TRUSTED BATTERY METER AND BATTERY MONITORING SYSTEM
A trusted battery meter and battery monitoring system is described, including: a battery comprising one or more cells; at least one battery parameter sensor, the sensor operatively associated with the battery and a sensor board, the sensor board receiving data relative to plural sensors associated with one or more battery cells and plural types of battery parameters; and a processor configured to process battery sensor input as defined assets, to paraphrase said sensor input in a node as data usable for a smart contract, the smart contract being a function within a blockchain acting in an autonomous way on processing given input to given output according to a desired interval, providing a transaction as an output of the smart contract, which transaction is validated and included into the blockchain; wherein the blockchain provides trusted, updated data for current battery status and SoH determinations and for changes in battery SoH over time.
1 . A battery monitoring system, comprising:
a battery comprising one or more cells;
at least one battery parameter sensor, the sensor operatively associated with the battery and a sensor board, the sensor board receiving data relative to plural sensors associated with one or more battery cells and plural types of battery parameters; and
a processor configured to process battery sensor input as defined assets, to paraphrase said sensor input in a node as data usable for a smart contract, the smart contract being a function within a blockchain acting in an autonomous way on processing given input to given output according to a desired interval, providing a transaction as an output of the smart contract, which transaction is validated and included into the blockchain;
wherein the blockchain provides trusted, updated data for current battery status and SoH determinations and for changes in capacity used over time.
2 . A battery monitoring system in accordance with claim 1 , wherein said current battery SoH determinations are utilized in a power by the hour scenario including:
defining a battery SoH calculated based on a current blockchain;
renting said battery to a customer;
permitting usage of a battery by a customer for a period of time;
upon return of the battery by a customer, determining SoH reduction based on a current blockchain; and
assessing the difference between old and new SoH based on blockchain data and assessing the value of such difference.
3 . A battery monitoring system in accordance with claim 1 , wherein a first end of life is determined according to a predefined SoH level determined by the trusted data collected in the blockchain, with repurposing of the battery for a second life application subsequent to identification of said predefined SoH level.
4 . A battery monitoring system in accordance with claim 3 , wherein said predefined SoH level is between 75% and 85% for end of first life.
5 . A battery monitoring system in accordance with claim 3 , wherein said predefined SoH level is 80% for end of first life.
6 . A battery monitoring system in accordance with claim 1 , wherein SoH data is used to automate a battery warranty claim process, with automatic identification of reasons for product faults.
7 . A battery monitoring system in accordance with claim 1 , further comprising a bulk energy storage system configured to monitor with generated trusted data the behavior of the battery and accompanying revenue streams, wherein the bulk energy storage system is accessible to the plural stakeholders involved financially in the bulk energy storage.
8 . A battery monitoring system in accordance with claim 1 , wherein said battery parameters include voltage, amperage, temperature and battery or cell identification number.
9 . A battery monitoring system in accordance with claim 8 , wherein both ambient and cell temperatures are included in said battery parameters.
10 . A battery monitoring system in accordance with claim 9 , wherein additional collected data relative to said battery parameter sensor includes one or more of: time; date; charge; and
discharge.
11 . A battery monitoring system in accordance with claim 1 , wherein plural batteries are monitored for data simultaneously.
12 . A battery monitoring system in accordance with claim 1 , further comprising a battery monitoring system server in operative communication with at least one battery, the server storing said battery sensor input.
13 . A battery monitoring system in accordance with claim 12 , wherein said server is a centralized server, with transactions written into a block and secured in blockchain from a centralized server node, with blockchain accessible by plural external users via public or private keys.
14 . A battery monitoring system in accordance with claim 1 , wherein blockchain nodes are created on plural servers or processors associated with plural batteries or battery chargers, with blockchain accessible by plural external users via public or private keys.
15 . A battery monitoring system in accordance with claim 1 , wherein the smart contract interval includes: a normal interval for normal battery usage; a reduced interval for a flow state; and a higher interval for critical battery parameters.