mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a food product in the form of balls, logs and/or patties, intended to be reheated or cooked before being consumed, comprising: - a step of simultaneously kneading and cooking a mixture formed from at least flour and/or semolina of at least one cereal containing proteins capable of forming gluten, Solanum tuberosum tuber product and hydration liquid, to obtain a pasty composition, and - a step of forming balls, logs and/or patties from said pasty composition, said mixture being kneaded and cooked for a kneading-cooking time comprised between 1 min and 15 min, and such that at the end of said simultaneous kneading and cooking step, said pasty composition has an average temperature comprised between 80°C and 100°C. - a step of simultaneously kneading and cooking a mixture formed from at least flour and/or semolina of at least one cereal containing proteins capable of forming gluten, Solanum tuberosum tuber product and hydration liquid, to obtain a pasty composition, and - a step of forming balls, logs and/or patties from said pasty composition,
Image sensor with active pixels, each pixel comprising at least one photodiode, a charge storage node, an electron multiplication amplification structure, means for transferring electrons from the photodiode to the amplification structure, means for transferring electrons from the amplification structure to the storage node after multiplication, a transistor for reinitialising the potential of the storage node, the sensor furthermore comprising a reading circuit (Ks, Kr, Cs, Cr, ADC) for sampling the potential of the charge storage node after reinitialisation and after transfer of the electrons into the storage node and for providing a corresponding illumination measurement, characterized in that the sensor furthermore comprises means for effecting in the course of an image frame a first transfer of charges from the photodiode to the multiplication structure after a first duration and for then giving the amplification structure a first electron multiplication factor before a first transfer of charges from the multiplication structure into the storage node, means for effecting in the course of the same image frame a second transfer of charges from the photodiode to the multiplication structure after a second duration following the first duration and for then giving the structure a second electron multiplication factor different from the first before a second transfer of charges from the amplification structure to the storage node, and means for selecting pixel by pixel an illumination measurement corresponding to the first factor or to the second factor as a function of the illumination of the pixel, evaluated based on a quantity of charges transferred into the storage node.
An arrangement for controlling a rock drilling machine during an extraction of a drill string from a drilled bore, the rock drilling machine being movably arranged on a feeder, the arrangement comprising: - an actuator arranged to move the rock drilling machine in a direction opposed to a drilling direction along the feeder, - a rotation motor arranged to rotate the drill string, and - an actuator controller arranged to control the actuator during the extraction of the drill string from a drilled bore, characterized in, the actuator controller being arranged to control the actuator according to a first and a second mode, in dependence of at least one operational parameter from a set of parameters including: a representation of a torque (Tq) generated by the rotation motor to rotate the drill string, a representation of a rotation speed of the drill string provided by the rotation motor, a representation of a force provided by the actuator to move the rock drilling machine in the direction opposed to the drilling direction, and a representation of a moving speed (v) of the rock drilling machine provided by the actuator, wherein the actuator controller, in the first mode, is arranged to control a moving speed (v) at which the actuator moves the rock drilling machine in the direction opposed to the drilling direction, and wherein the actuator controller, in the second mode, is arranged to control a force provided by the actuator to move the rock drilling machine in the direction opposed to the drilling direction. - an actuator arranged to move the rock drilling machine in a direction opposed to a drilling direction along the feeder, - a rotation motor arranged to rotate the drill string, and - an actuator controller arranged to control the actuator during the extraction of the drill string from a drilled bore, the actuator controller being arranged to control the actuator according to a first and a second mode, in dependence of at least one operational parameter from a set of parameters including: a representation of a torque (Tq) generated by the rotation motor to rotate the drill string, a representation of a rotation speed of the drill string provided by the rotation motor, a representation of a force provided by the actuator to move the rock drilling machine in the direction opposed to the drilling direction, and a representation of a moving speed (v) of the rock drilling machine provided by the actuator, wherein the actuator controller, in the first mode, is arranged to control a moving speed (v) at which the actuator moves the rock drilling machine in the direction opposed to the drilling direction, and wherein the actuator controller, in the second mode, is arranged to control a force provided by the actuator to move the rock drilling machine in the direction opposed to the drilling direction.
A multilayer protective film comprising: a first layer comprising at least one thermoplastic aliphatic polyurethane, said thermoplastic aliphatic polyurethane being a polycaprolactone-based polyurethane, a polyester-based polyurethane, a polyether-based polyurethane, or combination thereof; a second layer comprising at least one thermoplastic aliphatic polyurethane, said thermoplastic aliphatic polyurethane being a polyester-based polyurethane, a polyether-based polyurethane, or combination thereof having different physical and/or chemical properties than the first layer of thermoplastic aliphatic polyurethane; and a pressure sensitive adhesive layer comprising at least one pressure sensitive silicone adhesive, wherein said first layer is bonded to one major surface of said second layer and said PSA layer is bonded to an opposite major surface of said second layer such that said second layer is sandwiched between said first layer and said PSA layer. a first layer comprising at least one thermoplastic aliphatic polyurethane, said thermoplastic aliphatic polyurethane being a polycaprolactone-based polyurethane, a polyester-based polyurethane, a polyether-based polyurethane, or combination thereof; a second layer comprising at least one thermoplastic aliphatic polyurethane, said thermoplastic aliphatic polyurethane being a polyester-based polyurethane, a polyether-based polyurethane, or combination thereof having different physical and/or chemical properties than the first layer of thermoplastic aliphatic polyurethane; and a pressure sensitive adhesive layer comprising at least one pressure sensitive silicone adhesive, wherein said first layer is bonded to one major surface of said second layer and said PSA layer is bonded to an opposite major surface of said second layer such that said second layer is sandwiched between said first layer and said PSA layer.
Composite reinforce (R-1; R-2; R-3; R-4) comprising: - one or more reinforcing thread(s) (10; 20; 30; 40); - a layer (11; 21; 31; 42) of a polymer composition which covers the said thread, individually each thread or collectively several threads, this composition comprising at least one thermoplastic polymer, the glass transition temperature of which is positive, and an epoxidized diene elastomer. - one or more reinforcing thread(s) (10; 20; 30; 40); - a layer (11; 21; 31; 42) of a polymer composition which covers the said thread, individually each thread or collectively several threads, this composition comprising at least one thermoplastic polymer, the glass transition temperature of which is positive, and an epoxidized diene elastomer.
An addition-curable silicone rubber composition comprising: 100 parts by weight of a cyclohexenylalkyl-free organopolysiloxane having at least two silicon-bonded alkenyl radicals each terminated with an unsaturated double bond: CH 2 =CH- per molecule, represented by the average compositional formula: R 1 a SiO (4-a)/2 wherein R 1 is each independently a substituted or unsubstituted monovalent hydrocarbon radical of 1 to 10 carbon atoms, and a is a positive number of 1.5 to 2.8, 1 to 50 parts by weight of an organopolysiloxane containing at least one silicon-bonded cyclohexenylalkyl radical per molecule and having an average degree of polymerization of at least 1,000, an organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, in an amount of 0.2 to 20 parts by weight per 100 parts by weight of components and combined, reinforcing silica having a specific surface area of at least 50 m 2 /g as measured by the BET method, in an amount of 10 to 100 parts by weight per 100 parts by weight of components and combined, and a catalytic amount of an addition reaction catalyst. 100 parts by weight of a cyclohexenylalkyl-free organopolysiloxane having at least two silicon-bonded alkenyl radicals each terminated with an unsaturated double bond: CH 2 =CH- per molecule, represented by the average compositional formula: R 1 a SiO (4-a)/2 wherein R 1 is each independently a substituted or unsubstituted monovalent hydrocarbon radical of 1 to 10 carbon atoms, and a is a positive number of 1.5 to 2.8, 1 to 50 parts by weight of an organopolysiloxane containing at least one silicon-bonded cyclohexenylalkyl radical per molecule and having an average degree of polymerization of at least 1,000, an organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, in an amount of 0.2 to 20 parts by weight per 100 parts by weight of components and combined, reinforcing silica having a specific surface area of at least 50 m 2 /g as measured by the BET method, in an amount of 10 to 100 parts by weight per 100 parts by weight of components and combined, and a catalytic amount of an addition reaction catalyst.
A vehicle body structure comprising: an upper section that is integrally casted using a non-ferrous metal material, that includes a transmission section to which an external force is transmitted and a join section (24, 80) extending out from the transmission section; a connection section that is formed using a steel material, and that is joined to the join section (24, 80) by riveting; and a member section that is formed using a steel material, and that is joined to the connection section by welding; and characterized in that a second moment of area with respect to a vehicle front-rear direction axis of a cross-section of the join section, taken along the vehicle front-rear direction and the vehicle up-down direction, decreases on progression towards the inside of the vehicle body structure in the vehicle width direction. an upper section that is integrally casted using a non-ferrous metal material, that includes a transmission section to which an external force is transmitted and a join section (24, 80) extending out from the transmission section; a connection section that is formed using a steel material, and that is joined to the join section (24, 80) by riveting; and a member section that is formed using a steel material, and that is joined to the connection section by welding; and
Method for calibrating a rotary encoder of an electric machine, said rotary encoder outputting a sinusoidal track and a cosine track, being designed as an incremental transmitter and having a line count, in which - the electric machine is controlled to a specific speed (n soll), - an angle of the electric machine is determined using the sinusoidal track and/or the cosine track, - a temporal angular course is identified from this angle, characterised in that - a vibration in the temporal angular course having a frequency of substantially one integral multiple of the product of the determined speed (n soll) and the line count is identified, and - a correction factor of the sinusoidal track and/or the cosine track is derived from this, by means of which the amplitude, the phase and/or the offset of the sinusoidal track or cosine track (14, 16) is adapted, - wherein the correction factor is chosen in such a manner that, in the event of a change in the respective track (14, 16) by the correction factor and a new identification of the temporal angular course by means of the track (14a, 16a), said track (14a, 16a) being changed by the correction factor, the amplitude of the vibration of the temporal angular course is less than or equal to a threshold value. - the electric machine is controlled to a specific speed (n soll), - an angle of the electric machine is determined using the sinusoidal track and/or the cosine track, - a temporal angular course is identified from this angle, - a vibration in the temporal angular course having a frequency of substantially one integral multiple of the product of the determined speed (n soll) and the line count is identified, and - a correction factor of the sinusoidal track and/or the cosine track is derived from this, by means of which the amplitude, the phase and/or the offset of the sinusoidal track or cosine track (14, 16) is adapted, - wherein the correction factor is chosen in such a manner that, in the event of a change in the respective track (14, 16) by the correction factor and a new identification of the temporal angular course by means of the track (14a, 16a), said track (14a, 16a) being changed by the correction factor, the amplitude of the vibration of the temporal angular course is less than or equal to a threshold value.
Method for the treatment of a coating by laser radiation, in particular for fibrous substrates and for films, where the coating consists at least of a mixture of a binder, a laser-sensitive substance and a special-effect pigment, characterized in that the laser-sensitive substance undergoes a colour change on exposure to the laser radiation, where the exposure to the laser radiation produces a background colouring which changes or reinforces the perceived colour strength and the colour saturation of the respective special-effect pigment used, but does not change the special-effect pigment itself.
Mooring assembly comprising: - a mooring buoy having a central axis, an upper ring portion providing an upper abutment surface, - a mooring structure comprising a cavity with a cavity wall arranged for receiving the mooring buoy, and - a buoy locking system arranged near the cavity for engaging with the upper ring portion for locking the mooring buoy to the turret mooring structure and comprising at least two locking devices attached to the mooring structure, each locking device having a locking dog connected to a force member for axial displacement and exertion of an upward force on the upper abutment surface wherein - the mooring buoy comprises a lower abutment surface placed at an axial distance below the upper abutment surface, - the locking system comprises an engagement member (107,208) situated axially below the locking dog, for engaging with the lower abutment surface and exerting a downward force thereon, - at the top of the buoy a gap being maintained between the buoy and the cavity wall, parts of the buoy at positions axially above the upper abutment surface having an axial clearance from the cavity wall for transferring axial forces on the buoy to the turret mooring structure substantially only at the positions of the locking dog and the engagement member (107,208. - a mooring buoy having a central axis, an upper ring portion providing an upper abutment surface, - a mooring structure comprising a cavity with a cavity wall arranged for receiving the mooring buoy, and - a buoy locking system arranged near the cavity for engaging with the upper ring portion for locking the mooring buoy to the turret mooring structure and comprising at least two locking devices attached to the mooring structure, each locking device having a locking dog connected to a force member for axial displacement and exertion of an upward force on the upper abutment surface wherein - the mooring buoy comprises a lower abutment surface placed at an axial distance below the upper abutment surface, - the locking system comprises an engagement member (107,208) situated axially below the locking dog, for engaging with the lower abutment surface and exerting a downward force thereon, - at the top of the buoy a gap being maintained between the buoy and the cavity wall, parts of the buoy at positions axially above the upper abutment surface having an axial clearance from the cavity wall for transferring axial forces on the buoy to the turret mooring structure substantially only at the positions of the locking dog and the engagement member (107,208.
A fan module comprising: a housing having a first surface, and a plurality of wind guiding structures in the form of a plurality of wind stoppers, a plurality of wind inlets and a plurality of fixed blades being located on the first surface, wherein the wind stopper protrudes from the first surface and is adjacent to the wind inlet, and the fixed blades are recessed towards the inside of the housing from the first surface, a fan blade assembly rotatably disposed at the housing and adapted to rotate along a rotation direction; and a fan hub, the fan blade assembly being rotatably disposed at the housing through the fan hub, wherein the wind stoppers and the wind inlets are arranged along a circumferential direction of the fan hub and disposed around at least one portion of the fan hub in a radiating manner to guide a wind flow into the housing while the fan blade assembly is being rotated, wherein each of the wind stoppers has a connection portion and a parallel portion parallel to the fixed blades, and the connection portion is connected between the parallel portion and the first surface, charaterised by each of the wind stoppers and each of the fixed blade being located at two opposite sides of one corresponding wind inlet. a housing having a first surface, and a plurality of wind guiding structures in the form of a plurality of wind stoppers, a plurality of wind inlets and a plurality of fixed blades being located on the first surface, wherein the wind stopper protrudes from the first surface and is adjacent to the wind inlet, and the fixed blades are recessed towards the inside of the housing from the first surface, a fan blade assembly rotatably disposed at the housing and adapted to rotate along a rotation direction; and a fan hub, the fan blade assembly being rotatably disposed at the housing through the fan hub, wherein the wind stoppers and the wind inlets are arranged along a circumferential direction of the fan hub and disposed around at least one portion of the fan hub in a radiating manner to guide a wind flow into the housing while the fan blade assembly is being rotated,
An adjustment method for a driving waveform, applicable to an electronic device, the electronic device comprising a linear motor, the method comprising: in response to an interruption event, obtaining a dynamic vibration description file corresponding to the interruption event, the dynamic description file being used for describing a vibration parameter for controlling the vibration of the linear motor during the interruption event; and adjusting a driving waveform by using the vibration parameter comprising: comparing values of a vibration parameter described in a static description file and the vibration parameter described in the dynamic description file to obtain a difference, wherein the static description file is a vibration description file being used for describing a vibration parameter for controlling the vibration of the linear motor when the interruption event does not occur; and generating an adjustment coefficient according to the difference; and adjusting, by using the adjustment coefficient, a driving waveform converted from the static description file. in response to an interruption event, obtaining a dynamic vibration description file corresponding to the interruption event, the dynamic description file being used for describing a vibration parameter for controlling the vibration of the linear motor during the interruption event; and adjusting a driving waveform by using the vibration parameter comprising: comparing values of a vibration parameter described in a static description file and the vibration parameter described in the dynamic description file to obtain a difference, wherein the static description file is a vibration description file being used for describing a vibration parameter for controlling the vibration of the linear motor when the interruption event does not occur; and generating an adjustment coefficient according to the difference; and adjusting, by using the adjustment coefficient, a driving waveform converted from the static description file. comparing values of a vibration parameter described in a static description file and the vibration parameter described in the dynamic description file to obtain a difference, wherein the static description file is a vibration description file being used for describing a vibration parameter for controlling the vibration of the linear motor when the interruption event does not occur; and generating an adjustment coefficient according to the difference; and adjusting, by using the adjustment coefficient, a driving waveform converted from the static description file.
A wiper system of an opposite arrangement type, characterized by comprising: wiper blades (2a, 2b) that are disposed on a to-be-wiped surface of a vehicle in such a way as to face each other and are designed to conduct a wiping operation back and forth between lower side turn points and upper side turn points that are set on the to-be-wiped surface; and electric motors (4a, 4b) that enable the wiper blades to move back and forth on the to-be-wiped surface, wherein the wiper blades comprise a first wiper blade, which is disposed at driver's seat side, and a second wiper blade, which is disposed at assistant driver's seat side, characterized in that an operation range of the second wiper blade on the to-be-wiped surface is narrower than an operation range of the first wiper blade and is set in such a way as to only partially overlap with the operation range of the first wiper blade, and the first wiper blade and the second wiper blade move in the same direction when moving back and forth for wiping. wiper blades (2a, 2b) that are disposed on a to-be-wiped surface of a vehicle in such a way as to face each other and are designed to conduct a wiping operation back and forth between lower side turn points and upper side turn points that are set on the to-be-wiped surface; and electric motors (4a, 4b) that enable the wiper blades to move back and forth on the to-be-wiped surface, wherein the wiper blades comprise a first wiper blade, which is disposed at driver's seat side, and a second wiper blade, which is disposed at assistant driver's seat side, characterized in that an operation range of the second wiper blade on the to-be-wiped surface is narrower than an operation range of the first wiper blade and is set in such a way as to only partially overlap with the operation range of the first wiper blade, and the first wiper blade and the second wiper blade move in the same direction when moving back and forth for wiping.