mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a main body; a first door (31, 32) arranged to open or close an upper front side of the main body; and a second door (33, 34) arranged to open or close a lower front side of the main body, and including: a door body including an upper cap and a lower cap, a door panel including a panel body, and a fixer, characterized in that the door panel is detachably couplable to a front side of the door body, and further includes: an upper trim at an upper portion of a rear side of the panel body, and a lower trim at a lower portion of the rear side of the panel body, the upper cap includes an upper cap projection protruding downward, and when the door panel is coupled to the front side of the door body, the upper cap projection is inserted into the upper trim so that the upper trim is coupled to the upper cap, and the fixer is inserted into the lower cap and the lower trim in an upward direction so that the lower trim is coupled to the lower cap. a main body; a first door (31, 32) arranged to open or close an upper front side of the main body; and a second door (33, 34) arranged to open or close a lower front side of the main body, and including: a door body including an upper cap and a lower cap, a door panel including a panel body, and a fixer, characterized in that the door panel is detachably couplable to a front side of the door body, and further includes: an upper trim at an upper portion of a rear side of the panel body, and a lower trim at a lower portion of the rear side of the panel body, the upper cap includes an upper cap projection protruding downward, and when the door panel is coupled to the front side of the door body, the upper cap projection is inserted into the upper trim so that the upper trim is coupled to the upper cap, and the fixer is inserted into the lower cap and the lower trim in an upward direction so that the lower trim is coupled to the lower cap. a door body including an upper cap and a lower cap, a door panel including a panel body, and a fixer, characterized in that the door panel is detachably couplable to a front side of the door body, and further includes: an upper trim at an upper portion of a rear side of the panel body, and a lower trim at a lower portion of the rear side of the panel body, the upper cap includes an upper cap projection protruding downward, and when the door panel is coupled to the front side of the door body, the upper cap projection is inserted into the upper trim so that the upper trim is coupled to the upper cap, and the fixer is inserted into the lower cap and the lower trim in an upward direction so that the lower trim is coupled to the lower cap. the upper cap includes an upper cap projection protruding downward, and when the door panel is coupled to the front side of the door body, the upper cap projection is inserted into the upper trim so that the upper trim is coupled to the upper cap, and the fixer is inserted into the lower cap and the lower trim in an upward direction so that the lower trim is coupled to the lower cap.
A cutting tool comprising: a first blade defining a first front section and a first rear section, wherein the first front section defines a front cutting edge and the first rear section defines a rear cutting edge; a second blade pivotally coupled to the first blade proximal to the first rear section, wherein the second blade defines a second front section and a second rear section; and the second blade defines a structural feature that allows the first blade and the second blade in a bypass configuration relative to each other; wherein the second blade has a blunt profile between the second front section and the second rear section facing the rear cutting edge; wherein the at least one structural feature is a slanted portion on the second blade and the slanted portion extends from the second blade towards the first blade, the slanted portion disposed on the second front section, wherein the first blade is defined on a first lever and the second blade is defined on a second lever; characterized in that: the structural feature and the blunt profile of the second lever are configured to co-operatively maintain a fixed distance between the first front section, second front section, and the first rear section, second rear section, from corresponding ones of the first lever and the second lever such that the front cutting edge and the rear cutting edge do not contact with the second lever. a first blade defining a first front section and a first rear section, wherein the first front section defines a front cutting edge and the first rear section defines a rear cutting edge; a second blade pivotally coupled to the first blade proximal to the first rear section, wherein the second blade defines a second front section and a second rear section; and the second blade defines a structural feature that allows the first blade and the second blade in a bypass configuration relative to each other; wherein the second blade has a blunt profile between the second front section and the second rear section facing the rear cutting edge; wherein the at least one structural feature is a slanted portion on the second blade and the slanted portion extends from the second blade towards the first blade, the slanted portion disposed on the second front section, wherein the first blade is defined on a first lever and the second blade is defined on a second lever; characterized in that: the structural feature and the blunt profile of the second lever are configured to co-operatively maintain a fixed distance between the first front section, second front section, and the first rear section, second rear section, from corresponding ones of the first lever and the second lever such that the front cutting edge and the rear cutting edge do not contact with the second lever.
Stator assembly for an electrical machine, comprising: • a support structure; • a connection arm for connecting one or more stator winding bars to external terminals; • a support element, placed between said support structure and said connection arm, the stator assembly being wherein the support element comprises a resilient module (612, 9) configured to allow a thermal expansion of said connection arm, wherein said support element comprises a radial member disposed along a radial direction of the electrical machine and connected to said support structure, and an axial member connected to said connection arm and disposed along an axial direction of the electrical machine, characterized in that the support element comprises a U-shaped junction interposed between the axial member and the radial member such to allow an expansion of the connection arm along a radial direction. • a support structure; • a connection arm for connecting one or more stator winding bars to external terminals; • a support element, placed between said support structure and said connection arm, the stator assembly being wherein the support element comprises a resilient module (612, 9) configured to allow a thermal expansion of said connection arm, wherein said support element comprises a radial member disposed along a radial direction of the electrical machine and connected to said support structure, and an axial member connected to said connection arm and disposed along an axial direction of the electrical machine, characterized in that the support element comprises a U-shaped junction interposed between the axial member and the radial member such to allow an expansion of the connection arm along a radial direction.
A composition for forming a release coating, said composition comprising: the reaction product of: a branched organopolysiloxane having the formula (R 1 y R 2 3-y SiO 1/2) x (R 1 2 SiO 2/2) z (SiO 4/2) 1.0 (ZO 1/2) w wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms, with the proviso that an average of at least two of R 1 in each molecule are independently ethylenically unsaturated groups; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 4; subscript z is from 10 to 3,000; and subscript w is from 0 to 3; and an organosilicon compound having an average of at least two silicon-bonded hydrogen atoms per molecule; in the presence of a hydrosilylation catalyst; and an organopolysiloxane having an average of at least two silicon-bonded ethylenically unsaturated groups per molecule; wherein component is formed with a molar excess of silicon-bonded ethylenically unsaturated groups in component to silicon-bonded hydrogen atoms in component such that the reaction product is only partially crosslinked. the reaction product of: a branched organopolysiloxane having the formula (R 1 y R 2 3-y SiO 1/2) x (R 1 2 SiO 2/2) z (SiO 4/2) 1.0 (ZO 1/2) w wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms, with the proviso that an average of at least two of R 1 in each molecule are independently ethylenically unsaturated groups; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 4; subscript z is from 10 to 3,000; and subscript w is from 0 to 3; and an organosilicon compound having an average of at least two silicon-bonded hydrogen atoms per molecule; in the presence of a hydrosilylation catalyst; and a branched organopolysiloxane having the formula (R 1 y R 2 3-y SiO 1/2) x (R 1 2 SiO 2/2) z (SiO 4/2) 1.0 (ZO 1/2) w wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms, with the proviso that an average of at least two of R 1 in each molecule are independently ethylenically unsaturated groups; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 4; subscript z is from 10 to 3,000; and subscript w is from 0 to 3; and an organosilicon compound having an average of at least two silicon-bonded hydrogen atoms per molecule; in the presence of a hydrosilylation catalyst; and an organopolysiloxane having an average of at least two silicon-bonded ethylenically unsaturated groups per molecule;
A method for managing communication with a plurality of wireless devices in a wireless communication system, said plurality of wireless devices including a plurality of delay-tolerant wireless devices, the wireless communication system comprising a plurality of network sectors, each network sector configured for communicative association with one or more of the plurality of delay-tolerant wireless devices, and each network sector associated with a corresponding traffic threshold, the method comprising: a. evaluating one or more network traffic levels, each network traffic level associated with a respective network sector; and b. submitting one or more access-configuration messages in one or more network sectors when the evaluated network traffic level of a particular network sector is below the traffic threshold for that particular network sector; said one or more access-configuration messages configuring the shifting of one or more of the plurality of delay-tolerant wireless devices from an idle operational condition to an active operational condition, and configuring each of the plurality of delay-tolerant wireless devices, subsequent to shifting to the active operational condition, to perform a predetermined action. a. evaluating one or more network traffic levels, each network traffic level associated with a respective network sector; and b. submitting one or more access-configuration messages in one or more network sectors when the evaluated network traffic level of a particular network sector is below the traffic threshold for that particular network sector; said one or more access-configuration messages configuring the shifting of one or more of the plurality of delay-tolerant wireless devices from an idle operational condition to an active operational condition, and configuring each of the plurality of delay-tolerant wireless devices, subsequent to shifting to the active operational condition, to perform a predetermined action.
An extrusion die comprising a flow channel providing fluid communication from a flow channel entrance to a flow channel exit orifice, wherein said flow channel comprises a multi-stage transverse flow-providing manifold, and a downstream channel portion including said exit orifice, and wherein said multi-stage manifold spans a width; wherein along the manifold width, said multi-stage manifold comprises a first manifold portion (605β) comprising opposing transition surfaces (640β, 642β) having an angular relationship to each other and forming a transition zone (654β) comprising a varying included angle (β), and coterminous with said first manifold portion (605β), a second manifold portion (605α) comprising opposing transition surfaces (640α, 642α) having an angular relationship to each other and forming a transition zone (654α) comprising a constant included angle (α).
A method for determining a transmission time interval, comprising: receiving, by a base station, uplink data sent from a user equipment in an idle state or a cell forward access channel state on an enhanced dedicated transmission channel; determining, by the base station, a transmission time interval used by the user equipment for sending the uplink data; and sending, by the base station, the uplink data in an enhanced dedicated transmission channel data frame to a radio network controller, wherein the enhanced dedicated transmission channel data frame carries a transmission time interval indicator so as to notify the radio network controller the transmission time interval used by the user equipment for sending the uplink data. receiving, by a base station, uplink data sent from a user equipment in an idle state or a cell forward access channel state on an enhanced dedicated transmission channel; determining, by the base station, a transmission time interval used by the user equipment for sending the uplink data; and sending, by the base station, the uplink data in an enhanced dedicated transmission channel data frame to a radio network controller, wherein the enhanced dedicated transmission channel data frame carries a transmission time interval indicator so as to notify the radio network controller the transmission time interval used by the user equipment for sending the uplink data.
A two-stage grinding circuit having a. a first grinding stage which comprises a vertical roller mill having a grinding table, at least one grinding roller which cooperates with the grinding table, and a first dynamic separator, wherein the first dynamic separator comprises a fine material outlet for discharging fine material and a grit return for returning grit to the grinding table, and b. a second grinding stage which comprises a second mill formed by an agitator ball mill or a ball mill, wherein the second mill comprises an inlet and an outlet, wherein there is further provided a grit extraction device for extracting a portion of the grit, which grit extraction device is connected to the grit return and is in communication with the inlet of the second mill. a. a first grinding stage which comprises a vertical roller mill having a grinding table, at least one grinding roller which cooperates with the grinding table, and a first dynamic separator, wherein the first dynamic separator comprises a fine material outlet for discharging fine material and a grit return for returning grit to the grinding table, and b. a second grinding stage which comprises a second mill formed by an agitator ball mill or a ball mill, wherein the second mill comprises an inlet and an outlet,
A method for operating a piston engine in a gas mode using a gaseous fuel as a main fuel that forms a main source of energy and a liquid fuel as a pilot fuel for triggering combustion of the main fuel, the method comprising the steps of - introducing the main fuel into a combustion chamber of a cylinder of the engine, - injecting the pilot fuel into the combustion chamber and/or into a prechamber of the cylinder, wherein the pilot fuel is injected during each engine cycle at least during a first injection event and a second injection event, which are separated from each other in respect of time, characterized in that cylinder pressure measurement is used for determining a first variable describing combustion duration, and the amount of the pilot fuel injected during the first injection event is adjusted on the basis of the first variable, and that 5 to 30 percent of the pilot fuel is injected during the first injection event and the rest of the pilot fuel is injected during the second injection event. - introducing the main fuel into a combustion chamber of a cylinder of the engine, - injecting the pilot fuel into the combustion chamber and/or into a prechamber of the cylinder,
Cosmetic, dermatological or nutraceutical composition comprising at least one Schisandra sphenanthera fruit peptide and sugar extract, not comprising lignans.
Edge profile for a sheet-like material, comprising a layered structure - with a main body made of plastic, which has a first base colour tone, - with a decorative base material, which has a second base colour tone, and - with a decorative print, wherein a final decoration, which has a third base colour tone, is formed at least from decorative base material and decorative print, wherein the decorative base material is a layer arranged between main body and decorative print, characterised in that the decorative base material is a layer made of plastic coextruded with the main body. - with a main body made of plastic, which has a first base colour tone, - with a decorative base material, which has a second base colour tone, and - with a decorative print, wherein a final decoration, which has a third base colour tone, is formed at least from decorative base material and decorative print,
A turbocharger configured to receive an exhaust gas stream from an engine, and to compress input air into a pressurized air stream, comprising: a turbocharger housing including a turbine housing affixed to a bearing housing wherein the turbine housing forms a scroll directing the exhaust gas stream inward toward an axis of rotor rotation; a rotor rotatably mounted within the turbocharger housing to rotate around the axis of rotor rotation, the rotor including an axial turbine wheel a compressor wheel, and a shaft extending along the axis of rotor rotation and connecting the turbine wheel to the compressor wheel through the bearing housing, wherein the turbine wheel is configured with a hub and a plurality of axial turbine blades, the hub defining a turbine-wheel back-disk surface facing the bearing housing,; the turbocharger being characterised in that the bearing-housing defines a turbine-end-wall outer surface facing the turbine hub and a heat shroud forming a curved portion that turns the scroll direction of the exhaust gas stream to an axial direction toward the plurality of axial turbine blades, the heat shroud establishing a turbine-wheel back-disk cavity between a bearing-housing turbine-end-wall outer surface, the turbine-wheel back-disk surface the curved portion of the heat shroud, and a cylindrical outer surface of a turbine-end portion of the shaft; and one or more de-swirl elements extending through the turbine-wheel back-disk cavity, the de-swirl elements being sized, shaped and located within the turbine-wheel back-disk cavity to impede the circumferential flow of exhaust gas within the turbine-wheel back-disk cavity. a turbocharger housing including a turbine housing affixed to a bearing housing wherein the turbine housing forms a scroll directing the exhaust gas stream inward toward an axis of rotor rotation; a rotor rotatably mounted within the turbocharger housing to rotate around the axis of rotor rotation, the rotor including an axial turbine wheel a compressor wheel, and a shaft extending along the axis of rotor rotation and connecting the turbine wheel to the compressor wheel through the bearing housing, wherein the turbine wheel is configured with a hub and a plurality of axial turbine blades, the hub defining a turbine-wheel back-disk surface facing the bearing housing,; the turbocharger being characterised in that the bearing-housing defines a turbine-end-wall outer surface facing the turbine hub and a heat shroud forming a curved portion that turns the scroll direction of the exhaust gas stream to an axial direction toward the plurality of axial turbine blades, the heat shroud establishing a turbine-wheel back-disk cavity between a bearing-housing turbine-end-wall outer surface, the turbine-wheel back-disk surface the curved portion of the heat shroud, and a cylindrical outer surface of a turbine-end portion of the shaft; and one or more de-swirl elements extending through the turbine-wheel back-disk cavity, the de-swirl elements being sized, shaped and located within the turbine-wheel back-disk cavity to impede the circumferential flow of exhaust gas within the turbine-wheel back-disk cavity.
A method for estimating a phase angle of a zero-sequence voltage when a single-phase earth fault occurs in a distribution network, the distribution network comprising an A-phase having the earth fault, a B-phase and a C-phase, the method comprising: determining a neutral earthing type of the distribution network; characterized in that the method comprises: detecting a phase angle φ A of an A-phase voltage, a phase angle φ B of a B-phase voltage and a phase angle φ C of a C-phase voltage; setting a magnitude FB of the B-phase voltage as a predetermined reference value; estimating the A-phase voltage and the C-phase voltage by using the magnitude of the B-phase voltage, the phase angle φ A of the A-phase voltage, the phase angle φ B of the B-phase voltage and the phase angle φ C of the C-phase voltage, based on the neutral earthing type of the distribution network; and calculating the phase angle of the zero-sequence voltage by using the B-phase voltage and the estimated A-phase voltage and the estimated C-phase voltage. detecting a phase angle φ A of an A-phase voltage, a phase angle φ B of a B-phase voltage and a phase angle φ C of a C-phase voltage; setting a magnitude FB of the B-phase voltage as a predetermined reference value; estimating the A-phase voltage and the C-phase voltage by using the magnitude of the B-phase voltage, the phase angle φ A of the A-phase voltage, the phase angle φ B of the B-phase voltage and the phase angle φ C of the C-phase voltage, based on the neutral earthing type of the distribution network; and calculating the phase angle of the zero-sequence voltage by using the B-phase voltage and the estimated A-phase voltage and the estimated C-phase voltage.