mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, for controlling a signal transmission in a wireless communication system, the UE comprising: a receiver configured to: receive first configuration information including information on a resource for a physical uplink control channel, PUCCH, transmission; receive second configuration information on whether to enable the signal transmission on a PUCCH when a first downlink control information, DCI, format is not detected, and receive a first downlink control information, DCI, format including information indicating a slot structure among a set of combinations of slot configurations; a decoder configured to decode the first DCI format; a controller configured to: determine whether the first DCI format is detected; and a transmitter configured to: transmit a channel state information, CSI, report on the PUCCH when the first DCI format is detected and the indicated slot structure supports CSI transmission, or suspend the PUCCH transmission for the CSI report based on the first and second configuration information when the first DCI format is not detected. a receiver configured to: receive first configuration information including information on a resource for a physical uplink control channel, PUCCH, transmission; receive second configuration information on whether to enable the signal transmission on a PUCCH when a first downlink control information, DCI, format is not detected, and receive a first downlink control information, DCI, format including information indicating a slot structure among a set of combinations of slot configurations; receive first configuration information including information on a resource for a physical uplink control channel, PUCCH, transmission; receive second configuration information on whether to enable the signal transmission on a PUCCH when a first downlink control information, DCI, format is not detected, and receive a first downlink control information, DCI, format including information indicating a slot structure among a set of combinations of slot configurations; a decoder configured to decode the first DCI format; a controller configured to: determine whether the first DCI format is detected; and a transmitter configured to: transmit a channel state information, CSI, report on the PUCCH when the first DCI format is detected and the indicated slot structure supports CSI transmission, or suspend the PUCCH transmission for the CSI report based on the first and second configuration information when the first DCI format is not detected. transmit a channel state information, CSI, report on the PUCCH when the first DCI format is detected and the indicated slot structure supports CSI transmission, or suspend the PUCCH transmission for the CSI report based on the first and second configuration information when the first DCI format is not detected.
Measuring device for a deformable vehicle tyre , having: a sensor unit , a first data processing unit , and a first radio unit , wherein the sensor unit is designed to be fastenable to the inside of the vehicle tyre such that a radial acceleration acting in a radial direction (R) on a tread of the vehicle tyre can be detected by means of the sensor unit ; wherein the first data processing unit is configured to determine a result value, relevant for a tyre mileage of the vehicle tyre , at least on the basis of the radial acceleration and at least one predetermined tyre parameter of the vehicle tyre ; wherein each tyre parameter characterizes a property of the vehicle tyre ; and wherein the first radio unit is designed to transmit a radio signal which represents the determined result value, wherein the result value is a tyre mileage of the vehicle tyre , wherein the tyre parameters are formed at least by the standardized radial distance of the sensor unit from the rotational axis of the vehicle tyre , by the standardized rolling radius of the vehicle tyre and by a predefined correction factor for the vehicle tyre, wherein the correction factor is based on a predefined deviation of the radial acceleration detected by the sensor unit , characterized in that the correction factor is predetermined as a function of a or the sampling rate of the sensor unit . a sensor unit , a first data processing unit , and a first radio unit , wherein the sensor unit is designed to be fastenable to the inside of the vehicle tyre such that a radial acceleration acting in a radial direction (R) on a tread of the vehicle tyre can be detected by means of the sensor unit ; wherein the first data processing unit is configured to determine a result value, relevant for a tyre mileage of the vehicle tyre , at least on the basis of the radial acceleration and at least one predetermined tyre parameter of the vehicle tyre ; wherein each tyre parameter characterizes a property of the vehicle tyre ; and wherein the first radio unit is designed to transmit a radio signal which represents the determined result value, wherein the result value is a tyre mileage of the vehicle tyre , wherein the tyre parameters are formed at least by the standardized radial distance of the sensor unit from the rotational axis of the vehicle tyre , by the standardized rolling radius of the vehicle tyre and by a predefined correction factor for the vehicle tyre, wherein the correction factor is based on a predefined deviation of the radial acceleration detected by the sensor unit , characterized in that the correction factor is predetermined as a function of a or the sampling rate of the sensor unit .
A surgical stapling assembly , comprising: an anvil; a cartridge channel configured to receive a staple cartridge therein; and a firing assembly, comprising: a firing member ; and a firing drive screw, wherein said firing member is threadably coupled to said firing drive screw, and wherein a rotation of said firing drive screw (5000, is configured to move said firing member longitudinally within the surgical stapling assembly ; and a mount configured to support said firing drive screw within said cartridge channel , characterized in that : said mount is configured to permit said firing drive screw to float within a limited vertical range of floatation relative to said cartridge channel ; wherein said mount defines a cavity comprising an upper stop and a lower stop defining the limited vertical range of floatation of said firing drive screw between said upper stop and said lower stop. an anvil; a cartridge channel configured to receive a staple cartridge therein; and a firing assembly, comprising: a firing member ; and a firing drive screw, wherein said firing member is threadably coupled to said firing drive screw, and wherein a rotation of said firing drive screw (5000, is configured to move said firing member longitudinally within the surgical stapling assembly ; and a mount configured to support said firing drive screw within said cartridge channel , characterized in that : said mount is configured to permit said firing drive screw to float within a limited vertical range of floatation relative to said cartridge channel ; wherein said mount defines a cavity comprising an upper stop and a lower stop defining the limited vertical range of floatation of said firing drive screw between said upper stop and said lower stop. a firing member ; and a firing drive screw, wherein said firing member is threadably coupled to said firing drive screw, and wherein a rotation of said firing drive screw (5000, is configured to move said firing member longitudinally within the surgical stapling assembly ; and a mount configured to support said firing drive screw within said cartridge channel , characterized in that : said mount is configured to permit said firing drive screw to float within a limited vertical range of floatation relative to said cartridge channel ; wherein said mount defines a cavity comprising an upper stop and a lower stop defining the limited vertical range of floatation of said firing drive screw between said upper stop and said lower stop. said mount is configured to permit said firing drive screw to float within a limited vertical range of floatation relative to said cartridge channel ; wherein said mount defines a cavity comprising an upper stop and a lower stop defining the limited vertical range of floatation of said firing drive screw between said upper stop and said lower stop.
Method for providing control information for a driver assistance function of a vehicle by means of a control device, wherein a signal input of the control device is connected to a signal source and wherein a signal output of the control device is connected to a device which implements the driver assistance function, wherein the control device has a data memory in which an assignment is stored which respectively assigns output data elements to input signal types which are received from the signal source, wherein the method comprises the following steps: • receiving input signals from the signal source via the signal input of the control device, • validating the received input signals, • determining temporary values for the output data elements from the input signals which are assigned to the output data elements in accordance with the assignment, • if at least one input signal has been respectively received for each input signal type and all the input signals have been validated, setting the respective temporary values as values of the corresponding output data elements, and • providing the output data elements as control information for the device which implements the driver assistance function. • receiving input signals from the signal source via the signal input of the control device, • validating the received input signals, • determining temporary values for the output data elements from the input signals which are assigned to the output data elements in accordance with the assignment, • if at least one input signal has been respectively received for each input signal type and all the input signals have been validated, setting the respective temporary values as values of the corresponding output data elements, and • providing the output data elements as control information for the device which implements the driver assistance function.
A base comprising: a frame ; a keyboard enclosed by the frame , the keyboard being configured to wirelessly communicate with a computing device ; and a mount hingedly attached to the frame at one or more locations in the frame adjacent to the keyboard , wherein the mount is rotatable from a position resting against a rear portion of the frame and laying flat against the base to laying across the keyboard , wherein the mount comprises a plurality of magnets configured to retain the computing device and wherein the mount occupies the space between a back portion of the keyboard and an end portion of the frame at the rear of the frame when laying flat against the base such that a top portion of the mount is adjacent to the end portion of the frame ; wherein the plurality of magnets includes: a first column of magnets extending in a first direction, the first direction being generally perpendicular to an axis of rotation of the hinge about the frame ; a second column of magnets extending in the first direction; and a row of magnets extending in a second direction, the second direction being generally parallel to the axis of rotation of the hinge about the frame ; wherein the row of magnets is located in a lower portion of the mount such that the row of magnets is closer to the back portion of the keyboard than to the end portion of the frame when the mount is flat against the frame in order to prevent the computing device from rotating about the top portion of the mount . a frame ; a keyboard enclosed by the frame , the keyboard being configured to wirelessly communicate with a computing device ; and a mount hingedly attached to the frame at one or more locations in the frame adjacent to the keyboard , wherein the mount is rotatable from a position resting against a rear portion of the frame and laying flat against the base to laying across the keyboard , wherein the mount comprises a plurality of magnets configured to retain the computing device and wherein the mount occupies the space between a back portion of the keyboard and an end portion of the frame at the rear of the frame when laying flat against the base such that a top portion of the mount is adjacent to the end portion of the frame ; a first column of magnets extending in a first direction, the first direction being generally perpendicular to an axis of rotation of the hinge about the frame ; a second column of magnets extending in the first direction; and a row of magnets extending in a second direction, the second direction being generally parallel to the axis of rotation of the hinge about the frame ; wherein the row of magnets is located in a lower portion of the mount such that the row of magnets is closer to the back portion of the keyboard than to the end portion of the frame when the mount is flat against the frame in order to prevent the computing device from rotating about the top portion of the mount .
A method for producing an anti-HER2 antibody comprising the following steps a) cultivating a cell comprising a nucleic acid encoding the anti-HER2 antibody, b) recovering the anti-HER2 antibody from the cell or the cultivation medium, c) purifying the anti-HER2 antibody with one or more chromatography steps and providing an anti-HER2 antibody solution, d) adding a sugar and a detergent to the solution, e) concentrating the anti-HER2 antibody solution to a concentration of 125 g/l or more with a method selected from diafiltration or tangential-flow filtration, and f) applying the anti-HER2 antibody solution of the previous step to a combination of a first and second filter unit, whereby the first filter unit comprises a pre-filter with a pore size of 3.0 μm and a main-filter with a pore size of 0.8 μm and the second filter unit comprises a pre-filter with a pore size of 0.45 μm and a main-filter with a pore size of 0.22 μm with a pressure of 0.75 bar or less, and thereby producing an anti-HER2 antibody. a) cultivating a cell comprising a nucleic acid encoding the anti-HER2 antibody, b) recovering the anti-HER2 antibody from the cell or the cultivation medium, c) purifying the anti-HER2 antibody with one or more chromatography steps and providing an anti-HER2 antibody solution, d) adding a sugar and a detergent to the solution, e) concentrating the anti-HER2 antibody solution to a concentration of 125 g/l or more with a method selected from diafiltration or tangential-flow filtration, and f) applying the anti-HER2 antibody solution of the previous step to a combination of a first and second filter unit, whereby the first filter unit comprises a pre-filter with a pore size of 3.0 μm and a main-filter with a pore size of 0.8 μm and the second filter unit comprises a pre-filter with a pore size of 0.45 μm and a main-filter with a pore size of 0.22 μm with a pressure of 0.75 bar or less, and thereby producing an anti-HER2 antibody.
A switch device for one-way transmission, comprising: a switch , comprising: a first port (P6); a second port (P4); the switch device being characterized in that the switch further comprises: a third port (P1) coupled to the second port (P4) via a first path and coupled to the first port (P6) via a second path ; a fourth port (P3); and a fifth port (P2) coupled to the fourth port (P3) via a third path and coupled to the first port (P6) via a fourth path , wherein the fourth port (P3) and the fifth port (P2) form a first subnet, wherein the second port (P4) and the third port (P1) form a second subnet isolated to the first subnet; and a one-way link circuit , wherein an input terminal of the one-way link circuit is coupled to the first port (P6). a switch , comprising: a first port (P6); a second port (P4); the switch device being characterized in that the switch further comprises: a third port (P1) coupled to the second port (P4) via a first path and coupled to the first port (P6) via a second path ; a fourth port (P3); and a fifth port (P2) coupled to the fourth port (P3) via a third path and coupled to the first port (P6) via a fourth path , wherein the fourth port (P3) and the fifth port (P2) form a first subnet, wherein the second port (P4) and the third port (P1) form a second subnet isolated to the first subnet; and a first port (P6); a second port (P4); the switch device being characterized in that the switch further comprises: a third port (P1) coupled to the second port (P4) via a first path and coupled to the first port (P6) via a second path ; a fourth port (P3); and a fifth port (P2) coupled to the fourth port (P3) via a third path and coupled to the first port (P6) via a fourth path , wherein the fourth port (P3) and the fifth port (P2) form a first subnet, wherein the second port (P4) and the third port (P1) form a second subnet isolated to the first subnet; and a third port (P1) coupled to the second port (P4) via a first path and coupled to the first port (P6) via a second path ; a fourth port (P3); and a fifth port (P2) coupled to the fourth port (P3) via a third path and coupled to the first port (P6) via a fourth path , wherein the fourth port (P3) and the fifth port (P2) form a first subnet, wherein the second port (P4) and the third port (P1) form a second subnet isolated to the first subnet; and a one-way link circuit , wherein an input terminal of the one-way link circuit is coupled to the first port (P6).
A vacuum pump , in particular a turbomolecular pump, having at least one pump stage and having a pressure determination unit for determining a pressure present at a suction side (E) of the vacuum pump and comprising a measurement device , wherein a measurement tap (25.2 - 25.7) of the measurement device is provided in the region of the pump stage or downstream of the pump stage , wherein, in the region, the measured pressure has already been increased by the pump, and wherein the pressure determination unit is configured such that the pressure present at the suction side can be determined with reference to the pressure tapped at the measurement tap (25.2 - 25.7), wherein the measurement tap is configured as an opening (25.2 - 25.7) in a housing of the vacuum pump receiving the pump stage , characterized in that the opening (25.2 - 25.7) is also usable as a flood opening for flooding the vacuum pump or as a carrier gas opening. wherein a measurement tap (25.2 - 25.7) of the measurement device is provided in the region of the pump stage or downstream of the pump stage , wherein, in the region, the measured pressure has already been increased by the pump, and wherein the pressure determination unit is configured such that the pressure present at the suction side can be determined with reference to the pressure tapped at the measurement tap (25.2 - 25.7), wherein the measurement tap is configured as an opening (25.2 - 25.7) in a housing of the vacuum pump receiving the pump stage , characterized in that the opening (25.2 - 25.7) is also usable as a flood opening for flooding the vacuum pump or as a carrier gas opening.
A pharmaceutical composition comprising a therapeutically effective amount of 5-azacytidine for use in a method of treating a subject having acute myelogenous leukemia, wherein said method comprises orally administering said pharmaceutical composition and wherein the composition is an immediate release composition and releases the 5-azacytidine substantially in the stomach following oral administration to the subject.
A system for delivering an implantable medical device , comprising: a handle housing extending from a proximal region to a distal region ; an outer sheath configured to cover at least a portion of the implantable medical device , the outer sheath extending distally from the handle housing ; an outer sheath coupler disposed within the handle housing and secured to the outer sheath ; an outer sheath nut threadedly disposed on an outer sheath threaded rod and operably coupled to the outer sheath coupler ; and an outer sheath drive motor operably coupled to the outer sheath threaded rod such that actuation of the outer sheath drive motor causes the outer sheath threaded rod to rotate relative to the outer sheath nut , thereby causing the outer sheath nut to translate relative to the outer sheath threaded rod as the outer sheath nut is held against rotation, and thus causing the outer sheath coupler and the outer sheath to translate relative to the handle housing ; characterized by an outer sheath access door disposed near the proximal region of the handle housing ; wherein the outer sheath drive motor is configured to be disengaged from the outer sheath threaded rod upon removal of the outer sheath access door such that a manual drive tool can be used to engage and manually rotate the outer sheath threaded rod . a handle housing extending from a proximal region to a distal region ; an outer sheath configured to cover at least a portion of the implantable medical device , the outer sheath extending distally from the handle housing ; an outer sheath coupler disposed within the handle housing and secured to the outer sheath ; an outer sheath nut threadedly disposed on an outer sheath threaded rod and operably coupled to the outer sheath coupler ; and an outer sheath drive motor operably coupled to the outer sheath threaded rod such that actuation of the outer sheath drive motor causes the outer sheath threaded rod to rotate relative to the outer sheath nut , thereby causing the outer sheath nut to translate relative to the outer sheath threaded rod as the outer sheath nut is held against rotation, and thus causing the outer sheath coupler and the outer sheath to translate relative to the handle housing ; characterized by an outer sheath access door disposed near the proximal region of the handle housing ; wherein the outer sheath drive motor is configured to be disengaged from the outer sheath threaded rod upon removal of the outer sheath access door such that a manual drive tool can be used to engage and manually rotate the outer sheath threaded rod .