mhurhangee/ep-ind-claims huggingface dataset:
A flow field plate for use in a fuel cell, comprising: a plurality of inlet flow channels; and a plurality of outlet flow channels, the flow channels being arranged in an interdigitated flow field arrangement, characterized in that the flow channels being arranged such that at least two of the inlet flow channels are immediately adjacent each other on a first side of the two of the inlet flow channels, wherein at least one of the outlet flow channels is immediately adjacent each of the two inlet flow channels on a second, opposite side of each of the two inlet flow channels, and such that an entire fluid flow within one of the inlet flow channels is transferred into only a single one of the outlet flow channels. a plurality of inlet flow channels; and a plurality of outlet flow channels, the flow channels being arranged in an interdigitated flow field arrangement, characterized in that the flow channels being arranged such that at least two of the inlet flow channels are immediately adjacent each other on a first side of the two of the inlet flow channels, wherein at least one of the outlet flow channels is immediately adjacent each of the two inlet flow channels on a second, opposite side of each of the two inlet flow channels, and such that an entire fluid flow within one of the inlet flow channels is transferred into only a single one of the outlet flow channels.
A dry powder pharmaceutical composition comprising ketamine or its pharmaceutically acceptable salt for use in a medicine adapted for administration via pulmonary route, wherein the composition comprises from 2 mg to 100 mg of micronized ketamine calculated as a free base per nominal unit dose, provides emitted dose of at least 1.0 mg of ketamine calculated as a free base, corresponding to 1.2 mg of ketamine hydrochloride, wherein the fraction of the emitted dose delivered to the lungs is at least 40%.
A data transmission method, comprising: determining, by a base station from a first resource corresponding to a current transmission time interval, a resource for transmitting a first low-latency service; and sending, by the base station, the first low-latency service on the determined resource, and sending first indication information to a terminal, wherein the first indication information is used to indicate the resource for transmitting the first low-latency service, the first resource comprises a scheduled resource that is scheduled for a non-low-latency service, and the first resource does not comprise a resource for carrying one or more of a cell downlink control signal, a downlink synchronization signal, and a cell-specific downlink reference signal. determining, by a base station from a first resource corresponding to a current transmission time interval, a resource for transmitting a first low-latency service; and sending, by the base station, the first low-latency service on the determined resource, and sending first indication information to a terminal, wherein the first indication information is used to indicate the resource for transmitting the first low-latency service, the first resource comprises a scheduled resource that is scheduled for a non-low-latency service, and the first resource does not comprise a resource for carrying one or more of a cell downlink control signal, a downlink synchronization signal, and a cell-specific downlink reference signal.
Head support for surgical table having an arcuate support element for supporting a back of the head of a patient and having a first and a second holding element (4, 5) for lateral placement on the head of the patient, wherein the two holding elements (4, 5) can be pivoted relative to the support element, wherein at least one fastening strap (19, 20) for connecting the front end regions of the two holding elements (4, 5) and for placement on the front head region of the patient is provided, wherein that the first and the second holding element (4, 5) are articulated on the support element in each case so as to be pivotable individually about a first or second axis of rotation (6, 7), wherein the pivoting path of each holding element (4, 5) is limited in the pivoted-up position of the latter by in each case one end stop (8, 9) arranged on the outer side of the support element, characterised in that the respective stop surface (8a, 9a) of the respective end stop (8, 9) is spaced further apart from the adjacent outer edge (2a, 2b) of the support element than the respective axis of rotation (6, 7), wherein on the outer side of each holding element in each case a displaceable sliding piece (11, 12) is arranged, which is designed so that it is displaceable between a first end position, in which it does not extend beyond the edge of the holding element (4, 5) facing the support element, and a second end position, in which it abuts against the stop surface (8a, 9a) of the associated end stop (8, 9).
An engine comprising: an air supply section that supplies air into a cylinder; a cam shaft for both intake and exhaust valve (7,6) of the engine, said cam shaft is rotatably arranged between the exhaust valve and the intake valve, and an injector disposed at such an angle that a fuel injection port is arranged opposite to intake valve openings of said cylinder and a mixture of a fuel injected from said fuel injection port and said air generates air motion in said cylinder, wherein the air-fuel mixture is directly injected from said intake valve openings which are opened during fuel injection of said injector into said cylinder to generate said air motion, said cam shaft is arranged to be offset a distance (a) from a cylinder axis, an angle (θ2) of the intake valve relative to the cylinder axis is correspondingly set to be smaller than an angle (θ1) of the exhaust valve relative to the cylinder axis, the intake valve is arranged in uprights to be close to the cylinder axis as compared with the exhaust valve, and said injector has said fuel injection port disposed between an axis of the intake valve and a center axis of an intake port, close to an end of said intake port on the intake valve side. an air supply section that supplies air into a cylinder; a cam shaft for both intake and exhaust valve (7,6) of the engine, said cam shaft is rotatably arranged between the exhaust valve and the intake valve, and an injector disposed at such an angle that a fuel injection port is arranged opposite to intake valve openings of said cylinder and a mixture of a fuel injected from said fuel injection port and said air generates air motion in said cylinder, wherein the air-fuel mixture is directly injected from said intake valve openings which are opened during fuel injection of said injector into said cylinder to generate said air motion, said cam shaft is arranged to be offset a distance (a) from a cylinder axis, an angle (θ2) of the intake valve relative to the cylinder axis is correspondingly set to be smaller than an angle (θ1) of the exhaust valve relative to the cylinder axis, the intake valve is arranged in uprights to be close to the cylinder axis as compared with the exhaust valve, and said injector has said fuel injection port disposed between an axis of the intake valve and a center axis of an intake port, close to an end of said intake port on the intake valve side.
Method for driving an inverter by means of space vector pulse width modulation, in particular for driving an electrical machine, wherein the inverter comprises a plurality of controllable switches and is designed to provide a polyphase elecrical voltage (U, V, W) in the form of a voltage space vector (V*), wherein the controllable -switches S are driven in such a way that different switched-on durations of the switches are set and a plurality of successive different switching states (VO-V7) of the switches are set up in order to provide the voltage space vectors (V*), characterized in that the switched-on durations of the switches are lengthened during a pulse width modulation period if a switched-on duration of one of the switches falls below a predefined threshold value during the pulse width modulation period.
Method for controlling a hydraulic slewing motor of a crane by means of a valve having a valve element, wherein a position of the valve element determines a pressure supplied to the hydraulic slewing motor, comprising pre-adjusting a start position of the valve element as a function of at least one parameter outside the hydraulic slewing motor, wherein the at least one parameter outside the hydraulic slewing motor is a pressure in another hydraulic actuator of the crane, using at least one additional parameter for pre-adjusting the start position of the valve element which is a parameter dependent on a geometry of the crane by measuring a position of the another hydraulic actuator of the crane.
A light mixing guide having a longitudinal axis (L 2000), comprising a light mixing guide body which extends axially between a light input side having a first polygonal shape for coupling light from a light source into the light mixing guide and a light output side having a second polygonal shape for emitting the light coupled in via the light input side, wherein the first polygonal shape differs from the second polygonal shape, and wherein each corner of the first polygonal shape of the light input side is connected in a rectilinear manner in the form of a longitudinal edge of the light mixing guide body to a corner of the second polygonal shape of the light output side and, conversely, each corner of the second polygonal shape of the light output side is connected in a rectilinear manner in the form of a longitudinal edge of the light mixing guide body to a corner of the first polygonal shape of the light input side, such that the longitudinal edges do not intersect, wherein the sector surfaces (2008, 2080, 2081) of the light mixing guide body subtended between two adjacent longitudinal edges extend in a planar manner in an extension plane, wherein the second polygonal shape substantially has a quasi-round polygonal shape or basic shape, wherein the quasi-round polygonal shape is a dodecagon or more, wherein the first polygonal shape has fewer corners than the second polygonal shape, and wherein the extension planes of at least a portion of the sector surfaces (2008, 2080) extend parallel to the longitudinal axis (L 2000). a light mixing guide body which extends axially between a light input side having a first polygonal shape for coupling light from a light source into the light mixing guide and a light output side having a second polygonal shape for emitting the light coupled in via the light input side, wherein the first polygonal shape differs from the second polygonal shape, and wherein each corner of the first polygonal shape of the light input side is connected in a rectilinear manner in the form of a longitudinal edge of the light mixing guide body to a corner of the second polygonal shape of the light output side and, conversely, each corner of the second polygonal shape of the light output side is connected in a rectilinear manner in the form of a longitudinal edge of the light mixing guide body to a corner of the first polygonal shape of the light input side, such that the longitudinal edges do not intersect, wherein the sector surfaces (2008, 2080, 2081) of the light mixing guide body subtended between two adjacent longitudinal edges extend in a planar manner in an extension plane, wherein the second polygonal shape substantially has a quasi-round polygonal shape or basic shape, wherein the quasi-round polygonal shape is a dodecagon or more, wherein the first polygonal shape has fewer corners than the second polygonal shape, and wherein the extension planes of at least a portion of the sector surfaces (2008, 2080) extend parallel to the longitudinal axis (L 2000).
A micro turning machine comprising: a spindle mounted on a first stage and configured to hold and rotate a workpiece; a monolithic base having at least two flat surfaces that are mutually orthogonal and that are convex with respect to each other, the first flat surface being a top outer face of the base and the second flat surface being an outer surface on a side of the base; wherein the first stage is mounted to a first outer surface of the monolithic base and is configured to move along a Z-axis; and a second stage is mounted to the second outer surface of the monolithic base and is configured to move along an X-axis and a third stage mounted to the second stage, the third stage being configured to move along a Y-axis. a spindle mounted on a first stage and configured to hold and rotate a workpiece; a monolithic base having at least two flat surfaces that are mutually orthogonal and that are convex with respect to each other, the first flat surface being a top outer face of the base and the second flat surface being an outer surface on a side of the base; wherein the first stage is mounted to a first outer surface of the monolithic base and is configured to move along a Z-axis; and a second stage is mounted to the second outer surface of the monolithic base and is configured to move along an X-axis and a third stage mounted to the second stage, the third stage being configured to move along a Y-axis.
A method of measuring the total antioxidant status of a biological sample from a human or animal organism, i.e. its ability to withstand reactive oxygen species (ROSs), said method being characterized in that it comprises at least the following steps: · putting the biological sample for testing into contact with a photosensitive agent in a liquid medium to form a mixture for testing; · subjecting said mixture for testing to a dose of light irradiation at a wavelength that is absorbed by the photosensitive agent in order to give rise, by a photochemical reaction at least between the light and the photosensitive agent, to at least the production of singlet oxygen suitable for co-operating with said sample to form reactive oxygen species (ROSs); · adding, after irradiation, a compound that reacts colorimetrically in the presence of reactive oxygen species (ROSs) to form a chromogen or fluorescent substance; · measuring the quantity of chromogen or fluorescent substance produced over time in order to determine the ability of said sample to withstand reactive oxygen species (ROSs) by inhibiting them, a low level of chromogen or fluorescent substance production corresponding to said sample having a high ability to withstand reactive oxygen species (ROSs); · subjecting at least one reference mixture formed by mixing a reference biological sample from a presumed healthy organism with a photosensitive agent to the same photochemical, colorimetric, and measurement reactions as the mixture for testing; and · comparing the measurement results on the mixture for testing with the measurement results obtained on said at least one reference mixture. · putting the biological sample for testing into contact with a photosensitive agent in a liquid medium to form a mixture for testing; · subjecting said mixture for testing to a dose of light irradiation at a wavelength that is absorbed by the photosensitive agent in order to give rise, by a photochemical reaction at least between the light and the photosensitive agent, to at least the production of singlet oxygen suitable for co-operating with said sample to form reactive oxygen species (ROSs); · adding, after irradiation, a compound that reacts colorimetrically in the presence of reactive oxygen species (ROSs) to form a chromogen or fluorescent substance; · measuring the quantity of chromogen or fluorescent substance produced over time in order to determine the ability of said sample to withstand reactive oxygen species (ROSs) by inhibiting them, a low level of chromogen or fluorescent substance production corresponding to said sample having a high ability to withstand reactive oxygen species (ROSs); · subjecting at least one reference mixture formed by mixing a reference biological sample from a presumed healthy organism with a photosensitive agent to the same photochemical, colorimetric, and measurement reactions as the mixture for testing; and · comparing the measurement results on the mixture for testing with the measurement results obtained on said at least one reference mixture.
An irinotecan-loaded dual-reverse thermosensitive hydrogel composition, comprising: (a) a thermosensitive nanoparticle comprising irinotecan as an active ingredient and a mixture of tricaprin and triethanolamine mixed at a weight ratio of 99.9:0.1 to 10:90 that has a melting point of 30 to 36°C and (b) a thermosensitive hydrogel having a gelation temperature of 30 to 36°C, comprising a mixture of poloxamer 188 and poloxamer 407 and polysorbate 80, and wherein the irinotecan-loaded dual-reverse thermosensitive hydrogel composition comprises: 0.1 wt% to 5 wt% of the irinotecan; 5 wt% to 9.9 wt% of the mixture of tricaprin and triethanolamine; 30 wt% to 34 wt% of the mixture of poloxamer 188 and poloxamer 407; and 2 wt% to 6 wt% of the polysorbate 80, based on the total weight of the composition. (a) a thermosensitive nanoparticle comprising irinotecan as an active ingredient and a mixture of tricaprin and triethanolamine mixed at a weight ratio of 99.9:0.1 to 10:90 that has a melting point of 30 to 36°C and (b) a thermosensitive hydrogel having a gelation temperature of 30 to 36°C, comprising a mixture of poloxamer 188 and poloxamer 407 and polysorbate 80, and wherein the irinotecan-loaded dual-reverse thermosensitive hydrogel composition comprises: 0.1 wt% to 5 wt% of the irinotecan; 5 wt% to 9.9 wt% of the mixture of tricaprin and triethanolamine; 30 wt% to 34 wt% of the mixture of poloxamer 188 and poloxamer 407; and 2 wt% to 6 wt% of the polysorbate 80, based on the total weight of the composition. 0.1 wt% to 5 wt% of the irinotecan; 5 wt% to 9.9 wt% of the mixture of tricaprin and triethanolamine; 30 wt% to 34 wt% of the mixture of poloxamer 188 and poloxamer 407; and 2 wt% to 6 wt% of the polysorbate 80, based on the total weight of the composition.
A controllable Fabry-Perot interferometer, comprising a first mirror, a second mirror in a parallel position with each other, at least one controllable actuator (34a, 34b, 34c) between said first mirror and said second mirror, and electrodes in the mirrors, whereby there is a gap between said first mirror and said second mirror, said actuator is configured to control the width of said gap, and said electrodes in the mirrors are configured to perform a capacitive measurement of the width of the gap, characterized in that the Fabry-Perot interferometer comprises an intermediate structure linking said second mirror and said actuator, wherein the intermediate structure is arranged to decrease bending of a mirror of the Fabry-Perot interferometer and comprises a bar (98a, 98b, 98c) having a main axis, a bottom surface intersecting said axis and a lateral surface around said axis, said bottom surface of the bar being attached to a surface of said actuator, and said lateral surface of the bar being attached by means of an adhesive (97a, 97b, 97c) to the inner surface of a through-hole (99a, 99b, 99c) of said second mirror.
An exposure unit for exposing zipper teeth to a treatment of depositing a surface coating film, characterised in that it comprises a vertical cylindrical framework, a plurality of mixing blades, a plurality of metal mesh annular channels vertically spaced apart and rigidly supported in cantilever fashion from said vertical cylindrical framework coaxially with the vertical axis of said vertical cylindrical framework, wherein said annular channels have a bottom and a lateral containment edge which in cooperation delimit a volume, open at the top, for collecting the teeth, wherein each mixing blade projects from above into the volume for collecting the teeth of a corresponding annular channel, and wherein there is provided a movement means configured to make said mixing blades sweep the entire volume for collecting the teeth.
Use of crystalline tapentadol phosphate for preparing a pharmaceutical composition further comprising at least one pharmaceutically acceptable excipient.
An oxygen absorbing polymer composition comprising a polymer comprising a backbone having at least one structural unit represented by formula: Wherein R 1, R 2, R 3, R 4, and R 5 independently denote one of a hydrogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted cycloalkyl group, or a substituted or unsubstituted alkenyl group, and n denotes an integer from 1 to 10 and an oxidation catalyst, wherein the oxidation catalyst comprises transition metals selected from the group consisting of cobalt, iron, nickel, aluminum, ruthenium, rhodium, palladium, antimony, osmium, iridium, platinum, copper, manganese, and zinc, as well as oxides, salts or complexes of these metals.
A light-emitting device package comprising: a first light-emitting device disposed on a lead frame (142, 144) and configured to emit light in a first wavelength range and a second light-emitting device configured to emit light in a second wavelength range, which is different from the first wavelength range; and a molding part disposed to surround the first light-emitting device and the second light-emitting device, wherein the molding part includes red phosphors, which are excited by the light emitted from at least one of the first light-emitting device and the second light-emitting device, and wherein the molding part has a dome shape, and varies an emission angle of light from the first light-emitting device and the second light-emitting device, characterized in that the red phosphors are fluoro-based red phosphors, wherein the fluoro-based red phosphors have a full width at half maximum within a range from 5 nm to 10 nm, and wherein the fluoro-based red phosphors are included in the molding part in an amount within a range from 5 wt% to 25 wt%. a first light-emitting device disposed on a lead frame (142, 144) and configured to emit light in a first wavelength range and a second light-emitting device configured to emit light in a second wavelength range, which is different from the first wavelength range; and a molding part disposed to surround the first light-emitting device and the second light-emitting device, wherein the molding part includes red phosphors, which are excited by the light emitted from at least one of the first light-emitting device and the second light-emitting device, and wherein the molding part has a dome shape, and varies an emission angle of light from the first light-emitting device and the second light-emitting device,