mhurhangee/ep-ind-claims huggingface dataset:
Implant, comprising at least one base element or matrix of a first polymer material coated with a coating of a second polymer material, characterised in that the at least one base element or matrix coated with the coating exhibits openings passing through it from one side to the other; and the softening temperature of the second polymer material being lower than the softening temperature of the first polymer material.
Wind turbine generator having a stator and a rotor and a bearing arrangement, wherein said bearing arrangement is supported on one of said stator and said rotor, said bearing arrangement comprising a first, a second and a third roller unit group (110, 112, 114) each comprising multiple roller units (108, 108-1, 108-2, 108-3) for rotatably supporting said rotor with respect to said stator and circularly arranged around a bearing arrangement axis, wherein said roller units of said first and second roller unit group are arranged with their longitudinal axes extending substantially perpendicular with respect to said bearing arrangement axis, and said roller units of said third roller unit group are arranged with their longitudinal axes extending substantially parallel with said bearing arrangement axis, and wherein said bearing arrangement further comprises a bearing element, wherein said roller units are arranged in rolling contact with said bearing element, wherein said roller units of said first roller unit group are detachably mounted on an axial end face of said stator and said roller units of said second and third roller unit groups (110, 112) are mounted on an outer peripheral surface of said stator, or said roller units (108, 108-1, 108-2, 108-3) of said first, second and third roller unit groups (110, 112, 114) are detachably mounted on an inner peripheral surface of said rotor, characterised in that each roller unit (108, 108-1, 108-2, 108-3) comprises a single roller (202, 302) and is individually replaceable.
A compound according to formula wherein R 1 is selected from H and (C 1 -C 3)alkyl: R 2 is selected from H and (C 1 -C 3)alkyl and R 3 is H; or R 2 and R 3 together are -CH 2 -; R 4 is selected from H, F and OCH 3; R 5 is selected from H and F; and R 6 is selected from (C 2 -C 4)alkyl, (C 3 -C 5)cycloalkyl and methyl-substituted (C 3 -C 5)cycloalkyl, and wherein ring B is attached to ring A at any one of positions 3, 4 and 5; and R 4 is attached to ring A at any one of positions 2, 3, 4 and 5, provided that R 4 and ring B cannot both be attached to ring A at the same position, or a pharmaceutically acceptable salt thereof. R 1 is selected from H and (C 1 -C 3)alkyl: R 2 is selected from H and (C 1 -C 3)alkyl and R 3 is H; or R 2 and R 3 together are -CH 2 -; R 4 is selected from H, F and OCH 3; R 5 is selected from H and F; and R 6 is selected from (C 2 -C 4)alkyl, (C 3 -C 5)cycloalkyl and methyl-substituted (C 3 -C 5)cycloalkyl, R 2 is selected from H and (C 1 -C 3)alkyl and R 3 is H; or R 2 and R 3 together are -CH 2 -; R 4 is selected from H, F and OCH 3; R 5 is selected from H and F; and R 6 is selected from (C 2 -C 4)alkyl, (C 3 -C 5)cycloalkyl and methyl-substituted (C 3 -C 5)cycloalkyl, ring B is attached to ring A at any one of positions 3, 4 and 5; and R 4 is attached to ring A at any one of positions 2, 3, 4 and 5, provided that R 4 and ring B cannot both be attached to ring A at the same position,
A non-therapeutic method of decreasing fatigue in a human or non-human mammal during vigorous muscle activity sustained for at least 90 seconds at a level characterized by onset of fatigue over a period of 90 s to 3 hours of continuous exercise, not being fatigue from explosive exercise, which comprises administering to the mammal a composition or compositions comprising creatine and an alkaline substance wherein the pH of the composition is in the range 7-14.
A method of inducing losses of light at a parasitic wavelength in a fiber laser system, the fiber laser system including a fiber laser source (18, 20, 22) comprising an active signal fiber, said fiber laser source generating light at a signal wavelength different from the parasitic wavelength, the fiber laser source including a passive output fiber located at the end of the fiber laser source, the fiber laser system further including a delivery fiber in contact with the passive output fiber of the fiber laser source (18, 20, 22) and guiding light at parasitic and signal wavelengths, the fiber laser source (18, 20, 22) being configured to provide light at the signal wavelength having an optical intensity sufficient to exceed a threshold for generating light at the parasitic wavelength in a fiber waveguide which includes the active signal fiber, the passive output fiber and the delivery fiber, and a wavelength discriminator, WD(32, 56), configured to reflect a portion of light at the parasitic wavelength and transmit light at the signal wavelength, the method comprising providing free-space optical communication between the delivery fiber and the WD (32, 56) and between the WD (32, 56) and a surface of a workpiece to be processed, thereby suppressing emission of light at the parasitic wavelength at an output of the fiber laser system, wherein the suppression of the emission of light at the parasitic wavelength includes reflecting a portion of forward propagating light at the parasitic wavelength and light at the parasitic wavelength that is reflected back from the surface of the workpiece. the fiber laser system including a fiber laser source (18, 20, 22) comprising an active signal fiber, said fiber laser source generating light at a signal wavelength different from the parasitic wavelength, the fiber laser source including a passive output fiber located at the end of the fiber laser source, the fiber laser system further including a delivery fiber in contact with the passive output fiber of the fiber laser source (18, 20, 22) and guiding light at parasitic and signal wavelengths, the fiber laser source (18, 20, 22) being configured to provide light at the signal wavelength having an optical intensity sufficient to exceed a threshold for generating light at the parasitic wavelength in a fiber waveguide which includes the active signal fiber, the passive output fiber and the delivery fiber, and a wavelength discriminator, WD(32, 56), configured to reflect a portion of light at the parasitic wavelength and transmit light at the signal wavelength, the method comprising providing free-space optical communication between the delivery fiber and the WD (32, 56) and between the WD (32, 56) and a surface of a workpiece to be processed, thereby suppressing emission of light at the parasitic wavelength at an output of the fiber laser system, wherein the suppression of the emission of light at the parasitic wavelength includes reflecting a portion of forward propagating light at the parasitic wavelength and light at the parasitic wavelength that is reflected back from the surface of the workpiece.
Assembly of a vehicle aluminum cradle on a body structure, comprising at least one lateral side rail (10, 20) made of aluminum, characterized in that it comprises an aluminum casting (50, 60) comprising an upper face (51, 61) secured below said side rail (10, 20), one or a plurality of lower parts (52, 53, 62, 63) secured on said cradle, and an opening (54, 64) which permits passage of the drive shaft.
A streamer connecting module for connecting two streamer sections, the streamer connecting module comprising: a housing extending along a longitudinal axis so that first and second ends (319A, 319B) are opposite to each other; a first streamer connecting part fixedly attached at the first end of the housing; a second streamer connecting part fixedly attached at the second end of the housing; characterized in that the streamer connecting module comprises: - first plural balls located between the first streamer connecting part and the first end of the housing; and a first conduit (320, 331) extending circularly around the longitudinal axis and formed at an interface between the first streamer connecting part and the first end of the housing for accommodating the first plural balls; and - a first pin inserted through a first hole in the first end of the housing, the first pin extending inside the first conduit (320, 331) to prevent the first plural balls to rotate relative to the longitudinal axis. a housing extending along a longitudinal axis so that first and second ends (319A, 319B) are opposite to each other; a first streamer connecting part fixedly attached at the first end of the housing; a second streamer connecting part fixedly attached at the second end of the housing; characterized in that the streamer connecting module comprises: - first plural balls located between the first streamer connecting part and the first end of the housing; and a first conduit (320, 331) extending circularly around the longitudinal axis and formed at an interface between the first streamer connecting part and the first end of the housing for accommodating the first plural balls; and - a first pin inserted through a first hole in the first end of the housing, the first pin extending inside the first conduit (320, 331) to prevent the first plural balls to rotate relative to the longitudinal axis. - first plural balls located between the first streamer connecting part and the first end of the housing; and a first conduit (320, 331) extending circularly around the longitudinal axis and formed at an interface between the first streamer connecting part and the first end of the housing for accommodating the first plural balls; and - a first pin inserted through a first hole in the first end of the housing, the first pin extending inside the first conduit (320, 331) to prevent the first plural balls to rotate relative to the longitudinal axis.
A method for implementing highly available, "HA", network communication between a first node and one or more remote target nodes (402, 403) in a middleware machine environment including the first node and the one or more remote target nodes, the method comprising: concurrently probing availability of multiple target Internet Protocol, "IP", addresses (422, 424), via multiple corresponding network interfaces (412, 414), the multiple IP addresses and the multiple corresponding network interfaces each being associated with a specific remote target node; receiving a response to the probing from at least one said network interface associated with a corresponding said target IP address; and establishing a communication connection to perform an operation between the first node and the specific target node using the IP address and the corresponding network interface from which the system receives the first response. concurrently probing availability of multiple target Internet Protocol, "IP", addresses (422, 424), via multiple corresponding network interfaces (412, 414), the multiple IP addresses and the multiple corresponding network interfaces each being associated with a specific remote target node; receiving a response to the probing from at least one said network interface associated with a corresponding said target IP address; and establishing a communication connection to perform an operation between the first node and the specific target node using the IP address and the corresponding network interface from which the system receives the first response.
A method of impregnating and purifying polylactic acid, wherein PLA resin beads are subjected to a liquid CO 2 -treatment, which involves impregnation and extraction characterized in that it comprises the following: - a desired purity of the PLA beads is defined; - the PLA resin beads are subjected to the liquid CO 2 -treatment in two or more impregnation and extraction steps, in which the PLA resin beads are brought into contact with 0,01-1000 kg pure liquid CO 2 /kg PLA in a reactor for a predetermined time period, at a temperature of -10 - +15 °C and pressure of 4,5-8 MPa, in order to prevent the beads from sticking together and foaming, and - a portion of the liquid CO 2 is drained from the PLA beads after completion of each impregnation and extraction step, at a temperature of -10 - +15 °C and pressure of 4,5-8 MPa in order to prevent the beads from sticking together and foaming, and at which the CO 2 is in liquid form, while leaving at least 0,01 kg liquid CO 2 /kg PLA, preferably 0,01-1 kg liquid CO 2 /kg PLA in the reactor containing the PLA resin beads, wherein a new amount of pure liquid CO 2 is added at the beginning of each impregnation and extraction step, whereby after performing all impregnation and extraction steps said desired purity of the PLA beads is achieved, followed by - evacuation of CO 2 gas from the reactor so as to decrease the pressure to ambient pressure, whereby the remaining liquid CO 2 is evaporated, thereby decreasing the temperature so as to prevent foaming at ambient pressure. - a desired purity of the PLA beads is defined; - the PLA resin beads are subjected to the liquid CO 2 -treatment in two or more impregnation and extraction steps, in which the PLA resin beads are brought into contact with 0,01-1000 kg pure liquid CO 2 /kg PLA in a reactor for a predetermined time period, at a temperature of -10 - +15 °C and pressure of 4,5-8 MPa, in order to prevent the beads from sticking together and foaming, and - a portion of the liquid CO 2 is drained from the PLA beads after completion of each impregnation and extraction step, at a temperature of -10 - +15 °C and pressure of 4,5-8 MPa in order to prevent the beads from sticking together and foaming, and at which the CO 2 is in liquid form, while leaving at least 0,01 kg liquid CO 2 /kg PLA, preferably 0,01-1 kg liquid CO 2 /kg PLA in the reactor containing the PLA resin beads, wherein a new amount of pure liquid CO 2 is added at the beginning of each impregnation and extraction step, whereby after performing all impregnation and extraction steps said desired purity of the PLA beads is achieved, followed by - evacuation of CO 2 gas from the reactor so as to decrease the pressure to ambient pressure, whereby the remaining liquid CO 2 is evaporated, thereby decreasing the temperature so as to prevent foaming at ambient pressure.
A photonic system comprising a laser source capable of emitting at least one multispectral light radiation having a plurality of spectral lines, the photonic system comprising: - a bank of lasers comprising a plurality of lasers (La, Lb, Lc), a spectral line (FLa, FLb, FLc) of the multispectral light radiation corresponding to an emission frequency of a laser (La, Lb, Lc) of the bank; - a modulator associated with the laser bank, the modulator being configured to generate a modulation signal (Vd; Vda, Vdb, Vdc) and to modulate the emission frequency of at least one laser (La, Lb, Lc) of the bank; - a photonic component (MRA1, MRA2) arranged downstream of the laser bank and comprising a plurality of tunable optical filters each having a plurality of resonant frequencies; - a photodetector (PD1, PD2) arranged downstream of the photonic component (MRA1, MRA2) to establish a signal (V1, V2) representative of a multispectral radiation produced by the photonic component (RLM1, RLM2); - a locking device configured to process the signal representative of the multispectral radiation (V1, V2) and to adjust the resonant frequencies of the tunable optical filters of the photonic component (MRA1, MRA2) to the emission frequencies of the lasers (La, Lb, Lc) of the bank. - a bank of lasers comprising a plurality of lasers (La, Lb, Lc), a spectral line (FLa, FLb, FLc) of the multispectral light radiation corresponding to an emission frequency of a laser (La, Lb, Lc) of the bank; - a modulator associated with the laser bank, the modulator being configured to generate a modulation signal (Vd; Vda, Vdb, Vdc) and to modulate the emission frequency of at least one laser (La, Lb, Lc) of the bank; - a photonic component (MRA1, MRA2) arranged downstream of the laser bank and comprising a plurality of tunable optical filters each having a plurality of resonant frequencies; - a photodetector (PD1, PD2) arranged downstream of the photonic component (MRA1, MRA2) to establish a signal (V1, V2) representative of a multispectral radiation produced by the photonic component (RLM1, RLM2); - a locking device configured to process the signal representative of the multispectral radiation (V1, V2) and to adjust the resonant frequencies of the tunable optical filters of the photonic component (MRA1, MRA2) to the emission frequencies of the lasers (La, Lb, Lc) of the bank.
Method of controlling a fluid system, comprising a producer fluid circuit and a consumer fluid circuit, wherein the producer fluid circuit comprises at least one heat pump (16; 28), wherein the consumer fluid circuit comprises at least two subsidiary fluid circuits which are connected with a feed line and a return line of the consumer fluid circuit and which each comprise at least one cooling device as well as a pump, wherein the consumer fluid circuit comprises at least one equalising pump, characterised in that the heat pump is a speed-regulated heat pump, wherein the at least one equalising pump is so controlled that the mass flow in the consumer fluid circuit is kept constant, wherein the at least one equalising pump is so controlled that the mass flow conveyed by way of the at least one equalising pump is increased when the mass flow is reduced by way of at least one pump in a subsidiary fluid circuit, and that the mass flow conveyed by way of the at least one equalising pump is reduced when the mass flow is increased by way of at least one pump in a subsidiary fluid circuit, wherein the equalising pump is downstream of the feed lines of the subsidiary circuits and upstream of the return lines of the subsidiary fluid circuits.
A pneumatic tyre comprising: a pair of bead portions; a pair of bead cores each disposed in a respective one of the bead portions; and a carcass extending between the pair of bead cores, wherein the carcass comprises a carcass ply comprising a main portion extending between the pair of bead cores and a pair of turn-up portions each turned up around a respective one of the bead cores from inside to outside of the tyre in a tyre axial direction and extending outwardly in a tyre radial direction, in at least one of the pair of bead portions, a reinforcing rubber layer is disposed outwardly and adjacently in the tyre axial direction of the turn-up portion, and the reinforcing rubber layer comprises a first rubber layer and a second rubber layer arranged outwardly in the tyre axial direction of the first rubber layer, characterized in that a loss tangent tan61 of the first rubber layer is smaller than a loss tangent tan62 of the second rubber layer, wherein the loss tangent values are measured under the following conditions using a viscoelastic spectrometer in accordance with the provisions of JIS K6394 "Rubber, vulcanized or thermoplastic-determination of dynamic properties-General guidance", Initial distortion: 10%, Amplitude: plus/minus 2%, Frequency: 10 Hz, Deformation mode: Tension and Temperature: 70 degrees C. a pair of bead portions; a pair of bead cores each disposed in a respective one of the bead portions; and a carcass extending between the pair of bead cores, wherein the carcass comprises a carcass ply comprising a main portion extending between the pair of bead cores and a pair of turn-up portions each turned up around a respective one of the bead cores from inside to outside of the tyre in a tyre axial direction and extending outwardly in a tyre radial direction, in at least one of the pair of bead portions, a reinforcing rubber layer is disposed outwardly and adjacently in the tyre axial direction of the turn-up portion, and the reinforcing rubber layer comprises a first rubber layer and a second rubber layer arranged outwardly in the tyre axial direction of the first rubber layer, characterized in that a loss tangent tan61 of the first rubber layer is smaller than a loss tangent tan62 of the second rubber layer, wherein the loss tangent values are measured under the following conditions using a viscoelastic spectrometer in accordance with the provisions of JIS K6394 "Rubber, vulcanized or thermoplastic-determination of dynamic properties-General guidance", Initial distortion: 10%, Amplitude: plus/minus 2%, Frequency: 10 Hz, Deformation mode: Tension and Temperature: 70 degrees C.
Apparatus, comprising means for qualitatively checking configured to check qualitatively if an infrastructure provides all features required to fulfill a request to set up a network slice instance with a required quality of service; means for quantitatively checking configured to check quantitatively if an available capacity of the infrastructure is sufficient to fulfill the request to set up the network slice instance; means for inhibiting configured to inhibit the means for quantitatively checking from the quantitative checking if, according to the qualitative checking, the infrastructure does not provide all the features required to fulfill the request to set up the network slice instance, means for providing configured to provide a confidence value specifying a confidence of the result of the quantitative checking, wherein the means for quantitatively checking is configured to check quantitatively if the available capacity of the infrastructure is sufficient to fulfill the request to set up the network slice instance based on a probabilistic model of usage of resources of the infrastructure, wherein the probabilistic model assumes normal distributed uncertain demands of resources of the infrastructure, and the confidence value indicates a probability in the availability of the resources and services required to fulfill the request to set up the network slice instance with the required quality of service. means for qualitatively checking configured to check qualitatively if an infrastructure provides all features required to fulfill a request to set up a network slice instance with a required quality of service; means for quantitatively checking configured to check quantitatively if an available capacity of the infrastructure is sufficient to fulfill the request to set up the network slice instance; means for inhibiting configured to inhibit the means for quantitatively checking from the quantitative checking if, according to the qualitative checking, the infrastructure does not provide all the features required to fulfill the request to set up the network slice instance, means for providing configured to provide a confidence value specifying a confidence of the result of the quantitative checking, wherein the means for quantitatively checking is configured to check quantitatively if the available capacity of the infrastructure is sufficient to fulfill the request to set up the network slice instance based on a probabilistic model of usage of resources of the infrastructure, wherein the probabilistic model assumes normal distributed uncertain demands of resources of the infrastructure, and the confidence value indicates a probability in the availability of the resources and services required to fulfill the request to set up the network slice instance with the required quality of service.