mhurhangee/ep-ind-claims huggingface dataset:
A surface-emitting laser element comprising: a resonator structure (104,105,106) including an active layer; a first semiconductor multilayer mirror and a second semiconductor multilayer mirror configured to sandwich the resonator structure (104,105,106) including the active layer; an electrode provided around an emission region of a light-emitting surface; and a substrate, first semiconductor multilayer mirror, the resonator structure (104, 105, 106), second semiconductor multilayer mirror, and electrode being formed on a surface of the substrate, wherein a normal to the surface of the substrate is oriented in a direction between the crystallographic axes and of the substrate, the device further comprising: a first dielectric film provided in a peripheral portion of the emission region and outside a central portion of the emission region to make a reflectance of the peripheral portion lower than a reflectance of the central portion, the first dielectric film being formed in plural sub-regions of the peripheral portion of the emission region and outside the central portion of the emission region, wherein an outer shape of a region of a contact layer that is in contact with the electrode includes corners, wherein a part of the region of the contact layer that is in contact with the electrode exists between said mutually facing sub-regions of the first dielectric film. a resonator structure (104,105,106) including an active layer; a first semiconductor multilayer mirror and a second semiconductor multilayer mirror configured to sandwich the resonator structure (104,105,106) including the active layer; an electrode provided around an emission region of a light-emitting surface; and a substrate, first semiconductor multilayer mirror, the resonator structure (104, 105, 106), second semiconductor multilayer mirror, and electrode being formed on a surface of the substrate, a first dielectric film provided in a peripheral portion of the emission region and outside a central portion of the emission region to make a reflectance of the peripheral portion lower than a reflectance of the central portion, the first dielectric film being formed in plural sub-regions of the peripheral portion of the emission region and outside the central portion of the emission region, wherein an outer shape of a region of a contact layer that is in contact with the electrode includes corners, wherein a part of the region of the contact layer that is in contact with the electrode exists between said mutually facing sub-regions of the first dielectric film.
A method of washing fabric articles in a continuous tunnel washer, comprising the steps of: a) providing a continuous tunnel washer having an interior, an intake, a discharge, and a plurality of sectors that divide the interior into a plurality of zones; b) moving the fabric articles from the intake to first and second sectors that are pre-wash zones (14, 15); c) counter flowing liquid in the washer interior along a flow path that is generally opposite the direction of travel of the fabric articles; d) transferring the fabric articles to a main wash zone; e) adding a washing chemical to the main wash zone; f) reducing counter flow during step "e"; g) increasing counter flow after step "f'; and h) using an extractor to remove excess water after step "g". a) providing a continuous tunnel washer having an interior, an intake, a discharge, and a plurality of sectors that divide the interior into a plurality of zones; b) moving the fabric articles from the intake to first and second sectors that are pre-wash zones (14, 15); c) counter flowing liquid in the washer interior along a flow path that is generally opposite the direction of travel of the fabric articles; d) transferring the fabric articles to a main wash zone; e) adding a washing chemical to the main wash zone; f) reducing counter flow during step "e"; g) increasing counter flow after step "f'; and h) using an extractor to remove excess water after step "g".
Electric power equipment, comprising: a work unit for performing prescribed work; a work motor for driving the work unit; a travel unit for enabling the electric power equipment to travel on a ground surface; a travel motor for driving the travel unit; a battery for supplying electric power to the work motor and the travel motor; an operation input unit for accepting a commanded rotational speed of the travel motor from a user; a control unit for controlling electric power supplied to the work motor and the travel motor; and a battery condition detecting unit (38; 39) for detecting a voltage or a remaining charge of the battery; characterized in that the control unit is configured to lower a rotational speed of the travel motor when the voltage or the remaining charge of the battery is below a prescribed level, and the commanded rotational speed is higher than a prescribed rotational speed determination value, thus reducing the travel speed of the electric power equipment when the battery is low, reducing the load of the work motor owing to the reduction in the amount of work, and reducing the electric power required to drive the work motor so that the battery continues to drive the work motor even though the battery is low. a work unit for performing prescribed work; a work motor for driving the work unit; a travel unit for enabling the electric power equipment to travel on a ground surface; a travel motor for driving the travel unit; a battery for supplying electric power to the work motor and the travel motor; an operation input unit for accepting a commanded rotational speed of the travel motor from a user; a control unit for controlling electric power supplied to the work motor and the travel motor; and a battery condition detecting unit (38; 39) for detecting a voltage or a remaining charge of the battery; characterized in that the control unit is configured to lower a rotational speed of the travel motor when the voltage or the remaining charge of the battery is below a prescribed level, and the commanded rotational speed is higher than a prescribed rotational speed determination value, thus reducing the travel speed of the electric power equipment when the battery is low, reducing the load of the work motor owing to the reduction in the amount of work, and reducing the electric power required to drive the work motor so that the battery continues to drive the work motor even though the battery is low.
A receiver circuit comprising: a plurality of first sampling circuits (201, 203), each of the plurality of first sampling circuits (201, 203) to sample a signal and generate a first sample value that indicates whether the signal exceeds a respective first threshold level (+α, -α); a select circuit to receive the first sample values from the plurality of first sampling circuits (201, 203) and to select, based at least in part upon at least one previously selected first sample value, one of the first sample values as a currently selected sample value; a level sampler comprising at least one second sampling circuit (331, 507), the at least one second sampling circuit to sample the signal and generate a second sample value that indicates whether the signal exceeds a respective second threshold level (1+α, 1-α, -1+α, -1-α), and a threshold generation circuit (329, 503) to receive the selected first and the second sample values and to determine at least one signal level based on the selected first and the second sample values and adaptively generate the first threshold levels (+α, -α) based at least in part upon one or more previously selected sample values and the at least one signal level. a plurality of first sampling circuits (201, 203), each of the plurality of first sampling circuits (201, 203) to sample a signal and generate a first sample value that indicates whether the signal exceeds a respective first threshold level (+α, -α); a select circuit to receive the first sample values from the plurality of first sampling circuits (201, 203) and to select, based at least in part upon at least one previously selected first sample value, one of the first sample values as a currently selected sample value; a level sampler comprising at least one second sampling circuit (331, 507), the at least one second sampling circuit to sample the signal and generate a second sample value that indicates whether the signal exceeds a respective second threshold level (1+α, 1-α, -1+α, -1-α), and a threshold generation circuit (329, 503) to receive the selected first and the second sample values and to determine at least one signal level based on the selected first and the second sample values and adaptively generate the first threshold levels (+α, -α) based at least in part upon one or more previously selected sample values and the at least one signal level.
A multi-channel head assembly of three-dimensional modeling equipment, comprising a modeling light source unit which has N modeling beams incident on a light guide unit; a light guide unit (A, B) which receives the incident N modeling beams and has a function for having the N modeling beams incident on the respective N modeling planes by guiding each of the N modeling beams to a specific path; a control unit which controls driving of the modeling light source unit and the light guide unit by interlocking; the modeling light source unit comprises a light output distributor; and the light output distributor generates the N modeling beams by outputting and distributing an input beam; wherein a three-dimensional modeling product is modeled by radiating each of the N modeling beams to an entire surface of one of the N modeling planes in a specific scanning pattern, the light guide unit comprises 1 1 th to 1 N th light reflection units (60a, 60b, 60c) having a function for having the respective N modeling beams incident on a second light reflection unit by primarily reflecting the N modeling beams and a second light reflection unit having a function for having the N modeling beams received from the 1 1 th to 1 N th light reflection units (60a, 60b, 60c) incident on the N modeling planes by secondarily reflecting the N modeling beams, and characterized in that the 1 1 th to 1 N th light reflection units (60a, 60b, 60c) are spaced apart at specific angles around the second light reflection unit using the second light reflection unit as a center.
An absorbent article having at least one stretch zone characterized in that said stretch zone comprises a slow recovery elastomer wherein: Said slow recovery elastomer exhibits a normalized unload force of greater than 0.04 N/mm 2 at 37°C; and characterised in that said slow recovery elastomer exhibits at least 50% post elongation strain at 22°C after 15 seconds of recovery from a 400% strain. Said slow recovery elastomer exhibits a normalized unload force of greater than 0.04 N/mm 2 at 37°C; and characterised in that said slow recovery elastomer exhibits at least 50% post elongation strain at 22°C after 15 seconds of recovery from a 400% strain.
A combination comprising a therapeutically effective amount of one or more insulins and a subcutaneously effective amount of iloprost for use in the treatment of diabetes, comprising simultaneously administering said one or more insulins and iloprost subcutaneously to the same site in a subject in need thereof, wherein the iloprost is administered at a dose of about 1 nmol.
A method for fabricating a porous structure comprising the steps of: a. creating a model of a porous structure, said creating step comprising the steps of: defining at least one strut (200, 502) of said porous structure, wherein said at least one strut comprises a first node (202, 508), a second node (204, 510), and a body (206, 512) between said first node and said second node; b. assigning a local coordinate system (208, 514) to said at least one strut, said local coordinate system having at least one direction perpendicular to the normal vector of a first plane; c. modifying a dimension of said at least one strut in said at least one direction, wherein said modifying step does not affect any changes in said first plane; and d. fabricating the porous structure according to the model by exposing fusible material to an energy source. a. creating a model of a porous structure, said creating step comprising the steps of: defining at least one strut (200, 502) of said porous structure, wherein said at least one strut comprises a first node (202, 508), a second node (204, 510), and a body (206, 512) between said first node and said second node; b. assigning a local coordinate system (208, 514) to said at least one strut, said local coordinate system having at least one direction perpendicular to the normal vector of a first plane; c. modifying a dimension of said at least one strut in said at least one direction, wherein said modifying step does not affect any changes in said first plane; and d. fabricating the porous structure according to the model by exposing fusible material to an energy source.
Bib which, in the longitudinal direction, is composed of a collar section which can be placed around the child's neck and a protective section extending as a surface up to the border edge of the bib, characterised by friction-enhancing means on the underside of the protective section, wherein the friction-enhancing means is a coating of the material from which the bib is made and extends from the border edge over only a part of the surface.
Batch feeder, comprising a feeder pit for stocking and gravity conveying of piece goods made of flat material, which comprises an upper opening for in particular batch-based feeding of the piece goods, a lower opening for extraction of the piece goods and in between at least two lateral pit delimitations (6, 7), which are located opposite to one another, for guiding of the piece goods, wherein carrying structures for supporting the piece goods on one side, which are arranged on top of each other in a floor-shaped way and which protrude into the feeder pit, are formed in form of an essentially horizontally aligned toothing on one of the pit delimitations that are located opposite to one another, and wherein areas of the other pit delimitation, which are located respectively opposite to the carrying structures, are formed for smooth guiding of the piece goods characterized in that the toothing is formed in form of a horizontally continuous sawing tooth or a horizontally aligned row of sawing teeth with essentially horizontal upper tooth flanks.
A method for fast inspecting a vehicle, which is applied in a system for fast inspecting a vehicle, characterized in that the method comprises: step (a), when a subject vehicle enters an inspection region, measuring a first length and a second length of the subject vehicle; step (b), determining whether the first length is larger than or equal to a preset first length threshold and the second length is larger than or equal to a preset second length threshold; step (c), if the first length is larger than or equal to the first length threshold and the second length is larger than or equal to the second length threshold, determining whether a gap portion of the subject vehicle between a first portion and a second portion of the subject vehicle appears in a beam emitting region formed by a beam of radiation rays emitted by the system for fast inspecting a vehicle, the gap portion between the first portion and a second portion of the subject vehicle being recognized when the first length and the second length exceed the preset thresholds; and step (d), when the gap portion appears in the beam emitting region, emitting a beam of radiation rays of a first radiation dose to the subject vehicle according to the gap portion, wherein the subject vehicle moves with respect to the system for fast inspecting a vehicle. step (a), when a subject vehicle enters an inspection region, measuring a first length and a second length of the subject vehicle; step (b), determining whether the first length is larger than or equal to a preset first length threshold and the second length is larger than or equal to a preset second length threshold; step (c), if the first length is larger than or equal to the first length threshold and the second length is larger than or equal to the second length threshold, determining whether a gap portion of the subject vehicle between a first portion and a second portion of the subject vehicle appears in a beam emitting region formed by a beam of radiation rays emitted by the system for fast inspecting a vehicle, the gap portion between the first portion and a second portion of the subject vehicle being recognized when the first length and the second length exceed the preset thresholds; and step (d), when the gap portion appears in the beam emitting region, emitting a beam of radiation rays of a first radiation dose to the subject vehicle according to the gap portion, wherein the subject vehicle moves with respect to the system for fast inspecting a vehicle.
A radiator screen with a cleaning device, wherein the radiator screen has a frame component inside which a sieve-like surface is formed, and the cleaning device is configured as a suction device which moves in a cyclic manner over the surface of the radiator screen and which picks up particles which are deposited on the surface, characterized in that the suction device has two suction arms (5a, 5b) which are pivotably mounted about an axis which is orientated vertically with respect to the surface by means of diagonally opposed bearings positioned inside the radiator screen.
A rotary forming device comprising: a die plate (20, 72) defining at least one outlet; a race plate (30, 74) in the form of a hollow cylinder attached to the die plate (20, 72), the race plate circumscribing the at least one outlet of the die plate; a rotatable shaft defining a central axis concentric with the race plate; an eccentric motor assembly attached to the rotatable shaft; and a forming wheel (40, 70) rotatably attached to the motor assembly, guided by at least one bearing; - characterized in that - the forming wheel (40, 70) is constructed and arranged to rotate excentrically around the central axis of the race plate, thereby rolling off along a circular inner surface of the race plate (30, 74), and a point fixed on a circumferential outer surface of the forming wheel (40, 70) moves in a hypocycloid motion when the forming wheel (40, 70) rolls off along the circular inner surface of the race plate. a die plate (20, 72) defining at least one outlet; a race plate (30, 74) in the form of a hollow cylinder attached to the die plate (20, 72), the race plate circumscribing the at least one outlet of the die plate; a rotatable shaft defining a central axis concentric with the race plate; an eccentric motor assembly attached to the rotatable shaft; and a forming wheel (40, 70) rotatably attached to the motor assembly, guided by at least one bearing; - characterized in that - the forming wheel (40, 70) is constructed and arranged to rotate excentrically around the central axis of the race plate, thereby rolling off along a circular inner surface of the race plate (30, 74), and a point fixed on a circumferential outer surface of the forming wheel (40, 70) moves in a hypocycloid motion when the forming wheel (40, 70) rolls off along the circular inner surface of the race plate.
An intermodulation cancellation device for a passive device, comprising a power coupler, a regulating module (7, 8), and a nonlinear device having a grounded end; wherein the intermodulation cancellation device comprises an input/output port configured as a common port of input and output, and the input/output port is disposed at one port of the power coupler; wherein the power coupler is configured to couple a part of a transmitted signal (10, 11) comprising a power signal and an intermodulation signal from the passive device through the input/output port, whereby a level of a coupled transmitted signal is lower than the level of the transmitted signal (10, 11); wherein the regulating module (7, 8) is configured to perform a first processing of the coupled transmitted signal to produce a first power signal and the nonlinear device is configured to process the first power signal to produce a first intermodulation cancellation signal and the first power signal after the first processing; wherein the intermodulation cancellation device is configured to reflect the first power signal after the first processing and the first intermodulation cancellation signal at the grounded end of the nonlinear device and to pass the reflected signals through the nonlinear device and the regulating module (7, 8), wherein the regulating module (7, 8) is configured to perform a second processing of the reflected signals to produce a second power signal converted from the first power signal and a second intermodulation cancellation signal converted from the first intermodulation cancellation signal, wherein the second intermodulation cancellation signal and the intermodulation signal of the transmitted signal of the passive device have a same frequency and level and opposite phases; wherein the intermodulation cancellation device is configured to pass the second power signal and the second intermodulation cancellation signal through the power coupler to be superimposed on the intermodulation signal and the power signal of the transmitted signal (10, 11) whereby the power signal of the transmitted signal (10, 11) is converted into a third power signal being output to the passive device; wherein the regulating module comprises a phase regulator and a power attenuator; the phase regulator being configured to regulate phases of the coupled transmitted signal and the first intermodulation cancellation signal produced by the nonlinear device; and the power attenuator being configured to regulate levels of the coupled transmitted signal and the first intermodulation cancellation signal produced by the nonlinear device; and wherein the intermodulation cancellation device is formed by series electric connection of the power coupler, the phase regulator, the power attenuator, and the nonlinear device connected in series; and one end of the intermodulation cancellation device is grounded.