Abstract: Embodiments of the present disclosure are directed to miniature insulin patch pump, assistance devices (e.g., for reservoir filling and/or cannula insertion), and methods related thereto. For example, in some embodiments, a substance/drug-delivery patch pump is provided and includes a reusable part (RP) including a power source, a driving mechanism, and an electronic module, and a disposable part (DP), where the disposable part can include at least a plurality of an adhesive base, a reservoir, a dosing mechanism, and a cannula.

Abstract: Some embodiments of the present disclosure are directed generally to systems and methods for delivering an implant to a body vessel of a patient. Such disclosed implants may be a monofilament implant, and disclosed systems for implanting the implant may be automatic. Some embodiments may enable retraction of said implant back into the delivery system following partial exteriorization of the implant from the delivery system. Some embodiments may be configured for retraction of said implant from the patient's body following complete exteriorization of the implant from the delivery system. Some of the embodiments are directed at delivering a monofilament implant for preventing embolic stroke. Other embodiments are directed at preventing pulmonary embolism, occluding a body vessel such as the left atrial appendage, occluding a body passageway such as a patent foramen ovalae, stenting a body vessel, or releasing a local therapeutic agent such as a drug or ionizing radiation.

Abstract: Embodiments of the current disclosure are directed toward systems, devices and methods for diabetes management. In particular, the present disclosure relates to systems, devices and methods for dispensing insulin to a patient using a miniaturized and portable patch pump.

Abstract: Embodiments of the current disclosure are directed toward systems, devices and methods for diabetes management. In particular, the present disclosure relates to devices and methods for dispensing insulin to a patient. A portable fluid infusion device, comprising a disposable part (DP) and a reusable part (RP) is disclosed. The DP comprises a first reservoir and a second reservoir, the second reservoir less than or equal to the first reservoir in length, while the RP comprises a first compartment configured to receive the first reservoir, a second compartment configured to receive the second reservoir and a gasket for sealing a junction between the second reservoir and the second compartment upon connection of the RP and the DP.

Abstract: Disclosed are methods, systems, devices and articles, including a method for adaptive wireless communication transmissions between units of an ambulatory portable medical device. The method includes obtaining data relating to wireless transmissions between the units of the medical device, and setting one or more attributes of wireless transmission of one or more messages between the units of the medical device based, at least in part, on the obtained data.

Abstract: Embodiments of the current disclosure are directed toward systems, devices and methods for diabetes management. In particular, the present disclosure relates to devices and methods for dispensing insulin to a patient. A portable fluid infusion device, comprising a disposable part (DP) and a reusable part (RP) is disclosed. The DP comprises a first reservoir and a second reservoir, the second reservoir less than or equal to the first reservoir in length, while the RP comprises a first compartment configured to receive the first reservoir, a second compartment configured to receive the second reservoir and a gasket for sealing a junction between the second reservoir and the second compartment upon connection of the RP and the DP.

Abstract: Some embodiments of the present disclosure are directed generally to systems and methods for delivering an implant to a body vessel of a patient. Such disclosed implants may be a monofilament implant, and disclosed systems for implanting the implant may be automatic. Some embodiments may enable retraction of said implant back into the delivery system following partial exteriorization of the implant from the delivery system. Some embodiments may be configured for retraction of said implant from the patient's body following complete exteriorization of the implant from the delivery system. Some of the embodiments are directed at delivering a monofilament implant for preventing embolic stroke. Other embodiments are directed at preventing pulmonary embolism, occluding a body vessel such as the left atrial appendage, occluding a body passageway such as a patent foramen ovalae, stenting a body vessel, or releasing a local therapeutic agent such as a drug or ionizing radiation.

Abstract: Devices and methods for powering a medical device for sustained delivery of fluids or continuous monitoring of body analyte are disclosed. The devices may comprise a pumping mechanism, a driving mechanism for activating the pumping mechanism to dispense fluid, and a power source coupled to the driving mechanism and having an energy storage cell for providing a pulsed power to the driving mechanism. The methods may be implemented by activating the driving mechanism using pulsed energy in the form of at least one pulse train pattern accumulated in and discharged from an energy storage component.

Abstract: Disclosed is a dispensing system. The dispensing system includes a dispensing unit to dispense therapeutic fluid, and a validation mechanism to enable operation of the dispensing unit based, at least in part, on a determination of whether operation of the dispensing device is authorized.

Abstract: Embodiments of the present disclosure are directed to systems, methods and devices for providing embolic protection in a patient. In some embodiments, the device is configured for implantation in a body vessel including fluid flow. The device may assume, or be constrained to assume, an undeployed state and a deployed state. In the undeployed state, the device or a portion thereof has a substantially linear shape configured to reside in the lumen of a thin needle having a diameter of less than about 0.5 mm (for example), in the deployed state, the device has a primary axis. When the device is implanted the primary axis is approximately perpendicular to the fluid flow. In some embodiments, the device comprises a thin filament body. In the deployed state the filament takes a helical shape. Emboli that are larger than the distance between consecutive turns or windings of the helix are thus filtered by the device and are prevented from causing deleterious conditions such as stroke or pulmonary embolism.

Abstract: Disclosed is a skin securable therapeutic fluid dispensing device that includes a reservoir adapted to retain therapeutic fluid, a pump driving mechanism, and at least one housing configured to accommodate the reservoir and the pump driving mechanism, with at least a portion of the at least one housing defining at least a portion of the reservoir. The device also includes a shield coupled to the at least one housing, the shield configured to protect, at least in part, the reservoir from application of external forces thereon.

Abstract: Embodiments of the present disclosure are directed to methods, systems and devices for implanting a spatially bent and/or twisted implant in a patient. In some embodiments, such a method includes providing a mono-filament implant configured to assume an undeployed, substantially linear state or linear-like state and a spatially bent and/or twisted deployed state, with the plant having a proximal and a distal end. In the undeployed state, the implant includes a shape which corresponds to that of a lumen of a hollow needle which may be used to deliver the implant. The method may also include creating a puncture in a vessel of the patient and positioning said distal end of the needle (and thus, the implant) in the vessel through the puncture. The method may further include converting the implant from the undeployed state to the deployed state such that the proximal end of the implant is proximate said puncture.

Abstract: Systems, methods and apparatuses for delivering therapeutic fluid to the body of a patient are disclosed. The apparatus includes a dispensing unit having a driving mechanism, a pumping mechanism, a reservoir containing therapeutic fluid, and an outlet port. The driving mechanism causes the pumping mechanism to positively displace therapeutic fluid within the reservoir for delivery of therapeutic fluid to the body of the patient via the outlet port.

Abstract: Devices, systems and methods for adjusting fluid delivery based on past or historical fluid delivery data and/or personal parameters of a user are disclosed. Devices, and corresponding systems and methods, may comprise a dispensing unit configured to deliver a fluid from a reservoir into the body of a user and a processor having instructions operating thereon to retrieve data relating to one or more time windows from a memory, assess a correction delivery for the one or more time windows based on the data, determine a new CIR value for the one or more time windows if the correction delivery regularly follows a meal bolus and/or determine a new basal delivery profile for the one or more time windows if the correction delivery regularly precedes a meal bolus.

Abstract: A device and a method for prevention of hypoglycemia are disclosed. In one aspect, the device and the method for prevention of hypoglycemia can comprise receiving a target blood glucose (TBG) level corresponding to a desired level of glucose in a patient's body during a fasting time period; receiving a bedtime blood glucose (BBG) level corresponding to a level of glucose in the patient's body substantially at a beginning of the fasting time period (e.g. before bedtime); receiving a first set of parameters corresponding to a medical state of the patient; determining a therapeutic course of action based on the levels of the TBG, BBG and the medical state of the patent; and administering the therapeutic course of action to the patient.

Abstract: Disclosed is an ambulatory therapeutic fluid delivery device. The device includes at least one housing connectable to a cannula, the at least one housing retaining a reservoir to hold the therapeutic fluid. The device also includes a mechanically powered pumping mechanism to cause delivery of at least some of the fluid from the reservoir, and a power-transfer mechanism to transfer manually-delivered power provided by a user to mechanically actuate the pumping mechanism.

Abstract: Systems, devices and methods are presented for embolic protection. In some embodiments, a device for implantation in a patient's vessel containing a fluid flow is provided which comprises proximal and distal ends, an undeployed, substantially linear state, and a deployed, spring-like (helical) state comprising windings. When the device is deployed, the line segment connecting the proximal and distal ends is approximately perpendicular to the majority of the windings and to the fluid flow. In some embodiments, a delivery device for the monofilament device is provided. The delivery device comprises a needle having a lumen, a sharp distal end, and a pusher slidable within the needle. A method for deploying the monofilament device using the delivery device is provided.

Abstract: Delivery of more than one therapeutic fluid as a means to control symptoms of a health conditions is disclosed. More than one therapeutic fluid may be dispensed from more than one reservoir and delivered to a user's body via one or more cannula that penetrate the skin. The therapeutic fluids may be delivered by action of one or more pumping mechanisms that may be controlled by a processor in a portable, ambulatory device. The therapeutic fluids may optionally be insulin and one or more of an amylin analog, pramlintide acetate and an exenatide, and the health condition may optionally be diabetes. This device can be used in combination with a glucometer.

Abstract: A portable therapeutic fluid delivery device and a method for delivering a therapeutic fluid into a body of a patient are provided. In one aspect the therapeutic fluid delivery device and the method can be implemented using at least one housing securable to the body of the patient, a reservoir coupled to the at least one housing, a therapeutic fluid dispensing mechanism, a memory component, a controller, at least one bolus delivery button configured to signal the controller to initiate the delivery of the therapeutic fluid into the body of the patient; and, an inadvertent initiation prevention mechanism adapted for preventing the patient from activating the at least one bolus delivery button.

Abstract: Disclosed is a skin adherable device for delivering therapeutic fluid into a body of a patient. The device includes a monitoring apparatus, a dispensing apparatus, and a tip for delivering the therapeutic fluid into the body of the patient and for monitoring bodily analyte in the body of the patient. The dispensing apparatus may continuously deliver the therapeutic fluid to the body of the patient and the monitoring apparatus may continuously monitor bodily analytes of the patient.