mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a hot forged material, wherein both an upper die and a lower die are made of Ni-based super heat-resistant alloy, the method comprising: a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1025 to 1150°C; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 1000 to 1075°C; a transferring step of transferring the material for hot forging onto the lower die by a manipulator after the completion of the raw material heating step and the die heating step; and a hot die forging step of pressing the material for hot forging by the lower die and the upper die in air to form the hot forged material, wherein a value obtained by subtracting the heating temperature of the upper die and the lower die from the heating temperature of the material for hot forging is 75°C or more, and the lower die and the upper die have a high-temperature compressive strength of 300 MPa or more under conditions of a strain rate of 10 -3 /sec at 1100°C. a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1025 to 1150°C; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 1000 to 1075°C; a transferring step of transferring the material for hot forging onto the lower die by a manipulator after the completion of the raw material heating step and the die heating step; and a hot die forging step of pressing the material for hot forging by the lower die and the upper die in air to form the hot forged material, wherein a value obtained by subtracting the heating temperature of the upper die and the lower die from the heating temperature of the material for hot forging is 75°C or more, and the lower die and the upper die have a high-temperature compressive strength of 300 MPa or more under conditions of a strain rate of 10 -3 /sec at 1100°C.
A method of processing a voice communication on a mobile device having a receiver that modulates an electrical sound signal to a voice audio signal, a loudspeaker that broadcasts voice output and generates a larger acoustic signal than the receiver, and a volume control system that modulates different volume levels wherein the different volume levels are adjustable according to a volume profile associated with a selected one of a plurality of mobile device operational modes including a handsfree mode of operation in which the loudspeaker is used, a handset mode and a headset mode, the method comprising the steps of: storing a plurality of volume profiles including a safe volume profile having a lower volume setting and associated with the handsfree mode of operation; receiving a user input selecting an operational mode of the mobile device; using a handset volume profile if an operational mode other than the handsfree mode is selected and using the safe volume profile if the selected operational mode is the handsfree mode;wherein the safe volume profile is used such that a call is conducted with the lower volume setting if the handsfree mode of operation is selected thereby allowing a user to safely listen to a call in handsfree mode without damaging the user's hearing even if the mobile device is next to the user's ear, and the handset volume profile is used and the call is conducted with a default handset volume level if an operational mode other than the handsfree mode is selected. storing a plurality of volume profiles including a safe volume profile having a lower volume setting and associated with the handsfree mode of operation; receiving a user input selecting an operational mode of the mobile device; using a handset volume profile if an operational mode other than the handsfree mode is selected and using the safe volume profile if the selected operational mode is the handsfree mode;wherein the safe volume profile is used such that a call is conducted with the lower volume setting if the handsfree mode of operation is selected thereby allowing a user to safely listen to a call in handsfree mode without damaging the user's hearing even if the mobile device is next to the user's ear, and the handset volume profile is used and the call is conducted with a default handset volume level if an operational mode other than the handsfree mode is selected.
A footwear tension control system, comprising: an article of footwear including a tensioning member: a motorized tensioning device for adjusting tension in the tensioning member; a user control system in communication with the motorized tensioning device, wherein the user control system includes inputs that provide commands to the motorized tensioning device; wherein the user control system includes a tighten input; and wherein the user control system includes a loosen input; the user control system includes a footwear selection input, the footwear selection input allowing the user to select between sending commands to a left article of footwear or a right article of footwear. a motorized tensioning device for adjusting tension in the tensioning member; a user control system in communication with the motorized tensioning device, wherein the user control system includes inputs that provide commands to the motorized tensioning device; wherein the user control system includes a tighten input; and wherein the user control system includes a loosen input; the user control system includes a footwear selection input, the footwear selection input allowing the user to select between sending commands to a left article of footwear or a right article of footwear.
A method of providing real-time traffic information, the method comprising: providing a user interface for defining a trusted group of mobile devices; defining the trusted group of mobile devices by selecting the mobile devices associated with particular users traveling to a common destination; obtaining traffic data from the mobile devices of the trusted group; and det ermining traffic information based on the traffic data for a plurality of routes to the common destination. providing a user interface for defining a trusted group of mobile devices; defining the trusted group of mobile devices by selecting the mobile devices associated with particular users traveling to a common destination; obtaining traffic data from the mobile devices of the trusted group; and det ermining traffic information based on the traffic data for a plurality of routes to the common destination.
A method comprising: authenticating at a source communication device each of one or more individual participants in a first communication session using a corresponding authentication metric for each individual participant, wherein each corresponding authentication metric is not a telecommunication address, wherein the first communication session comprises a call; obtaining at least one telecommunication address, wherein the at least one telecommunication address is associated with one of the one or more individual participants and the telecommunication address is not associated with the source communication device; sending, from the source communication device and during an initiation of the first communication session, the at least one telecommunication address; receiving the at least one telecommunication address at a destination communication device; determining, by the destination communication device, if a second communication session with the one or more individual participants is to be established; automatically looking up, by the destination communication device and in response to the determining step, a second telecommunication address associated with the at least one telecommunication address; and establishing, by the destination communication device and during the first communication session, the second communication session with the one or more individual participants using the second telecommunication address. authenticating at a source communication device each of one or more individual participants in a first communication session using a corresponding authentication metric for each individual participant, wherein each corresponding authentication metric is not a telecommunication address, wherein the first communication session comprises a call; obtaining at least one telecommunication address, wherein the at least one telecommunication address is associated with one of the one or more individual participants and the telecommunication address is not associated with the source communication device; sending, from the source communication device and during an initiation of the first communication session, the at least one telecommunication address; receiving the at least one telecommunication address at a destination communication device; determining, by the destination communication device, if a second communication session with the one or more individual participants is to be established; automatically looking up, by the destination communication device and in response to the determining step, a second telecommunication address associated with the at least one telecommunication address; and establishing, by the destination communication device and during the first communication session, the second communication session with the one or more individual participants using the second telecommunication address.
An apparatus (200,401) comprising: a memory; and a processor, characterised in that the processor is configured to retrieve executable instructions from the memory and to perform: connecting to a plurality of distinct private networks (403, 405; 651, 653; 701, 703, 705); storing first media content for a first private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the first private network and the apparatus appears to be located in the first private network based on a first virtual address mapped to a physical address of the apparatus; storing second media content for a second private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the second private network and the apparatus appears to be located in the second private network based on a second virtual address mapped to the physical address of the apparatus. a memory; and a processor, characterised in that the processor is configured to retrieve executable instructions from the memory and to perform: connecting to a plurality of distinct private networks (403, 405; 651, 653; 701, 703, 705); storing first media content for a first private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the first private network and the apparatus appears to be located in the first private network based on a first virtual address mapped to a physical address of the apparatus; storing second media content for a second private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the second private network and the apparatus appears to be located in the second private network based on a second virtual address mapped to the physical address of the apparatus. connecting to a plurality of distinct private networks (403, 405; 651, 653; 701, 703, 705); storing first media content for a first private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the first private network and the apparatus appears to be located in the first private network based on a first virtual address mapped to a physical address of the apparatus; storing second media content for a second private network of the plurality of private networks (403, 405, 651, 653, 701, 703, 705), wherein the apparatus is external to the second private network and the apparatus appears to be located in the second private network based on a second virtual address mapped to the physical address of the apparatus.
A method for monitoring a layerwise additive manufacturing process, the method comprising: obtaining, by a computing system comprising one or more computing devices, geometric measurement data (176, 402) captured by an image capture device, the geometric measurement data (176, 402) representing a layer (172, 406) of a structure being manufactured using an additive manufacturing process; characterized by comparing, by the computing system, the geometric measurement data (176, 402) with a standard optical representation associated with the structure; determining, by the computing system, one or more nonconformance conditions between the geometric measurement data (176, 402) representing the layer (172, 406) and the standard optical representation; and implementing, by the computing system, a control action based at least in part on the one or more nonconformance conditions, wherein determining one or more nonconformance conditions comprises: dividing, by the computing system, the geometric measurement data (176, 402) into spatial regions; comparing, by the computing system, each of the spatial regions of the geometric measurement data (176, 402) with the standard optical representation; and determining, by the computing system, one or more nonconformance conditions for the spatial regions based at least in part on a difference between the geometric measurement data (176, 402) and the standard optical representation for the spatial regions. obtaining, by a computing system comprising one or more computing devices, geometric measurement data (176, 402) captured by an image capture device, the geometric measurement data (176, 402) representing a layer (172, 406) of a structure being manufactured using an additive manufacturing process; characterized by comparing, by the computing system, the geometric measurement data (176, 402) with a standard optical representation associated with the structure; determining, by the computing system, one or more nonconformance conditions between the geometric measurement data (176, 402) representing the layer (172, 406) and the standard optical representation; and dividing, by the computing system, the geometric measurement data (176, 402) into spatial regions; comparing, by the computing system, each of the spatial regions of the geometric measurement data (176, 402) with the standard optical representation; and determining, by the computing system, one or more nonconformance conditions for the spatial regions based at least in part on a difference between the geometric measurement data (176, 402) and the standard optical representation for the spatial regions.
A rapidly soluble film preparation comprising: an active-ingredient-containing layer comprising an active ingredient, a water soluble polymer selected from the group consisting of methyl cellulose, hydroxypropyl cellulose and hydroxypropyl methyl cellulose, and a disintegrating agent which is a mixture of crystalline cellulose and carboxymethyl cellulose sodium; and an active-ingredient-free layer comprising methyl cellulose and/or hydroxypropyl methyl cellulose, wherein the film preparation is characterized in that a content of the active ingredient is from 0.1% by mass to 75.0% by mass of a total mass of the film preparation, and a total content of the active ingredient and the water soluble polymer in the active-ingredient-containing layer is from 15.0% by mass to 95.0% by mass of a total mass of the active-ingredient-containing layer and wherein the dissolution time of the film preparation is within 40 seconds, which is measured in accordance with a second method (Paddle Method) of Dissolution Test in Japanese Pharmacopoeia an active-ingredient-containing layer comprising an active ingredient, a water soluble polymer selected from the group consisting of methyl cellulose, hydroxypropyl cellulose and hydroxypropyl methyl cellulose, and a disintegrating agent which is a mixture of crystalline cellulose and carboxymethyl cellulose sodium; and an active ingredient, a water soluble polymer selected from the group consisting of methyl cellulose, hydroxypropyl cellulose and hydroxypropyl methyl cellulose, and a disintegrating agent which is a mixture of crystalline cellulose and carboxymethyl cellulose sodium; and an active-ingredient-free layer comprising methyl cellulose and/or hydroxypropyl methyl cellulose, methyl cellulose and/or hydroxypropyl methyl cellulose,
A computerized device for processing image data (OCT, RID), the computerized device comprising: a receiving unit which is configured to receive raw data corresponding to optical coherence tomography data of a tissue, in particular of a retina, a providing unit which is configured to provide a convolutional neural network for processing the optical coherence tomography data, and a processing unit which is configured to process the received raw data using the convolutional neural network for identifying intraretinal cystoid fluid and subretinal fluid in the received optical coherence tomography data, wherein the processing unit is configured to localize each of the intraretinal cystoid fluids and to localize each of the subretinal fluids in the optical coherence tomography data, and wherein the processing unit is configured to quantify a volume (VIRC) of each of the intraretinal cystoid fluids and to quantify a volume (VSRF) of each of the subretinal fluids in the optical coherence tomography data. a receiving unit which is configured to receive raw data corresponding to optical coherence tomography data of a tissue, in particular of a retina, a providing unit which is configured to provide a convolutional neural network for processing the optical coherence tomography data, and a processing unit which is configured to process the received raw data using the convolutional neural network for identifying intraretinal cystoid fluid and subretinal fluid in the received optical coherence tomography data, wherein the processing unit is configured to localize each of the intraretinal cystoid fluids and to localize each of the subretinal fluids in the optical coherence tomography data, and
A rotary wing aircraft with a fuselage that comprises at least one structural stiffened panel, the structural stiffened panel comprising a stressed skin and a stiffening framework that is rigidly attached to the stressed skin, wherein the stressed skin comprises an inner skin, an outer skin and a core element assembly that is arranged between the inner skin and the outer skin, the core element assembly comprising at least one viscoelastic core element and at least one intermediate core element that are tessellated, wherein the at least one viscoelastic core element is provided for noise and vibration damping.
A mask assembly comprising: an open mask provided with an opening and disposed on a frame; a unit mask disposed on the open mask, wherein the unit mask comprises a deposition portion and welding portions, deposition openings are defined on the deposition portion to overlap the opening in a plan view, and the welding portions each protrude from the deposition portion in a protrusion direction away from the deposition portion; welding protrusions respectively disposed on the welding portions; and at least one residual structure comprising: a residual welding portion separated from the unit mask; and a residual welding protrusion disposed on the residual welding portion, wherein the at least one residual structure is disposed between the welding portions. an open mask provided with an opening and disposed on a frame; a unit mask disposed on the open mask, wherein the unit mask comprises a deposition portion and welding portions, deposition openings are defined on the deposition portion to overlap the opening in a plan view, and the welding portions each protrude from the deposition portion in a protrusion direction away from the deposition portion; the unit mask comprises a deposition portion and welding portions, deposition openings are defined on the deposition portion to overlap the opening in a plan view, and the welding portions each protrude from the deposition portion in a protrusion direction away from the deposition portion; welding protrusions respectively disposed on the welding portions; and at least one residual structure comprising: a residual welding portion separated from the unit mask; and a residual welding protrusion disposed on the residual welding portion, wherein the at least one residual structure is disposed between the welding portions. a residual welding portion separated from the unit mask; and a residual welding protrusion disposed on the residual welding portion, wherein the at least one residual structure is disposed between the welding portions.
A rotor system comprising: a trunnion head mountable to a rotatable mast, said trunnion head including a control bar pivot supported by said trunnion head and pivotal about an axis substantially at a right angle to said mast; a control bar extending through said control bar pivot at a right angle thereto; a pair of opposing leaf hinges pivotal about said control bar and centered about said trunnion head, each of said pair of opposing leaf hinges having a hinge plate extending from said control bar and having a rotor blade mount hole formed through the hinge plate; said rotor system being characterized in that the rotor system does not have a collective pitch and in that the total lift generated is maintained by rotational velocity. a trunnion head mountable to a rotatable mast, said trunnion head including a control bar pivot supported by said trunnion head and pivotal about an axis substantially at a right angle to said mast; a control bar extending through said control bar pivot at a right angle thereto; a pair of opposing leaf hinges pivotal about said control bar and centered about said trunnion head, each of said pair of opposing leaf hinges having a hinge plate extending from said control bar and having a rotor blade mount hole formed through the hinge plate; said rotor system being characterized in that the rotor system does not have a collective pitch and in that the total lift generated is maintained by rotational velocity.
A compliance restoration device (930, 1230, 1430, 1630, 1730, 1830) implantable in blood vessels, comprising: a compliance balloon lumen (45, 1245, 1445, 1645, 1745, 1845); a chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) disposed in the compliance balloon lumen (1245, 1445, 1645, 1745, 1845), extending between a first end (1237, 1437, 1637, 1937, 2037) and a second end (1239, 1439, 1639, 1939, 2039) of the chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) characterized in that the chamber support structure is configured to expand outward through shortening of the chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) from end-to-end to support an expanded volume of the compliance balloon lumen (1245, 1445, 1645, 1745, 1845); and wherein the the compliance restoration device also comprises a spring assembly (1250, 1360, 1460, 1660, 1860) configured to cause the chamber support structure (1232, 1432, 1632,1832) to expand by applying a force on the first end of the chamber support structure (1232, 1432, 1632,1832). a compliance balloon lumen (45, 1245, 1445, 1645, 1745, 1845); a chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) disposed in the compliance balloon lumen (1245, 1445, 1645, 1745, 1845), extending between a first end (1237, 1437, 1637, 1937, 2037) and a second end (1239, 1439, 1639, 1939, 2039) of the chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) characterized in that the chamber support structure is configured to expand outward through shortening of the chamber support structure (1232, 1432, 1632, 1832, 1932, 2032) from end-to-end to support an expanded volume of the compliance balloon lumen (1245, 1445, 1645, 1745, 1845); and wherein the the compliance restoration device also comprises a spring assembly (1250, 1360, 1460, 1660, 1860) configured to cause the chamber support structure (1232, 1432, 1632,1832) to expand by applying a force on the first end of the chamber support structure (1232, 1432, 1632,1832).