mhurhangee/ep-ind-claims huggingface dataset:
An optical sensor system comprising: two or more optical sensors (la, lb); two or more receivers (20a, 20b); and an optical de-multiplexing system, wherein each optical sensor comprises a fibre grating with a different wavelength characteristic, each receiver comprises: a slope filter (30a, 30b); a light detector (31a, 31b); a reference light sensor (35a, 35b); a beam splitter (34a, 34b) which is arranged to split light routed to that receiver into a reference beam and a measurement beam, direct the reference beam onto the reference light sensor of that receiver, and direct the measurement beam onto the light detector (31a, 31b) of that receiver via its respective slope filter; and, analogue compensation circuitry which is arranged to generate a compensated output based on an output of the light detector of that receiver and an output of the reference light sensor of that receiver, wherein each receiver is associated with a respective one of the optical sensors, and the optical de-multiplexing system is arranged to route light from each of the optical sensors to its associated receiver based on a wavelength of the light, the optical de-multiplexing system comprises two or more drop de-multiplexers (21a, 31b) arranged in series, and each drop de-multiplexer is tuned to the wavelength characteristic of an associated one of the optical sensors and arranged to route light with that wavelength characteristic to the receiver associated with that optical sensor. a slope filter (30a, 30b); a light detector (31a, 31b); a reference light sensor (35a, 35b); a beam splitter (34a, 34b) which is arranged to split light routed to that receiver into a reference beam and a measurement beam, direct the reference beam onto the reference light sensor of that receiver, and direct the measurement beam onto the light detector (31a, 31b) of that receiver via its respective slope filter; and, analogue compensation circuitry which is arranged to generate a compensated output based on an output of the light detector of that receiver and an output of the reference light sensor of that receiver,
A head for a horizontal flow wrapper packaging machine for forming a bandolier of product packages from a packaging material, comprising: a rotatable first shaft having a plurality of knife elements (84A-84D) each including a blade and first and second upper crimping elements (92, 94); a rotatable second shaft having a corresponding plurality of anvil elements (86A-86D), wherein a rotation speed of the second shaft is independent of the rotation speed of the first shaft and wherein each anvil element includes perforation and cutting surfaces (114, 116) and first and second lower crimping elements (98, 100), wherein a rotation speed of either the first shaft or second shaft is changed to move either a knife element or an anvil element, respectively, between a perforation position wherein the perforation surface is opposite the blade to perforate the packaging material and a cutting position wherein the cutting surface is opposite the blade to cut the packaging material and wherein the first upper and first lower crimping elements mate and the second upper and second lower crimping elements mate to crimp the packaging material in either the perforating or cutting positions. a rotatable first shaft having a plurality of knife elements (84A-84D) each including a blade and first and second upper crimping elements (92, 94); a rotatable second shaft having a corresponding plurality of anvil elements (86A-86D), wherein a rotation speed of the second shaft is independent of the rotation speed of the first shaft and wherein each anvil element includes perforation and cutting surfaces (114, 116) and first and second lower crimping elements (98, 100), wherein a rotation speed of either the first shaft or second shaft is changed to move either a knife element or an anvil element, respectively, between a perforation position wherein the perforation surface is opposite the blade to perforate the packaging material and a cutting position wherein the cutting surface is opposite the blade to cut the packaging material and wherein the first upper and first lower crimping elements mate and the second upper and second lower crimping elements mate to crimp the packaging material in either the perforating or cutting positions.
NFC device, comprising an NFC reader configured to receive an unsymmetric signal at a base operating frequency comprising: at least one filter configuration (208, 209, 210) configured to filter out a harmonic of the base operating frequency, characterized in that the NFC reader further comprises: a n NFC driver with a symmetrical receive interface comprising a first line and a second line; a first and a second filter configuration configured to filter out the harmonic of the base operating frequency, wherein the first filter configuration is placed at the symmetrical receive interface in the first line and the second filter configuration is placed at the symmetrical receive interface in the second line, wherein the harmonic to be filtered by the filter configuration has a center frequency according to: f_harmonic = n × f_base + f_subcarrier, wherein f_harmonic is the harmonic to be filtered, n is an positive integer greater than 2, f_base is the base operating frequency, and f_subcarrier is a subcarrier frequency relative to the base operating frequency. a n NFC driver with a symmetrical receive interface comprising a first line and a second line; a first and a second filter configuration configured to filter out the harmonic of the base operating frequency, wherein the first filter configuration is placed at the symmetrical receive interface in the first line and the second filter configuration is placed at the symmetrical receive interface in the second line, wherein the harmonic to be filtered by the filter configuration has a center frequency according to: f_harmonic = n × f_base + f_subcarrier, wherein f_harmonic is the harmonic to be filtered, n is an positive integer greater than 2, f_base is the base operating frequency, and f_subcarrier is a subcarrier frequency relative to the base operating frequency. f_harmonic = n × f_base + f_subcarrier, wherein f_harmonic is the harmonic to be filtered, n is an positive integer greater than 2, f_base is the base operating frequency, and f_subcarrier is a subcarrier frequency relative to the base operating frequency.
A method comprising: receiving a node-based mesh that represents a geologic environment and a structural feature in the geologic environment; defining a node-based parameter space for structural uncertainty of nodes that represent the structural feature in the geologic environment; defining a convex hull with respect to nodes of a portion of the mesh wherein the convex hull encompasses at least a portion of nodes that represent the structural feature; for a system of equations, imposing boundary conditions on the nodes of the convex hull and on the at least a portion of the nodes that represent the structural feature; solving the system of equations for a displacement field; generating a structural uncertainty realization of the node-based mesh based at least in part on the displacement field; and performing a simulation of physical phenomena based at least in part on the structural uncertainty realization of the node-based mesh. receiving a node-based mesh that represents a geologic environment and a structural feature in the geologic environment; defining a node-based parameter space for structural uncertainty of nodes that represent the structural feature in the geologic environment; defining a convex hull with respect to nodes of a portion of the mesh wherein the convex hull encompasses at least a portion of nodes that represent the structural feature; for a system of equations, imposing boundary conditions on the nodes of the convex hull and on the at least a portion of the nodes that represent the structural feature; solving the system of equations for a displacement field; generating a structural uncertainty realization of the node-based mesh based at least in part on the displacement field; and performing a simulation of physical phenomena based at least in part on the structural uncertainty realization of the node-based mesh.
A method of operating a wireless communications network comprising a core network and a radio access node, the method comprising: obtaining, a minimum transfer bitrate for a transfer of data content between the radio access node and a wireless communications device, wherein the minimum transfer bitrate is calculated based on a total volume of the data content and a transfer deadline for the transfer of the data content, wherein obtaining the minimum transfer bitrate comprises receiving the minimum transfer bitrate in the radio access node directly or indirectly from a network node in the core network; and scheduling one or more radio resources for the transfer of the data content based on the minimum transfer bitrate for the transfer of the data content. obtaining, a minimum transfer bitrate for a transfer of data content between the radio access node and a wireless communications device, wherein the minimum transfer bitrate is calculated based on a total volume of the data content and a transfer deadline for the transfer of the data content, wherein obtaining the minimum transfer bitrate comprises receiving the minimum transfer bitrate in the radio access node directly or indirectly from a network node in the core network; and scheduling one or more radio resources for the transfer of the data content based on the minimum transfer bitrate for the transfer of the data content.
A lighting device, comprising: a current source adapted to generate a current; a first load and a second load adapted to receive the current; a first semiconductor and a second semiconductor adapted to manage the current flowing to the first load and the second load, respectively; an inductor positioned between the current source and the first and second loads; a detector adapted to monitor a voltage peak of the first and second loads (315, 320); and a voltage controller adapted to receive a reading of the voltage peak from the detector and adapted to determine when the voltage peak is at least a voltage peak threshold, the voltage controller configured to adjust a setting for the current generated by the current source based on the reading of the voltage peak; characterized in that the lighting device comprises a comparator adapted to receive a further reading of the voltage peak from a further detector and adapted to determine when the voltage peak is at least a comparator threshold when one of the first load and the second load has failed resulting in an open circuit and the other one of the first load and the second load remains functional, the functional load experiencing the voltage peak that is at least the voltage peak threshold, the comparator configured to generate a signal when the voltage peak is at least the comparator threshold; and a semiconductor controller configured to receive the signal and deactivate the first and second semiconductors (325, 330). a current source adapted to generate a current; a first load and a second load adapted to receive the current; a first semiconductor and a second semiconductor adapted to manage the current flowing to the first load and the second load, respectively; an inductor positioned between the current source and the first and second loads; a detector adapted to monitor a voltage peak of the first and second loads (315, 320); and a voltage controller adapted to receive a reading of the voltage peak from the detector and adapted to determine when the voltage peak is at least a voltage peak threshold, the voltage controller configured to adjust a setting for the current generated by the current source based on the reading of the voltage peak; characterized in that the lighting device comprises a comparator adapted to receive a further reading of the voltage peak from a further detector and adapted to determine when the voltage peak is at least a comparator threshold when one of the first load and the second load has failed resulting in an open circuit and the other one of the first load and the second load remains functional, the functional load experiencing the voltage peak that is at least the voltage peak threshold, the comparator configured to generate a signal when the voltage peak is at least the comparator threshold; and a semiconductor controller configured to receive the signal and deactivate the first and second semiconductors (325, 330).
A semiconductor structure comprising: a substrate comprising a first material and having a front side and a backside; a gallium nitride material region formed over the front side of the substrate; characterized by a heat spreading layer formed between the gallium nitride material region and the substrate, the heat spreading layer having a greater thermal conductivity than that of the gallium nitride material region; characterized in that a heat sink extends from the backside of the semiconductor structure and is not in direct contact with the heat spreading layer, the heat sink comprising a second material different that the first material, the heat sink being formed in the semiconductor structure and being configured to permit dissipation of heat that is conducted from the heat spreading layer. a substrate comprising a first material and having a front side and a backside; a gallium nitride material region formed over the front side of the substrate; characterized by a heat spreading layer formed between the gallium nitride material region and the substrate, the heat spreading layer having a greater thermal conductivity than that of the gallium nitride material region; characterized in that a heat sink extends from the backside of the semiconductor structure and is not in direct contact with the heat spreading layer, the heat sink comprising a second material different that the first material, the heat sink being formed in the semiconductor structure and being configured to permit dissipation of heat that is conducted from the heat spreading layer.
Use of a blocking agent to react with at least one component of a two-component or more-component paint system in order to at least delay hardening of the two-component or more-component paint system in an application apparatus, wherein the blocking agent serves for flowing through the application apparatus and/or is added after the mixing of the two-component or more-component paint system.
A method of indicating the location of nanoparticles in the body of a mammal comprising cells having an extra-cellular space therebetween and the nanoparticles of a size that tend to migrate into the cells, those nanoparticles that migrate inside the cells no longer able to affect an ionic flow in the extra-cellular space, which method comprises the steps of: (a) taking reference values of impedance within a part of the body at a first time; (b) stimulating nanoparticles within the part of the body to produce heat so that there is a temperature differential in said part, wherein the stimulating comprises applying electromagnetic radiation or an oscillating magnetic field comprising a frequency in the range 2.5 GHz to 2.7 GHz to said part, the frequency being the resonant frequency of the nanoparticles such that regions not containing nanoparticles are heated by said stimulation, but one or more regions containing nanoparticles is or are heated at a faster rate by said stimulation, thereby generating said temperature differential and indicating the presence of nanoparticles; (c) imaging the part using time-difference electrical impedance tomography (td-EIT) at a later second time using the reference values in the td-EIT to determine change in impedance at the later second time, whereby said one or more regions containing nanoparticles and heated at a faster rate by said stimulation, thereby generating said temperature differential, is or are indicated by one or more regions of greatest impedance change; and (d) producing a difference image showing the change in impedance and the regions of greatest impedance change, thereby indicating the location of nanoparticles in the body of the mammal. (a) taking reference values of impedance within a part of the body at a first time; (b) stimulating nanoparticles within the part of the body to produce heat so that there is a temperature differential in said part, wherein the stimulating comprises applying electromagnetic radiation or an oscillating magnetic field comprising a frequency in the range 2.5 GHz to 2.7 GHz to said part, the frequency being the resonant frequency of the nanoparticles such that regions not containing nanoparticles are heated by said stimulation, but one or more regions containing nanoparticles is or are heated at a faster rate by said stimulation, thereby generating said temperature differential and indicating the presence of nanoparticles; (c) imaging the part using time-difference electrical impedance tomography (td-EIT) at a later second time using the reference values in the td-EIT to determine change in impedance at the later second time, whereby said one or more regions containing nanoparticles and heated at a faster rate by said stimulation, thereby generating said temperature differential, is or are indicated by one or more regions of greatest impedance change; and (d) producing a difference image showing the change in impedance and the regions of greatest impedance change, thereby indicating the location of nanoparticles in the body of the mammal.
An airframe for an air vehicle comprising an outer skin layer and a support layer defining a fuselage of said air vehicle, wherein said support layer is provided with a plurality of support columns extending outwardly from the support layer, the outer skin layer being both supported by the columns and magnetically coupled to the support layer thereby.
A fuel cell comprising: - an anode; - a cathode; - a non-precious metal catalyst in contact with the cathode, wherein the non-precious metal catalyst is a Fe-N/C catalyst; and - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst. - an anode; - a cathode; - a non-precious metal catalyst in contact with the cathode, wherein the non-precious metal catalyst is a Fe-N/C catalyst; and - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst. - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst.
An air conditioner, wherein a cabinet has a curved surface extending from a front surface to a bottom surface, a blow out port is formed on the curved surface, a part of the cabinet is a wind guide panel for guiding air from the blow out port to an indoor space, the wind guide panel is provided capable of opening both upwardly and downwardly, an opening and closing mechanism is provided for opening and closing the wind guide panel,, and support material is interlocked to the opening and closing mechanism in the state of not coming off, characterized in that: the wind guide panel is supported by the support material so as to be attached/detached freely from the support material, and the opening and closing mechanism moves the support material in the state where the wind guide panel is attached to the support material so that the wind guide panel is opened and closed.
A process for forming an article from an α+β titanium alloy comprising in weight percentages, from 3.50 to 5.00 aluminum, from 2.00 to 3.00 vanadium, from 1.00 to 2.00 iron, from 0.20 to 0.30 oxygen, up to a total of 0.5 of other elements, wherein the up to a total of 0.5 of other elements may include one or more of: no greater than 0.1 each of chromium, nickel, molybdenum, zirconium, tin, carbon, and nitrogen, and no greater than 0.015 hydrogen, and balance titanium, and incidental impurities, the process comprising: cold working the α+β titanium alloy at a temperature in the range of ambient temperature to 260°C (500°F) to a 20% to 60% reduction in area; and aging the α+β titanium alloy at a temperature in the range of 371°C to 649°C (700°F to 1200°F) after the cold working; wherein the process does not comprise a solution treatment between the cold working and the aging. no greater than 0.1 each of chromium, nickel, molybdenum, zirconium, tin, carbon, and nitrogen, and no greater than 0.015 hydrogen, and balance titanium, and incidental impurities, cold working the α+β titanium alloy at a temperature in the range of ambient temperature to 260°C (500°F) to a 20% to 60% reduction in area; and aging the α+β titanium alloy at a temperature in the range of 371°C to 649°C (700°F to 1200°F) after the cold working; wherein the process does not comprise a solution treatment between the cold working and the aging.
A battery module, comprising: - a battery module housing; - a heat exchanger comprising a plurality of fins disposed in the battery module housing; - a first lithium ion battery cell and a second lithium ion battery cell disposed within the battery module housing, wherein the first lithium ion battery cell and the second lithium ion battery cell are separated by a fin of the plurality of fins; - a temperature sensing component coupled to the fin separating the first and second lithium ion battery cells; and - a filler material formed from a curable epoxy resin disposed within the battery module housing and between the first and second lithium ion battery cells and the fin, wherein the filler material is configured to cure to mechanically restrain the first and second lithium ion battery cells within the battery module housing and to conduct thermal energy between the first and second lithium ion battery cells and the fin; and wherein the filler material covers a free end of the fin and the temperature sensing component, and the temperature sensing component is coupled to a conductor extending out of the filler material. - a battery module housing; - a heat exchanger comprising a plurality of fins disposed in the battery module housing; - a first lithium ion battery cell and a second lithium ion battery cell disposed within the battery module housing, wherein the first lithium ion battery cell and the second lithium ion battery cell are separated by a fin of the plurality of fins; - a temperature sensing component coupled to the fin separating the first and second lithium ion battery cells; and - a filler material formed from a curable epoxy resin disposed within the battery module housing and between the first and second lithium ion battery cells and the fin, wherein the filler material is configured to cure to mechanically restrain the first and second lithium ion battery cells within the battery module housing and to conduct thermal energy between the first and second lithium ion battery cells and the fin; and
A composition as described in Table 1: Ingredients Units Grade Amount Bimatoprost % w/v N/A 0.03 Timolol Maleate % w/v USP/Ph Eur 0.68 Sodium Phosphate Dibasic Heptahydrate % w/v USP 0.268 Citric Acid Monohydrate % w/v USP/Ph Eur 0.014 Sodium Chloride % w/v USP/Ph Eur 0.68 Hydrochloric Acid % w/v USP/Ph Eur pH7.3 Sodium Hydroxide % w/v USP/Ph Eur pH7.3 Purified Water/WFI Q.S. USP/Ph Eur QS
A composition for use in therapeutically improving, promoting, restoring or maintaining recognition and/or working memory in a subject suffering from or at increased risk of impaired recognition and/or working memory associated with PKU, said composition comprising therapeutic amounts of: (i) at least one ω-3 polyunsaturated fatty acid (LCPUFA) selected from the group consisting of docosahexaenoic acid, eicosapentaenoic acid and docosapentaenoic acid; (ii) choline, a choline salt and/or choline ester; (iii) at least one B vitamin selected from the group consisting of vitamin B6, vitamin B12 and vitamin B9, preferably vitamin B6 and/or vitamin B12; (iv) vitamin D and vitamin K, wherein the composition comprises, per 100 ml product, 5 to 15 μg vitamin D and 10 to 50 μg vitamin K; and (v) one of more of uridine, cytidine, including salts, phosphates, acyl derivatives and/or esters thereof.