mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for volume rendering via proxy, the method comprising rendering, by a physically-based renderer and from a medical dataset representing a three-dimensional region of a patient, pixels representing the three-dimensional region of the patient in two dimensions; generating a point cloud from color or intensity values and depth information of the rendered pixels, the point cloud including depth information, wherein the depth information is heuristically assigned to the rendered pixels by the physically-based renderer to generate depths for the pixels, one or more heuristic algorithms computing representative depths along viewing rays; rendering, by a point-cloud renderer, another image representing the three-dimensional region of the patient from the point cloud, wherein the point-cloud renderer is the proxy to the physically-based renderer; and transmitting the other image. rendering, by a physically-based renderer and from a medical dataset representing a three-dimensional region of a patient, pixels representing the three-dimensional region of the patient in two dimensions; generating a point cloud from color or intensity values and depth information of the rendered pixels, the point cloud including depth information, wherein the depth information is heuristically assigned to the rendered pixels by the physically-based renderer to generate depths for the pixels, one or more heuristic algorithms computing representative depths along viewing rays; rendering, by a point-cloud renderer, another image representing the three-dimensional region of the patient from the point cloud, wherein the point-cloud renderer is the proxy to the physically-based renderer; and transmitting the other image.
Elevator with a safety arrangement for creating a safe working space in the upper part of an elevator shaft equipped with a ceiling, a bottom and side walls, which elevator comprises at least an elevator operating system, control system, a safety system and an inspection or maintenance mode, and an elevator car arranged to run in the elevator shaft along guide rails, a counterweight connected to the elevator car with hoisting ropes from above, a hoisting machinery in the upper part of the elevator shaft with operating brakes, and at least an arrangement to monitor the position of the elevator car in the elevator shaft, wherein the safety arrangement comprises a number of safety levels (I, II, III) with pre-defined clearances (CL1, CL2, CL3) and triggering limits (L1, L2, L3) for safety operations in order to create a safety space zone at the upper part of the elevator shaft by providing a direct or indirect way to detect a presence of a person on the car roof or in the top part of the elevator shaft and stopping the upwards movement of the elevator car, when the elevator is in the inspection or maintenance mode, with actions which are arranged to become more and more effective and definitive safety level by safety level, characterized in that the elevator comprises two independent position sensor systems (11, 12) to monitor the actual position of the elevator car with respect to the ceiling of the elevator shaft, wherein the elevator comprises activating means for the first safety level to activate an alarm device in case the first triggering limit is crossed by the elevator car at the lower edge of the first clearance.
A method for manufacturing an electrode for a solid-state battery, comprising the steps: - providing a multi-layer ceramic solid electrolyte which comprises at least one dense and at least one porous layer, wherein said dense layer has a total ionic conductivity of at least 1 mS/cm at 25°C, and wherein the porous layer has continuous and open pores with an average pore diameter of between 1 and 50 μm; - providing an aqueous infiltration fluid in which at least one precursor of an electrode material is present in dissolved form and which has at least one organic additive that can be converted at least partially into carbon; - introducing the infiltration fluid with the at least one precursor of an electrode material into at least one porous layer of the solid electrolyte; - subjecting the solid electrolyte to a heat treatment in the form of sintering in a reducing atmosphere at temperatures between 400 °C and 900 °C, whereby the electrode material is synthesized in situ from the precursor of the electrode material on the surface of the pores. - providing a multi-layer ceramic solid electrolyte which comprises at least one dense and at least one porous layer, wherein said dense layer has a total ionic conductivity of at least 1 mS/cm at 25°C, and wherein the porous layer has continuous and open pores with an average pore diameter of between 1 and 50 μm; wherein said dense layer has a total ionic conductivity of at least 1 mS/cm at 25°C, and wherein the porous layer has continuous and open pores with an average pore diameter of between 1 and 50 μm; - providing an aqueous infiltration fluid in which at least one precursor of an electrode material is present in dissolved form and which has at least one organic additive that can be converted at least partially into carbon; - introducing the infiltration fluid with the at least one precursor of an electrode material into at least one porous layer of the solid electrolyte; - subjecting the solid electrolyte to a heat treatment in the form of sintering in a reducing atmosphere at temperatures between 400 °C and 900 °C, whereby the electrode material is synthesized in situ from the precursor of the electrode material on the surface of the pores.
Process for the cooling of products, where liquid carbon dioxide introduced under pressure is depressurized at a carbon-dioxide-depressurization nozzle to give carbon dioxide gas and carbon dioxide snow, and the carbon dioxide snow is used for the cooling of a product, where, after production of the stream of carbon dioxide snow and carbon dioxide gas that emerges from the carbon-dioxide-depressurization nozzle, the said stream is mixed with a cold gas stream and is thus cooled, characterized in that the cold gas stream is conducted to the stream of carbon dioxide particles and carbon dioxide gas by way of a cold-gas nozzle distanced from the depressurization nozzle, and a substream of the cold gas stream used for the cooling of the stream of carbon dioxide snow and carbon dioxide gas is recirculated and used for the cooling of the stream of carbon dioxide snow and carbon dioxide gas that emerges from the depressurization nozzle.
An evaporation device comprising: an agitation vessel to which a raw material liquid is supplied, wherein the agitation vessel has a volatile component outlet and a concentrate outlet a jacket provided on an outer circumference of the agitation vessel and configured to heat an inner wall of the agitation vessel; and a liquid-distributing portion provided within the agitation vessel and configured to cause the raw material liquid to flow down the inner wall of the agitation vessel, wherein the agitation vessel includes at least one storage portion surrounded by a bottom of the agitation vessel, the inner wall, and a partition wall portion and configured to temporarily store the raw material liquid that has flowed down, the liquid-distributing portion is constituted by a rotating shaft and at least one channel part with an end portion thereof inserted in the storage portion, the channel part having a flow passage through which, as the rotating shaft rotates, the raw material liquid temporarily stored in the storage portion flows upward from a lower side of the agitation vessel, and the channel part being mounted to the rotating shaft, the concentrate outlet is provided in the bottom of the agitation vessel, and the storage portion is configured to allow a concentrate to overflow over the partition wall portion, and the concentrate that has overflowed from the storage portion can be discharged through the concentrate outlet. an agitation vessel to which a raw material liquid is supplied, wherein the agitation vessel has a volatile component outlet and a concentrate outlet a jacket provided on an outer circumference of the agitation vessel and configured to heat an inner wall of the agitation vessel; and a liquid-distributing portion provided within the agitation vessel and configured to cause the raw material liquid to flow down the inner wall of the agitation vessel, wherein the agitation vessel includes at least one storage portion surrounded by a bottom of the agitation vessel, the inner wall, and a partition wall portion and configured to temporarily store the raw material liquid that has flowed down, the liquid-distributing portion is constituted by a rotating shaft and at least one channel part with an end portion thereof inserted in the storage portion, the channel part having a flow passage through which, as the rotating shaft rotates, the raw material liquid temporarily stored in the storage portion flows upward from a lower side of the agitation vessel, and the channel part being mounted to the rotating shaft, the concentrate outlet is provided in the bottom of the agitation vessel, and the storage portion is configured to allow a concentrate to overflow over the partition wall portion, and the concentrate that has overflowed from the storage portion can be discharged through the concentrate outlet.
Compounds which conform to Formulae,, or and pharmaceutically acceptable salts or solvates thereof, in which T, Q are S, R 3 is H, hydroxymethyl, aminomethyl, azidomethyl or cyanomethyl, R 4 is phenyl or benzyl, which may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F; or R 4 is benzylamino-methyl, wherein the phenyl ring may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F; or R 4 is aminomethyl, (fluoro-benzoylamino)-benzyl, (benzoylamino)-benzyl, (chloro-azabenzoylamino)-benzyl, pyrrolidinyl, (thiophenylmethyl)amino-ethyl, (indolylmethyl)amino-methyl, (1-phenyl-ethylamino)-methyl, benzyloxy-methyl, phenylamino-methyl, isobutyl, [furanylmethyl)amino]methyl, [pyrrolylmethyl)amino]methyl, thiophenyl-methyl, (sulfamoyl-phenyl)-methyl, cyclohexenyl-methyl, benzoylamino-methyl, 1-hydroxy-1-phenyl-methyl, (furanylmethylsulfanyl)-methyl or benzenesulfonylamino-methyl, or R 3 and R 4 together with the C atom to which they are attached, form piperidinyl, phenyl, pyrrolidinyl, tetrahydrofuranyl, each of which may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F. T, Q are S, R 3 is H, hydroxymethyl, aminomethyl, azidomethyl or cyanomethyl, R 4 is phenyl or benzyl, which may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F; or R 4 is benzylamino-methyl, wherein the phenyl ring may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F; or R 4 is aminomethyl, (fluoro-benzoylamino)-benzyl, (benzoylamino)-benzyl, (chloro-azabenzoylamino)-benzyl, pyrrolidinyl, (thiophenylmethyl)amino-ethyl, (indolylmethyl)amino-methyl, (1-phenyl-ethylamino)-methyl, benzyloxy-methyl, phenylamino-methyl, isobutyl, [furanylmethyl)amino]methyl, [pyrrolylmethyl)amino]methyl, thiophenyl-methyl, (sulfamoyl-phenyl)-methyl, cyclohexenyl-methyl, benzoylamino-methyl, 1-hydroxy-1-phenyl-methyl, (furanylmethylsulfanyl)-methyl or benzenesulfonylamino-methyl, or R 3 and R 4 together with the C atom to which they are attached, form piperidinyl, phenyl, pyrrolidinyl, tetrahydrofuranyl, each of which may be unsubstituted or, independently of one another, mono-, di- or trisubstituted by methyl, methoxy, CF 3, OCF 3, amino, Cl or F.
A dispenser for dispensing moistened paper, comprising: a liquid reservoir; a deflection roller; a transfer roller which is partially immersed in the liquid reservoir and has a pinion; wherein the transfer roller is arranged in a first position at a distance from the deflection roller and is pressed against the deflection roller in a second position, characterized in that the dispenser has a drive with a motor, wherein the drive transmits a torque to a gear wheel, and the gear wheel meshes with the pinion of the transmission roller and is arranged such that that, by rotation, it moves or swivels the transfer roller from the first position to the second position and then makes the transfer roller arranged in the second position rotate. a liquid reservoir; a deflection roller; a transfer roller which is partially immersed in the liquid reservoir and has a pinion; wherein the transfer roller is arranged in a first position at a distance from the deflection roller and is pressed against the deflection roller in a second position, characterized in that the dispenser has a drive with a motor, wherein the drive transmits a torque to a gear wheel, and the gear wheel meshes with the pinion of the transmission roller and is arranged such that that, by rotation, it moves or swivels the transfer roller from the first position to the second position and then makes the transfer roller arranged in the second position rotate.
A method of multimedia broadcast multicast service, MBMS, content aware scheduling and receiving for a network of a wireless communication system, the method comprising: receiving data of different resolutions generated from a data source from an MBMS content provider (402, 802); scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels (404, 804), wherein said scheduling step comprises scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels overlapping in time, to result in that data for an MBMS service of a first resolution level on a first multicast traffic channel are shared with another multicast traffic channel corresponding to an MBMS service of a second resolution level higher than the first resolution level, or wherein said scheduling step comprises scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels non-overlapping in time, to result in that data for an MBMS service of a first resolution level on a first multicast traffic channel are repeated on another multicast traffic channel corresponding to an MBMS service of a second resolution level higher than the first resolution level. receiving data of different resolutions generated from a data source from an MBMS content provider (402, 802); scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels (404, 804), wherein said scheduling step comprises scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels overlapping in time, to result in that data for an MBMS service of a first resolution level on a first multicast traffic channel are shared with another multicast traffic channel corresponding to an MBMS service of a second resolution level higher than the first resolution level, or wherein said scheduling step comprises scheduling a plurality of MBMS services of different resolution levels formed with the received data on a plurality of multicast traffic channels non-overlapping in time, to result in that data for an MBMS service of a first resolution level on a first multicast traffic channel are repeated on another multicast traffic channel corresponding to an MBMS service of a second resolution level higher than the first resolution level.
A device with a phase detector (208; 308) for receiving data on a data link (212; 350) and for receiving a local clock signal, said device comprising: a sampler that detects the relationship between the local clock signal and the received data and generates a phase information signal indicative of said detected relationship; a logic unit for determining logic based upon the phase information signal; and said device is characterized by further comprising a transmitter that transmits the determined logic to the clock control of the data source during the electrical turnaround time between the read and write operations on the data link. a sampler that detects the relationship between the local clock signal and the received data and generates a phase information signal indicative of said detected relationship; a logic unit for determining logic based upon the phase information signal; and
Ventilation module for a rail vehicle, comprising a housing with a top side, a bottom side, a front side, a rear side opposite the front side and two side walls, wherein the housing has an air inlet, an air outlet and a dust discharge opening, a first cleaning stage in an upper region of the housing, wherein the first cleaning stage has a cyclone separator, wherein the cyclone separator has a dust outlet and a cyclone air outlet, a second cleaning stage in a central region of the housing, wherein the second cleaning stage is arranged below the first cleaning stage in such a way that air from the cyclone air outlet can pass to the second cleaning stage, wherein the second cleaning stage has a surface filter and/or a depth filter, wherein the surface filter and/or the depth filter faces toward the front side of the housing, a dust discharge channel, wherein the dust discharge channel is connected to the dust outlet of the cyclone separator, wherein the dust discharge channel is arranged in the central region of the housing, wherein the dust discharge channel faces toward the rear side of the housing, a dust discharge fan which is configured to draw in air and dust from the dust discharge channel and to remove them from the housing through the dust discharge opening, a machine room fan which is arranged in a lower region of the housing below the second cleaning stage, wherein the machine room fan is configured to draw in air through the second cleaning stage and to release said air via the air outlet. a housing with a top side, a bottom side, a front side, a rear side opposite the front side and two side walls, wherein the housing has an air inlet, an air outlet and a dust discharge opening, a first cleaning stage in an upper region of the housing, wherein the first cleaning stage has a cyclone separator, wherein the cyclone separator has a dust outlet and a cyclone air outlet, a second cleaning stage in a central region of the housing, wherein the second cleaning stage is arranged below the first cleaning stage in such a way that air from the cyclone air outlet can pass to the second cleaning stage, wherein the second cleaning stage has a surface filter and/or a depth filter, wherein the surface filter and/or the depth filter faces toward the front side of the housing, a dust discharge channel, wherein the dust discharge channel is connected to the dust outlet of the cyclone separator, wherein the dust discharge channel is arranged in the central region of the housing, wherein the dust discharge channel faces toward the rear side of the housing, a dust discharge fan which is configured to draw in air and dust from the dust discharge channel and to remove them from the housing through the dust discharge opening, a machine room fan which is arranged in a lower region of the housing below the second cleaning stage, wherein the machine room fan is configured to draw in air through the second cleaning stage and to release said air via the air outlet.
Lifting system, in particular for lifting and lowering vehicles, which comprises a plurality of lifting devices which can be controlled by a control system of the lifting system, the control system comprising a control device and a plurality of control units, a control unit being provided on each lifting device, which controls a load receiving means of the lifting device, the control device being provided separately from the control units, the control units and the control device each comprising a transmitter/receiver in order to transmit a control signal wirelessly, wherein a data interface for the wireless transmission of a presence signal is provided on each control unit and on the control device, and in that the data interface on the control unit has a signal cone which is aligned differently to the load-carrying means, characterized in that the signal cone of the data interface and a signal direction of the transmitter/receiver for the control signal are aligned in the same way, and in that the control unit is arranged such that when the presence signal and the control signal are received by the control device in a time window, the activation of the lifting device is enabled.
An overvoltage protection assembly, comprising disc-shaped varistors which are arranged within a housing enclosing a cavity and are electrically contacted, wherein the housing is formed as a polygonal body, especially a multilateral prism, cube, parallelepiped or tetrahedron, and comprises at least one opening for introducing multiple disc-shaped varistors which are each in mechanical connection with a section or a portion of the inner side wall of the housing and come into contact therewith, wherein an insulating material insert is disposed in the housing, characterized in that the insulating material insert fixes the disc-shaped varistors at a distance from each other.
Bearing part for a weapon barrel in a weapon barrel holder, wherein the bearing part has a tubular form and an inner diameter which is uniform over the length of the bearing part, wherein the bearing part is divided into three portions (3.1, 3.2, 3.3), a first portion (3.1), an encircling annular second portion (3.2) which is of greater outer diameter than the first portion (3.1) and a following third portion (3.3), wherein the third portion (3.3) has at least one slot running towards the second portion (3.2), characterized in that the slot does not extend into the region of the first portion (3.1).
A method for operating a wireless network, wherein a queue management function based on an average queue length of packets from all users in a wireless base station of the network is used, wherein a result of a function will be combined or multiplied with the average queue length for determining a combined congestion contribution for use within the queue management function and for determining a packet drop probability and/or a congestion marking probability and wherein the function is taking into account per-user Information on a wireless channel condition, i.e. individual users' current radio channel conditions, characterized in that the function is a weighting function and that the weighting function is based on a Modulation Coding Scheme, MCS, and that the marking or dropping probability calculated from the average queue length will be multiplied with an index, which is based on the current MCS of the user.