mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling memory, comprising: activating a memory unit (212-1, 212-2,..., 212-M; 312-0,312-1,312-2, 312-3; 412-0, 412-1,412-2,412-3 of a memory device (230-1,..., 230-N; 330-1, 330-2; 430-1,..., 430-M; 530-0, 530-1, 530-2, 530-3); after activating the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1, 312-2,312-3; 412-0, 412-1, 412-2, 412-3), providing a command to the memory device (230-1,..., 230-N; 330-1, 330-2; 430-1,..., 430-M; 530-0, 530-1,530-2, 530-3); and returning the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0, 412-1, 412-2, 412-3) to a previous state if the command does not indicate a target memory volume (313-0, 313-1, 313-2, 313-3; 413-0, 413-1, 413-2,413-3; 513-0, 513-1,513-2,513-3), wherein the memory unit (212-1,212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0,412-1,412-2,412-3) remains active if the command indicates a target memory volume (313-0, 313-1, 313-2, 313-3; 413-0, 413-1, 413-2, 413-3; 513-0, 513-1, 513-2, 513-3) associated with the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1,312-2,312-3; 412-0, 412-1,412-2,412-3); and wherein returning the memory unit (212-1,212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0, 412-1,412-2, 412-3) to a previous state if the command does not indicate a target memory volume (313-0,313-1,313-2,313-3; 413-0, 413-1, 413-2, 413-3; 513-0, 513-1, 513-2,513-3) includes returning the memory unit (212-1,212-2,..., 212-M; 312- 0,312-1,312-2,312-3; 412-0, 412-1, 412-2, 412-3) to a previous state if the command does not indicate a volume address. activating a memory unit (212-1, 212-2,..., 212-M; 312-0,312-1,312-2, 312-3; 412-0, 412-1,412-2,412-3 of a memory device (230-1,..., 230-N; 330-1, 330-2; 430-1,..., 430-M; 530-0, 530-1, 530-2, 530-3); after activating the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1, 312-2,312-3; 412-0, 412-1, 412-2, 412-3), providing a command to the memory device (230-1,..., 230-N; 330-1, 330-2; 430-1,..., 430-M; 530-0, 530-1,530-2, 530-3); and returning the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0, 412-1, 412-2, 412-3) to a previous state if the command does not indicate a target memory volume (313-0, 313-1, 313-2, 313-3; 413-0, 413-1, 413-2,413-3; 513-0, 513-1,513-2,513-3), wherein the memory unit (212-1,212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0,412-1,412-2,412-3) remains active if the command indicates a target memory volume (313-0, 313-1, 313-2, 313-3; 413-0, 413-1, 413-2, 413-3; 513-0, 513-1, 513-2, 513-3) associated with the memory unit (212-1, 212-2,..., 212-M; 312-0, 312-1,312-2,312-3; 412-0, 412-1,412-2,412-3); and wherein returning the memory unit (212-1,212-2,..., 212-M; 312-0, 312-1, 312-2, 312-3; 412-0, 412-1,412-2, 412-3) to a previous state if the command does not indicate a target memory volume (313-0,313-1,313-2,313-3; 413-0, 413-1, 413-2, 413-3; 513-0, 513-1, 513-2,513-3) includes returning the memory unit (212-1,212-2,..., 212-M; 312- 0,312-1,312-2,312-3; 412-0, 412-1, 412-2, 412-3) to a previous state if the command does not indicate a volume address.
A method for monitoring mechanical fiber stress of optical fiber spans of an optical fiber link within an optical network comprising: monitoring continuously a timing phase of a received optical signal transported through an optical fiber link composed of optical fiber spans; deriving the mechanical fiber stress in said optical fiber spans of said optical fiber link on the basis of an observed phase shift of said timing phase within a predetermined observation period of time, wherein a phase difference of said received optical signal is measured against a fixed reference signal over a sample interval to provide a phase shift represented by a time difference between the received optical signal and the reference signal, and wherein the timing phase of the received optical signal is extracted by a clock recovery block of a receiver receiving said optical signal transported through the optical fiber spans of said optical fiber link, wherein a critical mechanical fiber stress indicating an imminent fiber cut is detected if the observed phase shift of said extracted timing phase exceeds a first threshold value within the predetermined observation period of time, and if evaluation of other indicators comprising a bit error rate, BER, of the received optical signal, a detected chromatic dispersion, a detected polarization mode dispersion, an optical signal power of the received optical signal, and/or a polarization dependent loss confirms the imminent fiber cut in the optical fiber spans. monitoring continuously a timing phase of a received optical signal transported through an optical fiber link composed of optical fiber spans; deriving the mechanical fiber stress in said optical fiber spans of said optical fiber link on the basis of an observed phase shift of said timing phase within a predetermined observation period of time, wherein a phase difference of said received optical signal is measured against a fixed reference signal over a sample interval to provide a phase shift represented by a time difference between the received optical signal and the reference signal, and wherein the timing phase of the received optical signal is extracted by a clock recovery block of a receiver receiving said optical signal transported through the optical fiber spans of said optical fiber link, wherein a critical mechanical fiber stress indicating an imminent fiber cut is detected if the observed phase shift of said extracted timing phase exceeds a first threshold value within the predetermined observation period of time, and if evaluation of other indicators comprising a bit error rate, BER, of the received optical signal, a detected chromatic dispersion, a detected polarization mode dispersion, an optical signal power of the received optical signal, and/or a polarization dependent loss confirms the imminent fiber cut in the optical fiber spans.
A salt of the compound of Formula 1, the salt being selected from the group consisting of besylate salt, hydrochloride salt, oxalate salt, sodium salt, and potassium salt:
A complex comprising a cationic antibacterial agent and a metal salt, wherein the metal salt is a stannous salt and the cationic antibacterial agent is cetylpyridinium chloride.
A scented tissue product comprising: - a container box which has a cuboid-shaped box member having a top face, a bottom face, and, connected thereto, a pair of longitudinal lateral faces and a pair of transverse lateral faces, an opening-purpose perforation formed in the box member, and a film having a slit therein being attached such as to have the slit situated in an area enclosed by the opening-purpose perforation; and - a stack of tissues folded and placed one over another accommodated in the container box, - a fragrant film having a fragrance layer characterised in that the fragrant film is situated between a fragrance-permeable resin layer and a fragrance-impermeable resin layer and is attached, separately from the film having a slit therein, to an area including at least part of an inner surface of the top face of the box member such that the fragrance-permeable resin layer faces the stack of tissues. - a container box which has a cuboid-shaped box member having a top face, a bottom face, and, connected thereto, a pair of longitudinal lateral faces and a pair of transverse lateral faces, an opening-purpose perforation formed in the box member, and a film having a slit therein being attached such as to have the slit situated in an area enclosed by the opening-purpose perforation; and - a stack of tissues folded and placed one over another accommodated in the container box, - a fragrant film having a fragrance layer characterised in that the fragrant film is situated between a fragrance-permeable resin layer and a fragrance-impermeable resin layer and is attached, separately from the film having a slit therein, to an area including at least part of an inner surface of the top face of the box member such that the fragrance-permeable resin layer faces the stack of tissues.
A method comprising: receiving a request to access a web application; forwarding the request to the web application and intercepting a response from the web application; adding single sign-on application code to the response; returning the response to the requesting client; wherein the single sign-on application is configured to: identify a platform associated with the client device; and execute one or more operations that are specific to the associated platform, receiving, from the single sign-on application, a request for a single sign-on service, wherein the request is received via a web interface associated with the single sign-on service; sending a data request to a data manager based on the request to manage a policy or credential; and returning a response via the associated web interface, wherein the response includes policy or credential information responsive to the request and is used by the client device to automatically log-into an application. receiving a request to access a web application; forwarding the request to the web application and intercepting a response from the web application; adding single sign-on application code to the response; returning the response to the requesting client; wherein the single sign-on application is configured to: identify a platform associated with the client device; and execute one or more operations that are specific to the associated platform, identify a platform associated with the client device; and execute one or more operations that are specific to the associated platform, receiving, from the single sign-on application, a request for a single sign-on service, wherein the request is received via a web interface associated with the single sign-on service; sending a data request to a data manager based on the request to manage a policy or credential; and returning a response via the associated web interface, wherein the response includes policy or credential information responsive to the request and is used by the client device to automatically log-into an application.
Coupling arrangement for coupling a work tool to a machine, comprising: a locking arrangement for locking the work tool to the machine, and at least two fluid couplers (21, 22) arranged to be connected to each other for establishing a fluid passage between a main pressurized fluid circuit channel of a work tool and a main pressurized fluid circuit channel of a machine, wherein a driving arrangement is provided for driving at least one of the fluid couplers (21, 22) for connection to the other fluid coupler (21, 22), wherein the locking arrangement is arranged to first lock to the work tool, and next connect the at least two fluid couplers (21, 22), characterized in that the driving arrangement is separate from the main pressurized fluid circuit, in that the driving arrangement comprises a pressurized fluid circuit, and in that the main pressurized fluid circuit is arranged to operate under a higher pressure than the pressurized fluid circuit of the driving arrangement. a locking arrangement for locking the work tool to the machine, and at least two fluid couplers (21, 22) arranged to be connected to each other for establishing a fluid passage between a main pressurized fluid circuit channel of a work tool and a main pressurized fluid circuit channel of a machine, wherein a driving arrangement is provided for driving at least one of the fluid couplers (21, 22) for connection to the other fluid coupler (21, 22), wherein the locking arrangement is arranged to first lock to the work tool, and next connect the at least two fluid couplers (21, 22), characterized in that the driving arrangement is separate from the main pressurized fluid circuit, in that the driving arrangement comprises a pressurized fluid circuit, and in that the main pressurized fluid circuit is arranged to operate under a higher pressure than the pressurized fluid circuit of the driving arrangement.
Brachytherapy source assembly for high dose-rate or pulsed dose-rate afterloading brachytherapy, comprising a push/pull wire and at the distal end thereof a capsule suitable for brachytherapy, wherein said capsule comprises a chamber for holding one or more radioactive sources, said chamber comprising void space and being defined by a wall, and wherein at least part of the exterior surface of the wall of the capsule comprises a coating, wherein the capsule wall is made of steel or titanium characterised in that the coating is made of one or more selected from TiN, TiCN, TiAlCrN, and DLC, wherein said capsule is attached to the push/pull wire such that at a proximal end the capsule is closed and sealed by a plug, wherein said capsule comprises one or more radioactive sources selected from the group consisting of iridium-192 and cobalt-60 inside said chamber.
A method for producing a catalyst for use in the production of a methylamine compound, the catalyst comprising a modified crystalline silicoaluminophosphate salt molecular sieve, wherein the method comprises: a moisture control step of adsorbing moisture onto a crystalline silicoaluminophosphate salt molecular sieve in an amount of 5 to 30 wt% of the crystalline silicoaluminophosphate salt molecular sieve; and a step of heating the crystalline silicoaluminophosphate salt molecular sieve having moisture adsorbed thereon under a pressure of 0.1 MPa or more and at a temperature of 130 to 200°C for 5 to 40 hours. a moisture control step of adsorbing moisture onto a crystalline silicoaluminophosphate salt molecular sieve in an amount of 5 to 30 wt% of the crystalline silicoaluminophosphate salt molecular sieve; and a step of heating the crystalline silicoaluminophosphate salt molecular sieve having moisture adsorbed thereon under a pressure of 0.1 MPa or more and at a temperature of 130 to 200°C for 5 to 40 hours.
An scFv antibody fragment which specifically binds tumor-associated glycoprotein 72 (TAG-72), wherein the antibody fragment comprises SEQ ID NO: 1 or SEQ ID NO:2.
An angle of attack sensor comprising: a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate having an opening; a vane assembly extending through the opening of the faceplate; a vane shaft connected to the vane assembly and extending within the housing, the vane shaft having a bore extending through the vane shaft; and a bearing surrounding the vane shaft; and characterized by an annular vane shaft seal positioned around and surrounding the vane shaft adjacent the bearing, and including an annular sealing element with an annular lip, the annular lip being configured to contact the vane shaft and seal against the vane shaft and configured to move away from the vane shaft due to airflow within the angle of attack sensor; and a first vent hole extending from an interior surface of the vane shaft to an exterior surface of the vane shaft between the bearing and the lip of the sealing element of the vane shaft seal, the first vent hole being in fluid communication with the bore of the vane shaft. a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate having an opening; a vane assembly extending through the opening of the faceplate; a vane shaft connected to the vane assembly and extending within the housing, the vane shaft having a bore extending through the vane shaft; and a bearing surrounding the vane shaft; and characterized by an annular vane shaft seal positioned around and surrounding the vane shaft adjacent the bearing, and including an annular sealing element with an annular lip, the annular lip being configured to contact the vane shaft and seal against the vane shaft and configured to move away from the vane shaft due to airflow within the angle of attack sensor; and a first vent hole extending from an interior surface of the vane shaft to an exterior surface of the vane shaft between the bearing and the lip of the sealing element of the vane shaft seal, the first vent hole being in fluid communication with the bore of the vane shaft.
A Versa Module Europa adapter assembly configured to operatively couple a subsystem to a five row VME chassis, the VME adapter assembly comprising: an adapter circuit board having a mating contact area proximate to a chassis-mating edge, and at least one area that is configured to couple to the subsystem, wherein the at least one area of the adapter circuit board comprises a power contact area; and a mating plug housing coupled to the mating contact area, wherein the mating plug housing comprises a chassis interface insert defining a mating interface area having five aligned rows of contact apertures, wherein the five aligned rows of contact apertures are configured to mate with a same number of aligned rows of contact pins within a backplane connector of the five row VME chassis, wherein the at least one area of the adapter circuit board comprises a plurality of configuration selection areas (118, 120, 122, 124), wherein each of the plurality of configuration selection areas (118, 120, 122, 124) is configured to allow for a desired selection of power and ground formation. an adapter circuit board having a mating contact area proximate to a chassis-mating edge, and at least one area that is configured to couple to the subsystem, wherein the at least one area of the adapter circuit board comprises a power contact area; and a mating plug housing coupled to the mating contact area, wherein the mating plug housing comprises a chassis interface insert defining a mating interface area having five aligned rows of contact apertures, wherein the five aligned rows of contact apertures are configured to mate with a same number of aligned rows of contact pins within a backplane connector of the five row VME chassis, wherein the at least one area of the adapter circuit board comprises a plurality of configuration selection areas (118, 120, 122, 124), wherein each of the plurality of configuration selection areas (118, 120, 122, 124) is configured to allow for a desired selection of power and ground formation.
Method for operating a speed-regulated or speed-controlled electric motor of a fan drive, which is connected to an on-board system voltage (U B) of a motor vehicle, in which the motor speed (n) of the electric motor is regulated to a predetermined first desired speed value (n soll), and in which the motor speed (n) is regulated to a desired speed value that is lower in comparison to the first desired speed value (n soll) when the on-board system voltage (U B) changes over time (t), characterised in that, - for a predetermined period of time (t) during a set time element (Δt), the motor speed (n) is regulated to a desired speed value (n* max), which is set depending on the voltage changes and which is smaller than the first desired speed value (n soll), - after the time element (Δt) has ended, it is regulated back to the first desired speed value (n soll), and - proceeding from a starting level depending on the course of a voltage reduction of the on-board system voltage (U B), the first desired speed value (n soll) is firstly lowered to a transitional or intermediary level and, after the first time element (Δt) has ended, it is kept constant at the lowered level and, after the first time element (Δt) and/or a second time element has ended, it is set back to the starting level. - for a predetermined period of time (t) during a set time element (Δt), the motor speed (n) is regulated to a desired speed value (n* max), which is set depending on the voltage changes and which is smaller than the first desired speed value (n soll), - after the time element (Δt) has ended, it is regulated back to the first desired speed value (n soll), and - proceeding from a starting level depending on the course of a voltage reduction of the on-board system voltage (U B), the first desired speed value (n soll) is firstly lowered to a transitional or intermediary level and, after the first time element (Δt) has ended, it is kept constant at the lowered level and, after the first time element (Δt) and/or a second time element has ended, it is set back to the starting level.
Moving walkway comprising: at least one endless belt, in particular a toothed belt, moving in a conveyance direction along a closed loop, the closed loop comprising a conveyance portion and a return portion extending between opposite turnaround portions (5, 7); a plurality of pallets drivingly coupled to the at least one belt, wherein each of the pallets comprises: at least one first roller; and at least one second roller, the first and second rollers (22, 24) being spaced apart from each other in the conveyance direction; the moving walkway further comprising at least one guide rail (30, 32) including: at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions (5, 7); and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions (5, 7); wherein the at least one guide rail (30, 32) has at least one curved portion (30c, 30d, 32c, 32d) in at least one of the turnaround portions (5, 7), and at least one straight portion (30a, 30b, 32a, 32b) in the conveyance portion and/or in the return portion. at least one endless belt, in particular a toothed belt, moving in a conveyance direction along a closed loop, the closed loop comprising a conveyance portion and a return portion extending between opposite turnaround portions (5, 7); a plurality of pallets drivingly coupled to the at least one belt, wherein each of the pallets comprises: at least one first roller; and at least one second roller, the first and second rollers (22, 24) being spaced apart from each other in the conveyance direction; at least one first roller; and at least one second roller, the first and second rollers (22, 24) being spaced apart from each other in the conveyance direction; the moving walkway further comprising at least one guide rail (30, 32) including: at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions (5, 7); and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions (5, 7); at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions (5, 7); and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions (5, 7); wherein the at least one guide rail (30, 32) has at least one curved portion (30c, 30d, 32c, 32d) in at least one of the turnaround portions (5, 7), and at least one straight portion (30a, 30b, 32a, 32b) in the conveyance portion and/or in the return portion.
Bale wrapping device for a round baler, with a drive roll which can be brought into engagement with a wrapping material roll, and a drive and brake device connected to the drive roll, wherein the drive and brake device is in connection both with a variably tensionable drive belt and with a variably tensionable brake belt and wherein the drive belt is in engagement with a belt drive roll which is connectable to drive means, characterized in that a freewheeling device is provided in such a manner that the belt drive roll can run ahead of drive means for the belt drive roll in the drive direction of rotation.