Abstract: Golf ball comprising one or more layers and/or indicia formed from a fluorescent composition comprising: a base polymer; and a colorant; wherein the colorant is a small-molecule ionic isolation lattice formed from one or more fluorescent dye and one or more cyanostar macrocycles. The one or more fluorescent dyes may include at least one dye selected from xanthenes, oxazines, styryls, cyanines, trianguleniums, or mixtures thereof. The colorant may be a dispersion of the small-molecule ionic isolation lattice in a carrier medium or a powder. In particular embodiments, at least one of the one or more layers is a cover layer and/or a coating layer.

Abstract: A method that includes (a) providing a stream containing ethane and oxygen to an ODH reactor; (b) converting a portion of the ethane to ethylene and acetic acid in the ODH reactor to provide a stream containing ethane, ethylene, acetic acid, oxygen and carbon monoxide; (c) separating a portion of the acetic acid from the stream to provide an acetic acid stream and a stream containing ethane, ethylene, oxygen and carbon monoxide; (d) providing the stream to a CO Oxidation Reactor containing a catalyst that includes a group 11 metal to convert carbon monoxide to carbon dioxide and reacting acetylene to produce a stream containing ethane, ethylene and carbon dioxide; and (e) providing a portion of the stream and a portion of the acetic acid stream to a third reactor containing a catalyst that includes a metal selected from group 10 and group 11 metals to produce vinyl acetate.

Abstract: The present disclosure relates to limiting the production of acetic acid in an oxidative dehydrogenation process to convert ethane to ethylene. The process of oxidative dehydrogenation includes feeding acetic acid, along with ethane and oxygen into an oxidative dehydrogenation reactor where contact with a catalyst leads to conversion of the ethane into ethylene and acetic acid. By including acetic acid in the feed, the amount of acetic acid produced may be limited and the ratio of ethylene produced to ethane consumed may increase.

Abstract: A system and method for oxidative dehydrogenation including a first reactor having a first ODH catalyst to dehydrogenate an alkane to a corresponding alkene at a first temperature and facilitate generation of steam, a second reactor having a second ODH catalyst to dehydrogenate alkane in a first-reactor effluent to the corresponding alkene at a second temperature that may be greater than the first temperature and facilitate generation of steam, and a third reactor having a third ODH catalyst to dehydrogenate alkane in a second-reactor effluent to the corresponding alkene at a third temperature that may be greater than the first temperature or the second temperature and facilitate generation of steam.

Abstract: A method that includes (a) providing a stream containing ethane and oxygen to an ODH reactor; (b) converting a portion of the ethane to ethylene and acetic acid in the ODH reactor to provide a stream containing ethane, ethylene, acetic acid, oxygen and carbon monoxide; (c) separating a portion of the acetic acid from the stream to provide an acetic acid stream and a stream containing ethane, ethylene, oxygen and carbon monoxide; (d) providing the stream to a CO Oxidation Reactor containing a catalyst that includes a group 11 metal to convert carbon monoxide to carbon dioxide and reacting acetylene to produce a stream containing ethane, ethylene and carbon dioxide; and (e) providing a portion of the stream and a portion of the acetic acid stream to a third reactor containing a catalyst that includes a metal selected from group 10 and group 11 metals to produce vinyl acetate.

Abstract: According to at least one exemplary embodiment, a carrier may be overlaid onto a vehicle. The vehicle may be a handle-propelled vehicle, for example a wheelbarrow. The carrier may have contours that fit over the top of the vehicle such that the carrier stays in place relative to the vehicle without additional fastening means when the vehicle is propelled in motion. The carrier design may also allow the carrier to be easily installed and removed from the vehicle. Additionally, the carrier may have a plurality of compartments of varying sizes and shapes. The compartments may be specifically designed to hold a variety of items, for example mobile technology devices, food containers, beverage containers, gardening materials and tools, landscaping materials and tools, or construction materials and tools.

Abstract: According to at least one exemplary embodiment, a carrier may be overlaid onto a vehicle. The vehicle may be a handle-propelled vehicle, for example a wheelbarrow. The carrier may have contours that fit over the top of the vehicle such that the carrier stays in place relative to the vehicle without additional fastening means when the vehicle is propelled in motion. The carrier design may also allow the carrier to be easily installed and removed from the vehicle. Additionally, the carrier may have a plurality of compartments of varying sizes and shapes. The compartments may be specifically designed to hold a variety of items, for example mobile technology devices, food containers, beverage containers, gardening materials and tools, landscaping materials and tools, or construction materials and tools.

Abstract: According to at least one exemplary embodiment, a carrier may be overlaid onto a vehicle. The vehicle may be a handle-propelled vehicle, for example a wheelbarrow. The carrier may have contours that fit over the top of the vehicle such that the carrier stays in place relative to the vehicle without additional fastening means when the vehicle is propelled in motion. The carrier design may also allow the carrier to be easily installed and removed from the vehicle. Additionally, the carrier may have a plurality of compartments of varying sizes and shapes. The compartments may be specifically designed to hold a variety of items, for example mobile technology devices, food containers, beverage containers, gardening materials and tools, landscaping materials and tools, or construction materials and tools.

Abstract: A battery powered device is configured to allow the device to be stored for extended periods of time with a lithium battery installed and operable. An electronic switch is coupled between the battery and processing logic of the device and is biased off to block all current flow to the processing logic while the device is in a storage state. A user may perform a simple action to overcome the bias such that the electronic switch is turned on and allows current to flow to the processing logic in an operational state. Later, the user may perform another simple action to restore the bias such that the electronic switch is turned off to return the device to the storage state in which essentially no current is drained from the battery.

Abstract: According to at least one exemplary embodiment, a carrier may be overlaid onto a vehicle. The vehicle may be a handle-propelled vehicle, for example a wheelbarrow. The carrier may have contours that fit over the top of the vehicle such that the carrier stays in place relative to the vehicle without additional fastening means when the vehicle is propelled in motion. The carrier design may also allow the carrier to be easily installed and removed from the vehicle. Additionally, the carrier may have a plurality of compartments of varying sizes and shapes. The compartments may be specifically designed to hold a variety of items, for example mobile technology devices, food containers, beverage containers, gardening materials and tools, landscaping materials and tools, or construction materials and tools.

Abstract: A battery powered device is configured to allow the device to be stored for extended periods of time with a lithium battery installed and operable. An electronic switch is coupled between the battery and processing logic of the device and is biased off to block all current flow to the processing logic while the device is in a storage state. A user may perform a simple action to overcome the bias such that the electronic switch is turned on and allows current to flow to the processing logic in an operational state. Later, the user may perform another simple action to restore the bias such that the electronic switch is turned off to return the device to the storage state in which essentially no current is drained from the battery.

Abstract: According to at least one exemplary embodiment, a carrier may be overlaid onto a vehicle. The vehicle may be a handle-propelled vehicle, for example a wheelbarrow. The carrier may have contours that fit over the top of the vehicle such that the carrier stays in place relative to the vehicle without additional fastening means when the vehicle is propelled in motion. The carrier design may also allow the carrier to be easily installed and removed from the vehicle. Additionally, the carrier may have a plurality of compartments of varying sizes and shapes. The compartments may be specifically designed to hold a variety of items, for example mobile technology devices, food containers, beverage containers, gardening materials and tools, landscaping materials and tools, or construction materials and tools.

Abstract: Provided is a chip-scale atomic clock having a folded optic configuration or physics package. In particular, the physics package includes a vapor cell for containing gaseous alkali atoms and a VCSEL for generating a laser light One or more heating elements are positioned to simultaneously heat both the vapor cell and VCSEL to the required operating temperature. A micro-lens element, positioned between the VCSEL and a reflector, is used to first expand the beam of light, and then to subsequently collimate the light after it is once reflected. Collimated, reflected light passes through the vapor cell wherein the alkali atoms are excited and a percentage of the reflected light is absorbed. A detector, located opposite the reflector and micro-lens array, detects light passing through the cell. An error signal is generated and the output voltage of a local voltage oscillator is successively stabilized.

Abstract: Provided is a chip-scale atomic clock having a folded optic configuration or physics package. In particular, the physics package includes a vapor cell for containing gaseous alkali atoms and a VCSEL for generating a laser light. One or more heating elements are positioned to simultaneously heat both the vapor cell and VCSEL to the required operating temperature. A micro-lens element, positioned between the VCSEL and a reflector, is used to first expand the beam of light, and then to subsequently collimate the light after it is once reflected. Collimated, reflected light passes through the vapor cell wherein the alkali atoms are excited and a percentage of the reflected light is absorbed. A detector, located opposite the reflector and micro-lens array, detects light passing through the cell. An error signal is generated and the output voltage of a local voltage oscillator is successively stabilized.