Abstract: The present invention provides radioactive dermatological patch designed to topically treat cutaneous skin lesions in patient tissue. The radioactive dermatological patch includes a layer of a radionuclide with a nonreactive binding agent to form a treatment wafer. The treatment wafer is then placed within the radioactive dermatological patch. The radioactive dermatological patch includes a high Z distal shielding layer placed adjacent the side of treatment wafer away from the patient tissue. The distal shielding layer attenuating the energy of the radionuclide from the environment external to the patient. The patch further includes a high Z proximal patient shielding layer placed between the patient tissue and treatment wafer.

Abstract: The present invention provides a radioactive patch comprising a layer of a mixture of a radionuclide with a nonreactive adhesive agent coated thereon in the form of a tape, and a laminating layer, wherein the patch comprises, a high Z shielding layer placed on the opposing side of the patch away from the patient tissue, and comprising at least one of: lead, tungsten, iron, silver, gold, platinum, copper, brass; and wherein the patch comprises, a low Z shielding layer comprising at least one of: teflon, pma, pvc, lucite, boron carbide, graphite, carbon fiber, bakelite; and wherein the radionuclide comprises at least one of: Y-90, Ho-166, LU-166, I-125, PD-103, LU-166, or any combination thereof.

Abstract: A method produces or machines a roller which is suitable to be used in a machine for producing or processing a fibrous web. The roller contains a roller core and at least one functional layer. The method is characterized in that the method includes the application of a functional layer. The application of the functional layer is performed by applying a coating substrate to the surface of a roller core. The application takes place simultaneously over at least half the roller width, preferably over 75% of the roller width, particularly preferably over the entire roller width. The entire applied coating substrate or parts thereof are hardened, forming a solidified structure.

Abstract: An expansion planar system includes an expansion planar mounted to an expansion planar chassis and including expansion component(s) coupled to a system connector. A coupling subsystem mounted to the expansion planar chassis couples to a system chassis that includes a main planar and an expansion connector. While coupled to the system chassis, the coupling subsystem may provide the expansion planar chassis in a first orientation in which the system connector engages the expansion connector and the expansion planar chassis impedes access to component(s) on the main planar. While coupled to the system chassis, the coupling subsystem may also provide for rotation of the expansion planar chassis relative to the main planar to disengage the system connector from the expansion connector and provide the expansion planar chassis in a second orientation in which access to the component(s) on the main planar is no longer impeded by the expansion planar chassis.

Abstract: A method produces or machines a roller which is suitable to be used in a machine for producing or processing a fibrous web. The roller contains a roller core and at least one functional layer. The method is characterized in that the method includes the application of a functional layer. The application of the functional layer is performed by applying a coating substrate to the surface of a roller core. The application takes place simultaneously over at least half the roller width, preferably over 75% of the roller width, particularly preferably over the entire roller width. The entire applied coating substrate or parts thereof are hardened, forming a solidified structure.

Abstract: A ski rack with horizontal storage is disclosed which may be removably affixed to a conventional trailer hitch on a vehicle. The ski rack includes a base which is parallel to the rear bumper of the vehicle. The base includes a pair of hinges. A rear carrier is rotatably affixed to the hinges and rotates downward and rearward. A front carrier is complimentary to the rear carrier, but remains substantially vertical Skis or snow boards may be secured between the rear carrier and the front carrier.

Abstract: A SONET network interface for interconnecting at least one high speed unit (HSU) with at least two low speed interface units (LSUs) to enable transmission of signals therebetween. The interface having: a common bus of predetermined bit width for interfacing the HSU unit with each of the LSU units to enable transmission of signals from each of the LSUs to the HSU, and reception of the signals from the HSU to each of the LSUs; a first partition bus of the predetermined bit width for interfacing the HSU to a predetermined number of the LSUs, the first partition bus being partitioned into a first bus for interfacing the HSU to a first subset of the LSUs and a second bus for interfacing the HSU to a second subset of the LSUs; and a second partition bus of the predetermined bit width for interfacing the HSU to a predetermined number of the LSU units.

Abstract: A SONET network interface for interconnecting a high speed unit (HSU) with low speed interface units (LSUs) to enable transmission of signals therebetween. The interface including: a bus for interfacing the HSU with each of the LSU units to enable transmission of signals from each of LSUs to the HSU, and reception of the signals from the HSU to each of the LSUs; and a backplane connected to the bus and having at least two time slots for performing full time slot interchange between the at least two LSUs, wherein any of the at least two LSUs can read received data directly from one of the at least two time slots and can place its transmit data into any other of the at least two time slots for communication with another of the at least two LSUs without exchanging the received and/or transmit data with the at least one HSU.

Abstract: A SONET network interface for interconnecting a high speed unit (HSU) with low speed interface units (LSUs) is provided for enabling transmission of signals therebetween. The interface includes: a bus for interfacing the HSU with each of the LSUs to enable transmission of signals from each of the LSUs to the HSU, and reception of the signals from the HSU to each of the LSUs, wherein the HSU, LSUs, and the bus are contained in a primary shelf. The network interface also has secondary shelves, each containing secondary LSUs and an intershelf ring interconnection (IRI) bus connecting the primary shelf and each of the secondary shelves in series for exchanging data between the HSU of the primary shelf and each of the secondary shelves.