Abstract: The invention discloses a pipeline detection device, which comprises: a mounting frame provided in a three-layer structure; a first wire spool mounted at a middle layer of the mounting frame and wound with a first climbing wire, wherein the first climbing wire is connected to a first detection camera, and a photographing direction of the first lens extends along an axial direction of the first climbing wire; a second wire spool mounted at a bottom layer of the mounting frame, wherein the second climbing wire is connected to a second detection camera, a photographing direction of the second lens extends along an axial direction of the second climbing wire, and a photographing direction of the third lens extends along a radial direction of the second climbing wire. The invention solves the problem that the existing pipeline detection device cannot adapt to the detection requirements of different pipeline environments.

Abstract: A pipeline inspection device, including a rotatable drum housing a cable, where the cable is extendable into a pipe, a camera positioned on an end of the cable, and a hub housing electrical components of the pipeline inspection device and including a battery housing. A stand includes a mounting assembly having a first portion rotatably supporting the drum and a second portion supporting the hub within an interior of the drum, the second portion including a core, where the hub is removably coupled to the mounting assembly via the core. The hub is removably coupled to the mounting assembly by a first engagement member on the hub and a second engagement member on the core.

Abstract: Self-leveling inspection system methods and devices for use in inspecting buried pipes or other cavities are disclosed. The system includes a camera head with an image sensor, an orientation sensor, and a signal processing module including a processing programmed to receive an image from the image sensor, and an orientation signal from the orientation sensor, generate a second image based at least in part on information provided from the orientation sensor, and store the second image in a non-transitory memory.

Abstract: Video inspection systems are disclosed. In one embodiment a video camera for use in a pipe inspection system includes a camera head including an outer housing, a camera module assembly including video and non-video sensors, a processing circuit, and a data link receiver.

Abstract: A pipeline inspection device including a stand, a drum rotatably supported by the stand, the drum including an opening in a front wall of the drum, a cable disposed at least partially within the drum, the cable including a camera disposed on a distal end of the cable, the camera and the cable configured to be directed into a conduit, a hub including a body at least partially insertable into the opening of the drum, the hub being electrically coupled to the cable when inserted into the opening, a wireless communication module housed within the hub, and a battery supported by the hub, the battery and the hub being removable from the drum as a single unit.

Abstract: Systems and methodologies are disclosed to detect a leak in a duct system or other closed loop systems. The system and methodologies use a light source to detect a leak in a duct system, e.g., the ductwork of a HVAC/R system.

Abstract: The present invention is applicable to the technical field of marine equipment and provides a hybrid-driven mooring chain cleaning and structural inspection underwater robot and a working method thereof. The hybrid-driven mooring chain cleaning and structural inspection underwater robot includes at least one frame structure; a buoyancy system disposed on the frame structure and used for adjusting the buoyancy of the robot; a driving system disposed on the frame structure; underwater observation and communication systems disposed on the frame structure and used for underwater observation; a cleaning system disposed on the frame structure and used for cleaning a mooring chain; an active clasping/unclasping system disposed on the frame structure; and a structural inspection system disposed on the frame structure.

Abstract: There is provided a pipeline inspection device stabilizer apparatus for use with a pipeline inspection device configured to assess the condition of a pipeline while being carried by a moving liquid in the pipeline, the device including an inspection module, the apparatus comprising a forward spacer secured in front of the inspection module and a rear spacer secured behind the inspection module, each of the front spacer and the rear spacer configured to move between a collapsed position close to the device and an outward position extending away from the device and towards the pipeline wall, wherein when in the outward position the front and rear spacers contact the pipeline wall to distance the inspection module from the pipeline wall and maintain axial alignment or substantial axial alignment of the inspection module with the longitudinal center of the pipeline.

Abstract: Video inspection systems are disclosed. In one embodiment a video camera for use in a pipe inspection system includes a camera head including an outer housing, a camera module assembly including video and non-video sensors, a processing circuit, and a data link receiver.

Abstract: A pipeline inspection system is described. The system comprises a body, cameras, support members, and light sources. The cameras are coupled to the body and configured to obtain image information related to an interior surface of the pipe. The support members extend away from the body in a radial direction to contact the interior surface of the pipe and support the body. An individual support member has a first end coupled to the body, and a second end configured to contact the interior surface of the pipe. The light sources are configured to light the interior surface of the pipe. They are coupled to the support members at or near the second end such that the light sources are located in one or more radial positions near the interior surface of the pipe, separated from the one or more cameras and the body by the one or more support members.

Abstract: A pipe inspection and/or maintenance system is provided, having a control device, an image recording device and a feed device. The image recording device can be mechanically coupled to the feed device, and the image recording device and the feed device are operatively connected to one another via a first communication link. The feed device and the control device are operatively connected to one another via a second communication connection. The feed device has a processing unit which is operatively connected to the first communication connection and to the second communication connection, and the processing unit is adapted to receive image data from the image recording device by way of the first communication link, to process the received image data, and to transmit the processed image data to the control device by way of the second communication link. A corresponding method is also provided.

Abstract: Inspection assemblies that include one or more sideview cameras for capturing images of an interior surface of a pipe or conduit include an elongate housing, a sideview camera within the housing and arranged to capture an image of a region within a field of view external to the housing, and a viewport element mounted in the housing and located such that light is transmitted through the viewport element and into said sideview camera, wherein the viewport element has a concave internal surface, closer to the camera, and a convex external surface, further from the camera, and wherein the centre of the radius of curvature of the internal surface is closer to the viewport element than the centre of the radius of curvature of the external surface.

Abstract: Systems and methods for determining cross-section profiles of underground fluid conveyance structures involves a memory configured to store a profile scan dataset of at least one pipe and at least one pipe template. A processor is configured to compare the profile scan dataset to one or more templates. Profile deviations in a pipe profile are determined using the comparison. A location and an areal measurement of the profile deviations is determined. A user interface is configured to present the profile deviations to a user.

Abstract: An embodiment provides a method of controlling a pipe inspection robot, including: detecting, from a headset, brain activity of a user wearing the headset; binning the brain activity of the user into one of a plurality of different bins; the binning comprising accumulating brain activity values for a period of time to establish a brain activity value for the period of time; determining, using the brain activity value, if a threshold level of brain activity has accumulated over the period of time; after the threshold level has been accumulated, identifying a control action to be sent to the pipe inspection robot based on the brain activity value; and controlling the movement of the pipe inspection robot using a control signal associated with the control action. Other embodiments are described and claimed.

Abstract: The field of inspection assemblies and in particular to inspection assemblies that include light sources for illuminating a field of view of a camera including an elongate housing having a longitudinal axis, a camera mounted in the housing and arranged to capture an image of a region within a field of view external to the housing, a light source mounted in the housing and arranged to illuminate the field of view, and a window element mounted in the housing, the window element comprising a light transmitting material and being located such that light emitted by the light source passes through the window element before illuminating the field of view. The window element has an internal surface, closer to the light source, and an external surface, further from the light source, and the external surface comprises a concave region.

Abstract: In one embodiment, a method for mapping pipes under inspection includes generating, from a video inspection camera inserted into a pipe, one or more images of the interior of the pipe, generating video camera velocity data, and determining, based at least in part on the one or more images and the velocity data, an estimation of the interior size of the pipe.

Abstract: A pipeline inspection system including a first drum including a first cable having a first camera disposed on a distal end of the first cable, where the first cable is received within an interior of the first drum and is configured to be directed into a conduit, a second drum including a second cable having a second camera disposed on a distal end of the second cable, where the second cable is received within an interior of the second drum and is configured to be directed into a conduit, and a hub housing electrical components for operation of the pipeline inspection system, where the hub is removably received in the interior of the first drum, and where the hub is selectively removable from the first drum and insertable into an interior of the second drum.

Abstract: A system for use in maintaining a wind turbine blade includes a motorized apparatus sized to fit within an interior cavity of the wind turbine blade and configured to travel along a length of the wind turbine blade on an interior surface when the wind turbine blade is in a substantially horizontal position. The motorized apparatus includes a body, a drive system configured to move the body, and a camera coupled to the body. The camera is configured to capture at least one image of the interior surface. The system also includes a controller configured to map the at least one image onto a model of the interior surface. The system also includes an operator interface including a display device. The operator interface is configured to display the model on the display device and receive user input allowing an operator to interact with the model.

Abstract: Systems and methodologies are disclosed to detect a leak in a duct system or other closed loop system. The system and methodologies use a light source to detect a leak in a duct system, e.g., the ductwork of a HVAC/R system.

Abstract: The product inspection system comprises an inspection information collecting unit which collects inspection information acquired from an inspection target, an inspection time acquisition unit which acquires an inspection time that the inspection information was acquired, a recording unit which mutually associates and records the inspection information collected by the inspection information collecting unit and the inspection time acquired by the inspection time acquisition unit, and a display control unit which displays the inspection information recorded in the recording unit on a display terminal.

Abstract: An asymmetric bearing device automatically decreases, without the need for manual adjustment, an amount of friction exerted against rotation of a drum or other mechanism upon reversal of the direction of rotation of the drum.

Abstract: A first light projector projects first slit light that spreads in the width direction of a vehicle in a direction other than a direction parallel to a contact ground surface. A second light projector projects second slit light that spreads in the width direction of the vehicle in a direction parallel to the contact ground surface. An obstacle detection unit detects an obstacle using a captured image of an area surrounding the vehicle where the first slit light and the second slit light are projected.

Abstract: A system for inspecting pipelines utilizing a wireless device preferably includes a push cable inspection system, a data display unit, an interface software program and a WiFi transmitter. The push cable inspection system includes a push cable, a distance encoder and a cable reel. A video camera is attached to an end of the push cable. The distance encoder measures the distance traveled by the push cable. The data display unit receives an output from the distance encoder and the video camera. The data display unit overlays a changing numeric distance on the video feed to create a numeric video feed. The numeric video feed is transmitted by the WiFi transmitter to the wireless device. The interface software program is installed on the wireless device. The interface software program receives the numeric video feed from the data display unit and stores the numeric video feed on the wireless device.

Abstract: Provided is a rinsing head for a pipe or sewer inspection system, comprising imaging means arranged at the front end and rinsing means arranged axially behind the imaging means. The rinsing means comprises a number of rinsing nozzles with openings arranged on its lateral surface and spaced apart from each other circumferentially. The rinsing nozzles are connected via to an inlet opening for pressurized water provided at the rear end of the rinsing means. A WLAN module is arranged within the rinsing head and coupled to a camera module of the imaging means operatively. An antenna unit of the WLAN module is arranged axially behind the rinsing nozzles with at least one antenna arranged at least partially radially around the inlet opening for pressurized water. The WLAN module and the antenna unit are adapted to transmit image and/or video data provided by the camera module to a control/display means.

Abstract: An inspection system for inspecting an internal component of a machine includes a remote controlled vehicle constructed to fit inside a desired portion of the machine; a controller operative to control an operation of the remote controlled vehicle; a tether coupled to the controller and to the remote controlled vehicle, wherein the tether is operative to transmit control signals from the controller to the remote controlled vehicle; and an imaging device extending from a front portion of the remote controlled vehicle and operative to view the internal component. The imaging device has a flexible articulating tip spaced apart from the front portion of the body.

Abstract: A pipeline inspection device including a cable having a camera disposed on a distal end of the cable, where the camera and the cable are configured to be directed into a conduit. A first drum includes a rear wall, a front wall, and a side wall defining an interior, where the front wall has an opening providing access to the interior, and where the cable is disposed at least partially within the first drum. A stand supports the first drum, where the first drum is rotatably coupled to the stand. A hub houses electrical components of the pipeline inspection device. The hub is removably received in the interior of the first drum via the opening, where the hub is selectively removable from the first drum and insertable into an interior of a second drum.

Abstract: A method and an arrangement for visual inspection and logging of oil and/or gas well pipes are provided. The arrangement comprises an inspection tool arranged to record, during the visual inspection, a plurality of images by recording means comprising gat least one fisheye lens. The method comprises guiding the inspection tool in an oil and/or gas well pipe, and to record a plurality of fisheye images during the guiding.

Abstract: This disclosure describes embodiments of a probe assembly and an inspection system for ultrasonic inspection. Designs for the probe assembly package components to fit into a bore of a hollow target. These designs may incorporate electronics to generate waves and to detect a wide selection of anomalies (e.g., transversal crack, longitudinal crack, and volumetric flaws) that can form in the hollow target. The probe assembly provides support structure to manipulate and operate these electronics in the bore. This support structure facilitates communication of signals, e.g., from transducer elements that operate as a phased array. The probe assembly also includes a fluid circulating system and coupling system that permits the probe device to detach and reattach to match the probe device (and other parts of the probe assembly) to the size of the bore. These systems allow for fluid and electrical signals to circulate through the probe assembly.

Abstract: A deployable docking station for supporting at least one mobile robot is provided. The deployable docking station includes a housing and an anchor connected to the housing. The anchor can engage with a surface to maintain the position of the deployable docking station. The deployable docking station is further configured to couple and decouple with the at least one mobile robot. The deployable docking station can be configured to selectively alternate between a first and second condition. In the first condition, the deployable docking station is coupled with the at least one mobile robot and the at least one mobile robot can transport the deployable docking station to a desired location on the surface. In the second condition, the deployable docking station is de-coupled from the at least one mobile robot.

Abstract: Video inspection systems with moveable and dockable CCUs are disclosed. In one embodiment a video inspection system includes a tubular frame element, a camera control unit (CCU), and a docking apparatus mechanically coupled to the frame element so as to allow the CCU to rotate and/or be detached are attached via a user action.

Abstract: Internal components of power generation machinery, including for example gas or steam industrial turbines as well as generators, are inspected a camera inspection system that is inserted and positioned within the machinery by an elongated cable carrier that has restricted cable flexure along a two-dimensional carrier cable flexure motion plane. A camera head that retains the camera is coupled to a distal end of the cable carrier. Embodiments also include a connector block coupled between the cable carrier distal end and the camera head. The connector block has a pivot axis coupled to the camera head for swinging the camera head along a camera head range of motion path that intersects the cable carrier flexure motion plane. Embodiments include a camera head swing motion drive system for selectively positioning the camera head along the camera head range of motion path.

Abstract: A camera based sewer evaluation vehicle has an electro-scan pipe defect detection system integrated therein. A cable and winch of the camera based system are utilized to support either a camera or an electro-scan probe. A signal transmitted through the cable is passed along for processing of signals received through the cable for final output and analysis, such as on a common computer. To facilitate electro-scan probe based pipe defect detection, a ground rod is utilized. The system can include a funnel plug downstream of the electro-scan probe for interconnection to a haul line and to assist in maintaining a liquid filled status in the pipe adjacent the electro-scan probe. A downstream bypass funnel plug or a blockade of some form can operate within and past a downstream manhole adjacent the pipe to keep the pipe filled with liquid.

Abstract: In one embodiment, a pipe inspection system includes a push-cable, a sonde coupled to the push-cable, a locator configured to receive signals from the sonde and generate positional information associated with the pipe based at least in part on the received sonde signals, a processing element configured to generate mapping information from the position information, and a non-transitory memory for storing the generated mapping information.

Abstract: A visual inspection system [100] includes a remote end [110] that is moved through a conduit [1] with a flexible pushrod [400]. The remote end [110] having at least one carriage assembly [130] with encoders [140] indicating a distance traveled within the conduit [1]. The visual inspection device [100] has a longitudinal camera [150] to identify view down the length of the conduit [1], but also has at least one transverse camera [160] adapted to visually inspect an inside surface [3] of the conduit [1]. Also, the transverse camera [160] may be used to inspect other conduits that connect to conduit [1].

Abstract: An ink cartridge adopts a construction in which an air seal and an ink seal are arranged on the cartridge side and in which sealing between the ink cartridge and the recording apparatus is performed with a radial seal.

Abstract: An inner diameter measuring device, which comprises an object to be measured supporting carriage (3), being arranged movably along a rail (2) installed on an upper surface of a bed (1) and used for holding a hollow pipe to be measured (13), a supporting shaft (18) extended from a base end to a forward end of the bed, being insertable into the pipe to be measured and being cantilever-supported, and an inner diameter measuring unit (19) installed on a forward end of the supporting shaft, being insertable into the pipe to be measured and for measuring the inner surface of the pipe to be measured under inserted condition, wherein the pipe to be measured and the inner diameter measuring unit are installed along a same reference line, the object to be measured supporting carriage is movable from a condition where the inner diameter measuring unit is withdrawn from the pipe to be measured to a condition where the inner measuring unit reaches a base part of the pipe to be measured, the inner diameter measuring unit i

Abstract: A pipe inspection system may include a cable storage drum and a length of resilient flexible push-cable. An asymmetric bearing device supports the cable storage drum for rotation about the rotational axis in a pay-out direction and an opposite pay-in direction. In one embodiment, the asymmetric bearing device automatically decreases, without the for manual adjustment, an amount of friction exerted against rotation of the cable storage drum upon reversal of the direction of rotation of the cable storage drum from the pay-out direction to the pay-in direction.

Abstract: A portable camera controller for use with a pipe inspection system is disclosed. The controller may include an onboard display, USB ports, wireless capability, and a built-in transmitter for energizing a pipe-inspection cable for tracing purposes. The camera controller may be configured to support auto-logging and automatic report generation of pipe inspection operations and associated locating operations. The camera controller may be self-grounding using conductive and/or capacitive grounding circuits and an associated transmitter may be used without a separate grounding stake through use of the conductive and/or capacitive grounding circuits.

Abstract: Push-cables and associated apparatus and systems are disclosed. In one embodiment, a push-cable assembly for use with a pipe inspection system may include a push-cable element having a proximal end and a distal end, with a spring assembly having varying flexibility coupled to or near the distal end. The spring assembly may include an outer coiled spring having a proximal and a distal end, and an inner coiled spring nested at least partially within the outer coiled spring. A camera head and/or other elements such as a cutting or jetting apparatus may be coupled at or near the distal end.

Abstract: Systems for inspecting pipes or cavities including a camera head having an array of two or more imaging elements with overlapping Fields of View (FOV) are disclosed. The camera head may include one or more light source elements, such as LEDs, for providing illumination in dimly lit inspection sites, such as the interior of underground pipes. The imaging elements and LEDs may be used in conjunction with a remote display device, such as an LCD panel of a camera control unit (CCU) or monitor in proximity to an operator, to display the interior of a pipe or other cavity.

Abstract: Camera heads having multiple image sensors, configured to provide digitally articulated images or video, at adjustable resolutions and/or offsets and orientations, to a camera control unit (CCU) or other electronic computing system for display, storage, and/or transmission to other systems are disclosed.

Abstract: A camera skid and thrust nozzle assembly for supporting a camera while being positioned in a tubular pipe or conduit spaced. from any wall of the conduit and permitting movement of the assembly along the conduit. The assembly includes a cage rotatably fastened to a high pressure fluid tractor nozzle, wherein the cage can rotate about an axis through the tractor nozzle. A camera support structure is fastened within the cage for rotation of the support structure about the axis independent of rotation of the cage. The camera support structure has a weight attached thereto for urging rotational orientation of the camera support structure within the cage according to a sensed external gravitational force on the assembly.

Abstract: A spray nozzle with a camera comprising: (a) a nozzle having an adapter for attaching a hose and one or more jets; and (b) a camera operatively connected to said nozzle, said camera comprising at least: (i) a water-proof housing having a transparent window on one end of said housing, said housing being configured for attachment to said nozzle; (ii) an imaging device in said housing with a field of view through said window; (iii) one or more lamps to illuminate at least a portion of said field of view; and (iv) a memory device operatively connected to said imaging device.

Abstract: An inspection system configured for “no-blow” use in a pressurized gas pipeline includes a push rod wound around a spool for convenient deployment and portability. A camera disposed on one end of the push rod is configured to relay images back to a monitor. A motor is configured for remote actuation by an operator, and provides for self-propelled movement of the camera in the pipeline. An entry tube is configured for sealed entry into the pipeline to facilitate entry of the camera and push rod. A guide shoe at the end of the entry tube provides a smooth transition for the camera and push rod as it leaves the entry tube and enters the pipeline. An automatically deployable and retractable positioning system is used to keep the camera away from an interior surface of the pipeline, and in the case of smaller pipelines, centers the camera within the pipeline.

Abstract: Among other things, techniques, systems, methods and computer readable storage medium with executable instructions relating to the viewing of data from and the controlling of the operation of an inspection camera at a remote computing device that is connected to the inspection camera via a network are described. Various features may be realized by using an installable software application or a web browser at the remote computing device. Features of the invention also pertain to a smart cable storage drum comprising a push cable, an inspection camera, and a network transceiver configured to communicate with a remote computer.

Abstract: A portable camera controller for use with a pipe inspection system is disclosed. The controller may include an onboard display, USB ports, wireless capability, and a built-in transmitter for energizing a pipe-inspection cable for tracing purposes. The camera controller may be configured to support auto-logging and automatic report generation of pipe inspection operations and associated locating operations. The camera controller may be self-grounding using conductive and/or capacitive grounding circuits and an associated transmitter may be used without a separate grounding stake through use of the conductive and/or capacitive grounding circuits.

Abstract: A portable inspection unit is provided. The portable inspection unit may include a unit body, a flexible cable, and an imager housing, The flexible cable may extend from the unit body and the imager housing may be disposed at a distal end of the flexible cable. The portable inspection unit may be configured to receive an actuating accessory.

Abstract: Camera heads and associated rotating contact assemblies are disclosed. In one embodiment a slip-ring assembly includes a rotating contact assembly including slip rings having a cylindrical ring assembly and a flexible or bendable brush assembly. Brush elements may flexed to remain in contact with corresponding ring assembly electrical contacts. Bush contacts may be coated or have attached contact assemblies to increase hardness and oxide resistance with materials such as palladium nickel, rhodium, or hard gold, though a variety of other materials may be used as a suitable coating.

Abstract: A light dispersal unit or light pipe for a video imaging device includes a transparent body. The body includes a tubular ring having an outer diameter and a through bore defining an inner diameter. Four equidistantly spaced raised portions are homogenously joined to the tubular ring. The ring has a semi-circular shape corresponding to the outer and inner diameters of the tubular ring. The raised portions each include a slot created between opposed first and second extending portions, the slot having an end wall and opposed first and second slot walls. A rounded end face defines a free end of each of the first and second extending portions facing away from the tubular ring. The rounded end face includes at least two curved portions each having a different radius of curvature. The light pipe can be a tapered light pipe having a flange portion for mounting the tapered light pipe.

Abstract: In one embodiment, a self-leveling camera head may include an eccentric leveling weight assembly that is supported inside an outer housing for free rotation about an axis. The leveling weight assembly may be removably coupled to a separate camera module assembly supported inside the outer housing for rotation about the axis so that its images will be “upright,” i.e. earth normal.