mhurhangee/ep-ind-claims huggingface dataset:
Oil pan filter combination in particular of an engine lubricating system of an internal combustion engine, in particular of a motor vehicle, with an oil pan, an oil filter disposed on or in the oil pan, which oil filter comprises an openable filter housing with a housing interior area in which a filter element can be replaceably disposed, wherein the housing interior area of the filter housing is connected to a pan interior space of the oil pan using at least one housing passage, which pan interior space can be closed using a housing passage closing device (32, 52, 54, 60), wherein the oil pan features an oil drain opening which can be closed using a closing element, wherein the at least one housing passage features a sealing section on its side facing the oil drain opening and the closing element features, at an area facing the housing passage, a closing section matching the sealing section, which closing section can cooperate in a closing manner with the sealing section for closing the housing passage, characterized in that the sealing section and the oil drain opening are coaxial with regard to a common axis, wherein an axial extension, with respect to the common axis, of a housing sealing area in which, in the closing state of the closing element, the closing section sealingly abuts against the sealing section of the housing passage, is smaller than an axial extension of an oil drain sealing area in which, in the closed state, an oil drain closing section of the closing element tightly abuts against an oil drain sealing section of the oil drain opening.
A structure for testing a luminescent film, the structure comprising: a Lambertian light source comprising: a mixing chamber having an output port; and a light emitter coupled to the mixing chamber; the structure further comprising: an integrating sphere having an input port; and a measuring device; wherein during testing the luminescent film is positioned between the output port of the mixing chamber and the input port of the integrating sphere; and wherein the measuring device is optically coupled to the integrating sphere, characterized in that one or both of the integrating sphere and the mixing chamber are mounted on springs configured to push the output port of the mixing chamber and the input port of the integrating sphere together in order to maintain sliding contact of both ports with the luminescent film, and one or both of the input port of the integrating sphere and the output port of the mixing chamber are large-area flanges, wider than 25 mm in diameter, which flatten the luminescent film. a Lambertian light source comprising: a mixing chamber having an output port; and a light emitter coupled to the mixing chamber; the structure further comprising: an integrating sphere having an input port; and a measuring device; a mixing chamber having an output port; and a light emitter coupled to the mixing chamber; the structure further comprising: an integrating sphere having an input port; and a measuring device; an integrating sphere having an input port; and a measuring device; wherein during testing the luminescent film is positioned between the output port of the mixing chamber and the input port of the integrating sphere; and wherein the measuring device is optically coupled to the integrating sphere, characterized in that one or both of the integrating sphere and the mixing chamber are mounted on springs configured to push the output port of the mixing chamber and the input port of the integrating sphere together in order to maintain sliding contact of both ports with the luminescent film, and one or both of the input port of the integrating sphere and the output port of the mixing chamber are large-area flanges, wider than 25 mm in diameter, which flatten the luminescent film.
A relay node for a communication system comprising a plurality of mobility management entities 'MMEs', a donor base station, the relay node and a plurality of mobile devices (3-3, 3-4, 3-5), the relay node comprising: means for associating the plurality of mobile devices (3, 4) with the relay node wherein each mobile device (3, 4) is served by an MME of said plurality of MMEs; means for receiving, from the donor base station, a request that an overload action be performed and identity information representing an identity of an MME that requested the overload action; and means for selectively performing said requested overload action in respect of the mobile devices (3-3, 3-4, 3-5) associated with the relay node in dependence on the identity information representing an identity of an MME that requested the overload action. means for associating the plurality of mobile devices (3, 4) with the relay node wherein each mobile device (3, 4) is served by an MME of said plurality of MMEs; means for receiving, from the donor base station, a request that an overload action be performed and identity information representing an identity of an MME that requested the overload action; and means for selectively performing said requested overload action in respect of the mobile devices (3-3, 3-4, 3-5) associated with the relay node in dependence on the identity information representing an identity of an MME that requested the overload action.
A crystalline -1-(2-methylalanyl-D-tryptophyl)-3-(phenylmethyl)-3-piperidinecarboxylic acid 1,2,2-trimethylhydrazide having the following X-ray powder diffraction pattern: Peak 2Theta d Relative Intensity No. (deg) 1 9.6 9.2 8 2 10.1 8.8 100 3 10.8 8.2 4 4 11.1 8.0 25 5 13.8 6.4 7 6 14.6 6.1 4 7 15.2 5.8 6 8 16.7 5.3 6 9 17.3 5.1 9 10 17.6 5.0 18 11 18.2 4.9 12 12 20.0 4.4 18 13 20.5 4.3 7 14 20.8 4.3 12 15 22.1 4.0 8 16 23.5 3.8 13 17 25.8 3.5 4 18 27.5 3.2 5 19 30.5 3.0 4 20 35.0 2.6 3
A fan for a gas turbine engine, comprising: a rotor; a hollow fan blade having a cavity, the hollow fan blade secured to the rotor; and a cover covering the cavity; characterised in that the fan further comprises a platform independent of the hollow fan blade and secured to the rotor, wherein a portion of the cover is located radially inward of a peripheral edge of the platform when the platform and the hollow fan blade are secured to the rotor such that the peripheral edge retains the portion of the cover in a desired location. a rotor; a hollow fan blade having a cavity, the hollow fan blade secured to the rotor; and a cover covering the cavity; characterised in that the fan further comprises a platform independent of the hollow fan blade and secured to the rotor, wherein a portion of the cover is located radially inward of a peripheral edge of the platform when the platform and the hollow fan blade are secured to the rotor such that the peripheral edge retains the portion of the cover in a desired location.
A method of vapor deposition comprising: (a) vaporizing a solid coating of a material that was previously vapor deposited on a three-dimensional, open cell, reticulated structure to form a deposition gas; (b) flowing a carrier gas though the three-dimensional, open cell, reticulated structure to yield a controllable partial pressure of the deposition gas while vaporizing the solid coating and thereby forming a mixture of the carrier gas and the deposition gas; (c) delivering the mixture at a stable flow rate to a temperature controlled substrate; (d) condensing the deposition gas onto a surface of the temperature controlled substrate; and (e) withdrawing the carrier gas. (a) vaporizing a solid coating of a material that was previously vapor deposited on a three-dimensional, open cell, reticulated structure to form a deposition gas; (b) flowing a carrier gas though the three-dimensional, open cell, reticulated structure to yield a controllable partial pressure of the deposition gas while vaporizing the solid coating and thereby forming a mixture of the carrier gas and the deposition gas; (c) delivering the mixture at a stable flow rate to a temperature controlled substrate; (d) condensing the deposition gas onto a surface of the temperature controlled substrate; and (e) withdrawing the carrier gas.
A system for fragmenting an eye lens nucleus, comprising: - a first laser radiation source, configured to irradiate the eye lens nucleus with first radiation suitable for Brillouin spectroscopy; - an apparatus configured for performing Brillouin spectroscopy with radiation scattered back from the eye lens nucleus in order to acquire Brillouin scattering measured data; - a processing unit in or from which correlations between Brillouin scattering measured data and parameters of a second radiation suitable for fragmenting the eye lens nucleus are contained or derived; and - a second laser radiation source having radiation guiding means, configured to irradiate the eye lens nucleus with the second radiation with the parameters correlated with the Brillouin scattering measured data of the irradiated eye lens nucleus, in order to fragment the eye lens nucleus. - a first laser radiation source, configured to irradiate the eye lens nucleus with first radiation suitable for Brillouin spectroscopy; - an apparatus configured for performing Brillouin spectroscopy with radiation scattered back from the eye lens nucleus in order to acquire Brillouin scattering measured data; - a processing unit in or from which correlations between Brillouin scattering measured data and parameters of a second radiation suitable for fragmenting the eye lens nucleus are contained or derived; and - a second laser radiation source having radiation guiding means, configured to irradiate the eye lens nucleus with the second radiation with the parameters correlated with the Brillouin scattering measured data of the irradiated eye lens nucleus, in order to fragment the eye lens nucleus.
An electrochromic film comprising an electrochromic layer; and a passivation layer that can be colored and bleached in use by an electrochemical reaction and is located on one side of the electrochromic layer and having a coloration level different from that of the electrochromic layer, wherein the coloration level is a minimum magnitude (absolute value) of a voltage which is applied in use to a layer capable of electrochromism to cause color-change, wherein the electrochromic layer comprises a reducing electrochromic material, wherein the passivation layer comprises a metal oxynitride; and the metal oxynitride simultaneously comprises two or more metals selected from Ti, Nb, Mo, Ta and W. wherein the coloration level is a minimum magnitude (absolute value) of a voltage which is applied in use to a layer capable of electrochromism to cause color-change, wherein the electrochromic layer comprises a reducing electrochromic material, wherein the passivation layer comprises a metal oxynitride; and the metal oxynitride simultaneously comprises two or more metals selected from Ti, Nb, Mo, Ta and W.
A method performed by an authoritative name server of a global traffic management system to route particular client service requests to designated data centers, comprising: receiving a first request associated with a service from a client, the first request including a hostname of the service; sending, to the client, a global traffic management identifier in response to the request from the client, wherein the global traffic management identifier is determined based on the service and an address of the client; receiving, from a domain name system server, a second request including a modified hostname previously generated by the client and provided to the domain name system server, and extracting the global traffic management identifier from the received modified hostname; identifying a data center associated with the service based on the modified hostname of the service; and sending data identifying the identified data center to the domain name system server to inform the client, via the domain name system server, of the identified data center to be used for accessing the service. receiving a first request associated with a service from a client, the first request including a hostname of the service; sending, to the client, a global traffic management identifier in response to the request from the client, wherein the global traffic management identifier is determined based on the service and an address of the client; receiving, from a domain name system server, a second request including a modified hostname previously generated by the client and provided to the domain name system server, and extracting the global traffic management identifier from the received modified hostname; identifying a data center associated with the service based on the modified hostname of the service; and sending data identifying the identified data center to the domain name system server to inform the client, via the domain name system server, of the identified data center to be used for accessing the service.
A printed circuit board element with a substrate, with at least one optoelectronic component (3, 4) embedded in a photopolymerizable optical layer material, and with at least one optical waveguide optically coupled with the former and structured in the optical material by two or multi-photon absorption, characterized in that a prefabricated deflection mirror embedded in the optical material and optically coupled with the optoelectronic component via the optical waveguide is attached to the substrate and that the deflection mirror comprises position marks (16', 18, 19-21) for controlling a laser beam during the structuring of the optical waveguide (6, 6'), wherein the deflection mirror and/or a support thereof along with which the deflection mirror is arranged on the substrate comprises an upwardly facing additional reflective field for determining the height position during structuring.
A tire, comprising: a tire body having a surface portion, two sidewalls on opposite sides of the surface portion, and two beads on distal ends of the sidewalls; and a crown having a surface portion protective layer provided on an outer side of the surface portion of the tire body and a skin layer provided on the surface portion protective layer, characterized in that the surface portion protective layer is made of a composite material including a body ply, reinforced powder and rubber; and is only provided on the outer side of the surface portion; the tire further comprises two sidewall protective layers provided on the sidewalls of the tire body, wherein each of the sidewall protective layers has at least a portion overlapping the surface portion protective layer. a tire body having a surface portion, two sidewalls on opposite sides of the surface portion, and two beads on distal ends of the sidewalls; and a crown having a surface portion protective layer provided on an outer side of the surface portion of the tire body and a skin layer provided on the surface portion protective layer, characterized in that the surface portion protective layer is made of a composite material including a body ply, reinforced powder and rubber; and is only provided on the outer side of the surface portion; the tire further comprises two sidewall protective layers provided on the sidewalls of the tire body, wherein each of the sidewall protective layers has at least a portion overlapping the surface portion protective layer.
A surgical mechanism control system comprising: an acceleration or orientation detection unit configured to output one or more control signals in response to detecting one of acceleration and orientation of the unit, the unit being adapted to be attached to a surgeon, wherein the acceleration or orientation detection unit includes one or more acceleration sensors, a foot pedal; and a control unit configured to receive a control signal output by the unit and control a surgical mechanism in accordance with the control signal, wherein the control unit is configured to transmit an output in accordance with the control signal when an input is detected at the control unit from the foot pedal, and/or the foot pedal is actuatable to switch between modes of operation, such that in a first mode of operation the control signal controls a first output from the control unit to control movement of the surgical mechanism in a first degree of freedom and in the second mode of operation the control signal controls a second output from the control unit to control movement of the surgical mechanism in a second degree of freedom, said surgical mechanism control system being characterized in that the or each acceleration sensors has an associated threshold acceleration, such that an acceleration below the associated threshold association does not cause actuation of an associated switch unit and an acceleration above the associated threshold acceleration does cause the associated switch unit to actuate such that the one or more control signals are output. an acceleration or orientation detection unit configured to output one or more control signals in response to detecting one of acceleration and orientation of the unit, the unit being adapted to be attached to a surgeon, wherein the acceleration or orientation detection unit includes one or more acceleration sensors, a foot pedal; and a control unit configured to receive a control signal output by the unit and control a surgical mechanism in accordance with the control signal, wherein the control unit is configured to transmit an output in accordance with the control signal when an input is detected at the control unit from the foot pedal, and/or the foot pedal is actuatable to switch between modes of operation, such that in a first mode of operation the control signal controls a first output from the control unit to control movement of the surgical mechanism in a first degree of freedom and in the second mode of operation the control signal controls a second output from the control unit to control movement of the surgical mechanism in a second degree of freedom, said surgical mechanism control system being characterized in that the or each acceleration sensors has an associated threshold acceleration, such that an acceleration below the associated threshold association does not cause actuation of an associated switch unit and an acceleration above the associated threshold acceleration does cause the associated switch unit to actuate such that the one or more control signals are output.
A stretch label comprising a stretch film, the stretch film including: a base layer part; and surface layers disposed on or over both sides of the base layer part, the base layer part including 3 to 65 layers E, the layers E each independently containing a polyethylene resin in a content in the layer of 60% by weight or more and having a density of 0.850 to 0.945 g/cm 3, each of the layers E in the base layer part differing in density from another adjacent layer E. a base layer part; and surface layers disposed on or over both sides of the base layer part,
A method performed by a transmitting device (3-10, 3-15) in a wireless communication system, the method comprising: receiving, from a receiving device, a packet data convergence protocol, PDCP, control protocol data unit, PDU, including information indicating a check sum failure; discarding, based on the information, a first PDCP PDU for which a PDCP processing is performed and not being submitted to a lower layer; delivering a first indicator to the lower layer based on the information, the first indicator indicating a discard of data which was delivered to the lower layer; performing a first PDCP processing for a PDCP service data unit, SDU, corresponding to the discarded first PDCP PDU; and transmitting, to the receiving device, at least one PDCP PDU including a second PDCP PDU generated based on the first PDCP processing, characterized in that the at least one PDCP PDU includes a retransmitted PDCP PDU corresponding to a previous PDCP PDU which has been transmitted to the receiving device before the information is received, wherein a first COUNT value used for encoding the retransmitted PDCP PDU is different from a second COUNT value used for encoding the previous PDCP PDU, and wherein the retransmitted PDCP PDU is encoded based on a newly assigned PDCP sequence number, SN, which has not been transmitted and the first COUNT value. receiving, from a receiving device, a packet data convergence protocol, PDCP, control protocol data unit, PDU, including information indicating a check sum failure; discarding, based on the information, a first PDCP PDU for which a PDCP processing is performed and not being submitted to a lower layer; delivering a first indicator to the lower layer based on the information, the first indicator indicating a discard of data which was delivered to the lower layer; performing a first PDCP processing for a PDCP service data unit, SDU, corresponding to the discarded first PDCP PDU; and transmitting, to the receiving device, at least one PDCP PDU including a second PDCP PDU generated based on the first PDCP processing, characterized in that the at least one PDCP PDU includes a retransmitted PDCP PDU corresponding to a previous PDCP PDU which has been transmitted to the receiving device before the information is received, wherein a first COUNT value used for encoding the retransmitted PDCP PDU is different from a second COUNT value used for encoding the previous PDCP PDU, and wherein the retransmitted PDCP PDU is encoded based on a newly assigned PDCP sequence number, SN, which has not been transmitted and the first COUNT value.
A method for determining a trajectory of an aircraft intended to fly over a field of operation with a view to performing an action on a target at a given time (Id), said field of operation comprising a plurality of secure areas (Z1, Z3) and a plurality of non-secure areas (Z2, Z4), said trajectory comprising a plurality of intermediate points (P1, P2, P3, P4) between a starting point of said trajectory and the target, said intermediate points (P1, P2, P3, P4, P5) being positioned on borders between secure areas and non-secure areas, said method being implemented by computer means, wherein said determination method comprises a step of computing a set of sections (T1, T2, T3, T4, T5) between said starting point, said intermediate points (P1, P2, P3, P4) and said target, said set of sections (T1, T2, T3, T4) having a first type of sections (T2, T4) extending over non-secure areas (Z2, Z4) and a second type of sections (T1, T3) extending over secure areas (Z1, Z3), said first type of sections (T2, T4) having an overall rectilinear shape so as to limit the time spent by the aircraft in the non-secure areas (Z2, Z4) and said second type of sections (T1, T3) having a sinuous shape so as to allow a reserve of time for adjusting a position of the aircraft on the target at said given time (T id) with a view to performing the action.