mhurhangee/ep-ind-claims huggingface dataset:
An alloy capable of forming a metallic glass of: Pt having an atomic fraction in the range of 45 to 75 percent, where the weight fraction of Pt does not exceed 91 percent; Cu having an atomic fraction in the range of 3 to 35 percent; P having an atomic fraction in the range of 14 to 26 percent; at least one additional element selected from the group consisting of Ag, Au, and B where the atomic fraction of each of the at least one additional elements is in the range of 0.1 to 5 percent; one optional element selected from the group consisting of Ni and Co, where the combined atomic fraction of Ni and Co is less than 2 percent; one or more optional elements selected from the group consisting of Pd, Rh, and Ir in a total atomic fraction of up to 2 percent; one or more optional elements selected from the group consisting of Si, Ge, Sb, Fe, Cr, Mo, and Mn in a total atomic fraction of up to 2 percent; and wherein the critical rod diameter of the alloy is at least 3 mm, and the critical rod diameter is defined as the largest rod diameter in which the amorphous phase can be formed when processed by a method of water quenching a quartz tube having 0.5 mm thick walls containing the molten alloy. Pt having an atomic fraction in the range of 45 to 75 percent, where the weight fraction of Pt does not exceed 91 percent; Cu having an atomic fraction in the range of 3 to 35 percent; P having an atomic fraction in the range of 14 to 26 percent; at least one additional element selected from the group consisting of Ag, Au, and B where the atomic fraction of each of the at least one additional elements is in the range of 0.1 to 5 percent; one optional element selected from the group consisting of Ni and Co, where the combined atomic fraction of Ni and Co is less than 2 percent; one or more optional elements selected from the group consisting of Pd, Rh, and Ir in a total atomic fraction of up to 2 percent; one or more optional elements selected from the group consisting of Si, Ge, Sb, Fe, Cr, Mo, and Mn in a total atomic fraction of up to 2 percent; and wherein the critical rod diameter of the alloy is at least 3 mm, and the critical rod diameter is defined as the largest rod diameter in which the amorphous phase can be formed when processed by a method of water quenching a quartz tube having 0.5 mm thick walls containing the molten alloy.
A display device, comprising: a display panel having a first, a second, and a third area (L, C, R) disposed one after the other in a first direction; at least one first, at least one second and at least one third sound generating actuator (200, 200', 200"), respectively disposed in the first, second and third area (L, C, R), wherein the first, second, and third actuators (200, 200', 200") are configured to generate sound by vibrating the display panel; a support structure on a rear surface of the display panel; a first partition configured to separate the first and the second area (L,C); and a second partition configured to separate the second and the third area (C, R), characterized in that: the first and second partitions (600, 600') are in contact with the lower surface of the display panel in a non-adhesive configuration. a display panel having a first, a second, and a third area (L, C, R) disposed one after the other in a first direction; at least one first, at least one second and at least one third sound generating actuator (200, 200', 200"), respectively disposed in the first, second and third area (L, C, R), wherein the first, second, and third actuators (200, 200', 200") are configured to generate sound by vibrating the display panel; a support structure on a rear surface of the display panel; a first partition configured to separate the first and the second area (L,C); and a second partition configured to separate the second and the third area (C, R), characterized in that: the first and second partitions (600, 600') are in contact with the lower surface of the display panel in a non-adhesive configuration.
A process of production of a compound of formula wherein R 1 is CH 3 or -CH 2 CH 3, R 2 is by rearrangement of the compound of formula wherein R 1 and R 2 have the same meanings as in formula, characterized in that the process is carried out in the presence of at least one ruthenium based catalyst of formula (C 1) wherein R 3, R 4, R 5 and R 6 signify independently from each other -H, -CH 3, -OCH 3, -NO 2 or halogene, and m, n, o and p are independently from each other an integer of 0, 1, 2 or 3, and X and Y are independently from each other an allylic moiety, and q signifies an integer of 1, 2, 3, 4, 5, or 6, and wherein the process is carried out at a reaction temperature of 20°C to 40°C. R 1 is CH 3 or -CH 2 CH 3, R 2 is by rearrangement of the compound of formula wherein R 1 and R 2 have the same meanings as in formula, R 3, R 4, R 5 and R 6 signify independently from each other -H, -CH 3, -OCH 3, -NO 2 or halogene, and m, n, o and p are independently from each other an integer of 0, 1, 2 or 3, and X and Y are independently from each other an allylic moiety, and q signifies an integer of 1, 2, 3, 4, 5, or 6,
A laryngeal mask airway device, comprising: an inflatable cuff, the cuff defining a central opening at least when inflated, the cuff being insertable through a mouth of a patient to an inserted location within the patient, the cuff surrounding a glottic opening of the patient when inflated and at the inserted location; and an airway tube extending from a proximal end to a distal end, the airway tube defining an internal passage, an anterior portion (510-f), a posterior portion (510-p), a left portion (510-left), and a right portion (510-right), an airway passage extending from the proximal end of the tube through the internal passage to the glottic opening when the cuff is inflated and at the inserted location, characterised in that the anterior portion has a thinner wall thickness than the left and right portions, the posterior portion has a thinner wall thickness than the left and right portions, and an outer perimeter of the wall has a flattened portion (510-f). an inflatable cuff, the cuff defining a central opening at least when inflated, the cuff being insertable through a mouth of a patient to an inserted location within the patient, the cuff surrounding a glottic opening of the patient when inflated and at the inserted location; and an airway tube extending from a proximal end to a distal end, the airway tube defining an internal passage, an anterior portion (510-f), a posterior portion (510-p), a left portion (510-left), and a right portion (510-right), an airway passage extending from the proximal end of the tube through the internal passage to the glottic opening when the cuff is inflated and at the inserted location, characterised in that the anterior portion has a thinner wall thickness than the left and right portions, the posterior portion has a thinner wall thickness than the left and right portions, and an outer perimeter of the wall has a flattened portion (510-f).
A system for controlling a work machine implement comprising: an electronic control module circuit (420; 500) capable of receiving, at one or more input registers, an input control signal of a first control signal type generated by a control mechanism of said work machine corresponding to a user input, and further capable of generating a control output signal of said first control signal type or of a second, different control signal type for controlling operation of said implement according to said user input; wherein said generating of said control output signal causes simultaneous or substantially simultaneous generation of a hydraulic flow output control signal for providing hydraulic power to said implement; and wherein said control output signal and said hydraulic flow output control signal are transmitted to an output register.
A backlight module, comprising: a substrate; a light-emitting element bonded onto the substrate; a circuit element bonded onto the substrate and electrically connected to the light-emitting element; and a reflective sheet (140, 140a) disposed on the substrate and having a first opening, wherein the first opening at least exposes the light-emitting element, wherein the reflective sheet (140, 140a) further comprises a protrusion, the protrusion is disposed corresponding to a position of the circuit element, and the protrusion covers the circuit element, characterized in that the protrusion has four perforated lines, and the four perforated lines are provided corresponding to four edges of the protrusion, wherein the protrusion has an opening, the opening is formed of two crossing slits, and extending directions of the two crossing slits are respectively parallel to extending directions of two perforated lines in a top view of the backlight module. a substrate; a light-emitting element bonded onto the substrate; a circuit element bonded onto the substrate and electrically connected to the light-emitting element; and a reflective sheet (140, 140a) disposed on the substrate and having a first opening, wherein the first opening at least exposes the light-emitting element, wherein the reflective sheet (140, 140a) further comprises a protrusion, the protrusion is disposed corresponding to a position of the circuit element, and the protrusion covers the circuit element, characterized in that the protrusion has four perforated lines, and the four perforated lines are provided corresponding to four edges of the protrusion, wherein the protrusion has an opening, the opening is formed of two crossing slits, and extending directions of the two crossing slits are respectively parallel to extending directions of two perforated lines in a top view of the backlight module.
A method of managing tasks to be executed by one or more secondary processing elements of a parallel processor having a main memory, one or more central processors and a plurality of secondary processing elements, each secondary processing element having a processor unit and a separate local memory, the method comprising the steps of: under control of a task manager running on each of the secondary processing elements, reading one or more task definitions stored in the main memory into the local memory of a selected secondary processing element, wherein the task definition includes a maximum amount of local store space required for input/output (I/O) direct memory access data, wherein the central processor does not determine which task definition to read into the local memory of the selected secondary processing element and wherein the task manager is operable to manage the storage of data in the local memory of the selected secondary processing element according to the task definitions; based on information contained in the one or more task definitions directing the task manager to main memory addresses corresponding to task parameters and a task code image, loading code and/or data related to the one or more task definitions from the main memory into the local memory of the selected secondary processing element; and performing one or more tasks with the selected secondary processing element using the code and/or data. under control of a task manager running on each of the secondary processing elements, reading one or more task definitions stored in the main memory into the local memory of a selected secondary processing element, wherein the task definition includes a maximum amount of local store space required for input/output (I/O) direct memory access data, wherein the central processor does not determine which task definition to read into the local memory of the selected secondary processing element and wherein the task manager is operable to manage the storage of data in the local memory of the selected secondary processing element according to the task definitions; based on information contained in the one or more task definitions directing the task manager to main memory addresses corresponding to task parameters and a task code image, loading code and/or data related to the one or more task definitions from the main memory into the local memory of the selected secondary processing element; and performing one or more tasks with the selected secondary processing element using the code and/or data.
A photoelectric conversion element comprising: an n-type semiconductor substrate; a p-type amorphous semiconductor film on the side of a first surface and side surface of the semiconductor substrate; an n-type amorphous semiconductor film on the first surface side of the semiconductor substrate; a p-electrode on the p-type amorphous semiconductor film; and an n-electrode on the n-type amorphous semiconductor film, wherein the p-electrode is located on the p-type amorphous semiconductor film, which is placed on the first surface side and side surface of the semiconductor substrate, and characterized in that on the side surface of the semiconductor substrate, the p-type amorphous semiconductor film extends to be longer than the p-electrode. an n-type semiconductor substrate; a p-type amorphous semiconductor film on the side of a first surface and side surface of the semiconductor substrate; an n-type amorphous semiconductor film on the first surface side of the semiconductor substrate; a p-electrode on the p-type amorphous semiconductor film; and an n-electrode on the n-type amorphous semiconductor film, wherein the p-electrode is located on the p-type amorphous semiconductor film, which is placed on the first surface side and side surface of the semiconductor substrate, and characterized in that on the side surface of the semiconductor substrate, the p-type amorphous semiconductor film extends to be longer than the p-electrode.
A cab for a construction machine, wherein the cab is framed by using frame members including hollow column and beam members, and further reinforced by installing a right-angled triangle reinforcing member into a right-angled corner portion that is formed between a column member which is one of the column members and erects from a floor plate of the cab and a lower beam member which is one of the beam members and contacts with the floor plate of the cab; wherein a lower side of the reinforcing member passes through a pass-through portion which is formed to an upper plate of the lower beam member and abuts against a lower plate of the lower beam member; wherein the lower beam member contacts with the floor plate from an upper side; wherein an upper surface of the floor plate is arranged into surface contact with a lower surface of the lower plate of the lower beam member; wherein the lower side of the reinforcing member includes a bent surface portion which is orthogonally bent from a plate surface of the reinforcing member; and wherein the bent surface portion is arranged into surface contact with the lower plate of the lower beam member and supported by the floor plate arranged into surface contact with the lower plate of the lower beam member from a lower side.
A method of tuning a transmission circuit, comprising: sweeping a power frequency range applied to a transmission coil across a plurality of frequencies, wherein the transmission coil is inductively coupled to a receiving coil and separated from the receiving coil by an air gap defined by the receiving coil and the transmission coil; measuring a current through the transmission coil at each frequency of the plurality of frequencies in the power frequency range; and characterised by selecting a transmission frequency in response to detecting a local minima of the measured current at an optimal frequency in the plurality of frequencies, wherein the local minima of the measured current varies as the air gap varies. sweeping a power frequency range applied to a transmission coil across a plurality of frequencies, wherein the transmission coil is inductively coupled to a receiving coil and separated from the receiving coil by an air gap defined by the receiving coil and the transmission coil; measuring a current through the transmission coil at each frequency of the plurality of frequencies in the power frequency range; and characterised by selecting a transmission frequency in response to detecting a local minima of the measured current at an optimal frequency in the plurality of frequencies, wherein the local minima of the measured current varies as the air gap varies.
A tire comprising: a first pattern portion (30, 50) and a second pattern portion (40, 60) on a tire surface, the first pattern portion (30, 50) being formed only of a plurality of first ridges (32, 52) adjacent to each other and the second pattern portion (40, 60) being disposed adjacent to the first pattern portion (30, 50) and formed only of a plurality of second ridges (42, 62) extending in an orthogonal direction from the first ridges (32, 52) in plan view and arranged adjacent to each other, wherein a height of the first ridges (32, 52) and the second ridges (42, 62) is from 0.2 mm to 0.5 mm and the first ridges (32, 52) adjacent to each other and the second ridges (42, 62) adjacent to each other are arranged at a constant pitch of from 0.15 mm to 0.35 mm, and the first pattern portion (30, 50) and the second pattern portion (40, 60) are separated from one another. a first pattern portion (30, 50) and a second pattern portion (40, 60) on a tire surface, the first pattern portion (30, 50) being formed only of a plurality of first ridges (32, 52) adjacent to each other and the second pattern portion (40, 60) being disposed adjacent to the first pattern portion (30, 50) and formed only of a plurality of second ridges (42, 62) extending in an orthogonal direction from the first ridges (32, 52) in plan view and arranged adjacent to each other, wherein a height of the first ridges (32, 52) and the second ridges (42, 62) is from 0.2 mm to 0.5 mm and the first ridges (32, 52) adjacent to each other and the second ridges (42, 62) adjacent to each other are arranged at a constant pitch of from 0.15 mm to 0.35 mm, and the first pattern portion (30, 50) and the second pattern portion (40, 60) are separated from one another.
Fireproof ceramic impact pad with the following features in its functional position: 1.1 a bottom defining an upper impact surface, 1.2 a first wall, extending upwardly from said bottom and providing at least one of the following shapes in a top view: C, U, V, W, E, 3, with opposed free end sections (22, 24) having a minimum distance X1 to each other, 1.3 a second wall, extending upwardly from said bottom and providing at least one of the following shapes in a top view: C, U, V, W, E, 3, with opposed free end sections (32, 34) having a maximum distance X2 to each other, wherein 1.4 X1 being larger than X2, 1.5 the free end sections (32, 34) of the second wall are arranged between the free end sections (22, 24) of the first wall, 1.6 the free end sections (22, 24) of the first wall overlap the free end sections (32, 34) of the second wall in a horizontal direction, to allow 1.7 corresponding outflow channels (40, 50) being formed between adjacent free end sections (22, 24) of said first wall and said second wall, 1.8 which outflow channels (40, 50) are arranged in such a way that the corresponding melt within the impact pad receives a horizontally meandering flow pattern within the impact pad, including a U-turn before flowing out of the impact pad. 1.1 a bottom defining an upper impact surface, 1.2 a first wall, extending upwardly from said bottom and providing at least one of the following shapes in a top view: C, U, V, W, E, 3, with opposed free end sections (22, 24) having a minimum distance X1 to each other, 1.3 a second wall, extending upwardly from said bottom and providing at least one of the following shapes in a top view: C, U, V, W, E, 3, with opposed free end sections (32, 34) having a maximum distance X2 to each other, wherein 1.4 X1 being larger than X2, 1.5 the free end sections (32, 34) of the second wall are arranged between the free end sections (22, 24) of the first wall, 1.6 the free end sections (22, 24) of the first wall overlap the free end sections (32, 34) of the second wall in a horizontal direction, to allow 1.7 corresponding outflow channels (40, 50) being formed between adjacent free end sections (22, 24) of said first wall and said second wall, 1.8 which outflow channels (40, 50) are arranged in such a way that the corresponding melt within the impact pad receives a horizontally meandering flow pattern within the impact pad, including a U-turn before flowing out of the impact pad.
A method of handling conversations between an initiating conversation endpoint and a terminating conversation endpoint over a wide area computer network, the method comprising the steps of: examining an invitation from the initiating conversation endpoint at a conversation router to determine an action based on at least one of information in the invitation and a routing plan of the conversation router; transmitting a request to a service data center based on the action; inspecting the request at the service data center and querying a call objects database to determine whether the conversation is to be recorded; if the conversation is to be recorded, sending a message from the service data center to the conversation router and, at a recorder, recording the conversation; communicating a conversation initiation request to a host media processor upon receipt of the message; establishing at the host media processor a call object in the call objects database based on the conversation initiation request; creating two conversation legs with a first conversation leg between the initiating conversation endpoint, the conversation router, and the host media processor, and a second conversation leg between the host media processor, the conversation router, and the terminating conversation endpoint; and allowing the user to monitor or contribute to the conversation through access to at least one of the two conversation legs by adding a contribution leg. wherein conversation requests and responses that occur during the conversation on one of the two conversation legs are passed to the other of the two conversation legs. examining an invitation from the initiating conversation endpoint at a conversation router to determine an action based on at least one of information in the invitation and a routing plan of the conversation router; transmitting a request to a service data center based on the action; inspecting the request at the service data center and querying a call objects database to determine whether the conversation is to be recorded; if the conversation is to be recorded, sending a message from the service data center to the conversation router and, at a recorder, recording the conversation; communicating a conversation initiation request to a host media processor upon receipt of the message; establishing at the host media processor a call object in the call objects database based on the conversation initiation request; creating two conversation legs with a first conversation leg between the initiating conversation endpoint, the conversation router, and the host media processor, and a second conversation leg between the host media processor, the conversation router, and the terminating conversation endpoint; and allowing the user to monitor or contribute to the conversation through access to at least one of the two conversation legs by adding a contribution leg. wherein conversation requests and responses that occur during the conversation on one of the two conversation legs are passed to the other of the two conversation legs.