mhurhangee/ep-ind-claims huggingface dataset:
A locking differential, comprising: a first rotating bevel gear and a second rotating bevel gear engaged with one another via at least one pinion gear rotatably supported within a central cavity of a carrier; and a locking member disposed within the carrier and engagable with each of the bevel gears (40,50), the locking member being movable between a locked configuration and an unlocked configuration, characterised in that in the unlocked configuration the locking member allows free rotation of the bevel gears (40,50) in engagement with the at least one pinion gear to equalise torque between the first bevel gear and the second bevel gear, and in the locked configuration the locking member is in physical engagement with the first bevel gear and the carrier, and the locking member is in physical engagement with the second bevel gear and the carrier to lock the first bevel gear to the carrier and lock the second bevel gear to the carrier, simultaneously, to prevent relative movement therebetween. a first rotating bevel gear and a second rotating bevel gear engaged with one another via at least one pinion gear rotatably supported within a central cavity of a carrier; and a locking member disposed within the carrier and engagable with each of the bevel gears (40,50), the locking member being movable between a locked configuration and an unlocked configuration, characterised in that in the unlocked configuration the locking member allows free rotation of the bevel gears (40,50) in engagement with the at least one pinion gear to equalise torque between the first bevel gear and the second bevel gear, and in the locked configuration the locking member is in physical engagement with the first bevel gear and the carrier, and the locking member is in physical engagement with the second bevel gear and the carrier to lock the first bevel gear to the carrier and lock the second bevel gear to the carrier, simultaneously, to prevent relative movement therebetween.
A steel sheet for the manufacture of a press hardened steel part, the steel sheet having a composition comprising, by weight percent: 0.15 % ≤ C ≤ 0.22 % 3.5 % ≤ Mn < 4.2 % 0.001 % ≤ Si ≤ 1.5 % 0.3 % ≤ Al ≤ 0.9 % 0.001 % ≤ Cr ≤ 1 % 0.001 % ≤ Mo ≤ 0.3 % 0.001 % ≤ Ti ≤ 0.040 % 0.0003 % ≤ B ≤ 0.004 % 0.001 % ≤ Nb ≤ 0.060% 0.001 % ≤ N ≤ 0.009% 0.0005 % ≤ S ≤ 0.003% 0.001 % ≤ P ≤ 0.020% optionally 0.0001 % ≤ Ca ≤ 0.003 %, the remainder being iron and unavoidable impurities, said steel sheet having a microstructure consisting of, in surface fraction: less than 50% of ferrite, between 1% and 20% of retained austenite, wherein the fraction of the retained austenite is determined according to the method described in the description, cementite, such that the surface density of cementite particles having a larger dimension higher than 60 nm is lower than 10^7/mm 2,wherein the surface density of cementite particles having a larger dimension higher than 60 nm is determined according to the method described in the description, a complement consisting of bainite and/or martensite, the retained austenite having an average Mn content of at least 1.1*Mn%, wherein Mn% designates the Mn content in the steel composition. the remainder being iron and unavoidable impurities, said steel sheet having a microstructure consisting of, in surface fraction: less than 50% of ferrite, between 1% and 20% of retained austenite, wherein the fraction of the retained austenite is determined according to the method described in the description, cementite, such that the surface density of cementite particles having a larger dimension higher than 60 nm is lower than 10^7/mm 2,wherein the surface density of cementite particles having a larger dimension higher than 60 nm is determined according to the method described in the description, a complement consisting of bainite and/or martensite, less than 50% of ferrite, between 1% and 20% of retained austenite, wherein the fraction of the retained austenite is determined according to the method described in the description, cementite, such that the surface density of cementite particles having a larger dimension higher than 60 nm is lower than 10^7/mm 2,wherein the surface density of cementite particles having a larger dimension higher than 60 nm is determined according to the method described in the description, a complement consisting of bainite and/or martensite, the retained austenite having an average Mn content of at least 1.1*Mn%, wherein Mn% designates the Mn content in the steel composition.
A cylinder head gasket, comprising: a cylinder head-side main member, a cylinder block-side main member, middle members that are sandwiched between the cylinder head-side main member and the cylinder block-side main member; and a first middle member being a metal plate that has cylinder hole rim portions encircling cylinder holes to a particular width, with beads surrounding the cylinder holes being formed in the cylinder hole rim portions, the metal plate either forming separated items, one at each cylinder hole, or else forming an integrated item connected between the cylinder holes, wherein the first middle member has latching tangs that project outward from a periphery of the cylinder hole rim portions, and is latched either to the cylinder head-side main member or to the cylinder block-side main member, the first middle member is latched by inserting the latching tangs into latching holes formed in the cylinder head-side main member or the cylinder block-side main member, and bending the latching tangs in an opposite direction to latch them in place, characterized in that the middle members are composed of the first middle member and a second middle member that is separated and distinct from the first middle member, the second middle member is a metal plate that is disposed on the outside of the first middle member and has an oil hole and a bolt hole, and the thickness of the first middle member is greater than that of the second middle member. a cylinder head-side main member, a cylinder block-side main member, middle members that are sandwiched between the cylinder head-side main member and the cylinder block-side main member; and a first middle member being a metal plate that has cylinder hole rim portions encircling cylinder holes to a particular width, with beads surrounding the cylinder holes being formed in the cylinder hole rim portions, the metal plate either forming separated items, one at each cylinder hole, or else forming an integrated item connected between the cylinder holes, wherein the first middle member has latching tangs that project outward from a periphery of the cylinder hole rim portions, and is latched either to the cylinder head-side main member or to the cylinder block-side main member, the first middle member is latched by inserting the latching tangs into latching holes formed in the cylinder head-side main member or the cylinder block-side main member, and bending the latching tangs in an opposite direction to latch them in place, characterized in that the middle members are composed of the first middle member and a second middle member that is separated and distinct from the first middle member, the second middle member is a metal plate that is disposed on the outside of the first middle member and has an oil hole and a bolt hole, and the thickness of the first middle member is greater than that of the second middle member.
A refrigerator system for reducing power consumption during peak hours, the refrigerator system comprising a refrigerator and a refrigerator control system, the refrigerator including one or more power consuming devices, a fresh food compartment, a freezer compartment, and a refrigeration system for cooling the fresh food compartment and the freezer compartment, the refrigeration system comprising a compressor, the refrigerator system being characterized by: the refrigerator control system being configured to schedule, delay or adjust any number of the one or more power consuming refrigerator devices to reduce power during peak hours, the refrigerator control system comprising a controller configured to receive and process a signal corresponding to a particular state of a utility, the controller being further configured to regulate the refrigerator in one of a plurality of operating modes in response to a demand limit or a set point, the plurality of operating modes comprising a normal operating mode and an energy savings mode, wherein the refrigeration system is configured to cool the freezer compartment to a temperature setpoint of the freezer compartment and to set the freezer compartment to maintain less compressor on time during the energy savings mode, and wherein the refrigerator control system includes an ambient light sensor that indicates the approximate occurrence of peak hours when light is sensed. the refrigerator control system being configured to schedule, delay or adjust any number of the one or more power consuming refrigerator devices to reduce power during peak hours, the refrigerator control system comprising a controller configured to receive and process a signal corresponding to a particular state of a utility, the controller being further configured to regulate the refrigerator in one of a plurality of operating modes in response to a demand limit or a set point, the plurality of operating modes comprising a normal operating mode and an energy savings mode, wherein the refrigeration system is configured to cool the freezer compartment to a temperature setpoint of the freezer compartment and to set the freezer compartment to maintain less compressor on time during the energy savings mode, and wherein the refrigerator control system includes an ambient light sensor that indicates the approximate occurrence of peak hours when light is sensed.
A circuit connector comprising: a stretchable housing comprising liquid metal having a first viscosity, wherein the stretchable housing includes a first opening associated with a first end of the stretchable housing; and a first plug inserted in the first opening, characterized in that said first plug is a first gas permeable plug, and in that the first gas permeable plug is not liquid permeable with respect to any liquids having at least the first viscosity. a stretchable housing comprising liquid metal having a first viscosity, wherein the stretchable housing includes a first opening associated with a first end of the stretchable housing; and a first plug inserted in the first opening, characterized in that said first plug is a first gas permeable plug, and in that the first gas permeable plug is not liquid permeable with respect to any liquids having at least the first viscosity.
A display screen assembly, comprising: a first display laminate and a second display laminate that are opposite to each other; a plurality of image sensors arranged on the first display laminate; and a camera lens arranged on the second display laminate, wherein the plurality of image sensors directly faces the camera lens, and the plurality of image sensors is configured to acquire image signals through the camera lens, characterized in that, the second display laminate comprises a plurality of color filters adjacent to the camera lens, a first light shielding block and a plurality of second light shielding blocks that are space apart from each other; the plurality of color filters corresponds to a plurality of sub-pixel regions in one-to-one correspondence; each of the plurality of second light shielding blocks is located between two adjacent color filters of the plurality of color filters, and the first light shielding block and the plurality of second light shielding blocks are configured to shield visible light, the first light shielding block comprises an extension portion in a cylindrical shape, the extension portion extends from the second display laminate to the first display laminate, one end of the extension portion surrounds the peripheral side of the camera lens, and the other end of the extension portion surrounds a peripheral side of the plurality of image sensors. a first display laminate and a second display laminate that are opposite to each other; a plurality of image sensors arranged on the first display laminate; and a camera lens arranged on the second display laminate, wherein the plurality of image sensors directly faces the camera lens, and the plurality of image sensors is configured to acquire image signals through the camera lens, characterized in that, the second display laminate comprises a plurality of color filters adjacent to the camera lens, a first light shielding block and a plurality of second light shielding blocks that are space apart from each other; the plurality of color filters corresponds to a plurality of sub-pixel regions in one-to-one correspondence; each of the plurality of second light shielding blocks is located between two adjacent color filters of the plurality of color filters, and the first light shielding block and the plurality of second light shielding blocks are configured to shield visible light, the first light shielding block comprises an extension portion in a cylindrical shape, the extension portion extends from the second display laminate to the first display laminate, one end of the extension portion surrounds the peripheral side of the camera lens, and the other end of the extension portion surrounds a peripheral side of the plurality of image sensors.
A refrigerant composition consisting essentially of: carbon dioxide 1-35% an HFO selected from the group consisting of: R1234yf and R1234ze and mixtures thereof, 30-92% R32 1-30% R125 1-30% R227ea 1-15% R134a 0-15% wherein the percentages are by mass and are selected from the ranges quoted to total 100%.
A gas turbine system, comprising: a first compressor configured to receive and compress a recycled exhaust gas into a compressed recycle exhaust gas, wherein the recycle exhaust gas has a CO 2 concentration of between 15 wt% and 20 wt%; a second compressor configured to receive and compress enriched air having an oxygen concentration between 30 wt% and 50 wt% to generate a compressed oxidant; a combustion chamber configured to receive the compressed recycle exhaust gas and the compressed oxidant and stoichiometrically combust a fuel stream to generate a discharge stream having a CO 2 concentration of between 10 wt% and 20 wt% and an oxygen concentration of less than 1 wt%, wherein the compressed recycle exhaust gas serves as a diluent to moderate combustion temperatures, and wherein the fuel stream comprises a hydrocarbon gas or liquid; and an expander coupled to the first compressor and configured to receive the discharge stream from the combustion chamber to generate the recycled exhaust gas and at least partially drive the first compressor. a first compressor configured to receive and compress a recycled exhaust gas into a compressed recycle exhaust gas, wherein the recycle exhaust gas has a CO 2 concentration of between 15 wt% and 20 wt%; a second compressor configured to receive and compress enriched air having an oxygen concentration between 30 wt% and 50 wt% to generate a compressed oxidant; a combustion chamber configured to receive the compressed recycle exhaust gas and the compressed oxidant and stoichiometrically combust a fuel stream to generate a discharge stream having a CO 2 concentration of between 10 wt% and 20 wt% and an oxygen concentration of less than 1 wt%, wherein the compressed recycle exhaust gas serves as a diluent to moderate combustion temperatures, and wherein the fuel stream comprises a hydrocarbon gas or liquid; and an expander coupled to the first compressor and configured to receive the discharge stream from the combustion chamber to generate the recycled exhaust gas and at least partially drive the first compressor.
Dishwashing machine comprising: - at least one pre-wash area provided with means (20, 24, 28, 32) for pre-washing dishes, - at least one wash area provided with means (22, 26, 30, 34) for washing dishes, - at least one rinse area provided with means (36, 38, 40, 42) for rinsing dishes, and - at least one drying area provided with means for drying dishes, said areas (12, 14, 16, 46) being arranged in series and being crossed by means for transporting dishes, said drying area comprising at least one dehumidifying device which is able to dehumidify the air conveyed by said drying means onto the dishes passing through said drying area, characterised in that said dehumidifying device is made up of a heat pump provided with an evaporator/condenser group which comprises in turn a pair of evaporator elements and a pair of condenser elements, said drying area comprising suction means which suck moist air, coming from the drying of the dishes, and convey it through a first evaporator element of said evaporator/condenser group, in such a manner that the moisture contained in the air condensates and is able to be discharged, said drying area being further provided with a plurality of closed ducts, that is to say without any type of openings that allow air to be exchanged with outside, that are able to convey dry air, coming from said dehumidifying device, towards the dishes passing through said drying area, said drying area thus being able to carry out the drying of the dishes by blowing completely recycled dry air, at high speed, onto the dishes, one of the two condenser elements of said evaporator/condenser group being capable to give the possible excess energy of the refrigerating cycle, which is carried out inside the heat pump, to one of the means (20; 22; 38) for pre-washing, washing and/or rinsing dishes. - at least one pre-wash area provided with means (20, 24, 28, 32) for pre-washing dishes, - at least one wash area provided with means (22, 26, 30, 34) for washing dishes, - at least one rinse area provided with means (36, 38, 40, 42) for rinsing dishes, and - at least one drying area provided with means for drying dishes,
An internal combustion engine unit, the engine unit having a piston moving in a cylinder enclosing cylinder volume, an intake valve controlling closing and opening of an intake aperture connecting the cylinder volume to an intake manifold, and an exhaust valve controlling closing and opening of an exhaust aperture connecting the cylinder volume to an exhaust manifold, at least one separating aperture being between the cylinder and a separation chamber, the separation chamber being connectable to the intake manifold and to the exhaust manifold respectively by the intake and exhaust apertures, at least one separating valve being adapted for controlling closing and opening the separating aperture, characterized in that the engine unit further comprising: (a) one or more sensors (50,52,54) located in said separation chamber, for delivering indications of the engine unit operational parameters to a control means effecting operation of at least one of the intake valve and the exhaust valve; and (b) at least one of said one or more sensors (50,52,54) being selected from a group of sensors consisting of a temperature meter, a gas sensor and a pressure sensor, whereby opening both said separating valve and the exhaust valve enables gas flow from the cylinder volume to the exhaust manifold through the open separating aperture, the separation chamber and the exhaust aperture, and opening both said separating valve and the intake valve enables gas flow from the intake manifold to the cylinder volume through the open intake aperture, said separation chamber and the open separating aperture. (a) one or more sensors (50,52,54) located in said separation chamber, for delivering indications of the engine unit operational parameters to a control means effecting operation of at least one of the intake valve and the exhaust valve; and (b) at least one of said one or more sensors (50,52,54) being selected from a group of sensors consisting of a temperature meter, a gas sensor and a pressure sensor, whereby opening both said separating valve and the exhaust valve enables gas flow from the cylinder volume to the exhaust manifold through the open separating aperture, the separation chamber and the exhaust aperture, and opening both said separating valve and the intake valve enables gas flow from the intake manifold to the cylinder volume through the open intake aperture, said separation chamber and the open separating aperture.
A method of decoding for an audio signal, comprising: receiving a downmix signal and spatial information, the downmix signal including a valid channel having the audio signal and an invalid channel having a virtual value, wherein the virtual value is zero; detecting the valid channel among multi-channels to be generated from the downmix signal; and generating the detected valid channel using the downmix signal and the spatial information, wherein detecting the valid channel is performed based on the spatial information used to generate the valid channel. receiving a downmix signal and spatial information, the downmix signal including a valid channel having the audio signal and an invalid channel having a virtual value, wherein the virtual value is zero; detecting the valid channel among multi-channels to be generated from the downmix signal; and generating the detected valid channel using the downmix signal and the spatial information, wherein detecting the valid channel is performed based on the spatial information used to generate the valid channel.