Abstract:
A scanner which can read machine-readable code on an object. A scanner has a scanning device, a data device and a reconstruction device. The scanning device can repetively scan the code and provide a scan signal repetively corresponding to at least fragments of the code. The data device is coupled to the scanning device and responds to its scan signal for repetively storing it. The reconstruction device is coupled to the data device for reconstructing the code from at least two of the fragments of the code.
Abstract:
A scanner can read machine-readable code on an object. A scanner has a scanning device, a data device, and a registration device. The scanning device can repetitively scan the code and provide a scan signal repetitively corresponding to at least fragments of the code. The data device is coupled to the scanning device and responds to its scan signal for repetitively storing it. The registration device is coupled to the data device for reconstructing the code from at least two of the fragments of the code by relatively shifting the code fragments until they are in registration.
Abstract:
The invention provides surgical systems and methods for ablating heart tissue within the interior and/or exterior of the heart. A plurality of probes is provided with each probe configured for introduction into the chest for engaging the heart. Each probe includes an elongated shaft having an elongated ablating surface of a predetermined shape. The elongated shaft and the elongated ablating surface of each probe are configured to ablate a portion of the heart. A sealing device affixed to the heart tissue forms a hemostatic seal between the probe and the penetration in the heart to inhibit blood loss therethrough.
Abstract:
A system relating to sample analyzers, and more particular, to sample analyzers that are simple to operate and have a reduced risk of providing an erroneous result to a user. In some cases, the sample analyzer may be a portable sample analyzer that includes a disposable fluidic cartridge. The operators of the analyzers need not be trained.
Abstract:
A system relating to sample analyzers, and more particular, to sample analyzers that are simple to operate and have a reduce risk of providing an erroneous result to a user. In some cases, the sample analyzer may be a portable sample analyzer that includes a disposable fluidic cartridge. The operators of the analyzers need not be trained.
Abstract:
A sensitive fluid sensor for detecting fluids and particularly trace fluids. The sensor may be adjustable for detecting fluids of various absorption lines. To effect such adjustment, a tunable laser may be used. The laser may non-tunable with a cavity having moveable mirror(s) for tuning. The laser may be an edge emitting diode, a VCSEL or other tunable on on-tunable source. The detection apparatus of the sensor may incorporate a sample cell through which a laser light may go through. The sample cell may include a tunable ring cavity block. There may be a photo detector or detectors proximate to the ring cavity. The lasers and detectors may be to electronics and/or a processor.
Abstract:
A system for ligating a uterine artery in a patient generally includes a suture transfer tool, suture transfer darts, and one or more sutures. The suture transfer tool includes an upper jaw that is pivotally joined to a lower jaw. The lower jaw of the tool includes a number of suture capturing pins. The suture transfer darts are configured to be tissue piercing and are positionable within the suture capturing pins. Each end of the suture is connected to a suture transfer dart. When operating the tool, the suture transfer darts pierce through the tissue to either side of a patient's cardinal ligament, which contains the uterine artery, and simultaneously present an end of the suture to either side of the cardinal ligament. As such, the suture is in an open loop configuration about the cardinal ligament and can be tied tight to the ligament to occlude the uterine artery.
Abstract:
A system for determining particle parameters. The system may, for example, may optically determine parameters common to a hematology analysis. Such parameters may include a red blood cell count, a platelet count, a mean cell volume and a red cell distribution width. A hematocrit parameter may be calculated. Also, a measurement of hemoglobin in a blood sample may be obtained leading to a calculation of a mean mass of hemoglobin in a red blood cell and a mean cell hemoglobin concentration. The system may be implemented in a portable cartridge type cytometer.
Abstract:
A conveyor system for processing items on which radio frequency identification tags are disposed includes a frame, a conveyor that is disposed moveably on the frame and that conveys items through a path of travel, each item having at least one respective radio frequency identification tag disposed thereon. A first antenna is disposed proximate the path of travel so that the first antenna radiates first radio frequency signals into a first area through which the items pass. A second antenna is disposed proximate the path of travel so that the second antenna receives first responses to the first radio frequency signals from the respective radio frequency identification tags. The information identifies a class protocol. A third antenna is disposed proximate the path of travel downstream from the first antenna and the second antenna. A fourth antenna is disposed proximate the path of travel so that the fourth antenna receives second responses to the radio frequency signals from the respective radio frequency identification tags. A transmitter drives the first antenna to emit the first radio frequency signals into the first area and drives the third antenna to emit second radio frequency signals into a second area. A radio frequency receiver receives signals from the second antenna corresponding to the first responses and outputs first output signals corresponding to the first responses and including the information. The receiver receives signals from the fourth antenna corresponding to the second responses and outputs second output signals corresponding to the second responses. A processor receives the first output signals and controls the transmitter to drive the third antenna responsively to the first output signals.
Abstract:
A cytometer having two or more chambers or regions in a containment structure of sheathing fluid that may be used to provide hydrodynamic focusing of another fluid having particles to be observed. The latter fluid may be a core stream which may have its lateral position in a flow or measurement channel affected by control of at least one of the parameters of the several segments of the sheathing fluid. The lateral position of the core stream may be aligned with a light source and detector for a count and observation of the particles. Electrical signals from the detector may be fed back to a processor which may control one or more parameters of the sheathing fluid in the various chambers or regions via pumps, valves, and flow and pressure sensors. This control of parameters may provide for the positioning of the core stream. This cytometer may be miniaturized.