mhurhangee/ep-ind-claims huggingface dataset:
Bulk materials having a kinetically limited nano-scale diffusion bond, characterized in that said materials comprise: a transparent non-metal insulator bulk material comprising sapphire having properties that allow an electromagnetic beam of a select wavelength to pass there through without more than minimal energy absorption, wherein the minimal energy absorption is less than 50% of the total energy of the electromagnetic radiation of the electromagnetic beam; an absorbent bulk material comprising titanium having properties that significantly absorb energy from the electromagnetic beam; and a diffusion bond formed by the electromagnetic beam bonding the transparent material to the absorbent material, the diffusion bond having a thickness less than 1000 nm and including an interfacial bond joint region that is less than 200 nm thick and an amorphous diffusion zone that is less than 60 nm thick and within the interfacial bond joint region. a transparent non-metal insulator bulk material comprising sapphire having properties that allow an electromagnetic beam of a select wavelength to pass there through without more than minimal energy absorption, wherein the minimal energy absorption is less than 50% of the total energy of the electromagnetic radiation of the electromagnetic beam; an absorbent bulk material comprising titanium having properties that significantly absorb energy from the electromagnetic beam; and a diffusion bond formed by the electromagnetic beam bonding the transparent material to the absorbent material, the diffusion bond having a thickness less than 1000 nm and including an interfacial bond joint region that is less than 200 nm thick and an amorphous diffusion zone that is less than 60 nm thick and within the interfacial bond joint region.
A combustor of a gas turbine engine comprising: a bulkhead heat shield panel with a refractory metal core microcircuit for receiving a cooling flow, the RMC microcircuit being formed within the bulkhead heat shield panel through a refractory metal core process, wherein said bulkhead panel defines a bend, said RMC microcircuit follows said bend, the combustor further comprising a forward heat shield panel (72F,74F) with a refractory metal core microcircuit for receiving a cooling flow, the RMC microcircuit being formed within the forward heat shield panel through a refractory metal core process, wherein the combustor further comprises a flow swirler in communication with said forward heat shield panel RMC microcircuit and with a diffusion flow (d). a bulkhead heat shield panel with a refractory metal core microcircuit for receiving a cooling flow, the RMC microcircuit being formed within the bulkhead heat shield panel through a refractory metal core process, wherein said bulkhead panel defines a bend, said RMC microcircuit follows said bend, the combustor further comprising a forward heat shield panel (72F,74F) with a refractory metal core microcircuit for receiving a cooling flow, the RMC microcircuit being formed within the forward heat shield panel through a refractory metal core process, wherein the combustor further comprises a flow swirler in communication with said forward heat shield panel RMC microcircuit and with a diffusion flow (d).
A compressor impeller without a through-bore, comprising: an impeller body which includes a boss portion and a plurality of compressor blades disposed on an outer peripheral surface of the boss portion; and a connection portion which is disposed on a side of a back surface of the impeller body and is configured to be connectable to one end of a rotational shaft, wherein a ratio D1/D2 satisfies 0.18 or less, where D1 is a diameter of the boss portion on leading edges of the compressor blades, and D2 is a maximum outer diameter of the compressor blades, wherein the compressor blades include fillet portions (63, 64) in blade root parts of the compressor blades, the fillet portions (63, 64) each being disposed on a connection between the compressor blade and the boss portion, and characterized in that a ratio Σt/L has a maximum value which satisfies 0.5 or more within a range where a meridional length ratio is not less than o and not greater than 0.5, the meridional length ratio indicating a ratio of a length on a meridional plane from the leading edge of each of the compressor blades to an entire length of said each of the compressor blades along the meridional plane of said each of the compressor blades, where t is blade thicknesses of the compressor blades including the fillet portions (63, 64) in the blade root parts, Σt is a total of the blade thicknesses t of the compressor blades in a circumferential direction, and L is a perimeter of the boss portion. a connection portion which is disposed on a side of a back surface of the impeller body and is configured to be connectable to one end of a rotational shaft, wherein a ratio D1/D2 satisfies 0.18 or less, where D1 is a diameter of the boss portion on leading edges of the compressor blades, and D2 is a maximum outer diameter of the compressor blades, wherein the compressor blades include fillet portions (63, 64) in blade root parts of the compressor blades, the fillet portions (63, 64) each being disposed on a connection between the compressor blade and the boss portion, and characterized in that a ratio Σt/L has a maximum value which satisfies 0.5 or more within a range where a meridional length ratio is not less than o and not greater than 0.5, the meridional length ratio indicating a ratio of a length on a meridional plane from the leading edge of each of the compressor blades to an entire length of said each of the compressor blades along the meridional plane of said each of the compressor blades, where t is blade thicknesses of the compressor blades including the fillet portions (63, 64) in the blade root parts, Σt is a total of the blade thicknesses t of the compressor blades in a circumferential direction, and L is a perimeter of the boss portion.
An electric outboard motor for a boat, comprising a main body, a motor, a motor controller, a motor mounting case, a paddle, a paddle shaft, a speed-adjusting handle assembly and a main body overturning locking mechanism; wherein, the motor mounting case is mounted on the main body, the motor and the motor controller are arranged inside the motor mounting case, the motor is electrically connected with the motor controller, one end of the paddle shaft is arranged in the main body, the other end extends out of the main body and is sleeved with the paddle, and a motor shaft of the motor is in transmission connection with one end of the paddle shaft through a transmission component; the speed-adjusting handle assembly is hinged on the motor mounting case, the speed-adjusting handle assembly includes a handle shell, a potentiometer and a potentiometer mounting board, the potentiometer and the potentiometer mounting board are both arranged in the handle shell, the potentiometer is electrically connected with the motor controller, and the potentiometer is mounted on the potentiometer mounting board; the main body overturning locking mechanism includes a spindle mounting base, a mounting hook and a first spindle, and the spindle mounting base is connected with the main body in a rotation manner through the first spindle; the speed-adjusting handle assembly further includes a speed-adjusting handle spindle, an axle sleeve, a handle sleeve, a button, a spring and a stop block; one end of the handle shell is fixedly connected with the stop block, the handle sleeve abuts against a stepped face of the stop block, the speed-adjusting handle spindle is arranged in the handle shell and connected with the handle shell in a rotation manner, one end of the speed-adjusting handle spindle is inserted into one end of the axle sleeve and connected with the axle sleeve through a first pin, the other end of the axle sleeve is fixedly connected with the button, the axle sleeve is connected with the stop block in a rotation manner, and the axle sleeve is connected with the handle sleeve through a second pin; a potentiometer adjusting pole axle hole is defined on the other end of the speed-adjusting handle spindle, an adjusting pole of the potentiometer is inserted into the potentiometer adjusting pole axle hole of the speed-adjusting handle spindle, the spring is sleeved at the periphery of the speed-adjusting handle spindle, and one end of the spring abuts against an axle bumper on the speed-adjusting handle spindle or a collar arranged on the speed-adjusting handle spindle, and the other end abuts against one end of the axle sleeve; a radial limit slot and an axial stop projection are defined on an end surface of one end of the stop block, the first pin abuts against the limit slot of the stop block, the handle sleeve is rotated after the button is pushed, and the first pin is disengaged from the limit slot of the stop block and can abut against the stop projection.
An epoxy resin, comprising a first epoxy compound having a mesogenic structure and a second epoxy compound having two or more mesogenic structures that are the same as the mesogenic structure of the first epoxy compound, a proportion, determined by liquid chromatography as indicated in the description, of the first epoxy compound being from 40% to 50% with respect to a total amount of the epoxy resin, and an epoxy equivalent amount of the epoxy resin being 245 g/eq to 500 g/eq, determined by perchloric acid titration as indicated in the description. a proportion, determined by liquid chromatography as indicated in the description, of the first epoxy compound being from 40% to 50% with respect to a total amount of the epoxy resin, and an epoxy equivalent amount of the epoxy resin being 245 g/eq to 500 g/eq, determined by perchloric acid titration as indicated in the description.
Machine to prepare beverages comprising at least a source of water, fluidly connected, by means of a circuit, to a filtering container suitable to contain an aromatic mixture positionable on each occasion and to be subjected to brewing, wherein said machine comprises a pump disposed along the circuit to feed the water from said source to said filtering container, a heating device for the water, temperature sensor means suitable to measure the temperature of the water in said circuit downstream of said heating device, and a control and command unit, functionally connected to a user interface for the selection of a type and a quantity of beverage to be prepared, and configured to receive the data detected by said temperature sensor means and to condition the functioning of said pump and said heating device, optimizing the temperature of the heated water, characterized in that said heating device comprises a boiler provided with a conduit defining inside it a transit channel for the water and comprising a first smaller branch and a second larger branch, wherein said second larger branch develops along a substantially vertical direction and is disposed downstream of said smaller branch along the path from said source to said filtering container, wherein said smaller branch has at least one substantially horizontal segment, having an angle with respect to said larger branch.
A method for transmitting uplink data in a licensed-assisted access, LAA, system, comprising: receiving mode configuration indication information sent by a network device, wherein the mode configuration indication information is used to indicate that a synchronous hybrid automatic repeat request, HARQ, mode and an asynchronous HARQ mode are configured for uplink transmission of user equipment on an unlicensed carrier; and performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode and according to the mode configuration indication information; wherein the performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode comprises: retransmitting uplink data by using the asynchronous HARQ mode when it is determined that a needed resource has not been obtained through contention, wherein the needed resource is a resource that is on the unlicensed carrier and that is needed when the uplink data is retransmitted according to the synchronous HARQ mode. receiving mode configuration indication information sent by a network device, wherein the mode configuration indication information is used to indicate that a synchronous hybrid automatic repeat request, HARQ, mode and an asynchronous HARQ mode are configured for uplink transmission of user equipment on an unlicensed carrier; and performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode and according to the mode configuration indication information; wherein the performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode comprises: retransmitting uplink data by using the asynchronous HARQ mode when it is determined that a needed resource has not been obtained through contention, wherein the needed resource is a resource that is on the unlicensed carrier and that is needed when the uplink data is retransmitted according to the synchronous HARQ mode.
Top box for a ridable saddle vehicle, comprising: - a container body (11, 12) including a base and a cover operatively connected to the base, the base comprising a bottom and a side wall joined perimetrically to the bottom, the bottom and the side wall at least partially define a storage compartment, the side wall having an edge which defines an access opening to the storage compartment opposite the bottom; and - a fixing assembly arranged on said bottom and configured to fix the top box to a luggage carrier which comprises at least one mounting portion; wherein said fixing assembly is configured to assume a release configuration, in which it allows to couple/decouple the top box to/from said luggage carrier, and a fixing configuration, in which it allows to fix the top box to said luggage carrier; wherein said fixing assembly comprises: - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion; - locking means (51, 52) suitable for locking the fixing assembly in the fixing configuration; wherein the locking means (51, 52) comprise a first locking element associated to the bottom of the top box and having an actuation portion (51A, 51B) accessible from the storage compartment, and a second conjugate locking element which is associated with the fixing member and it is suitable for coupling with the first locking element when the fixing assembly assumes the fixing configuration, characterised in that said fixing member is rotatably hinged to said bottom through connection elements (61, 62). - a container body (11, 12) including a base and a cover operatively connected to the base, the base comprising a bottom and a side wall joined perimetrically to the bottom, the bottom and the side wall at least partially define a storage compartment, the side wall having an edge which defines an access opening to the storage compartment opposite the bottom; and - a fixing assembly arranged on said bottom and configured to fix the top box to a luggage carrier which comprises at least one mounting portion; wherein said fixing assembly is configured to assume a release configuration, in which it allows to couple/decouple the top box to/from said luggage carrier, and a fixing configuration, in which it allows to fix the top box to said luggage carrier; wherein said fixing assembly comprises: - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion; - locking means (51, 52) suitable for locking the fixing assembly in the fixing configuration; - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion; - locking means (51, 52) suitable for locking the fixing assembly in the fixing configuration;
A mount system comprising: a first body (22, 24); a second body connected with the first body (22, 24); a pair of load spreaders (61, 62) configured to distribute loads, and a splice plate connected with the load spreaders (61, 62), each disposed on the first body (22, 24),with a first opening defined by the splice plate; a coupling element (56, 58) on the second body, with a second opening defined by the coupling element (56, 58); and a pin (71, 73) extending through the first and second openings (170, 172) to couple the first body (22, 24) to the second body; wherein at least one of the first opening or the second opening comprises a damping hole with a series of slits disposed about the damping hole, so that the damping hole with the slits is configured to reduce the transmission of vibrations between the first body (22, 24) and the second body. a first body (22, 24); a second body connected with the first body (22, 24); a pair of load spreaders (61, 62) configured to distribute loads, and a splice plate connected with the load spreaders (61, 62), each disposed on the first body (22, 24),with a first opening defined by the splice plate; a coupling element (56, 58) on the second body, with a second opening defined by the coupling element (56, 58); and a pin (71, 73) extending through the first and second openings (170, 172) to couple the first body (22, 24) to the second body; wherein at least one of the first opening or the second opening comprises a damping hole with a series of slits disposed about the damping hole, so that the damping hole with the slits is configured to reduce the transmission of vibrations between the first body (22, 24) and the second body.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, release message including information configuring an RRC inactive state; resetting a medium access control, MAC, entity based on the information; suspending all signaling radio bearers, SRBs, and all data radio bearers, DRBs, except for an SRBO based on the information; performing operations for the all DRBs based on the information, wherein the operations comprise: setting a state variable of a packet data convergence protocol, PDCP, entity to an initial value, and discarding all stored PDCP protocol data units, PDUs, of the PDCP entity; and entering the RRC inactive state based on the information. receiving, from a base station, a radio resource control, RRC, release message including information configuring an RRC inactive state; resetting a medium access control, MAC, entity based on the information; suspending all signaling radio bearers, SRBs, and all data radio bearers, DRBs, except for an SRBO based on the information; performing operations for the all DRBs based on the information, wherein the operations comprise: setting a state variable of a packet data convergence protocol, PDCP, entity to an initial value, and discarding all stored PDCP protocol data units, PDUs, of the PDCP entity; and setting a state variable of a packet data convergence protocol, PDCP, entity to an initial value, and discarding all stored PDCP protocol data units, PDUs, of the PDCP entity; and entering the RRC inactive state based on the information.
An ultrasonic probe comprising: a transducer module configured to transmit and receive an ultrasonic signal; a housing configured to accommodate the transducer module; a cable connected to the transducer module inside the housing and drawn from the inside of the housing to the outside of the housing through an end of the housing; a bending device configured to cover the cable and connected to the end of the housing to receive heat; a strain relief configured to surround the bending device and including a heat radiation groove extending along a circumferential direction of the cable; and a heat radiation fin inserted into the heat radiation groove such that one end thereof is in contact with the bending device and the other end thereof is in contact with outside air, characterized in that the bending device is configured to be bendable in a first direction and in a second direction crossing the first direction. a transducer module configured to transmit and receive an ultrasonic signal; a housing configured to accommodate the transducer module; a cable connected to the transducer module inside the housing and drawn from the inside of the housing to the outside of the housing through an end of the housing; a bending device configured to cover the cable and connected to the end of the housing to receive heat; a strain relief configured to surround the bending device and including a heat radiation groove extending along a circumferential direction of the cable; and a heat radiation fin inserted into the heat radiation groove such that one end thereof is in contact with the bending device and the other end thereof is in contact with outside air,
A transducer system comprising: a panel comprising one or more piezo-electric sheets [13;13A;13B] and an arrangement of electric contacts coupled to said panel and configured to define one or more transducers in said panel; wherein at least one transducer of said one or more transducers, being located in the panel at a respective region, includes a lateral arrangement of at least two electric contacts [12A, 12B] respectively coupled to at least two lateral zones of said respective region of the transducer and including at least a first and a second electric contacts coupled respectively near a periphery and a central zones of said respective region; and wherein said lateral arrangement of the at least two electric contacts is configured and operable to enable provision of different electric fields in said at least two lateral zones for simultaneously causing different degrees of piezo-electric material deformation of said at least two lateral zones and thereby efficiently deforming said respective region of the panel to curve a surface of said region, for causing at least one of the following: conversion of electrical signals to mechanical vibrations and conversion of mechanical vibrations to electrical signals. a panel comprising one or more piezo-electric sheets [13;13A;13B] and an arrangement of electric contacts coupled to said panel and configured to define one or more transducers in said panel; wherein at least one transducer of said one or more transducers, being located in the panel at a respective region, includes a lateral arrangement of at least two electric contacts [12A, 12B] respectively coupled to at least two lateral zones of said respective region of the transducer and including at least a first and a second electric contacts coupled respectively near a periphery and a central zones of said respective region; and wherein said lateral arrangement of the at least two electric contacts is configured and operable to enable provision of different electric fields in said at least two lateral zones for simultaneously causing different degrees of piezo-electric material deformation of said at least two lateral zones and thereby efficiently deforming said respective region of the panel to curve a surface of said region, for causing at least one of the following: conversion of electrical signals to mechanical vibrations and conversion of mechanical vibrations to electrical signals.