mhurhangee/ep-ind-claims huggingface dataset:
A detection method for dioxin compounds in serum comprising the following steps: 1) preparing a transformed cell line by introducing a recombinant vector comprising a gene construct, in which at least one of dioxin-responsive elements represented by SEQ. ID. NO: 1, a promoter, and a reporter gene are operably linked, into a host cell, wherein the host cell expresses ARNT and AhR endogenously; wherein the promoter is any one selected from the group consisting of MMTV (Mouse Mammary Tumor Virus) promoter, SV40 promoter, and CMV (cytomegalovirus) promoter, wherein the reporter gene is any one selected from the group consisting of luciferase, alkaline phosphatase, chloramphenicol acetyl transferase, and β-galactosidase, and wherein the host cell is the mammalian tumor cell line; 2) preparing a sample by heat-inactivating the total serum isolated from a test subject; 3) culturing the transformed cell line prepared in step 1) with the sample obtained in step 2); and 4) detecting the expression of the protein expressed by the reporter gene in the transformed cell line cultured in step 3). 1) preparing a transformed cell line by introducing a recombinant vector comprising a gene construct, in which at least one of dioxin-responsive elements represented by SEQ. ID. NO: 1, a promoter, and a reporter gene are operably linked, into a host cell, wherein the host cell expresses ARNT and AhR endogenously; wherein the promoter is any one selected from the group consisting of MMTV (Mouse Mammary Tumor Virus) promoter, SV40 promoter, and CMV (cytomegalovirus) promoter, wherein the reporter gene is any one selected from the group consisting of luciferase, alkaline phosphatase, chloramphenicol acetyl transferase, and β-galactosidase, and wherein the host cell is the mammalian tumor cell line; 2) preparing a sample by heat-inactivating the total serum isolated from a test subject; 3) culturing the transformed cell line prepared in step 1) with the sample obtained in step 2); and 4) detecting the expression of the protein expressed by the reporter gene in the transformed cell line cultured in step 3).
A method of processing a data packet in a communication of an inductive wireless power transmission system, the data packet comprising a header part and a message part, said header part comprising at least one bit for indicating the type of said data packet, characterized in said method comprising a step of: - obtaining the size information of said data packet, based on said at least one bit; the at least one bit being comprised in a byte having a value x related to a size of the message part according to: x Message part Size 0x00∼0x1F 1+(x-0)/32 0x20∼0x7F 2+(x-32)/16 0x80∼0xDF 8+(x-128) / 8 0xE0∼0xFF 20+(x-224)/4 - obtaining the size information of said data packet, based on said at least one bit; the at least one bit being comprised in a byte having a value x related to a size of the message part according to: x Message part Size 0x00∼0x1F 1+(x-0)/32 0x20∼0x7F 2+(x-32)/16 0x80∼0xDF 8+(x-128) / 8 0xE0∼0xFF 20+(x-224)/4
Method for operating an electrical appliance with an operating device which includes a plurality of operating elements (17, 19), wherein one of the operating elements forms an On/Off switch and is a touch-sensitive switch or is operable by a light tracking force, wherein, starting from an On-condition of the electrical appliance, by actuating the On/Off switch for a time period above a switching limit value the electrical appliance is switched off and taken to the Off-condition, characterized in that, starting from the On-condition of the electrical appliance, by actuating said On/Off switch for a time period below said switching limit value an additional function or a submenu of the electrical appliance is made operable.
A fluid flow regulator comprising: a valve chamber having a fluid inlet and a fluid outlet; and a valve member inside the valve chamber, the valve member moveable inside the valve chamber to and from a valve seat, defining a flow opening there between, and arranged to adjust the size of the flow opening in dependence of the pressure of a fluid and/or flow rate; characterized in that said valve member is shaped concave prior to arranging said valve member in said valve chamber, such that said valve member is not flat. a valve chamber having a fluid inlet and a fluid outlet; and a valve member inside the valve chamber, the valve member moveable inside the valve chamber to and from a valve seat, defining a flow opening there between, and arranged to adjust the size of the flow opening in dependence of the pressure of a fluid and/or flow rate; characterized in that said valve member is shaped concave prior to arranging said valve member in said valve chamber, such that said valve member is not flat.
A method of wireless communication performed by a first base station of a first operator in a spectrum shared with other base stations of other operators, the method comprising: assigning a first priority level to a first reservation preamble associated with the first operator; generating the first reservation preamble using a base sequence that is based on at least one of a compressed representation in a signal space, a basis function of the signal space, or a constant amplitude zero autocorrelation waveform, CAZAC, sequences; and transmitting, on a first timeslot of multiple time slots of a downlink channel, the first reservation preamble to at least a user equipment, UE, wherein the first reservation preamble is associated with a priority-based medium access scheme that enables the first base station to synchronize with the other base stations to reserve the shared spectrum for use by the first base station; and wherein in the priority-based medium access scheme, reservation preambles associated with the other operators of the other base stations are assigned with respective priority levels, and are configured to be of lower priority than the first priority level assigned to the first reservation preamble. assigning a first priority level to a first reservation preamble associated with the first operator; generating the first reservation preamble using a base sequence that is based on at least one of a compressed representation in a signal space, a basis function of the signal space, or a constant amplitude zero autocorrelation waveform, CAZAC, sequences; and transmitting, on a first timeslot of multiple time slots of a downlink channel, the first reservation preamble to at least a user equipment, UE, wherein the first reservation preamble is associated with a priority-based medium access scheme that enables the first base station to synchronize with the other base stations to reserve the shared spectrum for use by the first base station; and wherein in the priority-based medium access scheme, reservation preambles associated with the other operators of the other base stations are assigned with respective priority levels, and are configured to be of lower priority than the first priority level assigned to the first reservation preamble.
A composition comprising the following components to: component: a monofunctional (meth)acrylate having a number average molecular weight of less than 1000; component: a polyfunctional (meth)acrylate having a number average molecular weight of less than 1000; component: a radical polymerization initiator; component: a releasability imparting compound that is a liquid at a temperature of 20±15°C; and component: a polyfunctional urethane (meth)acrylate; the number average molecular weight and the weight average molecular weight being measured according to the description; characterized in that the component is one or more selected from the group consisting of fluorine compounds and olefinic compounds. component: a monofunctional (meth)acrylate having a number average molecular weight of less than 1000; component: a polyfunctional (meth)acrylate having a number average molecular weight of less than 1000; component: a radical polymerization initiator; component: a releasability imparting compound that is a liquid at a temperature of 20±15°C; and component: a polyfunctional urethane (meth)acrylate;
Fabric formed from a sheet material consisting of an interweaving of filaments, characterized in that the surface of both opposite faces of said sheet material is metalized and that at least one of said metalized faces has at least one color layer consisting of a semi-transparent ink exhibiting different gradients of optical transparency depending on the different shades of said color layer, for adjusting the effect of transparency to light of the aforementioned fabric.
Rollo assembly, comprising a rotatable winding shaft, a flexible sun screen having forward and rearward ends, wherein the rearward end of the sun screen can be wound on or off the winding shaft and wherein the forward end of the sun screen is provided with an operating beam and wherein the winding shaft is received in a housing that comprises an opening for the passage of the sun screen with a length at least substantially corresponding with a transversal width of the sun screen, characterized in that the operating beam at its side facing towards the housing carries a sealing member which, in a position of the rollo assembly in which the sun screen extends substantially horizontally, extends above the sun screen transversally over a length at least substantially corresponding with the length of the opening in the housing, for engaging the housing when the sun screen is maximally wound onto the winding shaft.
Tuyere stock arrangement for a blast furnace comprising: a tuyere having a tuyere body configured for installation in a blast furnace wall; said tuyere body having an outer wall, a front face and a rear face, said tuyere body further having a tuyere channel extending from said rear face to said front face, said tuyere channel forming an inner wall in said tuyere body; a blowpipe connected between said rear face of said tuyere body and a gas feeding device, said blowpipe being configured and arranged so as to feed hot gas from said gas feeding device to said tuyere channel for injection into said blast furnace; an injection lance for feeding a combustible into said blast furnace at said tuyere level, said injection lance being a coaxial lance comprising an outer pipe and an inner pipe, coaxially arranged within said outer pipe, said outer and inner pipes (58, 62) being arranged for separately conveying oxidizing gas and said combustible, said inner pipe forming a separation wall for separating said combustible from said oxidizing gas characterized by a lance passage formed in said tuyere body, said lance passage being arranged between said inner wall and said outer wall of said tuyere body and extending from said rear face to said front face, said lance passage opening into said front face of said tuyere body; said lance passage being formed so as to removably receive said injection lance therein. a tuyere having a tuyere body configured for installation in a blast furnace wall; said tuyere body having an outer wall, a front face and a rear face, said tuyere body further having a tuyere channel extending from said rear face to said front face, said tuyere channel forming an inner wall in said tuyere body; a blowpipe connected between said rear face of said tuyere body and a gas feeding device, said blowpipe being configured and arranged so as to feed hot gas from said gas feeding device to said tuyere channel for injection into said blast furnace; an injection lance for feeding a combustible into said blast furnace at said tuyere level, said injection lance being a coaxial lance comprising an outer pipe and an inner pipe, coaxially arranged within said outer pipe, said outer and inner pipes (58, 62) being arranged for separately conveying oxidizing gas and said combustible, said inner pipe forming a separation wall for separating said combustible from said oxidizing gas characterized by a lance passage formed in said tuyere body, said lance passage being arranged between said inner wall and said outer wall of said tuyere body and extending from said rear face to said front face, said lance passage opening into said front face of said tuyere body; said lance passage being formed so as to removably receive said injection lance therein.
A floor structure comprising the mechanically-welded assembly of a substantially planar inner plate and of an outer plate comprising a median part located at a distance from the inner plate and also comprising lateral edges (8a, 8b) joined to the inner plate, wherein the structure is intended to be made integral with lateral walls in order to constitute a vehicle body, wherein the inner plate and the outer plate is connected to each other by stiffeners extending from a first edge of the outer plate to a second edge parallel thereto, wherein each stiffener rests in a ballistic manner on each plate (6, 7), wherein the floor structure is characterised in that each stiffener comprises tabs cooperating with grooves of each plate (6, 7) so as to ensure a slip-free connection of one plate relative to the other, wherein said lateral edges (8a, 8b) are oriented substantially perpendicular to the inner plate and resting against it, wherein the lateral edges carry lugs evenly distributed along each lateral edge (8a, 8b), wherein he lugs cooperate with mortises carried by the inner plate.
A catalyst manufacturing method comprising: preparing UZM-35 zeolite; manufacturing ion-containing UZM-35 zeolite by substituting ions in a structure of the UZM-35 zeolite; and manufacturing metal-containing UZM-35 zeolite by exchanging copper (Cu) ions or iron (Fe) ions in the structure of the ion-containing UZM-35 zeolite, wherein the Si/Al molar ratio of the UZM-35 zeolite is in a range of 5 to 30, and wherein a copper content of the catalyst is in a range of 1 wt.% to 5 wt.% or an iron content of the catalyst is in a range of 1 wt.% to 5 wt.%. preparing UZM-35 zeolite; manufacturing ion-containing UZM-35 zeolite by substituting ions in a structure of the UZM-35 zeolite; and manufacturing metal-containing UZM-35 zeolite by exchanging copper (Cu) ions or iron (Fe) ions in the structure of the ion-containing UZM-35 zeolite, wherein the Si/Al molar ratio of the UZM-35 zeolite is in a range of 5 to 30, and wherein a copper content of the catalyst is in a range of 1 wt.% to 5 wt.% or an iron content of the catalyst is in a range of 1 wt.% to 5 wt.%.
An internally cross-linked polypeptide comprising the amino acid sequence of EIVMKYIHYKLSQRGYEWDA (SEQ ID NO: 1), wherein: the side chains of amino acid residues at positions 8 and 12 of SEQ ID NO: 1 or the side chains of amino acid residues at positions 13 and 17 of SEQ ID NO: 1 are replaced by an internal staple; and the internally cross-linked polypeptide is capable of specifically binding to a BAX protein; and optionally, the amino acid residue at position 4 of SEQ ID NO: 1 is substituted with another amino acid. the side chains of amino acid residues at positions 8 and 12 of SEQ ID NO: 1 or the side chains of amino acid residues at positions 13 and 17 of SEQ ID NO: 1 are replaced by an internal staple; and the internally cross-linked polypeptide is capable of specifically binding to a BAX protein; and optionally, the amino acid residue at position 4 of SEQ ID NO: 1 is substituted with another amino acid.
A method for controlling an ion population in an ion trap mass spectrometer, comprising: accumulating ions having a plurality of m/z values in an ion trap during a time interval; deriving from the accumulated ions a respective intensity value for each of the m/z values; characterized by: adjusting each of the intensity values as a function of the time needed by the ion trap to begin collecting ions with the corresponding m/z value. accumulating ions having a plurality of m/z values in an ion trap during a time interval; deriving from the accumulated ions a respective intensity value for each of the m/z values; characterized by: adjusting each of the intensity values as a function of the time needed by the ion trap to begin collecting ions with the corresponding m/z value. adjusting each of the intensity values as a function of the time needed by the ion trap to begin collecting ions with the corresponding m/z value.
A welding system, comprising: - a controller; and a welding torch; and - a primary winding of a transformer that is operatively coupled to the controller, wherein the controller is configured to receive a feedback voltage from - a welding output of the welding system, and - a current sensor coupled to the primary winding of the transformer, wherein the current sensor is configured to measure a primary current in the primary winding and to output a first signal representative of the primary current characterised in that the controller is configured to receive a current command signal and to control an output current at the welding output of the welding system by controlling the primary current based on a comparison of: - the first signal; and - a second signal generated based on the current command signal and the received feedback voltage; wherein the output current at the welding output of the welding system is the output current of the welding torch of the welding system. - a controller; and a welding torch; and - a primary winding of a transformer that is operatively coupled to the controller, wherein the controller is configured to receive a feedback voltage from - a welding output of the welding system, and - a current sensor coupled to the primary winding of the transformer, wherein the current sensor is configured to measure a primary current in the primary winding and to output a first signal representative of the primary current characterised in that the controller is configured to receive a current command signal and to control an output current at the welding output of the welding system by controlling the primary current based on a comparison of: - the first signal; and - a second signal generated based on the current command signal and the received feedback voltage; - the first signal; and - a second signal generated based on the current command signal and the received feedback voltage;
A method of producing an integral multilayered porous membrane comprising co-casting a plurality of polymer solutions onto a support to form a multilayered liquid sheet, wherein the co-casting casts the individual layers essentially simultaneously with each other with substantially no time interval between one cast layer and the next layer, and immersing the sheet into a liquid coagulation bath to effect phase separation and form a porous membrane, wherein: A. one or more of the plurality of polymer solutions exhibits a lower critical solution temperature (LCST) and the step of heating above the LCST to cause phase separation is incorporated into the method after the multilayered liquid sheet is formed, with further phase separation being provided by said immersion into a coagulant; or B. one or more of the plurality of polymer solutions exhibits an upper critical solution temperature (UCST) and the step of cooling below the UCST to cause phase separation is incorporated into the method after the multilayered liquid sheet is formed, with further phase separation being provided by said immersion into a coagulant; and wherein the support is a temporary support which is removed subsequent to membrane formation. A. one or more of the plurality of polymer solutions exhibits a lower critical solution temperature (LCST) and the step of heating above the LCST to cause phase separation is incorporated into the method after the multilayered liquid sheet is formed, with further phase separation being provided by said immersion into a coagulant; or B. one or more of the plurality of polymer solutions exhibits an upper critical solution temperature (UCST) and the step of cooling below the UCST to cause phase separation is incorporated into the method after the multilayered liquid sheet is formed, with further phase separation being provided by said immersion into a coagulant;
An isolated polypeptide comprising the amino acid sequence: X 1 X 2 X 3 X 4 X 5 X 6 X 7 X 8 X 9 X 10 GX 11 X 12 X 13 X 14 (SEQ ID NO: 717), wherein: X 1 is R, E, [hArg], or absent; X 2 is [r], R, E, [hArg], or absent; X 3 is Q, [q], or [BLeu]; X 4 is [hArg], [NMeArg], R, E, or [r]; X 5 is P or [aMePro]; X 6 is R, E, [r], [hArg] or [NMeArg]; X 7 is L, [aMeLeu], [BLeu], [NMeLeu] or [Cha]; X 8 is S, [BhSer], or [NhSerG]; X 9 is H or Y; X 10 is K or [NLysG]; X 11 is P, [Oic], [aMePro], or [Pip]; X 12 is [Nle], [rNle], or [pl-Phe]; X 13 is P, [BhPro], [aMePro], or [Aib]; and X 14 is F, [D-BhPhe], [4-Cl-F], [D-4ClF], or [D-Bip]. X 1 is R, E, [hArg], or absent; X 2 is [r], R, E, [hArg], or absent; X 3 is Q, [q], or [BLeu]; X 4 is [hArg], [NMeArg], R, E, or [r]; X 5 is P or [aMePro]; X 6 is R, E, [r], [hArg] or [NMeArg]; X 7 is L, [aMeLeu], [BLeu], [NMeLeu] or [Cha]; X 8 is S, [BhSer], or [NhSerG]; X 9 is H or Y; X 10 is K or [NLysG]; X 11 is P, [Oic], [aMePro], or [Pip]; X 12 is [Nle], [rNle], or [pl-Phe]; X 13 is P, [BhPro], [aMePro], or [Aib]; and X 14 is F, [D-BhPhe], [4-Cl-F], [D-4ClF], or [D-Bip].
A method used in a wireless communication system, the method comprising: receiving, by a source eNode B, a handover command message created by a target eNode B; encapsulating, by the source eNode B, the handover command message into a Radio Resource Control message; and transmitting the encapsulated handover command message to a wireless terminal. receiving, by a source eNode B, a handover command message created by a target eNode B; encapsulating, by the source eNode B, the handover command message into a Radio Resource Control message; and transmitting the encapsulated handover command message to a wireless terminal.
A method of generating haptic effects on a device that comprises an actuator and a speaker, the method being characterized by: receiving a high definition, HD, haptic effect signal; extracting a standard definition, SD, haptic effect signal from the HD haptic effect signal; generating an audio based haptic effect signal based on the HD haptic effect signal after the extraction of the SD haptic signal and a plant model of the device for an acceleration generated by the speaker, wherein the audio based haptic effect signal is adapted to cause the speaker to generate an HD component of the HD haptic effect signal; and substantially simultaneously playing the SD haptic effect signal on the actuator and playing the audio based haptic effect signal on the speaker. receiving a high definition, HD, haptic effect signal; extracting a standard definition, SD, haptic effect signal from the HD haptic effect signal; generating an audio based haptic effect signal based on the HD haptic effect signal after the extraction of the SD haptic signal and a plant model of the device for an acceleration generated by the speaker, wherein the audio based haptic effect signal is adapted to cause the speaker to generate an HD component of the HD haptic effect signal; and substantially simultaneously playing the SD haptic effect signal on the actuator and playing the audio based haptic effect signal on the speaker.
Trim element for interior vehicle, characterized in that the trim element is made of glass sheet and in that the glass, which is a glass of soda-lime-silica, has a basic composition comprising, in a content expressed as percentages by total weight of glass: SiO 2 55 - 85% Al 2 O 3 0 - 30% B 2 O 3 0 - 20% Na 2 O 0 - 25% CaO 0 - 20% MgO 0 - 15% K 2 O 0 - 20% BaO 0 - 20%.