mhurhangee/patent-ind-claim-en huggingface dataset:
Spreadable food composition comprising a comestible active ingredient derived from olive pomace, wherein the active ingredient derived from olive pomace has at least 9695 mg gallic acid equivalents/L of total phenolics and 8265 mg epicatechin equivalents/L of total flavonoids; and at least a compound selected from the list consisting of: hydroxytyrosol, tyrosol, comsegoloside, verbascoside, and combinations thereof; wherein the comestible active ingredient derived from olive pomace is obtained by a process comprising the following steps: malaxating of olive pomace; compressing the olive pomace, at 50-300 bar, preferably 200 - 300 bar; separating a solid phase from an oil phase and from an aqueous phase; discharging the solid phase; centrifugating the oil phase and the aqueous phase at 5000 rpm for 5 min, preferably for 20 min; wherein the composition comprises at least 5 mg compound/ 10 g spreadable food composition ; and wherein the comestible active ingredient comprises 0.01 g/L- 2.26 g/L of the compound; and wherein the comestible active ingredient is a mixture of hydroxytyrosol, tyrosol, sterols, tocopherols, triterpenes, coenzyme Q10, potassium, magnesium, and calcium, among others; and wherein said composition comprises an oil phase and an aqueous phase, wherein the oil phase is olive oil; and the aqueous phase comprises the comestible active ingredient derived from olive pomace. a comestible active ingredient derived from olive pomace, wherein the active ingredient derived from olive pomace has at least 9695 mg gallic acid equivalents/L of total phenolics and 8265 mg epicatechin equivalents/L of total flavonoids; and at least a compound selected from the list consisting of: hydroxytyrosol, tyrosol, comsegoloside, verbascoside, and combinations thereof; wherein the comestible active ingredient derived from olive pomace is obtained by a process comprising the following steps: malaxating of olive pomace; compressing the olive pomace, at 50-300 bar, preferably 200 - 300 bar; separating a solid phase from an oil phase and from an aqueous phase; discharging the solid phase; centrifugating the oil phase and the aqueous phase at 5000 rpm for 5 min, preferably for 20 min; malaxating of olive pomace; compressing the olive pomace, at 50-300 bar, preferably 200 - 300 bar; separating a solid phase from an oil phase and from an aqueous phase; discharging the solid phase; centrifugating the oil phase and the aqueous phase at 5000 rpm for 5 min, preferably for 20 min; wherein the composition comprises at least 5 mg compound/ 10 g spreadable food composition ; and wherein the comestible active ingredient comprises 0.01 g/L- 2.26 g/L of the compound; and wherein the comestible active ingredient is a mixture of hydroxytyrosol, tyrosol, sterols, tocopherols, triterpenes, coenzyme Q10, potassium, magnesium, and calcium, among others; and wherein said composition comprises an oil phase and an aqueous phase, wherein the oil phase is olive oil; and the aqueous phase comprises the comestible active ingredient derived from olive pomace.
A locking spacer assembly configured to fill a final spacer slot in a disk groove between platforms of adjacent blades of a blade assembly comprising: a first side piece ; a second side piece ; a mid piece configured to be disposed between an inner surface of the first side piece and an inner surface of the second side piece ; and a bolt configured to be disposed into the mid piece , wherein the bolt is configured to position the mid piece in a radial position in an assembled state, wherein the mid piece is configured to contact the first side piece and the second side piece in the assembled state to prevent an axial movement of the first side piece and an axial movement of the second side piece , wherein the mid piece comprises a base and a hollow cylindrical body , wherein the hollow cylindrical body radially penetrates through the base and radially extends upwardly from the base , and wherein the bolt is threaded within the hollow cylindrical body . a first side piece ; a second side piece ; a mid piece configured to be disposed between an inner surface of the first side piece and an inner surface of the second side piece ; and a bolt configured to be disposed into the mid piece , wherein the bolt is configured to position the mid piece in a radial position in an assembled state, wherein the mid piece is configured to contact the first side piece and the second side piece in the assembled state to prevent an axial movement of the first side piece and an axial movement of the second side piece , wherein the mid piece comprises a base and a hollow cylindrical body , wherein the hollow cylindrical body radially penetrates through the base and radially extends upwardly from the base , and wherein the bolt is threaded within the hollow cylindrical body .
An aqueous dispersion comprising - a first ethylene-vinyl alcohol copolymer in the form of capsules with an ethylene content comprised between 24 and 38 mol% and, - a second ethylene-vinyl alcohol copolymer with an ethylene content lower than 15 mol%, characterized in that the weight ratio between said first ethylene-vinyl alcohol copolymer and said second ethylene-vinyl alcohol copolymer is comprised between 0.40 and 0.70. - a first ethylene-vinyl alcohol copolymer in the form of capsules with an ethylene content comprised between 24 and 38 mol% and, - a second ethylene-vinyl alcohol copolymer with an ethylene content lower than 15 mol%,
Escapement mechanism of a timepiece , comprising: - a first escapement wheel , a second escapement wheel called an impulse pinion and a drive pinion ; the impulse pinion , the drive pinion and the first escapement wheel being mounted on the same axis (X1); - an intermediate wheel meshing with the drive pinion ; - a balance plate carrying a plate peg and a direct impulse pallet stone arranged to cooperate with the first escapement wheel ; - pallets including a pallet entry cooperating with the plate peg, an impulse pallet stone arranged to cooperate with the impulse pinion , and first and second support pallet stones arranged to cooperate with the first escapement wheel ; characterised in that the first escapement wheel , the drive pinion and the impulse pinion are mounted in this order. - a first escapement wheel , a second escapement wheel called an impulse pinion and a drive pinion ; the impulse pinion , the drive pinion and the first escapement wheel being mounted on the same axis (X1); - an intermediate wheel meshing with the drive pinion ; - a balance plate carrying a plate peg and a direct impulse pallet stone arranged to cooperate with the first escapement wheel ; - pallets including a pallet entry cooperating with the plate peg, an impulse pallet stone arranged to cooperate with the impulse pinion , and first and second support pallet stones arranged to cooperate with the first escapement wheel ;
A grain-oriented electrical steel sheet composed of 2.5 to 3.5% by mass of Si, optionally further C: 0.005% or less P: 0.005% or less N: 0.005% or less S: 0.005% or less Ti: 0.005% or less Bi: 0.005% or less Nb: 0.005% or less Se: 0.005% or less Al: 0.01% or less Mn: 0.01% or less Sn: 0.01% or less Sb: 0.01% or less and/or Cu: 0.01% or less, with the balance being Fe and inevitable elements, and having a sheet thickness of 0.18 to 0.35 mm, wherein its metallographic structure after secondary-recrystallized annealing includes matrix grains of Goss-oriented secondary recrystallized grains, and wherein, in the metallographic structure, the existence frequency of Goss-oriented crystal grains having a major (long) diameter of 5 mm or less present in the matrix grains is 1.5 grains/cm 2 or more and 8 grains/cm 2 or less, and the magnetic flux density B8 is 1.88T or more, wherein the deviation angles from the rolling direction of direction of the Goss-oriented crystal grains are 7° or less and 5° or less, in terms of a simple (arithmetic) average of α angle and β angle, respectively, wherein the α angle and the β angle are as follows: α angle; the angle formed by the longitudinal direction and the projection of the on specimen surface, and β angle; the tilt of the out of the specimen surface. α angle; the angle formed by the longitudinal direction and the projection of the on specimen surface, and β angle; the tilt of the out of the specimen surface.
A method between a transponder unit and a reading device , comprising the steps of: - causing (S2) the transponder unit to carry out a predetermined computation by the reading device ; - carrying out (S3) the predetermined computation by the transponder unit , wherein energy according to a first value is available to the transponder unit for carrying out the predetermined computation; - determining (T4, T5, T6) a first processing time (t1) by the transponder unit , said time having been needed by the transponder unit to carry out the predetermined computation; - characterized by the transponder unit carrying out (S7) the predetermined computation again, wherein energy according to a second value, which is different from the first value, is available to the transponder unit for carrying out the predetermined computation again; - determining (T4, T5, T6) a second processing time (t2), said time having been needed by the transponder unit to carry out the predetermined computation again; and - evaluating (S9) the first processing time (t1) and the second processing time (t2), in particular evaluating a difference between the first processing time (t1) and the second processing time (t1) with reference to at least one predetermined reference value (tref), wherein the value of the energy which is available to the transponder unit for carrying out the predetermined computation in each case is determined by the field strength (H1; H2) of a reading field, which is supplied on the part of the reading device . - causing (S2) the transponder unit to carry out a predetermined computation by the reading device ; - carrying out (S3) the predetermined computation by the transponder unit , wherein energy according to a first value is available to the transponder unit for carrying out the predetermined computation; - determining (T4, T5, T6) a first processing time (t1) by the transponder unit , said time having been needed by the transponder unit to carry out the predetermined computation; - characterized by the transponder unit carrying out (S7) the predetermined computation again, wherein energy according to a second value, which is different from the first value, is available to the transponder unit for carrying out the predetermined computation again; - determining (T4, T5, T6) a second processing time (t2), said time having been needed by the transponder unit to carry out the predetermined computation again; and - evaluating (S9) the first processing time (t1) and the second processing time (t2), in particular evaluating a difference between the first processing time (t1) and the second processing time (t1) with reference to at least one predetermined reference value (tref), wherein the value of the energy which is available to the transponder unit for carrying out the predetermined computation in each case is determined by the field strength (H1; H2) of a reading field, which is supplied on the part of the reading device .
A method performed by a wireless communication device , the method comprising: receiving one or more segments of a segmented Radio Resource Control, RRC, message; determining that an Radio Link Failure, RLF, has occurred before a last segment of the segmented RRC message has been received; and upon determining that the error has occurred before the last segment of the segmented RRC message has been received, discarding the one or more received segments of the segmented Radio Resource Control, RRC, message. receiving one or more segments of a segmented Radio Resource Control, RRC, message; determining that an Radio Link Failure, RLF, has occurred before a last segment of the segmented RRC message has been received; and upon determining that the error has occurred before the last segment of the segmented RRC message has been received, discarding the one or more received segments of the segmented Radio Resource Control, RRC, message.
An apparatus for obtaining pressure measurements in an airstream, the apparatus comprising: a Pitot tube comprising: an elongated cylindrical Pitot body having a central longitudinal Pitot axis ; at least one total pressure port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , the at least one total pressure port being configured to be positioned in the airstream facing upstream; at least one static pressure port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , the at least one static pressure port being configured to be positioned in the airstream facing downstream 180 degrees from the total pressure port ; at least one first directional port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis ; and at least one second directional port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , wherein the at least one first directional port and the at least one second directional port are positioned on opposite sides of the at least one total pressure port and face obliquely with respect to the direction that the at least one total pressure port faces. an elongated cylindrical Pitot body having a central longitudinal Pitot axis ; at least one total pressure port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , the at least one total pressure port being configured to be positioned in the airstream facing upstream; at least one static pressure port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , the at least one static pressure port being configured to be positioned in the airstream facing downstream 180 degrees from the total pressure port ; at least one first directional port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis ; and at least one second directional port extending into the Pitot body and extending along an axis that extends perpendicular to the Pitot axis and radially from the Pitot axis , wherein the at least one first directional port and the at least one second directional port are positioned on opposite sides of the at least one total pressure port and face obliquely with respect to the direction that the at least one total pressure port faces.
A method for operating a catalyst arrangement of an internal combustion engine, the catalyst arrangement including at least one exhaust gas sensor having a sensor element and a sensor heating device configured to heat the sensor element above a predetermined sensor operating temperature threshold, and a catalyst having a catalyst heating device configured to heat the catalyst above a predetermined catalyst operating temperature threshold, the sensor operating temperature threshold being significantly greater than the catalyst operating temperature threshold, the method comprising: - determining a temperature of the catalyst heating device ; - activating the catalyst heating device for heating the catalyst above the predetermined catalyst operating temperature threshold, when the determined temperature of the catalyst is below the predetermined catalyst operating temperature threshold; and - activating the sensor heating device for heating the sensor element above the predetermined sensor operating temperature threshold, when the temperature of the catalyst exceeds the predetermined catalyst operating temperature threshold. - determining a temperature of the catalyst heating device ; - activating the catalyst heating device for heating the catalyst above the predetermined catalyst operating temperature threshold, when the determined temperature of the catalyst is below the predetermined catalyst operating temperature threshold; and - activating the sensor heating device for heating the sensor element above the predetermined sensor operating temperature threshold, when the temperature of the catalyst exceeds the predetermined catalyst operating temperature threshold.
A mining machine having a towing hook , comprising: a first end having a bent portion to allow a towing tool to be connected, a second end having a cylindrical rod , an intermediate part being located between the first and the second end, the towing hook being mounted in a through hole in a frame of the machine in order for the first and second ends to be positioned on different sides of the machine frame , and the intermediate part mounted partly in the through hole of the frame, and wherein the longitudinal axis of the cylindrical rod is generally parallel with a longitudinal axis (L) defined through the towing hook representing the force transmitting direction when connecting the towing tool to the bent portion . a first end having a bent portion to allow a towing tool to be connected, a second end having a cylindrical rod , an intermediate part being located between the first and the second end, the towing hook being mounted in a through hole in a frame of the machine in order for the first and second ends to be positioned on different sides of the machine frame , and the intermediate part mounted partly in the through hole of the frame, and wherein the longitudinal axis of the cylindrical rod is generally parallel with a longitudinal axis (L) defined through the towing hook representing the force transmitting direction when connecting the towing tool to the bent portion .
Instruments for implanting bone inserts between two bone stumps of long bones, comprising: - a metal plate extending longitudinally according to a predetermined direction (D) and suitable for connecting the above-mentioned two bone stumps ; - a first guiding unit for cutting an end portion of a first of said two stumps, said first guiding unit being configured for slidably engaging on said metal plate ; - a second guiding unit for cutting an end portion of a second of said two stumps, said second guiding unit slidably engaging on said plate , each of said first and second guiding units having a respective slit (F) for housing and guiding a cutting blade, said slit (F) being configured for guiding a blade as it cuts said end portion of said stumps defining a cutting plane (P6, P7) extending perpendicularly to said predetermined direction (D) of extension of said plate . - a metal plate extending longitudinally according to a predetermined direction (D) and suitable for connecting the above-mentioned two bone stumps ; - a first guiding unit for cutting an end portion of a first of said two stumps, said first guiding unit being configured for slidably engaging on said metal plate ; - a second guiding unit for cutting an end portion of a second of said two stumps, said second guiding unit slidably engaging on said plate , each of said first and second guiding units having a respective slit (F) for housing and guiding a cutting blade, said slit (F) being configured for guiding a blade as it cuts said end portion of said stumps defining a cutting plane (P6, P7) extending perpendicularly to said predetermined direction (D) of extension of said plate .
A trimmer for trimming a bound material, comprising: a trim knife that trims the bound material; a blade receiving portion that receives a blade edge of the trim knife ; and an adjustment mechanism characterized in that the adjusting mechanism is configured to adjust a position of the blade receiving portion in such a manner that each of one side and other side of the blade receiving portion is moved by not only a same amount but also a different amount and in directions toward and away from the blade edge of the trim knife , wherein the adjustment mechanism comprises: first and second motors ; a first connecting portion configured to connect the one side of the blade receiving portion with the first motor ; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor , whereby each of the one side and the other side of the blade receiving portion is moved in the directions toward and away from the blade edge of the trim knife . a trim knife that trims the bound material; a blade receiving portion that receives a blade edge of the trim knife ; and an adjustment mechanism characterized in that the adjusting mechanism is configured to adjust a position of the blade receiving portion in such a manner that each of one side and other side of the blade receiving portion is moved by not only a same amount but also a different amount and in directions toward and away from the blade edge of the trim knife , wherein the adjustment mechanism comprises: first and second motors ; a first connecting portion configured to connect the one side of the blade receiving portion with the first motor ; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor , whereby first and second motors ; a first connecting portion configured to connect the one side of the blade receiving portion with the first motor ; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor , whereby each of the one side and the other side of the blade receiving portion is moved in the directions toward and away from the blade edge of the trim knife .