mhurhangee/patent-ind-claim-en huggingface dataset:
A method for recycling water in a water recycling device , said method comprising: receiving used water via a drain in the water recycling device ; determining a water quality measure of said used water; if said water quality measure of said used water is above a first quality threshold, feeding said used water to a valve arrangement in the water recycling device ; in said valve arrangement , forming water to be treated by providing external water, said used water or a combination of said external water and said used water; generating treated water by treating said water to be treated using a water treatment arrangement in the water recycling device ; and feeding said treated water to an outlet in the water recycling device characterized by that said step of forming water to be treated by providing external water, said used water or a combination of said external water and said used water, comprises sub-steps of providing only said external water for forming said water to be treated if said water quality measure is below said first quality threshold and a second quality threshold, providing said combination of said external water and said used water for forming said water to be treated if said water quality measure is above said first quality threshold but below said second quality threshold, or providing only said used water for forming said water to be treated if said water quality measure is above said first quality threshold and said second quality threshold. receiving used water via a drain in the water recycling device ; determining a water quality measure of said used water; if said water quality measure of said used water is above a first quality threshold, feeding said used water to a valve arrangement in the water recycling device ; in said valve arrangement , forming water to be treated by providing external water, said used water or a combination of said external water and said used water; generating treated water by treating said water to be treated using a water treatment arrangement in the water recycling device ; and feeding said treated water to an outlet in the water recycling device providing only said external water for forming said water to be treated if said water quality measure is below said first quality threshold and a second quality threshold, providing said combination of said external water and said used water for forming said water to be treated if said water quality measure is above said first quality threshold but below said second quality threshold, or providing only said used water for forming said water to be treated if said water quality measure is above said first quality threshold and said second quality threshold.
An apparatus for automatic and fast cooking of food comprising: a base structure in the form of a vessel open at the top in which a vertical pressure cooker is housed; said apparatus comprises a solenoid positioned in the vicinity of said cooker; said solenoid is positioned below the cooker and beside the cooker for a height ranging from 50% to 70% of the total height of the cooker starting from the bottom; said solenoid is made of variable pitch coils widening from the bottom to the top; said pressure cooker comprises: a lid having a closing system; a pressure release valve; a cylindrically shaped mesh basket with the lower base open is positioned around the pressure release valve to form a backsplash; a temperature measurement system; where said cooker operates at a temperature higher than 140°C.
A parking brake for a motor-driven vehicle , comprising: an inhibitor device , adapted to be associated to a drive shaft for rotating therewith, the inhibitor device being actuated by means of centrifugal force; and a locking member adapted to engage the inhibitor device ; wherein the inhibitor device is configured to move from: a first angular position in which it prevents the engagement of the locking member when said drive shaft rotates at a rotation speed greater than a minimum speed, to a second angular position in which it allows the engagement of the locking member when said drive shaft rotates at a rotation speed lower than said minimum speed; and wherein said inhibitor device is actuated by means of a centrifugal force, correlated to said rotation speed. an inhibitor device , adapted to be associated to a drive shaft for rotating therewith, the inhibitor device being actuated by means of centrifugal force; and a locking member adapted to engage the inhibitor device ; a first angular position in which it prevents the engagement of the locking member when said drive shaft rotates at a rotation speed greater than a minimum speed, to a second angular position in which it allows the engagement of the locking member when said drive shaft rotates at a rotation speed lower than said minimum speed; and
A slider comprising: a slider body comprising an upper surface and a pair of lateral walls projecting from the upper surface ; a pull tab interposed between the pair of lateral walls in a width direction of the slider body in which the pair of lateral walls are opposed to each other; and a connecting pin connecting the pull tab to the pair of lateral walls so that the pull tab is rotatable, wherein the pull tab and at least one of the lateral walls each comprise a shaft hole that is provided along the width direction and in which the connecting pin is inserted, the shaft hole of the at least one of the lateral walls (322A, ) is opened on an outer side surface of the at least one of the lateral walls (322A, ) to define an opening, and the opening of the shaft hole is provided with a bottom edge point (P2) and a top edge point (P1) above the bottom edge point (P2) in a direction orthogonal to the width direction of the slider body , the bottom edge point (P2) being offset outward in the width direction with respect to the top edge point (P1), characterized in that the slider body is resin-made and the connecting pin is metallic, and at least a part of the outer side surface of the at least one of the lateral walls (322A ) is a concave curve whose center of curvature is located outside in the width direction with respect to the at least one of the lateral walls (322A ). a slider body comprising an upper surface and a pair of lateral walls projecting from the upper surface ; a pull tab interposed between the pair of lateral walls in a width direction of the slider body in which the pair of lateral walls are opposed to each other; and a connecting pin connecting the pull tab to the pair of lateral walls so that the pull tab is rotatable, wherein the pull tab and at least one of the lateral walls each comprise a shaft hole that is provided along the width direction and in which the connecting pin is inserted, the shaft hole of the at least one of the lateral walls (322A, ) is opened on an outer side surface of the at least one of the lateral walls (322A, ) to define an opening, and the opening of the shaft hole is provided with a bottom edge point (P2) and a top edge point (P1) above the bottom edge point (P2) in a direction orthogonal to the width direction of the slider body , the bottom edge point (P2) being offset outward in the width direction with respect to the top edge point (P1), characterized in that the slider body is resin-made and the connecting pin is metallic, and at least a part of the outer side surface of the at least one of the lateral walls (322A ) is a concave curve whose center of curvature is located outside in the width direction with respect to the at least one of the lateral walls (322A ).
A method operative in a streaming client device disposed in an adaptive streaming environment , the method comprising: monitoring at least a bandwidth condition relative to a network connection between the streaming client device and a content delivery network ; determining one or more adjacent channels relative to a current streaming channel of the streaming client device ; pre-fetching metadata information associated with the one or more adjacent channels; responsive to the pre-fetched metadata information, pre-fetching and storing initialization information for the one or more adjacent channels; and if the current streaming channel is changed to a new streaming channel belonging to the one or more adjacent channels, using the pre-fetched initialization information to fetch encoded media content pertaining to the new streaming channel. monitoring at least a bandwidth condition relative to a network connection between the streaming client device and a content delivery network ; determining one or more adjacent channels relative to a current streaming channel of the streaming client device ; pre-fetching metadata information associated with the one or more adjacent channels; responsive to the pre-fetched metadata information, pre-fetching and storing initialization information for the one or more adjacent channels; and if the current streaming channel is changed to a new streaming channel belonging to the one or more adjacent channels, using the pre-fetched initialization information to fetch encoded media content pertaining to the new streaming channel.
A method of zeroing displacement data, wherein the data is derived from a rotor having an array of features that rotate at a rotational speed, the features monitored by an array of stationary timing probes ; the method comprising steps for each feature to: a) measure actual time of arrival of the feature at each probe for at least two revolutions of the rotor ; b) subtract a predicted time of arrival of the feature at each probe to give a difference; c) multiply the difference by the rotational speed to calculate the displacement (d j ) at each probe for each measured revolution; d) define each displacement (d j ) as a sum of a common term (P common ) and a unique term (P j_unique ), wherein the common term (P common ) is common to all the calculated displacements and the unique term (P j_unique ) is dependent on the probe ; e) solve the set of displacements (d j ) for the common term (P common ) and the unique terms (P j_unique ); f) calculate a probe offset (P j_offset ) from each unique term (P j_unique ); and g) determine the zeroed displacements (d j ) by subtracting at least part of the common term (P common ) and probe offset (P j_offset ) from the calculated displacements (d j ) for each probe . a) measure actual time of arrival of the feature at each probe for at least two revolutions of the rotor ; b) subtract a predicted time of arrival of the feature at each probe to give a difference; c) multiply the difference by the rotational speed to calculate the displacement (d j ) at each probe for each measured revolution; d) define each displacement (d j ) as a sum of a common term (P common ) and a unique term (P j_unique ), wherein the common term (P common ) is common to all the calculated displacements and the unique term (P j_unique ) is dependent on the probe ; e) solve the set of displacements (d j ) for the common term (P common ) and the unique terms (P j_unique ); f) calculate a probe offset (P j_offset ) from each unique term (P j_unique ); and g) determine the zeroed displacements (d j ) by subtracting at least part of the common term (P common ) and probe offset (P j_offset ) from the calculated displacements (d j ) for each probe .
A material pushing machine , comprising: a walking device comprising a holding assembly , a power supply assembly , two walking drive motors , two drive wheels , and a supporting wheel , wherein the holding assembly comprises a base plate , the power supply assembly is arranged on the base plate , each of the two walking drive motors is arranged on an opposite side of an end of the base plate and electrically connected to the power supply assembly , each of the two drive wheels is drivable and connected to a corresponding one of the two walking drive motors , and the supporting wheel is arranged in a middle of the base plate on another end; and a material pushing device comprising a material pushing wall , wherein the material pushing wall comprises an annular wall body and a connecting arm extending inwardly from a top end of the annular wall body , wherein the connecting arm is connected to the holding assembly , wherein the annular wall body rotatably surrounds the holding assembly , characterized in that the material pushing device further comprises at least two pulley structures and a circular orbit , wherein the circular orbit seats to an internal wall of the annular wall body , each of the at least two pulley structures comprises a mounting body and a pulley body rotatably mounted on the mounting body , each of the at least two pulley structures being mounted to the holding assembly through the mounting body , wherein the pulley body outwardly seats to a smooth surface of the circular orbit to resist an internal of the annular wall body . a walking device comprising a holding assembly , a power supply assembly , two walking drive motors , two drive wheels , and a supporting wheel , wherein the holding assembly comprises a base plate , the power supply assembly is arranged on the base plate , each of the two walking drive motors is arranged on an opposite side of an end of the base plate and electrically connected to the power supply assembly , each of the two drive wheels is drivable and connected to a corresponding one of the two walking drive motors , and the supporting wheel is arranged in a middle of the base plate on another end; and a material pushing device comprising a material pushing wall , wherein the material pushing wall comprises an annular wall body and a connecting arm extending inwardly from a top end of the annular wall body , wherein the connecting arm is connected to the holding assembly , wherein the annular wall body rotatably surrounds the holding assembly , characterized in that the material pushing device further comprises at least two pulley structures and a circular orbit , wherein the circular orbit seats to an internal wall of the annular wall body , each of the at least two pulley structures comprises a mounting body and a pulley body rotatably mounted on the mounting body , each of the at least two pulley structures being mounted to the holding assembly through the mounting body , wherein the pulley body outwardly seats to a smooth surface of the circular orbit to resist an internal of the annular wall body .
A suspension apparatus comprising a control apparatus which comprises: a vehicle speed acquiring section which acquires a vehicle speed (Vc) as a speed of a vehicle; and an acquisition section which acquires a stroke velocity (Vp) of the suspension apparatus disposed between a vehicle body and a wheel to damp vibration propagated from the wheel ; characterized by further comprising: a contribution ratio determining section which determines a contribution ratio between a first parameter and a second parameter based on the vehicle speed (Vc), the first parameter serving for controlling a damping force in a first speed region of the vehicle, the second parameter serving for controlling the damping force in a second speed region which is a speed region higher in speed than the first speed region; a change amount restricting section which restricts a change amount of the contribution ratio; and a damping force controlling section which controls the damping force of the suspension apparatus based on the restricted contribution ratio and the stroke velocity (Vp). vehicle speed acquiring section which acquires a vehicle speed (Vc) as a speed of a vehicle; and an acquisition section which acquires a stroke velocity (Vp) of the suspension apparatus disposed between a vehicle body and a wheel to damp vibration propagated from the wheel ; characterized by further comprising: a contribution ratio determining section which determines a contribution ratio between a first parameter and a second parameter based on the vehicle speed (Vc), the first parameter serving for controlling a damping force in a first speed region of the vehicle, the second parameter serving for controlling the damping force in a second speed region which is a speed region higher in speed than the first speed region; a change amount restricting section which restricts a change amount of the contribution ratio; and a damping force controlling section which controls the damping force of the suspension apparatus based on the restricted contribution ratio and the stroke velocity (Vp). a contribution ratio determining section which determines a contribution ratio between a first parameter and a second parameter based on the vehicle speed (Vc), the first parameter serving for controlling a damping force in a first speed region of the vehicle, the second parameter serving for controlling the damping force in a second speed region which is a speed region higher in speed than the first speed region; a change amount restricting section which restricts a change amount of the contribution ratio; and a damping force controlling section which controls the damping force of the suspension apparatus based on the restricted contribution ratio and the stroke velocity (Vp).
A Cas9 protein comprising an amino acid sequence that is at least 90% identical to the amino acid sequence of a Cas9 as provided by SEQ ID NO: 9, wherein the amino acid sequence of the Cas9 protein comprises an A262T mutation of the amino acid sequence provided in SEQ ID NO: 9, and wherein the Cas9 protein exhibits an increased activity on a target sequence that does not comprise a canonical protospacer adjacent motif (PAM) sequence. wherein the amino acid sequence of the Cas9 protein comprises an A262T mutation of the amino acid sequence provided in SEQ ID NO: 9, and wherein the Cas9 protein exhibits an increased activity on a target sequence that does not comprise a canonical protospacer adjacent motif (PAM) sequence.
A display system comprising a carrier system and at least one display element , wherein the carrier system comprises a foldable carrier ring with side walls made of panels, in particular web panels, with a base and cover region as well as at least one folding region and at least one stabilizing element , which is configured to be frame-like, wherein the stabilizing element is arranged on the side walls of the foldable carrier ring in the base and/or cover region , and the stabilizing element of the carrier system has a projection for holding the at least one display element , characterized in that at least two display elements are arranged on the stabilizing element , which display elements are arranged opposite one another at an angle selected from a range having an upper limit of 150° and a lower limit of 40° and are connected to one another, and that at least one display element is formed by at least one half-shell carrier .
A mobile transport system for transporting objects in a technical facility, comprising a pair of first support wheels , a pair of second support wheels , a pair of drive wheels , two drive motors and two travel gear units , wherein a drive motor and a travel gear unit are in each case associated with each of the drive wheels , characterised in that a release lever is in each case attached to each of the travel gear units , by means of which lever the respective travel gear unit is mechanically separable from the associated drive motor and can be mechanically coupled with the associated drive motor . a pair of first support wheels , a pair of second support wheels , a pair of drive wheels , two drive motors and two travel gear units , wherein a drive motor and a travel gear unit are in each case associated with each of the drive wheels , characterised in that a release lever is in each case attached to each of the travel gear units , by means of which lever the respective travel gear unit is mechanically separable from the associated drive motor and can be mechanically coupled with the associated drive motor .
Heat generating element , in particular for an electric heating device of a motor vehicle, with a positioning frame forming a receptacle in which at least one PTC element is received, two contact plates resting against opposite sides of the PTC element , and a shield with a shielding sheet metal plate cover connected to the positioning frame , which is electrically separated from the associated contact plate by an insulating layer , characterized in that the shielding sheet metal plate cover has a rim substantially completely surrounding the positioning frame .
A compound comprising a nucleobase analog of any of the following formulas: wherein R is hydrogen or is a reactive linker comprising a reactive center adapted to bond to a cargo reagent comprising a cargo and a group of reactivity complementary to the reactive center, or R is a coupled linker to which a cargo is bonded; wherein each X is carbon, wherein each R 2 is independently hydrogen, alkyl, alkenyl, alkynyl, methoxy, methanethiol, methaneseleno, halogen, cyano, azide group, a reactive linker comprising a reactive center adapted to bond to a cargo reagent comprising a cargo and a group of reactivity complementary to the reactive center, or a coupled linker to which a cargo is bonded, wherein each Y is independently sulfur, selenium, or secondary amine, wherein each E is sulfur; and the wavy line indicates a point of bonding to a ribosyl, deoxyribosyl, or dideoxyribosyl moiety or an analog thereof, wherein the ribosyl, deoxyribosyl, or dideoxyribosyl moiety or analog thereof is in free form, connected to a mono-phosphate, diphosphate, or triphosphate group, optionally comprising an α-thiotriphosphate, β-thiotriphosphate, or γ-thiotriphosphate group, or is included in an RNA or a DNA or in an RNA analog or a DNA analog. wherein R is hydrogen or is a reactive linker comprising a reactive center adapted to bond to a cargo reagent comprising a cargo and a group of reactivity complementary to the reactive center, or R is a coupled linker to which a cargo is bonded; wherein each X is carbon, wherein each R 2 is independently hydrogen, alkyl, alkenyl, alkynyl, methoxy, methanethiol, methaneseleno, halogen, cyano, azide group, a reactive linker comprising a reactive center adapted to bond to a cargo reagent comprising a cargo and a group of reactivity complementary to the reactive center, or a coupled linker to which a cargo is bonded, wherein each Y is independently sulfur, selenium, or secondary amine, wherein each E is sulfur; and the wavy line indicates a point of bonding to a ribosyl, deoxyribosyl, or dideoxyribosyl moiety or an analog thereof, wherein the ribosyl, deoxyribosyl, or dideoxyribosyl moiety or analog thereof is in free form, connected to a mono-phosphate, diphosphate, or triphosphate group, optionally comprising an α-thiotriphosphate, β-thiotriphosphate, or γ-thiotriphosphate group, or is included in an RNA or a DNA or in an RNA analog or a DNA analog.
Elastic laminate for nappy closures comprising two nonwoven layers forming opposite outer sides and comprising strips of an elastic film running in a stretching direction (D) which strips are bonded between the nonwoven layers by adhesive , characterized in that the strips are bonded between the nonwoven layers under pre-tension and the nonwoven layers are laid in folds in a relaxed state due to the restoring forces of the strips bonded under pre-tension along the stretching direction (D), wherein in the relaxed state the thickness of the strips is between 30 μm and 80 μm and the width (b) of the strips determined perpendicular to the stretching direction (D) is between 3 mm and 12 mm and wherein the strips of the elastic film in the relaxed state cover between 10 % and 80 % of the entire area.