Abstract: A computational instance may contain a plurality of vulnerable items and a plurality of change requests, wherein at least some of the vulnerable items are assigned to a vulnerability group, the vulnerable items represent hardware or software components that exhibit known vulnerabilities, and the change requests represent additions, removals, or modifications of the hardware or software components. The computational instance may further include one or more computing devices configured to: generate a representation of a first graphical user interface containing data related to the vulnerability group, generate a representation of a second graphical user interface that allows specification of change request options, generate a representation of a third graphical user interface with data entry fields for a corresponding change request that are auto-populated based on the data related to the vulnerability group, and add a corresponding change request to the plurality of change requests.

Abstract: A computational instance may contain a plurality of vulnerable items and a plurality of change requests, wherein at least some of the vulnerable items are assigned to a vulnerability group, the vulnerable items represent hardware or software components that exhibit known vulnerabilities, and the change requests represent additions, removals, or modifications of the hardware or software components. The computational instance may further include one or more computing devices configured to: generate a representation of a first graphical user interface containing data related to the vulnerability group, generate a representation of a second graphical user interface that allows specification of change request options, generate a representation of a third graphical user interface with data entry fields for a corresponding change request that are auto-populated based on the data related to the vulnerability group, and add a corresponding change request to the plurality of change requests.

Abstract: A computational instance may contain a plurality of vulnerable items and a plurality of change requests, wherein at least some of the vulnerable items are assigned to a vulnerability group, the vulnerable items represent hardware or software components that exhibit known vulnerabilities, and the change requests represent additions, removals, or modifications of the hardware or software components. The computational instance may further include one or more computing devices configured to: generate a representation of a first graphical user interface containing data related to the vulnerability group, generate a representation of a second graphical user interface that allows specification of change request options, generate a representation of a third graphical user interface with data entry fields for a corresponding change request that are auto-populated based on the data related to the vulnerability group, and add a corresponding change request to the plurality of change requests.

Abstract: A computational instance may contain a plurality of vulnerable items and a plurality of change requests, wherein at least some of the vulnerable items are assigned to a vulnerability group, the vulnerable items represent hardware or software components that exhibit known vulnerabilities, and the change requests represent additions, removals, or modifications of the hardware or software components. The computational instance may further include one or more computing devices configured to: generate a representation of a first graphical user interface containing data related to the vulnerability group, generate a representation of a second graphical user interface that allows specification of change request options, generate a representation of a third graphical user interface with data entry fields for a corresponding change request that are auto-populated based on the data related to the vulnerability group, and add a corresponding change request to the plurality of change requests.

Abstract: An induction heating tool has an induction heating coil configured to generate a magnetic field closely matched to the shape of the anchor plate. The induction heating tool includes a base configured to assist an operator in aligning the coil over each anchor plate. In the disclosed embodiments, the base supports a circular induction coil with a structure that clearly shows the position of the induction coil. In the disclosed embodiments, material surrounding the induction coil is removed or made transparent so the operator can see the roof immediately surrounding the induction coil as an additional aid in positioning the tool over anchor plates.

Abstract: A method implemented at a cybersecurity intelligence platform for responding to a cyber-attack is disclosed. The method comprises: detecting an attack at a client device; receiving raw data from the attacked client device, the raw data comprising device data and attack-related data; performing fingerprinting analysis and attacker analysis based on the raw data to generate fingerprinting data and attacker data; issuing an incidence response to the attacked client device; and issuing a federated response to a plurality of client devices belonging to a class based on the fingerprinting data and the attacker data. The client device and a cloud component of the cybersecurity intelligence platform communicate with each other through a bi-directional secure connection that is established as needed. The cybersecurity intelligence platform coordinates responses to cyber-attacks against a plurality of client devices of heterogeneous types.

Abstract: An anti-ransomware system for a computer system has a deception component comprising a decoy module configured to place decoy segments within one or more file systems, a detection component comprising a behavioral analysis module configured to analyze the behavior of a suspected ransomware, and a response component. The response component has a suspend/kill module configured to suspend the suspected ransomware, a restore files module configured to restore files from an on-demand backup system, a capture encryption key module configured to retrieve the encryption used by the suspected ransomware, and a quarantine module configured to quarantine the suspected ransomware on the device and to quarantine the device off the network, to prevent spread of infection. In an embodiment, the detection and/or response components operate within a kernel-level access. The system's detection component may further comprise a machine-learning module, and the decoy segments may be on-demand and dynamic.

Abstract: An induction heating tool that holds voltage or current supplied to the induction tank circuit constant and tracks changes in the other of voltage or current during each induction heating cycle. The disclosed induction heating tool exploits the fact that the resistance an attachment plate increases along with the temperature of the attachment plate. During an induction heating cycle, the attachment plate is magnetically coupled to a work coil and the resistance of the attachment plate is reflected to the circuit. Changes in the resistance of the attachment plate alter the pattern of energy delivery from the work coil to the attachment plate in a predictable way. Calculations accurately predict the temperature of the attachment plate over a wide variety of ambient conditions, including the presence of moisture at the membrane/attachment plate interface. The disclosed induction heating tool produces consistent results without calibration for ambient conditions.

Abstract: A position sensing construction system according to aspects of the disclosure may include a GPS system arranged to cover a jobsite, a local position sensing system in combination with the GPS system, tools equipped with position/movement sensors and communication capability, and software to record positions of installed building components. Local position sensing systems may utilize one or more known fixed points, the position of which is established by GPS or other techniques, and report the position of building components relative to the fixed positions. Installation tools are configured to deliver a position signal corresponding to the position of a building component after installation is completed. Software facilitates communication between system components, records position and other information from tools and generates maps of tagged locations that can be used during construction and later for repair and maintenance of the completed project. The positions and maps may be in three dimensions.

Abstract: An induction heating tool has an induction heating coil configured to generate a magnetic field closely matched to the shape of the anchor plate. The induction heating tool includes a base configured to assist an operator in aligning the coil over each anchor plate. In the disclosed embodiments, the base supports a circular induction coil with a structure that clearly shows the position of the induction coil. In the disclosed embodiments, material surrounding the induction coil is removed or made transparent so the operator can see the roof immediately surrounding the induction coil as an additional aid in positioning the tool over anchor plates.

Abstract: A portable induction heating tool is provided as a membrane roofing tool for use in sealing anchor plates with a heat-activated adhesive to a membrane roofing member. The tool uses two different audible tones so two tools can be used simultaneously on a single roof, while allowing a user to easily distinguish between the operation of both tools. The main housing containing electronics is weather-tight, and requires no forced-cooling devices. The controller automatically performs data logging functions, such as counting the number of anchor plates per job or per day that have been properly placed, counting the number of activation events for a tool's life, tracking the number of faults which occur as the tool is being used, and the controller can identify the type of fault that occurs during operation of the tool. The controller also stores energy setting changes in memory.

Abstract: A portable induction heating tool is provided as a membrane roofing tool for use in sealing anchor plates with a heat-activated adhesive to a membrane roofing member. The tool uses two different audible tones so two tools can be used simultaneously on a single roof, while allowing a user to easily distinguish between the operation of both tools. The main housing containing electronics is weather-tight, and requires no forced-cooling devices. The controller automatically performs data logging functions, such as counting the number of anchor plates per job or per day that have been properly placed, counting the number of activation events for a tool's life, tracking the number of faults which occur as the tool is being used, and the controller can identify the type of fault that occurs during operation of the tool. The controller also stores energy setting changes in memory.

Abstract: A portable induction heating tool is provided as a membrane roofing tool for use in sealing anchor plates with a heat-activated adhesive to a membrane roofing member. The tool uses two different audible tones so two tools can be used simultaneously on a single roof, while allowing a user to easily distinguish between the operation of both tools. The main housing containing electronics is weather-tight, and requires no forced-cooling devices. The controller automatically performs data logging functions, such as counting the number of anchor plates per job or per day that have been properly placed, counting the number of activation events for a tool's life, tracking the number of faults which occur as the tool is being used, and the controller can identify the type of fault that occurs during operation of the tool. The controller also stores energy setting changes in memory.

Abstract: A portable induction heating tool is provided as a membrane roofing tool for use in sealing anchor plates with a heat-activated adhesive to a membrane roofing member. The tool uses two different audible tones so two tools can be used simultaneously on a single roof, while allowing a user to easily distinguish between the operation of both tools. The main housing containing electronics is weather-tight, and requires no forced-cooling devices. The controller automatically performs data logging functions, such as counting the number of anchor plates per job or per day that have been properly placed, counting the number of activation events for a tool's life, tracking the number of faults which occur as the tool is being used, and the controller can identify the type of fault that occurs during operation of the tool. The controller also stores energy setting changes in memory.

Abstract: A circuit fault detector and interrupter which consists of parallel current conduction paths, including a path through a mechanical contactor and a path through a power electronics switch. A fault can be detected by a fault detection circuit within 50 microseconds of the occurrence of the fault, causing the mechanical contactor to be opened and the fault current to be commutated via a laminated, low-inductance bus through the power electronics switch. The power electronics switch is thereafter turned off as soon as possible, interrupting the fault current. The fault current can be interrupted within 200 microseconds of the occurrence of the fault, and the device reduces or eliminates arcing when the mechanical contactor is opened.

Abstract: A portable induction heating tool is provided as a membrane roofing tool for use in sealing anchor plates with a heat-activated adhesive to a membrane roofing member. The tool uses two different audible tones so two tools can be used simultaneously on a single roof, while allowing a user to easily distinguish between the operation of both tools. The main housing containing electronics is weather-tight, and requires no forced-cooling devices. The controller automatically performs data logging functions, such as counting the number of anchor plates per job or per day that have been properly placed, counting the number of activation events for a tool's life, tracking the number of faults which occur as the tool is being used, and the controller can identify the type of fault that occurs during operation of the tool. The controller also stores energy setting changes in memory.

Abstract: A circuit fault detector and interrupter which consists of parallel current conduction paths, including a path through a mechanical contactor and a path through a power electronics switch. A fault can be detected by a fault detection circuit within 50 microseconds of the occurrence of the fault, causing the mechanical contactor to be opened and the fault current to be commutated via a laminated, low-inductance bus through the power electronics switch. The power electronics switch is thereafter turned off as soon as possible, interrupting the fault current. The fault current can be interrupted within 200 microseconds of the occurrence of the fault, and the device reduces or eliminates arcing when the mechanical contactor is opened.

Abstract: A portable induction tool is provided for soldering or brazing sections of metal pipe together. A work coil head (with induction coil) is U-shaped, allowing placement of the head around lengths of pipe, heating a susceptor (e.g., the pipe) to form a joint, and then to be withdrawn after the pipe joint is made. In one form, the tool uses heat pipes to remove thermal energy from the head, and also a heat exchanger for higher-powered units. Power capacitors are generally included with the induction (work) coil to create a tank circuit of a resonant frequency. The induction coil uses Litz wire, copper tubing, or heat pipes with a conductive outer skin to carry the high-current being delivered to the induction coil. The induction coil has a general racetrack configuration, which is typically wound in a U-shape (or as a semicircle) as a single winding, with multiple turns.

Abstract: An improved induction heating apparatus is provided for attaching membrane roofs. A top membrane layer is attached to attachment disks that hold sheets of thermal insulation to the top of roof substrates. The heating apparatus emits a magnetic field that raises the temperature of the disks and a heat-activated adhesive on top of the disks which, after cooling, becomes adhered to the bottom surface of the top membrane layer. The disks in turn are attached via fasteners to the substrate portion of the roof structure. The apparatus includes a set of bottom guides that allow a user to find the attachment disks mechanically, without actually seeing those disks beneath the top membrane layer. A fine locator circuit is provided, using a magnetic field, and the apparatus allows a user to stand upright while operating the apparatus.

Abstract: An improved induction heating apparatus is provided for attaching membrane roofs. A top membrane layer is attached to attachment disks that hold sheets of thermal insulation to the top of roof substrates. The heating apparatus emits a magnetic field that raises the temperature of the disks and a heat-activated adhesive on top of the disks which, after cooling, becomes adhered to the bottom surface of the top membrane layer. The disks in turn are attached via fasteners to the substrate portion of the roof structure. The apparatus includes a set of bottom guides that allow a user to find the attachment disks mechanically, without actually seeing those disks beneath the top membrane layer. A triple-racetrack coil provides improved positioning tolerance in all directions, for coil placement during a heating event. An optional temperature sensor can “test” the heating effect on the top membrane layer, during/after a heating event.