Abstract: A controller for heating, ventilation, or air conditioning (HVAC) equipment that is operable to affect an environmental condition of a building is configured to obtain predictive models that predict values of a carbon emissions control objective and another control objective as a function of control decision variables for the HVAC equipment. The controller executes an optimization process using the predictive models to produce sets of optimization results corresponding to different values of the control decision variables, the carbon emissions control objective, and the other control objective. The controller selects from the sets of optimization results based on the values of the carbon emissions control objective and the other control objective. The controller operates the HVAC equipment to affect the environmental condition of the building in accordance with the values of the control decision variables corresponding to a selected set of the optimization results.

Abstract: Apparatus and associated methods relate to management of therapeutic digital assets in a non-medical environment. In an illustrative example, non-medical digital asset(s) (NMDAs) may be evaluated relative to one or more therapeutic modalities. A corresponding therapeutic digital asset (TDA) may, for example, be generated for each therapeutically associated NMDA. The TDA may, for example, be traceably associated with corresponding risks and/or risk mitigations. Each TDA may be associated, for example, with a test profile corresponding to a risk and/or risk mitigation. A TDA may be released into a non-medical digital content delivery environment (DCDE), for example. The TDA may, for example, be monitored in the DCDE to maintain verification and/or validation (VV). A change in the DCDE affecting VV of the TDA may, for example, result in deactivation of the TDA in the DCDE. Various embodiments may advantageously permit VV of selected digital assets in a non-medical environment.

Abstract: A tear open shrink bag that includes second and third seal extending from the first seal and a tear initiator. After filling and sealing the bag, the bagged product is exposed to heat to shrink the bag tight to the product. The product can be manually removed from the bag by pulling at the assistors in the header, propagating the tear from the initiator through the seal and into the body of the bag.

Abstract: The present disclosure relates to a hold-down device for use in the packaging industry. For example, the hold-down may be used with an apparatus for manufacturing a package. The hold-down may be configured to retain a packaging structure during the evacuation and/or sealing steps of a packaging process. The hold-down may include an elongate member and an attachment assembly. The elongate member may be configured to pivot and/or rotate about its longitudinal axis in response to a force exerted on the packaging structure during an evacuation and/or sealing step of a packaging process.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products, while also maintaining good oxygen barrier properties. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products, while also maintaining good oxygen barrier properties. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.

Abstract: The present disclosure relates to a hold-down device for use in the packaging industry. For example, the hold-down may be used with an apparatus for manufacturing a package. The hold-down may be configured to retain a packaging structure during the evacuation and/or sealing steps of a packaging process. The hold-down may include an elongate member and an attachment assembly. The elongate member may be configured to pivot and/or rotate about its longitudinal axis in response to a force exerted on the packaging structure during an evacuation and/or sealing step of a packaging process.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products, while also maintaining good oxygen barrier properties. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.

Abstract: Packages made from multilayer structures useful for packaging bone-in meat or other like products are provided. More specifically, packages made from multilayer structures are provided wherein the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products. In addition, packages made from multilayer structures are provided for packaging bone-in meat and other like products wherein the multilayer structures can easily seal to themselves or to other structures to provide the packages for the products. Moreover, the multilayer structures of the present invention may be biaxially oriented and heat-shrinkable.

Abstract: Multilayer structures useful for packaging bone-in meat or other like products are provided. More specifically, multilayer structures are provided that have sufficient rigidity, strength, tear resistance and puncture resistance to contain bone-in meat or other like products. In addition, multilayer structures are provided for packaging bone-in meat and other like products that can easily seal to itself or to other structures to provide the packages for the products. Moreover, the multilayer structures of the present invention may be biaxially oriented and heat-shrinkable.

Abstract: Methods of making multilayer structures useful for packaging bone-in meat or other like products are provided. More specifically, the multilayer structures made by the methods provided have sufficient rigidity, strength, tear resistance and puncture resistance to contain bone-in meat or other like products. In addition, the multilayer structures made by the methods provided can easily seal to themselves or to other structures. Moreover, the multilayer structures made by the methods provided may be biaxially oriented and heat-shrinkable.

Abstract: Methods of making multilayer structures useful for packaging bone-in meat or other like products are provided. More specifically, the multilayer structures made by the methods provided have sufficient rigidity and strength to contain bone-in meat or other like products, while also maintaining good oxygen barrier properties. In addition, the multilayer structures made by the methods provided can easily seal to themselves or to other structures to provide the packages for the products. Moreover, the multilayer structures made by the methods provided may be biaxially oriented and heat-shrinkable.

Abstract: Packages made from multilayer structures useful for packaging bone-in meat or other like products are provided. More specifically, packages made from multilayer structures are provided that have sufficient rigidity and strength to contain bone-in meat or other like products, while also maintaining good oxygen barrier properties. In addition, packages made from multilayer structures are provided for packaging bone-in meat and other like products that can easily seal to themselves or to other structures. Moreover, packages are provided made from multilayer structures that may be biaxially oriented and heat-shrinkable.

Abstract: Multilayer structures useful for packaging products, such as bone-in meat, cheese and other like products, are provided. More specifically, the multilayer structures are useful for bone-in meat packaging, cook-in packaging, shrink film packaging and other like packaging. The multilayer structures are coextruded and have sufficient durability, strength, tear resistance and puncture resistance, while also providing oxygen barrier protection. In addition, the multilayer barrier structures are biaxially oriented so as to be heat-shrinkable around products.

Abstract: Multilayer structures, methods of making the same and packages made therefrom are provided. The multilayer structures are useful for packaging bone-in meat or other like products. More specifically, the multilayer structures have sufficient rigidity and strength to contain bone-in meat or other like products. In addition, multilayer structures can easily seal to themselves or to other structures. Moreover, the multilayer structures are biaxially oriented and heat-shrinkable.