mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: a storage device including a magnetic disk and a motor that causes the magnetic disk to rotate; power shift means for shifting the image forming apparatus from a power mode in which execution of a print job is possible, to a first power saving mode in which power consumption is lower than in the power mode, supply of power to a processor is maintained, and execution of the print job is not possible; and setting means for setting a condition for shifting the motor of the storage device from an operating state to a stopped state, wherein the setting means sets, as the condition, a length of a time for which the motor is caused to continue the operating state, based on a parameter related to a lifetime of the storage device, characterized by further comprising: control means for, in accordance with the image processing apparatus shifting to the first power saving mode, starting measurement of time and shifting, based on the measured time reaching the set length of the time, the motor from the operating state to the stopped state in a state of the first power saving mode. a storage device including a magnetic disk and a motor that causes the magnetic disk to rotate; power shift means for shifting the image forming apparatus from a power mode in which execution of a print job is possible, to a first power saving mode in which power consumption is lower than in the power mode, supply of power to a processor is maintained, and execution of the print job is not possible; and setting means for setting a condition for shifting the motor of the storage device from an operating state to a stopped state, wherein the setting means sets, as the condition, a length of a time for which the motor is caused to continue the operating state, based on a parameter related to a lifetime of the storage device, characterized by further comprising: control means for, in accordance with the image processing apparatus shifting to the first power saving mode, starting measurement of time and shifting, based on the measured time reaching the set length of the time, the motor from the operating state to the stopped state in a state of the first power saving mode.
A load cover arrangement for a cargo space of a vehicle , said cargo space comprising a side wall at either side of said cargo space , said load cover arrangement comprising - a covering for covering objects in said cargo space , - a take-up shaft for receiving at least part of said covering , said take-up shaft having a first end and a second end , a proximal end portion of said covering being attached to, or attachable to said take-up shaft , characterized in that said load cover arrangement further comprises - a first arm and a second arm , each arm having a first and a second end portion, - a first pivot and a second pivot , which are adapted to be attached to said vehicle at said side walls of said cargo space , said first and second pivots allowing said first and second arms to rotate in relation to said cargo space from a first position, wherein said first and second arms are horizontal or substantially horizontal, corresponding to a closed tailgate of said vehicle , to a second position corresponding to an open tailgate , wherein said first and second arms have been rotated by an angle α, such that said covering is able to follow the displacement of said tailgate , wherein said first end portion of said first arm is connected to, or connectable to, said first end of said take-up shaft and said second end portion of said first arm is connected to, or connectable to said first pivot , and said first end portion of said second arm is connected to, or connectable to, said second end of said take-up shaft and said second end portion of said second arm is connected to, or connectable to said second pivot . - a covering for covering objects in said cargo space , - a take-up shaft for receiving at least part of said covering , said take-up shaft having a first end and a second end , a proximal end portion of said covering being attached to, or attachable to said take-up shaft , characterized in that said load cover arrangement further comprises - a first arm and a second arm , each arm having a first and a second end portion, - a first pivot and a second pivot , which are adapted to be attached to said vehicle at said side walls of said cargo space , said first and second pivots allowing said first and second arms to rotate in relation to said cargo space from a first position, wherein said first and second arms are horizontal or substantially horizontal, corresponding to a closed tailgate of said vehicle , to a second position corresponding to an open tailgate , wherein said first and second arms have been rotated by an angle α, such that said covering is able to follow the displacement of said tailgate , wherein said first end portion of said first arm is connected to, or connectable to, said first end of said take-up shaft and said second end portion of said first arm is connected to, or connectable to said first pivot , and said first end portion of said second arm is connected to, or connectable to, said second end of said take-up shaft and said second end portion of said second arm is connected to, or connectable to said second pivot .
A method of printing a garment to retain moisture and liquid wicking or heat management properties of an underlying fabric, the method comprising: mapping active body regions onto a print file for the garment, to provide a print file defining standard print areas on said garment and modified print areas wherein the modified printing areas correspond to said active body regions, said mapping active body regions onto a print file comprising carrying out a pixel by pixel concatenation of said print file for a garment with a map of active body regions, wherein said active body region is a region of the body producing an above-average amount of heat, or is a region of the body producing an above-average amount of sweat; printing onto said garment over said standard print areas using a first ink density; and printing onto said garment at active areas with a second ink density, said second ink density being lower than said first ink density, said lower ink density at said active areas being achieved by printing fewer pixels, or by printing less ink per pixel, or by not printing under-layers, or by diluting of ink. mapping active body regions onto a print file for the garment, to provide a print file defining standard print areas on said garment and modified print areas wherein the modified printing areas correspond to said active body regions, said mapping active body regions onto a print file comprising carrying out a pixel by pixel concatenation of said print file for a garment with a map of active body regions, wherein said active body region is a region of the body producing an above-average amount of heat, or is a region of the body producing an above-average amount of sweat; printing onto said garment over said standard print areas using a first ink density; and printing onto said garment at active areas with a second ink density, said second ink density being lower than said first ink density, said lower ink density at said active areas being achieved by printing fewer pixels, or by printing less ink per pixel, or by not printing under-layers, or by diluting of ink.
A fuel injector comprising; one or more elongate fuel passage having an elongate axis extending from an upstream inlet end to a downstream outlet end; one or more fuel outlets at the outlet end extending obliquely with respect to the elongate axis; the elongate fuel passage defined by an inner skin of a double skinned pipe, the double skinned pipe defining a first annular cavity between the inner skin and outer skin ; the inner skin and the outer skin meeting adjacent the one or more outlets to close an end of the first annular cavity ; a second annular cavity defined by an annular outer wall extending from downstream of the outlet end to a position upstream of the one or more outlets , the annular outer wall being convergent at a downstream end whereby to define an orifice centred nominally coincident with the elongate axis, the second annular cavity having a second annular cavity inlet at an upstream end and wherein the fuel passage outlets emerge at a radially outer surface of the annular outer wall wherein the fuel passage incorporates a nose section terminating adjacent the orifice of the annular outer wall , characterized in that , the nose section is cone shaped and comprises an array of circumferentially spaced, radially inclined ribs.
An article of footwear comprising: an upper ; multiple cushioning components attached to a ground-facing surface of the upper and spaced apart from one another so that the ground-facing surface of the upper is exposed between the cushioning components and the cushioning components at least partially form a ground contact surface ; and wherein at least one of the cushioning components includes a bladder element with a fluid-filled cavity . an upper ; multiple cushioning components attached to a ground-facing surface of the upper and spaced apart from one another so that the ground-facing surface of the upper is exposed between the cushioning components and the cushioning components at least partially form a ground contact surface ; and wherein at least one of the cushioning components includes a bladder element with a fluid-filled cavity .
A method for flushing water pipe networks in buildings, in particular drinking water pipe networks and/or tap water pipe networks, a water temperature and/or a water flow in a water pipe network connected to the public supply network via a water entry point of the building and realized having a plurality of sub-distribution pipes and extraction points being determined by means of sensors, the water pipe network being at least partially flushed by means of a plurality of flush valves of a flushing device, the control device storing the measured values of the sensors over a time period, characterized in that the flushing of the water pipe network is initiated as a function of measured values determined by means of the sensors by actuating the flush valves by means of a control device connected to the sensors and the flush valves, the flush valves being actuated by means of the control device taking into account the stored measured values, the control device performing a pattern analysis of the measured values of the sensors stored over the time period, the control device deriving a flushing strategy for the actuation of the flush valves from the pattern analysis.
A photosensitive composition, comprising: at least one fully imidized polyimide polymer having a weight average molecular weight in the range of 40,000 Daltons to 70,000 Daltons, wherein the at least one fully imidized polyimide polymer is at least about 90% imidized, and the at least one fully imidized polyimide polymer is prepared from at least one diamine, the at least one diamine comprising a compound selected from the group consisting of a diamine of Structure (Ia) and a diamine of Structure (Ib), in which each of R 1 , R 2 , R 3 , R 4 , R 5 , R 11 , R 12 , R 13 , and R 14 , independently, is H, a substituted or unsubstituted C 1 -C 6 linear or branched alkyl group, or a C 5 - C 7 cycloalkyl group; at least one solubility switching compound, the amount of the at least one solubility switching compound being at least 10 wt% of the amount of the polyimide polymer; at least one photoinitiator; and at least one solvent; wherein the composition is capable of forming a film having a dissolution rate of greater than 0.15 micron/second using cyclopentanone as a developer. at least one fully imidized polyimide polymer having a weight average molecular weight in the range of 40,000 Daltons to 70,000 Daltons, wherein the at least one fully imidized polyimide polymer is at least about 90% imidized, and the at least one fully imidized polyimide polymer is prepared from at least one diamine, the at least one diamine comprising a compound selected from the group consisting of a diamine of Structure (Ia) and a diamine of Structure (Ib), in which each of R 1 , R 2 , R 3 , R 4 , R 5 , R 11 , R 12 , R 13 , and R 14 , independently, is H, a substituted or unsubstituted C 1 -C 6 linear or branched alkyl group, or a C 5 - C 7 cycloalkyl group; at least one solubility switching compound, the amount of the at least one solubility switching compound being at least 10 wt% of the amount of the polyimide polymer; at least one photoinitiator; and at least one solvent; wherein the composition is capable of forming a film having a dissolution rate of greater than 0.15 micron/second using cyclopentanone as a developer.
Operation of an extruder line having a planetary roller extruder or a planetary roller extruder section or a planetary roller extruder module with a central spindle, planetary spindles and an internal toothed housing liner or an internal toothed housing, wherein the planetary spindles slide with the front surfaces in the melt flow direction at a stop ring and thereby rotate around the central spindle and in the surrounding housing, wherein their toothing meshes simultaneously with the toothing of the central spindle and the internal toothing of the housing, wherein the central spindle is moved as a function of the constructional size in mm, wherein the construction size is defined by the pitch diameter of the internal toothed housing liner or the internal toothed housing, characterised in that the central spindle is moved at least with the following rotational speed in rpm as a function of the constructional size in mm: 70 mm 440 rpm 100 mm 440 120 mm 440 150 mm 230 180 mm 160 200 mm 160 250 mm 160 280 mm 160 300 mm 160 400 mm 160 500 mm 160 wherein a minimum filling degree of 6% is maintained in the extruder, wherein the filling degree relates to the free space in the extruder which is not taken up by the central spindle, the planetary spindles, the thrust rings and other rings, and wherein the filling is formed by the extrusion material.
Method for charging an accumulator by means of a charging apparatus , wherein the accumulator contains at least one energy storage cell , a first data interface and a wake-up circuit for activating control electronics of the accumulator , and the charging apparatus contains a second data interface , a controller , a timer and a switch apparatus , and wherein the data interfaces are connected to one another via a first and a second communication line for differential communication between the accumulator and the charging apparatus , characterized by the method steps of - setting the timer to a predetermined period of time; - setting the control electronics of the accumulator to a deactivation mode, so that no charging current flows from the charging apparatus to the accumulator and no current flows from the at least one energy storage cell to the control electronics of the accumulator ; - sending at least one signal from the charging apparatus to the accumulator via the first and second communication lines after the predetermined period of time has elapsed; - activating the wake-up circuit for activating control electronics by detecting a voltage value from the first or second communication line , wherein the voltage value is consistent with either the dominant or recessive state of the first or second communication line ; - setting the control electronics to an activation mode by means of the wake-up circuit ; and - requesting or releasing a charging current from the charging apparatus by means of the accumulator . - setting the timer to a predetermined period of time; - setting the control electronics of the accumulator to a deactivation mode, so that no charging current flows from the charging apparatus to the accumulator and no current flows from the at least one energy storage cell to the control electronics of the accumulator ; - sending at least one signal from the charging apparatus to the accumulator via the first and second communication lines after the predetermined period of time has elapsed; - activating the wake-up circuit for activating control electronics by detecting a voltage value from the first or second communication line , wherein the voltage value is consistent with either the dominant or recessive state of the first or second communication line ; - setting the control electronics to an activation mode by means of the wake-up circuit ; and - requesting or releasing a charging current from the charging apparatus by means of the accumulator .
Method for performance by way of electronic computing means in smart glasses , wherein the smart glasses comprise in each case at least electronic computing means , a display , a motion measurement sensor system and means for wireless communication , the method comprising: receiving the current steering angle and the current velocity of a vehicle containing the smart glasses via the means for wireless communication ; determining the acceleration of the vehicle by way of the electronic computing means ; determining the acceleration and speed of rotation of the smart glasses using the motion measurement sensor system ; determining the relative acceleration of the smart glasses , specifically the acceleration of the smart glasses in relation to the vehicle, using the electronic computing means ; recording the determined relative acceleration over a predetermined period of time; determining and classifying the line of vision of the smart glasses into two categories, specifically 1) the line of vision is directed into the surroundings of the vehicle, and 2) the line of vision is not directed into the surroundings of the vehicle, using an algorithm based on a neural network or support vector machines, by using the recorded determined relative acceleration by way of the electronic computing means ; wherein the line of vision of the smart glasses is a direction that is perpendicular to the plane through the displays of the smart glasses and starts out from the support point for the glasses on the nose; and hiding displayed content on the at least one display of the smart glasses if the line of vision has been classified into category 2) . receiving the current steering angle and the current velocity of a vehicle containing the smart glasses via the means for wireless communication ; determining the acceleration of the vehicle by way of the electronic computing means ; determining the acceleration and speed of rotation of the smart glasses using the motion measurement sensor system ; determining the relative acceleration of the smart glasses , specifically the acceleration of the smart glasses in relation to the vehicle, using the electronic computing means ; recording the determined relative acceleration over a predetermined period of time; determining and classifying the line of vision of the smart glasses into two categories, specifically 1) the line of vision is directed into the surroundings of the vehicle, and 2) the line of vision is not directed into the surroundings of the vehicle, using an algorithm based on a neural network or support vector machines, by using the recorded determined relative acceleration by way of the electronic computing means ; wherein the line of vision of the smart glasses is a direction that is perpendicular to the plane through the displays of the smart glasses and starts out from the support point for the glasses on the nose; and hiding displayed content on the at least one display of the smart glasses if the line of vision has been classified into category 2) .
A method for reducing paraffin or wax deposition in a crude oil storage or transportation vessel, the method comprising adding a copolymer or a composition comprising the copolymer, an anionic surfactant and a solvent to a crude oil in an amount effective to reduce paraffin or wax deposition in the storage or transportation vessel containing the crude oil, wherein the crude oil has an API gravity of at least 33, and the copolymer is a product of a polymerization reaction comprising (i) an alpha olefin monomer and a maleic anhydride monomer, (ii) the alpha olefin monomer and an alkyl maleic anhydride monomer, (iii) the maleic anhydride monomer and styrene; or (iv) the alkyl maleic anhydride monomer and styrene, the alpha olefin monomer having the formula (I): wherein R 1 is hydrogen or C 12 -C 30 alkyl and R 2 is C 12 -C 30 alkyl, and the alkyl maleic anhydride monomer having the formula (II): wherein R 3 is C 12 -C 30 alkyl and R 4 is hydrogen or C 12 -C 30 alkyl. (i) an alpha olefin monomer and a maleic anhydride monomer, (ii) the alpha olefin monomer and an alkyl maleic anhydride monomer, (iii) the maleic anhydride monomer and styrene; or (iv) the alkyl maleic anhydride monomer and styrene,
A coding method, comprising: obtaining (S101) a to-be-encoded information bit sequence; encoding (S102) the to-be-encoded information bit sequence to obtain an encoded bit sequence, wherein the encoded bit sequence comprises an information bit, a frozen bit, a cyclic redundancy check, CRC, bit, and a frozen check bit; and a value of the CRC check bit is obtained by using a cyclic shift register; polar encoding (S103) and rate matching on the coded bit sequence to obtain a to-be-sent rate-matched sequence; and sending (S104) the rate-matched sequence, characterized in that a value of the frozen check bit is obtained by using the same cyclic shift register wherein the frozen check bit and the CRC bit are simultaneously coded by using the same cyclic shift register. obtaining (S101) a to-be-encoded information bit sequence; encoding (S102) the to-be-encoded information bit sequence to obtain an encoded bit sequence, wherein the encoded bit sequence comprises an information bit, a frozen bit, a cyclic redundancy check, CRC, bit, and a frozen check bit; and a value of the CRC check bit is obtained by using a cyclic shift register; polar encoding (S103) and rate matching on the coded bit sequence to obtain a to-be-sent rate-matched sequence; and sending (S104) the rate-matched sequence, characterized in that a value of the frozen check bit is obtained by using the same cyclic shift register wherein the frozen check bit and the CRC bit are simultaneously coded by using the same cyclic shift register.
Coated metal particles for use in an anode of an electrochemical cell, comprising a metal core, which consists of zinc or a zinc alloy, and a coating, where the coating is selected from metal oxide-containing particles, which adhere on a surface of the metal core, or of a metal oxide-containing layer enveloping the metal core, and where the metal oxide-containing layer or the metal oxide-containing particles comprise • at least one first metal oxide, which increases the hydrogen overvoltage on zinc in an alkaline electrolyte, and • at least one second metal oxide, different from the first, which forms an alkali with water. • at least one first metal oxide, which increases the hydrogen overvoltage on zinc in an alkaline electrolyte, and • at least one second metal oxide, different from the first, which forms an alkali with water.
A method of making a copolymer, the method comprising copolymerizing components comprising tetrafluoroethylene and at least one compound represented by formula CF 2 =CF-O-(CF 2 ) a -SO 2 X, wherein a is a number from 1 to 4, and X is -OZ, wherein Z is independently an alkali metal cation or a quaternary ammonium cation, and wherein the components comprise at least 60 mole % of tetrafluoroethylene based on the total amount of components, wherein copolymerizing is carried out by aqueous emulsion polymerization at a pH of at least 9.