mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, comprising: executing, during a runtime of a sandboxed application that is written to a secured memory, a first piece of code of a thread of the sandboxed application, wherein the sandboxed application comprises untrusted code that has been previously validated; receiving, as a result of executing the first piece of code, a request from the thread of the sandbox application to insert a new piece of code into the previously validated untrusted code of the sandboxed application during the runtime of the sandboxed application; in response to receiving the request: writing the new piece of code to a portion of the secured memory that cannot be executed by the sandboxed application; validating the new piece of code, wherein the validating comprises determining that none of the instructions in the new piece of code: - directly calls the operating system, or - can modify the state of the secured memory, or - directly addresses a memory location that is outside the location of the secured memory; and in response to a successful validation of the new piece of code, writing the validated new piece of code to a portion of the secured memory that can be executed by the sandboxed application. executing, during a runtime of a sandboxed application that is written to a secured memory, a first piece of code of a thread of the sandboxed application, wherein the sandboxed application comprises untrusted code that has been previously validated; receiving, as a result of executing the first piece of code, a request from the thread of the sandbox application to insert a new piece of code into the previously validated untrusted code of the sandboxed application during the runtime of the sandboxed application; in response to receiving the request: writing the new piece of code to a portion of the secured memory that cannot be executed by the sandboxed application; validating the new piece of code, wherein the validating comprises determining that none of the instructions in the new piece of code: - directly calls the operating system, or - can modify the state of the secured memory, or - directly addresses a memory location that is outside the location of the secured memory; and - directly calls the operating system, or - can modify the state of the secured memory, or - directly addresses a memory location that is outside the in response to a successful validation of the new piece of code, writing the validated new piece of code to a portion of the secured memory that can be executed by the sandboxed application.
A method for controlling a heating-up period of an oven, wherein - the heating-up period of the oven comprises a number of subsequent duty cycles, - each duty cycle includes a first phase with an upper current (I U) and an upper power (P U) and a second phase with a lower current (I L) and a lower power (P L), - the upper current (I U) exceeds a maximum allowed average current during the first phase of the duty cycle, - the lower current (I L) goes below the maximum allowed average current during the second phase of the duty cycle, and - the time (T U) of the first phase of the duty cycle is shorter than the time (T L) of the second phase of said duty cycle, characterized in, that an average current (I A) goes below or equals the maximum allowed average current during the duty cycle, wherein the average current (I A) defines an average value of the upper current (I U) and the lower current (I L), and wherein the calculation of said average current (I A) is weighted by the time (T U) of the upper current (I U) and the time (T L) of the lower current (I L), and wherein the upper current (I U) corresponds with a higher number of activated heating elements of the oven, and wherein the lower current (I L) corresponds with a lower number of activated heating elements of the oven, and wherein the heating elements are switched in parallel, and wherein the time (T U) of the first phase of the duty cycle is determined by the equation T U = T DC * I A − I L / I U − I L, wherein T U is the time of the first phase of the duty cycle, T DC is the time of the duty cycle, I U is the upper current, I L is the lower current and I A is the average current, and wherein the average current (I A) is elected by the user, wherein the average current (I A) may not exceed the maximum allowed average current. - the heating-up period of the oven comprises a number of subsequent duty cycles, - each duty cycle includes a first phase with an upper current (I U) and an upper power (P U) and a second phase with a lower current (I L) and a lower power (P L), - the upper current (I U) exceeds a maximum allowed average current during the first phase of the duty cycle, - the lower current (I L) goes below the maximum allowed average current during the second phase of the duty cycle, and - the time (T U) of the first phase of the duty cycle is shorter than the time (T L) of the second phase of said duty cycle,
A profile arrangement of a window or a door, consisting of a casement profile, in particular a sliding casement profile, a frame profile and an attachment profile, wherein the attachment profile is fastened to the frame profile and is arranged opposite the casement profile, separated by a rebate area in a circumferential direction of the rebate, wherein the casement profile, for displacement relative to a frame profile in a direction transverse, in particular perpendicular, to the principal plane of the window or the door, is movably connected with an actuating mechanism arranged at the casement profile and a displacement device in circumferential direction of the rebate, wherein the casement profile, for sliding displacement in parallel to the frame profile, is associated with at least one running element with rollers, and wherein the actuating mechanism arranged at the casement profile comprises slidable latch elements, which form a locked closed position of the window or the door with latch engagement elements respectively arranged at the frame profile, characterized in that the attachment profile forms a guide rail for the rollers of the casement-side running elements by means of a guide web, has a receiving groove for the purpose of guidingly mounting and coupling the displacement device to the frame profile and receives the latch engagement element in a form- and/or force-fit manner.
An aircraft comprising a frame, a first turbofan engine coupled to the frame, the first turbofan engine including a first turbine, a first fan coupled to the first turbine to be driven by rotation of the first turbine, and a first transmission coupled between the first turbine and the first fan to transmit rotation from the first turbine to the first fan, the first transmission having a star gearset, and a second turbofan engine coupled to the frame, the second turbofan engine including a second turbine, a second fan coupled to the second turbine to be driven by rotation of the second turbine, and a second transmission coupled between the second turbine and the second fan to transmit rotation from the second turbine to the second fan, the second transmission having a planetary gearset, wherein the first turbine and the second turbine are configured to rotate in a first direction, the first transmission is configured to transmit rotation from the first turbine to the first fan to cause rotation of the first fan in the first direction, and the second transmission is configured to transmit rotation from the second turbine to the second fan to cause rotation of the second fan in a second direction opposite the first direction.
An information processing program executable by a computer of an information processing apparatus for distinguishing whether there is an operation instruction or not in accordance with an operation made on an input device, wherein the information processing program allows the computer to act as: acquisition means (3, S2) for acquiring an input value based on the operation made on the input device; operation instruction distinguishing means (3, S4) for distinguishing whether there is an operation instruction or not provided by the operation made on the input device, such that the distinguishing result is different between when the input value is within a distinguishing range, which is a prescribed range, and when the input value is outside the distinguishing range; characterized by the computer further acting as range setting means (3, S3) for, when the input value is changed in a direction of being away from a border of the distinguishing range, changing a size of the distinguishing range such that the border approaches the post-change input value. acquisition means (3, S2) for acquiring an input value based on the operation made on the input device; operation instruction distinguishing means (3, S4) for distinguishing whether there is an operation instruction or not provided by the operation made on the input device, such that the distinguishing result is different between when the input value is within a distinguishing range, which is a prescribed range, and when the input value is outside the distinguishing range; characterized by the computer further acting as range setting means (3, S3) for, when the input value is changed in a direction of being away from a border of the distinguishing range, changing a size of the distinguishing range such that the border approaches the post-change input value.
An ALK-1 immunoadhesin for use in inhibiting lymphangiogenesis in a method of treating a pathological condition associated with lymphangiogenesis selected from cancer, tumor or cancer metastasis, cell proliferative disorder, macular degeneration, inflammatory disease, rheumatoid arthritis, diabetic retinopathy and psoriasis, comprising administering to a subject an effective amount of the ALK-1 immunoadhesin whereby the lymphangiogensis is inhibited, and wherein the ALK-1 immunoadhesin comprises amino acid residues 22-352 of SEQ ID NO: 2, residues 22-349 of SEQ ID NO: 4, residues 22-347 of SEQ ID NO: 6, residues 22-350 of SEQ ID NO: 8 or residues 22-350 of SEQ ID NO: 10
Method for producing a controlled atmosphere in the head space of a container storing a product, in a conveying installation, of the type comprising the steps of: - partially filling the container with the product up to a given filling level; - bringing the top part of the container into contact with a gaseous treatment atmosphere in order to evacuate all or some of the air present in the container above said filling level and to introduce the required controlled atmosphere above said level, - heat sealing or closing the top edge of the container by an appropriate means, - introducing the controlled atmosphere prior to and/or during the heat sealing, introducing the controlled atmosphere into a non-confined injection zone using at least one tubular injector capable of spraying the gaseous treatment atmosphere towards the top edge of the container in the injection zone, characterised in that the injector is oriented in the injection zone so that at least one of the components of the velocity of the sprayed gas is opposite the direction of movement of the containers, and in that the injector is supplied by means of a gas flow which allows a turbulent flow regime having a Reynolds number of between 5,000 and 20,000 to be achieved. - partially filling the container with the product up to a given filling level; - bringing the top part of the container into contact with a gaseous treatment atmosphere in order to evacuate all or some of the air present in the container above said filling level and to introduce the required controlled atmosphere above said level, - heat sealing or closing the top edge of the container by an appropriate means, - introducing the controlled atmosphere prior to and/or during the heat sealing, introducing the controlled atmosphere into a non-confined injection zone using at least one tubular injector capable of spraying the gaseous treatment atmosphere towards the top edge of the container in the injection zone, characterised in that the injector is oriented in the injection zone so that at least one of the components of the velocity of the sprayed gas is opposite the direction of movement of the containers, and in that the injector is supplied by means of a gas flow which allows a turbulent flow regime having a Reynolds number of between 5,000 and 20,000 to be achieved.
Composition comprising at least: a) a polyamide of PA-6,6 type obtained by a process of polymerization of monomers of polyamide PA-6,6 in the presence, in addition, of monofunctional and/or difunctional compounds comprising carboxylic acid or amine functional groups; b) a content of reinforcing fillers greater than or equal to 45 % by weight relative to the total weight of the composition; c) said composition having an apparent melt viscosity, in Pa.s, according to the following relationships: η 100 ≤ 30 X − 800 η 1000 ≤ 11 X − 280 in which η is the apparent melt viscosity of the polyamide composition measured at a temperature of 275°C; either at a shear rate of 100 s -1, η100, or at a shear rate of 1000 s -1, η1000; and X corresponds to the weight proportion of reinforcing fillers relative to the total weight of the composition, the polyamide has a melt flow index greater than or equal to 10 g/10 min according to the standard ISO 1133 measured at a temperature of 275°C with a load of 325 g. a) a polyamide of PA-6,6 type obtained by a process of polymerization of monomers of polyamide PA-6,6 in the presence, in addition, of monofunctional and/or difunctional compounds comprising carboxylic acid or amine functional groups; b) a content of reinforcing fillers greater than or equal to 45 % by weight relative to the total weight of the composition; c) said composition having an apparent melt viscosity, in Pa.s, according to the following relationships: η 100 ≤ 30 X − 800 η 1000 ≤ 11 X − 280 in which η is the apparent melt viscosity of the polyamide composition measured at a temperature of 275°C; either at a shear rate of 100 s -1, η100, or at a shear rate of 1000 s -1, η1000; and X corresponds to the weight proportion of reinforcing fillers relative to the total weight of the composition, the polyamide has a melt flow index greater than or equal to 10 g/10 min according to the standard ISO 1133 measured at a temperature of 275°C with a load of 325 g.
Assembly comprising a cable (100; 200; 300; 400), a connector (700; 750) that engages onto the cable, a box (800; 950; 1000) for electric wirings that carries the connector, and a branching conductor connected to the connector, wherein the cable comprises an outer jacket and adjacent to each other a first, a second and a third conductor (10, 20, 30) that extend within the outer jacket substantially parallel to each other and at substantially fixed mutual distances in a notional common straight plane, wherein the first, second and third conductor of the cable are each built up with an insulating sheath (12, 22, 32) of electrically insulating material in which a core (11, 21, 31) of electrically conductive material is accommodated, wherein the connector comprises a housing, electrical contacts that cut through the jacket and a branch connection (724, 725, 726, 754) for the branching conductor, wherein the electrical contacts each cut through the outer jacket and the insulating sheaths of the first, second or third conductor and then are in electrically conductive contact with its core, wherein the branch connection is electrically conductively connected to at least one of the electrical contacts, wherein the connector is provided with a cable carrier partially accommodated in the housing and the electrical contacts project from the housing in the direction of the cable carrier, wherein the box is provided with a circumferential wall (801; 952; 1002, 1003, 1004) and a bottom wall (802a, 802b; 954; 1006) that bound a first cavity for electric connections to which the branching conductor leads, wherein the box furthermore comprises a connector holder (910; 957; 1120) for the connector, wherein the connector holder is adapted and positioned for carrying the connector at the housing with the cable carrier in at least the first position accessible in a free or unimpeded manner to the cable from the outer side of the box, characterized in that the first, second and third conductor (10, 20, 30) of the cable (100, 200, 300, 400) are each built up with the insulating sheath (12, 22, 32) of electrically insulating material in which only one singular solid core (11, 21, 31) of electrically conductive material is accommodated, wherein the cable carrier comprises a cable inlay part that is provided with passage slits that coincide with the cutting contacts and wherein the cable carrier is movable in a guided translatory manner with respect to the housing and the box (800, 950, 1000) carrying the housing between a first pre-determined position in which the electrical contacts are spaced apart from the outer jacket, and a second pre-determined position in which the electrical contacts cut through the outer jacket and the insulating sheath (12, 22, 32).
A depilator, wherein, the depilator comprises a head portion and a hand-held portion coupled to the head portion; the head portion comprises a cold compressing portion and an illuminating portion 12)arranged around the cold compressing portion; the illuminating portion is configured to emit light to care a skin of a user; the hand-held portion comprises a hair removal device, a heat conducting portion, and a cool driving portion; the hair removal device is directly opposite to the cold compressing portion, configured to emit light to the cold compressing portion; the heat conducting portion is in contact with the cold compressing portion, to absorb heat of the cold compressing portion; the cool driving portion is fixed on a side of the hair removal device away from the cold compressing portion, and configured to drive external cooling medium to flow through a part of the heat conducting portion away from the cold compressing portion, so that the heat of the heat conducting portion is taken away by the external cooling medium, wherein the depilator is characterized by further comprising a cooling bracket, wherein the cooling bracket is fixedly coupled to the cool driving portion and defines a first cooling channel and a second cooling channel, which is separated from the first cooling channel; the hair removal device is fixed in the first cooling channel; and a part of the heat conducting portion away from the cold compressing portion is fixed in the second cooling channel. wherein the depilator is characterized by further comprising a cooling bracket, wherein the cooling bracket is fixedly coupled to the cool driving portion and defines a first cooling channel and a second cooling channel, which is separated from the first cooling channel; the hair removal device is fixed in the first cooling channel; and a part of the heat conducting portion away from the cold compressing portion is fixed in the second cooling channel.
A compact for cosmetics comprising an upper case, a lower case rotatably coupled to the upper case and a refill case detachably received in the lower case, wherein the refill case comprises a case mainbody (110, 210, 310) where contents for cosmetics are received; a case cover which opens and closes the case mainbody (110, 210, 310); and a mesh screen cover (130, 230, 330) having a border rim part (131, 231, 331) which is received in the case mainbody (110, 210, 310) to be tightly received within a wall (112, 212, 312) of the mainbody (110, 210, 310), and a high elasticity mesh screen (132, 232, 332) which has a border area supported by the border rim part (131, 231, 331) to extend inwardly so as to cover the contents for cosmetics from an outside, characterized in that the border rim part (131, 231, 331) of the mesh screen cover (130, 230, 330) comprises an upper ring part (131a, 331a) which supports the high elasticity mesh screen (132, 232, 332) at an upper side, a lower ring part (131b, 231b, 331b) which supports the high elasticity mesh screen (132, 232, 332) at a lower side to be symmetrical with the upper ring part (131a, 331a), and a vertically extending ring part (131c, 231c, 331c) which extends vertically from a lower side of the lower ring part (131b, 231b, 331b) to be tightly contact an inner wall (112, 212, 312) of the case mainbody (110, 210, 310), and the upper ring part (131a, 331a), the lower ring part (131b, 231b, 331b) and the vertically extending ring part (131c, 231c, 331c) are integrally formed with the high elasticity mesh screen (132, 232, 332) by injection molding.
A lift assembly for installation or removal of one or more combustion cans from a turbomachine, the lift assembly comprising: an upper rail, the upper rail having a circumferential curvature with respect to an axial centerline of the turbomachine; a plurality of rail flanges extending from the upper rail; and a plurality of combustion can support assemblies spaced apart from one another, each combustion can support assembly of the plurality of combustion can support assemblies including a support flange slidably coupled to a rail flange of the plurality of rail flanges, an outer sleeve, and an inner sleeve assembly configured to removably couple to a combustion can of the turbomachine, wherein the outer sleeve is fixedly coupled to the support flange, wherein each combustion can support assembly of the plurality of combustion can support assemblies defines a cylindrical coordinate system having an axial direction, a radial direction, and a circumferential direction, and wherein each combustion can support assembly of the plurality of support assemblies is configured to move along any of the axial direction, the radial direction, or the circumferential direction relative to the upper rail. an upper rail, the upper rail having a circumferential curvature with respect to an axial centerline of the turbomachine; a plurality of rail flanges extending from the upper rail; and a plurality of combustion can support assemblies spaced apart from one another, each combustion can support assembly of the plurality of combustion can support assemblies including a support flange slidably coupled to a rail flange of the plurality of rail flanges, an outer sleeve, and an inner sleeve assembly configured to removably couple to a combustion can of the turbomachine, wherein the outer sleeve is fixedly coupled to the support flange, wherein each combustion can support assembly of the plurality of combustion can support assemblies defines a cylindrical coordinate system having an axial direction, a radial direction, and a circumferential direction, and wherein each combustion can support assembly of the plurality of support assemblies is configured to move along any of the axial direction, the radial direction, or the circumferential direction relative to the upper rail.
An insulating heat dissipation sheet, comprising a silicone composition containing: a silicone resin in a content of 30 to 60% by volume; hexagonal boron nitride in a content of 40 to 70% by volume, wherein a particle size frequency distribution of the hexagonal boron nitride has maximal peaks in a range of 35 to 100 μm, and in a range of 10 to 25 μm and/or in a range of 0.4 to 5 μm, and an average particle size of the hexagonal boron nitride is in a range of 30 to 80 μm. a silicone resin in a content of 30 to 60% by volume; hexagonal boron nitride in a content of 40 to 70% by volume, wherein a particle size frequency distribution of the hexagonal boron nitride has maximal peaks in a range of 35 to 100 μm, and in a range of 10 to 25 μm and/or in a range of 0.4 to 5 μm, and an average particle size of the hexagonal boron nitride is in a range of 30 to 80 μm.