mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling link adaptation of a terminal in a mobile communication system, the method comprising: measuring channel states of a control channel region and a data channel region of downlink, respectively, the control channel region and the data channel region being divided in a time domain; determining whether a channel discrepancy report related to a difference between a first channel state of the control channel region and a second channel state of the data channel region is triggered based on the measured channel states; generating the channel discrepancy report, when the channel discrepancy report is triggered; transmitting, when the channel discrepancy report is triggered, channel state information and the channel discrepancy report to a base station using preset uplink channels. measuring channel states of a control channel region and a data channel region of downlink, respectively, the control channel region and the data channel region being divided in a time domain; determining whether a channel discrepancy report related to a difference between a first channel state of the control channel region and a second channel state of the data channel region is triggered based on the measured channel states; generating the channel discrepancy report, when the channel discrepancy report is triggered; transmitting, when the channel discrepancy report is triggered, channel state information and the channel discrepancy report to a base station using preset uplink channels.
A method of prioritizing Downlink, DL, transmission in a Time Division Duplex, TDD, wireless communication system providing a channel sensing mechanism, the method comprising: - transmitting, by an access network node of the wireless communication system, an Uplink, UL, grant to a wireless communication device, the UL grant indicating that an UL transmission is planned in one or more first subframes; and - prioritizing, by the access network node, Downlink, DL, transmission in one or more second subframes over the planned UL transmission, the one or more second subframes at least partially overlapping with the one or more first subframes, characterized in that the step of prioritizing comprises adapting, by the access network node, at least one of: - one or more channel sensing parameters of the planned UL transmission, and - one or more channel sensing parameters of the DL transmission, wherein the step of adapting comprises at least one of: - decreasing a duration of sensing, by the access network node, a wireless communication medium before starting the DL transmission, and - increasing a duration of sensing, by the wireless communication device, a wireless communication medium before starting the planned UL transmission. - transmitting, by an access network node of the wireless communication system, an Uplink, UL, grant to a wireless communication device, the UL grant indicating that an UL transmission is planned in one or more first subframes; and - prioritizing, by the access network node, Downlink, DL, transmission in one or more second subframes over the planned UL transmission, the one or more second subframes at least partially overlapping with the one or more first subframes, - one or more channel sensing parameters of the planned UL transmission, and - one or more channel sensing parameters of the DL transmission, - decreasing a duration of sensing, by the access network node, a wireless communication medium before starting the DL transmission, and - increasing a duration of sensing, by the wireless communication device, a wireless communication medium before starting the planned UL transmission.
A method for producing a desired recombinant protein, polypeptide or peptide comprising culturing a Chinese Hamster Ovary host cell in a culture medium, wherein the host cell constitutively expresses the desired recombinant protein, polypeptide or peptide, and the CHO host cell line constitutively expresses human growth hormone (hGH), wherein the desired recombinant protein, polypeptide or peptide is a bio-pharmaceutical.
A method to estimate a computing capacity of a computing machine, said computing machine being one of a physical computing machine, a partition thereof, or a virtual computing machine, said method comprising: - running on the computing machine a number of calibrated computer processes, each of the computer processes having a calibrated computing load, a calibrated computing load being defined by one or more of a CPU load, a memory load, or a bandwidth load, the calibrated computing loads of the calibrated computer processes having a number of values; - checking if an output of the computing machine matches or is better than a performance threshold, the performance threshold being defined by one or more of a quality parameter of the output and a latency parameter between an input into the computing machine and an output from the computing machine; - iteratively adding or removing a calibrated computer process of a selected value in the number of values of a calibrated computing load until a stop criterion defined by a required level of precision is achieved, said selected value of the calibrated computing load decreasing over successive iterations; and - calculating the computing capacity of the computing machine as the sum of the calibrated computing loads of the calibrated computer processes running on the computing machine when the stop criterion is achieved. - running on the computing machine a number of calibrated computer processes, each of the computer processes having a calibrated computing load, a calibrated computing load being defined by one or more of a CPU load, a memory load, or a bandwidth load, the calibrated computing loads of the calibrated computer processes having a number of values; - checking if an output of the computing machine matches or is better than a performance threshold, the performance threshold being defined by one or more of a quality parameter of the output and a latency parameter between an input into the computing machine and an output from the computing machine; - iteratively adding or removing a calibrated computer process of a selected value in the number of values of a calibrated computing load until a stop criterion defined by a required level of precision is achieved, said selected value of the calibrated computing load decreasing over successive iterations; and - calculating the computing capacity of the computing machine as the sum of the calibrated computing loads of the calibrated computer processes running on the computing machine when the stop criterion is achieved.
A catheter for ultrasonic-driven bladder therapeutic agent delivery, comprising: a tube having (i) a first, proximal expandable portion, expandable via a respective first fluid port, (ii) a second expandable portion expandable via a respective second fluid port, and (iii) a distal end, comprising a therapeutic fluid port configured to supply therapeutic fluid into the bladder; and at least one inflatable transducer sleeve (22/122), accommodating at least one ultrasound transducer, and mounted on said tube between said first, proximal expandable portion and said at least one second expandable portion, characterised in that said inflatable transducer sleeve is inflatable via one or more second fluid ports (115A, 115B), and wherein said inflatable transducer sleeve comprises degassed acoustic fluid, configured to allow acoustic waves to travel from the at least one ultrasound transducer to the transducer sleeve without generating cavitation. a tube having (i) a first, proximal expandable portion, expandable via a respective first fluid port, (ii) a second expandable portion expandable via a respective second fluid port, and (iii) a distal end, comprising a therapeutic fluid port configured to supply therapeutic fluid into the bladder; and at least one inflatable transducer sleeve (22/122), accommodating at least one ultrasound transducer, and mounted on said tube between said first, proximal expandable portion and said at least one second expandable portion, characterised in that said inflatable transducer sleeve is inflatable via one or more second fluid ports (115A, 115B), and wherein said inflatable transducer sleeve comprises degassed acoustic fluid, configured to allow acoustic waves to travel from the at least one ultrasound transducer to the transducer sleeve without generating cavitation.
A collapsible bread dough rising box, comprising: a bottom member; a top member; a middle member; and a heating element cooperative with one of the bottom member, the top member and the collapsible middle member, the heating element being able to warm an interior space formed by the bottom member, the top member and the collapsible middle member when the bread dough rising box is in the fully assembled configuration; characterized in that the middle member is collapsible, the collapsible middle member being foldable so as to fit between the bottom member and the top member when the bread dough rising box is in a storage configuration, the collapsible middle member forming side walls of the bread dough rising box when the collapsible middle member is unfolded and installed between the bottom member and the top member, and the top member placed on top of upper edges of the middle member thereby forming a closed box between the top member, the side walls of the middle member and the bottom member when the bread dough rising box is in a fully assembled configuration, wherein the collapsible middle member is attached to the bottom member by a hinge that allows the collapsible middle member to transition between the storage configuration and the fully assembled configuration while remaining attached to the bottom member. a bottom member; a top member; a middle member; and a heating element cooperative with one of the bottom member, the top member and the collapsible middle member, the heating element being able to warm an interior space formed by the bottom member, the top member and the collapsible middle member when the bread dough rising box is in the fully assembled configuration; characterized in that the middle member is collapsible, the collapsible middle member being foldable so as to fit between the bottom member and the top member when the bread dough rising box is in a storage configuration, the collapsible middle member forming side walls of the bread dough rising box when the collapsible middle member is unfolded and installed between the bottom member and the top member, and the top member placed on top of upper edges of the middle member thereby forming a closed box between the top member, the side walls of the middle member and the bottom member when the bread dough rising box is in a fully assembled configuration, wherein the collapsible middle member is attached to the bottom member by a hinge that allows the collapsible middle member to transition between the storage configuration and the fully assembled configuration while remaining attached to the bottom member.
Milling machine for producing a dental component, such as a crown or an abutment, from a blank, wherein said milling machine comprises a stop and a holder for said blank, characterized in that said holder is designed such that it can be surrounded by a mounting, which surrounds said holder, of said blank, and the surrounding mounting of said blank can be brought into contact with said stop for positioning purposes, characterized in that devices are provided on said holder for a detachable connection to said surrounding mounting and the devices comprise at least one thread for a screw, wherein the means are suitable for fixating a blank being inserted into the milling machine by insertion of a correspondingly shaped screw so that motions or misalignments of the blank in the direction of of rotation can be avoided, wherein said holder comprises two threads for screws, where a connecting line of said threads extends through the longitudinal axis of said holder.
A pump arrangement, configured to be used with a double breast pump device comprising two expression kits (2, 3), each expression kit (2, 3) being designed to subject a breast of a user of the device to a pressure profile and to receive milk expressed from the breast, the pump arrangement comprising: - a pump configured to create the pressure profile in the expression kits (2, 3), and - a first air conduit and a second air conduit, each air conduit (65, 66) being designed to allow for air connection of an expression kit (2, 3) to the pump arrangement, - wherein the first air conduit is connectable to and disconnectable from a suction side of the pump through a first suction switching mechanism, - wherein the first air conduit is connectable to and disconnectable from a discharge side of the pump through a first discharge switching mechanism, - wherein the second air conduit is connectable to and disconnectable from the suction side of the pump through a second suction switching mechanism, - wherein the second air conduit is connectable to and disconnectable from the discharge side of the pump through a second discharge switching mechanism, and - wherein the first air conduit and the second air conduit are connectable to and disconnectable from each other directly through an intermediate switching mechanism arranged between the air conduits (65, 66) at a bypass position with respect to the pump. - a pump configured to create the pressure profile in the expression kits (2, 3), and - a first air conduit and a second air conduit, each air conduit (65, 66) being designed to allow for air connection of an expression kit (2, 3) to the pump arrangement, - wherein the first air conduit is connectable to and disconnectable from a suction side of the pump through a first suction switching mechanism, - wherein the first air conduit is connectable to and disconnectable from a discharge side of the pump through a first discharge switching mechanism, - wherein the second air conduit is connectable to and disconnectable from the suction side of the pump through a second suction switching mechanism, - wherein the second air conduit is connectable to and disconnectable from the discharge side of the pump through a second discharge switching mechanism, and - wherein the first air conduit and the second air conduit are connectable to and disconnectable from each other directly through an intermediate switching mechanism arranged between the air conduits (65, 66) at a bypass position with respect to the pump.
An electronic cigarette, comprising: an atomization assembly and a battery assembly; the atomization assembly being disposed on the battery assembly; the atomization assembly comprising an e-liquid storage tank and a limit cover disposed in the e-liquid storage tank, and the limit cover comprising an air intake and an air passage; wherein: the e-liquid storage tank comprises a side wall, a vertical air passage disposed along the side wall, and a bottom air passage communicating with the vertical air passage and the air intake of the limit cover; and the side wall comprises an air inlet communicating with the vertical air passage; and when in use, air enters the atomization assembly via the air inlet, sinks along the vertical air passage and enters the bottom air passage of the atomization assembly, passes through the air intake of the limit cover, flows upwards in the air passage of the limit cover, and discharges from a top part of the atomization assembly; characterised in that: the atomization assembly further comprises a memory foam, a heating wire, and a fixed seat; the memory foam is wrapped around the heating wire and disposed in the fixed seat. the e-liquid storage tank comprises a side wall, a vertical air passage disposed along the side wall, and a bottom air passage communicating with the vertical air passage and the air intake of the limit cover; and the side wall comprises an air inlet communicating with the vertical air passage; and when in use, air enters the atomization assembly via the air inlet, sinks along the vertical air passage and enters the bottom air passage of the atomization assembly, passes through the air intake of the limit cover, flows upwards in the air passage of the limit cover, and discharges from a top part of the atomization assembly;
A method for fabricating a ceramic component for use in a turbine engine, the method comprising: infiltrating the porous structure with a mixture that includes a preceramic polymer material and a filler, the filler including at least one free metal selected from a group consisting of silicon, boron, titanium, vanadium, chromium, zirconium, niobium, molybdenum, ruthenium, rhodium, hafnium, tantalum, tungsten, rhenium, osmium, iridium and combinations thereof; rigidizing the preceramic polymer material to form a green body; and thermally treating the green body to convert the rigidized preceramic polymer material into a ceramic matrix within pores of the porous structure, wherein the thermal treatment or a second, further thermal treatment, is used to cause the at least one free metal to move to internal porosity defined by the ceramic matrix and that results from the conversion of rigidized preceramic polymer material to ceramic, or residual open pores of the porous structure, so that a free metal at least partially fills the internal porosity or open pores of the ceramic component, wherein the filler includes ceramic particles coated with the at least one free metal. infiltrating the porous structure with a mixture that includes a preceramic polymer material and a filler, the filler including at least one free metal selected from a group consisting of silicon, boron, titanium, vanadium, chromium, zirconium, niobium, molybdenum, ruthenium, rhodium, hafnium, tantalum, tungsten, rhenium, osmium, iridium and combinations thereof; rigidizing the preceramic polymer material to form a green body; and thermally treating the green body to convert the rigidized preceramic polymer material into a ceramic matrix within pores of the porous structure, wherein the thermal treatment or a second, further thermal treatment, is used to cause the at least one free metal to move to internal porosity defined by the ceramic matrix and that results from the conversion of rigidized preceramic polymer material to ceramic, or residual open pores of the porous structure, so that a free metal at least partially fills the internal porosity or open pores of the ceramic component, wherein the filler includes ceramic particles coated with the at least one free metal.
Arrangement for providing electrical energy for an electronic circuit, comprising the electronic circuit configured for supplying a load, wherein the electronic circuit comprises a logic circuit and a charge pump for supplying a MOSFET, wherein a terminal for a supply voltage of the circuit is connected to a positive pole of an energy source and a terminal for earth of the logic circuit is connected to a negative pole of the energy source via a rectifying electronic component, and wherein a capacitor for partially supplying the circuit with electrical energy is connected between the two terminals of the circuit, characterized in that the rectifying electronic component is inserted upstream of the terminal for earth of the logic circuit and the load is directly connected to earth, for buffering a supply voltage for the logic circuit of the circuit.
A method of printing a multi-structured three-dimensional object comprising: forming a layer of sinterable material; processing a first portion of the sinterable material using a first set of processing parameters; processing a second portion of the sinterable material using a second set of processing parameters; wherein the processed first and second portions form, respectively, parts of a first and second structure of a multi-structured 3D object, and wherein the first and second sets of processing parameters are such that the first and second structures are formed with different levels of fusing of the sinterable material; characterised in that: using a first set of processing parameters comprises applying to the first portion of sinterable material, a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material, a fusing agent having a second ink density. processing a first portion of the sinterable material using a first set of processing parameters; processing a second portion of the sinterable material using a second set of processing parameters; wherein the processed first and second portions form, respectively, parts of a first and second structure of a multi-structured 3D object, and wherein the first and second sets of processing parameters are such that the first and second structures are formed with different levels of fusing of the sinterable material; characterised in that: using a first set of processing parameters comprises applying to the first portion of sinterable material, a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material, a fusing agent having a second ink density. using a first set of processing parameters comprises applying to the first portion of sinterable material, a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material, a fusing agent having a second ink density.
A radiation imaging apparatus comprising: a pixel unit in which a plurality of pixels each including a conversion element configured to convert radiation into charges, and a switch element are arranged in a matrix; a driving circuit configured to control the switch elements via a plurality of drive lines (Vg) extending in a row direction; a bias power supply unit configured to supply a bias potential to the conversion element via a bias line (Bs); a plurality of column signal lines (Sig) to which signals are output from the plurality of pixels via the switch elements; and a detection unit, wherein the plurality of pixels include a first pixel and a second pixel, which are adjacent to each other in the row direction and are connected to a common column signal line in the plurality of column signal lines (Sig), the switch element of the first pixel and the switch element of the second pixel are connected to drive lines different from each other in the plurality of drive lines (Vg), and the detection unit determines presence/absence of radiation irradiation based on a current flowing to the bias line (Bs); characterized in that in an orthographic projection to the pixel unit, at a portion where the plurality of drive lines cross the bias line, at least one of a width of the plurality of drive lines and a width of the bias line is narrower than in remaining portions. the plurality of pixels include a first pixel and a second pixel, which are adjacent to each other in the row direction and are connected to a common column signal line in the plurality of column signal lines (Sig), the switch element of the first pixel and the switch element of the second pixel are connected to drive lines different from each other in the plurality of drive lines (Vg), and the detection unit determines presence/absence of radiation irradiation based on a current flowing to the bias line (Bs); characterized in that in an orthographic projection to the pixel unit, at a portion where the plurality of drive lines cross the bias line, at least one of a width of the plurality of drive lines and a width of the bias line is narrower than in remaining portions.