Abstract: Embodiments of the disclosure relate to tray modules and tray assemblies made from interconnected tray modules. The modular tray assemblies can be used in indoor farming with a soilless growth medium to germinate seeds, develop plants from the germinated seeds, and harvest the developed plants. The tray modules making up a tray assembly are interchangeable and can be made from the same mold design. This can reduce production costs for making tray modules and can reduce the inventory of replacement parts needed to repair tray assemblies.

Abstract: A method (300), system (400), and electronics (20) for correcting a mass flow value in measured using a Coriolis flow meter (100) for temperature effects at a known fluid temperature temp below 0 C are provided. The method comprises receiving a known fluid density ?indic, receiving the fluid temperature temp, receiving a time period Tp, determining a Young's modulus temperature correction for density TFyD based on the known fluid density ?indic, the known fluid temperature temp, and the time period Tp, determining a Young's modulus temperature correction for mass flow TFyM based on a temperature correction constant k and Young's modulus temperature correction for density TFyD, and correcting the mass flow value {dot over (m)} using the Young's modulus temperature correction for mass flow TFyM.

Abstract: The disclosed container defines (i) an “interior” configured to interact with a fluid and/or developing plants, and (ii) an “exterior” that at least partially defines a perimeter around the interior. The disclosed container may further include stacking features/elements which allow one container to be stacked/nested one upon the other. The disclosed container may further include features/elements which enable one container to be connected adjacent to the other. The disclosed container may further include (i) features/elements for delivering fluid, (ii) features/elements for draining fluid, and (iii) features/elements for supporting developing plants that are conducive to their growing within the disclosed container.

Abstract: The disclosed container defines (i) an “interior” configured to interact with a fluid and/or developing plants, and (ii) an “exterior” that at least partially defines a perimeter around the interior. The disclosed container may further include stacking features/elements which allow one container to be stacked/nested one upon the other. The disclosed container may further include features/elements which enable one container to be connected adjacent to the other. The disclosed container may further include (i) features/elements for delivering fluid, (ii) features/elements for draining fluid, and (iii) features/elements for supporting developing plants that are conducive to their growing within the disclosed container.

Abstract: A method for determining a mass flow measurement is provided. The method comprises calibrating a flowmeter sensor at a first temperature and flowing a fluid having a second temperature through the flowmeter sensor. A density of the fluid is input into meter electronics. A compensated mass flow value of the fluid is determined by meter electronics, wherein the Modulus of Elasticity of the flowmeter sensor is unknown.

Abstract: The present invention provides biological oils and methods and uses thereof. The biological oils are preferably produced by heterotrophic fermentation of one or more microorganisms using cellulose-containing feedstock as a main source of carbon. The present invention also provides methods of producing lipid-based biofuels and food, nutritional, and pharmaceutical products using the biological oils.

Abstract: The present invention refers to a cell suspension of autologous or allogeneic, preferably autologous, adult bone marrow-derived white blood cells, preferably derived from the crest of the ilium (or iliac crest), enriched for mononuclear cells, meaning more than 25% of the white blood cells (WBCs) present in the cell suspension are mononuclear cells, and comprising: A. Mononuclear cells (MNC) selected from the list comprising or consisting of: i. A population of Lymphocytes; ii. A population of Monocytes; and iii. A population of Hematopoietic stem cells expressing CD34; and wherein the cell suspension further comprises: B. Granulocytes; for use in the treatment or amelioration of lower extremity peripheral artery disease.

Abstract: A sensor assembly (100, 300) for a vibratory conduit (130a, 330) is provided. The sensor assembly (100, 300) includes a sensor bracket (110, 310) having an outer surface (112, 312) substantially symmetric about an axis (S) and including a complementary portion (112c, 312c). The sensor assembly (100, 300) also includes a tube ring (120, 220, 320) having an outer surface (122, 222, 322) including a complementary portion (122c, 222c, 322c) affixed to the complementary portion (112c, 312c) of the sensor bracket (110, 310). The axis (S) of the sensor bracket (110, 310) is external of the vibratory conduit (130a, 330) when the tube ring (120, 220, 320) is affixed to the vibratory conduit (130a, 330).

Abstract: Apparatus and methods for cooling a mixture of hot gas and liquid received from a compressor and simultaneously separating the gas from the liquid, the apparatus comprising a receiving inlet, a header unit, a collector, and a plurality of conduits comprising turbulators which creates turbulence and heat-exchange surfaces to simultaneously separate the liquid from the gas and cooling both the liquid and the gas, and the method comprising receiving the mixture from the compressor through a receiving inlet; directing the mixture into a plurality of conduits; and in each of the plurality of conduits, simultaneously separating the liquid from the gas and cooling both the gas and the liquid.

Abstract: A coil transducer (200) for elevated temperatures is provided. The coil transducer (200) includes a coil portion (210) including a coil (212), the coil (212) being comprised of a conductive wire (212a), and an electrical insulator disposed proximate the conductive wire (212a). The coil (212) is configured to have a repeatable electrical property over a temperature range that is greater than 350 C.

Abstract: A method for determining a mass flow measurement is provided. The method comprises calibrating a flowmeter sensor at a first temperature and flowing a fluid having a second temperature through the flowmeter sensor. A density of the fluid is input into meter electronics. A compensated mass flow value of the fluid is determined by meter electronics, wherein the Modulus of Elasticity of the flowmeter sensor is unknown.

Abstract: The present invention refers to a cell suspension of autologous or allogeneic, preferably autologous, adult bone marrow-derived white blood cells, preferably derived from the crest of the ilium (or iliac crest), enriched for mononuclear cells, meaning more than 25% of the white blood cells (WBCs) present in the cell suspension are mononuclear cells, and comprising: A. Mononuclear cells (MNC) selected from the list comprising or consisting of: i. A population of Lymphocytes; ii. A population of Monocytes; and iii. A population of Hematopoietic stem cells expressing CD34; and wherein the cell suspension further comprises: B. Granulocytes; for use in the treatment or amelioration of lower extremity peripheral artery disease.

Abstract: A sensor assembly (100, 300) for a vibratory conduit (130a, 330) is provided. The sensor assembly (100, 300) includes a sensor bracket (110, 310) having an outer surface (112, 312) substantially symmetric about an axis (S) and including a complementary portion (112c, 312c). The sensor assembly (100, 300) also includes a tube ring (120, 220, 320) having an outer surface (122, 222, 322) including a complementary portion (122c, 222c, 322c) affixed to the complementary portion (112c, 312c) of the sensor bracket (110, 310). The axis (S) of the sensor bracket (110, 310) is external of the vibratory conduit (130a, 330) when the tube ring (120, 220, 320) is affixed to the vibratory conduit (130a, 330).

Abstract: The present invention provides biological oils and methods and uses thereof. The biological oils are preferably produced by heterotrophic fermentation of one or more microorganisms using cellulose-containing feedstock as a main source of carbon. The present invention also provides methods of producing lipid-based biofuels and food, nutritional, and pharmaceutical products using the biological oils.

Abstract: The present invention provides biological oils and methods and uses thereof. The biological oils are preferably produced by heterotrophic fermentation of one or more microorganisms using cellulose-containing feedstock as a main source of carbon. The present invention also provides methods of producing lipid-based biofuels and food, nutritional, and pharmaceutical products using the biological oils.

Abstract: The present invention refers to a cell suspension of autologous or allogeneic, preferably autologous, adult bone marrow-derived white blood cells, preferably derived from the crest of the ilium (or iliac crest), enriched for mononuclear cells, meaning more than 25% of the white blood cells (WBCs) present in the cell suspension are mononuclear cells, and comprising: A. Mononuclear cells (MNC) selected from the list comprising or consisting of: i. A population of Lymphocytes; ii. A population of Monocytes; and iii. A population of Hematopoietic stem cells expressing CD34; and wherein the cell suspension further comprises: B. Granulocytes; for use in the treatment or amelioration of lower extremity peripheral artery disease.

Abstract: Apparatus and methods for cooling a mixture of hot gas and liquid received from a compressor and simultaneously separating the gas from the liquid, the apparatus comprising a receiving inlet, a header unit, a collector, and a plurality of conduits comprising turbulators which creates turbulence and heat-exchange surfaces to simultaneously separate the liquid from the gas and cooling both the liquid and the gas, and the method comprising receiving the mixture from the compressor through a receiving inlet; directing the mixture into a plurality of conduits; and in each of the plurality of conduits, simultaneously separating the liquid from the gas and cooling both the gas and the liquid.

Abstract: The present invention provides biological oils and methods and uses thereof. The biological oils are preferably produced by heterotrophic fermentation of one or more microorganisms using cellulose-containing feedstock as a main source of carbon. The present invention also provides methods of producing lipid-based biofuels and food, nutritional, and pharmaceutical products using the biological oils.

Abstract: The present invention provides biological oils and methods and uses thereof. The biological oils are preferably produced by heterotrophic fermentation of one or more microorganisms using cellulose-containing feedstock as a main source of carbon. The present invention also provides methods of producing lipid-based biofuels and food, nutritional, and pharmaceutical products using the biological oils.