mhurhangee/ep-ind-claims huggingface dataset:
An upstream placement fitting suitable for the part-load operation of a multiple-row standard radiator, in particular of a flat radiator, comprising - a lower connection block having connections (11 a, 11 b) for the feed and return (F, R) of a heating medium from a heating network, said connections being fluidically separate from one another, - a valve, - a riser pipe, - an upper connection element, with - the lower connection block still being provided with connections (11c, 11 d) for the riser pipe and with a coupling element, with the riser pipe fluidically communicating with the feed connection and the coupling element with the return connection; - the riser pipe being connectable with the upper connection element; characterized in that - the coupling element is configured with a T-piece of a standard radiator for the fluidic connection of the return connection and is provided with means which only allow the return of the heating medium from the rear heating panels of the radiator; - the upper connection element is configured with a T-piece of a standard radiator for the fluidic connection and comprises a coupling element provided with means which only allow the feed of the heating medium into the front heating panel of the radiator. - a lower connection block having connections (11 a, 11 b) for the feed and return (F, R) of a heating medium from a heating network, said connections being fluidically separate from one another, - a valve, - a riser pipe, - an upper connection element, with - the lower connection block still being provided with connections (11c, 11 d) for the riser pipe and with a coupling element, with the riser pipe fluidically communicating with the feed connection and the coupling element with the return connection; - the riser pipe being connectable with the upper connection element; - the coupling element is configured with a T-piece of a standard radiator for the fluidic connection of the return connection and is provided with means which only allow the return of the heating medium from the rear heating panels of the radiator; - the upper connection element is configured with a T-piece of a standard radiator for the fluidic connection and comprises a coupling element provided with means which only allow the feed of the heating medium into the front heating panel of the radiator.
A self-supporting structure comprising a monobloc having at least two axial passageways extending between opposite end openings; wherein at least one cylindrical filtration cartridge is fitted in each passageway, so a feed liquid having dissolved and/or suspended therein components flows through the cylindrical filtration cartridges to create a permeate stream and a concentrate stream which are both separately collected, wherein two side panels (10,11,12,13,32,33) are provided for sealing both the end openings of the passageways in a manner to allow the insertion and removal of the cylindrical filtration cartridges wherein a feed inlet is located within or on the monobloc, or within or on the side panels; and wherein, the side panels further comprise at least one permeate outlet and at least one concentrate outlet.
A method for the manufacture of an element intended to be laid on a base in order to obtain at least one of walking surfaces, traffic-bearing surfaces, decorative surfaces and other types of surface, said element comprising stones and a grout characterised by placing of the stones in a form, comprising a bottom and side walls, where the bottom is provided in the direction in towards the form with at least one layer of a flexible material being a foamed rubber or soft cellular plastic, placing of the stones at a distinct distance from each other and with a surface (2.1), intended to constitute a part of the wear surface, the decorative surface, of the element directed downwards and in contact with the bottom of the form, in contact with the flexible material, placing a reinforcement over the stones in the form, filling of the grout between the stones such that the grout runs between the stones and down to the bottom (14, 16) of the moulding form, onto the flexible material, such that the surfaces (2.1) of the stones and the grout will together come into contact with the bottom (14, 16) of the moulding form, in contact with the layer of the flexible material, wherein the grout is cement-based and freely flowing and self-compacting, so that the grout forms a slab that is arranged under or behind each stone and that holds the stones together, and wherein the method also comprises placing a lift arrangement between the stones in the moulding form and additional pouring of grout over the stones and the grout between the stones, such that the stones are covered and the element obtains a predetermined thickness, and so that the lift arrangement is permanently located in the element such that the element can be displaced at any time, even after the element has been placed and set in its desired location, wherein the method also comprises the placing of a material member, comprising a metal construction, at least one of a steel beam, steel pipe and sheet steel, along, at or inside of at least one of the side walls of the form, or constituting one of the side walls of the form, for reinforcement of at least one of the wall sections (1.1) of the element, wherein he method also comprises the placing of at least one construction feature that directly or indirectly makes possible the holding together of two elements arranged next to each other against or beside each other, at or inside of one of the side walls of the form, and wherein one or several steps or operations comprised within the method take place with the aid of automated equipment.
A method of mass transport properties normalization in a label-free system for calibration-free concentration analysis, comprising the following ordered steps: providing a solution containing a control macromolecular particle of a known concentration at a pH lower than the isoelectric point, pI of the macromolecular particle; contacting the solution with a negatively charged optical sensor surface at a first flow rate to allow binding of the macromolecular particle to the surface and obtaining a first sensorgram; contacting the solution with the negatively charged optical sensor surface at a second flow rate to allow binding of the macromolecular particle to the surface and obtaining a second sensorgram; and fitting the sensorgrams to a binding equation to determine a measured concentration of the control macromolecular particle; wherein the first and the second flow rates are different and the contacting steps are performed under mass transport limited binding conditions; the method being characterised in that binding of the control macromolecule at the first and second flow rates is electrostatic binding and in that the control macromolecule is not bound by a ligand at the sensor surface. providing a solution containing a control macromolecular particle of a known concentration at a pH lower than the isoelectric point, pI of the macromolecular particle; contacting the solution with a negatively charged optical sensor surface at a first flow rate to allow binding of the macromolecular particle to the surface and obtaining a first sensorgram; contacting the solution with the negatively charged optical sensor surface at a second flow rate to allow binding of the macromolecular particle to the surface and obtaining a second sensorgram; and fitting the sensorgrams to a binding equation to determine a measured concentration of the control macromolecular particle;
Combination of a door frame, a door, and a container device which container device is suitable for receiving deliveries, the container device being constructed and arranged for it to be removably secured to the door frame so that, when the door is open and the container device is secured to the door frame, the space surrounded by the door frame is closed by the container device which container device comprises at least one lockable door (24A, 24B) on one side, which lockable door (24A, 24B) can be opened by parcel services so that goods which are delivered by said parcel services can be securely received in the container device, and further comprises cone-shaped bolts (20A, 20B) to align the container device within the door frame when the cone-shaped bolts (20A, 20B) engage with the door frame to secure the container device to said doorframe, wherein the cone-shaped bolts (20A, 20B) are preferably connected to a locking mechanism.
Apparatus for conveying pharmaceutical containers, particularly vials, with an in particular continuously rotating conveyor device, on which receiving units for the containers are secured, wherein the receiving units are operatively connected to the containers by means of at least one format-dependent holding element (24, 25), wherein two holding elements (24, 25) are provided for each container and are each pivotable in the receiving unit about an axis of the holding element (24, 25), in such a way that, in a first position for holding and conveying a container, the two holding elements (24, 25) are in abutting contact with the container on opposite sides by way of a respective holding contour, and wherein, in a second position for releasing the container, the holding elements (24, 25) are spaced apart from the container in the area of the holding contour, characterized in that the holding elements (24, 25) have carrier portions which protrude partially from a housing of the receiving unit, the longitudinal axes of the carrier portions are arranged at least substantially horizontally and perpendicular to the conveying direction of the containers, holding portions are arranged on the carrier portions, on the side directed away from the receiving unit, the carrier portions are pivotable about their longitudinal axes, and the carrier portions have, inside the housing, a toothing (37, 38) which interacts with a counter-toothing of an adjustment bolt that is arranged to be movable upward and downward inside the housing, wherein the adjustment bolt is arranged between the carrier portions.
A S30 cell-free extract of an E. coli bacterial cell, wherein said bacterial cell comprises inactivated genes for tryptophanase, arginine decarboxylase, L-serine deaminase and gamma-glutamylcysteine synthase.
A method for pulse characterization, comprising: generating an optical source pulse; extracting a short pulse from the optical source pulse; producing a chirped component from the optical source pulse; splitting the chirped component into a first chirped pulse and a second chirped pulse; generating a phase shift for the first chirped pulse relative to the second chirped pulse; directing the phase-shifted first and second chirped pulses (14, 16) and the short pulse through a nonlinear medium to produce a single output pulse having a spectrum comprising up-converted and spectrally sheared copies of the short pulse spectrum, wherein the first and second chirped pulses (14, 16) are collinear and have no delay between them as they pass through the nonlinear medium; measuring the spectrum of the output pulse; and repeating the above steps with a plurality of different phase shifts for the first chirped pulse relative to the second chirped pulse. generating an optical source pulse; extracting a short pulse from the optical source pulse; producing a chirped component from the optical source pulse; splitting the chirped component into a first chirped pulse and a second chirped pulse; generating a phase shift for the first chirped pulse relative to the second chirped pulse; directing the phase-shifted first and second chirped pulses (14, 16) and the short pulse through a nonlinear medium to produce a single output pulse having a spectrum comprising up-converted and spectrally sheared copies of the short pulse spectrum, wherein the first and second chirped pulses (14, 16) are collinear and have no delay between them as they pass through the nonlinear medium; measuring the spectrum of the output pulse; and repeating the above steps with a plurality of different phase shifts for the first chirped pulse relative to the second chirped pulse.
An electrostatic ink composition comprising a thermoplastic resin, an elongate conductive species and a carrier liquid, wherein the elongate species has a first dimension that is longer than each of a second dimension and a third dimension, wherein the first, second and third dimensions are perpendicular to one another, and wherein particles comprising the resin and the elongate conductive species are suspended or dispersed in the carrier liquid, wherein the resin comprises (i) a polymer having acidic side groups and (ii) a co-polymer of an alkylene monomer and a maleic anhydride.
A processor-implemented method for an Escalated Expedited Forwarding, EEF, system for modifying per hop behavior of one or more Expedited Forwarding, EF, packets for a session in a communication network, the method comprises: determining at least one of latency, jitter and average jitter associated with the one or more EF packets for the session; marking one or more EF packets with EEF marking in response to detecting an EF packet congestion based on the determined at least one of latency, jitter and average jitter, wherein the EEF marked packets are EF packets that are delayed during transmission based on the determined EF packet congestion; and modifying the per hop behavior of the one or more EEF marked packets by sequencing the one or more EEF marked packets of the session to provide precedence to the one or more EEF marked packets over all non-marked one or more packets in the communication network and erasing the one or more EEF marked packets, if an ingress queue for the one or more EEF marked packets exceeds a pre-defined value. determining at least one of latency, jitter and average jitter associated with the one or more EF packets for the session; marking one or more EF packets with EEF marking in response to detecting an EF packet congestion based on the determined at least one of latency, jitter and average jitter, wherein the EEF marked packets are EF packets that are delayed during transmission based on the determined EF packet congestion; and modifying the per hop behavior of the one or more EEF marked packets by sequencing the one or more EEF marked packets of the session to provide precedence to the one or more EEF marked packets over all non-marked one or more packets in the communication network and erasing the one or more EEF marked packets, if an ingress queue for the one or more EEF marked packets exceeds a pre-defined value. sequencing the one or more EEF marked packets of the session to provide precedence to the one or more EEF marked packets over all non-marked one or more packets in the communication network and erasing the one or more EEF marked packets, if an ingress queue for the one or more EEF marked packets exceeds a pre-defined value.
A process variable transmitter for measuring a pressure of a process fluid, comprising: a process coupling having a first port configured to couple to a first process pressure and a second port configured to couple to a second process pressure; a differential pressure sensor coupled to the first and second ports having an output related to a differential pressure between the first pressure and the second pressure; a first and a second pressure sensor (97, 98) coupled to respective first and second ports having outputs related to the first and second pressures (P 1, P 2); and transmitter circuitry configured to provide a transmitter output based upon the output from the differential pressure sensor and further provide enhanced functionality based upon the first and second pressure sensors (97, 98); characterized in that each of the first and second pressure sensors (97, 98) comprise a brittle material having a cavity formed therein and wherein the outputs from the first and second pressure sensors (97, 98) are related to deformation of the cavity, wherein the first and the second pressure sensors have an upper range limit of about 350 bar. a process coupling having a first port configured to couple to a first process pressure and a second port configured to couple to a second process pressure; a differential pressure sensor coupled to the first and second ports having an output related to a differential pressure between the first pressure and the second pressure; a first and a second pressure sensor (97, 98) coupled to respective first and second ports having outputs related to the first and second pressures (P 1, P 2); and transmitter circuitry configured to provide a transmitter output based upon the output from the differential pressure sensor and further provide enhanced functionality based upon the first and second pressure sensors (97, 98); characterized in that each of the first and second pressure sensors (97, 98) comprise a brittle material having a cavity formed therein and wherein the outputs from the first and second pressure sensors (97, 98) are related to deformation of the cavity, wherein the first and the second pressure sensors have an upper range limit of about 350 bar.
A household appliance comprising a heat pump including a compressor, a heater, a control unit adapted to control a heating power of the heater, and at least one temperature sensor (22, 24, 26) connected to the control unit, wherein the at least one temperature sensor is adapted to measure at least one temperature, and wherein the control unit is adapted to operate the heater until at least one target temperature associated with the least one temperature is reached, characterized in that the heater's exclusive function is to heat the compressor and in that the at least one temperature sensor is adapted to measure at least one temperature out of the group comprising - a temperature of the compressor, in particular of a compressor discharge temperature, and - at least one temperature of process air in a close-loop air circuit or a process air channel the heater's exclusive function is to heat the compressor and in that the at least one temperature sensor is adapted to measure at least one temperature out of the group comprising - a temperature of the compressor, in particular of a compressor discharge temperature, and - at least one temperature of process air in a close-loop air circuit or a process air channel - a temperature of the compressor, in particular of a compressor discharge temperature, and - at least one temperature of process air in a close-loop air circuit or a process air channel
An overcurrent protection circuit (11, 11A to 11E) for a switching element (10, 10A to 10E) turned on/off based on a control voltage, the overcurrent protection circuit (11, 11A to 11E) comprising: a first transistor that is a PNP bipolar transistor and has an emitter connected to the control voltage; and a second transistor that is an NPN bipolar transistor and has a base connected to a collector of the first transistor, a collector connected to a base of the first transistor and pulled up to a predetermined pull-up voltage, and a grounded emitter, wherein, when the control voltage exceeds a predetermined first threshold voltage, the first and second transistors; are turned on, the control voltage is dropped by drop of the pull-up voltage, and thus the overcurrent protection circuit (11, 11A to 11E) starts a protection operation of turning off the switching element (10, 10A to 10E); and characterised in that the overcurrent protection circuit further comprises a time constant circuit connected in parallel to a collector and emitter of the second transistor, the time constant circuit including a resistor and a second capacitor (Cb), and adjusting a time interval from start to end of the protection operation by changing a time constant. a first transistor that is a PNP bipolar transistor and has an emitter connected to the control voltage; and a second transistor that is an NPN bipolar transistor and has a base connected to a collector of the first transistor, a collector connected to a base of the first transistor and pulled up to a predetermined pull-up voltage, and a grounded emitter, wherein, when the control voltage exceeds a predetermined first threshold voltage, the first and second transistors; are turned on, the control voltage is dropped by drop of the pull-up voltage, and thus the overcurrent protection circuit (11, 11A to 11E) starts a protection operation of turning off the switching element (10, 10A to 10E); and characterised in that the overcurrent protection circuit further comprises a time constant circuit connected in parallel to a collector and emitter of the second transistor, the time constant circuit including a resistor and a second capacitor (Cb), and adjusting a time interval from start to end of the protection operation by changing a time constant.
Method for manufacturing a barrier layer (13, 19) for coating the inner surface (12, 17) of a container (10, 16) at least partly made of plastic material and suitable for containing human- and/or animal-biocompatible products, in which - a solution containing at least one solvent, water, at least organofunctional molecular precursor, and citric acid as the catalyst, is formed, - the solution thus complexed is applied to at least a portion of the inner surface of the container, the solution being in the process of hydrolysis and condensation, and - the solution thus applied is dried at a given drying temperature lower than 100°C before drainage and storage, said coating layer forming a hybrid organomineral matrix arranged to produce a physicochemical barrier. - a solution containing at least one solvent, water, at least organofunctional molecular precursor, and citric acid as the catalyst, is formed, - the solution thus complexed is applied to at least a portion of the inner surface of the container, the solution being in the process of hydrolysis and condensation, and - the solution thus applied is dried at a given drying temperature lower than 100°C before drainage and storage, said coating layer forming a hybrid organomineral matrix arranged to produce a physicochemical barrier.
An apparatus comprising: logic, the logic at least partially comprising hardware logic, adapted to perform ambient noise trigger level analysis for a location and cause storage of an ambient noise trigger level threshold value for the location based on the ambient noise trigger level analysis, wherein the logic is adapted to determine whether to cause modification to a state of an audio processor in response to detection of the audio processor at the location and comparison of a detected sound level at the location and the stored ambient noise trigger level threshold value. logic, the logic at least partially comprising hardware logic, adapted to perform ambient noise trigger level analysis for a location and cause storage of an ambient noise trigger level threshold value for the location based on the ambient noise trigger level analysis, wherein the logic is adapted to determine whether to cause modification to a state of an audio processor in response to detection of the audio processor at the location and comparison of a detected sound level at the location and the stored ambient noise trigger level threshold value.
Work device with an internal combustion engine, to which fuel is fed via an injection valve, wherein the internal combustion engine has a crankcase, in which a crankshaft is mounted to be rotatable about a rotation axis, wherein the work device has a fan wheel to convey cooling air for the internal combustion engine, the fan wheel being arranged in a fan housing, wherein a connecting opening is formed in the fan housing, and wherein the injection valve is arranged in a cooling area, into which cooling air conveyed by the fan wheel flows via the connecting opening, characterised in that the fan housing has a rear wall facing towards the crankcase, and the connecting opening is formed in the rear wall.