Abstract: The invention relates to the field of food ingredients. In particular, it relates to methods for providing highly purified coagulated potato protein having a desirable taste which is advantageously used for the fortification of food products. Provided is a method for providing a purified coagulated potato protein product, comprising (i) subjecting heat coagulated potato protein to one or more extraction step(s) with an alcoholic extraction solvent comprising (a) ethanol and water at a ratio in the range of 90:10 to 60:40 (v/v), or (b) propanol and water at a ratio in the range of 90:10 to 40:60 (v/v) at a pH in the range of 3 to 6, under conditions allowing for extraction of glycoalkaloids and lipids from said heat coagulated potato protein composition, followed by (ii) washing the extracted heat coagulated potato protein with water to obtain a purified coagulated potato protein product, followed by (iii) drying the purified coagulated potato protein product.

Abstract: A circuit controls a dynamic time constant to remove DC offset from a received optical data signal. The circuit has a first capacitor coupled between a first terminal and a second terminal. A first resistance network is coupled between the second terminal and a reference voltage. A control circuit has a first output coupled to a control input of the first resistance network. The control circuit monotonically increases an effective resistance of the first resistance network to increase the dynamic time constant. The first resistance network has a resistor coupled to the second terminal, and a transistor with a first conduction terminal coupled to the resistor, a second conduction terminal coupled to the reference voltage, and a control terminal coupled to the first output of the control circuit. The first capacitor has a variable capacitance. The monotonic increase in the dynamic time constant can be linear or non-linear.

Abstract: A circuit controls a dynamic time constant to remove DC offset from a received optical data signal. The circuit has a first capacitor coupled between a first terminal and a second terminal. A first resistance network is coupled between the second terminal and a reference voltage. A control circuit has a first output coupled to a control input of the first resistance network. The control circuit monotonically increases an effective resistance of the first resistance network to increase the dynamic time constant. The first resistance network has a resistor coupled to the second terminal, and a transistor with a first conduction terminal coupled to the resistor, a second conduction terminal coupled to the reference voltage, and a control terminal coupled to the first output of the control circuit. The first capacitor has a variable capacitance. The monotonic increase in the dynamic time constant can be linear or non-linear.

Abstract: The present invention pertains to a method for manufacturing a feed product comprising the steps of: providing a lactylate product, wherein the lactylate product comprises at least 30 wt. % of C10-C16-fatty acid lactylates, in liquid form at a first location; transferring lactylate product in the liquid form to a transport unit; transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; removing the lactylate product from the transport unit in liquid form at the second location; and, contacting the lactylate product in liquid form with a feed product.

Abstract: The present invention pertains to a method for manufacturing a feed product comprising the steps of: providing a lactylate product, wherein the lactylate product comprises at least 30 wt. % of C10-C16-fatty acid lactylates, in liquid form at a first location; transferring lactylate product in the liquid form to a transport unit; transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; removing the lactylate product from the transport unit in liquid form at the second location; and, contacting the lactylate product in liquid form with a feed product.

Abstract: The present invention pertains to a method for manufacturing a feed product comprising the steps of: providing a lactylate product, wherein the lactylate product comprises at least 30 wt, % of C10-C16-fatty acid lactylates, in liquid form at a first location; transferring lactylate product in the liquid form to a transport unit; transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; removing the lactylate product from the transport unit in liquid form at the second location; and, contacting the lactylate product in liquid form with a feed product.

Abstract: Invention pertains to a free-flowing particulate powder including 2-90 wt. % of an active compound on a carrier, wherein the carrier has a D(v,0.1) of at least 100 microns, with the active compound being selected from lactylate in accordance with formula (1), Formula (1): R2-COO—[—CH(CH3)-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof, a glycolylate of formula (2), Formula (2): R2-COO—[—CH2-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof a lactate ester of formula (3), Formula (3): HO—CH(CH3)-COO—R2 and/or a glycolic acid ester of formula (4), Formula (4): HO—CH2-COO—R2 wherein in the above formulae R1 is selected from H, n stands for an integer with a value of 1-10, and R2 stands for a C1-C35 alkyl or alkenyl chain which may be branched or unbranched. The powder allows easy provision of the active compound to feed compositions.

Abstract: Invention pertains to a free-flowing particulate powder including 2-90 wt. % of an active compound on a carrier, wherein the carrier has a D(v,0.1) of at least 100 microns, with the active compound being selected from lactylate in accordance with formula (1), Formula (1): R2-COO—[—CH(CH3)-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof, a glycolylate of formula (2), Formula (2): R2-COO—[—CH2-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof a lactate ester of formula (3), Formula (3): HO—CH(CH3)-COO—R2 and/or a glycolic acid ester of formula (4), Formula (4): HO—CH2-COO—R2 wherein in the above formulae R1 is selected from H, n stands for an integer with a value of 1-10, and R2 stands for a C1-C35 alkyl or alkenyl chain which may be branched or unbranched. The powder allows easy provision of the active compound to feed compositions.

Abstract: A method for the preparation of an alkali metal cinnamate powdery product, preferably potassium cinnamate or sodium cinnamate, is disclosed herein. The resulting product has novel structural properties. The powder of the present disclosure is made via spray-drying and/or spray agglomeration and has a higher flowability, is less cohesive and less dusty, has an improved dissolution rate and in particular has a very favorable organoleptic profile. The disclosure is also directed to product applications in which the novel cinnamate product of the present disclosure may be applied.

Abstract: The present invention pertains to a method for manufacturing a feed product comprising the steps of: providing a lactylate product, wherein the lactylate product comprises at least 30 wt, % of C10-C16-fatty acid lactylates, in liquid form at a first location; transferring lactylate product in the liquid form to a transport unit; transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; removing the lactylate product from the transport unit in liquid form at the second location; and, contacting the lactylate product in liquid form with a feed product.

Abstract: Invention pertains to a free-flowing particulate powder including 2-90 wt. % of an active compound on a carrier, wherein the carrier has a D(v,0.1) of at least 100 microns, with the active compound being selected from lactylate in accordance with formula (1), Formula (1): R2-COO—[—CH(CH3)-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof, a glycolylate of formula (2), Formula (2): R2-COO—[—CH2-COO]n-R1 or a Na, K, Ca, Mg, Fe(II), Zn, NH4, or Cu(II) salt thereof a lactate ester of formula (3), Formula (3): HO—CH(CH3)-COO—R2 and/or a glycolic acid ester of formula (4), Formula (4): HO—CH2-COO—R2 wherein in the above formulae R1 is selected from H, n stands for an integer with a value of 1-10, and R2 stands for a C1-C35 alkyl or alkenyl chain which may be branched or unbranched. The powder allows easy provision of the active compound to feed compositions.

Abstract: A method for the preparation of an alkali metal cinnamate powdery product, preferably potassium cinnamate or sodium cinnamate, is disclosed herein. The resulting product has novel structural properties. The powder of the present disclosure is made via spray-drying and/or spray agglomeration and has a higher flowability, is less cohesive and less dusty, has an improved dissolution rate and in particular has a very favorable organoleptic profile. The disclosure is also directed to product applications in which the novel cinnamate product of the present disclosure may be applied.