Abstract: Directional drilling is an extremely important area of technology for the extraction of oil and gas from earthen formations. The technology of the present application relates to improved non-stabilizer guidance positioning members for directional drilling assemblies and for drill strings. It also relates to an improved method for analyzing the fit and engagement of a directional drilling assembly in curved and straight wellbores in order to produce improved guidance positioning members. It also relates to a method of designing guidance positioning members for directional drilling. It also relates to drilling directional wellbores using the guidance positioning members of the present technology.

Abstract: A secure connection between a user mobile device and a “Internet-of-Things” network-connected device (e.g., a home appliance or a vehicle) may be provided using an internet gateway residing in the public internet and a local gateway residing in a private network behind a firewall. The user device may receive an input through a software application and may generate an electronic instruction based on the input. The user device may then encrypt the electronic instruction and send the encrypted electronic instruction to the internet gateway over a secure connection (e.g., SSH, TLS). The internet gateway then sends the encrypted electronic instruction to the local gateway, which decrypts the encrypted electronic instruction, interprets it, and generates and transmits a device instruction to communicate with the network-connected device, either directly or through an intermediary device such as a third-party bridge or hub. Only the user device and local gateway have encryption/decryption keys.

Abstract: A secure connection between a user mobile device and a “Internet-of-Things” network-connected device (e.g. a home appliance or a vehicle) may be provided using an internet gateway residing in the public internet and a local gateway residing in a private network behind a firewall. The user device may receive an input through a software application and may generate an electronic instruction based on the input. The user device may then encrypt the electronic instruction and send the encrypted electronic instruction to the internet gateway over a secure connection (e.g. SSH, TLS). The internet gateway then sends the encrypted electronic instruction to the local gateway, which decrypts the encrypted electronic instruction, interprets it, and generates and transmits a device instruction to communicate with the network-connected device, either directly or through an intermediary device such as a third-party bridge or hub. Only the user device and local gateway have encryption/decryption keys.

Abstract: A secure connection between a user mobile device and a “Internet-of-Things” network-connected device (e.g., a home appliance or a vehicle) may be provided using an internet gateway residing in the public internet and a local gateway residing in a private network behind a firewall. The user device may receive an input through a software application and may generate an electronic instruction based on the input. The user device may then encrypt the electronic instruction and send the encrypted electronic instruction to the internet gateway over a secure connection (e.g., SSH, TLS). The internet gateway then sends the encrypted electronic instruction to the local gateway, which decrypts the encrypted electronic instruction, interprets it, and generates and transmits a device instruction to communicate with the network-connected device, either directly or through an intermediary device such as a third-party bridge or hub. Only the user device and local gateway have encryption/decryption keys.

Abstract: A secure connection between a user mobile device and a “Internet-of-Things” network-connected device (e.g. a home appliance or a vehicle) may be provided using an internet gateway residing in the public internet and a local gateway residing in a private network behind a firewall. The user device may receive an input through a software application and may generate an electronic instruction based on the input. The user device may then encrypt the electronic instruction and send the encrypted electronic instruction to the internet gateway over a secure connection (e.g. SSH, TLS). The internet gateway then sends the encrypted electronic instruction to the local gateway, which decrypts the encrypted electronic instruction, interprets it, and generates and transmits a device instruction to communicate with the network-connected device, either directly or through an intermediary device such as a third-party bridge or hub. Only the user device and local gateway have encryption/decryption keys.

Abstract: A scalable infrastructure containing multiple computer devices may be used for executing a Software-as-a-Service (SaaS) software application. The multiple computer devices of the infrastructure may be divided into several collections of computer devices. Each collection of computer devices is used to execute a different version of the SaaS software application (e.g., a “legacy” version, a “stable” version, and a new “development” version). Different user accounts belonging to a customer organization can then each use one of these SaaS software versions, with requests from each user account being interpreted and routed by an input management module of the infrastructure to the appropriate computer set that executes the appropriate SaaS software version. The appropriate computer set then provides the SaaS service to a user computer device or web server that serves the user account. The SaaS software version used by the user account can be upgraded by the user account.

Abstract: A secure connection between a user mobile device and a “Internet-of-Things” network-connected device (e.g., a home appliance or a vehicle) may be provided using an internet gateway residing in the public internet and a local gateway residing in a private network behind a firewall. The user device may receive an input through a software application and may generate an electronic instruction based on the input. The user device may then encrypt the electronic instruction and send the encrypted electronic instruction to the internet gateway over a secure connection (e.g., SSH, TLS). The internet gateway then sends the encrypted electronic instruction to the local gateway, which decrypts the encrypted electronic instruction, interprets it, and generates and transmits a device instruction to communicate with the network-connected device, either directly or through an intermediary device such as a third-party bridge or hub. Only the user device and local gateway have encryption/decryption keys.

Abstract: A computing system for managing a virtual server includes a machine remote from the virtual server that operates a provisioning service, a credentials server remote from the virtual server, and at least one guest server manager running on a guest host associated with the virtual server. The provisioning service obtains credentials from the credentials server and delivers them to the at least one guest server manager. The server manager acts under the direction of the provisioning service.

Abstract: A transcutaneous electrical nerve stimulation device for treating a user's lower back pain or discomfort is provided. The inventive device comprises a stimulation pad with an array of electrodes therein. A controller communicates with the electrodes to energize/de-energize them in a patterned, sequential manner. The patterned actuation of the electrodes in a sequential fashion provides electrical impulses to the patient's skin, simulating a transverse wave motion. The transverse wave motion simulation provides the user with the effect of the electrical stimulation combined with the mechanical tissue stimulation received in traditional massage therapy, resulting in improved pain and discomfort relief. The device may use programs stored in the controller. Alternatively, the user may manually actuate one or more electrodes as well as manually move the electrode actuation to concentrate on a specific lower back region using an electrostatic touch pad or the equivalent.