Abstract: An Example tool for implanting a pacemaker lead includes a body that includes a recess, a first electrical contact positioned within the recess, and a projection coupled to the body. In addition, the tool includes a second electrical contact positioned on the projection. The recess is configured to receive the pacemaker lead therein such that a first electrode of the pacemaker lead is to engage with the first electrical contact and a second electrode of the pacemaker lead is to engage with the second electrical contact. A rotation of the tool about a central axis of the pacemaker lead is configured to rotate the first electrical contact and the first electrode together about the central axis and to slidingly engage the second electrical contact along the second electrode.

Abstract: Systems and methods for heart stimulation in accordance with embodiments of the invention are illustrated.

Abstract: One aspect of the invention provides a trocar including: a central cylinder defining a central channel and having a distal end adapted and configured for insertion within a subject; one or more gas outlets located within the central cylinder proximate to the distal end of the trocar; and one or more liquid outlets located within the central cylinder on a proximal side of the one or more gas outlets. The one or more liquid outlets are adapted and configured to dispense a liquid when an endoscope is withdrawn from a fully extended position within the central channel of the trocar to a position proximate to the one or more liquid outlets. Distal advancement of the endoscope to a position adjacent to the one or more gas outlets removes liquid from a distal end of the endoscope.

Abstract: Wireless treatment of arrhythmias. At least some of the example embodiments are methods including: charging a capacitor of a first microchip device abutting heart tissue, the charging by harvesting ambient energy; charging a capacitor of a second microchip device abutting the heart tissue, the charging of the capacitor of the second microchip device by harvesting ambient energy; sending a command wirelessly from a communication device outside the rib cage to the microchip devices; applying electrical energy to the heart tissue by the first microchip device responsive to the command, the electrical energy applied from the capacitor of the first microchip device; and applying electrical energy to the heart tissue by the second microchip device responsive to the command to the second microchip device, the electrical energy applied from the capacitor of the second microchip device.

Abstract: A surgical cutting device for performing a minimally-invasive surgical procedure and which includes an external hub including a housing and a cutter actuator housed within the housing, wherein the cutter actuator, a catheter including a first end coupled to the external hub, a second end opposite the first end, and an internal passage, a cutting tool coupled to the second end of the catheter and including a cutting element moveable relative to the second end of the catheter by the cutter actuator, and a motion transfer assembly extending through the internal passage of the catheter from the cutter actuator to the cutting tool, wherein the motion transfer assembly is configured to transfer motion from the cutter actuator to the cutting element of the cutting tool in response to the activation of the cutter actuator.

Abstract: A method of improving electrical conduction across an impaired region of a tissue (e.g., myocardial tissue), includes applying an electrically conductive wiring carbon nanotube fibers) across the impaired region. The electrically conductive wiring can become associated with non-impaired regions of the tissue on opposite sides of the impaired region by suturing. The method can also be utilized to treat or prevent cardiac arrhythmia in a subject (e.g., ventricular arrhythmia). The electrically conductive wiring includes carbon nanotubes, such as carbon nanotube fibers, Such electrically conductive wiring can be used to transmit electrical signals to a tissue or sense electrical signals from the tissue. Suture threads including carbon nanotubes, such as carbon nanotube fibers, are provided.

Abstract: One aspect of the invention provides a trocar including: a central cylinder defining a central channel and having a distal end adapted and configured for insertion within a subject; one or more gas outlets located within the central cylinder proximate to the distal end of the trocar; and one or more liquid outlets located within the central cylinder on a proximal side of the one or more gas outlets. The one or more liquid outlets are adapted and configured to dispense a liquid when an endoscope is withdrawn from a fully extended position within the central channel of the trocar to a position proximate to the one or more liquid outlets. Distal advancement of the endoscope to a position adjacent to the one or more gas outlets removes liquid from a distal end of the endoscope.

Abstract: Disclosed herein is a composition comprising a plurality of liposomes having an average diameter of less than 400 nanometers, wherein the plurality of liposomes comprise: a first lipid or phospholipid; a second lipid or phospholipid which is derivatized with a polymer; and a sterically bulky excipient capable of stabilizing the liposomes; a third lipid or phospholipid derivatized with a polymer terminated with an integrin targeting component; DSPE or a fourth lipid or phospholipid derivatized with a group binding a contrast enhancing agent wherein the plurality of liposomes optionally encapsulates a payload component consisting of one or more bioactive agents.

Abstract: Vaccine compositions including one or more antigens and one or more integrin agonists or activating compounds present in an amount sufficient to increase an immune response of a patient to the one or more antigens.

Abstract: Systems and methods for heart stimulation in accordance with embodiments of the invention are illustrated.

Abstract: Pharmaceutical compositions including one or more integrin activating compounds capable of enhancing an anti-tumor activity of one or more therapeutic antibodies, one or more immune checkpoint inhibitors, or mixtures thereof.

Abstract: A medical devices and methods related thereto are disclosed. In an embodiment, the medical device including a pump configured to be inserted within an atrium of a heart, said pump comprising an inlet and an outlet. In addition, the pump includes a flexible outflow conduit coupled to the outlet and configured to carry blood. The outflow conduit includes a radially inner surface defining a throughbore, and a radially outer surface. Further, the pump comprises a driveline configured to conduct control and power signals between the pump and an external device. The driveline extends through the outflow conduit between the radially inner surface and the radially outer surface.

Abstract: Wireless treatment of arrhythmias. At least some of the example embodiments are methods including: charging a capacitor of a first microchip device abutting heart tissue, the charging by harvesting ambient energy; charging a capacitor of a second microchip device abutting the heart tissue, the charging of the capacitor of the second microchip device by harvesting ambient energy; sending a command wirelessly from a communication device outside the rib cage to the microchip devices; applying electrical energy to the heart tissue by the first microchip device responsive to the command, the electrical energy applied from the capacitor of the first microchip device; and applying electrical energy to the heart tissue by the second microchip device responsive to the command to the second microchip device, the electrical energy applied from the capacitor of the second microchip device.

Abstract: Wireless treatment of arrhythmias. At least some of the example embodiments are methods including: charging a capacitor of a first microchip device abutting heart tissue, the charging by harvesting ambient energy; charging a capacitor of a second microchip device abutting the heart tissue, the charging of the capacitor of the second microchip device by harvesting ambient energy; sending a command wirelessly from a communication device outside the rib cage to the microchip devices; applying electrical energy to the heart tissue by the first microchip device responsive to the command, the electrical energy applied from the capacitor of the first microchip device; and applying electrical energy to the heart tissue by the second microchip device responsive to the command to the second microchip device, the electrical energy applied from the capacitor of the second microchip device.

Abstract: Vaccine compositions including one or more antigens and one or more integrin agonists or activating compounds present in an amount sufficient to increase an immune response of a patient to the one or more antigens.

Abstract: A magnet assisted surgical device, system, and method employs magnetic sections, catheters, and guidewires to modify tubular stentgrafts in-situ. One example application provides a more reliable way for surgeons to modify stentgrafts insitu to allow blood flow to continue to branching blood vessels that would otherwise be blocked by the stentgraft itself. One such method includes placing a tip section of the device in the desired location, deploying a stentgraft, placing a magnetic device inside the stentgraft, connecting the magnetic device to the tip section, and excising the portion of the stentgraft held between the magnet and the tip section.

Abstract: Herein disclosed is a method of detecting and identifying the source of abnormal electrical currents in the heart to assist in ablating these currents, comprising the use of contact or non-contact temperature measurement devices. In an embodiment, source of abnormal electrical activity of the heart and its attached arteries and veins show different temperature patterns from normal segments. In an embodiment, the method further comprises analyzing the temperature of the chamber of interest, and determining regions of low or high temperature by extension metabolic activity. In an embodiment, the method comprises measuring myocardial temperature comprising placing an array of thermocouples imbedded on a basket in the cardiac chamber. In an embodiment, the thermocouples are placed in contact with the myocardial tissue.

Abstract: Methods for priming of vaccines including administering to a patient a composition including one or more integrin activating compounds capable of adjuvanting an antigen and capable of adjuvanting one or more antigens contained in a vaccine preparation.

Abstract: Compositions including one or more antigens and one or more integrin activating compounds capable of adjuvanting the one or more antigens contained and increasing an immune response to the one or more antigen in a vaccine preparation.

Abstract: Methods for priming of vaccines including administering to a patient a composition including one or more integrin activating compounds capable of adjuvanting an antigen and capable of adjuvanting one or more antigens contained in a vaccine preparation.