mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a MIM capacitor structure, comprising obtaining a base structure comprising a conductive bottom electrode plug, providing a recess in an insulating layer provided on the base structure, exposing the conductive bottom electrode plug, providing an oxidized Ru layer directly on the bottom electrode plug, depositing a Ru-comprising bottom electrode over the oxidized Ru, forming a dielectric layer on the Ru-comprising bottom electrode, and forming a conductive top electrode over the dielectric layer, characterized in that providing an oxidized Ru layer directly on the bottom electrode plug comprises selectively growing Ru on the bottom electrode plug by CVD, ALD or PEALD, based on a difference in incubation time of Ru growth on the bottom electrode plug compared to the base structure material, and oxidizing the selectively grown Ru.
An oligonucleotide capable of hybridizing under stringent conditions to a PIK3CA gene fusion selected from: i) TBL1XR1:PIK3CA, wherein the oligonucleotide hybridizes under stringent conditions to a fragment of SEQ ID NO:1 comprising nucleotides 139 to 141 of SEQ ID NO:1, or a complement thereof; or ii) FNDC3B:PIK3CA, and wherein said hybridization is to a nucleotide sequence including the fusion junction. i) TBL1XR1:PIK3CA, wherein the oligonucleotide hybridizes under stringent conditions to a fragment of SEQ ID NO:1 comprising nucleotides 139 to 141 of SEQ ID NO:1, or a complement thereof; or ii) FNDC3B:PIK3CA, and wherein said hybridization is to a nucleotide sequence including the fusion junction.
A system for the contactless transmission of electrical energy to a mobile part, wherein the system has a double floor in which there is arranged a primary part, the double floor has a first floor plate and second floor plates, bearing elements, supports and a rough floor, wherein the floor plates are received by bearing elements, in particular bearing elements forming a lower floor plate, wherein the bearing elements are held by supports above a rough floor, characterised in that the first floor plate is manufactured from aluminium, wherein at the underside of the first floor plate there is formed a receiving ring, ribs and a frame, wherein the ribs run from the receiving ring to the frame in a radial direction in the manner of the rays of a star, wherein the receiving ring is spaced apart from the frame, wherein the primary part has a receiving part and an upper part, wherein the upper part is received in the receiving part and a primary winding is arranged in the upper part, wherein the upper part is manufactured from a plastics material, wherein the receiving part is manufactured from aluminium, wherein the receiving part is received in the receiving ring. wherein the system has a double floor in which there is arranged a primary part, the double floor has a first floor plate and second floor plates, bearing elements, supports and a rough floor, wherein the floor plates are received by bearing elements, in particular bearing elements forming a lower floor plate, wherein the bearing elements are held by supports above a rough floor, characterised in that the first floor plate is manufactured from aluminium, wherein at the underside of the first floor plate there is formed a receiving ring, ribs and a frame, wherein the ribs run from the receiving ring to the frame in a radial direction in the manner of the rays of a star, wherein the receiving ring is spaced apart from the frame, wherein the primary part has a receiving part and an upper part, wherein the upper part is received in the receiving part and a primary winding is arranged in the upper part, wherein the upper part is manufactured from a plastics material, wherein the receiving part is manufactured from aluminium, wherein the receiving part is received in the receiving ring.
Build material application arrangement for an apparatus for additively manufacturing a three-dimensional object by means of successive layerwise selective irradiation and consolidation of layers of build material by means of at least one energy beam in a build area of the apparatus, comprising: - a first build material supply device configured to supply an amount of build material which is to be applied in a build area of a respective apparatus by means of a first build material application device, wherein the first build material supply device comprises a supply area in which the build material supplyable by the first build material supply device is supplied during operation of a respective apparatus; - a first build material application device configured to apply an amount of build material in a build area of the respective apparatus; - a second build material supply device configured to supply an amount of build material which is to be applied in the supply area of the first build material supply device by means of a second build material application device; - a second build material application device configured to apply an amount of build material to the supply area of the first build material supply device. - a first build material supply device configured to supply an amount of build material which is to be applied in a build area of a respective apparatus by means of a first build material application device, wherein the first build material supply device comprises a supply area in which the build material supplyable by the first build material supply device is supplied during operation of a respective apparatus; - a first build material application device configured to apply an amount of build material in a build area of the respective apparatus; - a second build material supply device configured to supply an amount of build material which is to be applied in the supply area of the first build material supply device by means of a second build material application device; - a second build material application device configured to apply an amount of build material to the supply area of the first build material supply device.
A method performed by a network node of enabling session or service continuity for a mobile terminal moving between an access point of a first type supporting default and dedicated bearers to an access point of a second type supporting default and not supporting dedicated bearers, wherein policy and charging rules are provided for application to at least a dedicated bearer, the method comprising: upon a move of the mobile terminal from an access point of the first type to an access point of the second type, removing an established dedicated bearer and temporarily suspending application of the rules to the dedicated bearer, wherein a session or service endpoint (30, 50) is kept agnostic of the removal of the dedicated bearer; upon a move of the mobile terminal from the access point of the second type to an access point of the first type, re-establishing the dedicated bearer and re-applying the rules to the re-established dedicated bearer. upon a move of the mobile terminal from an access point of the first type to an access point of the second type, removing an established dedicated bearer and temporarily suspending application of the rules to the dedicated bearer, wherein a session or service endpoint (30, 50) is kept agnostic of the removal of the dedicated bearer; upon a move of the mobile terminal from the access point of the second type to an access point of the first type, re-establishing the dedicated bearer and re-applying the rules to the re-established dedicated bearer.
A method comprising: a fire alarm control panel master device in a connected fire alarm system receiving and implementing a change to first configuration data of the master device; the master device identifying the change to the first configuration data of the master device; and the master device broadcasting a configuration message to a first plurality of slave devices of the master device, thereby cascading the configuration message from the master device to each of the first plurality of slave devices, wherein the configuration message includes the change to the first configuration data of the master device and the configuration data is cloned or replicated from the master device to each of the slave devices through the cascade, the method characterised in that further causing a user interface device to emit an audible or visual notification message that identifies which of the master device and the first plurality of slave devices are impacted by the change or the configuration message. a fire alarm control panel master device in a connected fire alarm system receiving and implementing a change to first configuration data of the master device; the master device identifying the change to the first configuration data of the master device; and the master device broadcasting a configuration message to a first plurality of slave devices of the master device, thereby cascading the configuration message from the master device to each of the first plurality of slave devices, wherein the configuration message includes the change to the first configuration data of the master device and the configuration data is cloned or replicated from the master device to each of the slave devices through the cascade, the method characterised in that further causing a user interface device to emit an audible or visual notification message that identifies which of the master device and the first plurality of slave devices are impacted by the change or the configuration message.
A device for measuring an optical break-through which is created in a transparent tissue (6, 14), beneath a tissue surface by treatment laser radiation which a laser surgical unit focuses into a treatment focus, said focus being located in the transparent tissue (6, 14), wherein said device comprises a detection beam path including optics, wherein the optics couple radiation emitted from the transparent tissue (6, 14), from beneath the tissue surface, into the detection beam path, wherein the device further comprises a source of illumination radiation (5, 29, 53) which couples illumination radiation into the transparent tissue, characterized in that the source of illumination radiation and the detection beam path are part of an interferometer structure which is configured as optical coherence tomograph spatially filtering radiation extending from the transparent tissue and that a detector unit (4, 3, 9; 39, 40, 41; 58, 59, 60) is arranged following the detection beam path, said detector unit (4, 3, 9; 39, 40, 41; 58, 59, 60) generating a detection signal which indicates the axial extent and/or position of the optical break-through in the transparent tissue (6, 14).
A guidewire positioning tool, comprising: a sheath having a bore extending axially through a length of the sheath, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire; a collet portion extending distally from a distal end of the sheath, the collet having collet arms and interstitial spaces, a bore extending axially through a length of the collet portion, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire, the collet arms having threads located on the exterior of the collet arms; a clamp nut positioned over the collet portion and configured to threadably engage the threads, wherein the clamp nut comprises a slot; characterized by a retainer rotatably attached to a proximal end of the sheath, the retainer having a bore extending axially through a length of the retainer, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire. a sheath having a bore extending axially through a length of the sheath, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire; a collet portion extending distally from a distal end of the sheath, the collet having collet arms and interstitial spaces, a bore extending axially through a length of the collet portion, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire, the collet arms having threads located on the exterior of the collet arms; a clamp nut positioned over the collet portion and configured to threadably engage the threads, wherein the clamp nut comprises a slot; characterized by a retainer rotatably attached to a proximal end of the sheath, the retainer having a bore extending axially through a length of the retainer, the bore having a slot extending radially from the bore, the bore and slot configured to receive a guidewire.
A catalytic composition which comprises microspheroidal alumina and an active component containing a mixture comprising Gallium and/or Gallium oxides, Tin and/or Tin oxides, a quantity ranging from 1 ppm to 50 ppm with respect to the total weight of the catalytic composition of platinum and/or platinum oxides, and oxides of alkaline and/or alkaline earth metals.
An electrode structure of a flow battery, comprising an electrode fiber, characterized in that, the electrode fibers are composed of layer structures, wherein each layer structure is composed of parallel tows woven with at least two directions and the connection between the layered structures is made up of a vertical tow, which is perpendicular to the electrode surface, and wherein a density of vertical tows in the electrode fiber is larger than a density of parallel tows, and wherein the porosity of the electrode fiber of the center layer is 90-93%; and the porosity of the electrode fiber of the other layers is 93-96%, wherein the porosity measured is a volume porosity, and wherein a ratio of a throughhole volume to an electrode material volume is measured.
Method for producing a three-dimensional work piece, the method comprising the steps of: - applying a layer of raw material powder onto a carrier accommodated within a process chamber by means of a powder application device, wherein a plurality of irradiation areas (18a, 18b, 18c, 18d) is defined on a surface of the carrier, and - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation system, the irradiation system comprising a plurality of irradiation units, each irradiation unit being associated with one of the irradiation areas (18a, 18b, 18c, 18d) defined on the surface of the carrier and being configured to selectively irradiate electromagnetic or particle radiation onto the raw material powder applied onto the associated irradiation area (18a, 18b, 18c, 18d), - supplying fresh gas to the process chamber by means of a gas inlet system, and - discharging gas containing particulate impurities from the process chamber by means of a gas outlet system such that a gas flow pattern is generated within the process chamber, the gas flow pattern being configured such that each irradiation area (18a, 18b, 18c, 18d) defined on the surface of the carrier is overflown with fresh gas which is supplied to the process chamber via the gas inlet system and which, after having overflown the irradiation area (18a, 18b, 18c, 18d), is discharged from the process chamber as gas containing particulate impurities via the gas outlet system without overflowing another of the plurality of irradiation areas. - applying a layer of raw material powder onto a carrier accommodated within a process chamber by means of a powder application device, wherein a plurality of irradiation areas (18a, 18b, 18c, 18d) is defined on a surface of the carrier, and - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation system, the irradiation system comprising a plurality of irradiation units, each irradiation unit being associated with one of the irradiation areas (18a, 18b, 18c, 18d) defined on the surface of the carrier and being configured to selectively irradiate electromagnetic or particle radiation onto the raw material powder applied onto the associated irradiation area (18a, 18b, 18c, 18d), - supplying fresh gas to the process chamber by means of a gas inlet system, and - discharging gas containing particulate impurities from the process chamber by means of a gas outlet system such that a gas flow pattern is generated within the process chamber, the gas flow pattern being configured such that each irradiation area (18a, 18b, 18c, 18d) defined on the surface of the carrier is overflown with fresh gas which is supplied to the process chamber via the gas inlet system and which, after having overflown the irradiation area (18a, 18b, 18c, 18d), is discharged from the process chamber as gas containing particulate impurities via the gas outlet system without overflowing another of the plurality of irradiation areas.
A light emitting device for a display, comprising: a first LED stack; a second LED stack disposed under the first LED stack; a third LED stack disposed under the second LED stack; a first transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with a lower surface of the first LED stack; a second transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with an upper surface of the second LED stack; a third transparent electrode interposed between the second LED stack and the third LED stack, and being in ohmic contact with an upper surface of the third LED stack; an n electrode pad disposed on a first conductivity type semiconductor layer of the third LED stack; a lower p electrode pad disposed on the third transparent electrode; and bump pads disposed on the first LED stack, wherein each of the first to third LED stacks includes a first conductivity type semiconductor layer (23a,33a,43a), an active layer and a second conductivity type semiconductor layer (23b,33b,43b), wherein the bump pads include first to third bump pads (73r,73b,73g) and a common bump pad, wherein the common bump pad is commonly electrically connected to the first to third LED stacks, wherein the first to third bump pads are electrically connected to the first to third LED stacks, respectively, and wherein an upper surface of the n electrode pad is located at the same elevation as that of the lower p electrode pad. a first LED stack; a second LED stack disposed under the first LED stack; a third LED stack disposed under the second LED stack; a first transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with a lower surface of the first LED stack; a second transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with an upper surface of the second LED stack; a third transparent electrode interposed between the second LED stack and the third LED stack, and being in ohmic contact with an upper surface of the third LED stack; an n electrode pad disposed on a first conductivity type semiconductor layer of the third LED stack; a lower p electrode pad disposed on the third transparent electrode; and bump pads disposed on the first LED stack, wherein each of the first to third LED stacks includes a first conductivity type semiconductor layer (23a,33a,43a), an active layer and a second conductivity type semiconductor layer (23b,33b,43b), wherein the bump pads include first to third bump pads (73r,73b,73g) and a common bump pad, wherein the common bump pad is commonly electrically connected to the first to third LED stacks, wherein the first to third bump pads are electrically connected to the first to third LED stacks, respectively, and wherein an upper surface of the n electrode pad is located at the same elevation as that of the lower p electrode pad.
Cleaning device with a cleaning chamber for cleaning instruments with at least one lumen to be cleaned, wherein at least one supply connection is provided, via which a liquid medium can be made available, and which is designed for connection of a connecting device (1, 1'), wherein the connecting device (1, 1') has an interior space with an inlet connection and at least one outlet connection, wherein the input connection is connectable to the supply connection of the cleaning device and the output connection is connectable to the lumen of the instrument to be cleaned, wherein at least one monitoring sensor is provided, wherein, in order to monitor at least one fluid parameter of a liquid medium in the interior of the connecting device (1, 1'), interaction of the liquid medium with the monitoring sensor of the cleaning device can be established via a device (30, 30') of the connecting device (1, 1') when the connecting device (1, 1') is connected in the ready-for-operation state to the at least one supply connection of the cleaning device, characterized in that the monitoring sensor is fixedly arranged in the cleaning chamber, and in that the interaction of the liquid medium with the monitoring sensor can be established via a non-permanent connection, the device comprising a plunger mounted in the interior so as to be displaceable against a restoring force, which can assume different displacement positions on the basis of the at least one fluid parameter, in which it projects with an actuating pin to different extents from the connecting device (1, 1') in order to enable interaction with the external monitoring sensor, or the device comprises a nozzle opening through which the liquid medium present in the interior can emerge from the interior as a directed jet in order to enable interaction with the external monitoring sensor.
Station for a bottling plant, comprising a casing, provided with an inlet opening and an outlet opening, a working zone being provided inside said casing, and a conveying line (9,5,13), which enters said casing through said inlet opening, passes through said working zone and leaves said casing through said outlet opening, wherein said conveying line comprises a conveyor belt formed by a plurality of aligned slats and comprising a plurality of differently oriented sections (5a-5h) joined to one another through junctions (6a-6g), said sections providing for a meandering path in said working zone, characterized in that said conveyor belt is entrained in its movement by means of a chain driven by suitable driving means and each of said slats is secured to said entraining chain, with respect to the geometric centre of said slat, at a position that is both offset in the longitudinal direction of the conveyor belt and offset in the transversal direction with respect to the conveyor belt, and in that each slat of said conveyor belt is secured to said entraining chain by means of a support secured to said slat through pins and wherein said support has a substantially "L"-shaped configuration comprising a first limb that, starting from said pins, extends parallel to the advancing direction of said conveyor belt and in the opposite direction with respect to the advancing direction of said conveyor belt, and a second limb (31a") that extends in a direction transversal to the advancing direction of said conveyor belt and thus joins said first limb of said support to said entraining chain.