mhurhangee/ep-ind-claims huggingface dataset:
An ultraviolet curable resin composition for a self-lubricating liner, comprising: a (meth) acrylate compound having an isocyanuric acid ring represented by formula: (wherein X is a group which contains an acryloyl group and is composed only of C, H, and O, and Y and Z are groups each composed only of C, H, and O); a polytetrafluoroethylene resin as a solid lubricant; and a thermosetting agent, wherein the (meth)acrylate compound having the isocyanuric acid ring is contained in an amount of at least 20% by weight and the polytetrafluoroethylene resin is contained in an amount of 10% by weight to 50% by weight with respect to a total amount of the ultraviolet curable resin composition. a (meth) acrylate compound having an isocyanuric acid ring represented by formula: (wherein X is a group which contains an acryloyl group and is composed only of C, H, and O, and Y and Z are groups each composed only of C, H, and O); a polytetrafluoroethylene resin as a solid lubricant; and a thermosetting agent, wherein the (meth)acrylate compound having the isocyanuric acid ring is contained in an amount of at least 20% by weight and the polytetrafluoroethylene resin is contained in an amount of 10% by weight to 50% by weight with respect to a total amount of the ultraviolet curable resin composition. (wherein X is a group which contains an acryloyl group and is composed only of C, H, and O, and Y and Z are groups each composed only of C, H, and O); a polytetrafluoroethylene resin as a solid lubricant; and a thermosetting agent, wherein the (meth)acrylate compound having the isocyanuric acid ring is contained in an amount of at least 20% by weight and the polytetrafluoroethylene resin is contained in an amount of 10% by weight to 50% by weight with respect to a total amount of the ultraviolet curable resin composition.
An image forming system comprising: multiple drum-formed photoconductors (la-d), multiple laser exposure devices (4a-d) fixedly arranged on said image forming system to form static latent images on each of said drum-formed photoconductors, multiple development devices (5a-d) to form toner images on each of said drum-formed photoconductors, an intermediate transfer belt to form a color toner image by superimposing said toner images, a transfer device to transfer said color toner image to a recording medium, and a fusing device to fuse said color toner image on said recording medium; wherein said image forming system comprises a form cassette in a lower part thereof and has the transfer device and the fusing device in this order arranged in an upward direction so that said recording medium is transported upwards and discharged with said color toner image fused onto it above said development devices, and wherein said multiple drum-formed photoconductors are arranged in a line, characterized in that said photoconductors are configured in one unit with a supporting member and are arranged such that said unit can be pulled outward and inserted inward along the arrangement direction of the photoconductors. multiple drum-formed photoconductors (la-d), multiple laser exposure devices (4a-d) fixedly arranged on said image forming system to form static latent images on each of said drum-formed photoconductors, multiple development devices (5a-d) to form toner images on each of said drum-formed photoconductors, an intermediate transfer belt to form a color toner image by superimposing said toner images, a transfer device to transfer said color toner image to a recording medium, and a fusing device to fuse said color toner image on said recording medium; wherein said image forming system comprises a form cassette in a lower part thereof and has the transfer device and the fusing device in this order arranged in an upward direction so that said recording medium is transported upwards and discharged with said color toner image fused onto it above said development devices, and wherein said multiple drum-formed photoconductors are arranged in a line, characterized in that said photoconductors are configured in one unit with a supporting member and are arranged such that said unit can be pulled outward and inserted inward along the arrangement direction of the photoconductors.
A toner for electrophotography, comprising: a binder resin; a colorant and an organic-modified layered inorganic mineral, wherein the binder resin contains a crystalline resin in an amount of greater than 50% by mass, and wherein the organic-modified layered inorganic mineral is an organic-modified layered inorganic mineral in which at least part of ions present between layers of a layered inorganic mineral are modified with organic ions. a binder resin; a colorant and an organic-modified layered inorganic mineral, wherein the binder resin contains a crystalline resin in an amount of greater than 50% by mass, and wherein the organic-modified layered inorganic mineral is an organic-modified layered inorganic mineral in which at least part of ions present between layers of a layered inorganic mineral are modified with organic ions.
Method for disinfection of a temperature control device for human body temperature control during extracorporeal circulation, which temperature control is conducted by use of a heat exchanger and a temperature control liquid circulating through the heat exchanger and the temperature control device, wherein the temperature control device is connected to a temperature control liquid supply, and wherein, during operation of the temperature control device for human body temperature control, a disinfectant is selectively added to the temperature control liquid supply upstream of the temperature control device.
An in vitro method for diagnosing or predicting the development of a respiratory allergy in a patient; said method comprising assaying a test sample from the patient for DNA hypermethylation of at least the GLI2 region as defined in Tables 3, 4 or 5, wherein hypermethylation of said gene region in said test sample indicates or predicts a respiratory allergy in said patient; wherein said test sample is a body fluid sample.
Coin sorting apparatus, having a first and at least one second receptacle for receiving coins, a singularization unit for singularizing coins, and having a transport unit for transporting coins from the singularization unit to the first receptacle, arranged downstream of the singularization unit, and the second receptacle, arranged downstream of the first receptacle, wherein the transport unit has a first transport section, which is arranged between the singularization unit and the first receptacle and along which both the coins to be supplied to the first receptacle and the coins to be supplied to the second receptacle are transported, and a second transport section, which is arranged between the first receptacle and the second receptacle and along which only the coins that are not supplied to the first receptacle are transported, wherein the first transport section has a first sensor arranged in it for detecting coins transported along the first transport section, the second transport section has a second sensor arranged in it for detecting coins transported along the second transport section, and there is provision for a control unit that takes the information obtained from the first sensor and the second sensor as a basis for ascertaining the number of coins supplied to the first receptacle, wherein the control unit uses the first sensor to ascertain the number of coins transported along the first transport section, wherein the control unit uses the second sensor to ascertain the number of coins transported along the second transport section, wherein the control unit ascertains the number of coins supplied to the first receptacle by subtracting the number of coins transported along the second transport section from the number of coins transported along the first transport section, wherein there is provision for a testing unit for ascertaining the denomination of supplied coins, wherein the control unit takes the ascertained denominations as a basis for stipulating for each receptacle a setpoint value for the coins that are to be supplied to it as scheduled, and wherein the control unit compares the number of supplied coins, ascertained using the sensors (62 to 70), for at least one receptacle with the applicable setpoint value, characterized in that the control unit compares the number of supplied coins ascertained using the sensors (62 to 70) with the applicable setpoint value each time after each coin is supplied.
A process for the synthesis of methanol from an input stream of synthesis gas, comprising the following steps: subjecting a portion (1c, 2, 8) of said input stream as feed stream to an adiabatic reactive step, providing an effluent containing methanol and unreacted synthesis gas; quenching of said effluent with a further portion of said input stream, providing a quenched stream; subjecting said quenched stream to an isothermal reactive step, providing a methanol-containing product stream, wherein the feed stream to said adiabatic reactive step comprises a fraction of said input stream which has been pre-heated by acting as a cooling medium of said isothermal reactive step, thus forming a pre-heated stream, and wherein said isothermal reactive step is carried out in a catalytic bed comprising heat exchange bodies and said fraction acting as a cooling medium traverses said heat exchange bodies. subjecting a portion (1c, 2, 8) of said input stream as feed stream to an adiabatic reactive step, providing an effluent containing methanol and unreacted synthesis gas; quenching of said effluent with a further portion of said input stream, providing a quenched stream; subjecting said quenched stream to an isothermal reactive step, providing a methanol-containing product stream, wherein the feed stream to said adiabatic reactive step comprises a fraction of said input stream which has been pre-heated by acting as a cooling medium of said isothermal reactive step, thus forming a pre-heated stream, and wherein said isothermal reactive step is carried out in a catalytic bed comprising heat exchange bodies and said fraction acting as a cooling medium traverses said heat exchange bodies.
Multi-layer eddy current probe for use in an eddy current test unit for non-destructive material testing of electrically conductive materials, comprising a large number of flat spiral coils (S, S1 - S4, S1-1 - S4-1, S1-2 - S4-2) which are arranged in different coil layers of a multi-layer arrangement, wherein a respective insulating layer which is composed of electrically insulating material is arranged between adjacent coil layers of the multi-layer arrangement, each of the flat coils has an inner terminal (I, I1 - I4) and an outer terminal (A, A1 - A4), and selected terminals of selected flat coils of different coil layers are electrically connected to one another by means of vias, wherein the flat coils form at least one coil group (200, 500, 600) which has at least three flat coils (S1 - S4, S1-1 - S4-1, S1-2 - S4-2) which are arranged one above the other in different layers, wherein the inner terminals (11 - 14) of the at least three flat coils of the coil group are electrically conductively connected by means of a common inner via, characterized in that flat coils of the coil group (200, 600) form a first subgroup comprising at least two first flat coils (S1, S4) and at least one second subgroup comprising at least two second flat coils (S2, S3), wherein the turns of the first flat coils run with the same winding sense, and the turns of the second flat coils run with the same winding sense and with the opposite winding sense to the turns of the first flat coils; wherein outer terminals of the first flat coils are electrically conductively connected by means of a first outer via, and outer terminals of the second flat coils are electrically conductively connected by means of a second outer via.
A diesel particulate filter comprising: a. a wall-flow filter substrate having a mean pore size, an inlet side, an outlet side, and a porous interior between the inlet and outlet sides; and b. a catalyst composition coated from the outlet side of the substrate, wherein the catalyst composition has a d 50 particle size distribution, wherein said d 50 particle size distribution is greater than or equal to the mean pore size divided by 4.9, and wherein the inlet side is substantially free of a catalyst coating. a. a wall-flow filter substrate having a mean pore size, an inlet side, an outlet side, and a porous interior between the inlet and outlet sides; and b. a catalyst composition coated from the outlet side of the substrate, wherein the catalyst composition has a d 50 particle size distribution,
A colored resin particle dispersion comprising colored resin particles, a basic dispersant, and a non-aqueous solvent, wherein the colored resin particles comprise a colorant, a solid resin and a liquid organic compound having an acidic group.
An optical assembly, in particular for polarizing a laser beam, comprising: a plurality of plate-shaped optical elements (5, 6,...) having a beam entry surface (5a, 6a,...) and a beam exit surface (5b, 6b,...), a holder for joint fixing of the plate-shaped optical elements (5, 6,...), wherein at least three spacers (11a-d) are arranged between each two adjacent plate-shaped optical elements (5, 6,...), each of which spacers is configured for punctiform contact with a beam exit surface (5a, 6a,...) of a first plate-shaped optical element and for punctiform contact with a beam entry surface (6b, 7b,...) of a second, adjacent plate-shaped optical element, wherein the spacers (11a-d) are held in the holder perpendicularly to a beam entry surface of the first plate-shaped optical element such that they are tiltable and/or displaceable, characterized in that the spacers (11a-d) have a respective shaft and in that the respective shaft of the spacer (11a-d) has a convexly curved shaft end and the holder comprises at least one spring element for pressing the shaft end against a contact surface (22a-c) of the holder and thereby is held such that it is tiltable and/or displaceable. a plurality of plate-shaped optical elements (5, 6,...) having a beam entry surface (5a, 6a,...) and a beam exit surface (5b, 6b,...), a holder for joint fixing of the plate-shaped optical elements (5, 6,...), wherein at least three spacers (11a-d) are arranged between each two adjacent plate-shaped optical elements (5, 6,...), each of which spacers is configured for punctiform contact with a beam exit surface (5a, 6a,...) of a first plate-shaped optical element and for punctiform contact with a beam entry surface (6b, 7b,...) of a second, adjacent plate-shaped optical element, wherein the spacers (11a-d) are held in the holder perpendicularly to a beam entry surface of the first plate-shaped optical element such that they are tiltable and/or displaceable, characterized in that the spacers (11a-d) have a respective shaft and in that the respective shaft of the spacer (11a-d) has a convexly curved shaft end and the holder comprises at least one spring element for pressing the shaft end against a contact surface (22a-c) of the holder and thereby is held such that it is tiltable and/or displaceable.
A blow-out unit of a fan, characterized in that the blow-out unit is configured for accommodating an impeller and comprising a housing which, when used according to the intended purpose, adjoins the impeller in flow direction and can be exposed to the flow of a fan main flow, and which forms a housing bypass for a bypass flow of the fan main flow, and wherein, in the housing bypass, measuring means for the volume flow determination of the fan main flow are arranged.
A power determining method, comprising: determining an initial transmit power of each transmission object in a transmission object set, wherein the transmission object set comprises all to-be-transmitted uplink channels and/or sounding reference signals, SRSs; when a sum of initial transmit powers of all the transmission objects in the transmission object set is greater than a maximum transmit power, performing a power reduction operation based on a priority sequence of uplink control information, UCI, carried in a transmission object, so as to acquire an available transmit power of each transmission object in the transmission object set, wherein a sum of the available transmit powers of all the transmission objects in the transmission object set is not greater than the maximum transmit power; when two or more transmission objects share a same priority based on a priority sequence of UCI carried in a transmission object, a priority of a transmission object associate with carrier supporting radio resource control, RRC, connection is higher than a priority of a transmission object associate with carrier not supporting RRC connection, and sending each transmission object in the transmission object set according to the available transmit power corresponding to each transmission object in the transmission object set. determining an initial transmit power of each transmission object in a transmission object set, wherein the transmission object set comprises all to-be-transmitted uplink channels and/or sounding reference signals, SRSs; when a sum of initial transmit powers of all the transmission objects in the transmission object set is greater than a maximum transmit power, performing a power reduction operation based on a priority sequence of uplink control information, UCI, carried in a transmission object, so as to acquire an available transmit power of each transmission object in the transmission object set, wherein a sum of the available transmit powers of all the transmission objects in the transmission object set is not greater than the maximum transmit power; when two or more transmission objects share a same priority based on a priority sequence of UCI carried in a transmission object, a priority of a transmission object associate with carrier supporting radio resource control, RRC, connection is higher than a priority of a transmission object associate with carrier not supporting RRC connection, and sending each transmission object in the transmission object set according to the available transmit power corresponding to each transmission object in the transmission object set.
A communication method, wherein a multiple number of activated electronic portable communication devices are operatively connected to a server via wireless communication channels, the server performing a data processing process on data transmitted by said devices, the method comprising the steps of: - monitoring a short range wireless connection (S1-S4) between an activated electronic portable communication device and a smart watch worn by a person using said communication device, and - generating, responsive to the monitoring step, a monitoring signal in the server, the monitoring signal interacting with the data processing process, wherein the step of monitoring the short range wireless connection (S1-S4) includes checking whether the distance between the activated electronic portable communication device and the smart watch is larger than a predetermined distance, wherein the outcome of the monitoring step is negative if the communication device is not in the proximity of the person wearing the smart watch; wherein the method further includes an authentication process including scanning a personalized smart card, and wherein a short range wireless connection (S1-S4) between an activated communication device and a smart watch is established when brought in proximity if an identity associated with said smart watch matches with the identity of said smart card. - monitoring a short range wireless connection (S1-S4) between an activated electronic portable communication device and a smart watch worn by a person using said communication device, and - generating, responsive to the monitoring step, a monitoring signal in the server, the monitoring signal interacting with the data processing process,
Method for manufacturing a susceptor for an inductively heatable aerosol-generating article, wherein the method comprises the steps of: • Providing a band of susceptor material, • Providing a compression stage comprising oppositely arranged compression elements, wherein in a first portion of the compression stage, the compression elements are arranged to define a progressively narrowing compression gap in processing direction and wherein in a second portion of the compression stage the compression elements are arranged to define a constant compression gap there between in processing direction and wherein the oppositely arranged compression elements are configured to have matching surface structures • Guiding the band of susceptor material through the narrowing compression gap of the compression stage, such that the matching surface structures of the compression elements deep draw the band of susceptor material. • Providing a band of susceptor material, • Providing a compression stage comprising oppositely arranged compression elements, wherein in a first portion of the compression stage, the compression elements are arranged to define a progressively narrowing compression gap in processing direction and wherein in a second portion of the compression stage the compression elements are arranged to define a constant compression gap there between in processing direction and wherein the oppositely arranged compression elements are configured to have matching surface structures • Guiding the band of susceptor material through the narrowing compression gap of the compression stage, such that the matching surface structures of the compression elements deep draw the band of susceptor material.