mhurhangee/ep-ind-claims huggingface dataset:
Mobile machinery system intended for the manipulation, on a displacement surface of at least one upper module and/or at least one lower module to be introduced into a housing in order to be fixed in the housing, the system comprising: - an arm having an upper fixing device arranged to fix to the arm in an upper plane at least one upper module to be manipulated and a lower fixing device arranged to fix to the arm in a lower plane at least one lower module to be manipulated, the arm being intended to be introduced into the housing with the upper module or modules and/or the lower module or modules; - a first securing device of the arm intended to control the positioning of the arm; the arm being mounted cantilever-fashion on the first securing device, the first securing device comprising a hexapod platform on which the arm is mounted. - an arm having an upper fixing device arranged to fix to the arm in an upper plane at least one upper module to be manipulated and a lower fixing device arranged to fix to the arm in a lower plane at least one lower module to be manipulated, the arm being intended to be introduced into the housing with the upper module or modules and/or the lower module or modules; - a first securing device of the arm intended to control the positioning of the arm; the arm being mounted cantilever-fashion on the first securing device, the first securing device comprising a hexapod platform on which the arm is mounted.
Mechanical seal assembly, comprising: - a mechanical seal comprising a rotating slide ring having a first sliding surface, and a stationary slide ring having a second sliding surface, which define a sealing gap therebetween, - wherein the mechanical seal assembly - comprises at least one sensor device (6, 7) having a sensor (60, 70) and a power supply device, - characterised in that the power supply device is a Peltier element (61, 71) which comprises a first ceramic body and a second ceramic body, and a plurality of semiconductor elements arranged between the first and second ceramic body (62, 63), and - wherein the Peltier element (61, 71) generates electrical current for power supply to the sensor (60, 70) based on a temperature difference. - a mechanical seal comprising a rotating slide ring having a first sliding surface, and a stationary slide ring having a second sliding surface, which define a sealing gap therebetween, - wherein the mechanical seal assembly - comprises at least one sensor device (6, 7) having a sensor (60, 70) and a power supply device, - characterised in that the power supply device is a Peltier element (61, 71) which comprises a first ceramic body and a second ceramic body, and a plurality of semiconductor elements arranged between the first and second ceramic body (62, 63), and - wherein the Peltier element (61, 71) generates electrical current for power supply to the sensor (60, 70) based on a temperature difference.
A substrate processing method, comprising a solidified body forming step of forming a solidified body by solidifying a liquid film of a liquid to be solidified formed on an upper surface (Wf) of a substrate in a horizontal posture using a cooling member, wherein: the solidified body forming step includes a first step of landing a processing surface of the cooling member on the liquid film to solidify the liquid to be solidified located in an area sandwiched between the upper surface (Wf) of the substrate and the processing surface of the cooling member, and a second step of releasing the processing surface of the cooling member from a solidified area solidified in the first step; the processing surface of the cooling member having a lower temperature than a freezing point of the liquid to be solidified; and adhesion between the solidified area and the processing surface of the cooling member being smaller than that between the solidified area and the upper surface (Wf) of the substrate. the solidified body forming step includes a first step of landing a processing surface of the cooling member on the liquid film to solidify the liquid to be solidified located in an area sandwiched between the upper surface (Wf) of the substrate and the processing surface of the cooling member, and a second step of releasing the processing surface of the cooling member from a solidified area solidified in the first step; a first step of landing a processing surface of the cooling member on the liquid film to solidify the liquid to be solidified located in an area sandwiched between the upper surface (Wf) of the substrate and the processing surface of the cooling member, and a second step of releasing the processing surface of the cooling member from a solidified area solidified in the first step; the processing surface of the cooling member having a lower temperature than a freezing point of the liquid to be solidified; and adhesion between the solidified area and the processing surface of the cooling member being smaller than that between the solidified area and the upper surface (Wf) of the substrate.
A design method for designing the corner fillet part provided at a corner part formed by a first composite material and a second composite material in a composite structure, the design method comprising: deriving a pull-off stress to be applied to the composite structure, and setting the rigidity of the corner fillet part based on the derived pull-off stress and adjusting the rigidity of the corner fillet part accordingly to adjust a pull-off stress to be applied to the corner part. deriving a pull-off stress to be applied to the composite structure, and setting the rigidity of the corner fillet part based on the derived pull-off stress and adjusting the rigidity of the corner fillet part accordingly to adjust a pull-off stress to be applied to the corner part.
A fluidic ejection cartridge, comprising: a cartridge body for fluid having a first end and a second end opposite to the first end, and having a plurality of side walls (34, 38) attached to the first end and the second end; an ejection head disposed on the second end of the cartridge body; a release structure configured on one of the side walls; a first removable tape attached to the release structure on the side wall and attached to the ejection head by a first adhesive having a first peel strength, and a second removable tape attached to a portion of the first removable tape by a second adhesive having a second peel strength, wherein the second peel strength is greater than the first peel strength, the fluidic ejection cartridge being characterized in that the release structure comprises a scored portion of the side wall underlying the first removable tape. a cartridge body for fluid having a first end and a second end opposite to the first end, and having a plurality of side walls (34, 38) attached to the first end and the second end; an ejection head disposed on the second end of the cartridge body; a release structure configured on one of the side walls; a first removable tape attached to the release structure on the side wall and attached to the ejection head by a first adhesive having a first peel strength, and a second removable tape attached to a portion of the first removable tape by a second adhesive having a second peel strength, wherein the second peel strength is greater than the first peel strength, the fluidic ejection cartridge being characterized in that the release structure comprises a scored portion of the side wall underlying the first removable tape.
A three phase MV power conversion system for coupling a power source to a utility grid comprising: - a power converter that comprises a rectifier coupled to the power source, a DC-Link and an inverter; - wherein the switching control system of the inverter is based on Selective Harmonic Elimination- Pulse Width Modulation (SHE-PWM) patterns; said system being characterised in that - it further comprises a Notch Filter coupled to the output nodes of the inverter; - the Notch-Filter is tuned to attenuate the frequency of the first harmonic that the switching control system of the inverter cannot attenuate and configured with damping means capable of smoothing the resonance frequency without affecting the notch frequency. - a power converter that comprises a rectifier coupled to the power source, a DC-Link and an inverter; - wherein the switching control system of the inverter is based on Selective Harmonic Elimination- Pulse Width Modulation (SHE-PWM) patterns; said system being characterised in that - it further comprises a Notch Filter coupled to the output nodes of the inverter; - wherein the switching control system of the inverter is based on Selective Harmonic Elimination- Pulse Width Modulation (SHE-PWM) patterns; said system being characterised in that - it further comprises a Notch Filter coupled to the output nodes of the inverter; - the Notch-Filter is tuned to attenuate the frequency of the first harmonic that the switching control system of the inverter cannot attenuate and configured with damping means capable of smoothing the resonance frequency without affecting the notch frequency.
An apparatus for a network element, comprising means for causing the apparatus to perform at least the following: concatenating the beginning part of a data packet received on a specific frequency band and in a scheduled slot between a user apparatus and a radio access network with an end part of a previous data packet to get a complete data packet and inputting the complete data packet and supplementary data related to the data packet, into a neural network with trained parameters to predict a success of decoding the data packet after received in full; and controlling a hybrid automatic repeat request procedure associated with the data packet based on the predicted success using the specific frequency band and the scheduled slot for full-duplex inband signalling. concatenating the beginning part of a data packet received on a specific frequency band and in a scheduled slot between a user apparatus and a radio access network with an end part of a previous data packet to get a complete data packet and inputting the complete data packet and supplementary data related to the data packet, into a neural network with trained parameters to predict a success of decoding the data packet after received in full; and controlling a hybrid automatic repeat request procedure associated with the data packet based on the predicted success using the specific frequency band and the scheduled slot for full-duplex inband signalling.
An electrical machine having a stator core and an inner rotor disposed in a space formed inside the stator core and rotatable with respect to the stator core in a manner connected to a shaft, said stator core having a plurality of laminations stamped out in an identical manner and stacked one above the other, each lamination having a plurality of inwardly projecting teeth extending successively along an inner periphery of the stator core to form winding slots that receive windings; wherein a stator housing supporting the stator core is provided by Aluminium injection moulding, the stator core comprises a plurality of longitudinal grooves in the form of peripheral non-uniformities along the lateral surface of the stator core and said longitudinal grooves being filled and covered with the injected Aluminium so as to form inner peripheral surface of the stator housing, characterized in that the longitudinal grooves are disposed annularly, each groove being in alignment with respectively one of said inwardly projecting teeth and winding slots.
A method for removing stains during a cleaning cycle of a household appliance, the cleaning cycle comprising at least a main wash cycle (402, 502, 602, 702, 802) the method comprising: - releasing a first cleaning agent (410, 510, 610, 710, 810) at temperatures below 40 °C during the main wash cycle; - Releasing an amount of a main cleaning agent (420, 520, 620, 720, 820) during the main wash cycle when a temperature inside the household appliance during the main wash cycle exceeds a predetermined temperature threshold, wherein the predetermined temperature threshold is higher than 40 °C, wherein the main cleaning agent comprises at least one chelating agent. - releasing a first cleaning agent (410, 510, 610, 710, 810) at temperatures below 40 °C during the main wash cycle; - Releasing an amount of a main cleaning agent (420, 520, 620, 720, 820) during the main wash cycle when a temperature inside the household appliance during the main wash cycle exceeds a predetermined temperature threshold, wherein the predetermined temperature threshold is higher than 40 °C, wherein the main cleaning agent comprises at least one chelating agent.
A mover for a long-stator system, comprising a primary part with elements for movably arranging the mover on a long-stator and an accommodating area, in which a sensor for position-dependent measurement of at least one system parameter is arranged, the sensor being releasably connected to the accommodating area, characterized in that the sensor comprises a load cell, which is connected to the mover in a stationary manner, and a secondary element corresponding to a secondary part of the mover as regards its geometry and/or a magnetic force exchangeable with the long-stator during operation, wherein the load cell is able to measure a force acting on the secondary element when the mover moves along the long-stator under the influence of a magnetic force.
Cooking system comprising at least one hob device, at least one cooking utensil, and at least one control device having at least one control element and at least one communication device, wherein communication between the hob device and the cooking utensil is possible by means of the communication device, wherein the hob device comprises at least one placement surface for the cooking utensil, and at least two induction devices, which are arranged below the placement surface and can be controlled by means of the control device, individually and/or together as a cooking zone, depending on the placement position of the cooking utensil, the control device comprises at least one display device and the cooking utensil comprises at least one display device, wherein the cooking utensil is assigned to the control element by at least temporarily displaying at least one identical and/or corresponding property on the display devices (51, 102), characterised in that the same or corresponding property on the display device of the cooking utensil and on the display device of the control device is selected from the group of properties comprising an identical number or digit and/or an identical shape and/or an identical symbol. at least one hob device, at least one cooking utensil, and at least one control device having at least one control element and at least one communication device, wherein communication between the hob device and the cooking utensil is possible by means of the communication device, wherein the hob device comprises at least one placement surface for the cooking utensil, and at least two induction devices, which are arranged below the placement surface and can be controlled by means of the control device, individually and/or together as a cooking zone, depending on the placement position of the cooking utensil, the control device comprises at least one display device and the cooking utensil comprises at least one display device, wherein the cooking utensil is assigned to the control element by at least temporarily displaying at least one identical and/or corresponding property on the display devices (51, 102), characterised in that the same or corresponding property on the display device of the cooking utensil and on the display device of the control device is selected from the group of properties comprising an identical number or digit and/or an identical shape and/or an identical symbol.
A collector comprising a container and a removable cap attached to the container, the cap defining an opening dimensioned for receiving the tip of a Kerrison rongeur therethrough, and further comprising a scraper attached to an underside of the cap such that extension of the rongeur through the opening dislodges material carried in a cutting area of the rongeur, which dislodged material is received within an interior space of the container.
A BTE hearing aid comprising a BTE hearing aid housing to be worn behind the pinna of a user, at least one BTE sound input transducer (14,16) for conversion of acoustic sound into an audio sound signal, a processor configured to generate a hearing loss compensated output signal based on the audio sound signal, a sound signal transmission member for transmission of a sound signal from a sound output in the BTE hearing aid housing at a first end of the sound signal transmission member to the ear canal of the user at a second end of the sound signal transmission member, an earpiece configured to be inserted in the ear canal of the user for fastening and retaining the sound signal transmission member in its intended position in the ear canal of the user, and an output transducer for conversion of the hearing loss compensated output signal to an auditory output signal that can be received by the human auditory system, an ITE microphone housing accommodating at least one ITE microphone and configured to be positioned in the outer ear of the user for fastening and retaining the at least one ITE microphone in its intended position, characterized in at least one adaptive cue filter (42,44), each of which having an input that is provided with an output signal from a respective one of the at least one BTE sound input transducer (14,16), and the filter coefficients of which are adapted so that the difference (54,46) between an output of the at least one ITE microphone and a combined output of the at least one adaptive cue filter is minimized.
A system, comprising: a detector comprising an X-ray absorption layer, an electronics layer; a cooling system configured to control temperature of the detector and prevent condensation of water vapor on the detector; wherein the X-ray absorption layer comprises a plurality of pixels, each pixel configured to count numbers of X-ray photons incident thereon whose energy falls in a plurality of bins, within a period of time; wherein the electronics layer comprises an electronic system configured to add the numbers of X-ray photons for the bins of the same energy range counted by all the pixels; characterized in that the cooling system comprises a chiller configured to lower temperature and moisture level of air, and a fan configured to blow the air that is cooled and dried to the detector; wherein the detector is not vacuum-encapsulated in a gas tight housing. a detector comprising an X-ray absorption layer, an electronics layer; a cooling system configured to control temperature of the detector and prevent condensation of water vapor on the detector; wherein the X-ray absorption layer comprises a plurality of pixels, each pixel configured to count numbers of X-ray photons incident thereon whose energy falls in a plurality of bins, within a period of time; wherein the electronics layer comprises an electronic system configured to add the numbers of X-ray photons for the bins of the same energy range counted by all the pixels; characterized in that the cooling system comprises a chiller configured to lower temperature and moisture level of air, and a fan configured to blow the air that is cooled and dried to the detector; wherein the detector is not vacuum-encapsulated in a gas tight housing.
A method of transmitting a discovery signal by a Device-to-Device, D2D, User Equipment, UE, in a wireless communication system, the method comprising: determining a subframe pool in a discovery period; and transmitting the discovery signal in a subframe included in the subframe pool, wherein a frequency resource index on which the discovery signal is transmitted on the discovery period is determined by using: f _ shift + floor nf + Nf * nt / Nt mod Nf, wherein a time resource index on which the discovery signal is transmitted on the discovery period is determined by using: t _ shift + nf + Nf * nt mod Nt, where Nf is determined based on a number of discovery resources per subframe, Nt is determined based on a number of subframes per discovery period, f_shift is a frequency shift, t_shift is a subframe shift, nf is a frequency resource index on which the discovery signal is transmitted on a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted on the previous discovery period, wherein f shift and t_shift are determined from values indicated by a higher-layer parameter, and wherein f shift varies based on a secondary synchronization signal, SSS, ID and the discovery period such that the same f shift is used in a plurality of cells in a given area. determining a subframe pool in a discovery period; and transmitting the discovery signal in a subframe included in the subframe pool, wherein a frequency resource index on which the discovery signal is transmitted on the discovery period is determined by using: f _ shift + floor nf + Nf * nt / Nt mod Nf, wherein a time resource index on which the discovery signal is transmitted on the discovery period is determined by using: t _ shift + nf + Nf * nt mod Nt, where Nf is determined based on a number of discovery resources per subframe, Nt is determined based on a number of subframes per discovery period, f_shift is a frequency shift, t_shift is a subframe shift, nf is a frequency resource index on which the discovery signal is transmitted on a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted on the previous discovery period, wherein f shift and t_shift are determined from values indicated by a higher-layer parameter, and wherein f shift varies based on a secondary synchronization signal, SSS, ID and the discovery period such that the same f shift is used in a plurality of cells in a given area.
A process for isomerizing of methylcyclopentane to cyclohexane in the presence of an ionic liquid, which comprises performing the isomerization of methylcyclopentane to cyclohexane in a dispersion, with dispersion of phase in phase in dispersion, the volume ratio of phase to phase being in the range from 2.5 to 4:1 [vol/vol], phase comprising greater than 50% by weight of at least one ionic liquid, and phase comprising greater than 50% by weight of at least one hydrocarbon.
A cellobiohydrolase variant, comprising the substitutions N197A + N200A at positions corresponding to the mature polypeptide of SEQ ID NO: 2, wherein the variant has cellobiohydrolase activity, and wherein the variant has at least 90%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, but less than 100%, sequence identity to the mature polypeptide of SEQ ID NO: 12.