Abstract: An inlet cover mechanism for an air launched vehicle includes a quick release pin, a chassis, a collar, and a piston pin. The inlet cover mechanism facilitates attachment and deployment of an inlet cover with the air launched vehicle. The quick release pin is connected to the inlet cover. The chassis is connected to the air launched vehicle. The collar is connected to the chassis and is releasably engageable with the quick release pin. The piston pin is slidably engaged within the chassis and is configured to contact the quick release pin.

Abstract: A wing lock and deployment apparatus for an air launched vehicle includes a driver acted on by a single linear actuation event. The disclosed wing lock and deployment apparatus is capable of unlocking deployable wings of an air launched vehicle, deploying deployable wings of the air launched vehicle from a stored position, and locking deployable wings of the air launched vehicle in a deployed position in sequential order with the one single linear actuation event.

Abstract: A system for creating folds in textiles. The system includes a tooling plate, a loading assembly, a fold mechanism, a wrangler mechanism, and a door mechanism. The loading assembly enable a user to load a textile into the system. The fold mechanism creates folds in the textile. The wrangler mechanism compacts a textile after folds have been created in it to retain and tighten the folds. The door mechanism opens and closes an opening in the tooling plate through which textiles can be transferred away from the wrangler mechanism. Preferably, the system may also include a robot arm equipped to transfer textiles about the system and a tying machine for applying bindings to textiles.

Abstract: An inlet cover mechanism for an air launched vehicle includes a quick release pin, a chassis, a collar, and a piston pin. The inlet cover mechanism facilitates attachment and deployment of an inlet cover with the air launched vehicle. The quick release pin is connected to the inlet cover. The chassis is connected to the air launched vehicle. The collar is connected to the chassis and is releasably engageable with the quick release pin. The piston pin is slidably engaged within the chassis and is configured to contact the quick release pin.

Abstract: A system for auditing event data includes an interface and a processor. The interface is configured to receive an audit query request and a client key. The processor is configured to determine whether the audit query request is valid; determine whether a chain of events is stored in an audit store, wherein the chain of events is associated with the audit query request; and in response to determining that the chain of events is stored in the audit store, provide data for the audit query request.

Abstract: A wing lock and deployment apparatus for an air launched vehicle includes a driver acted on by a single linear actuation event. The disclosed wing lock and deployment apparatus is capable of unlocking deployable wings of an air launched vehicle, deploying deployable wings of the air launched vehicle from a stored position, and locking deployable wings of the air launched vehicle in a deployed position in sequential order with the one single linear actuation event.

Abstract: A system for committing event data includes an interface and a hardware processor. The interface is configured to receive modified input data for desired events. The hardware processor is configured to retrieve the desired events from a desired aggregate; select requested event to modify from the desired aggregate; replace input data of the requested event with the modified input data to create a modified aggregate; replay events of the modified aggregate N to generate a new state of aggregate N; and provide the new state of aggregate N.

Abstract: A system for querying a state of aggregate N or creating a projection comprises an interface and a processor. The interface is configured to receive request to query the state of the aggregate N or to create a projection up to a target event and receive a client key. The processor is configured to rehash each event input data of the aggregate N with its corresponding sequence number and a prior event signature to generate a hash value; reencrypt the hash value using the client key to create a check signature; determine whether the check signature is equal to the prior event signature; in response to each check signature being equal to the prior event signature, replay the events of the aggregate N to generate and provide the state of the aggregate N; and in response to a check signature not being equal to the prior event signature, indicate that the aggregate N is not valid.

Abstract: A system for creating folds in textiles. The system includes a tooling plate, a loading assembly, a fold mechanism, a wrangler mechanism, and a door mechanism. The loading assembly enable a user to load a textile into the system. The fold mechanism creates folds in the textile. The wrangler mechanism compacts a textile after folds have been created in it to retain and tighten the folds. The door mechanism opens and closes an opening in the tooling plate through which textiles can be transferred away from the wrangler mechanism. Preferably, the system may also include a robot arm equipped to transfer textiles about the system and a tying machine for applying bindings to textiles.

Abstract: A system for committing event data includes an interface and a processor. The interface is configured to receive input data and receive a client key. The processor is configured to generate an Nth sequence number; determine an Nth event hash using the input data, an N-1 signature, and the Nth sequence number; encrypt the Nth event hash with the client key to generate an Nth signature; generate an Nth event from the input data, the N-1 signature, the Nth sequence number, and the Nth signature; and, in response to an aggregate N-1 of one or more prior events being valid, apply Nth event onto the aggregate N-1.

Abstract: A system for committing event data includes an interface and a processor. The interface is configured to receive input data and receive a client key. The processor is configured to generate an Nth sequence number; determine an Nth event hash using the input data, an N?1 signature, and the Nth sequence number; encrypt the Nth event hash with the client key to generate an Nth signature; generate an Nth event from the input data, the N?1 signature, the Nth sequence number, and the Nth signature; and, in response to an aggregate N?1 of one or more prior events being valid, apply Nth event onto the aggregate N?1.

Abstract: A system for committing event data includes an interface and a processor. The interface is configured to receive input data and receive a client key. The processor is configured to generate an Nth sequence number; determine an Nth event hash using the input data, an N?1 signature, and the Nth sequence number; encrypt the Nth event hash with the client key to generate an Nth signature; generate an Nth event from the input data, the N?1 signature, the Nth sequence number, and the Nth signature; and, in response to an aggregate N?1 of one or more prior events being valid, apply Nth event onto the aggregate N?1.

Abstract: A system for auditing event data includes an interface and a processor. The interface is configured to receive an audit query request and a client key. The processor is configured to determine whether the audit query request is valid; determine whether a chain of events is stored in an audit store, wherein the chain of events is associated with the audit query request; and in response to determining that the chain of events is stored in the audit store, provide data for the audit query request.

Abstract: A system for querying a state of aggregate N or creating a projection comprises an interface and a processor. The interface is configured to receive request to query the state of the aggregate N or to create a projection up to a target event and receive a client key. The processor is configured to rehash each event input data of the aggregate N with its corresponding sequence number and a prior event signature to generate a hash value; reencrypt the hash value using the client key to create a check signature; determine whether the check signature is equal to the prior event signature; in response to each check signature being equal to the prior event signature, replay the events of the aggregate N to generate and provide the state of the aggregate N; and in response to a check signature not being equal to the prior event signature, indicate that the aggregate N is not valid.