mhurhangee/ep-ind-claims huggingface dataset:
Heat exchanger comprising at least: - a sleeve, extending mainly along a vertical axis, formed at least of one polymer, the exchanger being intended to make a first fluid partially in the form of steam circulate inside the sleeve, and to transfer at least some of the heat from the first fluid to a second fluid flowing on an outer wall of the sleeve, this heat transfer producing a condensation of at least some of the first fluid on the inner wall of the sleeve and an evaporation of at least some of the second fluid; - a tube having an orifice vertically situated under a lower end of the sleeve and configured to recover the first fluid having condensed inside the sleeve; - a device for fluidically connecting between the sleeve and the tube, the fluidic connection device comprising at least one pin having an upper end secured to the lower end of the sleeve; a lower end inserted into the orifice of the tube; an inner channel extending between said upper and lower ends and configured to collect the first condensed fluid exiting the sleeve and to guide it up into the tube; the exchanger being configured to allow for a relative movement between the pin and the tube along the main axis of extension of the sleeve; characterised in that the fluidic connection device comprises a ring returned on a part taken from among the pin and the tube, the ring being configured to define with the other from among the pin and the tube, a leakage passage for the evacuation outside of the tube and outside of the pin of some of the first non-condensed fluid coming from the lower end of the pin. - a sleeve, extending mainly along a vertical axis, formed at least of one polymer, the exchanger being intended to make a first fluid partially in the form of steam circulate inside the sleeve, and to transfer at least some of the heat from the first fluid to a second fluid flowing on an outer wall of the sleeve, this heat transfer producing a condensation of at least some of the first fluid on the inner wall of the sleeve and an evaporation of at least some of the second fluid; - a tube having an orifice vertically situated under a lower end of the sleeve and configured to recover the first fluid having condensed inside the sleeve; - a device for fluidically connecting between the sleeve and the tube, the fluidic connection device comprising at least one pin having an upper end secured to the lower end of the sleeve; a lower end inserted into the orifice of the tube; an inner channel extending between said upper and lower ends and configured to collect the first condensed fluid exiting the sleeve and to guide it up into the tube;
A hinge, comprising a hinge arm and a hinge base fitting with the hinge arm, wherein a support is disposed between the hinge arm and the hinge base; the support comprising a body, a first end and a second end, the first end of the support is movably connected to the hinge arm, and the second end of the support is movably disposed with the hinge base; a locking position is disposed on the hinge arm; a connecting piece is disposed in fitting with the locking position; characterized in that a first end of the connecting piece is movably connected to the body of the support, and a second end of the connecting piece is movably connected to a first end of a rocking bar; the body portion of the rocking bar is movably connected coaxially to a second end of the support and the hinge base; a connecting shaft is disposed on a second end of the rocking bar; a first end of a spring is hung to the connecting shaft, and the other end of the spring is hung to a hanging shaft that is disposed fixedly with the hinge base, the body portion of the rocking bar, the second end of the support, and the hinge base are fixedly connected by using a same shaft, and a shaft sleeve is disposed separately at positions at which two ends of the shaft are in contact with the hinge base, an elliptic elongated groove being disposed on the hinge base, and the shaft is disposed in the elongated groove, the connecting piece being disposed in the support in a locking manner, groove holes are disposed on two parallel side faces that are on the support and close to the first end of the support, a roller shaft runs through the first end of the connecting piece and the groove hole, a roller is disposed on the roller shaft, and the roller is disposed in fitting with the locking position, the first end of the rocking bar and the second end of the connecting piece being movably connected by using a rocking bar rivet and the hinge arm and the hinge base being movably connected by using a hinged rivet and a hinged sleeve that is sleeved on the hinged rivet.
A method implemented by a utility data collection device 'UDCD', the method comprising: determining, by the UDCD, a first standing wave ratio in a transmission path of a front end module `FEM' in the UDCD; adjusting a lookup table with one or more associations and/or values based on environmental or other changes that require altered power level settings; receiving an instruction to switch the transmission path to a known calibrated load in the FEM or determining to switch the transmission path to a known calibrated load in the FEM; directing, in response to receiving the instruction or the determining to switch, the FEM to switch the transmission path to a known calibrated load in the FEM; determining a second standing wave ratio in the transmission path associated with the known calibrated load; calibrating a transmitted power detector (134) and a reflected power detector (134) in the UDCD based on the determined second standing wave ratio in the transmission path associated with the known calibrated load; and controlling, using the adjusted lookup table, an input power to the transmission path of the FEM based on the measured first or second standing wave ratios. determining, by the UDCD, a first standing wave ratio in a transmission path of a front end module `FEM' in the UDCD; adjusting a lookup table with one or more associations and/or values based on environmental or other changes that require altered power level settings; receiving an instruction to switch the transmission path to a known calibrated load in the FEM or determining to switch the transmission path to a known calibrated load in the FEM; directing, in response to receiving the instruction or the determining to switch, the FEM to switch the transmission path to a known calibrated load in the FEM; determining a second standing wave ratio in the transmission path associated with the known calibrated load; calibrating a transmitted power detector (134) and a reflected power detector (134) in the UDCD based on the determined second standing wave ratio in the transmission path associated with the known calibrated load; and controlling, using the adjusted lookup table, an input power to the transmission path of the FEM based on the measured first or second standing wave ratios.
An anti-vibration bar (20, 30, 40, 50, 60, 70) able to be interposed between the bends of the tubes of two adjacent banks of tubes of a U-shaped tube bundle of a steam generator and characterised in that comprises: - at least one internal element (22, 32, 43, 53, 71, 72), referred to as a damping element, adapted to mechanically dampen the vibrations of the tubes; - at least one external element (23-1, 33-1, 44, 54, 64, 23-2, 33-2, 45, 55, 65, 73), referred to as a percussion element, in contact with said damping element (22, 32, 43, 53, 71, 72), said percussion element being adapted to be in contact with bends of the tubes of the bundle, - a damping clearance (35, 75) between said damping element and said percussion element, said damping clearance comprising a fluid performing a viscous damping. - at least one internal element (22, 32, 43, 53, 71, 72), referred to as a damping element, adapted to mechanically dampen the vibrations of the tubes; - at least one external element (23-1, 33-1, 44, 54, 64, 23-2, 33-2, 45, 55, 65, 73), referred to as a percussion element, in contact with said damping element (22, 32, 43, 53, 71, 72), said percussion element being adapted to be in contact with bends of the tubes of the bundle, - a damping clearance (35, 75) between said damping element and said percussion element, said damping clearance comprising a fluid performing a viscous damping.
Method for operating an application program for execution on an electrical control unit for a drive system, comprising the step of: - managing at least one application parameter by means of an application parameter manager, characterized - in that the application program runs on a firmware on the electrical control unit, and - in that the application parameter is a parameter of the application program, - wherein the application parameter manager is added to the application program, and - wherein the application parameter manager is not added to the firmware on the electrical control unit, and - wherein the method has the step of: - managing at least one device parameter by means of a device parameter manager, wherein the device parameter manager is added to the firmware on the electrical control unit. - managing at least one application parameter by means of an application parameter manager, characterized - in that the application program runs on a firmware on the electrical control unit, and - in that the application parameter is a parameter of the application program, - wherein the application parameter manager is added to the application program, and - wherein the application parameter manager is not added to the firmware on the electrical control unit, and - wherein the method has the step of: - managing at least one device parameter by means of a device parameter manager, wherein the device parameter manager is added to the firmware on the electrical control unit.
A chain block comprising: a load chain which hangs a load, wherein the load chain being made of a steel material having the Rockwell hardness C scale of 47 to 51 and comprising a load sheave member which is rotatably supported between a first frame and a second frame, around which the load chain is wound, and which has a chain pocket in which the load chain goes, characterized in that the load sheave member being made of a steel material in which at least the chain pocket has the Rockwell hardness C scale of 40 to 45. a load chain which hangs a load, wherein the load chain being made of a steel material having the Rockwell hardness C scale of 47 to 51 and comprising a load sheave member which is rotatably supported between a first frame and a second frame, around which the load chain is wound, and which has a chain pocket in which the load chain goes, characterized in that the load sheave member being made of a steel material in which at least the chain pocket has the Rockwell hardness C scale of 40 to 45.
A service allocation determination device configured to allocate, to a slice being a virtual network logically constructed on a network infrastructure, a service using the virtual network, comprising: a service request receiving means for receiving a service request containing service requirements being functional or performance requirements in a service to be provided using the virtual network; an allocation determination means for determining to which of an existing slice and a new slice a service is to be allocated based on service requirements received by the service request receiving means, an attribute of an existing slice, and an index related to service allocation to a slice; and an allocation request means for making a request for allocating a service to a slice determined by the allocation determination means, wherein either the service requirements include an isolation requirement and the allocation determination means is configured to determine an allocation to a slice where another service is not allocated based on the service requirements, and the allocation request means is configured to request an allocation to a slice where another service is not allocated based on the determination of the allocation determination means; or the service requirements do not include an isolation requirement, the allocation determination means is configured to determine whether to allocate the service to a slice where an existing service is allocated or to a slice where an existing service is not allocated. a service request receiving means for receiving a service request containing service requirements being functional or performance requirements in a service to be provided using the virtual network; an allocation determination means for determining to which of an existing slice and a new slice a service is to be allocated based on service requirements received by the service request receiving means, an attribute of an existing slice, and an index related to service allocation to a slice; and an allocation request means for making a request for allocating a service to a slice determined by the allocation determination means, wherein either the service requirements include an isolation requirement and the allocation determination means is configured to determine an allocation to a slice where another service is not allocated based on the service requirements, and the allocation request means is configured to request an allocation to a slice where another service is not allocated based on the determination of the allocation determination means; or the service requirements do not include an isolation requirement, the allocation determination means is configured to determine whether to allocate the service to a slice where an existing service is allocated or to a slice where an existing service is not allocated.
A compound of formula I: wherein: is a single bond and X is N; and wherein: n is 3 to 10; R is H or QR 1; each R' is independently selected from H and QR 1; each Q is independently selected from a bond, CO, NH, S, SO, SO 2 or O; each R 1 is independently selected from C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, substituted or unsubstituted aryl or heteroaryl, acyl, C 1 -C 10 cycloalkyl, halogen, C 1 -C 10 alkylaryl or C 1 -C 10 heterocycloalkyl; L is a nitrogen-containing heteroaryl independently selected from pyridyl, triazolyl, triazinyl, tetrazolyl, oxazolyl, isoxazolyl, oxadiazolyl, pyridazinyl, pyrazinyl, pyrimidinyl, benzofused pyridyl, or quinazolinyl; and W is -CONHOH; each aryl or heteroaryl may be optionally substituted by alkyl, alkenyl, alkynyl or heteroaryl, and such groups including a heteroatom; or a pharmaceutically acceptable salt thereof. n is 3 to 10; R is H or QR 1; each R' is independently selected from H and QR 1; each Q is independently selected from a bond, CO, NH, S, SO, SO 2 or O; each R 1 is independently selected from C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, substituted or unsubstituted aryl or heteroaryl, acyl, C 1 -C 10 cycloalkyl, halogen, C 1 -C 10 alkylaryl or C 1 -C 10 heterocycloalkyl; L is a nitrogen-containing heteroaryl independently selected from pyridyl, triazolyl, triazinyl, tetrazolyl, oxazolyl, isoxazolyl, oxadiazolyl, pyridazinyl, pyrazinyl, pyrimidinyl, benzofused pyridyl, or quinazolinyl; and W is -CONHOH; each aryl or heteroaryl may be optionally substituted by alkyl, alkenyl, alkynyl or heteroaryl, and such groups including a heteroatom; or a pharmaceutically acceptable salt thereof.
A method comprising: determining whether a skin temperature at a skin portion of a mobile device is greater than a threshold temperature; and providing power to a first thermoelectric cooler, TEC, to cool a first side of the first TEC while heating a second side of the first TEC if the skin temperature is greater than the threshold temperature, wherein the first side of the first TEC contacts the skin portion to cool the skin portion; and wherein the second side of the first TEC faces a heat-generating component in an inside portion of the mobile device, the heat-generating component having an allowable temperature limit much higher than the threshold temperature of the skin portion, the first TEC being located between the skin portion and the heat-generating component, such that the skin portion is cooled and the heat-generating component is heated. determining whether a skin temperature at a skin portion of a mobile device is greater than a threshold temperature; and providing power to a first thermoelectric cooler, TEC, to cool a first side of the first TEC while heating a second side of the first TEC if the skin temperature is greater than the threshold temperature, wherein the first side of the first TEC contacts the skin portion to cool the skin portion; and wherein the second side of the first TEC faces a heat-generating component in an inside portion of the mobile device, the heat-generating component having an allowable temperature limit much higher than the threshold temperature of the skin portion, the first TEC being located between the skin portion and the heat-generating component, such that the skin portion is cooled and the heat-generating component is heated.
A silencer apparatus for a gas turbine inlet system, the inlet system including an Inlet Bleed Heat, the silencer apparatus comprising: a gas turbine inlet ducting, a main silencer disposed along a gas flow direction in the gas turbine inlet ducting, and a pre-silencer also disposed along the gas flow direction in the gas turbine inlet ducting, and the turbine Inlet Bleed Heat, said Inlet Bleed Heat being located between the main silencer and the pre-silencer. a gas turbine inlet ducting, a main silencer disposed along a gas flow direction in the gas turbine inlet ducting, and a pre-silencer also disposed along the gas flow direction in the gas turbine inlet ducting, and the turbine Inlet Bleed Heat, said Inlet Bleed Heat being located between the main silencer and the pre-silencer.
A method of half-cut cutout processing of label paper which allows laser beam to cut a label sheet of the label paper into a given cutout shape, characterized in that the method comprises: printing a cutting locus along contours of said cutout shape on a surface of said label sheet, in a single color that is darker than or equal in darkness to a color which is the darkest of colors in portions to be cut; and irradiating with laser beam, and thereby cutting, the cutting locus so printed. printing a cutting locus along contours of said cutout shape on a surface of said label sheet, in a single color that is darker than or equal in darkness to a color which is the darkest of colors in portions to be cut; and irradiating with laser beam, and thereby cutting, the cutting locus so printed.
A steel wire comprising the following elements: 0.30 - 0.80 wt % carbon, 0.25 - 0.45 wt% silicon, 0.20 - 0.70 wt% manganese, 0.008 - 0.020 wt% titanium, 0.001 - 0.004 wt% zirconium, wherein the steel comprises less than 30% allotriomorphic ferrite, preferably less than 15% allotriomorphic ferrite; and wherein the steel comprises at least 50% pearlite microstructure, wherein the steel further comprises up to 0.012 wt% sulphur; wherein the steel further comprises up to 0.035 wt% aluminium; wherein the steel further comprises up to 0.005 wt% nitrogen; wherein the steel further comprises up to 0.4 wt% of at least one further element selected from chromium, nickel, copper or molybdenum, wherein each of the chromium and nickel is present in an amount of up to 0.5 wt% and wherein the molybdenum is present in an amount of up to 0.1 wt%; and wherein the copper is present in an amount of less than 0.2 wt%; wherein the steel further comprises up to 0.15 wt% tungsten; wherein the steel further comprises up to 0.15 wt% vanadium; wherein the steel further comprises up to 0.15 wt% cobalt; wherein the steel further comprises up to 0.020 wt% phosphorus; and wherein the remainder of the steel is iron. 0.30 - 0.80 wt % carbon, 0.25 - 0.45 wt% silicon, 0.20 - 0.70 wt% manganese, 0.008 - 0.020 wt% titanium, 0.001 - 0.004 wt% zirconium, wherein the steel comprises less than 30% allotriomorphic ferrite, preferably less than 15% allotriomorphic ferrite; and wherein the steel comprises at least 50% pearlite microstructure, wherein the steel further comprises up to 0.012 wt% sulphur; wherein the steel further comprises up to 0.035 wt% aluminium; wherein the steel further comprises up to 0.005 wt% nitrogen; wherein the steel further comprises up to 0.4 wt% of at least one further element selected from chromium, nickel, copper or molybdenum, wherein each of the chromium and nickel is present in an amount of up to 0.5 wt% and wherein the molybdenum is present in an amount of up to 0.1 wt%; and wherein the copper is present in an amount of less than 0.2 wt%; wherein the steel further comprises up to 0.15 wt% tungsten; wherein the steel further comprises up to 0.15 wt% vanadium; wherein the steel further comprises up to 0.15 wt% cobalt; wherein the steel further comprises up to 0.020 wt% phosphorus; and wherein the remainder of the steel is iron.
A method for carrying out the tracking of the position and orientation of a tool comprising a synthetic acoustic probe mounted on the manipulator arm of a robot, the plane of said acoustic probe being defined by two perpendicular axes X and Y, said tracking being carried out in a frame of reference known to said robot, characterized in that it comprises the following steps: - a first step in which the distance between the acoustic probe and a point on the surface of a point reference target occupying a fixed position is determined by means of the acoustic probe, this distance being determined for three different positions of the acoustic probe with respect to the target, the position of the acoustic probe with respect to the manipulator arm being geometrically deduced from the measurements carried out; - a second step in which amplitude and/or flight time measurements made by the acoustic probe are used in order to carry out the tracking of a fixed reference axis X', marked by a rectilinear tubular target, while moving the acoustic probe and successively positioning it at different points on said axis X' and in order to align the reference axis X of the acoustic probe with the fixed reference axis X'; - a third step in which the acoustic probe is moved along an axis Y' that is perpendicular to the fixed reference axis X' and amplitude and/or flight time measurements made by the acoustic probe are used in order to modify the orientation of the plane of the acoustic probe so as to align the axis Y of the acoustic probe with this perpendicular axis Y'; the parallel alignment of the axis X of the probe with the reference axis X' and the alignment of the axis Y of the probe with the axis Y' defining a reference orientation of the acoustic probe from which the changes of orientation imposed on the acoustic probe by the manipulator arm of the robot are determined. - a first step in which the distance between the acoustic probe and a point on the surface of a point reference target occupying a fixed position is determined by means of the acoustic probe, this distance being determined for three different positions of the acoustic probe with respect to the target, the position of the acoustic probe with respect to the manipulator arm being geometrically deduced from the measurements carried out; - a second step in which amplitude and/or flight time measurements made by the acoustic probe are used in order to carry out the tracking of a fixed reference axis X', marked by a rectilinear tubular target, while moving the acoustic probe and successively positioning it at different points on said axis X' and in order to align the reference axis X of the acoustic probe with the fixed reference axis X'; - a third step in which the acoustic probe is moved along an axis Y' that is perpendicular to the fixed reference axis X' and amplitude and/or flight time measurements made by the acoustic probe are used in order to modify the orientation of the plane of the acoustic probe so as to align the axis Y of the acoustic probe with this perpendicular axis Y';