mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a fluorine-doped glass preform for optical fibres, the method comprising: - exposing a soot preform to an atmosphere containing a fluorine-containing gas and substantially devoid of chlorine in a first elongated chamber (28; 44) of a first furnace (30; 40), the first elongated chamber (28; 44) having a single isothermal hot zone (33; 53) kept at a doping temperature of from 800°C to 1200°C to obtain a fluorine-doped soot preform; - dehydrating the fluorine-doped soot preform by exposing it to an atmosphere containing a chlorine-containing gas and substantially devoid of fluorine in a second elongated chamber of a second furnace, the second elongated chamber having an upper hot zone at a dehydration temperature of from 1000°C to 1350°C and a lower hot zone at a consolidation temperature of from 1500°C to 1650°C, wherein dehydration takes place in the upper hot zone of the second furnace, and - consolidating the fluorine-doped soot preform by moving it down into the lower hot zone of the second furnace so as to form a fluorine-doped glass preform. - exposing a soot preform to an atmosphere containing a fluorine-containing gas and substantially devoid of chlorine in a first elongated chamber (28; 44) of a first furnace (30; 40), the first elongated chamber (28; 44) having a single isothermal hot zone (33; 53) kept at a doping temperature of from 800°C to 1200°C to obtain a fluorine-doped soot preform; - dehydrating the fluorine-doped soot preform by exposing it to an atmosphere containing a chlorine-containing gas and substantially devoid of fluorine in a second elongated chamber of a second furnace, the second elongated chamber having an upper hot zone at a dehydration temperature of from 1000°C to 1350°C and a lower hot zone at a consolidation temperature of from 1500°C to 1650°C, wherein dehydration takes place in the upper hot zone of the second furnace, and - consolidating the fluorine-doped soot preform by moving it down into the lower hot zone of the second furnace so as to form a fluorine-doped glass preform.
A 5G network comprising: an Access Network, AN; a 5G Core, 5GC; one or more Campus Network components each configured to run 5GC software associated to a Campus Network; and one or more Public Network components each configured to run 5GC software associated to a Public Network, wherein the 5GC comprises a central cloud having functionally separated instances: a public 5GC instance configured to host the public network realized as a Network Slice, a private 5GC instance configured to host one or more Campus Networks, wherein the one or more Campus Networks are realized as Network Slices, and a data layer instance configured to host Unified Data Repository, UDR, functionality, wherein Unified Data Management, UDM, functions of both 5GC instances are connected to the data layer instance, wherein a Network Slice Selection Function, NSSF, of both the public network and the one or more Campus Networks, contains the information about Network Slices present in both 5GC instances. an Access Network, AN; a 5G Core, 5GC; one or more Campus Network components each configured to run 5GC software associated to a Campus Network; and one or more Public Network components each configured to run 5GC software associated to a Public Network, wherein the 5GC comprises a central cloud having functionally separated instances: a public 5GC instance configured to host the public network realized as a Network Slice, a private 5GC instance configured to host one or more Campus Networks, wherein the one or more Campus Networks are realized as Network Slices, and a data layer instance configured to host Unified Data Repository, UDR, functionality, a public 5GC instance configured to host the public network realized as a Network Slice, a private 5GC instance configured to host one or more Campus Networks, wherein the one or more Campus Networks are realized as Network Slices, and a data layer instance configured to host Unified Data Repository, UDR, functionality, wherein Unified Data Management, UDM, functions of both 5GC instances are connected to the data layer instance, wherein a Network Slice Selection Function, NSSF, of both the public network and the one or more Campus Networks, contains the information about Network Slices present in both 5GC instances.
A porous carbon structure for an air battery positive electrode, the porous carbon structure comprising pores and a skeleton containing carbon, and satisfying all of conditions (a) to (e) shown as follows: (a) a t-plot external specific surface area is in a range of 900 m 2 /g or more and 1,600 m 2 /g or less; determined by the t-plot method from a graph of an adsorption isotherm, which was obtained by the nitrogen adsorption method, and in which the layer thickness of adsorbed nitrogen was plotted on the horizontal axis, and the amount of adsorbed nitrogen was plotted on the vertical axis. (b) a pore volume of the pores having a diameter of 1 nm or more and 200 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 2.2 cm 3 /g or more and 7.0 cm 3 /g or less; (c) a pore volume of the pores having a diameter of 1 nm or more and 1,000 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 4.0 cm 3 /g or more and 10.0 cm 3 /g or less; (d) an overall porosity is in a range of 92% or more and 99% or less; and (e) a pore volume of the pores having a diameter of 200 nm or more and 10,000 nm or less, determined using a value obtained by the mercury intrusion method, is in a range of 2.3 cm 3 /g or more and 8.0 cm 3 /g or less. (a) a t-plot external specific surface area is in a range of 900 m 2 /g or more and 1,600 m 2 /g or less; determined by the t-plot method from a graph of an adsorption isotherm, which was obtained by the nitrogen adsorption method, and in which the layer thickness of adsorbed nitrogen was plotted on the horizontal axis, and the amount of adsorbed nitrogen was plotted on the vertical axis. (b) a pore volume of the pores having a diameter of 1 nm or more and 200 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 2.2 cm 3 /g or more and 7.0 cm 3 /g or less; (c) a pore volume of the pores having a diameter of 1 nm or more and 1,000 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 4.0 cm 3 /g or more and 10.0 cm 3 /g or less; (d) an overall porosity is in a range of 92% or more and 99% or less; and (e) a pore volume of the pores having a diameter of 200 nm or more and 10,000 nm or less, determined using a value obtained by the mercury intrusion method, is in a range of 2.3 cm 3 /g or more and 8.0 cm 3 /g or less.
A nosepiece for delivering substance to a nasal cavity of a subject, the nosepiece comprising a body part which comprises a base portion which defines a flow passage therethrough, and a projection at a distal end of the base portion which at least in part provides a tip of the nosepiece and confers a rigidity in the sagittal direction, which enables the tip to open fleshy tissue at an upper region of the nasal valve and thereby expand an open area of the nasal valve, and a flexibility in a lateral direction, orthogonal to the sagittal plane, which facilitates insertion of the tip into the nasal valve, wherein the projection extends axially in substantially parallel and offset relation to the longitudinal axis of the nosepiece, characterized in that the projection comprises a flat element, being an element with a length in the sagittal direction which is greater than a length in the lateral direction.
Temperature probe, having a functional ceramic sensor element and a ceramic housing, wherein the sensor element is arranged in such a way in the ceramic housing that at least one side face of the sensor element is in direct and form-locked contact with the ceramic housing, and having two contact elements for contacting the sensor element, which are arranged on opposing sides of the sensor element, characterized in that the ceramic housing has a cavity with a recess, wherein the sensor element is arranged at least partly recessed in the recess and wherein the contact elements, in a view onto the recess, are arranged to the sides of the recess and do not extend into the recess.
A substrate comprising: a first layer including a first insulating layer and an interconnection layer formed on the first insulating layer; a second layer including a plurality of second insulating layers, and a plurality of interconnection layers formed inside the insulating layers, each of the second insulating layers having an elastic modulus that is different from an elastic modulus of the first insulating layer; and a core layer (123; 323) that is sandwiched by the first layer and the second layer, and is more rigid than the first insulating layer and the second insulating layer. a first layer including a first insulating layer and an interconnection layer formed on the first insulating layer; a second layer including a plurality of second insulating layers, and a plurality of interconnection layers formed inside the insulating layers, each of the second insulating layers having an elastic modulus that is different from an elastic modulus of the first insulating layer; and a core layer (123; 323) that is sandwiched by the first layer and the second layer, and is more rigid than the first insulating layer and the second insulating layer.
Electrical machine comprising, in a machine housing, a machine stator and a machine rotor on a machine shaft, the shaft end of which machine shaft is routed out of the machine housing in the region of a housing space for an end plate and, for the purpose of detecting an angular position of the machine shaft, is fitted with a resolver having a resolver stator which is fixed to the housing and having a resolver rotor which is fixed to the shaft, characterized in that a rotor pin, which extends towards the free end of the shaft end and has an external polygonal shape for the purpose of manual rotation of the machine shaft, is integrally formed on the resolver rotor.
Assembly comprising a medical upper garment with a first outer visible side and a medical lower garment with a second outer visible side, wherein the upper garment has a main part and sleeves adjoining the latter, and wherein the lower garment has a trunk part and trouser legs adjoining the latter, characterized in that each sleeve is a short sleeve and that the short sleeves have an outer sleeve element and an inner sleeve element, and wherein the inner sleeve element has a first gathered region, and wherein the trouser legs have an outer trouser leg element and an inner trouser leg element, and wherein the inner trouser leg element has a second gathered region, and wherein the first gathered region cannot be seen on the first visible side, and the second gathered region cannot be seen on the second visible side.
A sound insulating or vibration damping structure, comprising, at least: a sound insulating or vibration damping member that comprises a sheet-like sheet section and plural projections arranged on one side of the sheet section; an adhesive layer arranged on a surface of the sheet section on the opposite side of the side provided with the projections; and an adherend to which the sound insulating or vibration damping member is adhered via the adhesive layer, characterized in that the sound insulating or vibration damping structure satisfies the following Formula: E_glue/I_glue > 0.5 × E_membrane/H E_glue, MPa,: storage modulus of adhesive layer I_glue, mm,: average thickness of adhesive layer E_membrane, MPa,: storage modulus of sheet section and projections H, mm,: average height of sheet section and projections, the storage moduli being measured in a measurement atmosphere having a temperature of 23°C and a humidity of 50% RH. a sound insulating or vibration damping member that comprises a sheet-like sheet section and plural projections arranged on one side of the sheet section; an adhesive layer arranged on a surface of the sheet section on the opposite side of the side provided with the projections; and an adherend to which the sound insulating or vibration damping member is adhered via the adhesive layer, characterized in that the sound insulating or vibration damping structure satisfies the following Formula: E_glue/I_glue > 0.5 × E_membrane/H E_glue, MPa,: storage modulus of adhesive layer I_glue, mm,: average thickness of adhesive layer E_membrane, MPa,: storage modulus of sheet section and projections H, mm,: average height of sheet section and projections, the storage moduli being measured in a measurement atmosphere having a temperature of 23°C and a humidity of 50% RH.
Media roll holder assembly (20; 120; 220; 320) for a roll that is detachably supported in a printing system, the assembly (20; 120; 220; 320) comprising: - a support (25; 125; 225; 325) positioned to support the roll in an operative position, such that the roll is arranged to rotate around a rotation axis; - a holding element (23; 123; 223; 323) positionable in a holding position at a periphery of the roll to engage the roll at a contact point for rotatably holding the roll on the support (25; 125; 225; 325); - a pivotable arm (21; 121; 221; 321) on which the holding element (23; 123; 223; 323) is provided, the pivotable arm (21; 121; 221; 321) being configured to pivot around a pivot axis, characterized in that the holding element (23; 123; 223; 323) in the holding position is positioned at an angle (β) of at least 180° from the pivot axis as measured around the rotation axis in a first pivoting direction wherein the holding element (23; 123; 223; 323) moves towards the rotation axis. - a support (25; 125; 225; 325) positioned to support the roll in an operative position, such that the roll is arranged to rotate around a rotation axis; - a holding element (23; 123; 223; 323) positionable in a holding position at a periphery of the roll to engage the roll at a contact point for rotatably holding the roll on the support (25; 125; 225; 325); - a pivotable arm (21; 121; 221; 321) on which the holding element (23; 123; 223; 323) is provided, the pivotable arm (21; 121; 221; 321) being configured to pivot around a pivot axis,
A locking pin system comprising: an actuator having an actuator body defining an axial bore along its length, a locking pin axially moveably mounted within the bore, and drive means (700, 900) for driving the locking pin axially along the bore between a locking position extending from the actuator body and an unlocking position relatively retracted into the actuator body; characterised in that: the drive means comprise engagement means for releasably engaging the locking pin, the engagement means being biased to an open position where they are not in engagement with the locking pin, and wherein the bore comprises a first section having a first diameter and a second section having a second, wider diameter, and wherein the bore and the engagement means are configured such that when the engagement means are located in the first section, the actuator body forces the engagement means to a closed position to engage with the locking pin and when the engagement means are in the second section, they return to the open position and out of engagement with the locking pin. an actuator having an actuator body defining an axial bore along its length, a locking pin axially moveably mounted within the bore, and drive means (700, 900) for driving the locking pin axially along the bore between a locking position extending from the actuator body and an unlocking position relatively retracted into the actuator body; characterised in that: the drive means comprise engagement means for releasably engaging the locking pin, the engagement means being biased to an open position where they are not in engagement with the locking pin, and wherein the bore comprises a first section having a first diameter and a second section having a second, wider diameter, and wherein the bore and the engagement means are configured such that when the engagement means are located in the first section, the actuator body forces the engagement means to a closed position to engage with the locking pin and when the engagement means are in the second section, they return to the open position and out of engagement with the locking pin. the drive means comprise engagement means for releasably engaging the locking pin, the engagement means being biased to an open position where they are not in engagement with the locking pin, and wherein the bore comprises a first section having a first diameter and a second section having a second, wider diameter, and wherein the bore and the engagement means are configured such that when the engagement means are located in the first section, the actuator body forces the engagement means to a closed position to engage with the locking pin and when the engagement means are in the second section, they return to the open position and out of engagement with the locking pin.
A stowage cart for use onboard an aircraft having a stowage bay configured for receiving a service cart, the stowage cart comprising a base assembly and an end assembly and configured to receive and retain a collapsed wheelchair thereon, characterized in that: the base assembly and the end assembly are hingedly secured to one another, wherein the end assembly of the stowage cart is configured into an upright position for the stowage cart to receive and retain the collapsed wheelchair thereon and into a collapsed position when the stowage cart is not retaining the collapsed wheelchair thereon, and wherein the stowage cart with the collapsed wheelchair thereon is configured to be received within the stowage bay with the end assembly in the upright position. the base assembly and the end assembly are hingedly secured to one another, wherein the end assembly of the stowage cart is configured into an upright position for the stowage cart to receive and retain the collapsed wheelchair thereon and into a collapsed position when the stowage cart is not retaining the collapsed wheelchair thereon, and wherein the stowage cart with the collapsed wheelchair thereon is configured to be received within the stowage bay with the end assembly in the upright position.
A head-mounted display device (100, 100B, 100Ca) comprising: an image display (20, 20B, 20Ca) configured to transmit light from an outside scene including a real marker and to display an image; a camera (61, 60B, 60Ca); a memory (138, 138A, 138Ca) configured to store data of a marker image corresponding to the real marker; and a processor configured to cause the image display to display the marker image based at least on the data; and capture an image of the real marker by the camera upon receiving an indication from the user or otherwise determining that the user visually perceives that the marker image displayed by the image display and the real marker substantially align at least partially with each other, characterized in that the processor is further configured to: derive at least one of a camera parameter of the camera and a spatial relationship, the spatial relationship being between the camera and the image display, based on coordinate values of the real marker in the captured image and coordinate values of the marker image in the displayed image. an image display (20, 20B, 20Ca) configured to transmit light from an outside scene including a real marker and to display an image; a camera (61, 60B, 60Ca); a memory (138, 138A, 138Ca) configured to store data of a marker image corresponding to the real marker; and a processor configured to cause the image display to display the marker image based at least on the data; and capture an image of the real marker by the camera upon receiving an indication from the user or otherwise determining that the user visually perceives that the marker image displayed by the image display and the real marker substantially align at least partially with each other, characterized in that the processor is further configured to: derive at least one of a camera parameter of the camera and a spatial relationship, the spatial relationship being between the camera and the image display, based on coordinate values of the real marker in the captured image and coordinate values of the marker image in the displayed image.
An inverted pillar plate for assaying microarrays, comprising: a plurality of chip mounts, each chip mount comprising at least one chip holder and configured to affix at least one of a plurality of microarrays and to prevent the at least one microarray from being displaced from the chip mount when the chip mount is placed facing downwards into a well containing an assay solution; a clip configured to attach the microarrays to the chip mounts; and a plate comprising a plurality of inverted plate pillars that extend from the plate, each inverted plate pillar configured to be coupled to one of the plurality of chip mounts, wherein each chip mount is configured to be affixed to at least one of the plurality of inverted plate pillars so that each chip mount is prevented from being displaced from the at least one inverted plate pillar when the plate is turned upside down. a plurality of chip mounts, each chip mount comprising at least one chip holder and configured to affix at least one of a plurality of microarrays and to prevent the at least one microarray from being displaced from the chip mount when the chip mount is placed facing downwards into a well containing an assay solution; a clip configured to attach the microarrays to the chip mounts; and a plate comprising a plurality of inverted plate pillars that extend from the plate, each inverted plate pillar configured to be coupled to one of the plurality of chip mounts, wherein each chip mount is configured to be affixed to at least one of the plurality of inverted plate pillars so that each chip mount is prevented from being displaced from the at least one inverted plate pillar when the plate is turned upside down.
An optical polymer satisfying an expression, ηA − ηB / ηB × 100 < 60 where, ηA is the melt viscosity of the optical polymer measured at a temperature of 290°C and a shear rate of 200 (1/s), and ηB is the melt viscosity of the optical polymer measured at a temperature of 290°C and a shear rate of 2000 (1/s).