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Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Operation instructions for double faced slide rule type 1009. The slide rule was made by the China National Light Industrial Products, Import and Export Corporation, Shanghai Stationary and Educational Supplies Branch and sold under the brand name "Flying Fish." The 1009 was a vector log-log type rule with hyperbolic scales and was known as their "Engineering Rule."

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

Be warned, fitting this is a bit of work and will require some 'smithing' to get the blaster to function. Replacement slide for the RX Manual Glock Gel Blaster plus some other cosmetic additions. The replacement slide is a single piece, not split like the original. It allows for the full travel of the slide and retains the correct opperation of the blaster so in theory it will still work after the mod. To acheive this the parts that interface with the chamber and plunger have been relocated so the slide pics up the plunger after an amount of travel. On the return stroke the slide reseats the chamber at the end of the travel. I have included 2 plain versions (you should be able to modify to include any custom slide work) as well as one with some custom cuts. Also included are an outer barrel/breach, custom trigger, guide rod and an extended mag release. To get this to work: - Remove stock slide - You will need to remove some material on the side of the barrel interface, i didn't take a pic :( on the LHS of the barrel/ramp (orange plastic piece) there are some protrusions that need to be ground off flat. Once you have a slide printed you will see the part that interferes. - Install the guide rod by gluing to the receiver - you can with a bit of imagination re-purpose the original spring to work with the guide rod* - The slide is installed by sliding over the barrel/guide rod then flaring (gently) each side progressivly until it sits un the rails. This will test your layer adhesion and patience. - On the 1st rack the cylinder should click into position. - You can if you choose then glue in the breach piece, this covers the barrel/ramp part. If you decide to install this part make sure if slides under the slide. If it moves with the slide it can drop into the open 'breach' and prevent the slide returning to battery. Needs to be glued to the ramp/barrel piece. It isn't really designed to come off once installed, but if you need to remove the slide you can again gently lever the sides off the rails. I didn't design this to be user friendly, don't be supprised if you need to file/sand parts to make them fit. Mine went together OK, is tight and will not return to battery with spring power alone. I did reassemble immediatly after repainting, so that doesn't help. Lubricating the slide and breach helps. If you manage to get one working please post some pics up!

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

The Slide-Rule Life Cycle Cost Model System (SRS) has been designed as an aid to system, subsystem ad assembly designers in making cost estimates and trade-offs early in the design process. At this stage it is still posible for cost analysis to influence design - system cost has not yet been 'locked in' due to the lack of flexibility in system configuration which occures in the later phases of design. The SRS consists of four linked programs implemented on a Texas Instruments TI-59 programmable calculator coupled to a TI PC-100A printer. Each program is appropriate to a different design phase and aggregation level. The first estimates the life cycle costs of a system by making simplifying assumptions about its subelements; the second is used for the design of a single Lowest Removable Asembly (LRA); the third estimates system or subsystem costs by aggregating the costs of its subelements, computed in the second program; the fourth is a specialized program used to compute the achieved system confidence level against a stock-out of spare parts.

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956. 

Instruction manual for the Argus 300 series of slide projectors circa 1956.