mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a secure communication connection between a first device which is a calling computing device connected to a network and a second device, comprising the steps of: providing for the calling computing device a software button (22,24) originated externally to the calling computing device which is associated with the second device and is actuable by a user of the calling computing device; and upon actuation of the software button by the user, downloading an executable agent to the calling computing device, effective to establish a predetermined type of connection between the calling computing device and second device; during the predetermined type of connection, verifying the identity of the user of the calling computing device; characterised by after verifying the identity of the user of the calling computing device, requiring said user to select a personal identification code for use to enable a more secure connection for future actuations of the software button. providing for the calling computing device a software button (22,24) originated externally to the calling computing device which is associated with the second device and is actuable by a user of the calling computing device; and upon actuation of the software button by the user, downloading an executable agent to the calling computing device, effective to establish a predetermined type of connection between the calling computing device and second device; during the predetermined type of connection, verifying the identity of the user of the calling computing device; characterised by after verifying the identity of the user of the calling computing device, requiring said user to select a personal identification code for use to enable a more secure connection for future actuations of the software button.
A slot die coater (100, 200), comprising: an upper plate (105, 205); a lower plate (110, 210); and at least two individual lane shims interposed between the upper plate (105, 205) and the lower plate (110, 210) to form a slot, wherein the shim includes a fixing pin to improve positional precision when fixing to the upper plate (105, 205) or the lower plate (110, 210) and a fixing bolt for fixing to the upper plate (105, 205) or the lower plate (110, 210), wherein the slot die coater (100, 200) further comprises a manifold to hold a coating solution in the lower plate (110, 210), wherein the shim is mounted on a land portion in front of the manifold, wherein the fixing bolt is inserted into a fixing bolt groove of the lower plate (110, 210) through the shim, and wherein the shim has a fixing bolt hole in alignment with the fixing bolt groove, and the fixing bolt hole and the fixing bolt groove have a margin in a front-rear direction, which is a delivery direction, and there is no margin in a left-right direction, which is a lengthwise direction of the slot die coater (100, 200) perpendicular to the delivery direction. an upper plate (105, 205); a lower plate (110, 210); and at least two individual lane shims interposed between the upper plate (105, 205) and the lower plate (110, 210) to form a slot, wherein the shim includes a fixing pin to improve positional precision when fixing to the upper plate (105, 205) or the lower plate (110, 210) and a fixing bolt for fixing to the upper plate (105, 205) or the lower plate (110, 210), wherein the slot die coater (100, 200) further comprises a manifold to hold a coating solution in the lower plate (110, 210), wherein the shim is mounted on a land portion in front of the manifold, wherein the fixing bolt is inserted into a fixing bolt groove of the lower plate (110, 210) through the shim, and wherein the shim has a fixing bolt hole in alignment with the fixing bolt groove, and the fixing bolt hole and the fixing bolt groove have a margin in a front-rear direction, which is a delivery direction, and there is no margin in a left-right direction, which is a lengthwise direction of the slot die coater (100, 200) perpendicular to the delivery direction.
A portable, compact, infusion device (10; 100; 300) which can be worn by a patient for infusion of liquid drugs contained in at least one syringe (14a, 14b; 114a, 114b; 314a, 314b) into a patient's body, said device (10; 100; 300) including a body (11; 111; 211; 311) housing a driving system, wherein it comprises a pair, of interchangeable syringes (14a, 14b; 114a, 114b; 314a, 314b), each arranged to be connected to a same infusion site or to different infusion sites, receivable by said body (11; 111; 211), and said driving system includes a single electric motor (24; 124; 224; 324) and a first and a second mechanical assembly (21a, 28a, 29a, 21b, 28b, 29b; 121a, 128a, 140, 141, 121b, 128b; 221a, 228a, 240a, 221b, 228b, 240b) or a single mechanical assembly (321, 328, 329), each assembly being associated with one of the syringes or with both syringes (14a, 14b; 114a, 114b; 314a, 314b), respectively, and being arranged to convert the rotary motion of the motor (24; 124; 224; 324) into a linear motion and to apply said linear motion to a pusher (18a, 18b; 118a, 118b; 318a, 318b) associated with a plunger (17a, 17b; 117a, 117b; 317a, 317b) of the respective syringe, both mechanical assemblies or the single mechanical assembly being operated for causing simultaneous forward motion of the plunger in one syringe and backward motion of the plunger in a second syringe, thereby reducing the time required for restoring the starting operating conditions of the infusion device (10; 100; 300) i.e. the conditions from which the infusion device (10; 100; 300) can start administering the drug.
An apparatus, comprising: a downhole tool for conveyance in a wellbore extending into a subterranean formation, the downhole tool comprising: a collar assembly that comprises: a collar; a first module connector at a first end of the collar; a second module connector at a second end of the collar; the collar assembly further comprising: a plurality of modular cartridge assemblies (800, 1000) each of which comprises: a chassis assembly disposed within a housing and comprising a flow line and an electrical pathway; a first connector at a first end of the modular cartridge assembly; and a second connector at a second end of the modular cartridge assembly; wherein the first connector and the second connector are in fluid communication with the flow line and are further in electrical communication with the electrical pathway; a jam sub coupled to a first end of the collar assembly; and an adjustable device disposed between the jam sub and the modular cartridge assemblies (800,1000) to adjustably retain the modular cartridge assemblies (800,1000) within the collar assembly, wherein the adjustable device is selected from the group consisting of: a spring pack; and a least one biasing member. a collar; a first module connector at a first end of the collar; a second module connector at a second end of the collar; the collar assembly further comprising: a plurality of modular cartridge assemblies (800, 1000) each of which comprises: a chassis assembly disposed within a housing and comprising a flow line and an electrical pathway; a first connector at a first end of the modular cartridge assembly; and a second connector at a second end of the modular cartridge assembly; wherein the first connector and the second connector are in fluid communication with the flow line and are further in electrical communication with the electrical pathway; a chassis assembly disposed within a housing and comprising a flow line and an electrical pathway; a first connector at a first end of the modular cartridge assembly; and a second connector at a second end of the modular cartridge assembly; wherein the first connector and the second connector are in fluid communication with the flow line and are further in electrical communication with the electrical pathway; a jam sub coupled to a first end of the collar assembly; and an adjustable device disposed between the jam sub and the modular cartridge assemblies (800,1000) to adjustably retain the modular cartridge assemblies (800,1000) within the collar assembly, wherein the adjustable device is selected from the group consisting of: a spring pack; and a least one biasing member.
A method performed by an appliance for washing and rinsing goods, where some of the goods loaded into the appliance are sensitive to process water temperature changes, comprising: receiving via a user interface, an instruction to execute a general-type washing programme; characterized by receiving via the user interface, a further instruction that the appliance during execution of the general-type washing programme should take into account that goods sensitive to temperature changes are loaded into the appliance; measuring a temperature value in a washing compartment of the appliance upon executing a draining process; supplying fresh water to the washing compartment of the appliance; measuring, when the fresh water has been supplied, whether the process water being accommodated in a sump of the appliance is at a target temperature value or not, the target temperature value being defined to assume a value in a predetermined temperature range around the temperature value in the washing compartment measured during the draining process; and if not adjusting the temperature of the process water in the sump to attain the target temperature value, wherein the process water can be applied to the goods being sensitive to process water temperature changes. receiving via a user interface, an instruction to execute a general-type washing programme; characterized by receiving via the user interface, a further instruction that the appliance during execution of the general-type washing programme should take into account that goods sensitive to temperature changes are loaded into the appliance; measuring a temperature value in a washing compartment of the appliance upon executing a draining process; supplying fresh water to the washing compartment of the appliance; measuring, when the fresh water has been supplied, whether the process water being accommodated in a sump of the appliance is at a target temperature value or not, the target temperature value being defined to assume a value in a predetermined temperature range around the temperature value in the washing compartment measured during the draining process; and if not adjusting the temperature of the process water in the sump to attain the target temperature value, wherein the process water can be applied to the goods being sensitive to process water temperature changes.
Inertia wheel set for a horological resonator, arranged to oscillate about an oscillation axis, and comprising at least one magnetic area (11, 12; 11 to 14) for magnetic interaction with at least one escape wheel set of an escapement mechanism and/or a magnetised and/or ferromagnetic structural element (33, 34) comprised in a horological movement incorporating the horological resonator, said at least one magnetic area comprising at least one magnet; characterised in that said inertia wheel set further carries at least one magnetic compensating element, the magnetisation component whereof perpendicular to said oscillation axis can be adjusted in order to be able to obtain a total resultant magnetic moment for the inertia wheel set that is aligned in the direction of said oscillation axis.
Process for producing a glass article, comprising, in this order, a first process step A in which a surface of the glass article has a temperature of at least 400°C for at least some of the time, a second process step B wherein the surface of the glass article has a temperature of more than 5°C and less than 100°C and the surface is brought into contact with water or water vapor and wherein the surface of the glass article is supplied with an amount of water which corresponds to a water layer thickness of from 1 to 100 μm, and a third process step C wherein the glass article is processed further with contact of the surface with foreign materials or other glass articles. a second process step B wherein the surface of the glass article has a temperature of more than 5°C and less than 100°C and the surface is brought into contact with water or water vapor and wherein the surface of the glass article is supplied with an amount of water which corresponds to a water layer thickness of from 1 to 100 μm, and a third process step C wherein the glass article is processed further with contact of the surface with foreign materials or other glass articles.
A method for fastening aircraft components together, comprising: forming a fit between a fastener and a hole, the fastener comprising: a head; a cylindrical shank that extends from the head and is dimensioned to engage in a fit with a corresponding hole; which cylindrical shank has a surface and a diameter, a coating wherein the coating is applied in a non-uniform, discontinuous manner to the fastener to thereby leave the surface of the shank with irregular portions exposed and free of coating, and also to thereby leave the surface of the shank with irregular portions covered in coating, whereby the coating increases the diameter of the shank and forms peaks on the surface of the shank, wherein the coating exhibits a higher lubricity than the surface of the shank so that the irregular, coating covered portions of the surface of the shank exhibit a higher lubricity than the irregular portions of the surface of the shank exposed and free of coating, and wherein the coating exhibits a higher dielectric withstand voltage than the surface of the shank so that charge dissipates via the irregular portions of the surface of the shank exposed and free of coating before the dielectric withstand voltage of the coating covering the irregular, coating covered portions of the surface of the shank is met, by driving a shank of the fastener into the hole, building up electrical energy between the shank and the hole, traversing the electrical energy around the coating; and dissipating the electrical energy at irregular portions of the shank that are not covered by the coating, along the entire circumference of the shank. a head; a cylindrical shank that extends from the head and is dimensioned to engage in a fit with a corresponding hole; which cylindrical shank has a surface and a diameter, a coating wherein the coating is applied in a non-uniform, discontinuous manner to the fastener to thereby leave the surface of the shank with irregular portions exposed and free of coating, and also to thereby leave the surface of the shank with irregular portions covered in coating, whereby the coating increases the diameter of the shank and forms peaks on the surface of the shank, wherein the coating exhibits a higher lubricity than the surface of the shank so that the irregular, coating covered portions of the surface of the shank exhibit a higher lubricity than the irregular portions of the surface of the shank exposed and free of coating, and wherein the coating exhibits a higher dielectric withstand voltage than the surface of the shank so that charge dissipates via the irregular portions of the surface of the shank exposed and free of coating before the dielectric withstand voltage of the coating covering the irregular, coating covered portions of the surface of the shank is met, by driving a shank of the fastener into the hole, building up electrical energy between the shank and the hole, traversing the electrical energy around the coating; and dissipating the electrical energy at irregular portions of the shank that are not covered by the coating, along the entire circumference of the shank.
A method for producing a surface structure of a large-format pressing tool with at least one edge length amounting to more than one meter, in particular a press plate or an endless belt, for pressing material sheets, plastic films, separating films, PVC surfaces and LVTs (luxury vinyl tiles), check cards, passports, credit cards or plastic cards, comprising at least the steps: - providing and using digitized data of a 3D topography of a surface structure, - generating digitized data of individual 2D layers of the 3D topography, - using the digitized data of the 2D layers in order to guide a processing head and/or to position it in an x-y plane, or to track a work table in the plane spanned by an x- and a y-coordinate relative to a processing head which is held stationary, in order to connect a layer material to an existing carrier material or an already completed layer as a function of the digitized data of the 2D layers, wherein the surface structure is subdivided, independently of a repeating pattern, into subregions which are each processed sequentially or are at least partially processed in parallel by several processing heads, and/or that the boundaries of the subregions are freely selectable and/or in that the defined subregions have an edge length amounting to 10 cm to 100 cm depending on the processing head that is used. - providing and using digitized data of a 3D topography of a surface structure, - generating digitized data of individual 2D layers of the 3D topography, - using the digitized data of the 2D layers in order to guide a processing head and/or to position it in an x-y plane, or to track a work table in the plane spanned by an x- and a y-coordinate relative to a processing head which is held stationary, in order to connect a layer material to an existing carrier material or an already completed layer as a function of the digitized data of the 2D layers,
A composite material for drainage and filling at a landfill site, comprising: a) a thermoplastic material at a concentration from 65% to 83%; b) a multilayer laminated plastic material at a concentration from 2% to 20%; c) sand at a concentration from 16% to 26% by weight based on the total weight of the composite material. a) a thermoplastic material at a concentration from 65% to 83%; b) a multilayer laminated plastic material at a concentration from 2% to 20%; c) sand at a concentration from 16% to 26% by weight based on the total weight of the composite material.
A method for determining a division of a total insulation resistance (R iso) in an ungrounded single-phase or multiphase AC power supply system comprising active conductors (L x) between each of which a conductor-conductor voltage (U ac, U acxy) occurs, the method comprising the method steps of: - determining the total insulation resistance (R iso) of the ungrounded single-phase or multiphase AC power supply system, - measuring displacement voltages (U Lx_E) between each of the active conductors (L x) of the ungrounded single-phase or multiphase AC power supply system and ground, - determining a resistance division factor (r R), which describes the division of the total insulation resistance (R iso) into partial insulation resistances (R isox) related to the active conductors (L x), as a function of at least one of the parameters amplitude, frequency, phase of the displacement voltages (U Lx_E) measured, the resistance division factor (r R) being determined from the relation of the amplitudes of the displacement voltages (U Lx_E) in an ungrounded single-phase or multi-phase AC power supply system, taking into account the frequency and the phasing of the displacement voltages (U Lx_E). - determining the total insulation resistance (R iso) of the ungrounded single-phase or multiphase AC power supply system, - measuring displacement voltages (U Lx_E) between each of the active conductors (L x) of the ungrounded single-phase or multiphase AC power supply system and ground, - determining a resistance division factor (r R), which describes the division of the total insulation resistance (R iso) into partial insulation resistances (R isox) related to the active conductors (L x), as a function of at least one of the parameters amplitude, frequency, phase of the displacement voltages (U Lx_E) measured,
Method of testing performance of a computerized infrastructure, this method comprising a first phase of defining a load testing scenario including a plurality of requests (R1-Rn), each request (Ri) being followed by a waiting time (Ti), and a second phase of executing the said load testing scenario by a load testing means by injecting the said plurality of requests destined for the computerized infrastructure, the phase of defining the said load testing scenario comprising the following steps: - determination of the total duration of the load testing scenario so that the load injection rate is equal to a predefined load injection rate; - definition of an interval of variation for each waiting time (Ti) so that the sum of the upper bounds of the said intervals of variation is equal to the total duration of the load testing scenario; - choice of a value for each waiting time (Ti), this value being chosen randomly in the corresponding interval of variation; - calculation of the sum of the values chosen for the said waiting times; - insertion of a final timeout (Tf) of waiting in the load testing scenario so that the sum of the values of the said waiting times and the said final timeout (Tf) is equal to the total duration of the load testing scenario. - determination of the total duration of the load testing scenario so that the load injection rate is equal to a predefined load injection rate; - definition of an interval of variation for each waiting time (Ti) so that the sum of the upper bounds of the said intervals of variation is equal to the total duration of the load testing scenario; - choice of a value for each waiting time (Ti), this value being chosen randomly in the corresponding interval of variation; - calculation of the sum of the values chosen for the said waiting times; - insertion of a final timeout (Tf) of waiting in the load testing scenario so that the sum of the values of the said waiting times and the said final timeout (Tf) is equal to the total duration of the load testing scenario.
A polysubstituted pyridine compound, or a hydrate, a solvate or a pharmaceutically acceptable salt thereof, wherein the polysubstituted pyridine compound is selected from a group consisting of the following compounds: and
An indoor unit of an air conditioner, which comprises a cabinet to be installed at a ceiling of an indoor space; a front panel configured to shield the cabinet, and having a suction port through which indoor air is suctioned and panel outlet ports through which heat-exchanged air is discharged; a fan provided at an inside of the cabinet; a heat exchanger provided inside the cabinet, and disposed to surround a perimeter of the fan; supporting guides installed on the cabinet between the heat exchanger and the fan, and configured to guide the air discharged from the fan to be distributed and discharged toward the panel outlet ports, characterized by a drain pan assembly installed at an opened surface of the cabinet, and having a recessed portion at each of both side ends thereof so that outlet ports corresponding to the panel outlet ports are formed by being coupled to the cabinet, wherein the panel outlet ports are formed at an outer side further than the heat exchanger; wherein the panel outlet ports are formed at each of both side locations of the front panel which face each other, and wherein the supporting guides are provided at each of both sides corresponding to locations of the panel outlet ports.