Abstract: The present disclosure relates to systems, methods, and non-transitory computer readable media for generating a virtual try-on digital image utilizing a unified neural network framework. For example, the disclosed systems can utilize a coarse-to-fine warping process to generate a warped version of a product digital image to fit a model digital image. In addition, the disclosed systems can utilize a texture transfer process to generate a corrected segmentation mask indicating portions of a model digital image to replace with a warped product digital image. The disclosed systems can further generate a virtual try-on digital image based on a warped product digital image, a model digital image, and a corrected segmentation mask. In some embodiments, the disclosed systems can train one or more neural networks to generate accurate outputs for various stages of generating a virtual try-on digital image.

Abstract: A battery system includes a position detector configured to detect whether a first battery protector is coupled to a second power rail and positioned at a bottom of a stack. A cell balancing input (CBI) is coupled to receive a CBI signal to enable or disable cell balancing of the first battery protector. A cell balancing output (CBO) enables cell balancing of a second protector in the stack.

Abstract: Techniques for executing commands associated with system stacks using parallel workflows are described herein. A dependency representation based at least in part on a stack description is created. The stack description describes stack resource instance and dependencies between those resource instances. The dependency representation is then analyzed to determine sub-workflows each of which may be executed in parallel. The sub-workflows may be altered based on one or more runtime interdependencies and the stack command may be executed by performing the sub-workflows in a determined order.

Abstract: A battery system includes a position detector configured to detect whether a first battery protector is coupled to a second power rail and positioned at a bottom of a stack. A cell balancing input (CBI) is coupled to receive a CBI signal to enable or disable cell balancing of the first battery protector. A cell balancing output (CBO) enables cell balancing of a second protector in the stack.

Abstract: The disclosed system implements techniques to secure communications for injecting a workload (e.g., a container) into a virtual network hosted by a cloud-based platform. Based on a delegation instruction received from a tenant, a virtual network of the tenant can connect to and execute a workload via a virtual machine that is part of a virtual network that belongs to a resource provider. To secure calls and authorize access to the tenant's virtual network, authentication information provided in association with a call from the virtual network of the resource provider may need to match authorization information made available via a publication service of the cloud-based platform. Moreover, an identifier of a NIC used to make a call may need to correspond to a registered name of the resource provider for the call to be authorized. These checks provide increased security by preventing unauthorized calls from accessing the tenant's virtual network.

Abstract: A battery protector includes analog frontend circuitry coupled to a hibernate mode input terminal that is one of configured to couple to a high voltage connector terminal when the system is connected to an external load or charger to define an active mode and configured to float when the system is disconnected from the external load or charger to define a hibernate mode. The analog frontend circuitry is configured to provide a signal at an output thereof to distinguish, in the absence of an external ground connection, between connected and floating conditions for the hibernate mode input terminal. Digital logic is coupled with the output of the analog frontend circuitry, the digital logic providing a digital signal to control whether the battery protector is operating in the active mode or the hibernate mode based on the signal at the output of the analog frontend circuitry.

Abstract: Techniques are disclosed relating to using a randomized private input interface to secure passcode information. In some embodiments, a mobile device receives configuration information for user input of a passcode to another device. In some embodiments, the configuration information specifies a pseudo-random relationship of input values to input actions recognized by the other device. In some embodiments, a private interface is displayed based on the configuration information, where the private interface is visible to a user of the mobile device and not to others. In various embodiments, the disclosed techniques may reduce the ability of other nearby individuals to determine information entered by the user.

Abstract: Systems and methods of automatically adjusting the profile settings or the functionality of a portable device based on zone information or emergency information are provided. Some systems can include a portable device and a fixed device that is locally installed in or proximate to a zone of a region. The fixed device can transmit or broadcast a preferences signal, and responsive to receiving the preferences signal, the portable device can automatically adjust a profile setting or a functionality of the portable device based on the preferences signal.

Abstract: A system and method are disclosed for adaptive authentication. An access control system stores policies for an enterprise, where each policy specifies a type of access control. The type of access control includes one or more security rules, which may specify authentication procedures, allowable behaviors, or both. The access control system stores a mapping from contexts of requests to interact with applications and access control policies. When a user requests access to an application associated with the enterprise via a client, the access control system receives the context of the request. The access control system selects an access control policy for the context of the request. The access control system sends access control information from the access control policy selected to the client. The client interacts with the user to perform the authentication.

Abstract: A Domain Name System (DNS) server that is operable to apply DNS-based load balancing policies based on geolocation and time of day is described herein. In an embodiment, the DNS server determines a geolocation and a time of day associated with a plurality of DNS queries and then obtains a domain name resolution policy that is associated with one or more of the geolocation and the time of day. The policy specifies a plurality of geographically disparate data centers and a ratio by which domain names are to be resolved thereto. The ratio at least specifies that more domain names are to be resolved to one of the plurality of geographically disparate data centers than another. The DNS server applies the domain name resolution policy to resolve the domain names in the DNS queries.