mhurhangee/ep-ind-claims huggingface dataset:
An ink-jet printing method comprising the following steps 1 and 2: Step 1: ejecting a carbodiimide compound, a polyester resin, a colorant and water onto a surface of a printing medium by an ink-jetting method to print characters or images thereon, wherein an acid value of the polyester resin is not less than 5 mgKOH/g and not more than 70 mgKOH/g; and wherein the polyester resin comprises a constitutional unit derived from a carboxylic acid component, and the carboxylic acid component comprises an aromatic dicarboxylic acid and an unsaturated aliphatic dicarboxylic acid; and Step 2: subjecting the characters or images printed in the step 1 to heat treatment at a temperature of not lower than 50°C and not higher than 200°C. Step 1: ejecting a carbodiimide compound, a polyester resin, a colorant and water onto a surface of a printing medium by an ink-jetting method to print characters or images thereon, wherein an acid value of the polyester resin is not less than 5 mgKOH/g and not more than 70 mgKOH/g; and wherein the polyester resin comprises a constitutional unit derived from a carboxylic acid component, and the carboxylic acid component comprises an aromatic dicarboxylic acid and an unsaturated aliphatic dicarboxylic acid; and wherein an acid value of the polyester resin is not less than 5 mgKOH/g and not more than 70 mgKOH/g; and wherein the polyester resin comprises a constitutional unit derived from a carboxylic acid component, and the carboxylic acid component comprises an aromatic dicarboxylic acid and an unsaturated aliphatic dicarboxylic acid; and Step 2: subjecting the characters or images printed in the step 1 to heat treatment at a temperature of not lower than 50°C and not higher than 200°C.
A wave energy transformation device comprising an array of members connected together to form a structure having a substantially hexagonal geometry, the array of members comprises absorbers (22, 33, 113) which maintain a neutral or slight positive buoyancy, the absorbers being coupled to nodes (25, 85, 94) and a plurality of link members (2, 88, 95) which, through joint mechanisms, connect the absorbers and nodes to similarly coupled absorbers and nodes to form the array comprising a plurality of hexagons wherein the relative motion of at least some of the members of the array, as caused by the energy of wave motion in a medium to which the array is coupled is convertible to another form of energy and wherein the nodes contain a buoyancy element that restrains the vertical location of the plane of the joint mechanisms to a position beneath the air water interface.
Complete window module (200, 200', 200") for installation into a building, wherein the complete window module (200, 200', 200") is manufactured using an insulation material (220, 220', 220") and can be installed into a predetermined building aperture such that it completely surrounds the building aperture, wherein the complete window module has an opening with defined internal dimensions for installation of windows customary in the trade, characterized in that the insulation material (220, 220', 220") has a recess (210, 210', 210"), wherein an integrated ventilation module (100, 100', 100") is at least partly integrated into the recess.
A drive for a flap, wherein the drive has a housing, a motor and a spindle drive, wherein the motor and the spindle drive are drivingly connected to one another and make a motorized adjustment of the flap possible, wherein the drive moves the flap at least into an open position and a closed position, wherein the spindle drive has a threaded spindle with a nut and a thrust tube and the thrust tube is connected to the threaded spindle by means of the nut, wherein the thrust tube is moved by a translational movement, characterized in that the spindle drive is arranged inside a rotor and the motor drives the rotor, wherein the rotor is connected to the threaded spindle by means of an adapter which is connected to the rotor in a rotationally fixed manner, characterized in that the adapter has an overload clutch.
A prosthesis for receiving a prosthetic valve (14, 114, 214) to replace a preexisting natural or prosthetic heart valve within a biological annulus, comprising: an annular member implantable within the biological annulus; a sewing cuff extending outwardly from the annular member; a plurality of guide rails comprising first ends coupled to one of the annular member and the sewing cuff for guiding a prosthetic valve (14, 114, 214) towards at least one of the sewing cuff and the annular member; characterised by one or more locking tabs (54, 56, 57) positioned on the guide rails for securing the prosthetic valve (14, 114, 214) relative to the prosthesis. an annular member implantable within the biological annulus; a sewing cuff extending outwardly from the annular member; a plurality of guide rails comprising first ends coupled to one of the annular member and the sewing cuff for guiding a prosthetic valve (14, 114, 214) towards at least one of the sewing cuff and the annular member; characterised by one or more locking tabs (54, 56, 57) positioned on the guide rails for securing the prosthetic valve (14, 114, 214) relative to the prosthesis.
A process connection having an annular gasket; and having a cylindrical measuring probe of a sensor, wherein the gasket is present to seal a process environment, wherein the gasket is disposed between the process connection and the measuring probe; the gasket is fixable by means of a downholder; the gasket contacts a first annular sealing edge at the process connection; wherein the gasket has at least one conical outer jacket surface having a conical outer jacket angle and the process connection has a conical inner surface, with the gasket contacting the first annular sealing edge of the conical inner surface of the process connection; wherein the conical outer jacket angle is smaller than the conical inner angle, characterized in that the gasket surrounds the cylindrical measuring probe at a second annular sealing edge; and the downholder has a nose that projects into the gasket. having a cylindrical measuring probe of a sensor, wherein the gasket is present to seal a process environment, wherein the gasket is disposed between the process connection and the measuring probe; the gasket is fixable by means of a downholder; the gasket contacts a first annular sealing edge at the process connection; wherein the gasket has at least one conical outer jacket surface having a conical outer jacket angle and the process connection has a conical inner surface, with the gasket contacting the first annular sealing edge of the conical inner surface of the process connection; wherein the conical outer jacket angle is smaller than the conical inner angle, characterized in that the gasket surrounds the cylindrical measuring probe at a second annular sealing edge; and the downholder has a nose that projects into the gasket.
A method for detection of a basic peptide comprising the steps of: mixing a sample suspected to contain the basic peptide and a reagent containing denatured albumin to form a complex between the basic peptide and the denatured albumin; and detecting a turbidness of a mixture obtained in the step, wherein the denatured albumin is heat-denatured serum albumin. mixing a sample suspected to contain the basic peptide and a reagent containing denatured albumin to form a complex between the basic peptide and the denatured albumin; and detecting a turbidness of a mixture obtained in the step, wherein the denatured albumin is heat-denatured serum albumin.
An exhaust gas recirculation mixer configured to mix a fresh air flow and an EGR flow, the EGR mixer comprising: an air duct configured to allow the fresh air flow to flow therethrough, the air duct comprising an air duct opening; an EGR duct positioned adjacent to the air duct, the EGR duct is configured to allow the EGR flow to flow therethrough, the EGR duct comprising an EGR duct opening; a mixing duct positioned downstream of the air duct and also being positioned downstream of the EGR duct, the mixing duct comprising a first mixing section and a second mixing section, the air duct opening and the EGR duct opening both opening into the first mixing section, the mixing duct configured to mix the fresh air flow and the EGR flow into a mixed flow, the second mixing section being positioned downstream of the first mixing section; and a supplemental duct fluidly connecting the EGR duct to the second mixing section, the supplemental duct comprising an inlet opening and an outlet opening, the outlet opening of the supplemental duct being positioned downstream of the first mixing section, characterised in that the inlet opening of the supplemental duct is positioned upstream of the first mixing section, and in that the second mixing section comprises a first segment and a second segment and a third segment, the second segment is downstream of the first segment, the third segment is downstream of the second segment, and the second segment is a bend developing a transverse pressure gradient and providing centripetal forces to the mixed flow. an air duct configured to allow the fresh air flow to flow therethrough, the air duct comprising an air duct opening; an EGR duct positioned adjacent to the air duct, the EGR duct is configured to allow the EGR flow to flow therethrough, the EGR duct comprising an EGR duct opening; a mixing duct positioned downstream of the air duct and also being positioned downstream of the EGR duct, the mixing duct comprising a first mixing section and a second mixing section, the air duct opening and the EGR duct opening both opening into the first mixing section, the mixing duct configured to mix the fresh air flow and the EGR flow into a mixed flow, the second mixing section being positioned downstream of the first mixing section; and a supplemental duct fluidly connecting the EGR duct to the second mixing section, the supplemental duct comprising an inlet opening and an outlet opening, the outlet opening of the supplemental duct being positioned downstream of the first mixing section, characterised in that the inlet opening of the supplemental duct is positioned upstream of the first mixing section, and in that the second mixing section comprises a first segment and a second segment and a third segment, the second segment is downstream of the first segment, the third segment is downstream of the second segment, and the second segment is a bend developing a transverse pressure gradient and providing centripetal forces to the mixed flow.
A communications device configured to transmit data to an infrastructure equipment of a wireless communications network, the communications device comprising transceiver circuitry (901.1) configured to transmit signals and receive signals via a wireless access interface provided by the wireless communications network, and controller circuitry (901.2) configured to control the transceiver circuitry to generate a plurality of encoded bits by encoding uplink data, to transmit, to the infrastructure equipment, the plurality of encoded bits in a plurality of Orthogonal Frequency-Division Multiplexed, OFDM, symbols in radio resources forming a physical uplink shared channel, PUSCH, of the wireless access interface, the PUSCH being divided between a first segment located in a first time divided slot of the wireless access interface and a second segment located in a second time divided slot of the wireless access interface, wherein at least one of the first segment and the second segment comprises enough of the plurality of encoded bits such that the at least one of the first segment and the second segment can be independently decoded by the infrastructure equipment to recover the uplink data, and wherein one of the first segment and the second segment is formed by the communications device based on at least a subset of the OFDM symbols transmitted in the portion of the PUSCH of the other of the first segment and the second segment, wherein the at least the subset of the OFDM symbols comprises less than the whole of at least one of the OFDM symbols of the at least the subset of the OFDM symbols. transceiver circuitry (901.1) configured to transmit signals and receive signals via a wireless access interface provided by the wireless communications network, and controller circuitry (901.2) configured to control the transceiver circuitry to generate a plurality of encoded bits by encoding uplink data, to transmit, to the infrastructure equipment, the plurality of encoded bits in a plurality of Orthogonal Frequency-Division Multiplexed, OFDM, symbols in radio resources forming a physical uplink shared channel, PUSCH, of the wireless access interface, the PUSCH being divided between a first segment located in a first time divided slot of the wireless access interface and a second segment located in a second time divided slot of the wireless access interface, wherein at least one of the first segment and the second segment comprises enough of the plurality of encoded bits such that the at least one of the first segment and the second segment can be independently decoded by the infrastructure equipment to recover the uplink data, and wherein one of the first segment and the second segment is formed by the communications device based on at least a subset of the OFDM symbols transmitted in the portion of the PUSCH of the other of the first segment and the second segment, wherein the at least the subset of the OFDM symbols comprises less than the whole of at least one of the OFDM symbols of the at least the subset of the OFDM symbols.
An agricultural working machine, in particular a tractor, with a drive unit comprising at least one propulsion engine for the production of propulsive power, with a first power consumer in the form of a propulsion unit and at least one further power consumer in the form of a hydraulically actuatable working unit (6, 7) and/or implement of the agricultural working machine, wherein a driver assistance system of the agricultural working machine is configured to carry out an automatic regulation of the propulsive power based on both a determined required power and/or load factor of the first power consumer as well as based on a determined required hydraulic power and/or a hydraulic load factor of the at least one further power consumer, characterized in that the driver assistance system for automatic regulation of the propulsive power has a hydraulic controller which is configured to adjust the pump speed of the respective hydraulic pump (11, 12) which is associated with one or more of the further power consumers as a function of a performance requirement of the respective further power consumer(s), wherein drive controllers and hydraulic controllers are configured to communicate with each other. wherein a driver assistance system of the agricultural working machine is configured to carry out an automatic regulation of the propulsive power based on both a determined required power and/or load factor of the first power consumer as well as based on a determined required hydraulic power and/or a hydraulic load factor of the at least one further power consumer, characterized in that the driver assistance system for automatic regulation of the propulsive power has a hydraulic controller which is configured to adjust the pump speed of the respective hydraulic pump (11, 12) which is associated with one or more of the further power consumers as a function of a performance requirement of the respective further power consumer(s), wherein drive controllers and hydraulic controllers are configured to communicate with each other.
A compound which is the reaction product of an acylating agent and one or more compounds of formula I: wherein: each Ar independently represents naphthalene having 0 to 3 substituents selected from the group consisting of alkyl, alkoxy, alkoxyalkyl, aryloxy, aryloxyalkyl, hydroxy, hydroxyalkyl, halo and combinations thereof; each L is independently an alkylene linking group; 2 mol% to 98 mol% of the Y units are H(O(CR 2) 2) y O-, wherein y is 1 to 6 and R is independently selected from H, C 1 to C 6 alkyl and aryl, and 98 mol% to 2 mol% of the Y units are independently -OR" wherein R" is selected from C 1 to C 100 alkyl and aryl; each a is independently 0 to 3, with the proviso that at least one Ar moiety bears at least one group Y; and m is 1 to 100; and, wherein said acylating agent is at least one selected from a polyalkyl succinic acylating agent and polyalkenyl succinic acylating agent derived from polyalkene having M n of from 100 to 5000. each Ar independently represents naphthalene having 0 to 3 substituents selected from the group consisting of alkyl, alkoxy, alkoxyalkyl, aryloxy, aryloxyalkyl, hydroxy, hydroxyalkyl, halo and combinations thereof; each L is independently an alkylene linking group; 2 mol% to 98 mol% of the Y units are H(O(CR 2) 2) y O-, wherein y is 1 to 6 and R is independently selected from H, C 1 to C 6 alkyl and aryl, and 98 mol% to 2 mol% of the Y units are independently -OR" wherein R" is selected from C 1 to C 100 alkyl and aryl; each a is independently 0 to 3, with the proviso that at least one Ar moiety bears at least one group Y; and m is 1 to 100; and, wherein said acylating agent is at least one selected from a polyalkyl succinic acylating agent and polyalkenyl succinic acylating agent derived from polyalkene having M n of from 100 to 5000.
A catheter handle which includes a handle body having a proximal end and a distal end and a passage extending between the proximal end and the distal end, the handle body comprising a plurality of shell parts;a connector mounted at the proximal end of the handle body; and a strain relief arranged distally of the body, the strain relief and the connector being removably arranged relative to the handle body, characterized in that the plurality of shell parts can be at least partially separated from each other to access an interior of the handle body, and the catheter handle further comprises a steering control mechanism comprising an elongate, hollow cylindrical member in which a catheter sheath carrier is received, and wherein the cylindrical element also comprises a plurality of parts which can be at least partially separated from each otherto facilitate access to an interior of the cylindrical element.
Method for rapid emergency deactivation of a distributed assembly, in particular in the field of satellite technology, wherein the distributed assembly consists of at least two systems (UMB, BLS, SAS), and wherein each system (UMB, BLS, SAS) of the distributed assembly has at least one emergency deactivation component (N1,... N4), characterised in that the emergency deactivation components (N1,... N4) of the systems (UMB, BLS, SAS) are serially interconnected via a ring line, that a coded signal is continuously transferred between the emergency deactivation components (N1,... N4) of the systems (UMB, BLS, SAS) via the ring line, that the coded signal is changed in the event of an emergency deactivation in one of the systems (UMB, BLS, SAS) of the distributed assembly, and that the changed coded signal for an emergency deactivation is then transferred (3, 4, 5) from the initiating emergency deactivation component to the emergency deactivation components (N2, N3, N4) of the further systems (UMB, BLS, SAS) serially via the ring line.
A ceramic honeycomb structure comprising a ceramic honeycomb body comprising axial grooves on its periphery, and cell walls constituting a larger number of flow paths in its inside and a peripheral wall layer covering said grooves, characterized in that voids as stress release portions are provided at least partially between said peripheral wall layer and said grooves, and the number of grooves having said voids is 5% or more of the total number of grooves.
A method for hoisting and positioning oilfield apparatus in alignment with a wellbore, comprising: positioning a moveable support base a given distance from the wellbore; hoisting a first oilfield apparatus from the support base using a mast having at least two telescoping load bearing arms (106; 107) that are pivotably coupled to the support base, each of the arms comprising a first arm section comprising a first plurality of telescoping arm segments (132; 134) and a second arm section comprising a second plurality of telescoping arm segments (132; 134) that is coaxially aligned with the first plurality of telescoping arm segments, wherein each first plurality of telescoping arm segments (132; 134) is configured to telescope independently of the second plurality of telescoping arm segments (132; 134) with which it is coaxially aligned, and wherein the first arm section of the first arm is configured to telescope in unison with the first arm section of the second arm, and the second arm section of the first arm is configured to telescope in unison with the second arm section of the second arm; wherein the hoisting is accomplished through an action of extending at least the first sections of the first and second telescoping arms (106; 107); and pivoting the at least two telescoping arms (106; 107) to a first position while supporting the first oilfield apparatus. positioning a moveable support base a given distance from the wellbore; hoisting a first oilfield apparatus from the support base using a mast having at least two telescoping load bearing arms (106; 107) that are pivotably coupled to the support base, each of the arms comprising a first arm section comprising a first plurality of telescoping arm segments (132; 134) and a second arm section comprising a second plurality of telescoping arm segments (132; 134) that is coaxially aligned with the first plurality of telescoping arm segments, wherein each first plurality of telescoping arm segments (132; 134) is configured to telescope independently of the second plurality of telescoping arm segments (132; 134) with which it is coaxially aligned, and wherein the first arm section of the first arm is configured to telescope in unison with the first arm section of the second arm, and the second arm section of the first arm is configured to telescope in unison with the second arm section of the second arm; wherein the hoisting is accomplished through an action of extending at least the first sections of the first and second telescoping arms (106; 107); and
A method comprising: under control of a node of a multi-channel communication network: receiving information to be transmitted to a destination; querying a busy device list maintained in memory of the node, the busy device list including information regarding availability of one or more neighbor nodes; querying a link quality list maintained in memory of the node, the link quality list including information regarding a link quality of a link between the node and one or more neighbor nodes; identifying a neighbor node that, according to the busy device list and the link quality list, is available to receive transmissions and is capable of propagating the information to the destination, wherein the link quality is weighted more heavily than the availability of one or more neighbor nodes; and transmitting the information to the identified neighbor node. receiving information to be transmitted to a destination; querying a busy device list maintained in memory of the node, the busy device list including information regarding availability of one or more neighbor nodes; querying a link quality list maintained in memory of the node, the link quality list including information regarding a link quality of a link between the node and one or more neighbor nodes; identifying a neighbor node that, according to the busy device list and the link quality list, is available to receive transmissions and is capable of propagating the information to the destination, wherein the link quality is weighted more heavily than the availability of one or more neighbor nodes; and transmitting the information to the identified neighbor node.