mhurhangee/ep-ind-claims huggingface dataset:
A process for the distillation of temperature-sensitive liquids, namely of acrylic acid and its esters, wherein the liquid is heated and at least partly evaporated in a column, wherein the vapor is guided through a condenser provided inside the column, in which the vapor is at least partly condensed, and wherein the condensed liquid is at least partly withdrawn from the column, wherein the vapor not condensed yet is guided through the condenser cocurrently to the condensed liquid characterized in that in the column at least two series-connected condensers are provided, that the second condenser and/or further condensers are operated in cocurrent or countercurrent flow, that the condensate is collected in a condensate collector mounted in the interior of the column, that one part of the collected condensate is discharged from the column and the other part of the collected condensate is again charged to the column, and that the temperature profile of the column is controlled by the amount of condensate discharged.
An agent comprising: (i) a targeting moiety that is capable of targeting to tumour cells wherein the targeting moiety is an antibody or antigen binding fragment thereof; (ii) a peptide linker comprising a protease cleavage site; and (iii) a T cell antigen wherein the T cell antigen is a viral-derived peptide capable of binding to a MHC Class I molecule and/or MHC Class II molecule; wherein the T cell antigen can be released from the targeting moiety by cleavage of the cleavage site in the linker that is cleavable by a protease selectively in the vicinity of the tumour cells; wherein selective cleavage of the protease cleavage site enables release of the T cell antigen in the vicinity of, and outside of, the tumour cells; and wherein the agent is for preventing or treating a tumour. (i) a targeting moiety that is capable of targeting to tumour cells wherein the targeting moiety is an antibody or antigen binding fragment thereof; (ii) a peptide linker comprising a protease cleavage site; and (iii) a T cell antigen wherein the T cell antigen is a viral-derived peptide capable of binding to a MHC Class I molecule and/or MHC Class II molecule;
A method for driving a drop ejection device having an actuator and a nozzle, comprising: applying a multi-pulse waveform to the actuator, the waveform having at least two drive pulses (810, 820), a break off pulse following the at least two drive pulses; and building a drop of a fluid with the at least two drive pulses; and accelerating the break off of the drop forming at the nozzle using the break off pulse without causing formation of a sub-drop, characterized in that: - the at least two drive pulses are tuned with an effective pulse frequency at approximately a maximum drop velocity in a drop velocity versus frequency response graph of the drop ejection device and the break off pulse is at approximately a minimum drop velocity in a drop velocity versus frequency response graph of the drop ejection device, to avoid causing formation of the sub-drop. applying a multi-pulse waveform to the actuator, the waveform having at least two drive pulses (810, 820), a break off pulse following the at least two drive pulses; and building a drop of a fluid with the at least two drive pulses; and accelerating the break off of the drop forming at the nozzle using the break off pulse without causing formation of a sub-drop, characterized in that: - the at least two drive pulses are tuned with an effective pulse frequency at approximately a maximum drop velocity in a drop velocity versus frequency response graph of the drop ejection device and the break off pulse is at approximately a minimum drop velocity in a drop velocity versus frequency response graph of the drop ejection device, to avoid causing formation of the sub-drop. - the at least two drive pulses are tuned with an effective pulse frequency at approximately a maximum drop velocity in a drop velocity versus frequency response graph of the drop ejection device and the break off pulse is at approximately a minimum drop velocity in a drop velocity versus frequency response graph of the drop ejection device, to avoid causing formation of the sub-drop.
A lighting system (30, 40, 50) for producing white light, the system comprising: a first light emitting diode (32; 42, 44; 52, 54) arranged to emit red light, a second light emitting diode (34, 46, 56) arranged to emit green light, and a phosphor-light emitting diode (36, 48, 58) disposed adjacent to the first and second light emitting diode and that comprises a blue light emitting diode and at least one phosphor that converts a portion of the blue light into one of a green light and a red light. a first light emitting diode (32; 42, 44; 52, 54) arranged to emit red light, a second light emitting diode (34, 46, 56) arranged to emit green light, and a phosphor-light emitting diode (36, 48, 58) disposed adjacent to the first and second light emitting diode and that comprises a blue light emitting diode and at least one phosphor that converts a portion of the blue light into one of a green light and a red light.
A human plasma-derived IgM-enriched immunoglobulin preparation, said immunoglobulin preparation not having been chemically modified and/or treated with beta-propiolactone, for use in adjunctive treatment of severe Community Acquired Pneumonia (sCAP) in a patient, wherein said patient has a serum CRP level of at least 70 mg/l, wherein the immunoglobulin preparation comprises from 10 to 40% by weight IgM of the total immunoglobulin content.
A method for managing an Android Debug Bridge, ADB, communication port, comprising: a) associating a vendor ID and a product ID of an ADB device with a preset interface number; b) adding functional compound information to attribute information of the ADB device, wherein the functional compound information includes the vendor ID and the product ID of the ADB device and the corresponding interface number; c) setting descriptor information of the ADB device as preset descriptor information; d) adding the preset vendor ID, the preset product ID and a corresponding interface number to an ADB driver information file of a PC device; e) modifying an ADB communication port number into a preset port number in an ADB communication program of the PC device; wherein the preset port number is any port number except the default ADB standard port number; f) connecting the ADB device to the PC device; g) installing a corresponding ADB driver by the PC device according to the ADB driver information file corresponding to the vendor ID and the product ID if it is determined by the PC device that the vendor ID and the product ID of the ADB device and the corresponding interface number match the preset vendor ID, the preset product ID and the corresponding interface number and that the descriptor information of the ADB device is the preset descriptor information; and h) setting the ADB communication port number between the PC device and the ADB device as the preset port number. a) associating a vendor ID and a product ID of an ADB device with a preset interface number; b) adding functional compound information to attribute information of the ADB device, wherein the functional compound information includes the vendor ID and the product ID of the ADB device and the corresponding interface number; c) setting descriptor information of the ADB device as preset descriptor information; d) adding the preset vendor ID, the preset product ID and a corresponding interface number to an ADB driver information file of a PC device; e) modifying an ADB communication port number into a preset port number in an ADB communication program of the PC device; wherein the preset port number is any port number except the default ADB standard port number; f) connecting the ADB device to the PC device; g) installing a corresponding ADB driver by the PC device according to the ADB driver information file corresponding to the vendor ID and the product ID if it is determined by the PC device that the vendor ID and the product ID of the ADB device and the corresponding interface number match the preset vendor ID, the preset product ID and the corresponding interface number and that the descriptor information of the ADB device is the preset descriptor information; and h) setting the ADB communication port number between the PC device and the ADB device as the preset port number.
A device (102, 200, 300) comprising: a bootloader; a memory configured to store firmware data for controlling the device (102, 200, 300); a processor configured to operate in a device operation mode or in a bootloader mode; an interface; a validity checker configured to check whether the firmware data stored in the memory is valid; and a mode changer configured to change from the device operation mode to the bootloader mode if it is determined that the firmware data stored in the memory is not valid; wherein the device operation mode is a mode in which the processor controls the bootloader to load the firmware data stored in the memory; wherein the bootloader mode is a mode in which the processor controls the bootloader to send an identifier of the device (102, 200, 300) to an updater (104, 400) using the interface, to receive firmware data from the updater (104, 400) using the interface and to store the firmware data in the memory; wherein the device (102, 200, 300) is configured to set a flash flag when the processor is operating in the bootloader mode, wherein the flash flag is cleared only after the device (102, 200, 300) is successfully programmed with the stored firmware data; and wherein the device (102, 200, 300) is configured to operate in the bootloader mode upon detection that the flash flag is set. a bootloader; a memory configured to store firmware data for controlling the device (102, 200, 300); a processor configured to operate in a device operation mode or in a bootloader mode; an interface; a validity checker configured to check whether the firmware data stored in the memory is valid; and a mode changer configured to change from the device operation mode to the bootloader mode if it is determined that the firmware data stored in the memory is not valid; wherein the device operation mode is a mode in which the processor controls the bootloader to load the firmware data stored in the memory; wherein the bootloader mode is a mode in which the processor controls the bootloader to send an identifier of the device (102, 200, 300) to an updater (104, 400) using the interface, to receive firmware data from the updater (104, 400) using the interface and to store the firmware data in the memory; wherein the device (102, 200, 300) is configured to set a flash flag when the processor is operating in the bootloader mode, wherein the flash flag is cleared only after the device (102, 200, 300) is successfully programmed with the stored firmware data; and wherein the device (102, 200, 300) is configured to operate in the bootloader mode upon detection that the flash flag is set.
Use of (a) a nuclear reprogramming substance and (b) an H1foo gene or a gene product thereof for improving quality of an iPS cell, the nuclear reprogramming substance being the following or: consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, and a Klf4 gene or a gene product thereof, consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, a Klf4 gene or a gene product thereof, and an L-Myc gene or a gene product thereof. consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, and a Klf4 gene or a gene product thereof, consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, a Klf4 gene or a gene product thereof, and an L-Myc gene or a gene product thereof.
A light driving device comprising: a housing and a driving unit disposed inside the housing and adapted to output a lighting dimming signal, the lighting driving device being characterized in that the driving unit includes first and second interface parts (211, 212) to which first and second dimming interface modules (300, 400) are detachably coupled, respectively, and a controller adapted to determine a kind of dimming interface module when said first and second dimming interface modules are coupled with at least one respective interface part of the first and second interface parts, adapted to set a dimming mode according to the kind of determined dimming interface module, adapted to receive a control command from said first and second dimming interface modules coupled with said at least one respective interface part, and adapted to output the lighting dimming signal according to the received control command based on the set dimming mode, wherein each of the first and second interface parts comprise: a pin (P2, P9) configured to receive module recognition information from said dimming interface modules coupled with the first and second interface parts, and wherein the controller is configured to determine the kind of dimming interface modules connected to the first and second interface parts using the module recognition information. a housing and a driving unit disposed inside the housing and adapted to output a lighting dimming signal, the lighting driving device being characterized in that the driving unit includes first and second interface parts (211, 212) to which first and second dimming interface modules (300, 400) are detachably coupled, respectively, and a controller adapted to determine a kind of dimming interface module when said first and second dimming interface modules are coupled with at least one respective interface part of the first and second interface parts, adapted to set a dimming mode according to the kind of determined dimming interface module, adapted to receive a control command from said first and second dimming interface modules coupled with said at least one respective interface part, and adapted to output the lighting dimming signal according to the received control command based on the set dimming mode, wherein each of the first and second interface parts comprise: a pin (P2, P9) configured to receive module recognition information from said dimming interface modules coupled with the first and second interface parts, and wherein the controller is configured to determine the kind of dimming interface modules connected to the first and second interface parts using the module recognition information. a pin (P2, P9) configured to receive module recognition information from said dimming interface modules coupled with the first and second interface parts, and wherein the controller is configured to determine the kind of dimming interface modules connected to the first and second interface parts using the module recognition information.
A method of a User Equipment, in the following also referred to as UE, the method comprising: keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, connected state, wherein the UE is configured with the dedicated PUR configuration in a first cell; characterized by further comprising: initiating a handover procedure responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element, wherein the handover procedure is performed to change a serving cell of the UE from the first cell to a second cell; and determining whether to release or keep the dedicated PUR configuration based upon whether or not the RRCConnectionReconfiguration message comprises a fullConfig, wherein: the UE keeps the dedicated PUR configuration if the RRCConnectionReconfiguration message does not comprise the fullConfig, and the UE releases the dedicated PUR configuration if the RRCConnectionReconfiguration message comprises the fullConfig. keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, connected state, wherein the UE is configured with the dedicated PUR configuration in a first cell; characterized by further comprising: initiating a handover procedure responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element, wherein the handover procedure is performed to change a serving cell of the UE from the first cell to a second cell; and determining whether to release or keep the dedicated PUR configuration based upon whether or not the RRCConnectionReconfiguration message comprises a fullConfig, wherein: the UE keeps the dedicated PUR configuration if the RRCConnectionReconfiguration message does not comprise the fullConfig, and the UE releases the dedicated PUR configuration if the RRCConnectionReconfiguration message comprises the fullConfig. initiating a handover procedure responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element, wherein the handover procedure is performed to change a serving cell of the UE from the first cell to a second cell; and determining whether to release or keep the dedicated PUR configuration based upon whether or not the RRCConnectionReconfiguration message comprises a fullConfig, wherein: the UE keeps the dedicated PUR configuration if the RRCConnectionReconfiguration message does not comprise the fullConfig, and the UE releases the dedicated PUR configuration if the RRCConnectionReconfiguration message comprises the fullConfig. the UE keeps the dedicated PUR configuration if the RRCConnectionReconfiguration message does not comprise the fullConfig, and the UE releases the dedicated PUR configuration if the RRCConnectionReconfiguration message comprises the fullConfig.
A method for reducing oxidative degradation of a lubricant composition which contains an oil of lubricating viscosity and at least 1 percent by weight of a C1-C4 alkyl ester of a carboxylic acid of 12 to 24 carbon atoms, comprising including within said lubricant composition a sulfonate detergent in an amount sufficient to provide at least 0.2 percent by weight sulfonate soap to the lubricant composition, wherein the weight ratio of sulfonate soap to phenate soap in the lubricant composition is from 1.2:1 to 500:1.
A method of analyzing the heat quantity distribution in a heating system having heating surfaces, for each of which a local supply pump is provided in a return of the heating surface, the local supply pump individually regulating the heating medium inflow for the respective heating surface in a decentralized manner, wherein operating parameters of the local supply pumps are constantly centrally collected and controlled via a network system, the method comprising the following steps: - determining return temperatures (TRi) of the heating surfaces; - determining supply temperatures (TVi) of the heating surfaces; - determining volume flows (dVi/dt) of the heating medium moving through the heating surfaces by evaluating an operating parameter of the local supply pumps; and - calculating the heat quantities (Ei) emitted by the heating surfaces from the determined return temperatures (TRi), supply temperatures (TVi) and volume flows (dVi/dt). - determining return temperatures (TRi) of the heating surfaces; - determining supply temperatures (TVi) of the heating surfaces; - determining volume flows (dVi/dt) of the heating medium moving through the heating surfaces by evaluating an operating parameter of the local supply pumps; and - calculating the heat quantities (Ei) emitted by the heating surfaces from the determined return temperatures (TRi), supply temperatures (TVi) and volume flows (dVi/dt).
Device for detecting whether a bedridden person leaves his bed or has left his bed or has fallen after leaving his bed, the device comprising a detector having a detection field capable of covering at least part of the bed and at least part of its environment, said detector having several distance sensors, wherein each distance sensor is capable of providing distance measurements over time between said sensor and a corresponding obstacle in said detection field, said device further comprising a processing unit connected to the sensor and configured to process the distance measurements provided by the distance sensors of the sensor, characterised in that the treatment unit is configured to determine the spatial position of each of said obstacles over time and according to the distance measured by the detector for the obstacle in question, and to classify each obstacle according to whether the obstacle is located in a first volume or in a second volume in space, the first volume being a volume extending vertically upwards and/or downwards from the surface of said bed, the second volume being a volume extending outwards from the lateral limits of the first volume, and in that the treatment unit is configured to determine an event concerning said person if the distance measured for at least one obstacle located in the second volume varies over time by more than a first predetermined value.
An absorbent article comprising a main body having a liquid-permeable topsheet, a liquid-impermeable backsheet and an absorbent core sandwiched between said topsheet and said backsheet, said main body being arranged along a longitudinal axis and a transversal axis extending in a perpendicular direction in relation to the longitudinal axis, said main body defining a front portion, a back portion and a crotch portion; wherein said article comprises a first wing and a second wing extending outwardly from said crotch portion of the main body in opposite directions in an asymmetric manner with reference to the longitudinal axis, and generally along said transversal axis, said wings (9, 10) being provided with fastening means (11, 12) configured for fastening said wings (9, 10) to a garment when being folded over said main body and towards said longitudinal axis, characterized in that each wing (9, 10) is formed with an outer edge which defines at least one arc of a circle coinciding with a section of the outer edge and having a defined radius (r), said section extending between a first point on the outer edge and a second point along said outer edge where said arc no longer coincides with said outer edge, wherein said radius (r) is within the interval of 40-500 mm, and wherein said outer edge includes said first point in the form of a transversally outermost point, said section extending from said outermost point and to said second point.
A method for cooperative perimeter monitoring, comprising: completing a radar scan with a network of outer perimeter radar nodes; detecting an intrusion event with the network of outer perimeter radar nodes based on the radar scan; notifying at least one inner perimeter radar node in a network of inner perimeter radar nodes of the intrusion event; activating the at least one inner perimeter radar node from an idle mode in response to the notification of the intrusion event; and completing a radar scan with the at least one inner perimeter radar node upon activation. completing a radar scan with a network of outer perimeter radar nodes; detecting an intrusion event with the network of outer perimeter radar nodes based on the radar scan; notifying at least one inner perimeter radar node in a network of inner perimeter radar nodes of the intrusion event; activating the at least one inner perimeter radar node from an idle mode in response to the notification of the intrusion event; and completing a radar scan with the at least one inner perimeter radar node upon activation.