Abstract: A compound sheath comprising: an endoscopic channel arranged for accepting an elongated endoscopic imaging device; a parallel use channel arranged for accepting a catheter-based tool, and a multi-channel hub that couples to the proximal end of the parallel use channel comprising: a rinse port that couples to a fluid reservoir device that injects fluid; a withdrawal port that couples to a vacuum forming device that removes fluid; a tool port for passing a catheter-based tool; wherein the multi-channel hub establishes a fluid channel for fluid communication between the parallel use channel and the rinse port or the withdrawal port, and a mechanical channel for passing therethrough a catheter-based tool between the parallel use channel and the tool port such that fluid from the rinse port or the withdrawal port and the catheter-based tool of the tool port are simultaneously passing all along the parallel use channel.

Abstract: A catheter, comprising: a flexible tubular member having at least one lumen therethrough and a proximal end and a distal end; a plurality of conductive cables extending through at least one of the at least one lumen; and at least one electrically operated component, attached at the distal end and powered by at least one electrical current driven on at least one of the plurality of conductive cables. Some of the plurality of conductive cables are attached to the distal end such that the flexible tubular member is deformed by exerting at the proximal end a tensile force on one of the some of the plurality of conductive cables and a compressive force on another of the some of the plurality of conductive cables, while the at least one electrical current is driven on the some of the plurality of conductive cables.

Abstract: A compound sheath comprising: an endoscopic channel arranged for accepting an elongated endoscopic imaging device; a parallel use channel arranged for accepting a catheter-based tool, and a multi-channel hub that couples to the proximal end of the parallel use channel comprising: a rinse port that couples to a fluid reservoir device that injects fluid; a withdrawal port that couples to a vacuum forming device that removes fluid; a tool port for passing a catheter-based tool; wherein the multi-channel hub establishes a fluid channel for fluid communication between the parallel use channel and the rinse port or the withdrawal port, and a mechanical channel for passing therethrough a catheter-based tool between the parallel use channel and the tool port such that fluid from the rinse port or the withdrawal port and the catheter-based tool of the tool port are simultaneously passing all along the parallel use channel.

Abstract: A system and method for automatically navigating an in vivo imaging capsule in a body lumen. The system comprises an imaging capsule including an imager, optional pressure sensor for producing data of forces acting on the imaging capsule in vivo, and a transmitter to transmit image, positioning and pressure data from the capsule to an external unit. A positioning system for providing current position data of the capsule in vivo may be included in the capsule and/or external to it. External magnets may generate a magnetic field to scan a body lumen by causing a predetermined motion pattern of the imaging capsule within a region proximate to its current position, and generate a driving force to propel the imaging capsule according to a calculated target direction vector. A processor may calculate a target direction vector for propelling the imaging capsule based, on unique patterns identifiable in one or more images.

Abstract: According to some embodiments of the present invention there are provided a method for calculating a volume of an individual falling drop of liquid by analyzing electromagnetic radiation (EMR) reception, the method comprising projecting electromagnetic radiation (EMR) from an EMR source, measuring the EMR using at least one EMR sensor when the EMR is partially interfered with by a drop falling between the EMR source and the EMR sensor, calculating a plurality of widths parallel to a vertical axis of the drop, each one of the plurality of widths is calculated according to a reception of a time correlated measured portion of the EMR, and calculating a volume of the drop by combining the plurality of widths and a velocity of the drop when the drop is falling between the EMR source and the EMR sensor.

Abstract: There is provided a system for managing reflux during an enteral feeding, comprising: (i) a non-transitory memory having stored thereon a code for execution by at least one hardware processor of a computing device, the code comprising: code for receiving electrical signals outputted by at least one reflux event sensor disposed within a digestive system of a patient; code for determining a gastric reflux event based on an analysis of the electrical signals; code for outputting instructions to pause enteral feeding of the patient by a feeding controller that regulates enteral feeding of the patient using an enteral feeding tube positioned within the digestive system of the patient; and (ii) an evacuation controller that directs back-flow of digestive contents from the digestive system of the patient to an external evacuation reservoir through an evacuation tube.

Abstract: The present application in some embodiments relates to methods for reducing noise and/or clutter when measuring a spectrum, particularly but not only for OCT imaging. In some embodiments a light source is synchronized with a detector. For example a narrow band light source is synchronized with a narrow band detector. For example, the light source may scan over multiple frequency bands and/or the detector may be tuned to a frequency band synergetic to the band of the light source. For example the light source and detector may be tuned to overlapping narrow bands. Optionally the detector has a sensor set for each frequency band. Optionally some sensor sets are individually resettable. For example each set may have a reset circuit. For example, a sensor set for a band not currently being measured is deactivated.

Abstract: A feeding tube device for postpyloric feeding that comprises a bendable feeding tube having a proximal end, a central portion and, and a distal end and a delivery lumen therealong for conducting a digestible substance therethrough, an imaging unit having an image sensor mounted on a tip of the distal end to image an imaging space thereinfront, and a tilting mechanism for tilting the distal end in relation to the central portion. The distal end has at least one lateral tilt and feeding opening therealong for delivering the digestible substance therethrough, the at least one lateral tilt and feeding opening are laid out so that when the tilting mechanism tilts the distal end the at least one lateral tilt and feeding opening narrows.

Abstract: A naso/orogastric device that comprises a naso/orogastric tube sized and shaped for being disposed within the esophagus so that at least a distal segment thereof being placed in the stomach lumen of a patient and at least one self expending element disposed around a peripheral surface of the naso/orogastric tube and having a first thickness in a compressed state and a second thickness in an expanded state, the at least one self expending element switching from the compressed state to the expanded state when absorbing moisture. The first thickness is thinner than the second thickness.

Abstract: An add-on device and method for an Endo-Tracheal Tube (ETT), the add-on device including a lengthy body having a major arc-shaped cross section sized and shaped to tightly fit over an ETT, at least one longitudinal cavity passing along the lengthy body, including a distal suction cavity ending with a suction inlet at a distal end of the lengthy body; and a distal suction outlet channel extending from a proximal end of the lengthy body, the channel is a continuous extension of the distal suction cavity and configured to provide suction to the distal suction cavity. The add-on device senses moisture at a distal end of the add-on device, and in case of detection of excessive wetness, provides suction to the distal end of the device through a cavity passing along the device, the suction is provided via a suction outlet channel extending from a proximal end of the device.

Abstract: An in vivo capsule has a cauterization element that may be deployed by physician while in vivo for cauterizing a lesion, such as bleeding. Energy is transferred from outside of the patient's body to the capsule and specifically to the ablating element, such as via a resonance circuit. Accordingly, it is the object of the present invention to provide a method and apparatus for precisely cauterizing or ablating tissue in-vivo. Embodiments of the invention may provide an in-vivo device having a cauterization or ablation element incorporated therein and a system and method for controlled navigation of the in-vivo cauterization device through a body lumen.

Abstract: The present application in some embodiments relates to methods for directing a procedure in a region of interest (ROI) using an access tube for introducing an optical coherence tomography (OCT) scanning head into the ROI and/or scanning the ROI with the scanning head. Optionally the scanning head is retracting from ROI via the access tube while the distal end of the access tube remains in the ROI and a second tool is introduced into ROI via the access tube. An access tube may include a standard cannula and/or some or all of a distal opening, a proximal opening and/or a window. All or part of an OCT engine and/or a control system (for example including a location indicator for 3D collage image composition) may be attached to the tool. In some embodiments an OCT tool, control system and/or OCT engine may be fully retractable from the access tube.

Abstract: The present application in some embodiments relates to methods for reducing noise and/or clutter when measuring a spectrum, particularly but not only for OCT imaging. In some embodiments a light source is synchronized with a detector. For example a narrow band light source is synchronized with a narrow band detector. For example, the light source may scan over multiple frequency bands and/or the detector may be tuned to a frequency band synergetic to the band of the light source. For example the light source and detector may be tuned to overlapping narrow bands. Optionally the detector has a sensor set for each frequency band. Optionally some sensor sets are individually resettable. For example each set may have a reset circuit. For example, a sensor set for a band not currently being measured is deactivated.

Abstract: Embodiments of the present invention are directed to devices, systems and methods for delivering therapeutic fluid (e.g., insulin) into the body, including a skin adherable cradle, for retaining a therapeutic fluid dispenser for delivering a therapeutic fluid to a user.

Abstract: A system for positioning of a naso/orogastric feeding tube. The system comprises an interface adapted to receive a combined impedance measure comprising a plurality of impedance readings from a plurality of impedance sensors disposed in a plurality of segments along a lateral surface of a naso/orogastric feeding tube; wherein one of the plurality of segments is located to be at least 1 centimeters above another of the plurality of segments when the naso/orogastric feeding tube is in a feeding position, a code store for storing a code, a processor coupled to the interface and the program store for implementing the stored code, the code comprising code to calculate an estimation of a position of the naso/orogastric feeding tube according to the combined impedance measure, and code to generate instructions for a caregiver to relocate the naso/orogastric feeding tube according to the estimation.

Abstract: A device for cryotherapy treatment of gastrointestinal lesions includes a cooling member that may be attached to a first tube for pressurizing cryogenic fluid through the tube and into the cooling member through nozzles located at the distal end of the first tube. A second tube may be attached to the cooling member for evacuating the cryogenic fluid from within the cooling member, following the fluid's expansion once it exits the first tube. The cryotherapy device may be attached to an endoscope such that the first tube may be passed through the endoscope's working channel, while the second tube may be passed along the endoscope's circumference. The cryotherapy device may further comprise securing means attached to the first tube, for securing the first tube to the endoscope's working channel, thus preventing free rotation of the cryotherapy device within the endoscope, relative to the rotation of the endoscope.

Abstract: Embodiments of the present invention are directed to devices, systems and methods for delivering therapeutic fluid (e.g., insulin) into the body, including a skin adherable cradle, for retaining a therapeutic fluid dispenser for delivering a therapeutic fluid to a user.

Abstract: A compound sheath comprising: an endoscopic channel arranged for accepting an elongated endoscopic imaging device; a parallel use channel arranged for accepting a catheter-based tool, and a multi-channel hub that couples to the proximal end of the parallel use channel comprising: a rinse port that couples to a fluid reservoir device that injects fluid; a withdrawal port that couples to a vacuum forming device that removes fluid; a tool port for passing a catheter-based tool; wherein the multi-channel hub establishes a fluid channel for fluid communication between the parallel use channel and the rinse port or the withdrawal port, and a mechanical channel for passing therethrough a catheter-based tool between the parallel use channel and the tool port such that fluid from the rinse port or the withdrawal port and the catheter-based tool of the tool port are simultaneously passing all along the parallel use channel.

Abstract: There is provided a computer-implemented method for calculating a gastric emptying rate from a stomach lumen into a small intestine of a patient, comprising: using at least one processor for executing the following during an enteral tube feeding of a stomach of the patient by a feeding mechanism: analyzing outputs of at least one stomach sensor located within the stomach for detecting a stop feeding condition; pausing the enteral tube feeding in response to a detection of the stop feeding condition; after a predefined period of time, restarting the enteral tube feeding until the stop condition is redetected by an analysis of said outputs; calculating a gastric emptying rate based on an amount of feeding content delivered during a period between the restarting and the redetection; and instructing the feeding mechanism to adapt a feeding rate of the enteral tube feeding according to the gastric emptying rate.

Abstract: There is provided a urine analysis device for bed side monitoring of a patient, comprising: an inlet sized and shaped for fluid communication with a urine collecting tube that receives urine from a patient; a drip chamber through which the urine flows towards an outlet; at least one sensor that analyzes each drop of urine and estimates a respective volume of each drop; a timing element that measures a reference time for each drop; a program store storing code; and at least one processing unit coupled to the program store for implementing the stored code, the code comprising: code to calculate a urine output flow rate of the urine output flowing through the chamber according to the estimated volume of each drop of the urine and the reference time for each drop; and code to output the urine output flow rate.