36 results about "Smartphone application" patented technology

A wireless network, systems and methods, wherein each passenger-carrying rideable vehicle deployed in the system includes: a modular construction consisting of a lightweight body driven by an electric-battery driven motor, and specially adapted for receiving a customizable ornamental body having the appearance and personality of a particular or an inanimate object; motorized and / or animated elements disposed beneath the animal character skin covering for enabling animal behaviors and / or expressions that promote a fun and entertaining ride experience; an audio-transducers mounted within the animal character body for playing music from smartphone applications and animated animal character body portions to provide a sense of realism and excitement as the electric entertainment vehicle is ridden through an amusement facility.

An ultra-miniaturized wireless-controlled patch-type drug pump and a production method thereof, in the field of biomedical engineering device technology, are disclosed. The pump utilizes near-field communication (NFC) technology commonly found in smartphones to power the circuit. It injects drug into patients' bodies via volume alteration of a thermal expansion material and a gas generated by an electrolytic electrode, attaining pre-meal bolus and basal rate drug infusion. The drug pump has a relatively simple structure, a small size, and no need for an internal power supply, thereby alleviating at least some of the burden on patients and enhancing the comfort and convenience of wearing the pump. Meanwhile, it can be controlled through a smartphone application, simplifying the operation(s) of the pump and providing users with a precise and convenient drug injection approach.

Aspects of the subject disclosure may include, for example, instantiating a virtual smartphone in a cloud infrastructure, installing a smartphone application on the virtual smartphone, receiving input sensor data from a physical user device, providing the input sensor data to the smartphone application on the virtual smartphone, receiving output data from the smartphone application on the virtual smartphone, and providing the output data to the physical user device. Other embodiments are disclosed.

A rapid diagnostic device for detecting multiple biomarkers in bodily fluid samples, particularly useful for disease screening including breast cancer. The device comprises a housing containing at least one test strip with a sample receiving zone, conjugate pad, and multiple test zones. The test strip utilizes specific materials including Cytiva GF / DVA and Ahlstrom 1667 sample pads, an Ahlstrom 6613 conjugate pad with carboxylated 150 nm gold nanoshell conjugates, and a Sartorius CN140 membrane with precisely positioned test and control zones. The device simultaneously detects multiple biomarkers, such as hCG and CA-15-3, using specific antibodies. Features include a built-in safety lancet, integrated buffer system, and compatibility with various sample types. Results are available within ten minutes, with options for quantitative analysis via a dedicated reader or smartphone application. This multi-biomarker approach potentially improves screening accuracy compared to single-marker tests, offering versatility for detecting various medical conditions.

A wireless network, systems and methods, wherein each passenger-carrying rideable vehicle deployed in the system includes: a modular construction consisting of a lightweight body driven by an electric-battery driven motor, and specially adapted for receiving a customizable ornamental body having the appearance and personality of a particular or an inanimate object; motorized and / or animated elements disposed beneath the animal character skin covering for enabling animal behaviors and / or expressions that promote a fun and entertaining ride experience; an audio-transducers mounted within the animal character body for playing music from smartphone applications and animated animal character body portions to provide a sense of realism and excitement as the electric entertainment vehicle is ridden through an amusement facility.

The invention provides a monitoring system for transported cargo shipment, the vehicle and its operator to prevent cargo loss, wherein the system uses an operator's smartphone application that is activated by a vehicle wireless communicating device, and a cargo communicating device; wherein the smartphone, and these two devices maintain continuous wireless communication, wherein the smartphone application generates dynamic data about the vehicle and the continuous communication among with the two devices; and wherein the application sends the dynamic data to a computer server by means of the internet of things, wherein the continuous wireless communication when interrupted causes a digital switch in the communication devices and the smartphone to change a shared encrypted password to a new password in order to re-establish the communication, wherein if the communication is not re-established an alarm signal is generated by the smartphone application, and an anomaly is reported to the server.

The present invention relates to a keychain device designed to provide illumination and personalization. The device includes a body shaped as a vehicle silhouette and a plurality of LED lights powered by a button-cell battery. A microcontroller is operably connected to the LED lights and controls various lighting patterns and button press functions. The device includes a programmable display for displaying a customizable slogan, which can be altered to customize the keychain device. Bluetooth functionality allows users to customize both the slogan and LED light colors using a smartphone application. The device also includes a button for activating the LED lights, with different press functions for varying brightness or energy-saving modes. Additionally, the keychain body is coated with phosphorescent material to glow the device in the dark even when the LEDs are inactive.

A soundproof dog kennel includes a housing with noise-dampening walls and a noise-dampening door for dog ingress / egress. One or more walls has a ventilation assembly with noise-dampening baffles that permits inflow of breathable air with dampened sound waves when the door is closed, featuring hollow corridors, an air intake end, and an exhaust end. Fans force air through the sound-dampening ventilation ducts to reduce ambient noise while removing stale air. The kennel is equipped with cameras, carbon dioxide sensors, and other safety and monitoring devices. A smartphone application enables remote monitoring through live camera feeds, real-time sensor data display, and remote control of kennel functions. The system can automatically open the door if air quality or temperature reaches predetermined thresholds. This kennel protects dogs from noise pollution sources like fireworks, engines, and airplane auxiliary power units, providing a safe, quiet, and remotely monitored space for dogs.

A self-contained, wireless window system integrates lighting natively within the window frame, sash, or glazing bead while maintaining full architectural transparency. The window incorporates visibly transparent electricity- generating glass, such as transparent photovoltaic or luminescent solar concentrator glass, which harvests renewable energy during daylight hours. Harvested energy is stored in an internal energy storage element and used to power integrated lighting elements without external wiring or manual recharging. Window-native lighting may provide safety lighting, ambient lighting, tunable or multicolored illumination, and adaptive smart lighting functions. The system positions the window as a central platform for managing natural and artificial light, solar heat gain, glare, privacy, and security. Integrated power management coordinates energy harvesting, storage, and deployment to enable sustainable operation. Lighting and other applications may be controlled via local hardware, smartphone applications, cloud- based systems, or Al-driven adaptive control, delivering a curated interior lighting and comfort experience.

Methods and systems are disclosed for integrating wearable devices within an intelligent injection device platform. A device may include an intelligent injection device with wireless communication capabilities. A device may include a smartphone application configured to interface with the intelligent injection device. A device may include at least one wearable device. A device may include a server configured to receive administration data from the intelligent injection device and measurement data from the wearable device. A device may include an artificial intelligence module configured to analyze the measurement data and determine injection authorization based on a predetermined health parameter, wherein the smartphone application provides user interface control for an injection authorization process based on the artificial intelligence module analysis.

A system is provided.SOLUTION: A system comprising: means for inputting a medical examination result and prescription information by an individual through a smartphone application, the means including a database that centrally manages diagnosis result information in various medical facilities for each individual, and enabling a doctor to electronically refer to a past diagnosis result at the time of a first medical examination in a new medical facility without orally confirming the past diagnosis result; SELECTED DRAWING: Figure 1

1. The name of the design product: car-mounted Android box (R6). 2. The use of the design product: used for connecting with the car information and entertainment system through wireless or wired mode, realizing seamless mapping and interaction of smartphone applications. The device can expand the original system function, support CarPlay, Android Auto, online video playing, navigation, voice assistant and other applications, and improve the experience of car entertainment and intelligent interaction. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

A flameless wick device that may comprise a housing and a configurable wireless communication module to connect to a smartphone application. The device may include a flameless wick mechanism configured to produce light without an open flame and a configurable control unit to. One or more sensors may be included, including at least one temperature sensor and at least one orientation sensor. A power source may be configured to provide power to the device components. The flameless wick mechanism may comprise a heating element made of at least one of ceramic, titanium, or tourmaline. An insulation component may surround the heating element to prevent burns. The control unit may be configured to implement at least one safety feature selected from the group consisting of auto shut-off, tip-over protection, and overheat protection. The power source may comprise a rechargeable battery and a charging pad integrated into the base of the device.

Disclosed subject matter identifies, characterizes, and mitigates previously unforeseen safety hazards that are likely to be encountered by autonomous conveyances—finding these hazards, assessing their potential safety impact, modifying the design to mitigate them should they occur, disseminating updated design programming to all units, including those under construction or those already in the field, and including those hazard mitigations of high severity that exceed the maximum capabilities of the controller as manufactured. These hazards can include rare, infrequent and unforeseen hazards by monitoring conveyances already in the field, gathering data from autonomous conveyances, such as those using a design being updated, and data obtained from those using other autonomous designs in the field. By obtaining data from non-autonomous conveyances, as supplied by their drivers and operators, reporting real-time via a smartphone application, categories of rare, infrequent or unforeseen hazards can be integrated into modified designs.

The invention discloses a method for visually detecting various phosphates, which comprises the following steps: firstly, synthesizing three MOF (Metal Organic Framework) nano-enzymes, namely PCN-222 (Fe), PCN-223 (Fe) and PCN-224 (Fe) with peroxidase-like activity, catalyzing a colorless substrate 3, 3 ', 5, 5'-tetramethyl benzidine (TMB) into oxTMB in a blue oxidation state by the three MOF nano-enzymes in the presence of H2O2, and generating remarkable colorimetric response; then, the five phosphates, namely ATP (adenosine triphosphate), ADP (adenosine diphosphate), AMP (adenosine monophosphate), PPi (pyrophosphoric acid) and Pi (inorganic phosphate), are simultaneously distinguished and detected by utilizing the principle that different phosphates have different regulation degrees on the peroxidase-like activity of the MOF nano-enzyme. In combination with a smartphone application program 'ColorMax', real-time visual analysis of phosphate is realized, and an efficient and convenient method is provided for distinguishing and detecting different phosphates.

The present invention is footwear designed to produce electric power based on the movement of a wearer of the footwear. The footwear includes a kinetic energy generator integrated into the heel of the footwear. A rotor is included in the kinetic energy generator and is adapted to spin in response to the movements of the footwear. A shaft is coupled to the rotor and is configured to perform reciprocal movements to spin the rotor and generate electricity. A charging port is disposed at the rear of the footwear and is configured to receive a power cord such as a USB cable for charging electronic devices. The kinetic energy generator is lightweight and compact and maintains the comfort and usability of the footwear while generating electrical power. The footwear is coupled to a smartphone application for displaying current location, heat map, and electric power generation information of the footwear.

Systems and methods for predictive vehicle navigation are provided. The systems and methods may be used to identify locations that currently include environmental conditions requested to be viewed by a user. Similarly, predictions of locations that are likely to include the environmental conditions in the future may also be identified (for example, if the user indicates they desire to view the environmental condition at some point in the future). Recommendations for locations may be presented to the user via a user interface of a vehicle (or a smartphone application or other type of device). In scenarios where the user desires to view the environmental condition in the future, the prediction may involve using a generative model to generate an image or video of a location at a future time. The user may then select a location and navigate to the location at the desired time to view the environmental condition. Alternatively, the vehicle may autonomously navigate to the location.

An access control system for electric vehicle charging is provided that includes an access device, a secure reservation interface, a reservation server and a smartphone application installed on the smartphone. The access device includes a short-range wireless communication module connected to a processor having control of an electric vehicle charger. The secure reservation interface receives a reservation request for a reservation at a given destination. The reservation server receives the reservation request for the destination, issues a reservation certificate, and transmits the reservation certificate from the reservation server to a smartphone. The smartphone application has access to a short range wireless communication setting corresponding to the access device. The access device receives the reservation certificate from the smartphone application based on use by the smartphone application of the short-range wireless communication setting. The processor activates the electric vehicle charger based on at least the receipt of the reservation certificate.

The invention discloses an APP for finding lawyers, relates to smartphone application and computer application, and is used for helping a user to find better lawyers. The lawyers are sorted by providing the complaint rate of the lawyers, the number of handled cases and the comprehensive scoring index, so that the user can conveniently find the lawyers with excellent abilities.

A helmet collision safety system is provided, designed to measure, analyze, and communicate impact forces experienced during sports activities to mitigate concussion risks. The system comprises an accelerometer, gyroscope, and at least one MEMS sensor strategically placed around a helmet to detect linear and rotational forces caused by impacts. A processor analyzes sensor data using an impact differentiation algorithm, classifying impacts into a three-tier severity system with corresponding visual and alert responses. The system integrates machine learning to refine impact assessments and utilizes wireless communication for real-time data transmission to a smartphone application, which manages alerts, logs impact history, and provides geo-tagging for incident tracking. Additional features include a rechargeable battery with USB-C and wireless charging options, customizable user profiles, and emergency contact integration to enhance safety and response efficiency.

A system is provided.SOLUTION: A smartphone application for supporting a daily life of a visually or aurally handicapped user, comprising: means for detecting an obstacle and a sign from a camera video; means for converting information on the detected obstacle and sign into a sound; means for recording an environmental sound and identifying a specific sound; and means for notifying the identified specific sound by vibration and character display.SELECTED DRAWING: Figure 1

The system according to this embodiment aims to integrate information from various data sources and predict crime patterns and dangerous areas with high accuracy. [Solution] The system according to the embodiment comprises a collection unit, an analysis unit, a provision unit, and a management unit. The collection unit collects data from security cameras, social media, police reports, etc. The analysis unit analyzes the data collected by the collection unit and predicts crime patterns and dangerous areas. The provision unit provides the analysis results obtained by the analysis unit through a smartphone application for citizens. The management unit provides the analysis results through a dashboard for city administrators.

A television remote locating system is provided. The system is comprised of a remote control integrated with a speaker configured to emit an audible locating tone upon receiving an activation signal. The remote control may further include a light-emitting indicator to provide additional or alternative visual assistance during low-light conditions, synchronized with the audible alert. The activation signal may be initiated through one or more input methods, including a manually operated button integrated into or affixed to a television housing, a voice command processed by a microphone and voice recognition module associated with the button, or a command issued through a graphical user interface presented on a smartphone application. The system enables users to initiate a locating alert, follow the audible and visual signals to retrieve the remote, and deactivate the alert through a repeat input via any compatible interface.

1. Name of the product in this design: Car Android Box (R7 Pro). 2. Purpose of this design: To connect to a car infotainment system wirelessly or via wired means to achieve seamless mapping and interaction with smartphone applications. This device can expand the functions of the original vehicle system, supporting a variety of applications such as CarPlay, Android Auto, online video playback, navigation, and voice assistant, thereby enhancing the in-vehicle entertainment and intelligent interaction experience. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

Systems and methods are provided for presenting secondary content. Particularly, the secondary content may be presented on a first device (such as a smartphone, for example) and may be based on primary content that is being presented to the user via a second device. For example, if a product is shown during a television show being presented to the user via a television, and the user desires to view additional information about the product, the user may interact with a smartphone application. Based on the interaction, the first device may being processing audio produced by the television. Embedded within the primary content may be a number of “tones” that include frequencies that are inaudible to humans. The first device may detect a tone and the tone may be decoded to obtain a timestamp associated with the primary content. This timestamp may then be used to determine which secondary content associated with that timestamp to present to the user on the first device.

Provided herein is an automated eye drop dispensing device that may feature an electromechanical actuation with closed-loop sensor control for precise medication delivery. The device may comprise a housing receiving a pump head assembly that threads directly onto standard eye drop bottles. An electromechanical actuator, coupled via a shuttle mechanism, may control pump chamber operation. A sensor system may monitor the dispensing tip to detect drop formation and release, enabling real-time closed-loop control that compensates for variations in medication properties and device orientation. The system may operate through a three-state sequence: detecting drop absence, formation, and release, automatically stopping upon successful dispensing. The device may include wireless communication for transmitting sensor-verified usage data to smartphone applications and healthcare systems. Additional features may include orientation sensors ensuring proper positioning, alignment aids with LED indicators, programmable dosing schedules, compatibility adapters for various bottle types, and integration with a companion mobile application.

An object of the system according to the embodiment is to allow a child-care household to efficiently record memories and create a moving image as desired.SOLUTION: A system according to an embodiment includes a high image quality camera, a face recognition AI, a smartphone application, and a generation AI. The high-image-quality camera is a fixed camera that captures the entire scene. The face recognition AI analyzes a video captured by a high-quality camera and automatically creates a moving image for each child. The smartphone application transmits contents of a moving image desired by the user. The generation AI edits the video on the basis of the desire transmitted by the smartphone application.SELECTED DRAWING: Figure 1

The present disclosure relates to an appearance-changing eyewear apparatus (100) comprising a spectacle frame (102) having at least one multi-colour electronic paper display (110) disposed on an outward-facing surface. The display (110) is operatively coupled to a control circuit (130) and a wireless communication module (120) that may include a near-field communication (NFC) interface (122) and / or a Bluetooth Low Energy (BLE) transceiver (124). The eyewear apparatus (100) enables a wearer to select and update the appearance of the frame (102), including up to about 4000 colours, patterns, graphics, textures, or textual messages. Selection and control are performed either via a mobile computing device (202), such as a smartphone application, which communicates wirelessly with the eyewear apparatus (100) or directly through NFC tags of garments or data inputs from the user.

A biomedical image analysis method for distinguishing melanoma from benign skin lesions in digital images of skin tissue. The method is based on color anomaly detection and provides a suitable metric for quantitatively assessing the probability that a skin lesion is melanoma. This method is not AI-based (AI faces challenges such as insufficient training data, poor interpretability, and high computational requirements), and it is independent of camera sensor specifications and lighting conditions during image capture. The method can also be integrated into a smartphone application for use by non-professional individuals, requiring minimal computational power.

A self-contained, wireless window system integrates lighting natively within the window frame, sash, or glazing bead while maintaining full architectural transparency. The window incorporates visibly transparent electricity-generating glass, such as transparent photovoltaic or luminescent solar concentrator glass, which harvests renewable energy during daylight hours. Harvested energy is stored in an internal energy storage element and used to power integrated lighting elements without external wiring or manual recharging. Window-native lighting may provide safety lighting, ambient lighting, tunable or multicolored illumination, and adaptive smart lighting functions. The system positions the window as a central platform for managing natural and artificial light, solar heat gain, glare, privacy, and security. Integrated power management coordinates energy harvesting, storage, and deployment to enable sustainable operation. Lighting and other applications may be controlled via local hardware, smartphone applications, cloud-based systems, or AI-driven adaptive control, delivering a curated interior lighting and comfort experience.