Abstract: A method of producing aluminum chlorohydrate comprises adding small form aluminum metal pellets to a reactant receiving space of a reactor tank to form a pellet bed; adding aqueous hydrochloric acid to the reactant receiving space of the reactor tank; and continuously circulating the aqueous hydrochloric acid through the pellet bed. In some embodiments, the continuously circulating aqueous hydrochloric acid dispels reaction gases from the pellet bed. Methods described herein can, in some cases, further comprise consecutively adding additional small form aluminum metal pellets to the reactant receiving space of the reactor tank as the small form aluminum metal pellets are consumed in the pellet bed.

Abstract: Methods and systems for designing a default-deny network egress control architecture in a virtual private cloud (VPC) environment are described herein. According to an implementation, the system may create a first subnet in a private computer network to perform egress control. The system implements a private network address translation (NAT) gateway, a network access control list (NACL), and a private elastic network interface (ENI) in the first subnet. The first subnet may be referred to a “blackhole subnet” or a “terminating subnet.” Upon receiving a traffic destined to a public computer network, e.g., Internet, the private NAT gateway may determine whether the traffic is authorized to egress based on the NACL. The private NAT gateway forwards the traffic to the private ENI to discard the traffic if the traffic is not authorized to egress and logs the information associated with the traffic.

Abstract: A method of producing aluminum chlorohydrate comprises adding small form aluminum metal pellets to a reactant receiving space of a reactor tank to form a pellet bed; adding aqueous hydrochloric acid to the reactant receiving space of the reactor tank; and continuously circulating the aqueous hydrochloric acid through the pellet bed. In some embodiments, the continuously circulating aqueous hydrochloric acid dispels reaction gases from the pellet bed. Methods described herein can, in some cases, further comprise consecutively adding additional small form aluminum metal pellets to the reactant receiving space of the reactor tank as the small form aluminum metal pellets are consumed in the pellet bed.

Abstract: A method of producing aluminum chlorohydrate comprises adding small form aluminum metal pellets to a reactant receiving space of a reactor tank to form a pellet bed; adding aqueous hydrochloric acid to the reactant receiving space of the reactor tank; and continuously circulating the aqueous hydrochloric acid through the pellet bed. In some embodiments, the continuously circulating aqueous hydrochloric acid dispels reaction gases from the pellet bed. Methods described herein can, in some cases, further comprise consecutively adding additional small form aluminum metal pellets to the reactant receiving space of the reactor tank as the small form aluminum metal pellets are consumed in the pellet bed.

Abstract: A method of producing aluminum chlorohydrate comprises adding small form aluminum metal pellets to a reactant receiving space of a reactor tank to form a pellet bed; adding aqueous hydrochloric acid to the reactant receiving space of the reactor tank; and continuously circulating the aqueous hydrochloric acid through the pellet bed. In some embodiments, the continuously circulating aqueous hydrochloric acid dispels reaction gases from the pellet bed. Methods described herein can, in some cases, further comprise consecutively adding additional small form aluminum metal pellets to the reactant receiving space of the reactor tank as the small form aluminum metal pellets are consumed in the pellet bed.

Abstract: A method of producing aluminum chlorohydrate comprises adding small form aluminum metal pellets to a reactant receiving space of a reactor tank to form a pellet bed; adding aqueous hydrochloric acid to the reactant receiving space of the reactor tank; and continuously circulating the aqueous hydrochloric acid through the pellet bed. In some embodiments, the continuously circulating aqueous hydrochloric acid dispels reaction gases from the pellet bed. Methods described herein can, in some cases, further comprise consecutively adding additional small form aluminum metal pellets to the reactant receiving space of the reactor tank as the small form aluminum metal pellets are consumed in the pellet bed.

Abstract: Systems and methods for improving vehicle RADAR or other sensor performance by application of error statistics. In some implementations, statistical correction of vehicle tracking errors are achieved by generating a first data set representative of a historical map of a host vehicle trajectory, a second data set representative of one or more adjacent lanes to a current lane of the host vehicle, and a third data set comprising estimated error correction values of an estimated bearing angle while the moving target vehicle is beyond a threshold distance by comparing the estimated bearing angle of the moving target vehicle relative to the host vehicle with an observed bearing angle of the moving target vehicle relative to the host vehicle. A set of estimated lane assignments may be generated after the moving target vehicle has passed the threshold distance from the host vehicle, after which a lane assignment may be confirmed.

Abstract: Systems and methods for improving vehicle RADAR or other sensor performance by application of error statistics. In some implementations, statistical correction of vehicle tracking errors may be achieved by generating a first data set representative of a historical map of a host vehicle trajectory, a second data set representative of one or more adjacent lanes to a current lane of the host vehicle, and a third data set comprising estimated error correction values of an estimated bearing angle while the moving target vehicle is beyond a threshold distance by comparing the estimated bearing angle of the moving target vehicle relative to the host vehicle with an observed bearing angle of the moving target vehicle relative to the host vehicle. A set of estimated lane assignments may be generated after the moving target vehicle has passed the threshold distance from the host vehicle, after which a lane assignment may be confirmed.

Abstract: A kit incorporating a multi-configurable push-button subassembly for installing an emergency stop/deactivate alarm station which can be configured to operate in any of a momentary (depress and immediate reverse bias return) resetting of a previously inwardly depressed push-button, a latching turn-to-reset for the push button, or a latching key-to-reset for (outwardly) resetting the push button following initial depressing of the same in response to a determined alarm condition. The push button subassembly is integrated into an overall alarm station assembly including a gang box body and attachable backing plate, within which existing switch and wiring components are integrated. A cover attaches over the assembly and both exposes and shields the push button from inadvertent depressed triggering in particular from a side location.

Abstract: A kit incorporating a multi-configurable push-button subassembly for installing an emergency stop/deactivate alarm station which can be configured to operate in any of a momentary (depress and immediate reverse bias return) resetting of a previously inwardly depressed push-button, a latching turn-to-reset for the push button, or a latching key-to-reset for (outwardly) resetting the push button following initial depressing of the same in response to a determined alarm condition. The push button subassembly is integrated into an overall alarm station assembly including a gang box body and attachable backing plate, within which existing switch and wiring components are integrated. A cover attaches over the assembly and both exposes and shields the push button from inadvertent depressed triggering in particular from a side location.

Abstract: A facility is described for enabling workflow applications. The facility receives a request to identify an optimized resource list that identifies resources capable of performing a workflow process task. The workflow process task can be associated with a document type relating to a document associated with a workflow envelope. The workflow envelope can store multiple documents of at different document types. The facility includes a workflow engine and a simulation engine. The workflow engine performs workflow process tasks based on the tasks identified in the workflow envelope. The simulation engine can employ modeling and historical data from a workflow metrics data source to generate the optimized resource list and identify identifying resources matching the workflow process tasks identified in the workflow envelope. The simulation engine can be used to model the workflow process to adapt, modify or otherwise control the workflow.

Abstract: A facility is described for enabling workflow applications. The facility receives a request to identify an optimized resource list that identifies resources capable of performing a workflow process task. The workflow process task can be associated with a document type relating to a document associated with a workflow envelope. The workflow envelope can store multiple documents of at different document types. The facility includes a workflow engine and a simulation engine. The workflow engine performs workflow process tasks based on the tasks identified in the workflow envelope. The simulation engine can employ modeling and historical data from a workflow metrics data source to generate the optimized resource list and identify identifying resources matching the workflow process tasks identified in the workflow envelope.

Abstract: A facility is described for enabling workflow applications. The facility receives a request to identify an optimized resource list that identifies resources capable of performing a workflow process task. The workflow process task can be associated with a document type relating to a document associated with a workflow envelope. The workflow envelope can store multiple documents of at different document types. The facility includes a workflow engine and a simulation engine. The workflow engine performs workflow process tasks based on the tasks identified in the workflow envelope. The simulation engine can employ modeling and historical data from a workflow metrics data source to generate the optimized resource list and identify identifying resources matching the workflow process tasks identified in the workflow envelope.

Abstract: A helical fastener having a high retentive surface area is provided and has a first end for enhancing penetration into tissue and a second end comprising a coil sectioning a diameter of the fastener for receiving longitudinal and rotational forces. The helical fasteners are attached to body tissue by a fastener applicator having a proximal portion comprising a handle and an actuator and an elongate distal portion for housing a plurality of fasteners. A transferring action of the actuator provides longitudinal and rotational movement of the fasteners out of the distal portion and into body tissue.

Abstract: A facility is described for enabling workflow applications. The facility receives a request to identify an optimized resource list that identifies resources capable of performing a workflow process task. The workflow process task can be associated with a document type relating to a document associated with a workflow envelope. The workflow envelope can store multiple documents of at different document types. The facility includes a workflow engine and a simulation engine. The workflow engine performs workflow process tasks based on the tasks identified in the workflow envelope. The simulation engine can employ modeling and historical data from a workflow metrics data source to generate the optimized resource list and identify identifying resources matching the workflow process tasks identified in the workflow envelope.