mhurhangee/patent-ind-claim-en huggingface dataset:
A coffee machine comprising: a grinder configured to grind coffee beans by rotation of a rotary blade in a normal state of forward rotation of a first motor; a processing unit , and a reverse rotation button (GM52), wherein; the processing unit monitors a current value flowing through the first motor, when the rotary blade cannot normally rotate forward, the current value becomes an abnormal value which exceeds a reference value, the processing unit determines whether the current value is the abnormal value or not, if the processing unit determines that the current value is and abnormal value, the grinder becomes in the abnormal state and when the reverse rotation button (GM52) is operated, the first motor is rotated reversely, but when the grinder is in the normal state, the first motor is not rotated reversely even though the reverse rotation button (GM52) is operated. a grinder configured to grind coffee beans by rotation of a rotary blade in a normal state of forward rotation of a first motor; a processing unit , and a reverse rotation button (GM52), wherein; the processing unit monitors a current value flowing through the first motor, when the rotary blade cannot normally rotate forward, the current value becomes an abnormal value which exceeds a reference value, the processing unit determines whether the current value is the abnormal value or not, if the processing unit determines that the current value is and abnormal value, the grinder becomes in the abnormal state and when the reverse rotation button (GM52) is operated, the first motor is rotated reversely, but when the grinder is in the normal state, the first motor is not rotated reversely even though the reverse rotation button (GM52) is operated.
A method of pulsed radar interface determination, comprising: providing refractive indices for a first material and a second material in a tank , said second material being less dense as compared to said first material and forming an interface with said first material, and an interface level determination model (interface model) including a transfer function that utilizes said refractive indices and a thickness of said second material as parameters; transmitting at least one actual radar pulse into said tank and measuring a resulting echo curve or echo curve portion including at least one measured interface pulse around a location of said interface; simulating using said interface model run by a processor with a reference pulse as an input along with an initial value for said thickness to generate an initial model generated interface pulse (initial MGIP); comparing said measured interface pulse to said initial MGIP point-by-point over a plurality of points to determine a plurality of residuals; wherein if a sum of said residuals (sum of residuals) is > a predetermined threshold, iterating by repeating said comparing with an updated interface model generated from said interface model updated with an updated value for said thickness that provides an updated MGIP; and wherein when said sum of residuals is ≤ said predetermined threshold, determining said thickness. providing refractive indices for a first material and a second material in a tank , said second material being less dense as compared to said first material and forming an interface with said first material, and an interface level determination model (interface model) including a transfer function that utilizes said refractive indices and a thickness of said second material as parameters; transmitting at least one actual radar pulse into said tank and measuring a resulting echo curve or echo curve portion including at least one measured interface pulse around a location of said interface; simulating using said interface model run by a processor with a reference pulse as an input along with an initial value for said thickness to generate an initial model generated interface pulse (initial MGIP); comparing said measured interface pulse to said initial MGIP point-by-point over a plurality of points to determine a plurality of residuals; wherein if a sum of said residuals (sum of residuals) is > a predetermined threshold, iterating by repeating said comparing with an updated interface model generated from said interface model updated with an updated value for said thickness that provides an updated MGIP; and wherein when said sum of residuals is ≤ said predetermined threshold, determining said thickness.
A method for generating a coupon including a holographic image, the method comprising: segmenting a product image into a plurality of image regions; analyzing each image region of the plurality of image regions to identify one or more characteristics for each image region, wherein these characteristics include one or more of a luminance, a contrast a variance, a color, a hue and a brightness of the image region; assigning a weight value to each image region, the weight value being determined based at least in part on the analysis of the one or more characteristics of the image region; selecting a particular image region from the plurality of image regions having the highest weight value; and blending the particular image region over a predetermined portion of the corresponding product coupon, wherein the product coupon includes a text region, the predetermined portion including the text region, and wherein blending the particular image region adds a holographic image of the particular image region to the predetermined portion including the text region, thereby augmenting the security features of the coupon; the method being performed by one or more computing devices. segmenting a product image into a plurality of image regions; analyzing each image region of the plurality of image regions to identify one or more characteristics for each image region, wherein these characteristics include one or more of a luminance, a contrast a variance, a color, a hue and a brightness of the image region; assigning a weight value to each image region, the weight value being determined based at least in part on the analysis of the one or more characteristics of the image region; selecting a particular image region from the plurality of image regions having the highest weight value; and blending the particular image region over a predetermined portion of the corresponding product coupon, wherein the product coupon includes a text region, the predetermined portion including the text region, and wherein blending the particular image region adds a holographic image of the particular image region to the predetermined portion including the text region, thereby augmenting the security features of the coupon; the method being performed by one or more computing devices.
A method of post-harvest light treatment for increasing the ascorbic acid content of a piece of fruit , the method comprising: - providing a harvested unripe piece of fruit detached from a plant; - irradiating at least part of the piece of fruit with white light with a predetermined minimum radiation intensity and during a predetermined continuous radiation period; wherein - at least 90% of the total number of photons of the white light are in the range of 380-800 nm, wherein less than 10% of the total number of photons of the white light are in the range of 700-800 nm; - wherein in average over the predetermined radiation period the predetermined intensity is at least 100 μmol/m 2 /s for the piece of fruit , and wherein the predetermined radiation period is at least 48 hours. - providing a harvested unripe piece of fruit detached from a plant; - irradiating at least part of the piece of fruit with white light with a predetermined minimum radiation intensity and during a predetermined continuous radiation period; - at least 90% of the total number of photons of the white light are in the range of 380-800 nm, wherein less than 10% of the total number of photons of the white light are in the range of 700-800 nm; - wherein in average over the predetermined radiation period the predetermined intensity is at least 100 μmol/m 2 /s for the piece of fruit , and wherein the predetermined radiation period is at least 48 hours.
A foldable trolley , in particular a home care trolley, comprising: - a first trolley end and an opposite second trolley end , said trolley ends mutually coupled for providing said trolley with an extended position and a folded position, with said first and second trolley ends providing opposite trolley ends in said folded position and in said extended position; - a series of storage containers one above the other, with each time one storage container comprising a storage container end linked to one trolley end and a next storage container comprising a storage container end linked to the opposite container end; - a working top comprising a first working top part having a first working top side attached to said first trolley end and a second working top part having a second working top side attached to said second trolley end . - a first trolley end and an opposite second trolley end , said trolley ends mutually coupled for providing said trolley with an extended position and a folded position, with said first and second trolley ends providing opposite trolley ends in said folded position and in said extended position; - a series of storage containers one above the other, with each time one storage container comprising a storage container end linked to one trolley end and a next storage container comprising a storage container end linked to the opposite container end; - a working top comprising a first working top part having a first working top side attached to said first trolley end and a second working top part having a second working top side attached to said second trolley end .
A method for charging a battery of an electric vehicle , wherein the battery has at least one battery cell disposed in a receiving space and at least one channel , wherein a channel wall , in which at least one burst region is formed, separates the channel and the receiving space from one another, wherein electrical energy is supplied to the battery while the channel is filled with a pressurized fluid, wherein extra fluid is supplied into the channel when the pressure in the channel drops as a result of the burst region bursting, and wherein the supply of electrical energy to the battery is terminated when the pressure in the channel drops. wherein electrical energy is supplied to the battery while the channel is filled with a pressurized fluid, wherein extra fluid is supplied into the channel when the pressure in the channel drops as a result of the burst region bursting, and wherein the supply of electrical energy to the battery is terminated when the pressure in the channel drops.
A top-emitting (TE) display comprising a reflective bottom electrode, a transparent or semi-transparent top electrode, a microcavity and an emissive layer comprising nanocrystal quantum dots (QDs), wherein: the emissive layer further comprises thermally activated delayed fluorescent (TADF) molecules, or a hole transport layer comprising TADF molecules exists adjacent to the emissive layer; at least one of the QDs and the TADF molecules are disposed in a host material, wherein the host material is 4,4',4"-tris(N-carbazolyl)triphenyl-amine (TCTA); the QDs are selected from blue-emitting QDs, red-emitting QDs, green-emitting QDs or a combination thereof; spectral overlap exists between the emission of the TADF molecules and absorption of the QDs; the emissive layer is sandwiched into the microcavity between the reflective bottom electrode and the transparent or semi-transparent top electrode; and wherein the QDs comprise In and P. the emissive layer further comprises thermally activated delayed fluorescent (TADF) molecules, or a hole transport layer comprising TADF molecules exists adjacent to the emissive layer; at least one of the QDs and the TADF molecules are disposed in a host material, wherein the host material is 4,4',4"-tris(N-carbazolyl)triphenyl-amine (TCTA); the QDs are selected from blue-emitting QDs, red-emitting QDs, green-emitting QDs or a combination thereof; spectral overlap exists between the emission of the TADF molecules and absorption of the QDs; the emissive layer is sandwiched into the microcavity between the reflective bottom electrode and the transparent or semi-transparent top electrode; and wherein the QDs comprise In and P.
A method of diagnosing a process control loop comprising a plurality of process control loop devices, wherein the process control loop is controlled based on adaptive process loop parameters calculated from an adapted model of the process control loop for each parameter of the process control loop, the method comprising: evaluating a performance of the process control loop; evaluating a condition of a process control loop device within the process control loop; evaluating a quality of the adapted model of the process control loop; evaluating a stability of the process control loop; generating a diagnostic index from each of the evaluations; evaluating a condition of the process control loop from one or more of the diagnostic indices; and automatically adjusting a process variable filter based on evaluating a condition of the process control loop from one or more of the diagnostic indices. evaluating a performance of the process control loop; evaluating a condition of a process control loop device within the process control loop; evaluating a quality of the adapted model of the process control loop; evaluating a stability of the process control loop; generating a diagnostic index from each of the evaluations; evaluating a condition of the process control loop from one or more of the diagnostic indices; and automatically adjusting a process variable filter based on evaluating a condition of the process control loop from one or more of the diagnostic indices.
Hydraulic valve device, especially an LS directional control valve, with fluid connections provided in a housing arrangement , such as at least one pressure supply connection (P), at least one service connection (A, B) and preferably one load sensing connection, and with a control device , which can be moved in one or the other direction of motion to at least partially control fluid connections in the housing arrangement , an adjustable stop device being provided to restrict the stroke length of the travel movements of the control device or parts thereof in the one direction and in the other direction, the stop device comprising a stop face facing the one direction of motion and a second stop face facing the other direction of motion on the same axial end region of a sliding piston of the control device, a counterstop being provided for each stop face , both of these being arranged on the respective same end region of the housing arrangement , and a stop face being formed on the end face of the respective axial end of the sliding piston , characterised in that the position of the counterstops can be adjusted and in that the counterstop for the stop face located on the end face of the sliding piston is formed on an adjustment screw , which extends parallel with the axis of travel in the associated end portion of the housing arrangement and is accessible from the outer side of the housing.
A roller brush device , comprising: a base ; a roller brush assembly detachably mounted to the base and comprising a roller brush shaft that is configured to rotate about an axis of the roller brush; a release device comprising a release operation member mounted on the roller brush assembly and configured to be actuated to release a locking between the base and the roller brush assembly , and to provide an assisting force for removing the roller brush assembly duration the actuation; wherein the release operation member is a knob , and the release device further comprises an assisting device driven by the knob ; and characterized in that : the assisting device comprises a push rod mounted in the roller brush shaft and extending along the axis of the roller brush, and the push rod is configured to be driven to move along the axis of the roller brush away from the knob during rotation of the knob to abut against the base . a base ; a roller brush assembly detachably mounted to the base and comprising a roller brush shaft that is configured to rotate about an axis of the roller brush; a release device comprising a release operation member mounted on the roller brush assembly and configured to be actuated to release a locking between the base and the roller brush assembly , and to provide an assisting force for removing the roller brush assembly duration the actuation; wherein the release operation member is a knob , and the release device further comprises an assisting device driven by the knob ; and characterized in that : the assisting device comprises a push rod mounted in the roller brush shaft and extending along the axis of the roller brush, and the push rod is configured to be driven to move along the axis of the roller brush away from the knob during rotation of the knob to abut against the base .
A construction material composition for producing lightweight concrete, comprising: - a hydraulic binder, - at least one additive, wherein the additive contains at least aluminum; and - fibers with a density of at most 7.2 g/cm 3 , wherein the construction material composition contains between 1.0 kg/m 3 and 10.0 kg/m 3 of fibers, wherein the fibers have an average fiber length between 1 mm and 50 mm and an average fiber thickness between 5 μm and 600 μm, and the additive contains: - 30 % by wt. to 90 % by wt. of lime; - 10 % by wt. to 30 % by wt. of aluminum, wherein the aluminum is provided with a protective layer, in particular of stearin, a fat, a wax and/or paraffin; - 0 % by wt. to 25 % by wt. of a curing accelerator; and - 0 % by wt. to 25 % by wt. of gypsum, wherein the construction material composition contains between 0.1 % by wt. and 5.0 % by wt. of additive related to the hydraulic binder. - a hydraulic binder, - at least one additive, wherein the additive contains at least aluminum; and - fibers with a density of at most 7.2 g/cm 3 , wherein the construction material composition contains between 1.0 kg/m 3 and 10.0 kg/m 3 of fibers, wherein the fibers have an average fiber length between 1 mm and 50 mm and an average fiber thickness between 5 μm and 600 μm, and the additive contains: - 30 % by wt. to 90 % by wt. of lime; - 10 % by wt. to 30 % by wt. of aluminum, wherein the aluminum is provided with a protective layer, in particular of stearin, a fat, a wax and/or paraffin; - 0 % by wt. to 25 % by wt. of a curing accelerator; and - 0 % by wt. to 25 % by wt. of gypsum, wherein the construction material composition contains between 0.1 % by wt. and 5.0 % by wt. of additive related to the hydraulic binder. - 30 % by wt. to 90 % by wt. of lime; - 10 % by wt. to 30 % by wt. of aluminum, wherein the aluminum is provided with a protective layer, in particular of stearin, a fat, a wax and/or paraffin; - 0 % by wt. to 25 % by wt. of a curing accelerator; and - 0 % by wt. to 25 % by wt. of gypsum, wherein the construction material composition contains between 0.1 % by wt. and 5.0 % by wt. of additive related to the hydraulic binder.
An artificial pillar, especially an inter-room pillar, formed of a spatial structure filled with waste rock, wherein the spatial structure is made of flexible grid and comprises sidewalls and a closing sidewall and a bottom resting on the floor , whereas at the top the sidewalls and the closing sidewall are suspended to the roof by means of rock bolts , wherein the rock bolts suspending closing sidewall are equipped with additional fastening elements .
An insole for correcting misalignments comprising a resiliently deformable, flexible sole body which extends from the heel into at least the metatarsal region and which in the region of the heel has a lateral and a medial supporting wall which form a heel shell , wherein a U-shaped stabilising brace is embedded in the sole body, said U-shaped stabilising brace having a flat base in the sole body and, starting from the sides of the base, having a lateral and a medial tab which are upwardly oriented and which in each case extend into one of the supporting walls , characterised in that the tabs are offset to one another relative to the longitudinal direction of the insole so that the lateral tab bears against the rear lateral side region of the heel bone and the medial tab bears from below against the sustentaculum tali located in the front medial side region, and in that the lateral tab is located at the side of the region of the heel bone located behind the ankle bone and the medial tab is located at the side of the region of the heel bone located below the ankle bone, wherein the average force contact point of the medial tab on the heel bone is located above the average force contact point of the lateral tab .
Method to adjust an orientation of a first structure relative to a second structure , comprising following steps: a) providing an actuator with: a first bracket that is configured to be operatively coupled to the first structure; a ratcheting assembly that is operatively coupled to the first bracket; a second bracket that is configured to be operatively coupled to the second structure; and a shape memory alloy torque tube that is located between and operatively coupled to the second bracket and to the ratcheting assembly, b) the shape memory alloy torque tube applies a first motive force to the ratcheting assembly upon deformation from a first conformation to a second conformation ; c) responsive to receipt of the first motive force, the ratcheting assembly selectively adjusts the orientation of the first structure relative to the second structure; d) the shape memory alloy torque tube applies an opposed second motive force to the ratcheting assembly upon deformation from the second conformation to the first conformation; and e) the ratcheting assembly operatively decouples shape memory alloy torque tube from first structure and/or from second structure when it undergoes the first conformation. a) providing an actuator with: a first bracket that is configured to be operatively coupled to the first structure; a ratcheting assembly that is operatively coupled to the first bracket; a second bracket that is configured to be operatively coupled to the second structure; and a shape memory alloy torque tube that is located between and operatively coupled to the second bracket and to the ratcheting assembly, a first bracket that is configured to be operatively coupled to the first structure; a ratcheting assembly that is operatively coupled to the first bracket; a second bracket that is configured to be operatively coupled to the second structure; and a shape memory alloy torque tube that is located between and operatively coupled to the second bracket and to the ratcheting assembly, b) the shape memory alloy torque tube applies a first motive force to the ratcheting assembly upon deformation from a first conformation to a second conformation ; c) responsive to receipt of the first motive force, the ratcheting assembly selectively adjusts the orientation of the first structure relative to the second structure; d) the shape memory alloy torque tube applies an opposed second motive force to the ratcheting assembly upon deformation from the second conformation to the first conformation; and e) the ratcheting assembly operatively decouples shape memory alloy torque tube from first structure and/or from second structure when it undergoes the first conformation.