mhurhangee/patent-ind-claim-en huggingface dataset:
An imprint lithography method, comprising: positioning a turntable in a first position such that i) two or more cutouts of an opening of a first opening end positioned opposite a second opening end are in superimposition with a respective two or more pedestals and ii) a first pedestal end of the two or more pedestals extends away from a top surface of the turntable ; increasing a distance between the top surface of the turntable and a bottom surface of a substrate chuck comprising a top surface positioned opposite the bottom surface to transfer a first substrate from the two or more pedestals to two or more tabs of the opening of the first opening end of the turntable ; rotating the turntable from the first position to a second position such that i) the two or more tabs of the opening of the first opening end of the turntable are in superimposition with two or more channels of the substrate chuck and ii) the two or more cutouts of the opening of the second opening end are in superimposition with the two or more pedestals ; and decreasing a distance between the top surface of the turntable and the bottom surface of the substrate chuck to transfer the first substrate from the two or more tabs of the opening of the first opening end of the turntable to the top surface of the substrate chuck while the two or more tabs of the opening of the first opening end are positioned within the channels of the substrate chuck . positioning a turntable in a first position such that i) two or more cutouts of an opening of a first opening end positioned opposite a second opening end are in superimposition with a respective two or more pedestals and ii) a first pedestal end of the two or more pedestals extends away from a top surface of the turntable ; increasing a distance between the top surface of the turntable and a bottom surface of a substrate chuck comprising a top surface positioned opposite the bottom surface to transfer a first substrate from the two or more pedestals to two or more tabs of the opening of the first opening end of the turntable ; rotating the turntable from the first position to a second position such that i) the two or more tabs of the opening of the first opening end of the turntable are in superimposition with two or more channels of the substrate chuck and ii) the two or more cutouts of the opening of the second opening end are in superimposition with the two or more pedestals ; and decreasing a distance between the top surface of the turntable and the bottom surface of the substrate chuck to transfer the first substrate from the two or more tabs of the opening of the first opening end of the turntable to the top surface of the substrate chuck while the two or more tabs of the opening of the first opening end are positioned within the channels of the substrate chuck .
A method for using multiple air interfaces on a frequency channel for side-link communications, the method comprising: determining , by an air interface coordination management server system, an allocation of a system resource pool among multiple different air interfaces such that a first air interface is assigned a first time-window of a frequency channel of the system resource pool and a second air interface is assigned a second time-window of the frequency channel of the system resource pool, wherein the first time-window and the second time-window do not overlap; transmitting a first indication of the first time-window of the system resource pool to a first air interface system; transmitting a second indication of the second time-window of the system resource pool to a second air interface system; transmitting , by the first air interface system, a first indication of the first time-window of the system resource pool to a first set of user equipment using the first air interface; transmitting , by the second air interface system, a second indication of the second time-window of the system resource pool to a second set of user equipment using the second air interface; performing , by the first set of user equipment, side-link communications using the first air interface during only the first time-window of the system resource pool; and performing , by the second set of user equipment, side-link communications using the second air interface during only the second time-window of the system resource pool. determining , by an air interface coordination management server system, an allocation of a system resource pool among multiple different air interfaces such that a first air interface is assigned a first time-window of a frequency channel of the system resource pool and a second air interface is assigned a second time-window of the frequency channel of the system resource pool, wherein the first time-window and the second time-window do not overlap; transmitting a first indication of the first time-window of the system resource pool to a first air interface system; transmitting a second indication of the second time-window of the system resource pool to a second air interface system; transmitting , by the first air interface system, a first indication of the first time-window of the system resource pool to a first set of user equipment using the first air interface; transmitting , by the second air interface system, a second indication of the second time-window of the system resource pool to a second set of user equipment using the second air interface; performing , by the first set of user equipment, side-link communications using the first air interface during only the first time-window of the system resource pool; and performing , by the second set of user equipment, side-link communications using the second air interface during only the second time-window of the system resource pool.
A dried powder comprising an edible part and a non-edible part of a dried edible plant, satisfying the following conditions to : a proportion of the non-edible part to the edible part of the dried edible plant is 1% by mass or more and 200% by mass or less; a repose angle, which is measured by a method as described in the description, is 0.7 rad or more; "loose bulk density/tight bulk density" is 0.88 or less; a moisture content is 20% by mass or less; and a content of dietary fiber is 18% by mass or more, wherein the edible plant is one or more selected from corn, paprika, pumpkin, table beet, broccoli, spinach, carrot, kale, green soybean, pea, broad bean, sweet potato, tomato, rice, onion, cabbage, apple, grape, sugar cane and citrus fruits, the non-edible part of the edible plant is one or more selected from bract or pistil or cob of corn; stem end or core or seed of paprika; pith or seed or both ends of pumpkin; root tip or skin or petiole of table beet; leaf and stem of broccoli; plant foot of spinach; root tip or petiole base of carrot; petiole base of kale; pod of green soybean; pod of pea; seed skin or pod of broad bean; surface skin and both ends of sweet potato; stem end of tomato; rice hull of rice; skin, bottom part, or head part of onion; core of cabbage; core of apple; fruit peel and seed of grape; draff of sugar cane; and peel, seed, and pith of citrus fruits, and the edible part is the part excluding the non-edible part from the whole edible plant. a proportion of the non-edible part to the edible part of the dried edible plant is 1% by mass or more and 200% by mass or less; a repose angle, which is measured by a method as described in the description, is 0.7 rad or more; "loose bulk density/tight bulk density" is 0.88 or less; a moisture content is 20% by mass or less; and a content of dietary fiber is 18% by mass or more, the edible plant is one or more selected from corn, paprika, pumpkin, table beet, broccoli, spinach, carrot, kale, green soybean, pea, broad bean, sweet potato, tomato, rice, onion, cabbage, apple, grape, sugar cane and citrus fruits, the non-edible part of the edible plant is one or more selected from bract or pistil or cob of corn; stem end or core or seed of paprika; pith or seed or both ends of pumpkin; root tip or skin or petiole of table beet; leaf and stem of broccoli; plant foot of spinach; root tip or petiole base of carrot; petiole base of kale; pod of green soybean; pod of pea; seed skin or pod of broad bean; surface skin and both ends of sweet potato; stem end of tomato; rice hull of rice; skin, bottom part, or head part of onion; core of cabbage; core of apple; fruit peel and seed of grape; draff of sugar cane; and peel, seed, and pith of citrus fruits, and the edible part is the part excluding the non-edible part from the whole edible plant.
A laminating machine for laminating three-layer acrylic license plates, said plates (p) consisting of at least an acrylic part , a reflective film and a reinforcing part , where the reflective film has a smaller perimeter surface than the acrylic part and the reinforcing part which are identical to one another, and which, comprising a prismatic body with an upper base , determining a rectangular surface suitable for incorporating the layers to be laminated, which base, at one of its ends, has rollers rotating in opposite directions which are operated by hand or by means of motor , the machine having holding and guiding means, which are determined at least by stepped guides and a movable stop , which align and immobilize the three layers to be laminated, with the reflective film being centered with respect to the acrylic part and the reinforcing part , which have a greater height than said reflective film , and keep them in place guiding them without them moving with respect to one another during the laminating process, both while inserting them together between the rollers , and along almost the entire path they travel through the rollers ; wherein the stepped guides are two guides which are incorporated in the upper base of the body , being located parallel to and facing one another at a certain distance according to the width of the layers to be laminated, and perpendicular to the rollers , each of said guides having three longitudinal steps for housing each of the different layers in the position corresponding to it in order for the reflective film to be centered in height between the upper side and lower side of the acrylic part and of the reinforcing part , as well as for the acrylic part and the reinforcing part to be perfectly aligned with one another.
Method for an enhanced communication between a user equipment and a telecommunications network , wherein the user equipment comprises an application and a short message push client , wherein the telecommunications network comprises an application server and a short message push server , wherein the application uses push notifications received from the telecommunications network , wherein in case that a push notification is to be sent from the application server to the application of the user equipment the method comprises the following steps: -- in a first step, information related to the push notification to be sent is transmitted from the application server to the short message push server , -- in a second step, the push notification is transmitted from the short message push server to the short message push client , -- in a third step, the push notification, received by the short message push client , is made available to the application of the user equipment , wherein the push notification is transmitted from the short message push server to the short message push client as at least one short message according to the short message service protocol (SMS protocol), wherein the at least one short message is of a binary message format, wherein during a registration acknowledgment step prior to conducting the first step, a first registration acknowledgement message is sent from the short message push server to the short message push client , the first registration acknowledgement message comprising a token information, wherein during the first step, the information related to the push notification to be sent to the user equipment comprises the token information, wherein the token information identifies the user equipment and/or the instance of the application , wherein during a registration request step prior to the registration acknowledgment step, a first registration request message is sent from the application to the short message push client , and a second registration request message is sent from the short message push client to the short message push server , wherein the token information is an information generated based on a phone number of the user equipment and an application identifier, wherein a link between the phone number of the user equipment , the application identifier and the token information is stored only on the short message push server . -- in a first step, information related to the push notification to be sent is transmitted from the application server to the short message push server , -- in a second step, the push notification is transmitted from the short message push server to the short message push client , -- in a third step, the push notification, received by the short message push client , is made available to the application of the user equipment ,
A method of controlling a packaging machine comprising independently movable objects configured to manipulate packaging containers, the independently movable objects communicating with a control unit configured to control the positions of the independently movable objects along a track , each of the movable objects occupies a respective object volume and has a respective object coordinate (x a , x b ) in a coordinate system (x) of the track , the method comprises moving object volumes of a leading object and a trailing object along a section of the coordinate system in a first direction of the coordinate system, the object volume of the trailing object being upstream of the object volume of the leading object with respect to the first direction , wherein, at defined intervals of object coordinates (x b ) of the leading object along the section , the method comprises determining for each object coordinate (x b ) of the leading object different minimum separation distance (d m1 , d m2 , d m3 ) between the object coordinates (x a , x b ) of the leading and trailing objects over the interval, whereby the space occupied by the object volumes of the leading and trailing object is different for each minimum separation distance (d m1 , d m2 , d m3 ) in the set, so that there is no overlap between the object volumes , registering object coordinates (x a2 , x a3 , x a4 ) of the trailing object at each minimum separation distance (d m1 , d m2 , d m3 ) in the set, associating the object coordinates (x a2 , x a3 , x a4 ) of the trailing object and the corresponding minimum separation distances (d m1 , d m2 , d m3 ) in a first function (d m ), whereby, for a selected object coordinate (x a ) to be subsequently communicated by the control unit to a selected movable object , for moving the selected movable object along the track , the method comprises determining the corresponding minimum separation distance (d ma ) from the first function (d m ), comparing the minimum separation distance (d ma ) from the first function (d m ) with a resulting separation (d) between said selected object coordinate (x a ) and an object coordinate (x b ) of a movable object closest downstream of the selected movable object , with respect to a direction of movement of the selected movable object , to determine the resulting separation (d) as being smaller or larger than the minimum separation distance (d ma ), sending a modified object coordinate (x mod a ) to the control unit when said resulting separation (d) is smaller than the minimum separation distance (d ma ), whereby the modified object coordinate (x mod a ) positions the selected movable object on the track with resulting separation (d) being larger than the minimum separation distance (d ma ).
An array substrate, comprising: a base substrate ; a plurality of gate lines and a plurality of data lines formed on the base substrate , the plurality of gate lines and the plurality of data lines intersecting with each other to define a plurality of sub-pixels, each of the sub-pixels including a thin film transistor and a pixel electrode , and the plurality of sub-pixels including a first sub-pixel; a passivation layer formed on the base substrate and covering the gate lines , the data lines and the thin film transistors, a via hole being provided in the passivation layer and the pixel electrode being formed on the passivation layer and connected with a drain electrode (D) or a source electrode (S) of the thin film transistor through the via hole in each of the sub-pixels; and a first spacer , provided in the via hole of the first sub-pixel, wherein, the plurality of sub-pixels further include a second sub-pixel; and the array substrate further comprises a second spacer provided in the via hole of the second sub-pixel; each of the sub-pixels further includes a common electrode and an inter-electrode insulation layer provided between the common electrode and the pixel electrode ; characterized in that the inter-electrode insulation layer has a portion provided on the first spacer but does not have a portion provided on the second spacer , and/or the common electrode has a portion provided on the first spacer but does not have a portion provided on the second spacer. a base substrate ; a plurality of gate lines and a plurality of data lines formed on the base substrate , the plurality of gate lines and the plurality of data lines intersecting with each other to define a plurality of sub-pixels, each of the sub-pixels including a thin film transistor and a pixel electrode , and the plurality of sub-pixels including a first sub-pixel; a passivation layer formed on the base substrate and covering the gate lines , the data lines and the thin film transistors, a via hole being provided in the passivation layer and the pixel electrode being formed on the passivation layer and connected with a drain electrode (D) or a source electrode (S) of the thin film transistor through the via hole in each of the sub-pixels; and a first spacer , provided in the via hole of the first sub-pixel, wherein, the plurality of sub-pixels further include a second sub-pixel; and the array substrate further comprises a second spacer provided in the via hole of the second sub-pixel; each of the sub-pixels further includes a common electrode and an inter-electrode insulation layer provided between the common electrode and the pixel electrode ; characterized in that the inter-electrode insulation layer has a portion provided on the first spacer but does not have a portion provided on the second spacer , and/or the common electrode has a portion provided on the first spacer but does not have a portion provided on the second spacer.
Method for controlling an agricultural vehicle on a piece of agricultural land , having the steps of: - determining (S1) a section , which is ahead in the driving direction of the agricultural vehicle , of a path for driving over (S4) the piece of agricultural land to a leading distance along the path , wherein the section and the distance are determined on the basis of a driving speed of the agricultural vehicle , - communicating (S2) geometrical information relating to the determined section of the path from a mobile terminal , which can be carried on the agricultural vehicle , via a terminal/vehicle interface , to a control device for controlling the agricultural vehicle along the path , - checking (P1) whether driving over (S4) the section ahead, taking into account the communicated geometrical information and the driving speed of the agricultural vehicle , has a driving dynamics influence, which exceeds a predefined driving dynamics limit value, on the driving dynamics of the agricultural vehicle , and - actuating (S3) at least one driving dynamics component of the agricultural vehicle on the basis of a checking result of the checking step (P1). - determining (S1) a section , which is ahead in the driving direction of the agricultural vehicle , of a path for driving over (S4) the piece of agricultural land to a leading distance along the path , wherein the section and the distance are determined on the basis of a driving speed of the agricultural vehicle , - communicating (S2) geometrical information relating to the determined section of the path from a mobile terminal , which can be carried on the agricultural vehicle , via a terminal/vehicle interface , to a control device for controlling the agricultural vehicle along the path , - checking (P1) whether driving over (S4) the section ahead, taking into account the communicated geometrical information and the driving speed of the agricultural vehicle , has a driving dynamics influence, which exceeds a predefined driving dynamics limit value, on the driving dynamics of the agricultural vehicle , and - actuating (S3) at least one driving dynamics component of the agricultural vehicle on the basis of a checking result of the checking step (P1).
A method for use in surgical navigation, the method being performed by a computing system and comprising: obtaining first tracking data for a first tracker in a tracking coordinate system, wherein the first tracker is associated with an anatomical object ; determining , based on the first tracking data, a first pose of the first tracker in exactly four degrees of freedom, DOF, wherein the four DOF of the first pose comprise two translational DOF and two rotational DOF; obtaining second tracking data for a second tracker in a tracking coordinate system, wherein the second tracker is associated with the anatomical object ; determining , based on the second tracking data, a second pose of the second tracker in exactly four DOF, wherein the four DOF of the second pose comprise two translational DOF and two rotational DOF; determining , based on the first pose and the second pose, a third pose of a virtual tracker in six DOF, the virtual tracker having a fixed spatial relationship relative to the anatomical object in the six DOF of the third pose. obtaining first tracking data for a first tracker in a tracking coordinate system, wherein the first tracker is associated with an anatomical object ; determining , based on the first tracking data, a first pose of the first tracker in exactly four degrees of freedom, DOF, wherein the four DOF of the first pose comprise two translational DOF and two rotational DOF; obtaining second tracking data for a second tracker in a tracking coordinate system, wherein the second tracker is associated with the anatomical object ; determining , based on the second tracking data, a second pose of the second tracker in exactly four DOF, wherein the four DOF of the second pose comprise two translational DOF and two rotational DOF; determining , based on the first pose and the second pose, a third pose of a virtual tracker in six DOF, the virtual tracker having a fixed spatial relationship relative to the anatomical object in the six DOF of the third pose.