mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: sensing a first state of a ferroelectric memory cell (105-b) based at least in part on storing a first charge in a first capacitor , wherein the first charge corresponds to the first state of the ferroelectric memory cell (105-b); sensing a second state of the ferroelectric memory cell after sensing the first state, based at least in part on storing a second charge in a second capacitor , wherein the second charge corresponds to the second state of the ferroelectric memory cell (105-b); sensing a third state of the ferroelectric memory cell after sensing the first state and the second state, based at least in part on storing a third charge in a third capacitor , wherein the third charge corresponds to the third state of the ferroelectric memory cell, wherein a logic value associated with the third state is opposite from a logic value associated with the second state; determining a logic value of the ferroelectric memory cell based at least in part on a comparison of the first state with an average of the second state and the third state; and writing the logic value associated with the first state to the ferroelectric memory cell (105-b), wherein writing the logic value is based at least in part on the comparison of the first state with the average of the second state and the third state. sensing a first state of a ferroelectric memory cell (105-b) based at least in part on storing a first charge in a first capacitor , wherein the first charge corresponds to the first state of the ferroelectric memory cell (105-b); sensing a second state of the ferroelectric memory cell after sensing the first state, based at least in part on storing a second charge in a second capacitor , wherein the second charge corresponds to the second state of the ferroelectric memory cell (105-b); sensing a third state of the ferroelectric memory cell after sensing the first state and the second state, based at least in part on storing a third charge in a third capacitor , wherein the third charge corresponds to the third state of the ferroelectric memory cell, wherein a logic value associated with the third state is opposite from a logic value associated with the second state; determining a logic value of the ferroelectric memory cell based at least in part on a comparison of the first state with an average of the second state and the third state; and writing the logic value associated with the first state to the ferroelectric memory cell (105-b), wherein writing the logic value is based at least in part on the comparison of the first state with the average of the second state and the third state.
A resilient unit , comprising an array of first springs located in discrete pockets formed between superposed sheets of material joined at least at positions between the springs, wherein inside at least some of the first springs are located second, inner, non-pocketed springs which are taller/longer than the first springs .
Baking underlay for preparation of foodstuffs, comprising a sheet-shaped material of baking paper which is water-impermeable and grease-impermeable, with an upper side and a lower side which is placeable on a support, characterised in that the lower side is provided at least regionally with a slip-resisting coating , wherein the slip-resisting coating comprises an elastomer, particularly a silicon, and the baking underlay has a heat resistance of more than 200° C, particularly more than 220° C.
A method, comprising: connecting a first direct current, DC, voltage input (V1) between a first node (F) and a second node (A), connecting a first inductor (L5) having a first winding polarity in series with a first switch (G1) between the first node (F) and a third node (X), connecting a second inductor (L6) having a second winding polarity opposite to the first winding polarity in series with a second switch (G2) between the first node (F) and a fourth node (E), connecting a third switch (G4) between the second node (A) and the third node (X), connecting a fourth switch (G3) between the second node (A) and the fourth node (E), connecting a third inductor (L3) having the first winding polarity at the third node (X), connecting a fourth inductor (L4) having the second winding polarity at the fourth node (E), connecting a second DC voltage input (V2) between the second node (A) and a fifth node (B), wherein the fifth node (B) has a higher potential than the second node (A), and the second node (A) has a higher potential than the first node (F); electromagnetically coupling, by a transformer core , the first and third inductors (L5, L3) to the second and fourth inductors (L4, L6); periodically, by a controller, switching the first switch and the third switch, and switching the second switch and the fourth switch, providing a bypass diode (D1, D2) for each of the first and second voltage inputs (V1, V2), outputting an output voltage that is a sum of the first DC voltage input (V1) and the second DC voltage input (V2). connecting a first direct current, DC, voltage input (V1) between a first node (F) and a second node (A), connecting a first inductor (L5) having a first winding polarity in series with a first switch (G1) between the first node (F) and a third node (X), connecting a second inductor (L6) having a second winding polarity opposite to the first winding polarity in series with a second switch (G2) between the first node (F) and a fourth node (E), connecting a third switch (G4) between the second node (A) and the third node (X), connecting a fourth switch (G3) between the second node (A) and the fourth node (E), connecting a third inductor (L3) having the first winding polarity at the third node (X), connecting a fourth inductor (L4) having the second winding polarity at the fourth node (E), connecting a second DC voltage input (V2) between the second node (A) and a fifth node (B), wherein the fifth node (B) has a higher potential than the second node (A), and the second node (A) has a higher potential than the first node (F); electromagnetically coupling, by a transformer core , the first and third inductors (L5, L3) to the second and fourth inductors (L4, L6); periodically, by a controller, switching the first switch and the third switch, and switching the second switch and the fourth switch, providing a bypass diode (D1, D2) for each of the first and second voltage inputs (V1, V2), outputting an output voltage that is a sum of the first DC voltage input (V1) and the second DC voltage input (V2).
An evaluation device for re-identification, the evaluation device comprising processing circuitry being configured to: obtain a plurality of transformed re-identification codes, each transformed re-identification code being associated with a timestamp and location information, wherein each transformed re-identification code is based on a similarity-preserving transformation of a re-identification code that represents at least a portion of a sample of media data, the media data originating from two or more different sources located in two or more different locations; match transformed re-identification codes among the plurality of transformed re-identification codes using a similarity metric to generate one or more tuples of transformed re-identification codes that are similar according to the similarity metric; determine one or more sequences of locations associated with the transformed re-identification codes of the one or more tuples of transformed re-identification codes based on the timestamps and location information associated with the transformed re-identification codes of the respective tuple; and provide information on the one or more sequences of locations. obtain a plurality of transformed re-identification codes, each transformed re-identification code being associated with a timestamp and location information, wherein each transformed re-identification code is based on a similarity-preserving transformation of a re-identification code that represents at least a portion of a sample of media data, the media data originating from two or more different sources located in two or more different locations; match transformed re-identification codes among the plurality of transformed re-identification codes using a similarity metric to generate one or more tuples of transformed re-identification codes that are similar according to the similarity metric; determine one or more sequences of locations associated with the transformed re-identification codes of the one or more tuples of transformed re-identification codes based on the timestamps and location information associated with the transformed re-identification codes of the respective tuple; and provide information on the one or more sequences of locations.
A cooking appliance running method, comprising: acquiring a current running mode if it is detected that a water level of cooking appliance exceeds a preset water level during a running process of the cooking appliance; determining a target running mode according to the current running mode, heating power in the target running mode being lower than heating power in the current running mode; and switching the current running mode to the target running mode; wherein the method further comprises: after determining the target running mode, acquiring a first running duration that the cooking appliance has run in the current running mode and a second running duration indicated by the target running mode; determining a difference between the second running duration and the first running duration as a third running duration; and after switching the current running mode to the target running mode, stopping running if a running duration reaches the third running duration during a process of running in the target running mode. acquiring a current running mode if it is detected that a water level of cooking appliance exceeds a preset water level during a running process of the cooking appliance; determining a target running mode according to the current running mode, heating power in the target running mode being lower than heating power in the current running mode; and switching the current running mode to the target running mode; wherein the method further comprises: after determining the target running mode, acquiring a first running duration that the cooking appliance has run in the current running mode and a second running duration indicated by the target running mode; determining a difference between the second running duration and the first running duration as a third running duration; and after switching the current running mode to the target running mode, stopping running if a running duration reaches the third running duration during a process of running in the target running mode. after determining the target running mode, acquiring a first running duration that the cooking appliance has run in the current running mode and a second running duration indicated by the target running mode; determining a difference between the second running duration and the first running duration as a third running duration; and after switching the current running mode to the target running mode, stopping running if a running duration reaches the third running duration during a process of running in the target running mode.
A printing system comprising a user interface for displaying printing process information of a printing system , wherein the user interface comprising a first display item for displaying a value of a relative humidity of an environment of the printing system, a second display item for displaying a value of a temperature of the environment of the printing system and a third display item comprising an indicator for indicating whether or not the displayed relative humidity value or the displayed temperature value is outside value ranges which are predetermined for a proper functioning of the printing system, wherein the printing system comprises an ambient sensor attached to the outside of the printing system in order to register values of a temperature and a relative humidity of the environment of the printing system and a print controller comprising a memory comprising predetermined value ranges for a temperature and a relative humidity needed for a proper functioning of the printing system, wherein the print controller is configured to receive the registered values from the ambient sensor and to apply electronic signals to the user interface based on the predetermined value ranges in order to enable the first, second, and third display items to display respectively the registered relative humidity value, the registered temperature value and the indicator, and wherein the printing system comprises a plurality of components with functional specifications from which the predetermined values ranges are derived. wherein the printing system comprises an ambient sensor attached to the outside of the printing system in order to register values of a temperature and a relative humidity of the environment of the printing system and a print controller comprising a memory comprising predetermined value ranges for a temperature and a relative humidity needed for a proper functioning of the printing system, wherein the print controller is configured to receive the registered values from the ambient sensor and to apply electronic signals to the user interface based on the predetermined value ranges in order to enable the first, second, and third display items to display respectively the registered relative humidity value, the registered temperature value and the indicator, and wherein the printing system comprises a plurality of components with functional specifications from which the predetermined values ranges are derived.
A composition comprising an antibody molecule that binds to CD70 and at least one antibody molecule that binds to a leukemic stem cell target, wherein the leukemic stem cell target is selected from the group consisting of: TIM-3; and IL1RAP, wherein the antibody molecule that binds to CD70 comprises a variable heavy chain domain (VH) and a variable light chain domain (VL) wherein the VH and VL domains comprise the CDR sequences: HCDR3 comprising or consisting of SEQ ID NO: 3; HCDR2 comprising or consisting of SEQ ID NO: 2; HCDR1 comprising or consisting of SEQ ID NO: 1; LCDR3 comprising or consisting of SEQ ID NO: 7; LCDR2 comprising or consisting of SEQ ID NO: 6; and LCDR1 comprising or consisting of SEQ ID NO: 5, wherein the antibody molecule that binds to TIM-3, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof, and wherein the antibody molecule that binds to IL1RAP, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof. HCDR3 comprising or consisting of SEQ ID NO: 3; HCDR2 comprising or consisting of SEQ ID NO: 2; HCDR1 comprising or consisting of SEQ ID NO: 1; LCDR3 comprising or consisting of SEQ ID NO: 7; LCDR2 comprising or consisting of SEQ ID NO: 6; and LCDR1 comprising or consisting of SEQ ID NO: 5, wherein the antibody molecule that binds to TIM-3, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof, and wherein the antibody molecule that binds to IL1RAP, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof.
A malate of Compound I, which is methyl (3-(3-((R)-1-((R)-N-cyclopropylmorpholine-2-carboxamido)ethyl)-6-methyl-1H-pyrazolo[3,4-b]pyridin-1-yl)n-propyl)carbamate, wherein the malate is a compound formed by compound I and L-malic acid in a molar ratio of 1:1, and represented by the following structural formula:
A method for imaging a three-dimensional volume of geometrically irregular grid data representing a grid volume, comprising: selecting a grid probe within the grid volume, the grid probe defined by a bounding box in a sampling domain, the grid volume comprising multiple cells in an index domain and the grid data comprising a normal vector and a geometry for each face of each cell, split flag data for each cell, an attribute for each cell and an attribute data value for each cell, wherein the split flag data comprises data representing each face of a respective cell and its position relative to a face of another cell; mapping extents of the bounding box from the sampling domain to the index domain; rendering an image of the grid probe within the grid volume, the image comprising the grid data only within at least a portion of the extents of the bounding box; and repeating the rendering step in response to simulated movement of the grid probe within the grid volume so that as the grid probe moves, the image of the grid probe is redrawn at a rate sufficiently fast to be perceived as moving in real-time, at a rate of at least ten frames per second. selecting a grid probe within the grid volume, the grid probe defined by a bounding box in a sampling domain, the grid volume comprising multiple cells in an index domain and the grid data comprising a normal vector and a geometry for each face of each cell, split flag data for each cell, an attribute for each cell and an attribute data value for each cell, wherein the split flag data comprises data representing each face of a respective cell and its position relative to a face of another cell; mapping extents of the bounding box from the sampling domain to the index domain; rendering an image of the grid probe within the grid volume, the image comprising the grid data only within at least a portion of the extents of the bounding box; and repeating the rendering step in response to simulated movement of the grid probe within the grid volume so that as the grid probe moves, the image of the grid probe is redrawn at a rate sufficiently fast to be perceived as moving in real-time, at a rate of at least ten frames per second.
System for aiding navigation during a change of direction from a first direction to a second direction , including a device for calculating a target angle including at least one terrestrial map , an orientation sensor and a computer able to calculate a target angle ( α Target ) between the instantaneous position of the vehicle and a fixed point (P3) of the terrestrial map situated in the second direction , said system further including a visual output device receiving the target angle ( α Target ) and including a substantially linear lighting zone situated within the vehicle in the principal or peripheral field of vision of the driver, the visual information produced by the lighting zone being adapted to indicate continuously the direction towards said fixed point (P3) as a function of the value of the target angle ( α Target ) , the system being characterized in that the visual output device is activated only if a delay ( T next ) is below a threshold ( T max ) , said delay ( T next ) corresponding to the remaining time before the change of direction and being calculated by a computer using odometer information.
Separator for separating sand and rock particles upon the conveyance of liquids or gases from rock boreholes, comprising a plurality of annular disks that are stacked on each other and axially braced by spring elements by means of a support structure and consist of a brittle-hard material, wherein the top side of the disks has at least three spacers that are evenly distributed over the circumference of the disks , wherein the disks are stacked on each other such that the spacers each lie on each other, and there is a separating gap with a height of 0.05-1 mm, preferably 0.2-0.5 mm, between each of the individual disks , wherein the bracing by spring elements prevents the separating gap from widening, and wherein the brittle-hard material of the annular disks is selected from oxide and non-oxide ceramic materials, mixed ceramics of these materials, ceramic materials with added secondary phases, mixed materials with portions of ceramic hard materials and with a metal binder phase, precipitation-hardened casting materials, powder metallurgical materials with hard material phases formed in situ, and long and/or short fiber-reinforced ceramic materials.
A compound represented by the following Formula A: [Formula A] X-Y-O-M-O-Y'-X in Formula A, each X is independently -CH 2 NCO, Y is -[CH 2 CHR 1 O] m -CHR 2 CHR 3 -, Y' is -[CH 2 CHR 1 O] n -CHR 2 CHR 3 -, wherein each R 1 is independently hydrogen, alkyl or aryl, each of R 2 and R 3 is independently hydrogen, alkyl, aryl, heteroaryl or cycloalkyl, each of m and n is independently an integer of 0 to 15, and M is a divalent organic group derived from anhydrosugar alcohol, wherein the compound represented by Formula A is represented by the following Formulae 3, 6, 9, 12, 15 or 18: in Formulae 3, 6, 9, 12, 15 and 18, each of R 1 , R 2 , and R 3 is the same as defined in Formula A, each of m and n is independently an integer of 0 to 15 and m+n is an integer from 1 to 25. each X is independently -CH 2 NCO, Y is -[CH 2 CHR 1 O] m -CHR 2 CHR 3 -, Y' is -[CH 2 CHR 1 O] n -CHR 2 CHR 3 -, wherein each R 1 is independently hydrogen, alkyl or aryl, each of R 2 and R 3 is independently hydrogen, alkyl, aryl, heteroaryl or cycloalkyl, each of m and n is independently an integer of 0 to 15, and M is a divalent organic group derived from anhydrosugar alcohol, wherein the compound represented by Formula A is represented by the following Formulae 3, 6, 9, 12, 15 or 18: in Formulae 3, 6, 9, 12, 15 and 18, each of R 1 , R 2 , and R 3 is the same as defined in Formula A, each of m and n is independently an integer of 0 to 15 and m+n is an integer from 1 to 25.
Monitoring device for safeguarding an access to an installation with an arrangement of one or more safety sensors , each of which is designed to detect objects within a protective field , a safety function being triggered when an object is detected in at least one protective field , and with an arrangement of distance sensors , by means of which the position and width of a transport item can be detected, which can be fed to the system via the access, and with a control and evaluation unit, by means of which normal operation is predetermined in that protective fields are monitored with the safety sensors , which complement each other to form an overall protective field which extends over the entire width of the access, and characterised in that a muting operation can be preset with the control and evaluation unit in that protective fields are monitored with the safety sensors as a function of the position and width of the transported goods determined with the distance sensors , which complement each other to form an overall protective field, in which a recess is present in the area of the access, which is adapted to the position and width of the transported goods in such a way that the latter can pass through the access without penetrating the overall protective field.
A method for forming a silicon dioxide film in electronic devices, comprising (A) a coating step, in which a substrate is coated with a polysilazane composition to form a coat; and (B) an oxidation step, in which the coat is oxidized in a hydrogen peroxide atmosphere at a temperature of 50 to 200°C, furthermore comprising a step of oxidation with water vapor, in which the coat is heated in a water vapor atmosphere at a temperature of 300 to 1000°C after the oxidation step. (A) a coating step, in which a substrate is coated with a polysilazane composition to form a coat; and (B) an oxidation step, in which the coat is oxidized in a hydrogen peroxide atmosphere at a temperature of 50 to 200°C, furthermore comprising