mhurhangee/ep-ind-claims huggingface dataset:
An unbonded flexible pipe having a length and a longitudinal axis and comprising an inner sealing sheath defining a bore, a pressure armor layer, an intermediate sealing sheath and a tensile armor (27a, 27b), wherein the pressure armor layer comprises at least one elongate metal element arranged with pressure armor gaps and is arranged in an annulus provided between said inner sealing sheath and said intermediate sealing sheath, said tensile armor (27a, 27b) being arranged on the outer side of said intermediate sealing sheath, characterized in that said unbonded flexible pipe comprises a drainage layer arranged in said annulus, said drainage layer is arranged above the pressure armor layer, said drainage layer comprises at least one drainage path arranged along the length of the pipe, wherein the drainage path is in fluid communication with said pressure armor gaps and wherein said drainage path is in the form of a perforated tube.
An acoustic measurement device configured to provide acoustic property values for objective ear-condition evaluation of a patient's ear, wherein - at least part of said acoustic measurement device being configured to be positioned within an ear canal of said patient and configured to take a resting position within said ear canal, - said acoustic measurement device comprising an ear probe, - said acoustic measurement device comprising an air-pump arrangement, said air-pump arrangement, at least in said resting position, being in fluid connection with said ear canal through at least one tube running via said ear probe, - said air-pump arrangement, in said resting position, being configured to apply an air-pressure control procedure, consisting of at least one air-pressure level, across said patient's tympanic membrane of said ear, wherein - said acoustic measurement device, in said resting position, being configured to provide acoustic property values in reaction to said air pressure control procedure applied by said air-pump arrangement across said patient's tympanic membrane of said ear, characterized in that, - said air-pump arrangement comprising at least two pumps (3a, 3b), wherein said at least two pumps are formed as piezo-electric membrane pumps and are each arranged fluidically in series with at least one flow-regulating component and are configured to act fluidically in parallel. - at least part of said acoustic measurement device being configured to be positioned within an ear canal of said patient and configured to take a resting position within said ear canal, - said acoustic measurement device comprising an ear probe, - said acoustic measurement device comprising an air-pump arrangement, said air-pump arrangement, at least in said resting position, being in fluid connection with said ear canal through at least one tube running via said ear probe, - said air-pump arrangement, in said resting position, being configured to apply an air-pressure control procedure, consisting of at least one air-pressure level, across said patient's tympanic membrane of said ear, wherein - said acoustic measurement device, in said resting position, being configured to provide acoustic property values in reaction to said air pressure control procedure applied by said air-pump arrangement across said patient's tympanic membrane of said ear, - said air-pump arrangement comprising at least two pumps (3a, 3b), wherein said at least two pumps are formed as piezo-electric membrane pumps and are each arranged fluidically in series with at least one flow-regulating component and are configured to act fluidically in parallel.
A combine harvester comprising an intake arrangement for picking up crop material consisting of grains and non-grain constituents and working assemblies for dividing the crop material throughput at least into a volume grain throughput and into a volume straw throughput, wherein the combine harvester has a throughput measuring arrangement for measuring the volume crop material throughput, wherein the combine harvester has a moisture measuring arrangement for measuring the crop material moisture, characterised in that the combine harvester has a control arrangement in which at least one provision for ascertaining an estimated value for the straw throughput from the crop material throughput and the crop material moisture is mapped and that the control arrangement is adapted to ascertain the estimated value for the straw throughput based on said provision, the crop material throughput and the crop material moisture.
A concentrate of C 8 -C 22 acyl amido compounds prepared by a process comprising: (i) reacting an amino compound or salt thereof having a structure with a fatty acid ester in a polyol medium, wherein R 2 is hydrogen, CH 2 COOX or a C 1 -C 5 alkyl radical; R 3 is hydrogen; R 4 is selected from the group consisting of (CH 2) m CO 2 X, and (CH 2) m SO 3 X, CH 2 NR 2 (CH 2) m OH radicals; R 5 is selected from the group consisting of hydrogen, hydroxyphenyl, C 1 -C 6 hydroxyalkyl, C 1 -C 10 alkyl, benzyl, hydroxybenzyl, alkylcarbamido, thioalkyl, and carboxylic radicals; X is selected from hydrogen, metal ions, amine salts and C 1 -C 4 alkyl radicals; and m ranges from 0 to 6; (ii) heating reactants from step (i) to form the C 8 -C 22 acyl amido compounds having a structure and recovering a concentrate from the process wherein R is a C 7 -C 21 saturated or unsaturated alkyl radical provided by the fatty acid ester; and the concentrate having a Hunter Lab Color Scale value L ranging from 70 to 100, the concentrate comprising: a) from 40 to 80% by weigh of C 8 -C 22 acyl amido compounds of structure; b) from 10 to 60% by weight of polyol; and c) from 1 to 20% by weight of C 8 -C 22 fatty acids. (i) reacting an amino compound or salt thereof having a structure with a fatty acid ester in a polyol medium, wherein R 2 is hydrogen, CH 2 COOX or a C 1 -C 5 alkyl radical; R 3 is hydrogen; R 4 is selected from the group consisting of (CH 2) m CO 2 X, and (CH 2) m SO 3 X, CH 2 NR 2 (CH 2) m OH radicals; R 5 is selected from the group consisting of hydrogen, hydroxyphenyl, C 1 -C 6 hydroxyalkyl, C 1 -C 10 alkyl, benzyl, hydroxybenzyl, alkylcarbamido, thioalkyl, and carboxylic radicals; X is selected from hydrogen, metal ions, amine salts and C 1 -C 4 alkyl radicals; and m ranges from 0 to 6; (ii) heating reactants from step (i) to form the C 8 -C 22 acyl amido compounds having a structure and recovering a concentrate from the process a) from 40 to 80% by weigh of C 8 -C 22 acyl amido compounds of structure; b) from 10 to 60% by weight of polyol; and c) from 1 to 20% by weight of C 8 -C 22 fatty acids.
A method comprising: • determining a root router memory module of a memory system comprising a plurality of router memory modules, each router memory module comprising at least one port to connect the router memory module to at least another router memory module, • for each router memory module apart from the root router memory module, identifying a loop-free path from the router memory module to the root router memory module, • creating a logical tree using the loop-free paths determined, characterized in that the identifying of a loop-free path comprises: • sending a message to the root router memory module to fetch a data in the root router memory module, • measuring the time taken to fetch the data, • determining the quickest path to fetch the data as the loop-free path. • determining a root router memory module of a memory system comprising a plurality of router memory modules, each router memory module comprising at least one port to connect the router memory module to at least another router memory module, • for each router memory module apart from the root router memory module, identifying a loop-free path from the router memory module to the root router memory module, • creating a logical tree using the loop-free paths determined, characterized in that the identifying of a loop-free path comprises: • sending a message to the root router memory module to fetch a data in the root router memory module, • measuring the time taken to fetch the data, • determining the quickest path to fetch the data as the loop-free path.
A recording apparatus comprising: a transport path that is provided in an apparatus main body to transport a medium; a recording section that is movable in a direction toward and away from the transport path; and a rack and pinion mechanism that moves the recording section in the direction toward and away from the transport path, wherein: the rack and pinion mechanism includes a rack that is provided to the recording section and that is formed along a movement direction of the recording section and a pinion that is provided to the apparatus main body and that meshes with the rack, characterized in that: the recording section is attachable to and detachable from the apparatus main body, and a positioning section is provided to the recording section and the apparatus main body for positioning so that a reference tooth of the pinion meshes with a reference groove of the rack when the recording section is returned from a detached state to an attached state. a transport path that is provided in an apparatus main body to transport a medium; a recording section that is movable in a direction toward and away from the transport path; and a rack and pinion mechanism that moves the recording section in the direction toward and away from the transport path, wherein: the rack and pinion mechanism includes a rack that is provided to the recording section and that is formed along a movement direction of the recording section and a pinion that is provided to the apparatus main body and that meshes with the rack, characterized in that: the recording section is attachable to and detachable from the apparatus main body, and a positioning section is provided to the recording section and the apparatus main body for positioning so that a reference tooth of the pinion meshes with a reference groove of the rack when the recording section is returned from a detached state to an attached state. the rack and pinion mechanism includes a rack that is provided to the recording section and that is formed along a movement direction of the recording section and a pinion that is provided to the apparatus main body and that meshes with the rack, characterized in that: a rack that is provided to the recording section and that is formed along a movement direction of the recording section and a pinion that is provided to the apparatus main body and that meshes with the rack, characterized in that: the recording section is attachable to and detachable from the apparatus main body, and a positioning section is provided to the recording section and the apparatus main body for positioning so that a reference tooth of the pinion meshes with a reference groove of the rack when the recording section is returned from a detached state to an attached state.
A radio frequency, RF, antenna element (104a-p) comprising: a substrate having first and second opposing surfaces; three conductors (106a-c) disposed on the first surface of said substrate, said three conductors being physically spaced apart from each other and being arranged so as to form an antenna element responsive to RF signals at a desired frequency range; a feed circuit having a signal port and first, second and third antenna ports (121a-c), each of the first, second and third antenna ports coupled to a respective one of the three conductors through a respective one of first, second, and third signal vias (120a-c); and a first ground via extending from a first conductor of the three conductors to a first ground plane, a second ground via extending from a second conductor of the three conductors to the first ground plane and a third ground via extending from a third conductor of the three conductors to the first ground plane; wherein said feed circuit is configured such that in response to an RF signal provided to the signal port thereof, said feed circuit provides at each of the first, second and third antenna ports, RF signals having equal amplitudes and phases shifted by 120 degrees. a substrate having first and second opposing surfaces; three conductors (106a-c) disposed on the first surface of said substrate, said three conductors being physically spaced apart from each other and being arranged so as to form an antenna element responsive to RF signals at a desired frequency range; a feed circuit having a signal port and first, second and third antenna ports (121a-c), each of the first, second and third antenna ports coupled to a respective one of the three conductors through a respective one of first, second, and third signal vias (120a-c); and a first ground via extending from a first conductor of the three conductors to a first ground plane, a second ground via extending from a second conductor of the three conductors to the first ground plane and a third ground via extending from a third conductor of the three conductors to the first ground plane; wherein said feed circuit is configured such that in response to an RF signal provided to the signal port thereof, said feed circuit provides at each of the first, second and third antenna ports, RF signals having equal amplitudes and phases shifted by 120 degrees.
A molding sheet for manufacturing a shaped object by swelling of at least a portion of a thermal expansion layer arranged on one surface of a base, the molding sheet comprising: the base; and the thermal expansion layer laminated onto a first main surface of the base, wherein the thermal expansion layer comprises a first thermal expansion material and a second thermal expansion material, characterized in that the first thermal expansion material and the second thermal expansion material are dispersed in a binder and in that a maximum expansion temperature of the second thermal expansion material is higher than a maximum expansion temperature (Tml) of the first thermal expansion material, and an expansion initiation temperature of the second thermal expansion material is higher than an expansion initiation temperature of the first thermal expansion material. the base; and the thermal expansion layer laminated onto a first main surface of the base, wherein the thermal expansion layer comprises a first thermal expansion material and a second thermal expansion material, characterized in that the first thermal expansion material and the second thermal expansion material are dispersed in a binder and in that a maximum expansion temperature of the second thermal expansion material is higher than a maximum expansion temperature (Tml) of the first thermal expansion material, and an expansion initiation temperature of the second thermal expansion material is higher than an expansion initiation temperature of the first thermal expansion material.
A method of frying, comprising: heating frying oil to a frying temperature; and maintaining the frying oil at the frying temperature for a frying period; wherein during the method no part of the oil exceeds 220 °C, wherein heating and maintaining the frying oil at the frying temperature comprises using a jacket enclosing a heating element, characterized in that said jacket additionally encloses heating media, a heating media stirrer, and a baffle. heating frying oil to a frying temperature; and maintaining the frying oil at the frying temperature for a frying period; wherein during the method no part of the oil exceeds 220 °C, wherein heating and maintaining the frying oil at the frying temperature comprises using a jacket enclosing a heating element,
Method for transmitting and/or receiving network layer reachability information by a network node of a telecommunications network, wherein the telecommunications network comprises a plurality of network nodes (101, 102, 103), wherein the telecommunications network is an IP, Internet Protocol, packet data network, wherein the network node provides a routing and/or forwarding operation of IPv6 data packets on the network layer, layer 3, according to the OSI model, Open Systems Interconnection model, wherein the network node transmits network layer reachability information to a further network node of the plurality of network nodes (101, 102, 103) and/or receives network layer reachability information from a third network node of the plurality of network nodes (101, 102, 103), wherein the method comprises at least the step of: transmitting network layer reachability information to the further network node and/or receiving network layer reachability information from the third network node, characterised in that the network layer reachability information is, at least partly, defined based on an address information and a bit mask, the bit mask defining at least a first relevant binary digit of the network layer reachability information and/or the address information, and a second relevant binary digit of the network layer reachability information and/or the address information such that the first and second relevant binary digits (311, 312) of the bit mask are separated - within the bit mask - by at least one non-relevant binary digit of the bit mask.
A computing device with a microphone system, comprising: an environment microphone configured to pick up an environment microphone signal that includes a desired signal component based on desired sound and a noise component based on noise from a noise source; a noise microphone configured to pick up a noise microphone signal based on the noise from the noise source, where the noise microphone is configured such that contributions to the noise microphone signal from the desired sound, if present, are attenuated relative to such contributions to the environment microphone signal; the computing device being characterised by further comprising: a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output. an environment microphone configured to pick up an environment microphone signal that includes a desired signal component based on desired sound and a noise component based on noise from a noise source; a noise microphone configured to pick up a noise microphone signal based on the noise from the noise source, where the noise microphone is configured such that contributions to the noise microphone signal from the desired sound, if present, are attenuated relative to such contributions to the environment microphone signal; the computing device being characterised by further comprising: a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output. a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output.
A flexible conduit fitting system comprising: a conduit adapter comprising: a conduit aperture configured to receive a flexible conduit, the conduit aperture having a central axis; two guide holes separated across the central axis (30, 82) from one another; and a conduit retention clip comprising two prongs configured to be inserted in the two guide holes and configured to engage on opposite radial sides of the flexible conduit, wherein the two guide holes in the conduit adapter are located so that the two prongs as inserted into the guide holes are located tangentially to a minor diameter of the flexible conduit inserted into the conduit aperture; and wherein the two guide holes are offset along the central axis (30, 82) by a pitch distance of the flexible conduit. a conduit adapter comprising: a conduit aperture configured to receive a flexible conduit, the conduit aperture having a central axis; two guide holes separated across the central axis (30, 82) from one another; and a conduit aperture configured to receive a flexible conduit, the conduit aperture having a central axis; two guide holes separated across the central axis (30, 82) from one another; and a conduit retention clip comprising two prongs configured to be inserted in the two guide holes and configured to engage on opposite radial sides of the flexible conduit, wherein the two guide holes in the conduit adapter are located so that the two prongs as inserted into the guide holes are located tangentially to a minor diameter of the flexible conduit inserted into the conduit aperture; and wherein the two guide holes are offset along the central axis (30, 82) by a pitch distance of the flexible conduit.
A radiation therapy planning system, comprising: a radiation therapy optimization unit, configured to receive at least one target structure and at least one organ-at-risk structure segmented from a volumetric image, configured to weight voxels according to a distance from a nearest one of the at least one target structure, and configured to generate an optimized plan based on at least one modified objective function, and the optimized plan includes a planned radiation dose for each voxel wherein one of the at least one modified objective function includes a maximum organ-at-risk modified objective function associated with voxels in the one of the at least one organ-at-risk structure, and wherein the radiation therapy optimization unit is further configured to receive a first dose goal and to decrease the planned dose level below the received dose goal level based on the maximum organ-at-risk structure modified objective function, if the dose goal is met. a radiation therapy optimization unit, configured to receive at least one target structure and at least one organ-at-risk structure segmented from a volumetric image, configured to weight voxels according to a distance from a nearest one of the at least one target structure, and configured to generate an optimized plan based on at least one modified objective function, and the optimized plan includes a planned radiation dose for each voxel wherein one of the at least one modified objective function includes a maximum organ-at-risk modified objective function associated with voxels in the one of the at least one organ-at-risk structure, and wherein the radiation therapy optimization unit is further configured to receive a first dose goal and to decrease the planned dose level below the received dose goal level based on the maximum organ-at-risk structure modified objective function, if the dose goal is met.