Abstract: Implementations described and claimed herein provide systems and methods for securely transferring a locked container from a primary vault to a secondary vault. In one implementation, a triggering event corresponding to a transfer of a first locked container from the primary vault to the secondary vault is detected. The first locked container is detected in the primary vault, and a second locked container is detected in the secondary vault. A transfer time for the transfer is determined based on when the second locked container is detected in the secondary vault. The transfer is validated as a compliant transfer when the second locked container is identified as the first locked container and the transfer time is within a time tolerance band.

Abstract: Implementations described and claimed herein involve systems and methods for handling an increased capacity of coins. In one implementation, an increased capacity coin hopper assembly comprises a bucket assembly, a coin hopper, and a funnel assembly. The bucket assembly has an opening through which one or more coins are receivable, and the coin hopper has a payout disc rotatable by at least one motor. The funnel assembly is disposed between the bucket assembly and the coin hopper and directs the one or more coins from the bucket assembly to the payout disc with a controlled flow.

Abstract: Implementations described and claimed herein involve systems and methods for facilitating coin hopper maintenance. In one implementation, a top plate is received in a bucket assembly of the coin hopper at a proximal end. The top plate seals one or more coins in an interior of the bucket assembly. The coin hopper is positioned in an inverted orientation by meeting a target surface with the top plate. The inverted orientation positions the bucket assembly at a distal end near the target surface and a base assembly at the proximal end. A hopper dispenser is disengaged from the base assembly of the coin hopper.

Abstract: Implementations described and claimed herein involve systems and methods for facilitating coin hopper maintenance. In one implementation, a top plate is received in a bucket assembly of the coin hopper at a proximal end. The top plate seals one or more coins in an interior of the bucket assembly. The coin hopper is positioned in an inverted orientation by meeting a target surface with the top plate. The inverted orientation positions the bucket assembly at a distal end near the target surface and a base assembly at the proximal end. A hopper dispenser is disengaged from the base assembly of the coin hopper.

Abstract: Implementations described and claimed herein involve systems and methods for handling an increased capacity of coins. In one implementation, an increased capacity coin hopper assembly comprises a bucket assembly, a coin hopper, and a funnel assembly. The bucket assembly has an opening through which one or more coins are receivable, and the coin hopper has a payout disc rotatable by at least one motor. The funnel assembly is disposed between the bucket assembly and the coin hopper and directs the one or more coins from the bucket assembly to the payout disc with a controlled flow.

Abstract: A coin recycling device for receiving a batch of mixed denomination coins, for sorting the mixed denomination coins into a plurality of sorted denomination coins and for dispensing the sorted denomination coins in coin denomination order includes a coin sorter for receiving and sorting the batch of mixed denomination coins. A first manifold includes a plurality of coin paths for receiving the sorted denomination coins from the coin sorter. A plurality of coin hoppers store the sorted denomination coins which are received from the first manifold. Each of the coin hoppers store one sorted denomination coin and is operable to dispense coins stored therein. A second manifold receives coins from the coin hoppers and directs the coins in coin denomination order for subsequent dispensing into a coin receiver having a plurality of coin storage locations.

Abstract: The invention is a keypad for securely entering personal identification numbers onto automated teller machines (ATM) or similar devices. A frame secures a flexible keypad to a printed circuit board. The front of the circuit includes a set of tamper detection contacts whose electrical circuit is completed by conductive material on the keypad surface. A moat of conductive material surrounds the tamper detection contact. Opening the circuit by removing the keypad or shorting the circuit to the moat initiates a tamper response. Attached to the reverse side of the printed circuit board are security sensitive electrical components. These security sensitive components include a static random access memory storing cryptographic information and a crypto processor. A plastic cover imprinted with a tamper detection grid forming multiple electrical circuits coupled to a tamper detection circuit covers these components. A border of conductive material on the printed circuit board also surrounds these components.

Abstract: A computerized drop safe running control and security software on a central processing unit controlling (CPU) operating features on and access to the drop safe. A user hierarchy has different access policies for making different transactions into the safe. Vault door access is controlled by the CPU to allow user access according to enabled policies. Transactions into and out of the safe vaults, motovend tube dispenser, and currency recyclers are recorded by the amounts and the user making the transaction into a memory coupled to the CPU. This data is also reported to a point of sale control interface at another location using a modem or Ethernet connection. The CPU can also receive data and control inputs by the modem and Ethernet, permitting centralized accounting and vending control options. A back office at the store can also easily access the safe for data retrieval or control inputs into the CPU using an Ethernet local area network computer system.