mhurhangee/patent-ind-claim-en huggingface dataset:
A polyurethane flood coat composition ABCD comprising a polyisocyanate prepolymer as part A; and in part B, a polyol in an amount from 93 to 98 wt.% based on the total wt.% of part B ; a rheology agent C; and a catalyst D, characterized in that when a ratio of part A is mixed with a ratio of part B the mixture provides a thixotropic index from 1 to 5; a gel time from 5 to 15 minutes; and a Shore hardness of 15A to 90A when cured; wherein the thixotropic index refers to the viscosity measured at 2.5 RPM divided by the viscosity measured at 20 RPM of a mix ratio of part A and part B, where the appropriate weight amounts of part A and part B are mixed by hand for 1-2 minutes at 25 °C, and the viscosity of the mixture is determined using a Brookfield viscometer with a #7 spindle at 2.5 RPM, and then at 20 RPM.
A method for boresighting a system under test, SUT, , the method comprising: radiating , by the SUT, at least one illuminating signal to a target , wherein the at least one illuminating signal is radiated onto an external screen of the target; detecting , by at least one external detector , the at least one illuminating signal radiated onto the external screen to produce an external detector measurement; aligning the SUT by using the external detector measurement; radiating , by the SUT, the at least one illuminating signal to the target, wherein the at least one illuminating signal is radiated through an opening located on a side of the target and onto an internal screen of the target; detecting , by at least one internal detector of the target, the at least one illuminating signal radiated onto the internal screen to produce an internal detector measurement; and aligning the SUT by using the internal detector measurement. radiating , by the SUT, at least one illuminating signal to a target , wherein the at least one illuminating signal is radiated onto an external screen of the target; detecting , by at least one external detector , the at least one illuminating signal radiated onto the external screen to produce an external detector measurement; aligning the SUT by using the external detector measurement; radiating , by the SUT, the at least one illuminating signal to the target, wherein the at least one illuminating signal is radiated through an opening located on a side of the target and onto an internal screen of the target; detecting , by at least one internal detector of the target, the at least one illuminating signal radiated onto the internal screen to produce an internal detector measurement; and aligning the SUT by using the internal detector measurement.
Pressure vessel comprising an inner vessel that has an inner and an outer face and is made of an inner-vessel material that is at least partially plastically deformable under pressure, for providing a storage volume (SV) in the pressure vessel, comprising an outer layer applied to the inner vessel for the reinforcement thereof, and comprising a valve-connection piece arranged on the inner vessel that has a two-part, hollow sealing cone and outer piece for receiving a valve and for sealing the storage volume from the inner vessel , which, for connecting the valve-connection piece , comprises a protrusion that is inwardly open towards the storage volume (SV) and projects cylindrically from the outer face of the inner vessel , wherein the two-part sealing cone is positioned on an inner face of the protrusion and the outer piece for generating a sealing pressure (AD) between the two-part sealing cone , the protrusion and the outer piece on an outer face of the protrusion , and comprises, on the face thereof oriented towards the protrusion , a suitably shaped groove having a first edge facing the storage volume (SV) and a second edge provided in the opposite direction for receiving a sealing ring that seals under the sealing pressure (AD), wherein the groove and the sealing ring are dimensioned such that and the inner-vessel material is provided such that, under the sealing pressure (AD) and due to the plastic deformability thereof, first and second sealing beads that project at least into two gaps (L1, L2) between the sealing ring and the first and second edge are formed, and the two-part sealing cone comprises a hollow outer sleeve having a smallest internal diameter (DI-411), an external diameter (DA-411) adapted to the protrusion and an inner face that is at least locally concave towards the protrusion , and comprises a hollow inner clamping cone having a largest external diameter (D-412) that is smaller than an internal diameter (D-23) of the protrusion and larger than the smallest internal diameter (DI-411) of the sleeve and an outer face that at least locally projects towards the protrusion , wherein the sleeve is positioned on the inner face of the protrusion from outside and the projecting outer face of the clamping cone is positioned from inside by means of a positioning means so as to engage in the concave inner face of the sleeve such that the inner clamping cone is brought into an interference fit with the sleeve .
A method for presenting all objects of a certain type performed by an apparatus, wherein the method comprises: • displaying an object management interface, wherein the object management interface contains objects of at least two types (step 201); • detecting a location that is on the object management interface and that is touched by a user, and detecting a pressure value applied to the touched location (step 202); • when the pressure value is greater than a preset threshold, and the touched location corresponds to a blank area, determining, according to a preset rule, a threshold interval in which the pressure value is, and determining a first type according to the threshold interval, wherein in the preset rule, a different threshold interval corresponds to a different type and the first type is one of the at least two types and the blank area does not contain any object (step 203); • obtaining, through filtering, all objects of the first type from all objects contained in the object management interface, and presenting all objects of the first type (step 204). • displaying an object management interface, wherein the object management interface contains objects of at least two types (step 201); • detecting a location that is on the object management interface and that is touched by a user, and detecting a pressure value applied to the touched location (step 202); • when the pressure value is greater than a preset threshold, and the touched location corresponds to a blank area, determining, according to a preset rule, a threshold interval in which the pressure value is, and determining a first type according to the threshold interval, wherein in the preset rule, a different threshold interval corresponds to a different type and the first type is one of the at least two types and the blank area does not contain any object (step 203); • obtaining, through filtering, all objects of the first type from all objects contained in the object management interface, and presenting all objects of the first type (step 204).
An electric motor diagnosis device comprising: - a load torque calculation unit that is configured to calculate a load torque of an electric motor , using voltage and current sampled and input from a main circuit to which the electric motor is connected; - a negative-phase-sequence admittance characteristics storage unit that is configured to store load torque/negative-phase-sequence admittance characteristics obtained in advance when the electric motor is normal; - a negative-phase-sequence admittance calculation unit that is configured to calculate a negative-phase-sequence admittance, Y n , from the load torque calculated by the load torque calculation unit , using the load torque/negative-phase-sequence admittance characteristics stored in the negative-phase-sequence admittance characteristics storage unit ; - a winding short-circuit evaluation value calculation unit that is configured to calculate a winding short-circuit evaluation value, Δ, on the basis of the negative-phase-sequence admittance, Y n , calculated by the negative-phase-sequence admittance calculation unit , the negative-phase-sequence current, I sn , calculated from input current, and the negative-phase-sequence voltage, V sn , calculated from input voltage according to the following formula: Δ = I sn − Y n ⋅ V sn ; and - a winding short-circuit determination unit that is configured to determine that winding short-circuit has occurred, when the winding short-circuit evaluation value, Δ, calculated by the winding short-circuit evaluation value calculation unit is equal to or greater than a threshold value. - a load torque calculation unit that is configured to calculate a load torque of an electric motor , using voltage and current sampled and input from a main circuit to which the electric motor is connected; - a negative-phase-sequence admittance characteristics storage unit that is configured to store load torque/negative-phase-sequence admittance characteristics obtained in advance when the electric motor is normal; - a negative-phase-sequence admittance calculation unit that is configured to calculate a negative-phase-sequence admittance, Y n , from the load torque calculated by the load torque calculation unit , using the load torque/negative-phase-sequence admittance characteristics stored in the negative-phase-sequence admittance characteristics storage unit ; - a winding short-circuit evaluation value calculation unit that is configured to calculate a winding short-circuit evaluation value, Δ, on the basis of the negative-phase-sequence admittance, Y n , calculated by the negative-phase-sequence admittance calculation unit , the negative-phase-sequence current, I sn , calculated from input current, and the negative-phase-sequence voltage, V sn , calculated from input voltage according to the following formula: Δ = I sn − Y n ⋅ V sn ; and - a winding short-circuit determination unit that is configured to determine that winding short-circuit has occurred, when the winding short-circuit evaluation value, Δ, calculated by the winding short-circuit evaluation value calculation unit is equal to or greater than a threshold value.
A method for direct-wave transmission in a direct-wave transmission system, comprising a plurality of transmitters which are arranged in a spatially distributed manner in the supply region and which have a control device (CU), • whereby the transmission data to be transmitted is inserted in a time frame, beginning with a frame synchronization, in order to supplement a block identification and the transmitted signal thus formed is transmitted from the initiating transmitter as a broadcast or a message in all directions via a coupling unit or antenna (A), • whereby in all temporally subsequent transmitters receiving the transmission signal, the control device (CU) connected to a block detection device (BE) on the reception side evaluates the block identification at least after whether a block has already been received or not, and • whereby the control device (CU), which is connected to a digital signal processor (DSP1) and a signal processor (DSP2) arranged in the reception branch, controls synchronization of the transmission signals, wherein the time axis on the transmission path is divided into a plurality of independent, logical channels, wherein different time slots are assigned to different logical channels, and wherein the renewed transmission takes place in the next subsequent time slot of the logical channel in which the transmission signal has been received, so that a quasi-synchronous direct-wave operation is implemented and each transmitter doesn't transmit a block that has already been received. • whereby the transmission data to be transmitted is inserted in a time frame, beginning with a frame synchronization, in order to supplement a block identification and the transmitted signal thus formed is transmitted from the initiating transmitter as a broadcast or a message in all directions via a coupling unit or antenna (A), • whereby in all temporally subsequent transmitters receiving the transmission signal, the control device (CU) connected to a block detection device (BE) on the reception side evaluates the block identification at least after whether a block has already been received or not, and • whereby the control device (CU), which is connected to a digital signal processor (DSP1) and a signal processor (DSP2) arranged in the reception branch, controls synchronization of the transmission signals, wherein the time axis on the transmission path is divided into a plurality of independent, logical channels, wherein different time slots are assigned to different logical channels, and wherein the renewed transmission takes place in the next subsequent time slot of the logical channel in which the transmission signal has been received, so that a quasi-synchronous direct-wave operation is implemented and each transmitter doesn't transmit a block that has already been received.
A method for manufacturing a clearance area of a housing , comprising: providing a housing , the housing being made of signal shielding material and defining a predetermined area , and the housing in the predetermined area having a first surface and a second surface opposite to the first surface (S101, S201); and characterized by : forming at least one support structure on the first surface in the predetermined area , whereby the at least one support structure protrudes from the first surface (S103, S203); cutting out, on the second surface, a predetermined number of micro slits by using a laser cutter, the predetermined number of micro slits penetrating from the second surface to the first surface and being spaced with each other and arranged side-by-side, each of the at least one support structure stretching across the predetermined number of micro slits , to connect the housing into a whole (S105, S205); filling each of the predetermined number of micro slits with non-signal shielding material , to obtain a clearance area (S107); and cutting off the at least one support structures (S109, S211), wherein a width of each of the predetermined number of micro slits is in a range from 0.05 millimeters to 0.15 millimeters. forming at least one support structure on the first surface in the predetermined area , whereby the at least one support structure protrudes from the first surface (S103, S203); cutting out, on the second surface, a predetermined number of micro slits by using a laser cutter, the predetermined number of micro slits penetrating from the second surface to the first surface and being spaced with each other and arranged side-by-side, each of the at least one support structure stretching across the predetermined number of micro slits , to connect the housing into a whole (S105, S205); filling each of the predetermined number of micro slits with non-signal shielding material , to obtain a clearance area (S107); and cutting off the at least one support structures (S109, S211), wherein a width of each of the predetermined number of micro slits is in a range from 0.05 millimeters to 0.15 millimeters.
An aqueous suspension comprising (i) water; (ii) a zeolitic material and one or more of copper and iron, wherein the one or more of copper and iron is either comprised in the zeolitic material, or in a source of one or more of copper and iron, or in the zeolitic material and in a source of one or more of copper and iron; (iii) a chelate complex comprising a zirconium ion and a bidentate organic ligand bonded to said zirconium ion via zirconium oxygen bonds from two oxygen atoms comprised in said ligand, said chelate complex being dissolved in the water. (i) water; (ii) a zeolitic material and one or more of copper and iron, wherein the one or more of copper and iron is either comprised in the zeolitic material, or in a source of one or more of copper and iron, or in the zeolitic material and in a source of one or more of copper and iron; (iii) a chelate complex comprising a zirconium ion and a bidentate organic ligand bonded to said zirconium ion via zirconium oxygen bonds from two oxygen atoms comprised in said ligand, said chelate complex being dissolved in the water.
A nozzle for a turbomachine , comprising: an inner side wall ; an outer side wall radially spaced apart from the inner side wall ; and an airfoil extending radially from the inner side wall to the outer side wall , the airfoil defining a cavity that extends radially through the nozzle , the cavity being at least partially defined by a cavity wall ; wherein the cavity wall and the outer side wall at least partially define a pocket in fluid communication with the cavity ; the pocket comprises a pocket inlet defined in the cavity wall ; the pocket comprises a bottom surface , a top surface, side surfaces , and a rear surface , the rear surface being opposite the pocket inlet ; and the nozzle being characterised in that : a cooling passage defined by the outer side wall , wherein the cooling passage intersects the bottom surface of the pocket and is in fluid communication with the cavity via the pocket and comprises an outlet in the radially inner surface of the outer side wall . an inner side wall ; an outer side wall radially spaced apart from the inner side wall ; and an airfoil extending radially from the inner side wall to the outer side wall , the airfoil defining a cavity that extends radially through the nozzle , the cavity being at least partially defined by a cavity wall ; wherein the cavity wall and the outer side wall at least partially define a pocket in fluid communication with the cavity ; the pocket comprises a pocket inlet defined in the cavity wall ; the pocket comprises a bottom surface , a top surface, side surfaces , and a rear surface , the rear surface being opposite the pocket inlet ; and the nozzle being characterised in that : a cooling passage defined by the outer side wall , wherein the cooling passage intersects the bottom surface of the pocket and is in fluid communication with the cavity via the pocket and comprises an outlet in the radially inner surface of the outer side wall .
A soluble AXL variant polypeptide, wherein said polypeptide lacks the AXL transmembrane domain and comprises at least one amino acid modification relative to the wild-type AXL sequence (SEQ ID NO:1), wherein said modification increases the affinity of the AXL polypeptide binding to Growth arrest-specific protein 6 (GAS6), and wherein said modification is at a position number n, wherein n is selected from 72, 19, 23, 26, 27, 32, 33, 38, 44, 61, 65, 74, 78, 79, 86, 87, 88, 90, 92, 97, 98, 105, 109, 112, 113, 116, 118, or 127 or a combination thereof, wherein n+7 equals the numbering of SEQ ID NO:1, wherein modifications are selected from the group consisting of: 1) Asn33Ser, Ser74Asn, Asp87Gly, and Val92Ala, 2) Gln86Arg, Ile90Val, and Val92Ala, 3) Asp87Gly, and Val92Ala, 4) Glu27Lys, His61Tyr, Ala72Val, Asp88Asn, Val92Ala, and Thr98Ala, 5) Val92Ala, Gln109Arg, 6) Val92Ala, Val112Ala, Phe113Leu, and Thr118Ala, 7) Val92Ala, and Thr98Pro, 8) Thr38Ile, and Val92Ala, 9) Thr23Met, and Val92Ala, 10) Gln86Arg, Val92Ala, 11) Ala19Thr, Glu26Gly, Glu27Gly, and Val92Ala, 12) Ile90Met and Val92Ala, 13) Gly32Ser, and Val92Ala, 14) Val92Ala, and Gly127Arg, 15) Asp87Gly, Val92Ala, and Gly127Arg, 16) Gly32Ser, Val92Ala, and Gly127Arg, 17) Gly32Ser, Asp87Gly, and Val92Ala. 1) Asn33Ser, Ser74Asn, Asp87Gly, and Val92Ala, 2) Gln86Arg, Ile90Val, and Val92Ala, 3) Asp87Gly, and Val92Ala, 4) Glu27Lys, His61Tyr, Ala72Val, Asp88Asn, Val92Ala, and Thr98Ala, 5) Val92Ala, Gln109Arg, 6) Val92Ala, Val112Ala, Phe113Leu, and Thr118Ala, 7) Val92Ala, and Thr98Pro, 8) Thr38Ile, and Val92Ala, 9) Thr23Met, and Val92Ala, 10) Gln86Arg, Val92Ala, 11) Ala19Thr, Glu26Gly, Glu27Gly, and Val92Ala, 12) Ile90Met and Val92Ala, 13) Gly32Ser, and Val92Ala, 14) Val92Ala, and Gly127Arg, 15) Asp87Gly, Val92Ala, and Gly127Arg, 16) Gly32Ser, Val92Ala, and Gly127Arg, 17) Gly32Ser, Asp87Gly, and Val92Ala.
A test apparatus for test cards , comprising a receiving device for holding at least one test card to be tested, comprising at least one contact device for making electrical touch contact with electrically conductive contact points of the at least one test card in the receiving device , wherein the contact device can be arranged vertically above the receiving device for the purpose of making touch contact, and comprising an actuating device , which is formed to displace the contact device and the receiving device relative to one another for the purpose of establishing the touch contact, wherein the receiving device can be displaced by means of the actuating device from a test position, which is located vertically below the contact device , into a loading and unloading position, which is laterally spaced apart from the contact device , and the other way round, wherein the test apparatus has a frame , to which the receiving device and the contact device are mounted, wherein the receiving device is mounted to the frame as horizontally shiftable drawer , and the contact device is mounted in a vertically shiftable manner between a touch contact position and a release position by means of the actuating device , wherein the actuating device comprises at least one first controllable actuator for displacing the receiving device , and at least one second controllable actuator for displacing the contact device , characterized in that the second actuator is coupled to at least one slider , which comprises a slide guide comprising an obliquely aligned run-on surface , which cooperates with an entraining protrusion of the contact device for the purpose of vertically displacing the contact device .