mhurhangee/ep-ind-claims huggingface dataset:
A method for operating an anode furnace, wherein the anode furnace is formed from a plurality of heating ducts and furnace chambers, wherein the furnace chambers serve for receiving anodes and the heating ducts serve for controlling the temperature of the furnace chambers, wherein the anode furnace comprises at least one furnace unit, wherein the furnace unit comprises a heating zone, a firing zone and a cooling zone, which are in turn formed from at least one section (33, 34, 35, 36, 37, 38) comprising furnace chambers, wherein a suction ramp is arranged in a section of the heating zone and a burner ramp of the furnace unit is arranged in a section of the firing zone, wherein operation of the ramps (14, 15, 16, 17, 18, 19, 45) is controlled by means of a control apparatus of the furnace unit, characterized in that the ramps include one reading unit each, wherein the sections include at least one stationary transponder unit each, wherein the reading units of the ramps communicate with the transponder units of the sections in which the ramps are arranged, wherein the respective transponder units are identified by means of the control apparatus, and wherein a respective position of the ramps is determined by allocating the ramps to the respective transponder units.
A coplanar process fluid pressure sensor module, the module comprising: a coplanar base having a pair of process fluid pressure inlets, each having an isolator diaphragm; a housing body coupled to the coplanar base at an interface between the coplanar base and the housing body; a differential pressure sensor operably coupled to the pair of process fluid pressure inlets, and being disposed adjacent the coplanar base within the housing body; characterised in that it further comprises a stiffener plate having an aperture through which the housing body passes, the stiffener plate configured to clamp the housing body between itself and the coplanar base. a coplanar base having a pair of process fluid pressure inlets, each having an isolator diaphragm; a housing body coupled to the coplanar base at an interface between the coplanar base and the housing body; a differential pressure sensor operably coupled to the pair of process fluid pressure inlets, and being disposed adjacent the coplanar base within the housing body; characterised in that it further comprises a stiffener plate having an aperture through which the housing body passes, the stiffener plate configured to clamp the housing body between itself and the coplanar base.
A radiator panel for a spacecraft, the radiator panel comprising: two spaced-apart face-sheets including an inside face-sheet and an outside face-sheet; at least one heat pipe positioned between the two spaced-apart face-sheets and operatively engaged and in thermal communication with the two spaced-apart face-sheets; a core positioned between the two spaced-apart face-sheets; at least one insert positioned between the inside face-sheet and the outside face-sheet adjacent to the at least one heat pipe and configured to operatively secure a package to the inside face-sheet, wherein the at least one insert is configured to mate with the at least one heat pipe such that the at least one insert is operatively engaged and in thermal communication with the at least one heat pipe; and at least one external structural reinforcement member extending across an external side of the outside face-sheet. two spaced-apart face-sheets including an inside face-sheet and an outside face-sheet; at least one heat pipe positioned between the two spaced-apart face-sheets and operatively engaged and in thermal communication with the two spaced-apart face-sheets; a core positioned between the two spaced-apart face-sheets; at least one insert positioned between the inside face-sheet and the outside face-sheet adjacent to the at least one heat pipe and configured to operatively secure a package to the inside face-sheet, wherein the at least one insert is configured to mate with the at least one heat pipe such that the at least one insert is operatively engaged and in thermal communication with the at least one heat pipe; and at least one external structural reinforcement member extending across an external side of the outside face-sheet.
A battery pack comprising: a plurality of battery cells arranged parallel to each other in a length direction thereof, each of the battery cells comprising an electrode portion on each end thereof; a holder case accommodating the plurality of battery cells; a protective circuit module mounted on an outer side of the holder case; at least one first lead tab comprising a fixing portion and a fastening portion, the fixing portion extending from a region of the protective circuit module facing the holder case toward the holder case, the fastening portion being bent from the fixing portion in a direction parallel to the holder case and extending toward the electrode portion of the battery cell; and a second lead tab electrically connected to the electrode portion of the battery cell and placed at a position corresponding to the fastening portion of the first lead tab of the protective circuit module, wherein a fastening hole is formed in one of the first and second lead tabs and a latching portion is formed in the other of the first and second lead tabs such that the protective circuit module and the battery cell are electrically connected to each other by fastening the latching portion to the fastening hole. a plurality of battery cells arranged parallel to each other in a length direction thereof, each of the battery cells comprising an electrode portion on each end thereof; a holder case accommodating the plurality of battery cells; a protective circuit module mounted on an outer side of the holder case; at least one first lead tab comprising a fixing portion and a fastening portion, the fixing portion extending from a region of the protective circuit module facing the holder case toward the holder case, the fastening portion being bent from the fixing portion in a direction parallel to the holder case and extending toward the electrode portion of the battery cell; and a second lead tab electrically connected to the electrode portion of the battery cell and placed at a position corresponding to the fastening portion of the first lead tab of the protective circuit module, wherein a fastening hole is formed in one of the first and second lead tabs and a latching portion is formed in the other of the first and second lead tabs such that the protective circuit module and the battery cell are electrically connected to each other by fastening the latching portion to the fastening hole.
-2-(3-Diisopropylamino-1-phenylpropyl)-4-hydroxymethylphenol (Desfesoterodine) in the form of a tartaric acid salt, wherein the molar ratio of Desfesoterodine to tartaric acid is about 1:1.
Wearable device for the detection of auto fluorescence of an animal biological tissue emitting a fluorescent component at a wavelength of about 515 nm when lighted by a light source at a wavelength comprised between 200-1100 nm, comprising at least a component at about 450 nm, said device comprising an optical filter system of the bandpass kind, such that it isolates the light around said fluorescent component and it excludes components in the visible and in the UV said optical filter system being positioned in a frame for glasses or in a visor and comprising three superimposed nanometer-controlled lenses in optical glass having the following features: - bandpass filter having a transmittance curve as a Schott® BG39, showing a peak at about 500 nm and a bandwidth comprised between about 300 and 700 nm; - highpass filter having a transmittance curve as a Schott® GG495, showing a plateau beyond about 540 nm and substantially no transmittance below about 480 nm; - bandpass filter having a transmittance curve as a Schott® BG23, showing a peak at about 465 nm and a bandwidth comprised between about 300 and 600 nm. - bandpass filter having a transmittance curve as a Schott® BG39, showing a peak at about 500 nm and a bandwidth comprised between about 300 and 700 nm; - highpass filter having a transmittance curve as a Schott® GG495, showing a plateau beyond about 540 nm and substantially no transmittance below about 480 nm; - bandpass filter having a transmittance curve as a Schott® BG23, showing a peak at about 465 nm and a bandwidth comprised between about 300 and 600 nm.
Plant for producing bottles for liquid or semi-liquid products, the bottles being formed from thermoformable plastic, the plant comprising: - equipment for blow moulding bottles from preforms, with heating tunnel, - a filling and finishing line, comprising one or more stations for filling bottles, capping and/or stoppering, the line comprising an endless conveyor able to receive empty bottles ready to be filled and causing the bottles to transit in front of a plurality of filling, capping and/or stoppering stations, where a buffer conveyor is provided interposed between the blow moulding equipment and the filling and finishing line, formed mainly as an endless conveyor able to receive bottles, characterised in that the buffer conveyor comprises a first portion used under normal flow conditions, and a second portion complementary to the first portion and serving as a buffer storage space under unplanned stoppage conditions of the filling line, with an upstream handling device interposed between the blow moulding equipment and the buffer conveyor, having a number N4 of locations for bottles, and in that the bottle storage capacity for the second portion, denoted N22, is sized in accordance with the condition N22 > N8 + N1 - N4 - 1, with N8 designating the number of bottles and preforms that can be received in the heating tunnel and N1 designating the number of bottles and preforms that can be received in the blow moulding equipment. - equipment for blow moulding bottles from preforms, with heating tunnel, - a filling and finishing line, comprising one or more stations for filling bottles, capping and/or stoppering, the line comprising an endless conveyor able to receive empty bottles ready to be filled and causing the bottles to transit in front of a plurality of filling, capping and/or stoppering stations, where a buffer conveyor is provided interposed between the blow moulding equipment and the filling and finishing line, formed mainly as an endless conveyor able to receive bottles, characterised in that the buffer conveyor comprises a first portion used under normal flow conditions, and a second portion complementary to the first portion and serving as a buffer storage space under unplanned stoppage conditions of the filling line, with an upstream handling device interposed between the blow moulding equipment and the buffer conveyor, having a number N4 of locations for bottles, and in that the bottle storage capacity for the second portion, denoted N22, is sized in accordance with the condition N22 > N8 + N1 - N4 - 1, with N8 designating the number of bottles and preforms that can be received in the heating tunnel and N1 designating the number of bottles and preforms that can be received in the blow moulding equipment.
A method performed by a second network device, having a configurable antenna, to configure a wireless network connection between the second network device and a first network device, comprising the steps of - establishing a data connection between the second network device and the first network device; - receiving from the first network device over the data connection a first Devices Seen List comprising identifications of all those third network devices from which the first network device, using a wireless network, is able to receive data; - testing, by the second network device, whether the second network device, using the wireless network and the configurable antenna, is able to receive data from any Extra Network Devices being third network devices (105, 107) other than those comprised in the first Devices Seen List; - if the second network device is able to receive data from any Extra Network Devices, to modify the configurable antenna in such a way that the number of Extra Network Devices is reduced. - establishing a data connection between the second network device and the first network device; - receiving from the first network device over the data connection a first Devices Seen List comprising identifications of all those third network devices from which the first network device, using a wireless network, is able to receive data; - testing, by the second network device, whether the second network device, using the wireless network and the configurable antenna, is able to receive data from any Extra Network Devices being third network devices (105, 107) other than those comprised in the first Devices Seen List; - if the second network device is able to receive data from any Extra Network Devices, to modify the configurable antenna in such a way that the number of Extra Network Devices is reduced.
A meandering amount detection method for a metal strip (2, 2a, 2b, 2c, 2d) that detects a meandering amount of a metal strip traveling in a state of being overlapped in a plurality of stages at intervals, the meandering amount detection method characterised in that it comprises: a first step of calculating an end portion position in a width direction of a metal strip in each stage using an angle (θ,θ 1,θ 2,θ 3,θ 4) formed by a reference direction, which is any direction determined from a reference point, and a direction connecting the reference point and an end portion position in a width direction of a metal strip in each stage, a distance between the reference point and an end portion position in a width direction of a metal strip in each stage, and a distance between a straight line including a width direction of the metal strip and the reference point; and a second step of calculating a meandering amount of a metal strip in each stage based on the end portion position in the width direction calculated in the first step. a first step of calculating an end portion position in a width direction of a metal strip in each stage using an angle (θ,θ 1,θ 2,θ 3,θ 4) formed by a reference direction, which is any direction determined from a reference point, and a direction connecting the reference point and an end portion position in a width direction of a metal strip in each stage, a distance between the reference point and an end portion position in a width direction of a metal strip in each stage, and a distance between a straight line including a width direction of the metal strip and the reference point; and a second step of calculating a meandering amount of a metal strip in each stage based on the end portion position in the width direction calculated in the first step.
A method of controlling the pressure applied by a print head forming part of a thermal transfer printing apparatus, said apparatus including a support surface for the substrate to be printed, a thermal printing head, and drive means to move said thermal printing head towards said support surface, said drive means including a resiliently deformable member which undergoes deformation upon said printing head contacting a substrate on said support surface, said method being characterised in that it includes, while said printing head is moving into contact with said substrate, sensing the position of said print head and the deformation of said resiliently deformable member.
Optoelectronic sensor for detecting and determining the distance of an object in a monitoring area, having a light emitter which has a light source and is intended for emitting at least one light pulse, having a light receiver for generating a received signal from the light pulse which is remitted or reflected by the object, and having a control and evaluation unit which is designed to control the light emitter and to determine a time-of-flight of the light and, from this, to determine a distance of the object from the sensor, the control and evaluation unit having a timing unit which is set up to receive the received signal and a trigger signal and to determine the time-of-flight of the light from a time interval between the trigger signal and the receive signal, characterized in that the sensor has a trigger circuit which is set up to pick up a voltage (U L) applied to the light source of the light emitter and to output the trigger signal when a magnitude of the picked-up voltage (U L) exceeds a predetermined threshold value.
A device, which is adapted to prevent the forming of a wheel flat on an vehicle wheel, which runs on a rail, and comprises a moisture removing unit, which can be arranged in front of the wheel, seen in the travelling direction of the vehicle, to remove, in an active position, moisture from the upper side of the rail, characterised in that it comprises a rain sensor unit, which is arranged, when sensing moisture, to move the moisture removing unit to its active position.
A polymer comprising a conjugated diene monomer unit and a vinyl aromatic monomer unit, wherein the polymer has a polymer block comprising the vinyl aromatic monomer unit as a main component and a polymer block comprising the conjugated diene monomer unit and the vinyl aromatic monomer unit, a content of the polymer block is 10 % by mass or more and 40 % by mass or less, a bulk density of the polymer is 0.05 g/mL or more and 0.45 g/mL or less, a specific surface area of the polymer is 0.10 m 2 /g or more and 0.60 m 2 /g or less, and wherein in the polymer block, a content of a short-chain vinyl aromatic monomer-polymerized moiety comprising 2 to 6 vinyl aromatic monomer units is 50 % by mass or more based on the content of the vinyl aromatic monomer unit being 100 % by mass.
A method of growing an epitaxial layer on a substrate of monocrystalline S ilicon C arbide, SiC, comprising: - providing a source material of monolithic polycrystalline S ilicon C arbide, SiC, with a columnar micro-grain structure and a substrate of monocrystalline SiC, in a chamber of an inner container (31, 32) of a crucible with a distance therein between, - arranging a carbon getter in said chamber of the crucible to achieve a stable and suitable Si/C stoichiometry in the inner container (31, 32), said carbon getter having a melting point higher than 2200° C and having an ability of forming a carbide layer with carbon species evaporated from SiC, - reducing pressure in the chamber, - inserting an inert gas into the chamber and after insertion keeping the pressure higher than 0,01 mbar, - raising the temperature in the chamber to a growth temperature, such that a growth rate between 1 μm/h and 1 mm/h, is achieved, and - keeping the growth temperature until a growth of at least 5 μm has been accomplished on the substrate. - providing a source material of monolithic polycrystalline S ilicon C arbide, SiC, with a columnar micro-grain structure and a substrate of monocrystalline SiC, in a chamber of an inner container (31, 32) of a crucible with a distance therein between, - arranging a carbon getter in said chamber of the crucible to achieve a stable and suitable Si/C stoichiometry in the inner container (31, 32), said carbon getter having a melting point higher than 2200° C and having an ability of forming a carbide layer with carbon species evaporated from SiC, - reducing pressure in the chamber, - inserting an inert gas into the chamber and after insertion keeping the pressure higher than 0,01 mbar, - raising the temperature in the chamber to a growth temperature, such that a growth rate between 1 μm/h and 1 mm/h, is achieved, and - keeping the growth temperature until a growth of at least 5 μm has been accomplished on the substrate.
A method of making a fluid channel in a printhead structure, comprising: positioning a printhead die on a carrier, to form a carrier assembly, the printhead die comprising a first face having orifices and comprising a second face having fluid feed holes, wherein the printhead die is placed with the orifice side onto the carrier and is attached to the carrier using a thermal release tape, wherein a cap is arranged adjacent to and covering the second face; compression molding the printhead die into a molded printhead structure; compression molding a first segment of a fluid channel into the molded printhead structure simultaneously with compression molding the printhead die and the carrier into the molded printhead structure; and removing the carrier assembly from a first and a second mold, and releasing the carrier from the thermal release tape and removing the thermal release tape from the printhead die; materially ablating a second segment of the fluid channel to couple the channel with a fluid feed hole in the printhead die; wherein the materially ablating comprises removing a residual layer of molding material from between the first segment of the channel and the printhead die; and wherein the materially ablating further comprises removing material from the cap on the die to expose the fluid feed hole. positioning a printhead die on a carrier, to form a carrier assembly, the printhead die comprising a first face having orifices and comprising a second face having fluid feed holes, wherein the printhead die is placed with the orifice side onto the carrier and is attached to the carrier using a thermal release tape, wherein a cap is arranged adjacent to and covering the second face; compression molding the printhead die into a molded printhead structure; compression molding a first segment of a fluid channel into the molded printhead structure simultaneously with compression molding the printhead die and the carrier into the molded printhead structure; and removing the carrier assembly from a first and a second mold, and releasing the carrier from the thermal release tape and removing the thermal release tape from the printhead die; materially ablating a second segment of the fluid channel to couple the channel with a fluid feed hole in the printhead die; wherein the materially ablating comprises removing a residual layer of molding material from between the first segment of the channel and the printhead die; and wherein the materially ablating further comprises removing material from the cap on the die to expose the fluid feed hole.