mhurhangee/ep-ind-claims huggingface dataset:
A thermal transfer device for producing a thermal transfer between an energy store and a temperature-control plate for the temperature control of the energy store with the following features: a thermal insulation layer made of an insulation material distributed unevenly over the thermal insulation layer; and a tolerance compensating layer made of a compressible material for compensating different material thicknesses of the thermal insulation layer. a thermal insulation layer made of an insulation material distributed unevenly over the thermal insulation layer; and a tolerance compensating layer made of a compressible material for compensating different material thicknesses of the thermal insulation layer.
A plasma accelerator comprising: - an electrically conductive discharge chamber with an open end, - means for introducing ionizable propellant inside the discharge chamber, - an active cathode configured to emit electrons for ionizing the propellant and neutralizing outflowing ions, the active cathode placed outside the discharge chamber, - a cathode grid being a passive cathode placed after the open end of the discharge chamber, - an electrically conductive control grid placed after the cathode grid, - power supply means configured to apply: a potential (V CT) between the control grid and the active cathode for controlling thrust of outflowing plasma stream through the open end of the discharge chamber; characterised in that said power supply means is further configured to apply: a potential (V AC) between the active cathode and the discharge chamber for accelerating electrons into the open end of the chamber and ions towards the open end of the discharge chamber and, a potential (V DS) between the discharge chamber and the cathode grid for imparting an electric field between the discharge chamber and the cathode grid; and in that the active cathode, the cathode grid and the control grid are arranged so as to introduce electrons emitted from the active cathode into the discharge chamber through the control grid and the cathode grid. - an electrically conductive discharge chamber with an open end, - means for introducing ionizable propellant inside the discharge chamber, - an active cathode configured to emit electrons for ionizing the propellant and neutralizing outflowing ions, the active cathode placed outside the discharge chamber, - a cathode grid being a passive cathode placed after the open end of the discharge chamber, - an electrically conductive control grid placed after the cathode grid, - power supply means configured to apply: a potential (V CT) between the control grid and the active cathode for controlling thrust of outflowing plasma stream through the open end of the discharge chamber; a potential (V AC) between the active cathode and the discharge chamber for accelerating electrons into the open end of the chamber and ions towards the open end of the discharge chamber and, a potential (V DS) between the discharge chamber and the cathode grid for imparting an electric field between the discharge chamber and the cathode grid; and in that the active cathode, the cathode grid and the control grid are arranged so as to introduce electrons emitted from the active cathode into the discharge chamber through the control grid and the cathode grid.
A radioactive diagnostic imaging agent, which comprises a solution of a radioactive fluorine-labeled amino acid compound represented by the following formula: wherein the solution has a pH value adjusted to 2.0-5.9 with hydrochloric acid.
Process for treating hair fibres, comprising the following steps in the successive following order: (i) combing the hair fibres, (ii) applying a composition to the hair fibres, (iii) treating the hair fibres by applying steam, (iv) heat-treating the hair fibres by conduction and/or radiation, wherein the successive steps are carried out using a single tool. (i) combing the hair fibres, (ii) applying a composition to the hair fibres, (iii) treating the hair fibres by applying steam, (iv) heat-treating the hair fibres by conduction and/or radiation,
Laser amplifier arrangement, comprising: an optical pump source for emitting pump radiation, and an axially arranged laser oscillator/amplifier configuration, which can be pumped by the pump radiation, wherein the laser oscillator/amplifier configuration has a laser oscillator, which can be excited by a portion of the pump radiation to emit a laser beam, and a laser amplifier, which is configured to receive both the laser beam and pump radiation so as to amplify the laser beam by means of the pump radiation, wherein the pump source is configured to introduce the pump radiation into the laser amplifier configuration at a first longitudinal end of the laser amplifier configuration, which is located opposite a second longitudinal end of the laser amplifier configuration at which amplified laser radiation emerges, and wherein the laser oscillator and the laser amplifier are arranged coaxially or collinearly with respect to a longitudinal axis of the laser oscillator/amplifier configuration, characterised in that the pump source has at least one first beam source for generating first pump radiation for pumping the laser oscillator, at least one second beam source for generating second pump radiation for the laser amplifier, and a common pump radiation guiding device for guiding both the first and the second pump radiation, by means of which both the first and the second pump radiation can be introduced into the laser oscillator/amplifier configuration at the first longitudinal end for longitudinal pumping in the same direction of the longitudinal axis. an optical pump source for emitting pump radiation, and an axially arranged laser oscillator/amplifier configuration, which can be pumped by the pump radiation, wherein the laser oscillator/amplifier configuration has a laser oscillator, which can be excited by a portion of the pump radiation to emit a laser beam, and a laser amplifier, which is configured to receive both the laser beam and pump radiation so as to amplify the laser beam by means of the pump radiation, wherein the pump source is configured to introduce the pump radiation into the laser amplifier configuration at a first longitudinal end of the laser amplifier configuration, which is located opposite a second longitudinal end of the laser amplifier configuration at which amplified laser radiation emerges, and wherein the laser oscillator and the laser amplifier are arranged coaxially or collinearly with respect to a longitudinal axis of the laser oscillator/amplifier configuration, characterised in that the pump source has at least one first beam source for generating first pump radiation for pumping the laser oscillator, at least one second beam source for generating second pump radiation for the laser amplifier, and a common pump radiation guiding device for guiding both the first and the second pump radiation, by means of which both the first and the second pump radiation can be introduced into the laser oscillator/amplifier configuration at the first longitudinal end for longitudinal pumping in the same direction of the longitudinal axis.
Method for manufacturing a household appliance component for a household appliance, in which the household appliance component is made from plastic, wherein the household appliance component is manufactured by injection-moulding and in an injection-moulding process a thin-wall injection-moulding combined with a cascade moulding is carried out at least in some phases, wherein the thin-wall injection-moulding is carried out at a wall thickness-flow path ratio of between greater than 1:200 and 1:300 and the household refrigeration appliance component is manufactured by combining the thin-wall injection-moulding and the cascade moulding with a wall thickness of less than 1.5 mm.
A radar device for detecting a target, comprising: two or more transmitting antennas (A T1, A T2) and two or more receiving antennas (A R1... A RN), including a combination of two or more transmitting antennas and receiving antennas that form two or more reference paths (A T1 and A RN, A T2 and A R1) at which spatial phases become identical; an envelope detection unit arranged to acquire an envelope of a reception signal received by the receiving antenna in each of the reference paths; a determination unit arranged to determine a phase correction amount between the reference paths (A T1 and A RN, A T2 and A R1) from a timing when an integrated distance (dist(τ)) between envelopes of the reception signals of the reference paths becomes a minimum value, wherein the integrated distance corresponds to a difference between time functions of the envelopes of the reception signals of the reference paths, integrated over a time interval; and a correction unit arranged to align phases of all reception signals received by the two or more receiving antennas (A R1... A RN), using the phase correction amount. two or more transmitting antennas (A T1, A T2) and two or more receiving antennas (A R1... A RN), including a combination of two or more transmitting antennas and receiving antennas that form two or more reference paths (A T1 and A RN, A T2 and A R1) at which spatial phases become identical; an envelope detection unit arranged to acquire an envelope of a reception signal received by the receiving antenna in each of the reference paths; a determination unit arranged to determine a phase correction amount between the reference paths (A T1 and A RN, A T2 and A R1) from a timing when an integrated distance (dist(τ)) between envelopes of the reception signals of the reference paths becomes a minimum value, wherein the integrated distance corresponds to a difference between time functions of the envelopes of the reception signals of the reference paths, integrated over a time interval; and a correction unit arranged to align phases of all reception signals received by the two or more receiving antennas (A R1... A RN), using the phase correction amount.
A breakout assembly, comprising: a housing; a retaining member configured to attach to a first end of the housing and receive a fiber optic cable; and a breakout head insertable into a second end of the housing, the breakout head characterized by: multiple holes configured to retain furcation tubes through the second end of the housing and pass individual pairs of optical fibers from the fiber optic cable through the furcation tubes, and front and back inner chambers (80,82) each filled with epoxy to encapsulate and hold the individual furcation tubes inside of the holes in the breakout head. a housing; a retaining member configured to attach to a first end of the housing and receive a fiber optic cable; and a breakout head insertable into a second end of the housing, the breakout head characterized by: multiple holes configured to retain furcation tubes through the second end of the housing and pass individual pairs of optical fibers from the fiber optic cable through the furcation tubes, and front and back inner chambers (80,82) each filled with epoxy to encapsulate and hold the individual furcation tubes inside of the holes in the breakout head.
A light-emitting diode, LED, comprising: a substrate; a carrier confinement,CC, region positioned over the substrate, the CC region defining: a first CC layer comprising indium gallium phosphide; and a second CC layer positioned over the first CC layer, the second CC layer comprising gallium arsenide phosphide; an active region positioned over the CC region; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has a phosphorous composition between 25% and 80%; and a second barrier layer positioned over the active region, wherein the second barrier layer has a phosphorous composition between 40% and 50%; wherein the active region comprises indium gallium arsenide and has an indium composition between 10% and 35%, and has a thickness between 5 and 15 nm, and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps). a substrate; a carrier confinement,CC, region positioned over the substrate, the CC region defining: a first CC layer comprising indium gallium phosphide; and a second CC layer positioned over the first CC layer, the second CC layer comprising gallium arsenide phosphide; an active region positioned over the CC region; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has a phosphorous composition between 25% and 80%; and a second barrier layer positioned over the active region, wherein the second barrier layer has a phosphorous composition between 40% and 50%; wherein the active region comprises indium gallium arsenide and has an indium composition between 10% and 35%, and has a thickness between 5 and 15 nm, and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps). a first CC layer comprising indium gallium phosphide; and a second CC layer positioned over the first CC layer, the second CC layer comprising gallium arsenide phosphide; an active region positioned over the CC region; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has a phosphorous composition between 25% and 80%; and a second barrier layer positioned over the active region, wherein the second barrier layer has a phosphorous composition between 40% and 50%; wherein the active region comprises indium gallium arsenide and has an indium composition between 10% and 35%, and has a thickness between 5 and 15 nm, and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps).
A hybrid construction machine comprising: an engine; a hydraulic pump driven with the engine; a hydraulic working unit driven with pressure oil discharged from the hydraulic pump; a motor generator that transmits torque to the engine, and performs motive-power assistance to the engine and power generation; a power storage device that supplies/receives electric power to/from the motor generator; an engine rotation speed detection unit that detects a rotation speed of the engine; an engine state determination unit that determines a state of output torque of the engine; and a load torque detection unit that detects load torque of the hydraulic pump, characterized in that the hybrid construction machine is provided with an engine assistance limiting unit that, when the rotation speed of the engine detected with the engine rotation speed detection unit is equal to or greater than a predetermined rotation speed which is set to a rotation speed lower than a rotation speed during idling, and the engine state determination unit determines that the output torque of the engine has not become predetermined minimum torque which is set as an output torque during idling, limits the motive-power assistance with the motor generator to the engine, or when the load torque of the hydraulic pump detected with the load torque detection unit is lower than predetermined torque which is set to maximum output torque of the engine, limits the motive-power assistance with the motor generator to the engine. an engine; a hydraulic pump driven with the engine; a hydraulic working unit driven with pressure oil discharged from the hydraulic pump; a motor generator that transmits torque to the engine, and performs motive-power assistance to the engine and power generation; a power storage device that supplies/receives electric power to/from the motor generator; an engine rotation speed detection unit that detects a rotation speed of the engine; an engine state determination unit that determines a state of output torque of the engine; and a load torque detection unit that detects load torque of the hydraulic pump, characterized in that the hybrid construction machine is provided with an engine assistance limiting unit that, when the rotation speed of the engine detected with the engine rotation speed detection unit is equal to or greater than a predetermined rotation speed which is set to a rotation speed lower than a rotation speed during idling, and the engine state determination unit determines that the output torque of the engine has not become predetermined minimum torque which is set as an output torque during idling, limits the motive-power assistance with the motor generator to the engine, or when the load torque of the hydraulic pump detected with the load torque detection unit is lower than predetermined torque which is set to maximum output torque of the engine, limits the motive-power assistance with the motor generator to the engine.
A pneumatic tire comprising: a decoration band formed on an outer surface of a sidewall portion, extending in a tire circumferential direction and comprising a plurality of recesses (2a, 2b, 2c, 2d) and land portions (3a, 3b, 3c) defined between the recesses (2a, 2b, 2c, 2d); and a plurality of ridges provided in each recess (2a, 2b, 2c, 2d); wherein at least a portion of the ridges each have a bending point (5a, 5b), characterised by, in a side view of the pneumatic tire, the bending points (5a, 5b) being arranged along a boundary line between the recess (2a, 2b, 2c, 2d) and the land portion (3a, 3b, 3c). a decoration band formed on an outer surface of a sidewall portion, extending in a tire circumferential direction and comprising a plurality of recesses (2a, 2b, 2c, 2d) and land portions (3a, 3b, 3c) defined between the recesses (2a, 2b, 2c, 2d); and a plurality of ridges provided in each recess (2a, 2b, 2c, 2d); wherein at least a portion of the ridges each have a bending point (5a, 5b), characterised by, in a side view of the pneumatic tire, the bending points (5a, 5b) being arranged along a boundary line between the recess (2a, 2b, 2c, 2d) and the land portion (3a, 3b, 3c).
1. A method of continuously preparing an organometallic compound comprising: (a) providing an apparatus comprising a reactor unit, the reactor unit comprising a plurality of mixing zones and one or more heat transfer zones; (b) continuously delivering a first reactant stream and a second reactant stream to a contacting zone with laminar flow to form a reaction mixture stream, wherein the first reactant stream and the second reactant stream are cocurrent and have substantially laminar flows, and wherein the first reactant is a metal-containing compound; (c) conveying the reaction mixture stream from the laminar flow mixing zone to a heat transfer zone, and then to a mixing zone comprising a turbulence-promoting device; (d) causing the reaction mixture stream to form an organometallic compound product stream; (e) controlling the temperature and pressure of the product stream in the heat transfer zone so as to maintain a majority of the organometallic compound in a liquid phase; and (f) conveying the product stream to a separation unit to isolate the organometallic compound. (a) providing an apparatus comprising a reactor unit, the reactor unit comprising a plurality of mixing zones and one or more heat transfer zones; (b) continuously delivering a first reactant stream and a second reactant stream to a contacting zone with laminar flow to form a reaction mixture stream, wherein the first reactant stream and the second reactant stream are cocurrent and have substantially laminar flows, and wherein the first reactant is a metal-containing compound; (c) conveying the reaction mixture stream from the laminar flow mixing zone to a heat transfer zone, and then to a mixing zone comprising a turbulence-promoting device; (d) causing the reaction mixture stream to form an organometallic compound product stream; (e) controlling the temperature and pressure of the product stream in the heat transfer zone so as to maintain a majority of the organometallic compound in a liquid phase; and (f) conveying the product stream to a separation unit to isolate the organometallic compound.
A concentrated grape juice as wine raw material, which is obtainable by a process for producing a concentrated grape juice as wine raw material, wherein a concentrated grape juice refers to a juice obtained by concentrating a liquid from grape pressing by means such as heating or evacuation, to a sugar concentration of 40% or higher, preferably 60% or higher, the process comprising: a pressing step of pressing a grape fruit to obtain a juice, a concentration step of concentrating the pressed grape juice, a step of bubbling a sulfurous acid gas through or adding a sulfite salt to the concentrated grape juice, and a step of storing the concentrated grape juice with a sulfurous acid gas bubbled therethrough or with a sulfite salt added thereto, at a temperature of 20 °C or lower, wherein the process does not comprise a step of bubbling a sulfurous acid gas or adding a sulfite salt at an amount for stabilizing a stored fruit juice before concentration of the pressed grape juice, wherein the amount for stabilizing a stored fruit juice is 200 ppm or higher in terms of sulfurous acid. a pressing step of pressing a grape fruit to obtain a juice, a concentration step of concentrating the pressed grape juice, a step of bubbling a sulfurous acid gas through or adding a sulfite salt to the concentrated grape juice, and a step of storing the concentrated grape juice with a sulfurous acid gas bubbled therethrough or with a sulfite salt added thereto, at a temperature of 20 °C or lower, wherein the process does not comprise a step of bubbling a sulfurous acid gas or adding a sulfite salt at an amount for stabilizing a stored fruit juice before concentration of the pressed grape juice, wherein the amount for stabilizing a stored fruit juice is 200 ppm or higher in terms of sulfurous acid.