Abstract:
A method for using a smartcard is provided. The smartcard may include a microprocessor chip, a button, a dynamic transaction authorization number, a Bluetooth low energy (“BLE”) device, and a battery. The battery may power the BLE and the microprocessor chip. The smartcard may also include memory. The memory may store the dynamic transaction authorization number. The smartcard may also include a dynamic magnetic strip. The dynamic magnetic strip may include a digital representation of the dynamic transaction authorization number. The method may include pressing the button. The method may also include transmitting an instruction to a smartphone for a request for a dynamic transaction authorization number. The transmission of an instruction may be in response to the pressing of the button. The method may also include receiving a dynamic transaction authorization number from a smartphone.
Abstract:
A method for using a smartcard is provided. The smartcard may include a microprocessor chip, a button, a dynamic transaction authorization number, a Bluetooth low energy (“BLE”) device, and a battery. The battery may power the BLE and the microprocessor chip. The smartcard may also include memory. The memory may store the dynamic transaction authorization number. The smartcard may also include a dynamic magnetic strip. The dynamic magnetic strip may include a digital representation of the dynamic transaction authorization number. The method may include pressing the button. The method may also include transmitting an instruction to a smartphone for a request for a dynamic transaction authorization number. The transmission of an instruction may be in response to the pressing of the button. The method may also include receiving a dynamic transaction authorization number from a smartphone.
Abstract:
A method for using a smartcard is provided. The smartcard may include a microprocessor chip, a button, a dynamic transaction authorization number, a Bluetooth low energy (“BLE”) device. The smartcard may also include a battery. The battery may be configured to power the BLE and the microprocessor chip. The smartcard may also include memory. The memory may be configured to store the dynamic transaction authorization number. The smartcard may also include a dynamic magnetic strip. The dynamic magnetic strip may include a digital representation of the dynamic transaction authorization number. The method for using a smartcard may include pressing the button. The method may also include transmitting an instruction to a smartphone for a request for a dynamic transaction authorization number. The transmission of an instruction may be in response the pressing of the button. The method may also include receiving a dynamic transaction authorization number from a smartphone.
Abstract:
A method for using a smartcard is provided. The smartcard may include a microprocessor chip, a button, a dynamic transaction authorization number, a Bluetooth low energy (“BLE”) device, and a battery. The battery may power the BLE and the microprocessor chip. The smartcard may also include memory. The memory may store the dynamic transaction authorization number. The smartcard may also include a dynamic magnetic strip. The dynamic magnetic strip may include a digital representation of the dynamic transaction authorization number. The method may include pressing the button. The method may also include transmitting an instruction to a smartphone for a request for a dynamic transaction authorization number. The transmission of an instruction may be in response to the pressing of the button. The method may also include receiving a dynamic transaction authorization number from a smartphone.
Abstract:
A system includes a memory that may store a customer account associated with a customer and a processor communicatively coupled to the memory. The processor is able to receive a request to deposit a quantity of cryptocurrency into the customer account and associate the quantity of cryptocurrency with the customer account. The processor is also able to deposit the quantity of cryptocurrency into a vault connected to a network and determine a total quantity of cryptocurrency deposited into the vault. The processor may also, in response to determining the total quantity of cryptocurrency deposited into the vault exceeds a threshold, facilitate the disconnection of the vault from the network.
Abstract:
The system includes a processor operable to receive a request from a customer to perform a cryptocurrency transaction with a third party. The processor may also retrieve block chain information associated with the cryptocurrency transaction. The processor may also determine the amount of cryptocurrency associated with the cryptocurrency transaction. The processor may further calculate a risk score for performing the cryptocurrency transaction based at least in part upon the block chain information and the amount of cryptocurrency.
Abstract:
A system includes a memory and a processor coupled to the memory. The processor may communicate with an electronic payment service, the electronic payment service providing a virtual account associated with the customer and determine that the customer initiated a request for a financial transaction, the financial transaction configured to transfer an amount of currency from the virtual account to a destination. The processor is also able to validate the financial transaction based at least upon data received from the electronic payment service and determine the customer account is associated with the virtual account based at least upon data received from the electronic payment service. The processor also may determine a quantity of cryptocurrency equivalent to the amount of currency (the quantity of cryptocurrency associated with the customer account) and transfer the quantity of cryptocurrency to the electronic payment service.
Abstract:
A system includes a memory and a processor. The memory may store a customer account associated with a customer and an enterprise account associated with an enterprise. The processor may be communicatively coupled to the memory and may cause the system to receive a request to deposit a first amount of a cryptocurrency in the customer account from the customer. The processor may also cause the system to determine a public key associated with the customer account and receive the first amount of the cryptocurrency. The processor may further cause the system to determine a first value approximately equivalent to the first amount of cryptocurrency and associate the first value with the customer account. The processor is further able to aggregate the first amount of cryptocurrency with an aggregated amount of the cryptocurrency in the enterprise account and facilitate securing the public key in the enterprise account.
Abstract:
Embodiments of the invention are directed to systems, methods and computer program products for making a mobile payment via a transfer network. In some embodiments, a first apparatus is configured to: receive readable indicia from a second apparatus; enable a user to input payment information, wherein the payment information comprises at least one of a payee, a payment amount, or a payment source; transmit the readable indicia and the payment information to a third apparatus.