Amber Solutions, Inc.

Artema Labs, Inc

Other

Eyelock LLC

Intelesol, LLC

Amber Semiconductor, Inc.

Silicon Laboratories Inc.

Qualcomm Technologies, Inc.

Qualcomm Incorporated

Maxim Integrated Products, Inc.

Stephen Charles Gerber

Mark D Telefus

Bjorn Markus Jakobsson

Kenneth D Alton

Damon M Baker

Harry Rodriguez

Ronald Bonshaw Koo

Bradley S Larson

Ajay Kapur

Arkadii V Samoilov

Peter Mankowski

Wayne Thomas Holcombe

Richard Stacy Withers

Miroslav Svajda

David Johnson

Samuel Jeff Carter

Sarvesh Makthal

Christopher L Ream

Keir Finlow-Bates

Guy Stewart

Perry Raymond Cook

Ozan Ersan Erdogan

Craig Carroll Sullender

Jefferson Lim Gokingco

Chris Casey

Thar Casey

Ali Ekici

Syed Fawad Ahmad

Madhu Vijayan

Robert Gordon Farmer

Kenneth Rosen

Rebecca Anne Fiebrink

Bradley Larson

Systems and techniques for enabling the automation of blockchain processes within an NFT platform, through structures and techniques for generating and maintaining descriptors of content and users, are illustrated. One embodiment includes a method for selecting personalized token-directed actions. The method determines a tag including metadata associated with a token. The method determines a profile associated with a user, wherein the user is at least one of an owner of the token and a content creator associated with the token. The method performs a clustering based at least one of the tag and the profile, wherein the clustering includes a collection of tokens sorted according to at least one of shared categories of tokens and shared categories of token users. The method identifies an action corresponding to the token, based on the clustering, wherein the action governs future token access by the user. The method initiates the action.

Systems and methods for the facilitation of blockchains

Systems and techniques to facilitate transaction management in NFT-directed environments within an NFT platform are illustrated. One embodiment embeds an anchor into an application for utilizing tokens, wherein the anchor includes a verifier and an identifier unique to the application. The method verifies, using the verifier of the anchor, that a token is compatible with the application. The method imports the token into the application. The method associates the anchor with a lock, wherein the lock governs access to content of the token. The method identifies a completed transaction that changes access rights associated with the token, wherein the transaction is identified using at least one of information included in the anchor and information included in the lock. The method transmits, to a party to the transaction, a lock value, wherein the lock value, when detected by the lock, allows the party to access the token.

Systems and methods for transaction management in NFT-directed environments

Non-fungible evolution platforms in accordance with various embodiments of the invention are described. In an embodiment, an NFT evolution platform, includes: a network interface; memory; and a processor, the processor configured to: generate an NFT that includes several layers, where each layer includes content, provide access to a first set of layers of the several layers of the NFT, detect a trigger event, and provide access to a different second set of layers of the several layers of the NFT.

Methods for evolution of tokenized artwork, content evolution techniques, non-fungible token peeling, user-specific evolution spawning and peeling, and graphical user interface for complex token development and simulation

Devices can be configured to broadcast blocks incorporating artifact origination tokens. Devices can include network interfaces, memory; and processors. Processors can be configured to obtain artifact-to-time association elements. Artifact-to-time association elements can include artifact references and timestamps. Timestamps can include references to artifact references. Processors can be further configured to obtain artifact origination tokens. Artifact origination tokens can include artifact-to-time association element, certifier descriptors indicating certifier public keys, and/or certifier digital signatures. Certifier digital signatures can be generated based on certifier public keys and/or artifact-to-time association elements. Processors can be further configured to obtain ledger entries including artifact origination tokens with public keys, compute challenges based on ledger entries, and broadcast blocks incorporating the ledger entries. Blocks can be validated using cryptographic systems to obtain proof based challenges.

Artifact origination and content tokenization

Systems and methods for automated blockchain-based recommendation generation, advertising and promotion in accordance with various embodiments of the invention are described. A user device in accordance with an embodiment of the invention includes: a network interface; memory; and a processor. In addition, the processor is configured to implement an execution environment that enables: initiation of transactions via an immutable ledger; recordation of events; updating a user profile, where the user profile comprises at least one characterization associated with the user profile; encrypting the updated user profile and securely storing the encrypted user profile; receiving a request to access the encrypted user profile from a process; determining access permissions of the process; and when the process has sufficient access permissions, decrypting the user profile and providing user profile data to the process.

Systems and methods for encrypting and controlling access to encrypted data based upon immutable ledgers

A circuit breaker comprises a solid-state bidirectional switch, a switch control circuit, current and voltage sensors, and a processor. The solid-state bidirectional switch is connected between a line input terminal and a load output terminal of the circuit breaker, and configured to be placed in a switched-on state and a switched-off state. The switch control circuit control operation of the bidirectional switch. The current sensor is configured to sense a magnitude of current flowing in an electrical path between the line input and load output terminals and generate a current sense signal. The voltage sensor is configured to sense a magnitude of voltage on the electrical path and generate a voltage sense signal. The processor is configured to process the current and voltage sense signals to determine operational status information of the circuit breaker, a fault event, and power usage information of a load connected to the load output terminal.

Intelligent circuit breakers with solid-state bidirectional switches

Ground-fault circuit interrupter positioned between energy controlled supply circuit and load circuit which includes fault detection circuit that senses ground path current leakage to the load circuit, fault processing circuit that detects presence of fault and generates fault output signal when fault detected, and control circuit switch connected to fault processing signal output, wherein control circuit switch is opened by presence of fault output signal, thus isolating load circuit from supply circuit. Preferably fault processing circuit and control circuit are optically linked, such that when fault is detected, control circuit switch is opened by optical fault output signal, thus isolating load circuit from the supply circuit. Circuit interrupter may couple another circuit interrupter via power distribution control unit, optionally manageable remotely via automated control interface.

Solid-state ground-fault circuit interrupter

A circuit breaker includes an electromechanical switch, a current sensor, a voltage sensor, and a processor. The electromechanical switch is serially connected between a line input terminal and a load output terminal of the circuit breaker, and configured to be placed in a switched-closed state or a switched-open state. The current sensor is configured to sense a magnitude of current flowing in a path between the line input and load output terminals and generate a current sense signal. The voltage sensor is configured to sense a magnitude of voltage at a point on the path between the line input and load output terminals and generate a voltage sense signal. The processor is configured to receive and process the current sense signal and the voltage sense signal to determine operational status information of the circuit breaker and determine power usage information of a load connected to the load output terminal.

Intelligent circuit breakers with internal short circuit control system

Intelligent circuit breakers

AC-driven light-emitting diode systems and methods are provided for driving LED devices (e.g., LED lighting) using AC power. For example, an integrated circuit includes a first power line and a second power line configured for connection to AC power, and a plurality of LED stages, wherein each LED stage comprises multiple serially-connected LED devices, switches connected to inputs and outputs of the LED stages. The integrated circuit further includes switch control circuitry configured to control the switches to selectively connect one or more of the LED stages to the first and second power lines to empower the LED stages with the AC power.

AC-driven light-emitting diode systems

A circuit breaker comprises a solid-state switch, an air-gap electromagnetic switch, switch control circuitry, a zero-crossing detection circuit, and a current sensor. The solid-state and air-gap switches are connected in series in an electrical path between line input and load output terminals of the circuit breaker. The switch control circuitry controls the solid-state and air-gap switches. The zero-crossing detection circuit detects zero crossings of an AC waveform on the electrical path. The current sensor senses current flow in the electrical path to detect a fault condition based on the sensed current flow. In response to a detected fault condition, the switch control circuitry generates control signals to place the solid-state switch into a switched-off state and place the air-gap switch into a switched-open state after the solid-state switch is placed into the switched-off state. The switch control circuitry utilizes zero-crossing detection signals output from the zero-crossing detection circuit to determine when to place the air-gap switch into the switched-open state.

Intelligent circuit breakers with air-gap and solid-state switches

The invention relates to a novel approach for the protection of electrical circuits from ground faults and parallel and series arc faults in a fully solid-state circuit configuration. Solid-state circuits and methods of use are described that provide the key functions of low-voltage DC power supply, mains voltage and current sensing, fault detection processing and high voltage electronic switching.

Solid-state line disturbance circuit interrupter

An apparatus in an illustrative embodiment comprises at least one processing device comprising a processor coupled to a memory. The processing device is configured to receive power consumption data relating to at least one monitored device, and to classify the monitored device based at least in part on the power consumption data. The processing device is further configured to select a power policy for the classified device, and to control application of power to the classified device in accordance with the selected power policy. For example, controlling application of power to the classified device in accordance with the selected power policy may comprise determining contextual information for the classified device, generating a control signal based at least in part on the contextual information and the selected power policy, and transmitting the control signal to at least one node of a node network. Other illustrative embodiments include methods and computer program products.

Managing power for residential and commercial networks

A circuit breaker includes a solid-state switch, a sense resistor, a current detection circuit, and a switch control circuit. The solid-state switch and sense resistor are connected in series in an electrical path between a line input terminal and a load output terminal of the circuit breaker. The current detection circuit is configured to (i) sample a sense voltage that is generated across the sense resistor in response to load current flowing through the sense resistor, (ii) detect an over-current fault condition based on the sampled sense voltage, and (iii) output a fault detection signal in response to detecting the over-current fault condition. The switch control circuit is configured to control the solid-state switch, wherein the switch control circuit is configured to switch off the solid-state switch in response to the fault detection signal output from the current detection circuit.

Intelligent circuit breakers with detection circuitry configured to detect fault conditions

Growing community of inventors

Austin, TX, United States of America

Stephen Charles Gerber