Abstract: A system and method for performing a secure data transfer between computing devices comprise registering a resource-constrained computing device with a cloud-based computer. A client computing device generates session state information regarding the client computing device in an electronic communication exchange with at least one remote computing device. An identifier provides a location of the session state information stored at a cloud-based computer. A machine-readable code associated with the identifier is displayed for querying the cloud for the stored session state information. The resource-constrained computing device uses the machine-readable code to retrieve the session state information. The resource-constrained computing device uses the session state information to join the electronic communication exchange.

Abstract: A system and method for performing a secure data transfer between computing devices comprise registering a resource-constrained computing device with a cloud-based computer. A client computing device generates session state information regarding the client computing device in an electronic communication exchange with at least one remote computing device. An identifier provides a location of the session state information stored at a cloud-based computer. A machine-readable code associated with the identifier is displayed for querying the cloud for the stored session state information. The resource-constrained computing device uses the machine-readable code to retrieve the session state information. The resource-constrained computing device uses the session state information to join the electronic communication exchange.

Abstract: A computer-implemented method for graphical user interface goal vision development may include receiving, via one or more processors, a first user financial goal of a user from a user device associated with the user; obtaining, via the one or more processors, at least one first user digital image; associating, via the one or more processors, the first user financial goal and the at least one first user digital image; obtaining, via the one or more processors, first user specific data relevant to the first user financial goal; transmitting, via the one or more processors, a digital visualization board indicative of the associated first user financial goal and the at least one first user digital image to the user device; determining, via the one or more processors, activity associated with the first user financial goal based on the first user specific data, by processing data including the obtained first user specific data using a trained machine learning model; and transmitting, via the one or more processors,

Abstract: A computer-implemented method for graphical user interface goal vision development may include receiving, via one or more processors, a first user financial goal of a user from a user device associated with the user; obtaining, via the one or more processors, at least one first user digital image; associating, via the one or more processors, the first user financial goal and the at least one first user digital image; obtaining, via the one or more processors, first user specific data relevant to the first user financial goal; transmitting, via the one or more processors, a digital visualization board indicative of the associated first user financial goal and the at least one first user digital image to the user device; determining, via the one or more processors, activity associated with the first user financial goal based on the first user specific data, by processing data including the obtained first user specific data using a trained machine learning model; and transmitting, via the one or more processors,

Abstract: The present application is directed to a spray booth comprising a first enclosure for applying spray material and a second enclosure for drying spray material. An exhaust system is in fluid connection with the first and second enclosures. A fire suppression system is in fluid connection with at least one component chosen from the first enclosure, the second enclosure and the exhaust system. A processor is in data communication with at least one component chosen from the spray enclosure, the drying enclosure, the exhaust system and the fire suppression system.

Abstract: Described herein is a quasi-optic rotating joint (100) which allows circularly polarised radiation to be transmitted therethrough irrespective of the angle of rotation of the joint. The rotating joint (100) comprises a first quasi-optic lens (102) having a first axis (112), which is carried on an inner part (116, 118) of bearings (108, 110) and which shares first axis (112). An outer part (122) of bearing (110) carries a quasi-optic mirror (104) and a second quasi-optic lens (106). The second lens (106) has a second axis (114) which is orthogonal to the first axis (112) of the first lens (102) and which intersects at the mirror (104). A Gaussian beam waist is formed at the mirror (104) by the first lens (102) and the second lens (106) is matched to the reflection of the beam waist at the mirror (104). Circularly polarised Gaussian beams passing through the joint (100) suffer a phase shift of angle ? which increases at the same rate as the increase in angle of rotation of the joint (100).

Abstract: Described herein is a quasi-optic rotating joint (100) which allows circularly polarised radiation to be transmitted therethrough irrespective of the angle of rotation of the joint. The rotating joint (100) comprises a first quasi-optic lens (102) having a first axis (112), which is carried on an inner pant (116, 118) of bearings (108, 110) and which shares first axis (112). An outer part (122) of bearing (110) carries a quasi-optic mirror (104) and a second quasi-optic lens (106). The second lens (106) has a second axis (114) which is orthogonal to the first axis (112) of the first lens (102) and which intersects at the mirror (104). A Gaussian beam waist is formed at the mirror (104) by the first lens (102) and the second lens (106) is matched to the reflection of the beam waist at the mirror (104). Circularly polarised Gaussian beams passing through the joint (100) suffer a phase shift of angle &psgr; which increases at the same rate as the increase in angle of rotation of the joint (100).