mhurhangee/ep-ind-claims huggingface dataset:
An indoor unit (2, 2A) for an air-conditioning apparatus, comprising: a casing having an air inlet and an air outlet; an up-down airflow direction plate configured to be rotatably supported in the air outlet; and an auxiliary airflow direction plate configured to be rotatably supported at a position below the up-down airflow direction plate and on an upstream side of the up-down airflow direction plate, the up-down airflow direction plate having a main blade part formed of a flat plate, and a rear edge part formed of a flat plate and formed on an upstream side of the main blade part, when the main blade part is in a horizontal state, the rear edge part being inclined upward to a back face of the casing from the main blade part, when an angle α represents an angle formed between the main blade part and the rear edge part and an angle ε represents an angle formed between the main blade part and a virtual line passing through a center of a tip part of the auxiliary airflow direction plate, the angle ε being greater than the angle α characterized in that the angle α is in a range from 130 to 165 degrees. a casing having an air inlet and an air outlet; an up-down airflow direction plate configured to be rotatably supported in the air outlet; and an auxiliary airflow direction plate configured to be rotatably supported at a position below the up-down airflow direction plate and on an upstream side of the up-down airflow direction plate, the up-down airflow direction plate having a main blade part formed of a flat plate, and a rear edge part formed of a flat plate and formed on an upstream side of the main blade part, when the main blade part is in a horizontal state, the rear edge part being inclined upward to a back face of the casing from the main blade part, when an angle α represents an angle formed between the main blade part and the rear edge part and an angle ε represents an angle formed between the main blade part and a virtual line passing through a center of a tip part of the auxiliary airflow direction plate, the angle ε being greater than the angle α characterized in that the angle α is in a range from 130 to 165 degrees.
A continuous flow sub for use with a drill string, comprising: a tubular housing having a longitudinal bore therethrough and a port formed through a wall thereof; a ball valve disposed in the bore; and characterized by further comprising: a check valve disposed in the port and comprising: a body having an outer wall coupled to a portion of the housing wall adjacent to the port and an inner wall connected to the outer wall by a web; a poppet disposed through a bore of the inner wall and movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position, wherein the poppet moves to the open position in response to an external pressure exceeding the combined pressure of an internal pressure of the housing bore and the spring, and moves to the closed position in response to the external pressure being less than or equal to internal pressure. a tubular housing having a longitudinal bore therethrough and a port formed through a wall thereof; a ball valve disposed in the bore; and characterized by further comprising: a check valve disposed in the port and comprising: a body having an outer wall coupled to a portion of the housing wall adjacent to the port and an inner wall connected to the outer wall by a web; a poppet disposed through a bore of the inner wall and movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position, wherein the poppet moves to the open position in response to an external pressure exceeding the combined pressure of an internal pressure of the housing bore and the spring, and moves to the closed position in response to the external pressure being less than or equal to internal pressure. a check valve disposed in the port and comprising: a body having an outer wall coupled to a portion of the housing wall adjacent to the port and an inner wall connected to the outer wall by a web; a poppet disposed through a bore of the inner wall and movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position, wherein the poppet moves to the open position in response to an external pressure exceeding the combined pressure of an internal pressure of the housing bore and the spring, and moves to the closed position in response to the external pressure being less than or equal to internal pressure. a body having an outer wall coupled to a portion of the housing wall adjacent to the port and an inner wall connected to the outer wall by a web; a poppet disposed through a bore of the inner wall and movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position, wherein the poppet moves to the open position in response to an external pressure exceeding the combined pressure of an internal pressure of the housing bore and the spring, and moves to the closed position in response to the external pressure being less than or equal to internal pressure.
A vehicle-mountable sun visor, comprising: a shaft, one end of which is mounted on a vehicle body; a support mounted on the shaft; a sun visor body in which two resin core members (20a, 20b) are coupled with each other by a hinged portion and the two resin core members (20a, 20b) are folded with the hinged portion being a fold so as to involve the other end of the shaft and the support; a first slide guide provided in proximity to the hinged portion, for guiding sliding of the support; and a second slide guide provided on an internal face of one of the two resin core members (20a, 20b), for guiding sliding of the support, the support is slidably held in a space surrounded by the folded two resin core members (20a, 20b), the first slide guide, and the second slide guide; the support turns around the shaft, whereby the sun visor body turns; and the support slides along the two resin core members (20a, 20b), the first slide guide, and the second slide guide, whereby the sun visor body slides relative to the shaft, characterized in that the second slide guide is extended from an internal face of said one resin core members and has a width to an extent such that an entire bottom face of the support can abut against the second slide guide; and the sun visor is adapted to support the support together with the second slide guide and further comprises engagement portions (22b, 26, 41-43, 51-55, 61-63) for engagingly locking an opening end of the second slide guide at an internal face side of the other resin core member opposed to the resin core member at which the second slide guide is provided. a shaft, one end of which is mounted on a vehicle body; a support mounted on the shaft; a sun visor body in which two resin core members (20a, 20b) are coupled with each other by a hinged portion and the two resin core members (20a, 20b) are folded with the hinged portion being a fold so as to involve the other end of the shaft and the support; a first slide guide provided in proximity to the hinged portion, for guiding sliding of the support; and a second slide guide provided on an internal face of one of the two resin core members (20a, 20b), for guiding sliding of the support, the support is slidably held in a space surrounded by the folded two resin core members (20a, 20b), the first slide guide, and the second slide guide; the support turns around the shaft, whereby the sun visor body turns; and the support slides along the two resin core members (20a, 20b), the first slide guide, and the second slide guide, whereby the sun visor body slides relative to the shaft, characterized in that the second slide guide is extended from an internal face of said one resin core members and has a width to an extent such that an entire bottom face of the support can abut against the second slide guide; and the sun visor is adapted to support the support together with the second slide guide and further comprises engagement portions (22b, 26, 41-43, 51-55, 61-63) for engagingly locking an opening end of the second slide guide at an internal face side of the other resin core member opposed to the resin core member at which the second slide guide is provided.
A resource allocation method for an uplink packet data transmission in a wireless communication system based on Orthogonal Frequency Division Multiplexing, OFDM, comprising the steps of: allocating uplink resources from a base station to a plurality of terminals on a frequency bandwidth-by-frequency bandwidth basis; mapping the allocated resources to equal-interval sub-carriers or successive sub-carriers depending on a state of at least one of the plurality of terminals; generating resource allocation information indicating the mapped resources for at least one of the terminals from the base station; and transmitting the generated resource allocation information from the base station to at least one of the terminals using a scheduling assignment channel, wherein the resource allocation information comprises denoting an allocated subcarrier set by SS(S, R, N) wherein "S" is an index of the first sub- carrier allocated to at least one of the terminals, "R" is an interval between allocated sub- carriers, and "N" is the number of allocated sub-carriers.
Apparatus comprising - a cylindrical element having an inner longitudinal axis and comprising a curved circumferential surface for receiving an incident electromagnetic wave, and comprising a dielectric material with an effective dielectric constant ( ε i) so as to provide for a focusing of the incident electromagnetic wave onto a focus region (11, FP, FL), wherein the cylindrical element is configured to cause the incident electromagnetic wave, after having been received via the curved circumferential surface, to travel more or less perpendicularly to the longitudinal axis through the cylindrical element; and - a retrodirective antenna array comprising at least two antenna elements, said antenna array being positioned with an orientation parallel to said axis at said focus region (11, FP, FL). - a cylindrical element having an inner longitudinal axis and comprising a curved circumferential surface for receiving an incident electromagnetic wave, and comprising a dielectric material with an effective dielectric constant ( ε i) so as to provide for a focusing of the incident electromagnetic wave onto a focus region (11, FP, FL), wherein the cylindrical element is configured to cause the incident electromagnetic wave, after having been received via the curved circumferential surface, to travel more or less perpendicularly to the longitudinal axis through the cylindrical element; and - a retrodirective antenna array comprising at least two antenna elements, said antenna array being positioned with an orientation parallel to said axis at said focus region (11, FP, FL).
An optical arrangement comprising: (a) an optical waveguide (10, 503) having at least a first pair of parallel faces (12a, 12b) for conveying an image via total internal reflection; and (b) an image projecting arrangement optically coupled to said optical waveguide for introducing into said optical waveguide a collimated image, said image projecting arrangement comprising a polarized beam splitter prism (526, 531) having: (i) an image input surface; (ii) a collimating optical element deployed on a second surface substantially perpendicular to said image input surface; and (iii) a polarized beam splitter deployed on a diagonal plane so as to direct image illumination from said image input surface towards said collimating optical element, said polarized beam splitter prism (526, 531) being optically coupled to said optical waveguide with said image input surface and said second surface tilted relative to said first pair of parallel faces (12a, 12b), characterized by said polarized beam splitter prism further comprising a modified bottom face lying on a side of said polarized beam splitter away from said collimating optical element and forming a continuation of a first of said first pair of parallel faces. (a) an optical waveguide (10, 503) having at least a first pair of parallel faces (12a, 12b) for conveying an image via total internal reflection; and (b) an image projecting arrangement optically coupled to said optical waveguide for introducing into said optical waveguide a collimated image, said image projecting arrangement comprising a polarized beam splitter prism (526, 531) having: (i) an image input surface; (ii) a collimating optical element deployed on a second surface substantially perpendicular to said image input surface; and (iii) a polarized beam splitter deployed on a diagonal plane so as to direct image illumination from said image input surface towards said collimating optical element, said polarized beam splitter prism (526, 531) being optically coupled to said optical waveguide with said image input surface and said second surface tilted relative to said first pair of parallel faces (12a, 12b), characterized by said polarized beam splitter prism further comprising a modified bottom face lying on a side of said polarized beam splitter away from said collimating optical element and forming a continuation of a first of said first pair of parallel faces. (i) an image input surface; (ii) a collimating optical element deployed on a second surface substantially perpendicular to said image input surface; and (iii) a polarized beam splitter deployed on a diagonal plane so as to direct image illumination from said image input surface towards said collimating optical element,
A device for producing droplets of a first liquid in a second liquid, the device comprising: a) a first channel having a first depth, a first width, a first proximal end, a first distal end and a first surface comprising a material; b) a second channel having a second depth, a second width, a second proximal end, and a second distal end, wherein the second channel intersects the first channel between the first proximal and first distal ends; c) a droplet formation region, wherein the droplet formation region comprises a shelf region having a third depth and a third width, and a step region having a fourth depth, wherein the shelf region comprises a hydrophobic coating different from the material of the first surface and wherein the first distal end is in fluid communication with the droplet formation region; and wherein the width, height, and/or expansion angle of the shelf region is configured to allow the first liquid to expand in at least one dimension and the shelf region has at least one inlet and at least one outlet, wherein the shelf region is disposed between the first distal end and the step region, wherein the first channel and droplet formation region are configured to produce droplets of the first liquid in the second liquid. a) a first channel having a first depth, a first width, a first proximal end, a first distal end and a first surface comprising a material; b) a second channel having a second depth, a second width, a second proximal end, and a second distal end, wherein the second channel intersects the first channel between the first proximal and first distal ends; c) a droplet formation region, wherein the droplet formation region comprises a shelf region having a third depth and a third width, and a step region having a fourth depth, wherein the shelf region comprises a hydrophobic coating different from the material of the first surface and wherein the first distal end is in fluid communication with the droplet formation region; and wherein the width, height, and/or expansion angle of the shelf region is configured to allow the first liquid to expand in at least one dimension and the shelf region has at least one inlet and at least one outlet, wherein the shelf region is disposed between the first distal end and the step region, wherein the first channel and droplet formation region are configured to produce droplets of the first liquid in the second liquid.
Retraction device for an element which is movable in relation to a stationary part, such as, in particular, a sliding door, a drawer or the like, having a driver which can be coupled to the movable element and which is movable between a freewheeling position and a retracted position, a spring unit which pretensions the driver into the retracted position, and a damping unit by means of which the at least one respective movement of the driver into the retracted position is damped, wherein at least the driver, the spring unit and the damping unit form a retraction damping unit which can be fixed to the stationary part via an end buffer of the retraction device against which the movable part driven along via the driver comes to bear when the driver assumes its retracted position, characterized in that the damping unit comprises a piston guided in the cylinder and also a piston rod which extends through the end buffer, and in that a cylinder of the damping unit is arranged on a side of the end buffer that is opposite to a side of the end buffer against which the movable part driven along by the driver comes to bear when the driver assumes its retracted position.
A decorative sheet for lamination on a base material, the base material comprising a chipboard on the surface, the decorative sheet comprising a transparent base material layer and at least a transparent resin layer and an ionizing radiation-curable transparent surface-protecting layer disposed above the transparent base material layer, and comprising a picture pattern layer between the transparent base material layer and the transparent resin layer, the transparent base material layer and the transparent resin layer both containing a polyolefin resin; the transparent base material layer having a layer thickness of 10 to 250 μm and a Martens hardness of 20 to 30 N/mm 2, wherein the Martens hardness is measured according to the description; the transparent resin layer having a Martens hardness of 100 N/mm 2 or less, and the Martens hardness of the transparent resin layer being greater than that of the transparent base material layer; and the total thickness of the transparent base material layer and the transparent resin layer being 100 to 420 μm. the transparent base material layer and the transparent resin layer both containing a polyolefin resin; the transparent base material layer having a layer thickness of 10 to 250 μm and a Martens hardness of 20 to 30 N/mm 2, wherein the Martens hardness is measured according to the description; the transparent resin layer having a Martens hardness of 100 N/mm 2 or less, and the Martens hardness of the transparent resin layer being greater than that of the transparent base material layer; and the total thickness of the transparent base material layer and the transparent resin layer being 100 to 420 μm.
Process for producing polylactide from a lactide mixture by means of polymerization, where the lactide mixture to be processed is introduced into an extruder, and mixed with at least one catalyst and the finished PLA is taken off at the end, characterized in that - the lactide mixture passes continuously through a plurality of segments of a planetary gear extruder having a modular construction, where measurements and targeted control of the reactions proceeding in the planetary gear extruder are carried out in the segments in such a way that the temperature can be set by means of heating and/or cooling as a function of temperature values to be tested via sensors and the pressure can be set variably via a controllable offtake of gas and/or a controllable extruder speed and/or a static alterability of the planetary gears and/or an alterable metering rate of the lactide mixture and/or an alterable mixing ratio of the lactide mixture as a function of pressure values to be tested via sensors, - an offtake of gas which presents a fire hazard is carried out at least in a subregion of the planetary gear extruder in an explosion-protected zone, - at least one catalyst is introduced directly into the planetary gear extruder during the rolling process, - additives for influencing the final properties are introduced directly into the planetary gear extruder during the rolling process. - the lactide mixture passes continuously through a plurality of segments of a planetary gear extruder having a modular construction, where measurements and targeted control of the reactions proceeding in the planetary gear extruder are carried out in the segments in such a way that the temperature can be set by means of heating and/or cooling as a function of temperature values to be tested via sensors and the pressure can be set variably via a controllable offtake of gas and/or a controllable extruder speed and/or a static alterability of the planetary gears and/or an alterable metering rate of the lactide mixture and/or an alterable mixing ratio of the lactide mixture as a function of pressure values to be tested via sensors, - an offtake of gas which presents a fire hazard is carried out at least in a subregion of the planetary gear extruder in an explosion-protected zone, - at least one catalyst is introduced directly into the planetary gear extruder during the rolling process, - additives for influencing the final properties are introduced directly into the planetary gear extruder during the rolling process.
A method for producing a nanocluster liquid dispersion, the method comprising generating nanoclusters; and collecting the nanoclusters in a liquid dispersion medium while flowing the dispersion medium where the generated nanoclusters are incident so that the density of said nanoclusters on the surface of said dispersion medium is equal to or less than the aggregation limit of said nanoclusters, detecting whether nanoclusters of predetermined cluster size are generated between the generating and the collecting; and wherein the dispersion medium is a polyethylene glycol, polypropylene glycol, methoxy polyethylene glycol, polydimethylsiloxane or polylmethylphenylsiloxane, wherein ends of the ether bond or the siloxane bond have an alkyl group, and wherein the nanoclusters are a metal-ion-encapsulating silicon cage cluster represented by M@Si with M being a metal ion, selected from the group consisting of a complex cluster of Ta and Si, a complex cluster of Ti and Si, a complex cluster of Lu and Si, a complex cluster of Mo and Si, a complex cluster of W and Si, and a complex cluster of Ru and Si.