mhurhangee/ep-ind-claims huggingface dataset:
A high-loading and alkali-resistant protein A magnetic bead, wherein the magnetic bead can maintain chemical stability under pH 2-14 and has an immunoglobulin IgG binding capacity greater than 50 mg/mL, wherein the magnetic bead comprises a magnetic core portion and a ligand portion, wherein the main component of the magnetic core portion is Fe 3 O 4, and the ligand portion is an alkali-resistant protein A, wherein the alkali-resistant protein A refers to a protein A that has been artificially altered in amino acid sequence such that it retains its tertiary structure in high alkaline conditions of pH 10-14, thereby retaining immunoglobulin IgG binding activity; preferably, wherein the magnetic core portion further comprises Fe 2 O 3, wherein the mass ratio of Fe 2 O 3:Fe 3 O 4 is 1:1 to 1:100.
A composition comprising the following: A) coated polymer particles, and wherein the polymer particles are formed from a first composition comprising an ethylene-based polymer that comprises the following properties: a density from 0.854 to 0.860 g/cc, and a melt index from 4.0 to 15.0 g/10 min; and wherein the polymer particles comprise a coating on at least a portion of the total surface of the polymer particles, and wherein the coating is formed from a powder composition comprising at least one inorganic powder, and at least one organic powder selected from a metal stearate and/or a polymer powder, and wherein the weight ratio of the total amount of the inorganic powder to the total amount of the organic powder is from 3.0 to 50.0; B) optionally, a propylene-based polymer. A) coated polymer particles, and wherein the polymer particles are formed from a first composition comprising an ethylene-based polymer that comprises the following properties: a density from 0.854 to 0.860 g/cc, and a melt index from 4.0 to 15.0 g/10 min; and wherein the polymer particles comprise a coating on at least a portion of the total surface of the polymer particles, and wherein the coating is formed from a powder composition comprising at least one inorganic powder, and at least one organic powder selected from a metal stearate and/or a polymer powder, and wherein the weight ratio of the total amount of the inorganic powder to the total amount of the organic powder is from 3.0 to 50.0; B) optionally, a propylene-based polymer.
A method of detecting valve movement of a valve in a fuel injector of an engine system, the valve comprising an electromagnetic actuator which is arranged to move the valve between first and second positions during a valve cycle, the method comprising: sampling the current through the actuator during a finite sampling window, analyzing the sampled current for current discontinuities, and determining valve movements in dependence upon the current discontinuities, characterised in that the method comprises (i) moving the sampling window start point relative to a time point for a first injection event to later start point relative to said time point for one or more subsequent injection events, said time point for a first injection event being either the end of the pull-in phase or the end of the hold phase; ii) repeating step i) with a progressively later time window start point relative to said time point, in respect of subsequent injections, until a glitch is detected in at least two sampling windows iii) calculating a new sampling window position on the basis of the two sampling windows in step (ii) in which a glitch has been detected; iv) to feed back the new sampling window position for a subsequent injection event. sampling the current through the actuator during a finite sampling window, analyzing the sampled current for current discontinuities, and determining valve movements in dependence upon the current discontinuities, characterised in that the method comprises (i) moving the sampling window start point relative to a time point for a first injection event to later start point relative to said time point for one or more subsequent injection events, said time point for a first injection event being either the end of the pull-in phase or the end of the hold phase; ii) repeating step i) with a progressively later time window start point relative to said time point, in respect of subsequent injections, until a glitch is detected in at least two sampling windows iii) calculating a new sampling window position on the basis of the two sampling windows in step (ii) in which a glitch has been detected; iv) to feed back the new sampling window position for a subsequent injection event. (i) moving the sampling window start point relative to a time point for a first injection event to later start point relative to said time point for one or more subsequent injection events, said time point for a first injection event being either the end of the pull-in phase or the end of the hold phase; ii) repeating step i) with a progressively later time window start point relative to said time point, in respect of subsequent injections, until a glitch is detected in at least two sampling windows iii) calculating a new sampling window position on the basis of the two sampling windows in step (ii) in which a glitch has been detected; iv) to feed back the new sampling window position for a subsequent injection event.
Method for operating a communication network, wherein the communication network comprises a plurality of subscribers, wherein data are interchanged in the communication network between the subscribers in the form of telegrams, wherein the telegrams have a plurality of data sections, wherein the subscribers interpret an end region of the telegrams as a check value for checking that preceding data sections of the telegrams do not have any errors, wherein the telegrams are processed on-the-fly by the subscribers, with the result that the telegrams are received by the subscribers and are forwarded to a next subscriber in each case during reception, wherein, if an error in a telegram is determined when receiving the telegram, the subscribers transmit the telegram to a next subscriber with a characterizing data section of the telegram at its end, with the result that the telegram transmitted to the next subscriber has an end region which represents an invalid check value, and wherein, with the aid of the characterizing data section, the telegram for the next subscriber is characterized such that the telegram should be taken into account as a subsequent error rather than an initial error, characterized in that the characterizing data section is part of that end region of the telegram which is interpreted as a check value. wherein data are interchanged in the communication network between the subscribers in the form of telegrams, wherein the telegrams have a plurality of data sections, wherein the subscribers interpret an end region of the telegrams as a check value for checking that preceding data sections of the telegrams do not have any errors, wherein the telegrams are processed on-the-fly by the subscribers, with the result that the telegrams are received by the subscribers and are forwarded to a next subscriber in each case during reception, wherein, if an error in a telegram is determined when receiving the telegram, the subscribers transmit the telegram to a next subscriber with a characterizing data section of the telegram at its end, with the result that the telegram transmitted to the next subscriber has an end region which represents an invalid check value, and wherein, with the aid of the characterizing data section, the telegram for the next subscriber is characterized such that the telegram should be taken into account as a subsequent error rather than an initial error, characterized in that the characterizing data section is part of that end region of the telegram which is interpreted as a check value.
An implantable medical device, comprising: a stimulator unit; an elongate electrode carrier in electrical communication with the stimulator unit; and an internal receiver unit, the internal receiver unit having a substantially convex contour defining a suction cup for attachment to a bone surface. a stimulator unit; an elongate electrode carrier in electrical communication with the stimulator unit; and an internal receiver unit, the internal receiver unit having a substantially convex contour defining a suction cup for attachment to a bone surface.
Yarn feeding device for knitting machines, warp knitting machines, weaving machines or other machines using yarns: comprising a housing which surrounds an inner chamber, comprising a yarn sensor, to which a yarn sensing element mounted movably on the yarn feeding device belongs, wherein the yarn sensing element is arranged outside the inner chamber of the yarn feeding device, comprising a sensor device, which comprises a transmitter element and a sensor element, wherein the sensor element generates a signal dependent on the position of the transmitter element, wherein the transmitter element is connected to the yarn sensing element and the transmitter element is arranged outside the inner chamber and wherein the sensor element is arranged in the inner chamber of the housing, or the sensor element is attached in the housing wall or on the outside of the wall of the housing or the sensor element is arranged in the form of a protective tube contact on an external side of a separate housing of an outlet stop device which is mounted adjustably on the housing. comprising a housing which surrounds an inner chamber, comprising a yarn sensor, to which a yarn sensing element mounted movably on the yarn feeding device belongs, wherein the yarn sensing element is arranged outside the inner chamber of the yarn feeding device, comprising a sensor device, which comprises a transmitter element and a sensor element, wherein the sensor element generates a signal dependent on the position of the transmitter element, wherein the transmitter element is connected to the yarn sensing element and the transmitter element is arranged outside the inner chamber and wherein the sensor element is arranged in the inner chamber of the housing, or the sensor element is attached in the housing wall or on the outside of the wall of the housing or the sensor element is arranged in the form of a protective tube contact on an external side of a separate housing of an outlet stop device which is mounted adjustably on the housing.
A vehicle control device for controlling a gear ratio of a continuously variable transmission and a throttle opening degree, the vehicle control device comprising: a basic engine revolution speed calculation unit being configured to calculate a basic engine revolution speed based on an accelerator operation amount and a vehicle speed; a target engine revolution speed calculation unit being configured to calculate a target engine revolution speed based on the basic engine revolution speed, the target engine revolution speed calculation unit being configured to switch the target engine revolution speed between a value equal to the basic engine revolution speed and a value smaller than the basic engine revolution speed; a target gear ratio calculation unit being configured to calculate a target gear ratio based on the target engine revolution speed; a basic engine torque calculation unit being configured to calculate a basic engine torque based on an accelerator operation amount and the basic engine revolution speed; a target throttle opening degree calculation unit being configured to calculate a target throttle opening degree based on the basic engine torque and the target engine revolution speed, the target throttle opening degree calculation unit being configured to reduce the target throttle opening degree after the target engine revolution speed is switched to the value smaller than the basic engine revolution speed; and an interruption instruction signal outputting unit being configured to output an interruption instruction signal for instruction of interruption of fuel supply to an engine after the target throttle opening degree reaches 0. a basic engine revolution speed calculation unit being configured to calculate a basic engine revolution speed based on an accelerator operation amount and a vehicle speed; a target engine revolution speed calculation unit being configured to calculate a target engine revolution speed based on the basic engine revolution speed, the target engine revolution speed calculation unit being configured to switch the target engine revolution speed between a value equal to the basic engine revolution speed and a value smaller than the basic engine revolution speed; a target gear ratio calculation unit being configured to calculate a target gear ratio based on the target engine revolution speed; a basic engine torque calculation unit being configured to calculate a basic engine torque based on an accelerator operation amount and the basic engine revolution speed; a target throttle opening degree calculation unit being configured to calculate a target throttle opening degree based on the basic engine torque and the target engine revolution speed, the target throttle opening degree calculation unit being configured to reduce the target throttle opening degree after the target engine revolution speed is switched to the value smaller than the basic engine revolution speed; and an interruption instruction signal outputting unit being configured to output an interruption instruction signal for instruction of interruption of fuel supply to an engine after the target throttle opening degree reaches 0.
A process for making a filter characterised by comprising the steps of a. placing polymer with a melt flow rate of less than 5 grams/10 minutes and of desired thickness of an end plate in a mould; b. mixing particulate filter media and polymeric binder having a melt flow rate less than 5 grams/10 minutes; c. adding the mixture of step (b) to the mould; d. heating said mold to a temperature in the range 150°C to 350°C e. demolding the molded filter. a. placing polymer with a melt flow rate of less than 5 grams/10 minutes and of desired thickness of an end plate in a mould; b. mixing particulate filter media and polymeric binder having a melt flow rate less than 5 grams/10 minutes; c. adding the mixture of step (b) to the mould; d. heating said mold to a temperature in the range 150°C to 350°C e. demolding the molded filter.
Method for transmitting sensor data, in which a sensor outputs an analogue signal, a digital signal is generated on the basis of the analogue signal, the digital signal is encrypted and both the analogue signal and the encrypted digital signal are transmitted to a receiving unit.
A surgical fixation system (10, 210), comprising: a button (12, 212) including a first aperture (20, 220) and a second aperture (20, 220); a loop (14, 214) connected to said first and second apertures (20, 220) of said button (12, 212); a graft (16, 216) carried by said loop (14, 214); and a reinforcement material (18, 218) connected to said first and second apertures (20, 220) of said button (12, 212) and unattached to either said graft (16, 216) or said loop (14, 214), wherein said reinforcement material (18, 218) is tensionable separately from said graft (16, 216). a button (12, 212) including a first aperture (20, 220) and a second aperture (20, 220); a loop (14, 214) connected to said first and second apertures (20, 220) of said button (12, 212); a graft (16, 216) carried by said loop (14, 214); and a reinforcement material (18, 218) connected to said first and second apertures (20, 220) of said button (12, 212) and unattached to either said graft (16, 216) or said loop (14, 214), wherein said reinforcement material (18, 218) is tensionable separately from said graft (16, 216).
A process for the production of a urea product to be diluted with water so as to form an aqueous urea comprising solution, the process comprising: (a) obtaining an aqueous urea stream from or after a recovery section in a urea production process; (b) subjecting said solution to flash crystallization at subatmospheric pressure, so as to obtain a crystallized urea powder and an ammonia and water containing vapor, wherein the crystallized urea powder contains less than 0.2 wt.% water; (c) packaging the crystallized urea powder as obtained in step (b) in a non water-permeable package under conditions such that the water content in the packaged product is maintained below 0.2 wt.%. (a) obtaining an aqueous urea stream from or after a recovery section in a urea production process; (b) subjecting said solution to flash crystallization at subatmospheric pressure, so as to obtain a crystallized urea powder and an ammonia and water containing vapor, wherein the crystallized urea powder contains less than 0.2 wt.% water; (c) packaging the crystallized urea powder as obtained in step (b) in a non water-permeable package under conditions such that the water content in the packaged product is maintained below 0.2 wt.%.
A tow assembly for an airborne electromagnetic surveying system, comprising: a semi-rigid transmitter coil frame supporting a transmitter coil, the transmitter coil frame being formed from a plurality of serially connected tubular frame sections (20, 22) forming a loop, the transmitter coil frame having articulating joints at a plurality of locations about a circumference thereof, each tubular frame section (20, 22) being rotatable relative to adjacent tubular frame sections (20, 22) about its axis, thereby enabling the transmitter coil frame to at least partially bend at the articulating joints permitting the shape of the transmitter coil frame to adjust during landing contact with a ground surface to reduce stress on the transmitter coil frame; and a suspension assembly for towing the transmitter coil frame behind an aircraft, the suspension assembly comprising a plurality of suspension ropes attached to the circumference of the transmitter coil frame at spaced apart locations. a semi-rigid transmitter coil frame supporting a transmitter coil, the transmitter coil frame being formed from a plurality of serially connected tubular frame sections (20, 22) forming a loop, the transmitter coil frame having articulating joints at a plurality of locations about a circumference thereof, each tubular frame section (20, 22) being rotatable relative to adjacent tubular frame sections (20, 22) about its axis, thereby enabling the transmitter coil frame to at least partially bend at the articulating joints permitting the shape of the transmitter coil frame to adjust during landing contact with a ground surface to reduce stress on the transmitter coil frame; and a suspension assembly for towing the transmitter coil frame behind an aircraft, the suspension assembly comprising a plurality of suspension ropes attached to the circumference of the transmitter coil frame at spaced apart locations.
A transmitter for generating a synchronisation signal for Device-to-Device, D2D, communication utilising a Single-Carrier Frequency Division Multiple Access, SC-FDMA, waveform, wherein a synchronisation sequence is modulating a set of subcarriers, wherein the transmitter comprises: a processor, configured to: determine a synchronisation sequence d u [ l], wherein | d u [ l]| = | d u [ L - 1 - l]|, l = 0,1,...,L - 1, and | d u [ l]| = K, where K is a positive constant, u is a root index, and L is a length of the synchronisation sequence d u [ l]; select the root index u from a set of root indices; and generate the synchronisation signal, based on the determined synchronisation sequence d u [ l] and the selected root index u, characterized in that the processor is configured to map the synchronisation sequence to resource elements of an SC-FDMA signal, wherein the SC-FDMA signal is a sampled version of the SC-FDMA waveform, such that: | H [ k]| = | H [ N - 1 - k]|, k = 0,1,..., N - 1, where N is an integer not smaller than L and H[k] is a Fourier coefficient at frequency k. determine a synchronisation sequence d u [ l], wherein | d u [ l]| = | d u [ L - 1 - l]|, l = 0,1,...,L - 1, and | d u [ l]| = K, where K is a positive constant, u is a root index, and L is a length of the synchronisation sequence d u [ l]; select the root index u from a set of root indices; and generate the synchronisation signal, based on the determined synchronisation sequence d u [ l] and the selected root index u, characterized in that the processor is configured to map the synchronisation sequence to resource elements of an SC-FDMA signal, wherein the SC-FDMA signal is a sampled version of the SC-FDMA waveform, such that: | H [ k]| = | H [ N - 1 - k]|, k = 0,1,..., N - 1, where N is an integer not smaller than L and H[k] is a Fourier coefficient at frequency k.
A method for disaster recovery, comprising: triggering a redundant Call Session Control Function, CSCF,; obtaining, by the redundant CSCF, the information of registered IP Multimedia Subsystem, IMS, Private User Identities, IMPIs, that are associated with IMS Public User Identity, IMPU, in an IMS subscription transmitted by a network storage entity of a user; wherein the network storage entity is a Home Subscriber Server, HSS; determining, by the redundant CSCF, an IMPU to be recovered according to the received information of the registered IMPIs, and requesting the network storage entity of the user to recover user service configuration data of the IMPU and user backup data of the IMPU; receiving, by the redundant CSCF, the user service configuration data of the IMPU and the user backup data of all IMPIs associated with the IMPU carried in a response returned by the network storage entity of the user; and recovering, by the redundant CSCF, a corresponding service according to the obtained user backup data of all IMPIs associated with the IMPU and user service configuration data of the IMPU in the IMS subscription. triggering a redundant Call Session Control Function, CSCF,; obtaining, by the redundant CSCF, the information of registered IP Multimedia Subsystem, IMS, Private User Identities, IMPIs, that are associated with IMS Public User Identity, IMPU, in an IMS subscription transmitted by a network storage entity of a user; wherein the network storage entity is a Home Subscriber Server, HSS; determining, by the redundant CSCF, an IMPU to be recovered according to the received information of the registered IMPIs, and requesting the network storage entity of the user to recover user service configuration data of the IMPU and user backup data of the IMPU; receiving, by the redundant CSCF, the user service configuration data of the IMPU and the user backup data of all IMPIs associated with the IMPU carried in a response returned by the network storage entity of the user; and recovering, by the redundant CSCF, a corresponding service according to the obtained user backup data of all IMPIs associated with the IMPU and user service configuration data of the IMPU in the IMS subscription.