Abstract: A high-density polyethylene (HDPE) resin configured to be molded into a preform that can be biaxially expanded within a cavity of a container mold by introducing an incompressible fluid under pressure into the preform to stretch the preform to assume a shape of a surrounding mold cavity of the container mold. The HDPE resin has: a melt flow index of between 0.3 and 10.0 grams per 10 minutes at a temperature of 190° C. under 2.16 kilograms of load; a polydispersity index of 4-24; and a density of 0.943-0.965 grams per cubic centimeter.

Abstract: Systems and methods are described for generating record clusters. The methods comprise receiving a plurality of records from data sources and providing at least a subset of the records to a scoring model that determines scores for various pairings of the records, a score for a given pair of the records representing a probability that the given pair of records contain data elements about the same entity. The method further comprises generating a graph data structure that includes a plurality of nodes, individual nodes representing a different record from the records. The method also comprises assigning a different unique identifier to individual clusters of the final clusters and responding to a request for data regarding a given entity by providing aggregated data elements from those records of the records associated with a cluster of the final clusters having an identifier that represents the given entity.

Abstract: A latch assembly (110) can include a latch rail (314), a latch body (312), and a biasing mechanism (322). The latch rail can include a first end (318) and a second end. The first end can couple to a back portion of a seat that includes a table body. The latch body (312) can couple to the second end of the latch rail (314) such that the latch body can move between a first position and a second position relative to the latch rail. The latch body can prevent the table body from moving between a stowed position and a stowed position while in the first position. The latch body can allow the table body to move between the stowed position and the deployed position in the second position. The biasing mechanism (322) can couple to the latch body (312) and can bias the latch body into the first position.

Abstract: A server is used to screen a job candidate. An indication is received that an interview interface has been activated by a client device. A first question of a plurality of questions stored in a memory of the server is sent to the client device for access by the job candidate via the interview interface. A first response to the first question is received from the client device, and the first response is evaluated in real-time using the server before sending a second question of the plurality of questions to the client device for access by the job candidate via the interview interface.

Abstract: A latch assembly (110) can include a latch rail (314), a latch body (312), and a biasing mechanism (322). The latch rail can include a first end (318) and a second end. The first end can couple to a back portion of a seat that includes a table body. The latch body (312) can couple to the second end of the latch rail (314) such that the latch body can move between a first position and a second position relative to the latch rail. The latch body can prevent the table body from moving between a stowed position and a stowed position while in the first position. The latch body can allow the table body to move between the stowed position and the deployed position in the second position. The biasing mechanism (322) can couple to the latch body (312) and can bias the latch body into the first position.

Abstract: A loop buffer is provided with a main store 26 and an auxiliary store 28. The main store 26 stores micro-operation instructions. The auxiliary store 28 has fewer entries than the main store 26 and stores target addresses for predicted taken branch instructions stored within the main store 26. Read control circuitry serves to control reading from the main store and from an auxiliary store such that target addresses are read from the auxiliary store in association with the predicted taken branch instructions read from the main store.

Abstract: A closet 100 fits into an attic. A raiseable panel (4275) forms the bottom of the closet. The raiseable panel can be lowered to the living space below manually or by using a return spring or electrical means. The raiseable panel holds a cabinet, box, or other storage item (105 or 2225). Air space (150) around the cabinet or items insulates it from thermal contact with the closet walls. Alternatively a cabinet is hung from a restraining member (145), or arm (1105), so it can be raised for storage and lowered for access. In this aspect, a bottom panel (110) is secured to the bottom of the cabinet. Optional vents (155) and fan (160) urge circulation between the air space and the living space, reducing temperature extremes in the air space and hence the cabinet. In other aspects, air treatment units (HVAC, dehumidifier, etc.) condition the air within the closet.

Abstract: A closet or enclosure 100 (closet) fit into an attic. A panel (110) forms the bottom of the closet. The panel can be lowered to the living space below manually or by using a return spring or electrical means. The panel holds a cabinet, box, or other storage item (105 or 2225). Air space (150) around the cabinet or items insulates it from thermal contact with the walls. Alternatively a cabinet is hung from a restraining member (145), or arm (1105), so it can be raised for storage and lowered for access. In this aspect, the panel is secured to the bottom of the cabinet. Optional vents (155) and fan (160) urge circulation between the air space and the living space, reducing temperature extremes in the air space and hence the cabinet. In other aspects, air treatment units (HVAC, dehumidifier, etc.) condition the air within the closet or enclosure.

Abstract: A system and method are provided for the shielding of outdoor electrical equipment from inclement weather, the system comprising: a plurality of support brackets affixed to the outdoor electrical equipment; a support frame disposed in the support brackets; a waterproof cover disposed over the frame; an apron depending from the cover, configured to cover electrical connections on a side of the outdoor electrical equipment.

Abstract: A closet or enclosure 100 (closet) fit into an attic. A panel (110) forms the bottom of the closet. The panel can be lowered to the living space below manually or by using a return spring or electrical means. The panel holds a cabinet, box, or other storage item (105 or 2225). Air space (150) around the cabinet or items insulates it from thermal contact with the walls. Alternatively a cabinet is hung from a restraining member (145), or arm (1105), so it can be raised for storage and lowered for access. In this aspect, the panel is secured to the bottom of the cabinet. Optional vents (155) and fan (160) urge circulation between the air space and the living space, reducing temperature extremes in the air space and hence the cabinet. In other aspects, air treatment units (HVAC, dehumidifier, etc.) condition the air within the closet or enclosure.

Abstract: A system and method are provided for the shielding of outdoor electrical equipment from inclement weather, the system comprising: a plurality of support brackets affixed to the outdoor electrical equipment; a support frame disposed in the support brackets; a waterproof cover disposed over the frame; an apron depending from the cover, configured to cover electrical connections on a side of the outdoor electrical equipment.

Abstract: A system and method are provided for the shielding of outdoor electrical equipment from inclement weather, the system comprising: a plurality of support brackets affixed to the outdoor electrical equipment; a support frame disposed in the support brackets; a waterproof cover disposed over the frame; an apron depending from the cover, configured to cover electrical connections on a side of the outdoor electrical equipment.

Abstract: A processor core supports execution of program instruction from both a first instruction set and a second instruction set. An architectural register file 18 containing architectural registers is shared by the two instruction sets. The two instruction sets employ logical register specifiers which for at least some values of those logical registers specifiers correspond to different architectural registers within the architectural register file 18. A first decoder 4 for the first instruction set and a second decoder 6 for the second instruction set serve to decode the logical register specifiers to a common register addressing format. This common register addressing format is used to supply register specifiers to renaming circuitry 10 for supporting register renaming in conjunction with a physical register file 16 and an architectural register file 18.

Abstract: A data processing system is provided in which destination operands to be stored within architectural registers are constrained to have zero values added as prefixes in order that the architectural register value has a fixed bit width irrespective of the bit width of the destination operand being written thereto. Instead of adding these zero values everywhere in the data path, they are instead represented by zero flags in at least the physical registers utilized for register renaming operations and in the result queue prior to results being written to the architectural register file. This saves circuitry resources and reduces energy consumption.

Abstract: A processor core supports execution of program instruction from both a first instruction set and a second instruction set. An architectural register file 18 containing architectural registers is shared by the two instruction sets. The two instruction sets employ logical register specifiers which for at least some values of those logical registers specifiers correspond to different architectural registers within the architectural register file 18. A first decoder 4 for the first instruction set and a second decoder 6 for the second instruction set serve to decode the logical register specifiers to a common register addressing format. This common register addressing format is used to supply register specifiers to renaming circuitry 10 for supporting register renaming in conjunction with a physical register file 16 and an architectural register file 18.

Abstract: A closet or enclosure 100 (closet) fit into an attic. A panel (110) forms the bottom of the closet. The panel can be lowered to the living space below manually or by using a return spring or electrical means. The panel holds a cabinet, box, or other storage item (105 or 2225). Air space (150) around the cabinet or items insulates it from thermal contact with the walls. Alternatively a cabinet is hung from a restraining member (145), or arm (1105), so it can be raised for storage and lowered for access. In this aspect, the panel is secured to the bottom of the cabinet. Optional vents (155) and fan (160) urge circulation between the air space and the living space, reducing temperature extremes in the air space and hence the cabinet. In other aspects, air treatment units (HVAC, dehumidifier, etc.) condition the air within the closet or enclosure.

Abstract: A high flow volume nasal irrigation device includes a squeeze bottle, a reservoir of liquid and a volume of air. The bottle is configured to elastically deform in response to a manual pressure from a user and thus pressurize the liquid and air. The device also includes a dip tube configured to convey a pressurized liquid flow from a first end inside the bottle to a second outside end at a lower pressure. A removable nipple cap comprises an orifice and a coaxially aligned extension configured to seal with the dip tube and to form a conduit with the tube. At least one air metering orifice is formed in the fluid conduit accessible to the to volume of air. The air metering orifice is configured to introduce a plurality of air pockets from the air volume into the liquid flow and thus generate a pulsatile fluid flow in the conduit.

Abstract: A high flow volume nasal irrigation device includes a squeeze bottle, a reservoir of liquid and a volume of air. The bottle is configured to elastically deform in response to a manual pressure from a user and thus pressurize the liquid and air. The device also includes a dip tube configured to convey a pressurized liquid flow from a first end inside the bottle to a second outside end at a lower pressure. A removable nipple cap comprises an orifice and a coaxially aligned extension configured to seal with the dip tube and to form a conduit with the tube. At least one air metering orifice is formed in the fluid conduit accessible to the to volume of air. The air metering orifice is configured to introduce a plurality of air pockets from the air volume into the liquid flow and thus generate a pulsatile fluid flow in the conduit.

Abstract: A data processing system is provided in which destination operands to be stored within architectural registers are constrained to have zero values added as prefixes in order that the architectural register value has a fixed bit width irrespective of the bit width of the destination operand being written thereto. Instead of adding these zero values everywhere in the data path, they are instead represented by zero flags in at least the physical registers utilised for register renaming operations and in the result queue prior to results being written to the architectural register file. This saves circuitry resources and reduces energy consumption.