mhurhangee/ep-ind-claims huggingface dataset:
A bearing assembly for a charging apparatus comprising: a bearing housing, a shaft, a compressor-side bearing bushing and a turbine-side bearing bushing which together support the shaft inside a bearing bore of the bearing housing, characterized in that the bearing assembly is configured to supply unequal amounts of lubricant to a compressor-side outer lubrication gap of the compressor-side bearing bushing and to a turbine-side outer lubrication gap of the turbine-side bearing bushing, and/or in that the bearing assembly is configured to supply unequal amounts of lubricant to a compressor-side inner lubrication gap of the compressor-side bearing bushing and to a turbine-side inner lubrication gap of the turbine-side bearing bushing, characterized in that a depth of a compressor-side circumferential lubricant groove of the compressor-side bearing bushing is different than a depth of a turbine-side circumferential lubricant groove of the turbine-side bearing bushing. a bearing housing, a shaft, a compressor-side bearing bushing and a turbine-side bearing bushing which together support the shaft inside a bearing bore of the bearing housing, characterized in that the bearing assembly is configured to supply unequal amounts of lubricant to a compressor-side outer lubrication gap of the compressor-side bearing bushing and to a turbine-side outer lubrication gap of the turbine-side bearing bushing, and/or in that the bearing assembly is configured to supply unequal amounts of lubricant to a compressor-side inner lubrication gap of the compressor-side bearing bushing and to a turbine-side inner lubrication gap of the turbine-side bearing bushing, characterized in that a depth of a compressor-side circumferential lubricant groove of the compressor-side bearing bushing is different than a depth of a turbine-side circumferential lubricant groove of the turbine-side bearing bushing.
An electric machine, in particular electrically excited claw-pole generator for a motor vehicle, having a stator winding whose line connections (14.1-14.5) are connected to a rectifier arrangement, wherein the stator winding is formed five-stranded as a simple or distributed wave winding and all conductors of the strand connections (14.1-14.5) are arranged in adjacent grooves, characterized in that all the conductors of the strand connections (14.1-14.5) to be interconnected are arranged in the first ten immediately adjacent grooves of a post-stator winding from a flat package to the finished, circularly rolled stator.
A method for producing a glass sheet of which an amount of eluted sodium ions in the glass sheet as measured after the glass sheet is left in pure water kept at 95°C for 24 hours is 0.2 μg/cm 2 or less and which has a dealkalized layer in at least one surface of the glass sheet and a dense structure in a surface of the dealkalized layer in which the average value of porosities is 0 to 10% in a region of 20 to 100 nm thickness where the dealkalized layer is formed, the method comprising the steps of: forming a molten glass raw material into a glass ribbon on a molten metal; and bringing an acid gas that contains a fluorine element -containing acid, and in which a volume ratio of water vapor to the acid (a volume of the water vapor / a volume of the acid) is 8 or more and not more than 30, into contact with a surface of the glass ribbon on the molten metal so as to subject the surface of the glass ribbon to dealkalization and control a morphology of the surface in accordance with the volume ratio at a treatment temperature of 600 to 680°C. forming a molten glass raw material into a glass ribbon on a molten metal; and bringing an acid gas that contains a fluorine element -containing acid, and in which a volume ratio of water vapor to the acid (a volume of the water vapor / a volume of the acid) is 8 or more and not more than 30, into contact with a surface of the glass ribbon on the molten metal so as to subject the surface of the glass ribbon to dealkalization and control a morphology of the surface in accordance with the volume ratio at a treatment temperature of 600 to 680°C.
Impeller system for use with a bioreactor, comprising: - a drive shaft configured for being rotated in a rotational direction around a longitudinal axis of the drive shaft by a drive motor of the bioreactor; - at least two impeller blades connected to the drive shaft, configured for being rotated along with the drive shaft when the drive shaft is rotated, wherein the at least two impeller blades are configured for transitioning from a collapsed first state, wherein the at least two impeller blades are not positioned axisymmetrically around the drive shaft, to an un-collapsed state, for performing agitation, wherein the at least two impeller blades are positioned axisymmetrically around the drive shaft, characterized in that at least one of the at least two impeller blades transitions from the collapsed state to the un-collapsed state by rotating along a circumference of the drive shaft due to resistance from a liquid in the bioreactor when agitation is performed. - a drive shaft configured for being rotated in a rotational direction around a longitudinal axis of the drive shaft by a drive motor of the bioreactor; - at least two impeller blades connected to the drive shaft, configured for being rotated along with the drive shaft when the drive shaft is rotated, wherein the at least two impeller blades are configured for transitioning from a collapsed first state, wherein the at least two impeller blades are not positioned axisymmetrically around the drive shaft, to an un-collapsed state, for performing agitation, wherein the at least two impeller blades are positioned axisymmetrically around the drive shaft, characterized in that at least one of the at least two impeller blades transitions from the collapsed state to the un-collapsed state by rotating along a circumference of the drive shaft due to resistance from a liquid in the bioreactor when agitation is performed. a collapsed first state, wherein the at least two impeller blades are not positioned axisymmetrically around the drive shaft, to an un-collapsed state, for performing agitation, wherein the at least two impeller blades are positioned axisymmetrically around the drive shaft, characterized in that at least one of the at least two impeller blades transitions from the collapsed state to the un-collapsed state by rotating along a circumference of the drive shaft due to resistance from a liquid in the bioreactor when agitation is performed.
A process for hydrotreating a hydrocarbon resid stream comprising: adding a first stage hydrogen stream to a resid stream; hydrotreating said resid stream over a demetallation catalyst in a first stage hydrotreating unit to demetallize said resid stream in the presence of the first stage hydrogen stream to provide a demetallized resid stream reduced in metals and sulfur concentration, wherein a stream of water in a water feed line is delivered to the first stage hydrotreating unit; separating said demetallized resid stream into a first stage hot vapor stream and a first stage hot liquid stream with a smaller concentration of hydrogen sulfide than in the demetallized resid stream; adding a second stage hydrogen stream to said first stage liquid stream; and hydrotreating said first stage liquid stream over a desulfurization catalyst and the second stage hydrogen stream to provide a desulfurized resid stream; separating said desulfurized resid stream into a second stage hot vapor stream and a second stage hot liquid stream with a smaller concentration of hydrogen sulfide than in the desulfurized resid stream; separating said first stage hot vapor stream and said second stage hot vapor stream to provide a cold vapor stream and a cold liquid stream; compressing said cold vapor stream to provide a recycle hydrogen stream; and splitting said recycle hydrogen stream into said first stage hydrogen stream and said second stage hydrogen stream. adding a first stage hydrogen stream to a resid stream; hydrotreating said resid stream over a demetallation catalyst in a first stage hydrotreating unit to demetallize said resid stream in the presence of the first stage hydrogen stream to provide a demetallized resid stream reduced in metals and sulfur concentration, wherein a stream of water in a water feed line is delivered to the first stage hydrotreating unit; separating said demetallized resid stream into a first stage hot vapor stream and a first stage hot liquid stream with a smaller concentration of hydrogen sulfide than in the demetallized resid stream; adding a second stage hydrogen stream to said first stage liquid stream; and hydrotreating said first stage liquid stream over a desulfurization catalyst and the second stage hydrogen stream to provide a desulfurized resid stream; separating said desulfurized resid stream into a second stage hot vapor stream and a second stage hot liquid stream with a smaller concentration of hydrogen sulfide than in the desulfurized resid stream; separating said first stage hot vapor stream and said second stage hot vapor stream to provide a cold vapor stream and a cold liquid stream; compressing said cold vapor stream to provide a recycle hydrogen stream; and splitting said recycle hydrogen stream into said first stage hydrogen stream and said second stage hydrogen stream.
Insulated container or room comprising side walls (110, 120), a bottom wall, a top wall, a rear wall and a front wall, wherein the walls each comprise an inner face (112, 122, 132, 142) and an outer face (111, 121, 131, 141) and an insulating layer of insulating material being located between the inner face (112, 122, 132, 142) and the outer face (111, 121, 131, 141), the insulated container or the room further comprising temperature control fluid distribution means for distributing temperature control fluid inside the insulated container or room, wherein the temperature control fluid distribution means comprise at least two ducts (165, 175, 185, 195) being adapted to guide the temperature control fluid along the side walls (110, 120) and having each at least one orifice (164, 174, 184, 194) being adapted to allow a flow of temperature control fluid from one side wall of the container or room to the other side wall of the container or room, characterised in that the container or room comprises further a sealing element being attached to each side wall (110, 120), adapted to avoid temperature control fluid flows below a freight pallet.
A drinking straw comprising a generally elongate tube having a sidewall defining an internal bore, wherein one end of the straw is provided with a projection formed from a portion of the sidewall and reinforced by a folded portion of the sidewall, wherein the sidewall is folded back on itself around a substantial portion of the circumference, the portion of the sidewall that is not folded back on itself forming the projection and being reinforced by folded back portions on either side.
An industrial truck with a cover which covers a tank of the industrial truck, wherein the tank has a tank opening for pouring in and siphoning off a liquid, characterised in that the cover has a recess corresponding to the opening of the tank, by means of which a tank cap is arrangeable on the tank opening, a dipstick for measuring the level of the liquid in the tank being provided on the tank cap.
A server apparatus, connected to a mobile terminal via a packet forwarding apparatus(es) on a mobile network, the server apparatus comprising: a compression and encoding unit that compresses and encodes screen information or image information, downloaded from a Web server on the Internet in response to an instruction from the mobile terminal; a packet transmission unit that stores an output signal from the compression and encoding unit into a packet and transmits the packet to the mobile terminal via the packet forwarding apparatus(es); and a video image quality measurement unit that measures video image quality by referring to an input signal to the compression and encoding unit, a signal decoded from the output signal of the compression and encoding unit, a transmission timing of the packet, and a timing at which the mobile terminal receives the packet, wherein the video image quality measurement unit calculates a PSNR (Peak Signal to Noise Ratio) based on the input signal to the compression and encoding unit and the signal decoded from the output signal of the compression and encoding unit, calculates a response time based on the transmission timing of the packet and the timing at which the mobile terminal receives the packet, and derives the video image quality from the calculated PSNR and response time, and wherein the video image quality measurement unit derives as the video image quality a sum between the PSNR and the response time, respectively with weighting. a compression and encoding unit that compresses and encodes screen information or image information, downloaded from a Web server on the Internet in response to an instruction from the mobile terminal; a packet transmission unit that stores an output signal from the compression and encoding unit into a packet and transmits the packet to the mobile terminal via the packet forwarding apparatus(es); and a video image quality measurement unit that measures video image quality by referring to an input signal to the compression and encoding unit, a signal decoded from the output signal of the compression and encoding unit, a transmission timing of the packet, and a timing at which the mobile terminal receives the packet, wherein the video image quality measurement unit calculates a PSNR (Peak Signal to Noise Ratio) based on the input signal to the compression and encoding unit and the signal decoded from the output signal of the compression and encoding unit, calculates a response time based on the transmission timing of the packet and the timing at which the mobile terminal receives the packet, and derives the video image quality from the calculated PSNR and response time, and wherein the video image quality measurement unit derives as the video image quality a sum between the PSNR and the response time, respectively with weighting.
A sound absorbing device comprising: a plurality of sound absorbing units, characterized in that a frequency of sound absorbed by at least one of the plurality of sound absorbing units overlaps, at least partially, with a frequency of sound with a volume increased by installation of another of the plurality of sound absorbing unit. a plurality of sound absorbing units, characterized in that a frequency of sound absorbed by at least one of the plurality of sound absorbing units overlaps, at least partially, with a frequency of sound with a volume increased by installation of another of the plurality of sound absorbing unit.
A jack-up offshore platform, comprising a lifting crane having a first boom movably supported by the jack-up offshore platform at its lower end for lifting a load, which lifting crane comprises counterbalancing means (24, 26, 29, 30) for counterbalancing the weight of the load to be lifted by the first boom of the lifting crane and provide the first boom in moment equilibrium, the counterbalancing means (24, 26, 29, 30) comprising at least one counterbalancing cable attached to the lifting crane and connected to the platform, the lifting crane further comprising a second boom, provided to keep the counterbalancing cable at a distance from the first boom, wherein the connection of the counterbalancing cable to the jack-up offshore platform is movable relative to the jack-up offshore platform and comprises first connection means provided on the counterbalancing cable, and second connection means provided on the jack-up offshore platform, wherein the second connection means comprise a guide fixed to the platform.
A polymerizable composition comprising a polymerizable component, and a redox initiation system comprising: a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent a photolabile reducing agent of the formula: wherein R 1, R 2 and R 3 are each independently H, C 1-18 hydrocarbyl; and a) R Photo is a photolabile group; and optionally a quaternary ammonium halide. a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent a photolabile reducing agent of the formula: wherein R 1, R 2 and R 3 are each independently H, C 1-18 hydrocarbyl; and a) R Photo is a photolabile group; and optionally a quaternary ammonium halide. a) R Photo is a photolabile group; and optionally a quaternary ammonium halide.
A security container cassette for banknotes or valuables for cash machines and ATMs, defining an internal volume and comprising: - a first container arranged in said internal volume and close to said banknotes and values and comprising a lower portion, facing said banknotes or values, which is permeable to fluids, - a second, fluid-tight container for marking fluid that is contained in said first container and is of a pliable type that is easily ruptured in the event of pressurisation from explosions or the like, wherein said second container is divided into a plurality of main portions, said main portions are mutually connected, in fluidic connection, by passage portions, - said passage portions are defined by passage reducers inside said second container, characterized in that - said passage portions comprise welds inside said second container between two opposite flaps. - a first container arranged in said internal volume and close to said banknotes and values and comprising a lower portion, facing said banknotes or values, which is permeable to fluids, - a second, fluid-tight container for marking fluid that is contained in said first container and is of a pliable type that is easily ruptured in the event of pressurisation from explosions or the like, wherein said second container is divided into a plurality of main portions, said main portions are mutually connected, in fluidic connection, by passage portions, - said passage portions are defined by passage reducers inside said second container, characterized in that - said passage portions comprise welds inside said second container between two opposite flaps.
Method for energy saving and minimizing interference level in a radio access node network deployment, comprising the switching on and/or switching off of RF transceivers of one or more radio access nodes of said radio access node network deployment, wherein said radio access node network deployment is arranged in a master/slave configuration wherein each node is suitable to be assigned, by means of an initial configuration, alternatively as a master or as a slave radio access node, wherein the method comprises: - bidirectionally exchanging information between an assigned master radio access node of said radio access node network deployment and each of the assigned slave radio access nodes, for at least: o sending each assigned slave radio access node its traffic load information to the assigned master radio access node; and o processing, the assigned master radio access node the received traffic load information to calculate a decision parameter and further sending said decision parameter to the assigned slave radio access nodes; and - performing said switching on and/or switching off automatically by the assigned slave radio access nodes, in an autonomous way where each slave radio access node is in charge to change its own transmission conditions, by means of a decision algorithm based on the received decision parameter. - bidirectionally exchanging information between an assigned master radio access node of said radio access node network deployment and each of the assigned slave radio access nodes, for at least: o sending each assigned slave radio access node its traffic load information to the assigned master radio access node; and o processing, the assigned master radio access node the received traffic load information to calculate a decision parameter and further sending said decision parameter to the assigned slave radio access nodes; and o sending each assigned slave radio access node its traffic load information to the assigned master radio access node; and o processing, the assigned master radio access node the received traffic load information to calculate a decision parameter and further sending said decision parameter to the assigned slave radio access nodes; and - performing said switching on and/or switching off automatically by the assigned slave radio access nodes, in an autonomous way where each slave radio access node is in charge to change its own transmission conditions, by means of a decision algorithm based on the received decision parameter.
Closure for closing a door, in particular a door of a high-temperature appliance, having a closure pin and a latch, which can be locked on the closure pin, wherein the closure pin has two locking structures (4, 5), which are spaced apart axially along a main axis of the closure pin and on which the latch can be locked optionally in a closed position and a partially open venting position, wherein the closure pin has at least one securing structure for securing the latch during transfer between the locking structures (4, 5), wherein the closure pin and the latch are designed for rotation in relation to one another, and wherein at least three rotary positions (D1, D2, D3) can be reached by the closure pin being rotated, for the purpose of setting three different functional positions of the closure, characterized in that a first rotary position of the closure pin corresponds to an actuating position of the latch, in which the latch can be unlocked from a locking structure (4, 5) by means of a latch-side actuating element, and a second rotary position of the closure pin corresponds to a blocking position of the latch, in which the latch can be blocked by at least one locking structure (4, 5), wherein, in the blocking position, at least one locking structure (4, 5) is oriented such that the latch cannot be released by rotation.
Method for producing a decorative surface on a workpiece, the method comprising the steps: - applying a liquid layer onto at least a part of a surface of the workpiece; - applying a manipulation medium at least onto and/or into a part of the liquid layer located on the workpiece; - curing the layer and the manipulation medium at least until the partial curing, - removal of parts of the layer, wherein the removal takes place in a mechanical and/or contactless manner, in particular in a fluidic manner, characterized in that the removal includes a heating of the layer and/or the manipulation medium, wherein the heating of the layer and/or the manipulation medium is executed by supplying heat for at least partial liquefaction of the parts. - applying a liquid layer onto at least a part of a surface of the workpiece; - applying a manipulation medium at least onto and/or into a part of the liquid layer located on the workpiece; - curing the layer and the manipulation medium at least until the partial curing, - removal of parts of the layer, wherein the removal takes place in a mechanical and/or contactless manner, in particular in a fluidic manner, characterized in that the removal includes a heating of the layer and/or the manipulation medium, wherein the heating of the layer and/or the manipulation medium is executed by supplying heat for at least partial liquefaction of the parts.