Abstract: Systems, devices, and methods are disclosed herein for monitoring physiological data of subjects seated on a toilet, including systems, devices, and methods for monitoring loads and forces on a scale device. In some embodiments, systems, devices, and methods disclosed herein include a set of sensors that can measure loads and forces present at a scale device receiving the feet of an individual seated in a toilet.

Abstract: Systems, devices, and methods are disclosed herein for monitoring physiological data of subjects seated on a toilet, including systems, devices, and methods for monitoring loads and forces on a scale device. In some embodiments, systems, devices, and methods disclosed herein include a set of sensors that can measure loads and forces present at a scale device receiving the feet of an individual seated in a toilet.

Abstract: Systems, devices, and methods are disclosed herein for monitoring physiological data of subjects seated on a toilet, including systems, devices, and methods for monitoring loads and forces on a scale device. In some embodiments, systems, devices, and methods disclosed herein include a set of sensors that can measure loads and forces present at a scale device receiving the feet of an individual seated in a toilet.

Abstract: Disclosed systems, methods, and computer readable media relate to business continuity and disaster recovery (BCDR). According to some embodiments, disclosed systems, methods, and computer readable media can replicate a set of data blocks from a source computer to a target computer while the source computer is in operation and contents of the set of data blocks are changing. In some embodiments, disclosed systems, methods, and computer readable media can replicate a set of data blocks from a recovery computer to a target computer while the recovery computer is in operation and contents of the set of data blocks are changing, wherein the recovery computer is built from a protected computer.

Abstract: Web-enabled routers are remotely and securely administered in a centralized fashion. A server for configuring a remotely configurable router on a computer network includes a memory to store a plurality of router configuration profiles that include a first router configuration profile associated with the remotely configurable router at a first instant in time. A server may also include a network interface to receive a request to reconfigure the remotely configurable router via the computer network. A server may also include a processor, operably coupled to the network interface and to the memory, that receives instructions to provide a second router configuration profile to the remotely configurable router for installation on the remotely configured router. The processor may also provide the first router configuration profile to the remotely configurable router in response to an indication that the second router configuration profile was not successfully installed on the remotely configurable router.

Abstract: A “Local Ingestion” (LI) Server resides and operates in the LAN of a business organization, and provides backup storage for data generated using various software applications locally installed on client terminals (“non-SaaS data”) and data generated using various SaaS applications accessed by client terminals via the Internet (“SaaS data”). The LI Server can receive data generated in a native format by either a local non-SaaS application or one or more SaaS applications and convert from different native data formats to an application platform-independent or “canonical” format for backed-up SaaS data and non-SaaS data. The LI Server may then analyze data generated using different source applications, and backed-up in a canonical format, so as to identify particular content, patterns, relationships, and/or trends and thereby extract valuable business-related or other information from multiple cross-platform files.

Abstract: APPARATUSES, METHODS AND SYSTEMS FOR DETERMINING A VIRTUAL MACHINE STATE (“CRV”) (transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: A Network Attached Storage (NAS) apparatus to provide network-based data storage for client computing devices (e.g., in a local area network). One or more file-based logical storage area (LSA) shares are created in memory of the NAS apparatus, wherein each file-based LSA share originally is configured as one of “private access” (only certain users have access to a private file-based LSA share) or “public access” (any user on the LAN that can access the NAS appliance can also access the public file-based LSA share). At some later time, the file-based LSA share may be reconfigured to go from private-to-public access or public-to-private access (each file-based LSA share has a “reversible privacy setting”). In one example, object permissions for each object (file or folder) already stored on the LSA share prior to the access reconfiguration are updated on an object-by-object basis to ensure appropriate access to all legacy objects after the access reconfiguration.

Abstract: Disclosed systems, methods, and computer readable media relate to business continuity and disaster recovery (BCDR). According to some embodiments, disclosed systems, methods, and computer readable media can replicate a set of data blocks from a source computer to a target computer while the source computer is in operation and contents of the set of data blocks are changing. In some embodiments, disclosed systems, methods, and computer readable media can replicate a set of data blocks from a recovery computer to a target computer while the recovery computer is in operation and contents of the set of data blocks are changing, wherein the recovery computer is built from a protected computer.

Abstract: Web-enabled routers are remotely and securely administered in a centralized fashion. A server for configuring a remotely configurable router on a computer network includes a memory to store a plurality of router configuration profiles that include a first router configuration profile associated with the remotely configurable router at a first instant in time. A server may also include a network interface to receive a request to reconfigure the remotely configurable router via the computer network. A server may also include a processor, operably coupled to the network interface and to the memory, that receives instructions to provide a second router configuration profile to the remotely configurable router for installation on the remotely configured router. The processor may also provide the first router configuration profile to the remotely configurable router in response to an indication that the second router configuration profile was not successfully installed on the remotely configurable router.

Abstract: Web-enabled routers are remotely and securely administered in a centralized fashion. A router receives a configuration profile from a dedicated web domain that maintains a repository of configuration profiles for multiple routers. The web domain also provides a web portal for customized generation of new configuration profiles based on stored profiles. When a new profile is deployed to and instantiated on a router, the router transmits a “heartbeat” to ensure that it can maintain connectivity with the web domain; if not, the router reverts to a previous “failover” configuration profile that ensures connectivity to the web domain. A router also may be equipped with both a wired and a wireless (e.g., a 3G, 4G, or 4G LTE) WAN communication interface. In the event of a wired connectivity issue, the router controls the wireless WAN interface to prioritize traffic for the router heartbeat and data backup/restore operations between a computer network for which the router serves as a gateway and the web domain.

Abstract: A “Local Ingestion” (LI) Server resides and operates in the LAN of a business organization, and provides backup storage for data generated using various software applications locally installed on client terminals (“non-SaaS data”) and data generated using various SaaS applications accessed by client terminals via the Internet (“SaaS data”). The LI Server can receive data generated in a native format by either a local non-SaaS application or one or more SaaS applications and convert from different native data formats to an application platform-independent or “canonical” format for backed-up SaaS data and non-SaaS data. The LI Server may then analyze data generated using different source applications, and backed-up in a canonical format, so as to identify particular content, patterns, relationships, and/or trends and thereby extract valuable business-related or other information from multiple cross-platform files.

Abstract: APPARATUSES, METHODS AND SYSTEMS FOR DETERMINING A VIRTUAL MACHINE STATE (“CRV”) (transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: A Network Attached Storage (NAS) apparatus to provide network-based data storage for client computing devices (e.g., in a local area network). One or more file-based logical storage area (LSA) shares are created in memory of the NAS apparatus, wherein each file-based LSA share originally is configured as one of “private access” (only certain users have access to a private file-based LSA share) or “public access” (any user on the LAN that can access the NAS appliance can also access the public file-based LSA share). At some later time, the file-based LSA share may be reconfigured to go from private-to-public access or public-to-private access (each file-based LSA share has a “reversible privacy setting”). In one example, object permissions for each object (file or folder) already stored on the LSA share prior to the access reconfiguration are updated on an object-by-object basis to ensure appropriate access to all legacy objects after the access reconfiguration.

Abstract: Web-enabled routers are remotely and securely administered in a centralized fashion. A router receives a configuration profile from a dedicated web domain that maintains a repository of configuration profiles for multiple routers. The web domain also provides a web portal for customized generation of new configuration profiles based on stored profiles. When a new profile is deployed to and instantiated on a router, the router transmits a “heartbeat” to ensure that it can maintain connectivity with the web domain; if not, the router reverts to a previous “failover” configuration profile that ensures connectivity to the web domain. A router also may be equipped with both a wired and a wireless (e.g., a 3G, 4G, or 4G LTE) WAN communication interface. In the event of a wired connectivity issue, the router controls the wireless WAN interface to prioritize traffic for the router heartbeat and data backup/restore operations between a computer network for which the router serves as a gateway and the web domain.

Abstract: APPARATUSES, METHODS AND SYSTEMS FOR DETERMINING A VIRTUAL MACHINE STATE (“CRV”) (transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: APPARATUSES, METHODS AND SYSTEMS FOR DETERMINING A VIRTUAL MACHINE STATE (“CRV”) (transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: The CPU REGISTER ASSISTED VIRTUAL MACHINE SCREENSHOT CAPTURE TIMING APPARATUSES, METHODS AND SYSTEMS (“CRV”) transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: The CPU REGISTER ASSISTED VIRTUAL MACHINE SCREENSHOT CAPTURE TIMING APPARATUSES, METHODS AND SYSTEMS (“CRV”) transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.

Abstract: The CPU REGISTER ASSISTED VIRTUAL MACHINE SCREENSHOT CAPTURE TIMING APPARATUSES, METHODS AND SYSTEMS (“CRV”) transforms register retrieval requests, via CRV components, into boot success messages and screenshot capture command invocation outputs. A method comprises determining when to capture a screenshot of a virtual machine's display output by observing the values of a virtual CPU's registers, or the entropy of the virtual CPU's register values, obtained from a hypervisor in communication with the virtual machine's virtual CPU. The method further comprises determining when the virtual machine is at a boot success state and capturing a screenshot of the virtual machine display output.