mhurhangee/ep-ind-claims huggingface dataset:
A refrigeration cycle apparatus, comprising: a main refrigerant circuit formed by connecting a compressor, a first heat exchanger, a first expansion valve, and a second heat exchanger; a branch circuit formed by connecting the first heat exchanger, a primary side of a subcooling heat exchanger installed on a downstream side of refrigerant flow in a case where the first heat exchanger serves as a condenser, a second expansion valve, and the second heat exchanger; and an injection circuit formed by connecting, with an injection pipe branching from a downstream side of the primary side of the subcooling heat exchanger, a third expansion valve, a secondary side of the subcooling heat exchanger, and the compressor, the refrigeration cycle apparatus being operable in a normal operation mode of causing the refrigerant to flow through the main refrigerant circuit; and a high-outside-air-temperature operation mode of causing the refrigerant to flow through the branch circuit and the injection circuit to use the subcooling heat exchanger, and of injecting the refrigerant having flowed through the secondary side of the subcooling heat exchanger into the compressor, the refrigeration cycle apparatus being configured to perform the high-outside-air-temperature operation mode when an outside-air temperature is equal to or higher than a predetermined temperature. a main refrigerant circuit formed by connecting a compressor, a first heat exchanger, a first expansion valve, and a second heat exchanger; a branch circuit formed by connecting the first heat exchanger, a primary side of a subcooling heat exchanger installed on a downstream side of refrigerant flow in a case where the first heat exchanger serves as a condenser, a second expansion valve, and the second heat exchanger; and an injection circuit formed by connecting, with an injection pipe branching from a downstream side of the primary side of the subcooling heat exchanger, a third expansion valve, a secondary side of the subcooling heat exchanger, and the compressor, the refrigeration cycle apparatus being operable in a normal operation mode of causing the refrigerant to flow through the main refrigerant circuit; and a high-outside-air-temperature operation mode of causing the refrigerant to flow through the branch circuit and the injection circuit to use the subcooling heat exchanger, and of injecting the refrigerant having flowed through the secondary side of the subcooling heat exchanger into the compressor, a normal operation mode of causing the refrigerant to flow through the main refrigerant circuit; and a high-outside-air-temperature operation mode of causing the refrigerant to flow through the branch circuit and the injection circuit to use the subcooling heat exchanger, and of injecting the refrigerant having flowed through the secondary side of the subcooling heat exchanger into the compressor, the refrigeration cycle apparatus being configured to perform the high-outside-air-temperature operation mode when an outside-air temperature is equal to or higher than a predetermined temperature.
A high-strength steel product comprising a composition consisting of, in terms of weight percentages (wt. %): C 0.02 - 0.05, preferably 0.03 - 0.045 Si 0.1 - 0.6, preferably 0.2 - 0.6, more preferably 0.3 - 0.5 Mn 1.1 - 2.0, preferably 1.35 - 1.8 Al 0.01 - 0.15, preferably 0.02 - 0.06 Nb 0.01 - 0.08, preferably 0.025 - 0.05 Cu ≤ 0.5, preferably 0.15 - 0.35 Cr ≤ 0.5, preferably 0.1 - 0.25 Ni ≤ 0.7, preferably 0.1 - 0.25 Ti ≤ 0.03, preferably 0.005 - 0.03 Mo ≤ 0.1 V ≤ 0.1, preferably ≤ 0.05 B ≤ 0.0005 P ≤ 0.015, preferably ≤ 0.012 S ≤ 0.005 remainder Fe and inevitable impurities, wherein the steel product has a microstructure consisting of, in terms of volume percentages (vol. %): quasi-polygonal ferrite 40 - 80 polygonal ferrite 20-40 bainite ≤ 20 pearlite and martensite ≤ 20, preferably ≤ 5, more preferably ≤ 2 and the following mechanical properties: an yield strength of at least 400 MPa, an ultimate tensile strength of at least 500 MPa, a Charpy-V impact toughness of at least 34 J/cm 2, preferably at least 150 J/cm 2, more preferably at least 300 J/cm 2 at a temperature in the range of -50 °C to -100 °C.
A process for preparing a silicon carbide powder by heating a mixture in a non-oxidizing atmosphere, wherein in the mixture containing a silicon source, a carbon source, and a catalyst, the silicon source is methyl silicate, and when the mixture is represented by 100 weight %, a weight percentage of the carbon source is 34.5 weight % or more but 38 weight % or less, a weight percentage of the silicon source is 57 weight % or more but 61 weight % or less, and a weight percentage of the catalyst is 3 weight % or more but 8weight % or less, the carbon source is phenolic resin, and the catalyst is maleic acid and derivatives thereof. a weight percentage of the carbon source is 34.5 weight % or more but 38 weight % or less, a weight percentage of the silicon source is 57 weight % or more but 61 weight % or less, and a weight percentage of the catalyst is 3 weight % or more but 8weight % or less,
An article of footwear, comprising: a sole structure including a midsole and an outsole; and an upper connected to the sole structure and forming a void for receiving a foot of a wearer, the upper including: a) a first portion formed of a thermoplastic elastomer material as multiple, successive layers of fuse bonded particles of the thermoplastic elastomer material in a rapid manufacturing additive fabrication technique, and b) a first reinforced region engaged with the first portion of the upper by adhesive, stitching, or a mechanical fastener, the first reinforced region including a material selected from plastic, metal, leather, and textile materials. a sole structure including a midsole and an outsole; and an upper connected to the sole structure and forming a void for receiving a foot of a wearer, the upper including: a) a first portion formed of a thermoplastic elastomer material as multiple, successive layers of fuse bonded particles of the thermoplastic elastomer material in a rapid manufacturing additive fabrication technique, and b) a first reinforced region engaged with the first portion of the upper by adhesive, stitching, or a mechanical fastener, the first reinforced region including a material selected from plastic, metal, leather, and textile materials. a) a first portion formed of a thermoplastic elastomer material as multiple, successive layers of fuse bonded particles of the thermoplastic elastomer material in a rapid manufacturing additive fabrication technique, and b) a first reinforced region engaged with the first portion of the upper by adhesive, stitching, or a mechanical fastener, the first reinforced region including a material selected from plastic, metal, leather, and textile materials.
A method, comprising: sending, from a first device to a radio network node, a request to initiate device-to-device communication with a second device, the request comprising an identification of the second device and a first indicator indicating an intention of a device-to-device type of the communication, wherein the request further comprises a second indicator indicative of a preferred radio access technology to be used by the device-to-device communication; receiving, from the radio network node, a resource allocation, wherein the resources are allocated based on the second indicator; and transmitting service contents in the device-to-device communication directly between the first device and the second device using allocated resources. sending, from a first device to a radio network node, a request to initiate device-to-device communication with a second device, the request comprising an identification of the second device and a first indicator indicating an intention of a device-to-device type of the communication, wherein the request further comprises a second indicator indicative of a preferred radio access technology to be used by the device-to-device communication; receiving, from the radio network node, a resource allocation, wherein the resources are allocated based on the second indicator; and transmitting service contents in the device-to-device communication directly between the first device and the second device using allocated resources.
An inhaler add-on device for add-on to an inhaler for dispensing a medicament to be inhaled, the inhaler add-on device comprising - a housing comprising an air inlet (A_I), and an air outlet (A_O), wherein the housing defines a flow path between the air inlet (A_I) and air outlet (A_O), wherein the housing is configured for connection to the inhaler, and - a first passive acoustic element arranged in the flow path inside the housing and dimensioned such that air flow passing the first passive acoustic element will generate sound with pre-determined characteristics depending on flow speed of air passing the first passive acoustic element, so as to allow acoustic monitoring of air flow passing the first passive acoustic element external to the housing, wherein the first passive acoustic element is a non-vibrating structure having two or more gaps arranged to be passed by the air flow, wherein the movement of air passing the two or more gaps of the passive acoustic element generates the sound, and wherein the two or more gaps are shaped and separated by a distance such that the sound has predetermined characteristics, comprising at least two spectral peaks, optionally 2-4 spectral peaks, depending on said flow speed of the air passing the first passive acoustic element, and wherein the sound varies in dependence of the air flow speed by variation in frequency, and optionally amplitude, of the at least two spectral peaks. - a housing comprising an air inlet (A_I), and an air outlet (A_O), wherein the housing defines a flow path between the air inlet (A_I) and air outlet (A_O), wherein the housing is configured for connection to the inhaler, and - a first passive acoustic element arranged in the flow path inside the housing and dimensioned such that air flow passing the first passive acoustic element will generate sound with pre-determined characteristics depending on flow speed of air passing the first passive acoustic element, so as to allow acoustic monitoring of air flow passing the first passive acoustic element external to the housing,
A modularly built vessel comprising: - a main strength frame and a separately built floating body, wherein the main strength frame and the floating body are rigidly connected to create one vessel, wherein at least one, preferably at least two propulsion units are attached to the main strength frame, wherein the main strength frame is supported by the floating body wherein the vessel is a workboat, especially a push tug, and is provided with push supports mounted to the main strength frame, and wherein driving force of the or each propulsion unit during use is transmitted directly to the main strength frame, without intervention of the floating body, wherein the main strength frame contains and/or supports at least one of a wheelhouse, an accommodation, a battery storage and a housing with another energy source, wherein the push supports are for pushing a push barge or like vessel to be pushed by the push tug. - a main strength frame and a separately built floating body, wherein the main strength frame and the floating body are rigidly connected to create one vessel, wherein at least one, preferably at least two propulsion units are attached to the main strength frame, wherein the main strength frame is supported by the floating body wherein the vessel is a workboat, especially a push tug, and is provided with push supports mounted to the main strength frame, and wherein driving force of the or each propulsion unit during use is transmitted directly to the main strength frame, without intervention of the floating body, wherein the main strength frame contains and/or supports at least one of a wheelhouse, an accommodation, a battery storage and a housing with another energy source, wherein the push supports are for pushing a push barge or like vessel to be pushed by the push tug.
A hybrid energy storage module system for supplying electric power required for driving a load, comprising: an energy storage device including one or more lithium battery modules, one or more lead storage battery modules and a switching network configured to provide different arrangement modes by connecting a part or all of the lithium battery modules and the lead storage battery modules, the energy storage device connected to the load so as to supply electric power to the load; and a controller including a signal generating unit configured to generate a control signal for controlling the switching network and a transmitting unit configured to transmit the control signal to the switching network, characterised in that when an arrangement mode of the energy storage device is converted from a second arrangement mode in which the lithium battery modules are connected in series to a third arrangement mode in which the lead storage battery modules are connected in series, or when the arrangement mode of the energy storage device is converted from the third arrangement mode to the second arrangement mode, the controller is configured to convert the arrangement mode of the energy storage device via a first arrangement mode in which the lithium battery modules connected in parallel or one of the lithium battery modules are connected in series to the lead storage battery modules connected in parallel or one of the lead storage battery modules, for preventing a sharp change in an output of the energy storage device. an energy storage device including one or more lithium battery modules, one or more lead storage battery modules and a switching network configured to provide different arrangement modes by connecting a part or all of the lithium battery modules and the lead storage battery modules, the energy storage device connected to the load so as to supply electric power to the load; and a controller including a signal generating unit configured to generate a control signal for controlling the switching network and a transmitting unit configured to transmit the control signal to the switching network, characterised in that when an arrangement mode of the energy storage device is converted from a second arrangement mode in which the lithium battery modules are connected in series to a third arrangement mode in which the lead storage battery modules are connected in series, or when the arrangement mode of the energy storage device is converted from the third arrangement mode to the second arrangement mode, the controller is configured to convert the arrangement mode of the energy storage device via a first arrangement mode in which the lithium battery modules connected in parallel or one of the lithium battery modules are connected in series to the lead storage battery modules connected in parallel or one of the lead storage battery modules, for preventing a sharp change in an output of the energy storage device.
A method to determine the concentration ratio between a target substance and a reference substance in a sample, wherein the reference substance is chemically identical with the target substance and isotopically labeled and is added in an exactly known amount to the sample, comprising the steps: - extracting the target substance and the reference substance from the sample, and - acquiring a mass spectrum with mass signals of the target substance and the reference substance, characterized by - fitting a first group of peak curves to the mass signals of the isotope peak group of the target substance and a second group of peak curves to the mass signals of the isotope peak group of the reference substance, the peak curves of each group having fixed relative heights and distances, - determining the concentration ratio from parameters of the fitting of the first and the second group, wherein the isotopes used for labeling are not isotopically pure and produce a complex isotope peak pattern for the reference substance and wherein the relative heights of the peak curves of each group are determined by calculation from the elemental composition and the isotope abundance distributions of the elements or are determined from measured mass spectra of the target substance and the reference substance. - extracting the target substance and the reference substance from the sample, and - acquiring a mass spectrum with mass signals of the target substance and the reference substance, characterized by - fitting a first group of peak curves to the mass signals of the isotope peak group of the target substance and a second group of peak curves to the mass signals of the isotope peak group of the reference substance, the peak curves of each group having fixed relative heights and distances, - determining the concentration ratio from parameters of the fitting of the first and the second group,
A method for reducing the content of heavy metals in a plant comprising applying at least one bacterium to a root of a plant or soil around plant roots at least once during the period from sowing to post-transplanting in the field, wherein said bacterium is Variovorax paradoxus JHP31 strain having Accession Number: NITE BP-556 and has a function of reducing the content of heavy metals in a plant and has a colonization to a root of the plant.
A hinge device for the connection of side-pieces to the front of mounts for spectacles, comprising a first and a second hinge element (6,7) which are articulated about a hinge axis, the first element comprising a body configured substantially in the form of a fork with a pair of opposed arms (9, 10) the ends (9a, 10a) of which extend transversly with respect to the direction of the extension of the arms such as to be mutually aligned along the hinge axis and comprise pin type means capable of rotatable engagement in a seat provided in the second hinge element to provide the hinged coupling, about said axis, of the first and the second element, characterized in that the pin type means comprise, on each of the ends (9a, 10a) of the X arms (9, 10), a respective discoid body (11, 12) on the outside of which a cylindrical surface (11b, 12b) is defined, each of the bodies (11, 12) being structurally independent of the corresponding arm (9, 10) and firmly securable thereto, the discoid bodies (11, 12) being mounted in a position facing each other and also coaxial with the hinge axis, and in that the seat is in the form of a cylindrical slot capable of receiving in rotatable engagement the cylindrical surfaces (11b, 12b) of the discoid bodies (11, 12) in order to provide the hinged coupling about said axis.
A steel strapping machine without using joint, comprising: a mold (1, 2, 3), including an upper mold and a lower mold (2, 3), which cooperate with each other to shear a steel strap so as to generate a notch, the lower mold (2, 3) is formed as a separatable lower mold (2, 3) which is capable of being opened or closed, the separatable lower mold (2, 3) may be closed before a joint is made, and may be opened after the joint is made so that the lower mold (2, 3) may be removed away from the steel strap, the lower mold (2, 3) comprises a left part of the lower mold and a right part of the lower mold, which are capable of being separated from each other or closed together, and during the process of shearing the steel strap so as to generate a notch, both of the left part of the lower mold and the right part of the lower mold are arranged to contact with the steel strap, characterized in that, the steel strapping machine further comprises a base and a feed roller, wherein the feed roller and the mold (1, 2, 3) are mounted on the base, and the base is capable of moving the feed roller and the mold (1, 2, 3) up and down. a mold (1, 2, 3), including an upper mold and a lower mold (2, 3), which cooperate with each other to shear a steel strap so as to generate a notch, the lower mold (2, 3) is formed as a separatable lower mold (2, 3) which is capable of being opened or closed, the separatable lower mold (2, 3) may be closed before a joint is made, and may be opened after the joint is made so that the lower mold (2, 3) may be removed away from the steel strap, the lower mold (2, 3) comprises a left part of the lower mold and a right part of the lower mold, which are capable of being separated from each other or closed together, and during the process of shearing the steel strap so as to generate a notch, both of the left part of the lower mold and the right part of the lower mold are arranged to contact with the steel strap, characterized in that, the steel strapping machine further comprises a base and a feed roller, wherein the feed roller and the mold (1, 2, 3) are mounted on the base, and the base is capable of moving the feed roller and the mold (1, 2, 3) up and down.
An axle assembly comprising: an axle housing; a differential carrier that is disposed on the axle housing and rotatably supports a differential; a differential carrier cover that is mounted to an end of the differential carrier that is disposed opposite the axle housing and that has a gear cavity; an electric motor module disposed in the differential carrier between the axle housing and the differential carrier cover; a gear reduction module that is disposed adjacent to the differential carrier cover, wherein the gear reduction module transmits torque from the electric motor module to the differential via a drive pinion and the gear reduction module includes a sun gear that is operatively connected to the electric motor module and rotatable about an axis, a planetary ring gear that is received in the gear cavity and is fixedly positioned with respect to the differential carrier cover, a planet gear (202, 202') that meshes with the sun gear and the planetary ring gear, and a planet gear carrier that rotatably supports the planet gear (202, 202'); a shift mechanism housing that is disposed on the differential carrier cover opposite the differential carrier, wherein the planet gear carrier is rotatably supported on the shift mechanism housing by a roller bearing assembly; and characterized in that the gear reduction module cooperates with a shift mechanism disposed in the shift mechanism housing, to provide a desired gear reduction ratio to change the torque provided from the electric motor module to the drive pinion. an axle housing; a differential carrier that is disposed on the axle housing and rotatably supports a differential; a differential carrier cover that is mounted to an end of the differential carrier that is disposed opposite the axle housing and that has a gear cavity; an electric motor module disposed in the differential carrier between the axle housing and the differential carrier cover; a gear reduction module that is disposed adjacent to the differential carrier cover, wherein the gear reduction module transmits torque from the electric motor module to the differential via a drive pinion and the gear reduction module includes a sun gear that is operatively connected to the electric motor module and rotatable about an axis, a planetary ring gear that is received in the gear cavity and is fixedly positioned with respect to the differential carrier cover, a planet gear (202, 202') that meshes with the sun gear and the planetary ring gear, and a planet gear carrier that rotatably supports the planet gear (202, 202'); a shift mechanism housing that is disposed on the differential carrier cover opposite the differential carrier, wherein the planet gear carrier is rotatably supported on the shift mechanism housing by a roller bearing assembly; and characterized in that the gear reduction module cooperates with a shift mechanism disposed in the shift mechanism housing, to provide a desired gear reduction ratio to change the torque provided from the electric motor module to the drive pinion.