Abstract: A nozzle for dispensing a fluid having a barrel having a proximal end and a distal end, the barrel having a passage defined by a first internal surface extending between the distal end and the proximal end, and an orifice defined by a second internal surface at the distal end of the barrel, a stem located at least partially in the barrel, the barrel is movable in relation to the stem to switch between a low pressure mode and a high pressure mode, a shaper located around an outer surface of the distal end of the barrel, the shaper being movable in relation to the barrel to switch between a low pressure fog mode and a low pressure stream mode. The nozzle is configured to dispense the fluid in a straight stream or fog in both the low pressure mode and the ultra-high pressure mode. The orifice is also configured to provide flushing capability for the ultra-high pressure mode while operating in the low pressure mode.

Abstract: A smart tourniquet for self-administering a medication is provided. When a patient needs to inject themselves with a medication, intravenously, called an “infusion,” the patient wears the smart tourniquet around their arm and tightens the device. While the patient is using the smart tourniquet, the device automatically records the date and time of the infusion, called a “timestamp”. The patient can also use the device to record the dosage or “number of units” taken at the time of the infusion. The smart tourniquet can store the timestamp as well as other related information as a record. At a later time, the patient can recall prior records on the smart tourniquet itself. The smart tourniquet can also be synchronized with an application and the records can be downloaded for review by the patient, nurse or doctor to render accurate and timely care.

Abstract: A nozzle for dispensing a fluid having a barrel having a proximal end and a distal end, the barrel having a passage defined by a first internal surface extending between the distal end and the proximal end, and an orifice defined by a second internal surface at the distal end of the barrel, a stem located at least partially in the barrel, the barrel is movable in relation to the stem to switch between a low pressure mode and a high pressure mode, a shaper located around an outer surface of the distal end of the barrel, the shaper being movable in relation to the barrel to switch between a low pressure fog mode and a low pressure stream mode. The nozzle is configured to dispense the fluid in a straight stream or fog in both the low pressure mode and the ultra-high pressure mode. The orifice is also configured to provide flushing capability for the ultra-high pressure mode while operating in the low pressure mode.

Abstract: An apparatus, system and method for providing a vacuum ejector for use with an end effector. Included may be at least an end effector and a vacuum chamber for gripping an element during semiconductor processing. The end effector may include at least two clamp arms for placing a gripped element in relation to application of a vacuum to the gripped element; a vacuum cup having a mouth capable of sealing to the gripped element to provide a vacuum chamber; a vacuum ejector pin extending into the vacuum chamber and including a plurality of ports substantially at a tip thereof proximate to the gripped element, wherein the vacuum is applied by the plurality of ports; and an ejector pin actuator that is capable of moving the vacuum ejector pin toward the gripped element until the sealing of the mouth is broken and the gripped element is ejected from the vacuum cup.

Abstract: The disclosed embodiments are and include at least an apparatus, system and method for providing a vacuum ejector for use with an end effector. The apparatus, system and method may include at least an end effector and a vacuum chamber for gripping an element during semiconductor processing.

Abstract: An apparatus, system and method for providing a vacuum ejector for an end effector. Embodiments may include at least an end effector and a vacuum chamber for gripping an element during semiconductor processing. The end effector may include at least two clamp arms for placing a gripped element; a vacuum cup having a mouth capable of sealing to the gripped element to provide a vacuum chamber to the gripped element; a vacuum ejector pin extending into the vacuum chamber and including a plurality of ports substantially at a tip thereof proximate to the gripped element, wherein the vacuum is applied by the plurality of ports; and an ejector pin actuator that is capable of moving the vacuum ejector pin toward the gripped element through the vacuum chamber in the y-axis until the sealing of the mouth is broken and the gripped element is ejected.

Abstract: A smart tourniquet for self-administering a medication is provided. When a patient needs to inject themselves with a medication, intravenously, called an “infusion,” the patient wears the smart tourniquet around their arm and tightens the device. While the patient is using the smart tourniquet, the device automatically records the date and time of the infusion, called a “timestamp”. The patient can also use the device to record the dosage or “number of units” taken at the time of the infusion. The smart tourniquet can store the timestamp as well as other related information as a record. At a later time, the patient can recall prior records on the smart tourniquet itself. The smart tourniquet can also be synchronized with an application and the records can be downloaded for review by the patient, nurse or doctor to render accurate and timely care.

Abstract: An apparatus, system and method for providing a vacuum ejector for an end effector. Embodiments may include at least an end effector and a vacuum chamber for gripping an element during semiconductor processing. The end effector may include at least two clamp arms for placing a gripped element; a vacuum cup having a mouth capable of sealing to the gripped element to provide a vacuum chamber to the gripped element; a vacuum ejector pin extending into the vacuum chamber and including a plurality of ports substantially at a tip thereof proximate to the gripped element, wherein the vacuum is applied by the plurality of ports; and an ejector pin actuator that is capable of moving the vacuum ejector pin toward the gripped element through the vacuum chamber in the y-axis until the sealing of the mouth is broken and the gripped element is ejected.

Abstract: An apparatus, system and method for providing a vacuum ejector for an end effector. Embodiments may include at least an end effector and a vacuum chamber for gripping an element during semiconductor processing. The end effector may include at least two clamp arms for placing a gripped element; a vacuum cup having a mouth capable of sealing to the gripped element to provide a vacuum chamber to the gripped element; a vacuum ejector pin extending into the vacuum chamber and including a plurality of ports substantially at a tip thereof proximate to the gripped element, wherein the vacuum is applied by the plurality of ports; and an ejector pin actuator that is capable of moving the vacuum ejector pin toward the gripped element through the vacuum chamber in the y-axis until the sealing of the mouth is broken and the gripped element is ejected.

Abstract: System of matching algorithms for pairing parties wherein one party seeks and consumes knowledge and the other party provides knowledge by means of real-time knowledge transfer sessions conducted via video communications and multiple media. Knowledge can be transferred through collaborative problem solving, questions-and-answers, tutorials, structured sessions, and unstructured sessions. The transfer of knowledge can take place on a pay-for-service basis or by means of knowledge-gifting. The system can accommodate one-to-one, one-to-many, many-to-one, and many-to-many assemblages of knowledge sharing participates. The system includes post-session ratings of each party by and of the other party, building cumulative ratings scores, supplemented with video and voice and text reviews with the resultant data woven into an algorithmic solution for matching participants in future sessions with optimally favorable outcomes, based on the quantifiably expressed feedback of all session participants.

Abstract: The present invention is an apparatus to confine a plurality of charged particles that include a plurality of coil heads that includes a plurality of superconducting coils, a bobbin and a plurality of insulation material and a plurality of support legs that include 2 support legs that are in conductive contact with each coil head and 2 support legs that are in physical contact with each coil head. The apparatus includes a base with a cryocooler inlet and a vacuum flange and a conductive cold element that is in the interior of the base, the conductive cold element is attached to the conductive rods of the 2 support legs that are in conductive contact with each coil head and the superconducting coils.

Abstract: A method and apparatus of electrical, mechanical and thermal isolation of superconductive magnet coils includes a superconductive magnet for environments wherein large differences of electrical potential between the interior superconductive winding and the exterior of the device, on the order of 103to 106 Volts may exist. The methods and apparatus also includes insulation, cooling, and structural elements such that the interior of the device is capable of maintaining cryogenic temperatures needed for superconductivity, even in the presence of high heat flux incident on the overall winding housing. Finally, a device includes structural elements for support against gravity and other forces exerted on the assembly that include expansion jointing and stabilization to minimize warping or bending of the assembly due to temperature gradients.

Abstract: A method and apparatus of electrical, mechanical and thermal isolation of superconductive magnet coils includes a superconductive magnet for environments wherein large differences of electrical potential between the interior superconductive winding and the exterior of the device, on the order of 103to 106 Volts may exist. The methods and apparatus also includes insulation, cooling, and structural elements such that the interior of the device is capable of maintaining cryogenic temperatures needed for superconductivity, even in the presence of high heat flux incident on the overall winding housing. Finally, a device includes structural elements for support against gravity and other forces exerted on the assembly that include expansion jointing and stabilization to minimize warping or bending of the assembly due to temperature gradients.

Abstract: A ribbon identification system detects a digitally encoded tract comprised of radially printed bands of dark and light areas positioned on a ribbon spool that fits on a media printing device. Each type and length of ribbon to be used is associated with a specific and unique digitally encoded tract. When the ribbon spool is positioned correctly on the printing device, the digitally encoded tract is detected, and the control program of the printing device sets the parameters associated with that ribbon automatically ensuring proper printing. Through the digitally encoded tract, the ribbon spool is uniquely identified so that once it has been determined by the printing device's control program that the ribbon has been depleted, that ribbon spool, if reinstalled on the same printing device at a later time, will be recognized as a depleted ribbon, and the printing device will not function.

Abstract: A ribbon identification system detects a digitally encoded tract comprised of radially printed bands of dark and light areas positioned on a ribbon spool that fits on a media printing device. Each type and length of ribbon to be used is associated with a specific and unique digitally encoded tract. When the ribbon spool is positioned correctly on the printing device, the digitally encoded tract is detected, and the control program of the printing device sets the parameters associated with that ribbon automatically ensuring proper printing. Through the digitally encoded tract, the ribbon spool is uniquely identified so that once it has been determined by the printing device's control program that the ribbon has been depleted, that ribbon spool, if reinstalled on the same printing device at a later time, will be recognized as a depleted ribbon, and the printing device will not function.