Abstract: In vivo methods are provided for using an electric field to delivery therapeutic treatment to a subject while reducing inducement of histopathological change in the target muscle tissue, such as is associated with induction or amplification of an immune response caused by the pulsed electric field. Therapeutic agents can be delivered nto cells of muscle for local and systemic treatments with optimal gene expression and minimal tissue damage. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: A prefabricated reinforced brick panel has a plurality of bricks arranged in a spaced-apart array with mortar between the bricks. The array comprises a number of superimposed rows of bricks. The bricks in each row are staggered relative to the bricks in each adjacent row of bricks. Each brick has a number of vertical through holes extending between a top and a bottom of the brick. These through holes are aligned in the array and vertical reinforcing bars are inserted into aligned holes and extend between a top and a bottom of the panel. Two offset vertical reinforcing bars pass through each brick. Transverse reinforcing bars are mounted in the mortar between rows of bricks.

Abstract: Improved devices and methods for performing electroporation-mediated delivery agents to cells is described. The method includes positioning a first electrode and a second electrode such that an electrical signal passed between the first electrode and the second electrode passes through the cell. The method also includes passing an electrical signal between the first electrode and the second electrode, the electrical signal having a frequency greater than about 10 kHz. In one embodiment of the method, the electrical signal has a bipolar waveform. In another embodiment of the method, the electrodes are positioned at a treatment site, e.g., a tumor, for in vivo delivery of an agent.

Abstract: In vivo methods are provided for using an electric field to delivery therapeutic treatment to a subject while reducing inducement of histopathological change in the target muscle tissue, such as is associated with induction or amplification of an immune response caused by the pulsed electric field. Therapeutic agents can be delivered nto cells of muscle for local and systemic treatments with optimal gene expression and minimal tissue damage. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: The present invention describes an in vivo method, using pulsed electric field to deliver therapeutic agents into cells of the skin and muscle for local and systemic treatments. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: The present invention describes an in vivo method, using pulsed electric field to deliver therapeutic agents into cells of the skin and muscle for local and systemic treatments. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: In vivo methods are provided for using an electric field to delivery therapeutic treatment to a subject while reducing inducement of histopathological change in the target muscle tissue, such as is associated with induction or amplification of an immune response caused by the pulsed electric field. Therapeutic agents can be delivered nto cells of muscle for local and systemic treatments with optimal gene expression and minimal tissue damage. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: The present invention describes an in vivo method, using pulsed electric field to deliver therapeutic agents into cells of the skin and muscle for local and systemic treatments. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: The present invention describes an in vivo method, using pulsed electric field to deliver therapeutic agents into cells of the skin and muscle for local and systemic treatments. In particular, therapeutic agents include naked or formulated nucleic acid, polypeptides and chemotherapeutic agents.

Abstract: A mileage and fuel purchase monitoring device for vehicles including a data collecting system that is connected with an odometer of a truck or other motor vehicle. The data collecting system is preferably secured to a dashboard of the truck for easy access by the driver. The data collecting system is provided with a keyboard and a display for entering relevant information related to a planned trip to be made.

Abstract: A prefabricated modular wall element (20) comprises a precast reinforced concrete wall panel (21) having a front face (24). A plurality of spaced-apart individual slabs (33) of stone or brick are partially embedded in the front face (24) of the panel (21) during casting of the panel (21) and project outwardly of the front face (24) with channels being formed between the slabs (33). The slabs are arranged on the front face (24) such that the front face (24) simulates a wall constructed of stone. A pair of spaced-apart support legs (38) are provided at a bottom (27) of the wall panel (21) for keying into a concrete foundation (42) to support the wall element (1) in an upright.

Abstract: A detachable ramp carrying system for moving containers including a pair of securement brackets coupled with the horizontal lower segments of opposed L-shaped brackets of the moving container. The securement brackets support the ramp thereon disposed below the closed lower end of the container.

Abstract: A prefabricated modular wall element (20) comprises a precast reinforced concrete wall panel (21) having a front face (24). A plurality of spaced-apart individual slabs (33) of stone or brick are partially embedded in the front face (24) of the panel (21) during casting of the panel (21) and project outwardly of the front face (24) with channels being formed between the slabs (33). The slabs are arranged on the front face (24) such that the front face (24) simulates a wall constructed of stone. A pair of spaced-apart support legs (38) are provided at a bottom (27) of the wall panel (21) for keying into a concrete foundation (42) to support the wall element (1) in an upright position.