mhurhangee/ep-ind-claims huggingface dataset:
An imaging supply for a printer, wherein the imaging supply is insertable or couplable to the printer, the imaging supply comprising: a container to contain an imaging material; and a first memory on the container; characterized in that the imaging supply further comprises a second memory on the container different from the first memory; where: the first memory stores an indication that signed data is stored in the second memory, and the second memory stores a digital signature able to authenticate the imaging supply to the printer; or the first memory stores an indication that unsigned data is stored in the second memory and the second memory stores consumables management data, wherein the consumables management data defines at least one of a yield, a low point, and an out point of the imaging supply; or the first memory stores an indication that no data is stored in the second memory, wherein the indication stored on the first memory of the imaging supply is obtainable by the printer comprising a processor to identify unsigned data, no data or signed data being present on the second memory of the imaging supply. a container to contain an imaging material; and a first memory on the container; characterized in that the imaging supply further comprises a second memory on the container different from the first memory; where: the first memory stores an indication that signed data is stored in the second memory, and the second memory stores a digital signature able to authenticate the imaging supply to the printer; or the first memory stores an indication that unsigned data is stored in the second memory and the second memory stores consumables management data, wherein the consumables management data defines at least one of a yield, a low point, and an out point of the imaging supply; or the first memory stores an indication that no data is stored in the second memory, wherein the indication stored on the first memory of the imaging supply is obtainable by the printer comprising a processor to identify unsigned data, no data or signed data being present on the second memory of the imaging supply. the first memory stores an indication that signed data is stored in the second memory, and the second memory stores a digital signature able to authenticate the imaging supply to the printer; or the first memory stores an indication that unsigned data is stored in the second memory and the second memory stores consumables management data, wherein the consumables management data defines at least one of a yield, a low point, and an out point of the imaging supply; or the first memory stores an indication that no data is stored in the second memory, wherein the indication stored on the first memory of the imaging supply is obtainable by the printer comprising a processor to identify unsigned data, no data or signed data being present on the second memory of the imaging supply.
Device (12, 22, 100) for attaching a measuring mark (40 to 43) to a measuring pin (7, 70) comprising: an assembly disc having a disc body for receiving the measuring mark (40 to 43) and having a push-on neck (6, 60, 90) which protrudes from the disc body and is able to be pushed onto the measuring pin (7, 70), and which in the pushed-on state encloses at least a part of the measuring pin (7, 70), at least one connecting structure (5, 92) which is designed to connect the push-on neck (6, 60, 90) to the measuring pin (7, 70) in a force-fitting and/or form-fitting manner with the aid of a first fastening element provided with an internal thread and a second fastening element provided with an external thread, wherein the connecting structure (5, 92) projects from the disc body, and the first fastening element and the second fastening element are able to be received in the connecting structure (5, 92) in such a manner that the first fastening element and the second fastening element are disposed in an axis orthogonal to a longitudinal axis of the measuring pin, and wherein the disc body, the push-on neck (6, 60, 90) and the connecting structure (5, 92) are made of a single injection-moulded part. an assembly disc having a disc body for receiving the measuring mark (40 to 43) and having a push-on neck (6, 60, 90) which protrudes from the disc body and is able to be pushed onto the measuring pin (7, 70), and which in the pushed-on state encloses at least a part of the measuring pin (7, 70), at least one connecting structure (5, 92) which is designed to connect the push-on neck (6, 60, 90) to the measuring pin (7, 70) in a force-fitting and/or form-fitting manner with the aid of a first fastening element provided with an internal thread and a second fastening element provided with an external thread, wherein the connecting structure (5, 92) projects from the disc body, and the first fastening element and the second fastening element are able to be received in the connecting structure (5, 92) in such a manner that the first fastening element and the second fastening element are disposed in an axis orthogonal to a longitudinal axis of the measuring pin, and wherein the disc body, the push-on neck (6, 60, 90) and the connecting structure (5, 92) are made of a single injection-moulded part.
Contact system (1, 40) comprising at least one plug (2, 44) and a mating plug, wherein the plug (2, 44) has at least one electrically conductive contact (4, 13, 42) and the mating plug has at least one electrically conductive mating contact (6, 14, 41), wherein the contact (4, 13, 42) and the mating contact (6, 14) are each designed to be plug-connected to one another, in particular in a detachable manner, wherein the plug (2, 44) has a plug housing (3, 45) which comprises a plug collar (7, 46), and the contact system (1, 40) has a locking element (8, 54), wherein the locking element (8, 54) is designed to be pushed onto the plug collar (7, 46) along a translation axis and to secure the plug (2, 44) against becoming detached from the mating contact (6, 14, 41), wherein the mating plug has at least one projection region (19, 21, 61, 62, 63, 64) which extends in the direction of the flat extent of the plug collar (7, 54) and which is arranged and designed to at least partially engage around the locking element (8, 53) and to hold the said locking element against the plug collar (7, 46), wherein the mating plug has at least one locking pin (11, 12, 57, 58, 59, 60) and the locking element (8, 54) has an aperture (32, 33, 65, 66, 67, 68), wherein the locking pin (11, 12, 57, 58, 59, 60) is designed to be guided through the aperture (16, 17, 32, 33, 65, 66, 67, 68) and the locking pin (11, 12, 57, 58, 59, 60) has the projection region (19, 21, 61, 62, 63, 64) and the locking element (8, 53) has an aperture edge (35, 36, 73, 74, 75, 76) which is designed for the projection region (19, 21, 61, 62, 63, 64) to engage around when it is pushed on, wherein the locking element is of U-shaped design in a flat extent, characterized in that each U-limb (51, 52) of the locking element has at least one aperture (69, 70, 71, 72) for guiding a locking pin (57, 58, 59, 60).
A computer-implemented method for creating an animation summarizing a design process of a three-dimensional object, the method comprising the steps of: a) acquiring design data during at least one design session of said three-dimensional object; b) automatically identifying time points (MS1 - MS24) of said session or sessions corresponding to milestones of the design process by applying a set of predetermined rules to the acquired data, and storing data representing statuses of the three-dimensional object at said time points, said set of predetermined rules comprising at least one rule representative of: a change by at least a predetermined amount or percentage of the number of parts of the object; c) reconstructing and storing data representing intermediate statuses of the three-dimensional object by interpolating said data representing statuses of the three-dimensional object at the automatically identified time points; and d) generating and displaying an animation of the design process from said stored statuses of the three-dimensional object, including displaying a graphical representation of a timeline providing access to data representing statuses of the three-dimensional object corresponding to milestones. a) acquiring design data during at least one design session of said three-dimensional object; b) automatically identifying time points (MS1 - MS24) of said session or sessions corresponding to milestones of the design process by applying a set of predetermined rules to the acquired data, and storing data representing statuses of the three-dimensional object at said time points, said set of predetermined rules comprising at least one rule representative of: a change by at least a predetermined amount or percentage of the number of parts of the object; c) reconstructing and storing data representing intermediate statuses of the three-dimensional object by interpolating said data representing statuses of the three-dimensional object at the automatically identified time points; and d) generating and displaying an animation of the design process from said stored statuses of the three-dimensional object, including displaying a graphical representation of a timeline providing access to data representing statuses of the three-dimensional object corresponding to milestones.
Functional module for a microscope, comprising: - a mechanical interface for removable mounting the functional module to a module support of the microscope; - an optical interface (11, 12) for establishing an optical path from an objective of the microscope to the functional module; - at least one image sensor; and - a first microelectromechanical optical system and a second microelectromechanical optical system, wherein the first microelectromechanical optical system is configured for enhancing a depth of field on a first optical subpath that is directed to the image sensor, wherein the second microelectromechanical optical system is configured for enhancing a depth of field on a second optical subpath that is directed to the image sensor, and wherein each of the microelectromechanical optical systems (17, 18) is directed to a beam splitter, to a colour beam splitter or to a polarizing beam splitter, wherein the beam splitter, the colour beam splitter or the polarizing beam splitter is directed to the image sensor. - a mechanical interface for removable mounting the functional module to a module support of the microscope; - an optical interface (11, 12) for establishing an optical path from an objective of the microscope to the functional module; - at least one image sensor; and - a first microelectromechanical optical system and a second microelectromechanical optical system, wherein the first microelectromechanical optical system is configured for enhancing a depth of field on a first optical subpath that is directed to the image sensor, wherein the second microelectromechanical optical system is configured for enhancing a depth of field on a second optical subpath that is directed to the image sensor, and wherein each of the microelectromechanical optical systems (17, 18) is directed to a beam splitter, to a colour beam splitter or to a polarizing beam splitter, wherein the beam splitter, the colour beam splitter or the polarizing beam splitter is directed to the image sensor.
A method for producing or providing cells expressing a fusion protein of a marker protein and a cell endogenous target protein from the endogenous gene locus of the target protein, wherein the method comprises the following steps: a) transfecting the cells i) with a Cas9-encoding plasmid comprising a nucleic acid, which confers resistance to a first selection reagent, ii) with a circular donor plasmid comprising a) a first nucleic acid, which confers resistance to a second selection reagent, and b) a second nucleic acid, which is encoding the marker protein, whereby the second nucleic acid is flanked 3' and 5' by nucleic acids homologous to the integration site in the cell and whereby one of the flanking homologous nucleic acids is homologous to the terminal coding sequence of the target protein, iii) with a crRNA, and iv) with a tracrRNA, b) culturing the cells in the presence of the first and the second selection reagents, and c) selecting cells that perform cell division under the conditions of step b) and thereby providing cells that express the fusion protein of a marker protein and a cell-endogenous target protein. a) transfecting the cells i) with a Cas9-encoding plasmid comprising a nucleic acid, which confers resistance to a first selection reagent, ii) with a circular donor plasmid comprising a) a first nucleic acid, which confers resistance to a second selection reagent, and b) a second nucleic acid, which is encoding the marker protein, whereby the second nucleic acid is flanked 3' and 5' by nucleic acids homologous to the integration site in the cell and whereby one of the flanking homologous nucleic acids is homologous to the terminal coding sequence of the target protein, iii) with a crRNA, and iv) with a tracrRNA, i) with a Cas9-encoding plasmid comprising a nucleic acid, which confers resistance to a first selection reagent, ii) with a circular donor plasmid comprising a) a first nucleic acid, which confers resistance to a second selection reagent, and b) a second nucleic acid, which is encoding the marker protein, whereby the second nucleic acid is flanked 3' and 5' by nucleic acids homologous to the integration site in the cell and whereby one of the flanking homologous nucleic acids is homologous to the terminal coding sequence of the target protein, a) a first nucleic acid, which confers resistance to a second selection reagent, and b) a second nucleic acid, which is encoding the marker protein, whereby the second nucleic acid is flanked 3' and 5' by nucleic acids homologous to the integration site in the cell and whereby one of the flanking homologous nucleic acids is homologous to the terminal coding sequence of the target protein, iii) with a crRNA, and iv) with a tracrRNA, b) culturing the cells in the presence of the first and the second selection reagents, and c) selecting cells that perform cell division under the conditions of step b) and thereby providing cells that express the fusion protein of a marker protein and a cell-endogenous target protein.
A method of handling frequency de-prioritization, for a communication device in a wireless communication system, comprising: receiving a first Radio resource control, RRC, connection reject message with a first deprioritisation request indicating at least one first carrier frequency to be the lowest priority frequency, from a first public land mobile network, PLMN, of the wireless communication system; characterized by determining the at least one first carrier frequency to be the lowest priority frequency only when the communication device selects or registers to the first PLMN. receiving a first Radio resource control, RRC, connection reject message with a first deprioritisation request indicating at least one first carrier frequency to be the lowest priority frequency, from a first public land mobile network, PLMN, of the wireless communication system; characterized by determining the at least one first carrier frequency to be the lowest priority frequency only when the communication device selects or registers to the first PLMN.
A hemispherical resonator gyroscope comprising: a sensing system (12, 50) comprising a plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) arranged in a symmetrical annular arrangement about a sensitive axis and configured to electrostatically force a resonator (16, 52) into a substantially periodic motion based on a plurality of forcer signals applied to the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68), and configured to provide an indication of rotation about a sensitive axis of the hemispherical resonator gyroscope; and a controller configured to generate the plurality of forcer signals in a phase-disparate manner to provide the substantially periodic motion in a vibration pattern such that the ratio of the number of the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) to the number of nodes and antinodes of the vibration pattern is a non-integer number, and to measure the rotation about the sensitive axis of the hemispherical resonator gyroscope in response to the plurality of forcer signals. a sensing system (12, 50) comprising a plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) arranged in a symmetrical annular arrangement about a sensitive axis and configured to electrostatically force a resonator (16, 52) into a substantially periodic motion based on a plurality of forcer signals applied to the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68), and configured to provide an indication of rotation about a sensitive axis of the hemispherical resonator gyroscope; and a controller configured to generate the plurality of forcer signals in a phase-disparate manner to provide the substantially periodic motion in a vibration pattern such that the ratio of the number of the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) to the number of nodes and antinodes of the vibration pattern is a non-integer number, and to measure the rotation about the sensitive axis of the hemispherical resonator gyroscope in response to the plurality of forcer signals.
Method of operating a lift installation, wherein an energy consumption of at least one energy consumer of the lift installation is detected and wherein at least one traffic situation of the lift installation is detected, characterised in that at least one energy consumption value is determined by the detected energy consumption and the detected traffic situation, the determined energy consumption value is output at at least one output means and for determination of the traffic situation by at least one destination call control and/or lift control (5, 5') - at least one number of calls per unit of time and/or - at least one number of passengers who have been transported by the lift installation in a unit of time in the building and/or - at least one difference of passengers on storeys (S1-S3) of the building who have been transported in a unit of time by the lift installation from call input storeys to destination storeys is or are detected and the traffic situation of the lift installation is determined by the destination call control and/or lift control (5, 5') from the number of calls per unit of time or from the number of transported passengers or from the difference of passengers on storeys (S1-S3). - at least one number of calls per unit of time and/or - at least one number of passengers who have been transported by the lift installation in a unit of time in the building and/or - at least one difference of passengers on storeys (S1-S3) of the building who have been transported in a unit of time by the lift installation from call input storeys to destination storeys
A method for separating female germline stem cells from follicular aspirates, characterized in that the method comprises: separating ovarian tissues or cell masses from the follicular aspirates and performing cell dispersion to obtain single cells; the method for separating the ovarian tissues or cell masses from the follicular aspirates comprises: filtering the follicular aspirates by using a cell strainer with a pore size of 30-100 μm, with solids retained on the strainer as the ovarian tissues or cell masses; the solids retained on the strainer as the ovarian tissues or cell masses are separated from the strainer and washed, and the ovarian tissues or cell masses are separated from the follicular aspirates by the method of centrifugation; and inoculating and culturing the cells obtained in step on inactivated feeder layer cells, and sorting female germline stem cell marker-positive cells from the cultured cells. separating ovarian tissues or cell masses from the follicular aspirates and performing cell dispersion to obtain single cells; the method for separating the ovarian tissues or cell masses from the follicular aspirates comprises: filtering the follicular aspirates by using a cell strainer with a pore size of 30-100 μm, with solids retained on the strainer as the ovarian tissues or cell masses; the solids retained on the strainer as the ovarian tissues or cell masses are separated from the strainer and washed, and the ovarian tissues or cell masses are separated from the follicular aspirates by the method of centrifugation; and inoculating and culturing the cells obtained in step on inactivated feeder layer cells, and sorting female germline stem cell marker-positive cells from the cultured cells.
Lever handle bearing for a door or window handle detachably fastened thereto, comprising - a rosette (5, 5') which can be fastened to a door or window, - an adapter for torque transmission to a door or window gear, which adapter can be fixedly fastened to the door or window handle and is mounted rotatably relative to the rosette (5, 5') about an axis of rotation, - wherein the adapter has an outer surface which is received in a bearing sleeve (53, 53') of the rosette (5, 5'), - wherein a locking slide (6, 6') with a locking pin (63, 63') is displaceably mounted on the rosette (5, 5'), - wherein the lateral surface of the adapter has at least one locking bolt receptacle, - wherein the locking slide (6, 6') is displaceable between a locking position, in which the locking pin (63, 63') projects through a locking pin recess (53a, 53') of the bearing sleeve (53, 53') of the rosette (5, 5') into the locking pin receptacle, and a release position, in which the locking pin (63, 63') does not project into the locking pin receptacle in the lateral surface of the adapter, - wherein the locking slide (6, 6') can be latched in the locking position and the release position, characterized in that - the locking slide has a coupling element for releasably coupling an actuating element, with which the locking slide can be displaced from the locking position into the release position, - wherein the coupling element can be coupled to the actuating element via a threaded connection or wherein the coupling element and the actuating element form a bayonet lock. - a rosette (5, 5') which can be fastened to a door or window, - an adapter for torque transmission to a door or window gear, which adapter can be fixedly fastened to the door or window handle and is mounted rotatably relative to the rosette (5, 5') about an axis of rotation, - wherein the adapter has an outer surface which is received in a bearing sleeve (53, 53') of the rosette (5, 5'), - wherein a locking slide (6, 6') with a locking pin (63, 63') is displaceably mounted on the rosette (5, 5'), - wherein the lateral surface of the adapter has at least one locking bolt receptacle, - wherein the locking slide (6, 6') is displaceable between a locking position, in which the locking pin (63, 63') projects through a locking pin recess (53a, 53') of the bearing sleeve (53, 53') of the rosette (5, 5') into the locking pin receptacle, and a release position, in which the locking pin (63, 63') does not project into the locking pin receptacle in the lateral surface of the adapter, - wherein the locking slide (6, 6') can be latched in the locking position and the release position, - the locking slide has a coupling element for releasably coupling an actuating element, with which the locking slide can be displaced from the locking position into the release position, - wherein the coupling element can be coupled to the actuating element via a threaded connection or wherein the coupling element and the actuating element form a bayonet lock.