Abstract: An acoustic lithotripsy system can deliver acoustic energy to a target located within a patient. The system may include an acoustic transducer, the acoustic transducer including a first vibrator and a second vibrator. A system may include an impact member, coupled to the acoustic transducer, the impact member operable at a lower frequency than each of the first vibrator and the second vibrator. The system may further include controller circuitry, coupled to the acoustic transducer and the impact member, the controller circuitry including: an acoustic actuation control output, configured to selectively provide to at least one of the first vibrator or the second vibrator, an actuation control signal to control ablation of the target by the selected at least one of the first vibrator or the second vibrator. The first vibrator and/or or the second vibrator may be selected to operate with or without the impact member.

Abstract: A lithotripsy system can include a lithotripsy device and controller circuitry. The device for acoustic calculi fracture can include an acoustic treatment probe for providing acoustic energy along the probe to treat one or more calculi and an evacuation pathway extending at least partially via the prob, for removing at least a portion of the one or more calculi via the evacuation pathway. The controller circuitry, coupled to the lithotripsy device, can be configured to receive an indication of clogging of the evacuation pathway and at least one of initiate or adjust a anti-clogging mode for changing at least one characteristic of evacuation via the evacuation pathway in response to the received indication of clogging.

Abstract: A lithotripsy system can include a lithotripsy device and controller circuitry. The device for acoustic calculi fracture can include an acoustic treatment probe for providing acoustic energy along the probe to treat one or more calculi and an evacuation pathway extending at least partially via the prob, for removing at least a portion of the one or more calculi via the evacuation pathway. The controller circuitry, coupled to the lithotripsy device, can be configured to receive an indication of clogging of the evacuation pathway and at least one of initiate or adjust a anti-clogging mode for changing at least one characteristic of evacuation via the evacuation pathway in response to the received indication of clogging.

Abstract: A lithotripsy device can comprise a handpiece, a lithotripsy probe extending from the handpiece, an energization source configured to deliver an energy to a distal end of the lithotripsy probe, a suction passage extending from the distal end of the probe and through the handpiece, and a capture device comprising a container comprising a storage space, an entry port configured to couple to the handpiece at the suction passage, and an exit port, and a capture element connected to the container and configured to facilitate capture of stone fragments within the storage space. A method can comprise fragmenting stones with a lithotripsy device, drawing a vacuum through the lithotripsy device to pull stone fragments and waste fluid therethrough, pulling the vacuum through a stone capture device connected to the lithotripsy device, depositing stone fragments within the stone capture device using a capture element, and drawing the vacuum through the device.

Abstract: A lithotripsy device can comprise a handpiece, a lithotripsy probe extending from the handpiece, an energization source configured to deliver an energy to a distal end of the lithotripsy probe, a suction passage extending from the distal end of the probe and through the handpiece, and a capture device comprising a container comprising a storage space, an entry port configured to couple to the handpiece at the suction passage, and an exit port, and a capture element connected to the container and configured to facilitate capture of stone fragments within the storage space. A method can comprise fragmenting stones with a lithotripsy device, drawing a vacuum through the lithotripsy device to pull stone fragments and waste fluid therethrough, pulling the vacuum through a stone capture device connected to the lithotripsy device, depositing stone fragments within the stone capture device using a capture element, and drawing the vacuum through the device.

Abstract: An acoustic lithotripsy system can deliver acoustic energy to a target located within a patient. The system may include an acoustic transducer, the acoustic transducer including a first vibrator and a second vibrator. A system may include an impact member, coupled to the acoustic transducer, the impact member operable at a lower frequency than each of the first vibrator and the second vibrator. The system may further include controller circuitry, coupled to the acoustic transducer and the impact member, the controller circuitry including: an acoustic actuation control output, configured to selectively provide to at least one of the first vibrator or the second vibrator, an actuation control signal to control ablation of the target by the selected at least one of the first vibrator or the second vibrator. The first vibrator and/or or the second vibrator may be selected to operate with or without the impact member.

Abstract: A lithotripsy device can comprise a handpiece, a lithotripsy probe extending from the handpiece, an energization source configured to deliver an energy to a distal end of the lithotripsy probe, a suction passage extending from the distal end of the probe and through the handpiece, and a capture device comprising a container comprising a storage space, an entry port configured to couple to the handpiece at the suction passage, and an exit port, and a capture element connected to the container and configured to facilitate capture of stone fragments within the storage space. A method can comprise fragmenting stones with a lithotripsy device, drawing a vacuum through the lithotripsy device to pull stone fragments and waste fluid therethrough, pulling the vacuum through a stone capture device connected to the lithotripsy device, depositing stone fragments within the stone capture device using a capture element, and drawing the vacuum through the device.

Abstract: A lithotripsy device can comprise a handpiece, a lithotripsy probe extending from the handpiece, an energization source configured to deliver an energy to a distal end of the lithotripsy probe, a suction passage extending from the distal end of the probe and through the handpiece, and a capture device comprising a container comprising a storage space, an entry port configured to couple to the handpiece at the suction passage, and an exit port, and a capture element connected to the container and configured to facilitate capture of stone fragments within the storage space. A method can comprise fragmenting stones with a lithotripsy device, drawing a vacuum through the lithotripsy device to pull stone fragments and waste fluid therethrough, pulling the vacuum through a stone capture device connected to the lithotripsy device, depositing stone fragments within the stone capture device using a capture element, and drawing the vacuum through the device.

Abstract: A lithotripsy system can include a lithotripsy device and controller circuitry. The device for acoustic calculi fracture can include an acoustic treatment probe for providing acoustic energy along the probe to treat one or more calculi and an evacuation pathway extending at least partially via the prob, for removing at least a portion of the one or more calculi via the evacuation pathway. The controller circuitry, coupled to the lithotripsy device, can be configured to receive an indication of clogging of the evacuation pathway and at least one of initiate or adjust a anti-clogging mode for changing at least one characteristic of evacuation via the evacuation pathway in response to the received indication of clogging.

Abstract: A lithotripsy device can comprise a handpiece, a lithotripsy probe extending from the handpiece, an energization source configured to deliver an energy to a distal end of the lithotripsy probe, a suction passage extending from the distal end of the probe and through the handpiece, and a capture device comprising a container comprising a storage space, an entry port configured to couple to the handpiece at the suction passage, and an exit port, and a capture element connected to the container and configured to facilitate capture of stone fragments within the storage space. A method can comprise fragmenting stones with a lithotripsy device, drawing a vacuum through the lithotripsy device to pull stone fragments and waste fluid therethrough, pulling the vacuum through a stone capture device connected to the lithotripsy device, depositing stone fragments within the stone capture device using a capture element, and drawing the vacuum through the device.

Abstract: A device for acoustic calculi fracture can include an acoustically-transmissive elongated probe body extending between a distal portion and a proximal portion and an acoustically-transmissive probe tip that can be selectively user-interchangeable with the probe body. The probe body can have a lumen longitudinally therethrough. A method of fracturing calculi can include interchanging a probe tip with a probe body by a user without requiring an additional tool and transmitting acoustic energy via the probe body and the probe tip to a calculus to at least partially fracture the calculus.

Abstract: Some embodiments includes a system that includes a catheter including a distal portion for location at least partially in an aneurysm, the catheter including a proximal portion, the catheter to transport a biocompatible polymeric strand to an aneurysm, a biocompatible polymeric strand sized to slide through the catheter and a heated excise collar coupled to the distal portion of the catheter, the heated excise collar to provide radial heat from the catheter inward to melt and excise the biocompatible polymeric strand.

Abstract: Inventive subject matter described herein includes an induction coil resistance tester, comprising: a base effective for absorbing vibration; a mechanism for moving a sample in x, y, and z directions; a scale for measuring weight of the sample; and an ohmmeter for measuring resistance of the sample.

Abstract: Inventive subject matter described herein includes an induction coil resistance tester, comprising: a base effective for absorbing vibration; a mechanism for moving a sample in x, y, and z directions; a scale for measuring weight of the sample; and an ohmmeter for measuring resistance of the sample.