mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining measurement information for a forming operation to be performed on a metal part, in particular for steel or aluminum forming, the method performed by at least a second device , the method comprising the following: - Obtaining forming boundary conditions of the forming to be performed from a first device at the second device ; - Obtaining and/or determining material parameters of the metal part and/or process parameters of the forming to be carried out; - Performing and/or triggering the performance of at least one forming simulation based on the forming boundary conditions and the material parameters and/or process parameters; further characterized by - Determining measurement information at least partly based on the at least one forming simulation, wherein the measurement information - comprise measured variable information indicative of one or more measured variables to be determined during the transformation to be carried out and/or - comprise measurement position information indicative of one or more positions of one or more sensors to be used in the forming operation to be performed and/or - specify which type of recording is to be used, and/or - specify a predicted time at which a particular measurement is to be made; and - Providing the measurement information from the second device to the first device. - Obtaining forming boundary conditions of the forming to be performed from a first device at the second device ; - Obtaining and/or determining material parameters of the metal part and/or process parameters of the forming to be carried out; - Performing and/or triggering the performance of at least one forming simulation based on the forming boundary conditions and the material parameters and/or process parameters; further characterized by - Determining measurement information at least partly based on the at least one forming simulation, wherein the measurement information - comprise measured variable information indicative of one or more measured variables to be determined during the transformation to be carried out and/or - comprise measurement position information indicative of one or more positions of one or more sensors to be used in the forming operation to be performed and/or - specify which type of recording is to be used, and/or - specify a predicted time at which a particular measurement is to be made; and - comprise measured variable information indicative of one or more measured variables to be determined during the transformation to be carried out and/or - comprise measurement position information indicative of one or more positions of one or more sensors to be used in the forming operation to be performed and/or - specify which type of recording is to be used, and/or - specify a predicted time at which a particular measurement is to be made; and - Providing the measurement information from the second device to the first device.
A tubular core for paper material, of circular or substantially circular cross section, having two opposed ends , whose terminal edges define respective openings of said tubular core , at least one of said openings of said tubular core comprising a circular, or substantially circular portion , and at least one peripheral, substantially radial portion arranged externally to said circular portion , characterized in that said peripheral portion is defined by a rectilinear , or substantially rectilinear, portion of one of said edges .
A battery pack comprising: a cell assembly comprising a plurality of secondary batteries; and a pack case comprising a bottom part having a plate shape and located under the cell assembly , and a side wall part protruding from the bottom part to a preset height, the pack case accommodating the cell assembly in an inner space defined by the bottom part and the side wall part , wherein the side wall part of the pack case comprises a hollow (H) in a direction at least partially perpendicular to a thickness direction of the side wall part , wherein the hollow is provided in the inside of the side wall part and the hollow (H) comprises an inwardly open inlet (I) and an outwardly open outlet (O), characterized in that the hollow (H) is provided long in a peripheral direction of the bottom part , the hollow (H) is provided as two or more hollows (H1, H2) in the side wall part , and the two or more hollows (H1, H2) are vertically arranged in the side wall part , a vertical through part (P) is provided between the two or more hollows (H1, H2), and the inlet (I) and the outlet (O) are provided in different hollows (H1, H2), respectively, and wherein the side wall part comprises a first side wall comprising the hollow (H) and a second side wall not comprising the hollow (H), and the inlet (I) and the outlet (O) are provided at an end part of one side of two or more hollows (H1, H2) and the through part (P) is provided at an end part of an opposite side of the two or more hollows. a cell assembly comprising a plurality of secondary batteries; and a pack case comprising a bottom part having a plate shape and located under the cell assembly , and a side wall part protruding from the bottom part to a preset height, the pack case accommodating the cell assembly in an inner space defined by the bottom part and the side wall part , wherein the side wall part of the pack case comprises a hollow (H) in a direction at least partially perpendicular to a thickness direction of the side wall part , wherein the hollow is provided in the inside of the side wall part and the hollow (H) comprises an inwardly open inlet (I) and an outwardly open outlet (O), characterized in that the hollow (H) is provided long in a peripheral direction of the bottom part , the hollow (H) is provided as two or more hollows (H1, H2) in the side wall part , and the two or more hollows (H1, H2) are vertically arranged in the side wall part , a vertical through part (P) is provided between the two or more hollows (H1, H2), and the inlet (I) and the outlet (O) are provided in different hollows (H1, H2), respectively, and wherein the side wall part comprises a first side wall comprising the hollow (H) and a second side wall not comprising the hollow (H), and the inlet (I) and the outlet (O) are provided at an end part of one side of two or more hollows (H1, H2) and the through part (P) is provided at an end part of an opposite side of the two or more hollows.
A method for producing a synthetic quartz glass substrate, comprising arranging a plate structure surrounding a synthetic quartz glass substrate , the plate structure protruding relative to a surface of the substrate to be processed, and sandblasting the surface of the substrate , characterized by : arranging spacers in contact with outer peripheral side surfaces of the substrate , the plate structure being in contact with outer peripheral side surfaces of the spacers .
A surgical instrument , comprising: a surgical tool configured to supply at least one actuation motion to an end effector, wherein the surgical tool is configured to perform an intended surgical function; and wherein the surgical tool comprises: an end effector , wherein the end effector comprises a cutting member configured to receive the at least one actuation motion; and a lockout mechanism configured to prevent the cutting member from moving within the end effector when the lockout mechanism engages the cutting member; characterized in that the surgical instrument further comprises a surgical test device releasably engaged to at least a portion of the surgical tool, wherein the surgical test device is configured to permit the surgical tool to supply the at least one actuation motion while preventing the surgical tool from performing the intended surgical function and wherein the surgical test device comprises: a body comprising at least two side walls and a bottom wall , wherein the side walls extend from the bottom wall, wherein the side walls and the bottom wall define a cavity , and wherein the cavity is releasably engaged to the end effector; and a release member coupled to the body, wherein the release member is configured to prevent the lockout mechanism from engaging the cutting member. a surgical tool configured to supply at least one actuation motion to an end effector, wherein the surgical tool is configured to perform an intended surgical function; and wherein the surgical tool comprises: an end effector , wherein the end effector comprises a cutting member configured to receive the at least one actuation motion; and a lockout mechanism configured to prevent the cutting member from moving within the end effector when the lockout mechanism engages the cutting member; characterized in that the surgical instrument further comprises a surgical test device releasably engaged to at least a portion of the surgical tool, wherein the surgical test device is configured to permit the surgical tool to supply the at least one actuation motion while preventing the surgical tool from performing the intended surgical function and wherein the surgical test device comprises: a body comprising at least two side walls and a bottom wall , wherein the side walls extend from the bottom wall, wherein the side walls and the bottom wall define a cavity , and wherein the cavity is releasably engaged to the end effector; and a release member coupled to the body, wherein the release member is configured to prevent the lockout mechanism from engaging the cutting member. a body comprising at least two side walls and a bottom wall , wherein the side walls extend from the bottom wall, wherein the side walls and the bottom wall define a cavity , and wherein the cavity is releasably engaged to the end effector; and a release member coupled to the body, wherein the release member is configured to prevent the lockout mechanism from engaging the cutting member.
A reader for an access control system , comprising: a processor; a communication interface in communication with the processor; and a memory for storing instructions that, when executed by the processor, cause the processor to: authenticate a primary credential device being a mobile device ; authenticate a secondary credential device being a wearable device ; receive a master key from the mobile device and a derived key from the wearable device via the communication interface, wherein the master key is not apparent from the derived key; verify that the derived key is derived from the master key; determine whether the master key and the derived key indicate authorization to access a protected resource; and make an access decision based on the determination of whether the master key and the derived key indicate authorization to access the protected resource, wherein the determining whether the master key and the derived key indicate authorization to access the protected resource comprises: accessing a list of authorized keys; determining whether at least one of the master key and the derived key is included in the list of authorized keys; and when the keys are authorized, granting access to the protected resource by operating a lock mechanism, opening a door, or deactivating an alarm. a processor; a communication interface in communication with the processor; and a memory for storing instructions that, when executed by the processor, cause the processor to: authenticate a primary credential device being a mobile device ; authenticate a secondary credential device being a wearable device ; receive a master key from the mobile device and a derived key from the wearable device via the communication interface, wherein the master key is not apparent from the derived key; verify that the derived key is derived from the master key; determine whether the master key and the derived key indicate authorization to access a protected resource; and make an access decision based on the determination of whether the master key and the derived key indicate authorization to access the protected resource, authenticate a primary credential device being a mobile device ; authenticate a secondary credential device being a wearable device ; receive a master key from the mobile device and a derived key from the wearable device via the communication interface, wherein the master key is not apparent from the derived key; verify that the derived key is derived from the master key; determine whether the master key and the derived key indicate authorization to access a protected resource; and make an access decision based on the determination of whether the master key and the derived key indicate authorization to access the protected resource, accessing a list of authorized keys; determining whether at least one of the master key and the derived key is included in the list of authorized keys; and when the keys are authorized, granting access to the protected resource by operating a lock mechanism, opening a door, or deactivating an alarm.
A process for the continuous production of a polymer composition, the process comprising the steps of: (a) providing an uncoated calcium carbonate containing mineral filler having a d 50 in the range from 0.1 to 10 μm determined by Sedigraph 5100; (b) providing a polymer material; (c) forming a polymer composition comprising the filler of step (a) and the polymer material of step (b) by use of an extruder; characterized in that said process comprises the incorporation of said filler into said polymer material, wherein said polymer material during incorporation of the filler is in at least partially molten state, wherein said filler is incorporated as a slurry having a solids content in the range from 10 to 90 wt.-%, based on the total weight of said filler slurry, wherein the filler slurry comprises said filler and at least one liquid and the at least one liquid of the filler slurry is vaporized through one or more atmospheric or vacuum vents during step (c), and wherein the filler content of the polymer composition is in the range from 35 to 90 wt.-%, based on the total weight of said polymer composition. (a) providing an uncoated calcium carbonate containing mineral filler having a d 50 in the range from 0.1 to 10 μm determined by Sedigraph 5100; (b) providing a polymer material; (c) forming a polymer composition comprising the filler of step (a) and the polymer material of step (b) by use of an extruder;
An antibody or an antigen-binding portion thereof, comprising: i. a heavy chain variable region comprising three complementarity determining regions, VH CDR1, VH CDR2, and VH CDR3, having the amino acid sequences set forth in SEQ ID NOS: 17, 18, and 19, respectively; and a light chain variable region comprising three complementarity determining regions, VL CDR1, VL CDR2 and VL CDR3, having the amino acid sequences set forth in SEQ ID NOS: 20, 21, and 22, respectively; or ii. a heavy chain variable region comprising three complementarity determining regions, VH CDR1, VH CDR2, and VH CDR3, having the amino acid sequences set forth in SEQ ID NOS: 27, 28, and 29, respectively, and a light chain variable region comprising three complementarity determining regions, VL CDR1, VL CDR2, and VL CDR3, having the amino acid sequences set forth in SEQ ID NOS:30, 31, and 32, respectively; and wherein the antibody or antigen-binding portion thereof specifically binds to Doublecortin-like kinase 1 (DCLK1) isoform 2 having the amino acid sequence SEQ ID NO: 1 or DCLK1 isoform 4 having the amino acid sequence SEQ ID NO:2. i. a heavy chain variable region comprising three complementarity determining regions, VH CDR1, VH CDR2, and VH CDR3, having the amino acid sequences set forth in SEQ ID NOS: 17, 18, and 19, respectively; and a light chain variable region comprising three complementarity determining regions, VL CDR1, VL CDR2 and VL CDR3, having the amino acid sequences set forth in SEQ ID NOS: 20, 21, and 22, respectively; or ii. a heavy chain variable region comprising three complementarity determining regions, VH CDR1, VH CDR2, and VH CDR3, having the amino acid sequences set forth in SEQ ID NOS: 27, 28, and 29, respectively, and a light chain variable region comprising three complementarity determining regions, VL CDR1, VL CDR2, and VL CDR3, having the amino acid sequences set forth in SEQ ID NOS:30, 31, and 32, respectively; and
An article containing biotechnologically produced nanostructured cellulose (BNC) for treating an area of skin, wherein the article - comprises BNC in an amount of at least 1 % by weight and at most 15 % by weight, - comprises fluid in an amount of at least 85 % by weight and at most 99 % by weight. - has an average thickness of at least 0.5 mm and at most 8 mm, wherein the BNC is of microbial origin and wherein the BNC of the article has a polydispersity index of less than 3.0 and wherein the article is provided in the form of • a face mask, • mouth mask, • forehead mask dimensioned to cover essentially the entire skin of the forehead or • eye mask dimensioned to cover essentially both eyes. - comprises BNC in an amount of at least 1 % by weight and at most 15 % by weight, - comprises fluid in an amount of at least 85 % by weight and at most 99 % by weight. - has an average thickness of at least 0.5 mm and at most 8 mm, • a face mask, • mouth mask, • forehead mask dimensioned to cover essentially the entire skin of the forehead or • eye mask dimensioned to cover essentially both eyes.
A method for characterizing a suspension with particles floating therein, which method comprises the steps of - defining a measuring volume by choosing a time window, - performing a series of measurements, wherein each measurement comprises the substeps of - generating a broadband acoustic actuation pulse signal in the suspension using a transmitter, - registering an acoustic reflected signal coming from the suspension in said time window as a result of the actuation pulse signal, wherein the method further comprises the step of - determining a representation of the particle size distribution based on information of the reflected signals from the measurements, wherein the method further comprises the step of - calculating for each measurement a first dataset that represents the autocorrelation function of said reflected signal, and wherein the step of determining the representation of the particle size distribution comprises the two substeps of - combining the first datasets into a second, cumulated dataset, which represents a sum of the autocorrelation functions which correspond with said first datasets, and - solving the representation of a particle size distribution from an expression for the second, cumulated dataset in terms of the representation of a particle size distribution. - defining a measuring volume by choosing a time window, - performing a series of measurements, wherein each measurement comprises the substeps of - generating a broadband acoustic actuation pulse signal in the suspension using a transmitter, - registering an acoustic reflected signal coming from the suspension in said time window as a result of the actuation pulse signal, wherein the method further comprises the step of - generating a broadband acoustic actuation pulse signal in the suspension using a transmitter, - registering an acoustic reflected signal coming from the suspension in said time window as a result of the actuation pulse signal, wherein the method further comprises the step of - determining a representation of the particle size distribution based on information of the reflected signals from the measurements, wherein the method further comprises the step of - calculating for each measurement a first dataset that represents the autocorrelation function of said reflected signal, and wherein the step of determining the representation of the particle size distribution comprises the two substeps of - combining the first datasets into a second, cumulated dataset, which represents a sum of the autocorrelation functions which correspond with said first datasets, and - solving the representation of a particle size distribution from an expression for the second, cumulated dataset in terms of the representation of a particle size distribution. - combining the first datasets into a second, cumulated dataset, which represents a sum of the autocorrelation functions which correspond with said first datasets, and - solving the representation of a particle size distribution from an expression for the second, cumulated dataset in terms of the representation of a particle size distribution.
A steering control device that controls a steering device that turns turning wheels of a vehicle and includes an electric motor , the steering control device comprising: a control unit configured to control an operation of the steering device by controlling the electric motor , wherein the control unit is configured to perform a control value calculating process of calculating a control value for controlling the electric motor , characterized in that the control unit is further configured to perform: a predetermined component calculating process of calculating a predetermined component indicating characteristics of the steering device which are exhibited by controlling the electric motor using a value of a variable associated with the control value as an input, and an abnormality state determining process of determining whether a mechanical abnormality has occurred in the steering device based on the predetermined component calculated in the predetermined component calculating process.
A restricted airspace monitoring system , for monitoring one or more restricted airspaces which, when active, a plurality of aircraft is prevented from flying through, said system comprising: a restricted airspace database storing restricted airspace data; and a restricted airspace monitoring control unit that is configured to: determine the restricted airspace from the restricted airspace data; and determine if the restricted airspace is active through monitored positions of the plurality of aircraft within an airspace that includes one of the one or more restricted airspaces , and determine that the restricted airspace is inactive at a particular time in response to at least one of the plurality of aircraft being within the restricted airspace at the particular time; and wherein the restricted airspace monitoring control unit is configured to determine the positions of the plurality of aircraft within the airspace through position signals that are output by the plurality of aircraft , wherein the restricted airspace monitoring control unit is configured to output a fly-through alert to at least one of the plurality of aircraft or a dispatcher in response to determining that the restricted airspace is inactive. a restricted airspace database storing restricted airspace data; and a restricted airspace monitoring control unit that is configured to: determine the restricted airspace from the restricted airspace data; and determine if the restricted airspace is active through monitored positions of the plurality of aircraft within an airspace that includes one of the one or more restricted airspaces , and determine that the restricted airspace is inactive at a particular time in response to at least one of the plurality of aircraft being within the restricted airspace at the particular time; and determine the restricted airspace from the restricted airspace data; and determine if the restricted airspace is active through monitored positions of the plurality of aircraft within an airspace that includes one of the one or more restricted airspaces , and determine that the restricted airspace is inactive at a particular time in response to at least one of the plurality of aircraft being within the restricted airspace at the particular time; and wherein the restricted airspace monitoring control unit is configured to determine the positions of the plurality of aircraft within the airspace through position signals that are output by the plurality of aircraft , wherein the restricted airspace monitoring control unit is configured to output a fly-through alert to at least one of the plurality of aircraft or a dispatcher in response to determining that the restricted airspace is inactive.