mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating an automation device comprising at least one real automation unit for controlling a technical process, an operator station for operating and observing the technical process to be controlled, an engineering system and virtual automation units (12 to 14) each of which simulates functions of a real automation unit and is stored on a server , wherein the automation unit and the virtual automation units (12 to 14) each comprise system functions (16 to 19), characterised in that - the engineering system and one of these system functions are used to configure process objects for the other system functions (17-19) and these are used to monitor a system function of the other system functions (17 to 19) with respect to utilisation of the respective automation unit (2, 12 to 14), - the other system functions (17 to 19) are used - to process a first configured number of the process objects on the respective automation unit (2, 12 to 14), - to exchange a second configured number of the process objects between the respective automation unit (2, 12 to 14) and the operator station , - to exchange a third configured number of the process objects between the respective automation unit (2, 12 to 14) and the further automation units (2, 12 to 14), - in the event of the one system function on one of the virtual automation units (12 to 14) identifying that the utilisation of the respective other system function (17 to 19) has reached or exceeded a threshold value, this virtual automation unit is transferred to a further server . - the engineering system and one of these system functions are used to configure process objects for the other system functions (17-19) and these are used to monitor a system function of the other system functions (17 to 19) with respect to utilisation of the respective automation unit (2, 12 to 14), - the other system functions (17 to 19) are used - to process a first configured number of the process objects on the respective automation unit (2, 12 to 14), - to exchange a second configured number of the process objects between the respective automation unit (2, 12 to 14) and the operator station , - to exchange a third configured number of the process objects between the respective automation unit (2, 12 to 14) and the further automation units (2, 12 to 14), - to process a first configured number of the process objects on the respective automation unit (2, 12 to 14), - to exchange a second configured number of the process objects between the respective automation unit (2, 12 to 14) and the operator station , - to exchange a third configured number of the process objects between the respective automation unit (2, 12 to 14) and the further automation units (2, 12 to 14), - in the event of the one system function on one of the virtual automation units (12 to 14) identifying that the utilisation of the respective other system function (17 to 19) has reached or exceeded a threshold value, this virtual automation unit is transferred to a further server .
A computer-implemented method for estimating uncertainty measurements on lesion segmentation, the method comprising: acquiring (A110), by a magnetic resonance imaging MRI device, MRI data for a patient; generating (A120), using a first trained network, segmented lesion data from the MRI data; estimating (A130), by an image processor, voxel level measures of uncertainty from the segmented lesion data; generating (A130), by the image processor, lesion level measures of uncertainty from the voxel level measures of uncertainty; and predicting (A160), by a second trained network, an image level uncertainty measure for the segmented lesion data, the second trained network configured to receive the MRI data, the segmented lesion data, the voxel level measures of uncertainty, and the lesion level measures of uncertainty as input data and to predict the image level uncertainty measure, wherein the method comprises: increasing (A150), by the image processor, information density of the segmented lesion data, the voxel level measures of uncertainty, and the lesion level measures of uncertainty, wherein increasing information density comprises: increasing , by the image processor, information density by Euclidean distance transform for the segmented lesion data; and increasing , by the image processor, information density by geodesic distance transform for the voxel level measures of uncertainty and the lesion level measures of uncertainty. acquiring (A110), by a magnetic resonance imaging MRI device, MRI data for a patient; generating (A120), using a first trained network, segmented lesion data from the MRI data; estimating (A130), by an image processor, voxel level measures of uncertainty from the segmented lesion data; generating (A130), by the image processor, lesion level measures of uncertainty from the voxel level measures of uncertainty; and predicting (A160), by a second trained network, an image level uncertainty measure for the segmented lesion data, the second trained network configured to receive the MRI data, the segmented lesion data, the voxel level measures of uncertainty, and the lesion level measures of uncertainty as input data and to predict the image level uncertainty measure, increasing (A150), by the image processor, information density of the segmented lesion data, the voxel level measures of uncertainty, and the lesion level measures of uncertainty, wherein increasing information density comprises: increasing , by the image processor, information density by Euclidean distance transform for the segmented lesion data; and increasing , by the image processor, information density by geodesic distance transform for the voxel level measures of uncertainty and the lesion level measures of uncertainty.
An adjustable height locator for locating a readable and settable valve implanted in a living being, the locator comprising: a wall having a first perimeter ; a platform disposed within the first perimeter; a valve cut-out disposed within the platform and configured to receive a portion of the valve; a movable foot disposed below the platform; and a displacement element configured to move the foot at least one of toward or away from the platform controlling the amount of the valve received in the valve cut-out. a wall having a first perimeter ; a platform disposed within the first perimeter; a valve cut-out disposed within the platform and configured to receive a portion of the valve; a movable foot disposed below the platform; and a displacement element configured to move the foot at least one of toward or away from the platform controlling the amount of the valve received in the valve cut-out.
A double-stranded oligo RNA comprising a structure represented by the following Structural Formula 1: [Structural Formula 1] A-X-R-Y-B wherein R is an siRNA, wherein A is a hydrophilic material represented by the following Structural Formula 4: [Structural Formula 4] (A' m -J) n with the proviso that the hydrophilic material A is not polyethylene glycol, polyvinyl pyrrolidone or polyoxazoline, wherein A' is a hydrophilic material monomer, J is a linker linking m hydrophilic material monomers to each other or linking m hydrophilic material monomers and the siRNA to each other, m is an integer of 1 to 15, n is an integer of 1 to 10, wherein A' is a compound selected from Compounds and represented as follows: wherein G is selected for the group consisting of CH2, O, S and NH, and wherein J is selected from the group consisting of PO3-, SO3, and CO2, B is a hydrophobic material, X and Y are each independently a simple covalent bond or linker-mediated covalent bond, and the siRNA R comprises a sense strand and an antisense strand, wherein the sense strand and the antisense strand consist of 19 nucleotides, wherein the sense strand has the sequence SEQ ID NO.: 107 and the antisense strand has a sequence complementary thereto. wherein R is an siRNA, wherein A is a hydrophilic material represented by the following Structural Formula 4: [Structural Formula 4] (A' m -J) n with the proviso that the hydrophilic material A is not polyethylene glycol, polyvinyl pyrrolidone or polyoxazoline, wherein A' is a hydrophilic material monomer, J is a linker linking m hydrophilic material monomers to each other or linking m hydrophilic material monomers and the siRNA to each other, m is an integer of 1 to 15, n is an integer of 1 to 10, wherein A' is a compound selected from Compounds and represented as follows: wherein G is selected for the group consisting of CH2, O, S and NH, and wherein J is selected from the group consisting of PO3-, SO3, and CO2, B is a hydrophobic material, X and Y are each independently a simple covalent bond or linker-mediated covalent bond, and the siRNA R comprises a sense strand and an antisense strand, wherein the sense strand and the antisense strand consist of 19 nucleotides, wherein the sense strand has the sequence SEQ ID NO.: 107 and the antisense strand has a sequence complementary thereto.
A device , comprising: an object to be irradiated; an apparatus on which the object to be irradiated is placed; and a mask, wherein the mask comprises : a transparent supporting structure ; and a metal layer having at least one opening to guide light to the object to be irradiated, the surface of the transparent supporting structure, on which the metal layer is formed, having a curved shape, and the metal layer having a surface with the curved shape of the transparent supporting structure, characterized in that a thickness (t) of the opening in the metal layer of the mask is 5 or more times a distance (a) between the mask and the surface of the the object to be irradiated. an object to be irradiated; an apparatus on which the object to be irradiated is placed; and a mask, wherein the mask comprises : a transparent supporting structure ; and a metal layer having at least one opening to guide light to the object to be irradiated, the surface of the transparent supporting structure, on which the metal layer is formed, having a curved shape, and the metal layer having a surface with the curved shape of the transparent supporting structure, characterized in that a thickness (t) of the opening in the metal layer of the mask is 5 or more times a distance (a) between the mask and the surface of the the object to be irradiated. a transparent supporting structure ; and a metal layer having at least one opening to guide light to the object to be irradiated, the surface of the transparent supporting structure, on which the metal layer is formed, having a curved shape, and the metal layer having a surface with the curved shape of the transparent supporting structure, characterized in that a thickness (t) of the opening in the metal layer of the mask is 5 or more times a distance (a) between the mask and the surface of the the object to be irradiated.
An air conditioner comprising: a control box having a space (S) formed therein; a printed circuit board arranged to form an air circulation passage (P) in the space (S), the printed circuit board having a plurality of electric components mounted thereto; a cooling module for making a first electric component of the plurality of electric components to heat exchange with refrigerant; and a circulating fan arranged in the air circulation passage (P) to make air to flow to a second electric component of the plurality of electric components via the cooling module , characterized in that the cooling module includes: a refrigerant pipe for passing of the refrigerant, a heat transfer plate in contact with the refrigerant pipe and the first electric component , and a heat absorbing plate in contact with the heat transfer plate for heat exchange with the air in the air circulation passage (P). a control box having a space (S) formed therein; a printed circuit board arranged to form an air circulation passage (P) in the space (S), the printed circuit board having a plurality of electric components mounted thereto; a cooling module for making a first electric component of the plurality of electric components to heat exchange with refrigerant; and a circulating fan arranged in the air circulation passage (P) to make air to flow to a second electric component of the plurality of electric components via the cooling module , characterized in that the cooling module includes: a refrigerant pipe for passing of the refrigerant, a heat transfer plate in contact with the refrigerant pipe and the first electric component , and a heat absorbing plate in contact with the heat transfer plate for heat exchange with the air in the air circulation passage (P). a refrigerant pipe for passing of the refrigerant, a heat transfer plate in contact with the refrigerant pipe and the first electric component , and a heat absorbing plate in contact with the heat transfer plate for heat exchange with the air in the air circulation passage (P).
A method of selectively exposing a liquid photopolymer printing blank to actinic radiation to create a relief image printing plate, wherein the liquid photopolymer printing blank is produced by the steps of (i) placing a photographic negative on a bottom glass platen and placing a coverfilm over the negative, (ii) disposing a layer of liquid photopolymer on top of the coverfilm and negative to a predetermined thickness, and (iii) placing a backing sheet over the layer of liquid photopolymer, the method comprising the steps of: a) scanning a light bar across an upper surface of the liquid photopolymer printing blank through the backing sheet to cure the layer of liquid photopolymer in selected areas, creating islands of cured polymer adjacent to the backing sheet; b) thereafter, imagewise exposing the layer of liquid photopolymer to actinic radiation through the bottom of the liquid photopolymer printing blank through the photographic negative to crosslink and cure selective portions of the layer of liquid photopolymer and create a relief image therein; wherein the relief image is created on the islands of cured polymer; and wherein the light bar comprises a plurality of UV LEDs, and wherein a controller operatively connected to the light bar selectively turns on and off the plurality of UV LEDs as the light bar scans across a surface of the layer of liquid photopolymer to selectively crosslink and cure portions of the layer of liquid photopolymer, whereby the islands of cured polymer are created without the use of a masking film or negative. a) scanning a light bar across an upper surface of the liquid photopolymer printing blank through the backing sheet to cure the layer of liquid photopolymer in selected areas, creating islands of cured polymer adjacent to the backing sheet; b) thereafter, imagewise exposing the layer of liquid photopolymer to actinic radiation through the bottom of the liquid photopolymer printing blank through the photographic negative to crosslink and cure selective portions of the layer of liquid photopolymer and create a relief image therein;
A method of programming an access control system, the method comprising: presenting an access card and a configuration card to an access control device , wherein the configuration card is encrypted with a diversified key based upon information from the access card such that the two cards are tied together, and when the access card expires, the configuration card also effectively expires, wherein the configuration card is usable only on the access control device that the access card is authorized to open, and, wherein if the two cards are separated or one of the cards is reprogrammed or destroyed, then the configuration card becomes unusable for configuring the access control device ; determining a validity of the access card at the access control device ; processing the configuration card at the access control device in response to the validity of the access card ; decrypting a payload on the configuration card based upon the information from the access card ; and using the payload from the configuration card to switch the access control device to a high security mode of operation such that the access control device will no longer accept low security cards; wherein the access control device is a door lock. presenting an access card and a configuration card to an access control device , wherein the configuration card is encrypted with a diversified key based upon information from the access card such that the two cards are tied together, and when the access card expires, the configuration card also effectively expires, wherein the configuration card is usable only on the access control device that the access card is authorized to open, and, wherein if the two cards are separated or one of the cards is reprogrammed or destroyed, then the configuration card becomes unusable for configuring the access control device ; determining a validity of the access card at the access control device ; processing the configuration card at the access control device in response to the validity of the access card ; decrypting a payload on the configuration card based upon the information from the access card ; and using the payload from the configuration card to switch the access control device to a high security mode of operation such that the access control device will no longer accept low security cards; wherein the access control device is a door lock.
An expandable malting plant for germinating and kiln-drying grain, having a heating unit in which a heating device can be installed and at least one expandable germinating/kiln-drying unit , with - a starting module having an air channel with a germinating fan , wherein the starting module is connected to a connector channel and a return channel to the heating unit , - at least one intermediate module , and - an end module , wherein the starting module is connected to the intermediate module , and wherein the intermediate module is connected to the end module to form a process chamber for germinating and kiln-drying grain, wherein the capacity level of the malting plant can be adjusted by changing the size of the process chamber , wherein the malting plant is configured to selectively - conduct air from outside of the starting module into the process chamber and/or circulate airfrom the process chamber via the air channel into the process chamber using the germinating fan during the germinating process, and - conduct air that has been temperature-controlled by the heating device in the heating unit via the connector channel into the process chamber via the starting module during the kiln-drying process of the grain. - a starting module having an air channel with a germinating fan , wherein the starting module is connected to a connector channel and a return channel to the heating unit , - at least one intermediate module , and - an end module , wherein the starting module is connected to the intermediate module , and wherein the intermediate module is connected to the end module to form a process chamber for germinating and kiln-drying grain, wherein the capacity level of the malting plant can be adjusted by changing the size of the process chamber , wherein the malting plant is configured to selectively - conduct air from outside of the starting module into the process chamber and/or circulate airfrom the process chamber via the air channel into the process chamber using the germinating fan during the germinating process, and - conduct air that has been temperature-controlled by the heating device in the heating unit via the connector channel into the process chamber via the starting module during the kiln-drying process of the grain. - conduct air from outside of the starting module into the process chamber and/or circulate airfrom the process chamber via the air channel into the process chamber using the germinating fan during the germinating process, and - conduct air that has been temperature-controlled by the heating device in the heating unit via the connector channel into the process chamber via the starting module during the kiln-drying process of the grain.
A hydraulic system for a footwear, comprising: a first chamber having a first elastic cover; a second chamber having a second elastic cover; characterized in that it further comprises: a third chamber having an elastic membrane dividing the third chamber into first and second compartments , wherein the first compartment is filled with gas and the second compartment is filled with liquid; and a generator having a turbine , wherein the second compartment of the third chamber is fluidly coupled to the first and second chambers and the turbine via passages and valves. a first chamber having a first elastic cover; a second chamber having a second elastic cover; characterized in that it further comprises: a third chamber having an elastic membrane dividing the third chamber into first and second compartments , wherein the first compartment is filled with gas and the second compartment is filled with liquid; and a generator having a turbine , wherein the second compartment of the third chamber is fluidly coupled to the first and second chambers and the turbine via passages and valves. a third chamber having an elastic membrane dividing the third chamber into first and second compartments , wherein the first compartment is filled with gas and the second compartment is filled with liquid; and a generator having a turbine , wherein the second compartment of the third chamber is fluidly coupled to the first and second chambers and the turbine via passages and valves.
Device for unwinding a coil of a metal strip comprising: (a) a bogie and a guiding system wherein the bogie is translatable back and forth along the guiding system ; (b) a blocking system which is arranged on said bogie and which contains a first shaped element and a second shaped element ; (c) an actuating system for modifying the distance between said first and second shaped elements for defining an intercepting position of a strip end between said two shaped elements when spaced and a gripping position of said strip end by said two shaped elements when close together; wherein said first shaped element is a roller and wherein said second shaped element is preferably a second roller; the device being characterized in that it further comprises (d) an element for detaching said strip end from the coil provided on the first shaped element . (a) a bogie and a guiding system wherein the bogie is translatable back and forth along the guiding system ; (b) a blocking system which is arranged on said bogie and which contains a first shaped element and a second shaped element ; (c) an actuating system for modifying the distance between said first and second shaped elements for defining an intercepting position of a strip end between said two shaped elements when spaced and a gripping position of said strip end by said two shaped elements when close together; wherein said first shaped element is a roller and wherein said second shaped element is preferably a second roller; the device being characterized in that it further comprises (d) an element for detaching said strip end from the coil provided on the first shaped element .