mhurhangee/ep-ind-claims huggingface dataset:
A wellbore logging tool system, comprising: a processor; a memory; a wellbore logging tool (130, 226, 430) comprising an acoustic transmitter; and a logging tool control module operable to: receive sensor signals from one or more sensors coupled to a wellbore logging tool (130, 226, 430) after an actuation control signal has been transmitted to the acoustic transmitter; determine, using the received sensor signals, one or more current dynamic states of the acoustic transmitter; determine a damping control signal based on the one or more current dynamic states of the acoustic transmitter; determine the damping control signal by minimizing a cost function using the current dynamic states of the acoustic transmitter, wherein terms of the cost function comprise weighting functions; and transmit the damping control signal to the acoustic transmitter. a processor; a memory; a wellbore logging tool (130, 226, 430) comprising an acoustic transmitter; and a logging tool control module operable to: receive sensor signals from one or more sensors coupled to a wellbore logging tool (130, 226, 430) after an actuation control signal has been transmitted to the acoustic transmitter; determine, using the received sensor signals, one or more current dynamic states of the acoustic transmitter; determine a damping control signal based on the one or more current dynamic states of the acoustic transmitter; determine the damping control signal by minimizing a cost function using the current dynamic states of the acoustic transmitter, wherein terms of the cost function comprise weighting functions; and transmit the damping control signal to the acoustic transmitter. receive sensor signals from one or more sensors coupled to a wellbore logging tool (130, 226, 430) after an actuation control signal has been transmitted to the acoustic transmitter; determine, using the received sensor signals, one or more current dynamic states of the acoustic transmitter; determine a damping control signal based on the one or more current dynamic states of the acoustic transmitter; determine the damping control signal by minimizing a cost function using the current dynamic states of the acoustic transmitter, wherein terms of the cost function comprise weighting functions; and transmit the damping control signal to the acoustic transmitter.
A method of controlling functionality of a touch enabled first display, comprising: receiving visual focus information that specifies a particular display on which a user is visually focused, the particular display being from a set of displays, wherein the set of displays comprises at least the touch enabled first display and a second display, wherein a first computational device interfaces with the touch enabled first display and a second computational device interfaces with the second display, and the first computational device interacts with the second computational device; controlling at least one of a type of input receivable from the user via the touch enabled first display or content rendered on the touch enabled first display as a function of the visual focus information; and switching between the touch enabled first display being a dedicated input device when the visual focus information specifies that the user is visually focused on the second display and being an input device and output device that renders the content when the visual focus information specifies that the user is visually focused on the touch enabled first display. receiving visual focus information that specifies a particular display on which a user is visually focused, the particular display being from a set of displays, wherein the set of displays comprises at least the touch enabled first display and a second display, wherein a first computational device interfaces with the touch enabled first display and a second computational device interfaces with the second display, and the first computational device interacts with the second computational device; controlling at least one of a type of input receivable from the user via the touch enabled first display or content rendered on the touch enabled first display as a function of the visual focus information; and switching between the touch enabled first display being a dedicated input device when the visual focus information specifies that the user is visually focused on the second display and being an input device and output device that renders the content when the visual focus information specifies that the user is visually focused on the touch enabled first display.
An apparatus for forming an anastomosis between adjacent intestinal sections of tissue, comprising: a) an annular surgical stapling device comprising a staple cartridge assembly having an annular array of staple receiving slots, the cartridge assembly being connectable to a tubular body portion selectively attachable to an anvil assembly positioned distally of the cartridge assembly, the anvil assembly including an annular member, the anvil assembly being selectively attachable to the tubular body portion by a shaft; characterized in that the apparatus includes: b) a support structure for deposition between the intestinal sections of tissue, the support structure including a disk-like body defining an aperture therein for receiving the shaft, the body having an outer terminal edge, the support structure including at least one layer of expandable material disposed at the outer terminal edge of the body. a) an annular surgical stapling device comprising a staple cartridge assembly having an annular array of staple receiving slots, the cartridge assembly being connectable to a tubular body portion selectively attachable to an anvil assembly positioned distally of the cartridge assembly, the anvil assembly including an annular member, the anvil assembly being selectively attachable to the tubular body portion by a shaft; characterized in that the apparatus includes: b) a support structure for deposition between the intestinal sections of tissue, the support structure including a disk-like body defining an aperture therein for receiving the shaft, the body having an outer terminal edge, the support structure including at least one layer of expandable material disposed at the outer terminal edge of the body.
A developing apparatus usable with an image forming apparatus the developing apparatus comprising: a developer receptacle having opposite side walls on one of which opposite side walls a shaft hole is formed; a rotation shaft having a length shorter than a distance between the opposite sidewalls (21,22) of the developer receptacle, and an end on which a connection hole is formed; and a driving member rotatably supported by the shaft hole (24, 81) of the developer receptacle, and having a connecting shaft inserted into the connection hole of the rotation shaft characterized in that a sealing member seat is formed around the shaft hole on the sidewall of the developer receptacle; and a sealing member is disposed in the developer receptacle and in the sealing member seat to seal an outer circumferential surface of the connecting shaft of the driving member characterized in that: the connection hole of the rotation shaft comprises: a plurality of coupling protrusions formed in an axial direction thereof; and the driving member comprises: a plurality of coupling grooves formed on an outer circumferential surface of the connecting shaft corresponding to the plurality of coupling protrusions. a developer receptacle having opposite side walls on one of which opposite side walls a shaft hole is formed; a rotation shaft having a length shorter than a distance between the opposite sidewalls (21,22) of the developer receptacle, and an end on which a connection hole is formed; and a driving member rotatably supported by the shaft hole (24, 81) of the developer receptacle, and having a connecting shaft inserted into the connection hole of the rotation shaft characterized in that a sealing member seat is formed around the shaft hole on the sidewall of the developer receptacle; and a sealing member is disposed in the developer receptacle and in the sealing member seat to seal an outer circumferential surface of the connecting shaft of the driving member characterized in that: the connection hole of the rotation shaft comprises: a plurality of coupling protrusions formed in an axial direction thereof; and the driving member comprises: a plurality of coupling grooves formed on an outer circumferential surface of the connecting shaft corresponding to the plurality of coupling protrusions. the connection hole of the rotation shaft comprises: a plurality of coupling protrusions formed in an axial direction thereof; and a plurality of coupling protrusions formed in an axial direction thereof; and the driving member comprises: a plurality of coupling grooves formed on an outer circumferential surface of the connecting shaft corresponding to the plurality of coupling protrusions. a plurality of coupling grooves formed on an outer circumferential surface of the connecting shaft corresponding to the plurality of coupling protrusions.
Device for contactless optical distance measurement, comprising a light source, a light analysis unit and a measurement head, wherein - the light source is a polychromatic light source, which is suitable for emitting light of a continuous spectrum into the measurement head, - the light analysis unit is suitable for receiving and for spectrally analyzing received light from the measurement head, - the measurement head has an aperture opening for the entry of the light of the light source into the measurement head and for the exit of the received light from the measurement head towards the light analysis unit, - the measurement head has an optical lens system, which has a chromatic longitudinal aberration, - the optical lens system only consists of a first refractive lens and a second refractive lens, - at least one of the refractive lenses (1, 2) has at least one aspherically curved lens surface, - both the first refractive lens and the second refractive lens have an optical material with an Abbe number 20 ≤ ν d ≤ 41, and - the optical lens system has such a chromatic longitudinal aberration that a measurement region, which equals an axial focus shift of the optical lens system between the wavelengths 450 nm and 700 nm, is between 0.2 mm inclusively and 10 mm inclusively, and - a product of the measurement region and the square of the numerical aperture (NA 2 MR) on the side of the measurement region is between 100 μm inclusively and 450 μm inclusively. - the light source is a polychromatic light source, which is suitable for emitting light of a continuous spectrum into the measurement head, - the light analysis unit is suitable for receiving and for spectrally analyzing received light from the measurement head, - the measurement head has an aperture opening for the entry of the light of the light source into the measurement head and for the exit of the received light from the measurement head towards the light analysis unit, - the measurement head has an optical lens system, which has a chromatic longitudinal aberration, - the optical lens system only consists of a first refractive lens and a second refractive lens, - at least one of the refractive lenses (1, 2) has at least one aspherically curved lens surface, - both the first refractive lens and the second refractive lens have an optical material with an Abbe number 20 ≤ ν d ≤ 41, and - the optical lens system has such a chromatic longitudinal aberration that a measurement region, which equals an axial focus shift of the optical lens system between the wavelengths 450 nm and 700 nm, is between 0.2 mm inclusively and 10 mm inclusively, and - a product of the measurement region and the square of the numerical aperture (NA 2 MR) on the side of the measurement region is between 100 μm inclusively and 450 μm inclusively.
Transformed yeast cell, characterized in that it contains: (a) an expression cassette containing a sequence encoding the RbcL subunit of a form I RuBisCO enzyme from a cyanobacterium of the genus Synechococcus, under the transcriptional control of a suitable promoter; b) an expression cassette containing a sequence encoding the RbcS subunit of said RuBisCO enzyme, under the transcriptional control of a suitable promoter; c) an expression cassette containing a sequence encoding the specific chaperone RbcX of said RuBisCO enzyme, under the transcriptional control of a suitable promoter, wherein RbcX is a cyanobacterial chaperone having more than 50% identity with SEQ ID NO: 3 and retaining an S. elongatus chaperone RbcX activity; (d) an expression cassette containing a sequence encoding an E. coli chaperone GroES, under the transcriptional control of a suitable promoter; and (e) an expression cassette containing a sequence encoding an E. coli chaperone GroEL, under the transcriptional control of a suitable promoter. (a) an expression cassette containing a sequence encoding the RbcL subunit of a form I RuBisCO enzyme from a cyanobacterium of the genus Synechococcus, under the transcriptional control of a suitable promoter; b) an expression cassette containing a sequence encoding the RbcS subunit of said RuBisCO enzyme, under the transcriptional control of a suitable promoter; c) an expression cassette containing a sequence encoding the specific chaperone RbcX of said RuBisCO enzyme, under the transcriptional control of a suitable promoter, wherein RbcX is a cyanobacterial chaperone having more than 50% identity with SEQ ID NO: 3 and retaining an S. elongatus chaperone RbcX activity; (d) an expression cassette containing a sequence encoding an E. coli chaperone GroES, under the transcriptional control of a suitable promoter; and (e) an expression cassette containing a sequence encoding an E. coli chaperone GroEL, under the transcriptional control of a suitable promoter.
An electronic device, wherein the electronic device comprises a detection circuit, a conversion circuit, a transmitter, a receiver, a central processing unit, CPU, a charging circuit, and a battery, wherein the detection circuit is configured to detect a value of a voltage between positive and negative electrodes of the battery; the CPU is configured to generate instruction information according to the value of the voltage between the positive and negative electrodes of the battery; the transmitter is configured to send the instruction information to a charger connected to the electronic device, so as to instruct the charger to output an output voltage that has a voltage value being K or K ∗ (1+x%) times the value of the voltage between the positive and negative electrodes of the battery to the conversion circuit via the receiver; the receiver is configured to receive the output voltage and the output current transmitted from the charger, wherein the receiver is electrically connected to the charger; the conversion circuit is configured to: convert the output voltage received by the receiver into 1/K times of the output voltage, and convert an output current received by the receiver into K times of the output current, wherein the conversion circuit is a conversion circuit with a fixed conversion ratio, the conversion coefficient K is a constant value, and K is any real number greater than 1, x is of a range from 1 to 10, and the charging circuit is configured to charge the battery with 1/ K times the output voltage and K times the output current. the detection circuit is configured to detect a value of a voltage between positive and negative electrodes of the battery; the CPU is configured to generate instruction information according to the value of the voltage between the positive and negative electrodes of the battery; the transmitter is configured to send the instruction information to a charger connected to the electronic device, so as to instruct the charger to output an output voltage that has a voltage value being K or K ∗ (1+x%) times the value of the voltage between the positive and negative electrodes of the battery to the conversion circuit via the receiver; the receiver is configured to receive the output voltage and the output current transmitted from the charger, wherein the receiver is electrically connected to the charger; the conversion circuit is configured to: convert the output voltage received by the receiver into 1/K times of the output voltage, and convert an output current received by the receiver into K times of the output current, wherein the conversion circuit is a conversion circuit with a fixed conversion ratio, the conversion coefficient K is a constant value, and K is any real number greater than 1, x is of a range from 1 to 10, and the charging circuit is configured to charge the battery with 1/ K times the output voltage and K times the output current.
A computerized control device for controlling a printed-product processing system, which comprises a collector system having a conveyor and a plurality of feed conveyors for creating product collections (4, 4a, 4b) from the products supplied by the feed conveyors, comprising: a system configurator for detecting and storing system configuration parameters, which define a configuration of the printed-product processing system, a production configurator for detecting and storing production configuration parameters, which define a production of product collections (4, 4a, 4b) created from a plurality of supplied products, means for determining run-time data during production, a plurality of stored production strategies, which in each case determine the control of the printed-product processing system, and which comprise stored instructions and/or control parameters for controlling the printed-product processing system, and a strategy selector, which is set up to select and to activate one of the stored production strategies, for controlling the printed-product processing system, during production on the basis of the stored system configuration parameters, the stored production configuration parameters and the determined run-time data, characterized in that configuration conditions, which comprise defined minimum and/or maximum values for certain system configuration parameters and/or production configuration parameters, are stored in such a manner that the configuration conditions are assigned to the defined production strategies, and in that the strategy selector is set up to select one of the defined production strategies, depending on whether the assigned configuration conditions are fulfilled. a system configurator for detecting and storing system configuration parameters, which define a configuration of the printed-product processing system, a production configurator for detecting and storing production configuration parameters, which define a production of product collections (4, 4a, 4b) created from a plurality of supplied products, means for determining run-time data during production, a plurality of stored production strategies, which in each case determine the control of the printed-product processing system, and which comprise stored instructions and/or control parameters for controlling the printed-product processing system, and a strategy selector, which is set up to select and to activate one of the stored production strategies, for controlling the printed-product processing system, during production on the basis of the stored system configuration parameters, the stored production configuration parameters and the determined run-time data, characterized in that configuration conditions, which comprise defined minimum and/or maximum values for certain system configuration parameters and/or production configuration parameters, are stored in such a manner that the configuration conditions are assigned to the defined production strategies, and in that the strategy selector is set up to select one of the defined production strategies, depending on whether the assigned configuration conditions are fulfilled.
An apparatus for assisting change-over of take-up rolls in a printing system, comprising: a guide device for directing or guiding printed sheet output from the printing system along a transport path towards a take-up roll for winding or taking up a length of the printed sheet; and a first clamping device for holding a new leading edge region (E L) of the printed sheet formed after the printed sheet is cut to terminate the length of the sheet to be wound or taken up onto the take-up roll, wherein the first clamping device is configured to hold or clamp the new leading edge region (E L) of the printed sheet against movement along the transport path towards the take-up roll; characterized in that the guide device is movable to redirect the printed sheet output from the printing system to a buffer zone, and wherein the guide device is configured to redirect the printed sheet to the buffer zone when the first clamping device holds or clamps the new leading edge region (E L) of the printed sheet. a guide device for directing or guiding printed sheet output from the printing system along a transport path towards a take-up roll for winding or taking up a length of the printed sheet; and a first clamping device for holding a new leading edge region (E L) of the printed sheet formed after the printed sheet is cut to terminate the length of the sheet to be wound or taken up onto the take-up roll, wherein the first clamping device is configured to hold or clamp the new leading edge region (E L) of the printed sheet against movement along the transport path towards the take-up roll; characterized in that the guide device is movable to redirect the printed sheet output from the printing system to a buffer zone, and wherein the guide device is configured to redirect the printed sheet to the buffer zone when the first clamping device holds or clamps the new leading edge region (E L) of the printed sheet.
An immunogenic composition comprising at least one Streptococcus pneumoniae polysaccharide antigen wherein the polysaccharide antigen is presented in the form of a polysaccharide-protein carrier conjugate and at least one Streptococcus pneumoniae protein antigen selected from the group consisting of: PhtA, PhtD, PhtB, SpsA, LytB, LytC, Sp125, Sp101 and Sp133, or a protein comprising at least one protective epitope from PhtA, PhtD, PhtB, SpsA, LytB, LytC, Sp125, Sp101 and Sp133 which contains at least 30 contiguous amino acids from said Streptococcus pneumoniae protein antigen.