mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a heat-treated, thickened dairy liquid comprising added chloride salt of Na +, K +, and/or Ca 2+ and having a pH in the range of 6-8 at 20 degrees C and a viscosity in the range of 20*10 -3 - 400*10 -3 Pa*s (20-400 cP) at 5 degrees C measured according to Example 1.9, the method comprising the steps of: a) providing a liquid dairy base comprising milk fat, milk protein, and acid-gellable whey protein aggregates, said dairy base having a pH in the range of 6-8, and said dairy base containing 0.2-3% (w/w) acid-gellable whey protein aggregates, b) optionally, homogenizing the dairy base, c) heat-treating the liquid dairy base at a temperature of at least 70 degrees C for a duration sufficient to obtain at least a factor 10 5 reduction in the number of colony forming units of the liquid dairy base, and d) cooling the liquid dairy base to at most 10 degrees C, thereby obtaining the thickened dairy liquid, said method furthermore comprising adding chloride salt of Na +, K + and/or Ca 2+ to the dairy base before and/or after the heat-treatment of step c) in an amount sufficient to obtain a total amount of added chloride salt of Na +, K + and Ca 2+ of the thickened dairy liquid in the range of 0.1-3% (w/w). a) providing a liquid dairy base comprising milk fat, milk protein, and acid-gellable whey protein aggregates, said dairy base having a pH in the range of 6-8, and said dairy base containing 0.2-3% (w/w) acid-gellable whey protein aggregates, b) optionally, homogenizing the dairy base, c) heat-treating the liquid dairy base at a temperature of at least 70 degrees C for a duration sufficient to obtain at least a factor 10 5 reduction in the number of colony forming units of the liquid dairy base, and d) cooling the liquid dairy base to at most 10 degrees C, thereby obtaining the thickened dairy liquid, said method furthermore comprising adding chloride salt of Na +, K + and/or Ca 2+ to the dairy base before and/or after the heat-treatment of step c) in an amount sufficient to obtain a total amount of added chloride salt of Na +, K + and Ca 2+ of the thickened dairy liquid in the range of 0.1-3% (w/w).
Driver assistance system for a vehicle, said system comprising: - a path determining device capable of determining a path for said vehicle; - an autonomous driving device for assisting said driver when driving the vehicle; said driver assistance system being characterised in that the autonomous driving device is designed to progressively assume steering control in order to pass progressively, as a function of a speed V(t) of the vehicle at time t, from a manual driving mode of said vehicle in which a driver drives said vehicle, to an automatic driving mode of said vehicle in which said autonomous driving device drives said vehicle free from intervention of said driver, in order to progressively assist with the driving of the vehicle between a speed V3 above which said vehicle is driven by the driver in a manner not subject to assistance from the autonomous driving device, the vehicle being from then on in manual driving mode, and a speed V1 below which said vehicle is driven by said autonomous driving device in a manner free from intervention by said driver, the vehicle being then in automatic driving mode, with V1 < V3. - a path determining device capable of determining a path for said vehicle; - an autonomous driving device for assisting said driver when driving the vehicle;
A method for sterilizing a preform, comprising: a light irradiation step of irradiating at least a mouth portion of the preform with light containing ultraviolet rays; and a sterilizer gas blasting step of gasifying a sterilizer containing at least hydrogen peroxide and blasting the sterilizer gas to the preform, characterized in that the light irradiation step is performed by a light irradiation apparatus, which is positioned above an opening in the mouth portion of the preform, with the light irradiation apparatus comprising a lamp for emitting the light containing ultraviolet rays and a dome-shaped reflector plate that comprises a plurality of surfaces that surround the lamp and an opening through which the light is emitted, such that both inner and outer surfaces of the opening in the mouth portion of the preform are irradiated with the light. a light irradiation step of irradiating at least a mouth portion of the preform with light containing ultraviolet rays; and a sterilizer gas blasting step of gasifying a sterilizer containing at least hydrogen peroxide and blasting the sterilizer gas to the preform,
An operation method of an infrastructure supporting an automated valet parking service, the method comprising: receiving a parking request from a vehicle; determining a target position for the automated valet parking of the vehicle; generating a reference list indicating sensors required for automatic valet parking at the determined target position; acquiring a list of normally operating sensors among sensors mounted in the vehicle based on communication with the vehicle; determining whether the automated valet parking for the vehicle is allowed by comparing the acquired list with the generated reference list; and performing an automated valet parking process for the vehicle based on the determined results, wherein the reference list indicating sensors required for automatic valet parking depends on the target location. receiving a parking request from a vehicle; determining a target position for the automated valet parking of the vehicle; generating a reference list indicating sensors required for automatic valet parking at the determined target position; acquiring a list of normally operating sensors among sensors mounted in the vehicle based on communication with the vehicle; determining whether the automated valet parking for the vehicle is allowed by comparing the acquired list with the generated reference list; and performing an automated valet parking process for the vehicle based on the determined results, wherein the reference list indicating sensors required for automatic valet parking depends on the target location.
A foil stamping mechanism, comprising a base and a lifting seat, and a power rod fixed on the lifting seat and passing through a through hole of the base, wherein a plurality of groups of stamping molds are arranged between the base and the lifting seat, an aluminum foil driving mechanism is arranged above the stamping mold, the aluminum foil driving mechanism comprises a connecting plate, the connecting plate is provided with an aluminum foil release roller, a collecting roller and a plurality of guiding rollers, the aluminum foil release roller is connected with a magnetic powder brake, and the collecting roller is connected with a servo motor, wherein a monitoring device is installed on one side of the connecting plate, the monitoring device includes a photoelectric switch, the photoelectric switch is capable of being movably installed on a guide rod through a sliding sleeve, the guide rod is fixedly connected with a lifting block through a connecting block, the lifting block is sleeved on a sliding rod, two ends of the sliding rod are fixedly connected with a mounting block, the mounting block is fixedly connected with the connecting plate, and the mounting block is provided with a vertical screw stem to adjust lifting of the lifting block.
A method of processing cotton containing textile waste comprising: dissolution of textile waste in a NaOH/Urea solution at a predetermined temperature until freezing of the textile waste; adding an amount of an anti-solvent selected from boiling water and ethanol to regenerate cotton from the frozen textile waste; and hydrolysing said cotton with cellulase to produce a solution containing glucose. dissolution of textile waste in a NaOH/Urea solution at a predetermined temperature until freezing of the textile waste; adding an amount of an anti-solvent selected from boiling water and ethanol to regenerate cotton from the frozen textile waste; and hydrolysing said cotton with cellulase to produce a solution containing glucose.
An Immunogenic composition comprising a purified fusion protein containing Escherichia coli fimbrial adhesin polypeptide operatively connected via a linker and donor beta-strand polypeptide sequence to a toxin A subunit polypeptide, wherein said Escherichia coli fimbrial adhesin polypeptide is selected from the group consisting of CfaE, CsfD, CsuD, CooD, CosO, CsdD, CsbD, CotD and CstH, and wherein said donor beta-strand is an 8 to 20 amino acid sequence from Escherichia coli fimbrial major subunit or adhesin monomer selected from the group consisting of CfaB, CsfA. CsuA 1, CsuA2, CooA, CosA, CsbA, CsdA, CotA and CstH, wherein said linker is composed of an amino acid sequence selected from the group consisting of SEQ ID No.1, SEQ ID No.2 and SEQ ID No.3.
A method of forming a polymer, wherein the polymer comprises ethylene and at least one alpha olefin having from 4 to 20 carbon atoms, the method comprising forming the polymer by a trimmed catalyst system comprising a supported catalyst comprising bis(n-propylcyclopentadienyl) hafnium (R 1)(R 2) and a trim catalyst comprising meso-O(SiMezIndhZr(R 1)(R 2), wherein R 1 and R 2 are each, independently, methyl, chloro, fluoro, or a hydrocarbyl group, wherein the polymer has a melt index ratio (MIR or I 21 /I 2)(flow index (I 21) as measured in accordance with ASTM D1238 (190 °C, 21.6 kg) and melt index (I 2) as measured in accordance with ASTM D1238 (190 °C, 2.16 kg)) from 15 to 80.
One or more computer storage media (106, 1622) having computer-executable instructions for propagating sound in a virtual environment that, upon execution by a processor (104, 1619), cause the processor to at least: calculate (302, 304, 306, 308, 504) a shortest path from a sound source (606, 706, 806, 906) in a first zone (602, 702, 802, 902) of the virtual environment to a sound destination (608, 708, 808, 908) in a second zone (604, 704, 804, 904) of the virtual environment that passes through at least one portal (612, 712, 718, 812, 818, 912, 918); determine (310, 506) a direction of the calculated shortest path from the sound destination to the at least one portal; generate (312, 508) a virtual sound source (614, 714, 824, 814) at a distance from the sound destination equal to the length of the calculated shortest path and in the determined direction from the sound destination such that the sound from the virtual sound source is perceived by a listening entity at the sound destination as coming from the direction of the portal; and provide (314, 518) the virtual sound source to an audio engine for rendering to a user. calculate (302, 304, 306, 308, 504) a shortest path from a sound source (606, 706, 806, 906) in a first zone (602, 702, 802, 902) of the virtual environment to a sound destination (608, 708, 808, 908) in a second zone (604, 704, 804, 904) of the virtual environment that passes through at least one portal (612, 712, 718, 812, 818, 912, 918); determine (310, 506) a direction of the calculated shortest path from the sound destination to the at least one portal; generate (312, 508) a virtual sound source (614, 714, 824, 814) at a distance from the sound destination equal to the length of the calculated shortest path and in the determined direction from the sound destination such that the sound from the virtual sound source is perceived by a listening entity at the sound destination as coming from the direction of the portal; and provide (314, 518) the virtual sound source to an audio engine for rendering to a user.
A method comprising: selecting, by a data storage controller (102; 210-230), a subgroup of a plurality of memory devices in a rank without modifying an identifier of each memory device, wherein the memory devices in each rank are connected to a same communication channel; and issuing, by the data storage controller (102; 210-230), a command to operate on data of the selected subgroup; wherein the plurality of the memory devices are byte or block addressable, write-in-place non-volatile memory devices arranged in one or more ranks; wherein selecting the subgroup of memory devices in a rank includes modifying a value of at least one of two mode register mask bits included in each of the memory devices, and wherein the subgroup is more than one and less than all of the memory devices in the rank. selecting, by a data storage controller (102; 210-230), a subgroup of a plurality of memory devices in a rank without modifying an identifier of each memory device, wherein the memory devices in each rank are connected to a same communication channel; and issuing, by the data storage controller (102; 210-230), a command to operate on data of the selected subgroup; wherein the plurality of the memory devices are byte or block addressable, write-in-place non-volatile memory devices arranged in one or more ranks; wherein selecting the subgroup of memory devices in a rank includes modifying a value of at least one of two mode register mask bits included in each of the memory devices, and wherein the subgroup is more than one and less than all of the memory devices in the rank.
A tag reader, comprising: an antenna; a communication control circuit configured to control output signals to be output from the antenna in a tag reading operation; a temperature measuring sensor configured to measure an internal temperature of the tag reader; and a processor configured to: set an output value for an output signal based on the measured internal temperature, and cause the communication control circuit to output the output signal from the antenna at the set output value; 3. characterized in that the tag reader further comprises a data memory storing a plurality of stepwise setting values for a plurality of temperature ranges, the temperature ranges being defined by a plurality of predetermined thresholds, wherein the processor is configured to set the output value by reference to the plurality of setting values; and the output value is a signal intensity. an antenna; a communication control circuit configured to control output signals to be output from the antenna in a tag reading operation; a temperature measuring sensor configured to measure an internal temperature of the tag reader; and a processor configured to: set an output value for an output signal based on the measured internal temperature, and cause the communication control circuit to output the output signal from the antenna at the set output value; 3. characterized in that the tag reader further comprises a data memory storing a plurality of stepwise setting values for a plurality of temperature ranges, the temperature ranges being defined by a plurality of predetermined thresholds, wherein the processor is configured to set the output value by reference to the plurality of setting values; and the output value is a signal intensity. set an output value for an output signal based on the measured internal temperature, and cause the communication control circuit to output the output signal from the antenna at the set output value; 3. characterized in that the tag reader further comprises a data memory storing a plurality of stepwise setting values for a plurality of temperature ranges, the temperature ranges being defined by a plurality of predetermined thresholds, wherein the processor is configured to set the output value by reference to the plurality of setting values; and the output value is a signal intensity.
A robotic mower for mowing an area relative to a boundary wire, the robotic mower comprising: a cutting system including an element for cutting grass; a propulsion system including a motor for propelling the robotic mower; a sensor assembly configured to detect a distance from the boundary wire, the sensor assembly having a plurality of inductive sensors (120, 122, 124), the plurality of inductive sensors including a first inductive sensor, a second inductive sensor and third inductive sensor, the first inductive sensor oriented along a first axis, the second inductive sensor oriented along a second axis, the third sensor being oriented along a third axis the first and second axes being arranged at a non-zero angle relative to each other and the third axis forming non-zero angles with both the first axis and the second axis, wherein no more than two of the first axis, the second axis and the third axis are coplanar, and the first axis, the second axis and the third axis are all generally perpendicular to one another; and a control unit in communication with the cutting system, the propulsion system and the sensor assembly, characterized in that the control unit is configured to operate the cutting system and the propulsion system in response to receipt of a signal from the sensor assembly indicative of the distance of the robotic mower from the boundary wire and indicative of the yaw, pitch and roll angles ψ, θ, φ the robotic mower approaches the boundary wire at. a cutting system including an element for cutting grass; a propulsion system including a motor for propelling the robotic mower; a sensor assembly configured to detect a distance from the boundary wire, the sensor assembly having a plurality of inductive sensors (120, 122, 124), the plurality of inductive sensors including a first inductive sensor, a second inductive sensor and third inductive sensor, the first inductive sensor oriented along a first axis, the second inductive sensor oriented along a second axis, the third sensor being oriented along a third axis the first and second axes being arranged at a non-zero angle relative to each other and the third axis forming non-zero angles with both the first axis and the second axis, wherein no more than two of the first axis, the second axis and the third axis are coplanar, and the first axis, the second axis and the third axis are all generally perpendicular to one another; and a control unit in communication with the cutting system, the propulsion system and the sensor assembly, characterized in that the control unit is configured to operate the cutting system and the propulsion system in response to receipt of a signal from the sensor assembly indicative of the distance of the robotic mower from the boundary wire and indicative of the yaw, pitch and roll angles ψ, θ, φ the robotic mower approaches the boundary wire at.
A high voltage electrical connector for electric current connections in vehicles, comprising a first connector unit, a complementary second connector unit releasably connectable with the first connector unit, a primary locking member arranged in the first connector unit, and a stationary locking part arranged in the second connector unit, where the primary locking member is electromagnetically movable between a locked position and an unlocked position, where in the locked position the primary locking member is in locking engagement with the stationary locking part preventing the first connector unit and the second connector unit from being released from each other, where in the unlocked position the primary locking member is disengaged from the stationary locking part allowing the first connector unit and the second connector unit from being released from each other, characterized in that the connector further comprises an auxiliary locking member mechanically movable between a first position and a second position, where in the first position the auxiliary locking member is in direct engagement with the primary locking member when the primary locking member is in the locked position, preventing the primary locking member from moving to the unlocked position, and in the first position the auxiliary locking member further is engaging the first connector unit and the second connector unit so that the first connector unit is prevented from being released from the second connector unit, and where in the second position the auxiliary locking member is disengaged from the primary locking member, allowing the primary locking member to move to the unlocked position. where the primary locking member is electromagnetically movable between a locked position and an unlocked position, where in the locked position the primary locking member is in locking engagement with the stationary locking part preventing the first connector unit and the second connector unit from being released from each other, where in the unlocked position the primary locking member is disengaged from the stationary locking part allowing the first connector unit and the second connector unit from being released from each other, characterized in that the connector further comprises an auxiliary locking member mechanically movable between a first position and a second position, where in the first position the auxiliary locking member is in direct engagement with the primary locking member when the primary locking member is in the locked position, preventing the primary locking member from moving to the unlocked position, and in the first position the auxiliary locking member further is engaging the first connector unit and the second connector unit so that the first connector unit is prevented from being released from the second connector unit, and where in the second position the auxiliary locking member is disengaged from the primary locking member, allowing the primary locking member to move to the unlocked position.
A fuselage, comprising: a composite skin including upper and lower composite skin sections; a window belt in the composite skin, the window belt including at least one window opening in the composite skin; and a longitudinal splice joint along the window belt joining the upper and lower skins sections together; characterized in that: the composite skin comprising laminated plies, wherein the composite skin is padded up with additional plies within the window belt to provide an area of increased skin thickness within the window belt, and the splice joint is located within the area of increased thickness of the skin and wherein the window opening is located within the area of increased thickness of the skin. a composite skin including upper and lower composite skin sections; a window belt in the composite skin, the window belt including at least one window opening in the composite skin; and a longitudinal splice joint along the window belt joining the upper and lower skins sections together; characterized in that: the composite skin comprising laminated plies, wherein the composite skin is padded up with additional plies within the window belt to provide an area of increased skin thickness within the window belt, and the splice joint is located within the area of increased thickness of the skin and wherein the window opening is located within the area of increased thickness of the skin. the composite skin comprising laminated plies, wherein the composite skin is padded up with additional plies within the window belt to provide an area of increased skin thickness within the window belt, and the splice joint is located within the area of increased thickness of the skin and wherein the window opening is located within the area of increased thickness of the skin.