Abstract: An anti-personnel mine that is flexible for manipulation in the field to accommodate missions by changing the shape of the C-4. The mine includes M112 seated in and adhered to a flexible housing having a rear involute wall. The involute wall includes a set of projecting folded pair of inclined walls that are about equidistant between a pair of inclined end walls. The inclined walls partitions most, but not all of the thickness of the M112 into segments that are tapered and accommodate the inclined walls. A metal spine, which may be shaped, is adhered to the front surface of the M112. Fragmentation elements and a bottom side of an elastic membrane are adhered to the spine and the front surface of the M112.

Abstract: The present disclosure describes novel caninized anti-NGF antibodies, antigen binding proteins and polynucleotides encoding the same. The disclosure further describes use of the novel antibodies, antigen binding proteins and/or nucleotides of the invention for the treatment and/or prevention of NGF related disorders, particularly for the management of canine pain.

Abstract: The invention provides novel caninized anti-NGF antibodies (such as caninized anti-NGF antagonist antibodies and antigen binding proteins), and polynucleotides encoding the same. The invention further provides use of said antibodies or antigen binding proteins and/or nucleotides in the treatment and/or prevention of NGF related disorders, particularly pain.

Abstract: The present invention generally relates to gas generant compositions for inflators of occupant restraint systems, for example. A gas generating composition 12 formed in accordance with the present invention includes an alkyl cellulosic fuel/binder, an oxidizer, and a burn inhibitor or ignition catalyst. A vehicle occupant protection system 180, and other gas generating systems, incorporate the compositions of the present invention.

Abstract: A gas generating system (24) is provided including a gas generant container (34) and an initiator (28). The initiator (28) is positioned exterior of the gas generant container (34) so as to enable fluid communication with the container (34) upon activation of the initiator (28). A gas generant composition (32) is positioned within the container (34). The gas generant container (34) may have sufficient rigidity to maintain a predetermined shape prior to positioning of the gas generant (32) therein, and is penetrable by combustion products resulting from activation of the initiator (28). A seatbelt device (150) and a vehicle occupant restraint system (180) incorporating a gas generating system as described herein are also disclosed.

Abstract: A gas generating system (24) is provided including a gas generant container (34) and an initiator (28). The initiator (28) is positioned exterior of the gas generant container (34) so as to enable fluid communication with the container (34) upon activation of the initiator (28). A gas generant composition (32) is placed within the container (34). In one embodiment, the gas generant container (34) has sufficient rigidity to maintain a predetermined shape prior to positioning of the gas generant (32) therein, and is penetrable by combustion products resulting from activation of the initiator (28). A flame retardant (33) is positioned within the housing 17 exterior of the gas generant container (34) but in reactive proximity thereto. A seatbelt device (150) and a vehicle occupant restraint system (180) incorporating a gas generating system as described herein are also disclosed.

Abstract: An airbag inflator (10) including an elongated outer housing (12) having an interior and one or more orifices (22) formed therealong to enable fluid communication between the outer housing interior and an exterior of the outer housing (12). The outer housing orifice(s) (22) open from the outer housing interior toward a first side (F) of the inflator. An elongated inner housing (14) is positioned in the outer housing interior. The inner housing (14) has an interior and one or more orifices (20) formed therealong to enable fluid communication between the inner housing interior and an exterior of the inner housing (14). The inner housing orifice(s) (20) open from the inner housing interior toward a second side (S) of the inflator. A quantity of a gas generant composition (16) extends along a portion of the interior of the inner housing (14). The gas generant (16) has a substantially “C”-shaped cross-section with a slot (24) extending along the length of the gas generant (16).

Abstract: A method, program and system (10) for processing data are disclosed. The method, program and system comprising the steps of: (a) receiving data representing a location of an item (e.g., people, personal property, real property, organizations, chemical compounds, organic compounds, proteins, biological structures, biometric values or atomic structures), (c) determining a plurality of fixed coordinates that represent the location (e.g., by “rounding” and/or comparing to a reference grid), (d) utilizing an algorithm (e.g., encryption, encoding and/or one-way function) to process the plurality of fixed coordinates (each separately or together), and (e) comparing the processed data to at least a portion of secondary data (perhaps comprising data previously stored in a database).

Abstract: A micro gas generator 10 is provided primarily for supplying and directing gas from the combustion of pyrotechnic materials into a seatbelt pretensioner 26, for example. A perforated housing 12 of gas generator 10 provides a body for containment of the other gas generant constituents, and forms a propellant chamber 14. A propellant or gas generant 16 is contained within chamber 14 and provides combustion thereof. An annular bore 20 is centrally oriented within the bore seal 18 thereby providing a seat for an associated initiator 22. An initiator blast shield 36 is encased about the initiator 22 thereby attenuating or mitigating the force and progression of the combustion of an ignition compound (not shown) within the initiator 22.