orchestrate the workflow by issuing a satisfy command to another service layer. The service layer, isolated from public ingress, may generate container key material defining a destination address and may construct and sign a transfer to the address. A network broadcast interface may submit the transfer to a blockchain network. An ephemeral disclosure module may present the recovery credentials in a disclosure viewport with a countdown timer. Upon expiry, the credentials may be zeroized and subsequent disclosure may be prevented, enforcing a policy of no server-side persistence.

The present invention relates to a system and method for authenticating a user using a device during a session. In one example the system for authenticating a user using a device during a session including: an input device configured to capture and transmit input data, a processor operatively coupled to the input device, the processor including an authentication engine executable by the processor, the authentication engine configured to: receive input data from the input device, detect a user's presence in the input data, start a countdown timer if no user presence is detected, continuously detect a user's presence during the countdown timer, end the session if a user's presence is not detected during the countdown timer and the timer reaches its end, and; re-authenticate a user and keep the session active if a user's presence is detected during the countdown timer.

A practice aid for dribbling a basketball is disclosed that includes a flat panel and at least one target sensor, an accelerometer, a controller and a display wherein the target sensor detected that impact of a ball on a target and sends a signal to a controller, a accelerometer that detects all impacts of balls on the panel and sends a signal to the controller. and the controller sends a signal to the display that tracks the number of hits of the target and the number of attempts, and displays a score, and the controller also sends a signals to activate and deactivate the target sensor, and accelerometer, and the controller further controls a countdown timer on the display.

This utility model discloses an encapsulation structure for surface-mount thermistors, including a worktable. A curing component is disposed on the right side of the upper surface of the worktable, and a moving component is disposed between the worktable and the placement plate. By controlling a first servo motor to drive a first external threaded rod to reverse, the first external threaded rod can move multiple encapsulated thermistor blocks to the right through a moving seat, a supporting base plate, and a placement plate to the underside of a far-infrared electric heater for heating and curing. During this process, when the preset heating time is up, a countdown timer will sound an alarm to alert nearby personnel, allowing them to stop the far-infrared electric heater in time to prevent the thermistor blocks from being heated for too long. After heating and curing is completed, the first servo motor is controlled to drive the first external threaded rod to reverse again, allowing multiple thermistor blocks to be moved to the right from inside the protective cover, facilitating the transfer of multiple thermistor blocks by personnel. The operation is convenient.

1. The name of the design product: countdown timer (006). 2. The use of the design product: for countdown timer. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

1. Name of the Design Product: Timing Reminder 2. Use of the Design Product: For positive timing and setting the time for a countdown timer and reminder 3. Design Key Points of the Design Product: Lies in the shape 4. Picture or Photo Most Indicating the Design Key Points: Perspective View 1