mhurhangee/patent-ind-claim-en huggingface dataset:
A trusted computing method, applicable to a server , wherein the server is equipped with a first trusted computing chip and a second trusted computing chip , and the method comprises: performing, by the first trusted computing chip , a static measurement on the server during startup of the server to obtain a static measurement result, and sending the static measurement result to a verification center characterized by performing, by the second trusted computing chip , a dynamic measurement on the server during operations after the startup of the server to obtain a dynamic measurement result, and sending the dynamic measurement result and association evidence to the verification center; wherein the association evidence is used for indicating that the first trusted computing chip and the second trusted computing chip are disposed in the same server, for the verification center to associate the static measurement result with the dynamic measurement result based on the association evidence, and to verify integrity of a software system of the server based on associated results. performing, by the first trusted computing chip , a static measurement on the server during startup of the server to obtain a static measurement result, and sending the static measurement result to a verification center characterized by performing, by the second trusted computing chip , a dynamic measurement on the server during operations after the startup of the server to obtain a dynamic measurement result, and sending the dynamic measurement result and association evidence to the verification center; wherein the association evidence is used for indicating that the first trusted computing chip and the second trusted computing chip are disposed in the same server, for the verification center to associate the static measurement result with the dynamic measurement result based on the association evidence, and to verify integrity of a software system of the server based on associated results.
A process for the depolymerization of polyethylene terephthalate (PET) comprised in a feedstock to form dimethyl terephthalate (DMT) and mono ethylene glycol (MEG); the process comprising: (i) mixing the feedstock comprising polyethylene terephthalate (PET) with a first portion of methanol to form a first mixture; (ii) adding sodium methoxide to the first mixture; (iii) admixing; and (iv) adding a second portion of methanol thereby forming a second mixture; thereby forming dimethyl terephthalate (DMT) and mono ethylene glycol (MEG). (i) mixing the feedstock comprising polyethylene terephthalate (PET) with a first portion of methanol to form a first mixture; (ii) adding sodium methoxide to the first mixture; (iii) admixing; and (iv) adding a second portion of methanol thereby forming a second mixture; thereby forming dimethyl terephthalate (DMT) and mono ethylene glycol (MEG).
A method of detecting a battery cell having a low voltage defect, the method comprising: setting a reference time point when a voltage of a battery is stabilized after a shipping charge, and measuring a first voltage (S10) of a battery cell at the reference time point; measuring a second voltage (S20) of the battery cell after a temporal interval from the reference time point, wherein the temporal interval is longer than a period in which a self-discharge of the battery cell is suppressed; and determining (S30) whether the battery cell has a low voltage defect by comparing a difference (ΔOCV) between the first voltage and the second voltage with a reference value, wherein the reference value is +3 sigma (δ) to +6 sigma (δ) in a normal distribution of a voltage drop amount obtained by the measuring the first voltage (S10) and the measuring the second voltage (S20) for a plurality of normal sample battery cell groups, characterised in that the reference time point is a time point at which the self-discharge restriction starts to occur with a regular cycle. setting a reference time point when a voltage of a battery is stabilized after a shipping charge, and measuring a first voltage (S10) of a battery cell at the reference time point; measuring a second voltage (S20) of the battery cell after a temporal interval from the reference time point, wherein the temporal interval is longer than a period in which a self-discharge of the battery cell is suppressed; and determining (S30) whether the battery cell has a low voltage defect by comparing a difference (ΔOCV) between the first voltage and the second voltage with a reference value, wherein the reference value is +3 sigma (δ) to +6 sigma (δ) in a normal distribution of a voltage drop amount obtained by the measuring the first voltage (S10) and the measuring the second voltage (S20) for a plurality of normal sample battery cell groups, characterised in that the reference time point is a time point at which the self-discharge restriction starts to occur with a regular cycle.
An indoor unit comprising: a fan having a rotational shaft and configured to suck air and feed the sucked air toward surroundings; a bell mouth having an opening that opens toward the fan and configured to direct air to the fan ; a drain pan disposed to surround the bell mouth ; a heat exchanger placed on the drain pan to surround the fan ; a panel disposed opposite to the fan with respect to the bell mouth and the drain pan , the panel having an air intake grill ; and a filter mounted on the intake grill at a distance from the bell mouth , wherein the bell mouth includes a first section formed such that the opening narrows toward the fan , a second section disposed around the first section and connected to the first section , and a third section disposed around the second section and connected to the second section and to the drain pan , the second section includes a first flat portion , the third section includes a second flat portion , characterized in that L1<L2 is satisfied, where L1 is a distance in an axial direction of the rotational shaft between the first flat portion and the second flat portion , and L2 is a distance in the axial direction between the first flat portion and an open end of the first section , and the first flat portion of the second section is located between the drain pan and the fan in the axial direction. a fan having a rotational shaft and configured to suck air and feed the sucked air toward surroundings; a bell mouth having an opening that opens toward the fan and configured to direct air to the fan ; a drain pan disposed to surround the bell mouth ; a heat exchanger placed on the drain pan to surround the fan ; a panel disposed opposite to the fan with respect to the bell mouth and the drain pan , the panel having an air intake grill ; and a filter mounted on the intake grill at a distance from the bell mouth , wherein the bell mouth includes a first section formed such that the opening narrows toward the fan , a second section disposed around the first section and connected to the first section , and a third section disposed around the second section and connected to the second section and to the drain pan , a first section formed such that the opening narrows toward the fan , a second section disposed around the first section and connected to the first section , and a third section disposed around the second section and connected to the second section and to the drain pan , the second section includes a first flat portion , the third section includes a second flat portion , L1<L2 is satisfied, where L1 is a distance in an axial direction of the rotational shaft between the first flat portion and the second flat portion , and L2 is a distance in the axial direction between the first flat portion and an open end of the first section , and the first flat portion of the second section is located between the drain pan and the fan in the axial direction.
An arrangement of electrical devices for installation on a mounting rail comprising • a first electrical device being configured for installation on the mounting rail , • a first connector device comprising upper connection means (16.1) for mounting and electrically connecting to the bottom side (14.1) of the first electrical device and comprising lower connection means (16.2, 16.3) for mounting and electrically connecting to one or more electrical devices, wherein the lower connection means are configured for mounting two or more electrical devices arranged in a row being perpendicular to the mounting rail, • at least one second electrical device , and • a second connector device comprising upper connection means (22.1, 22.2) for mounting and electrically connecting to the bottom side (18.1, 20.1) of the at least one second electrical device and comprising lower connection means (22.3) for electrically connecting to wires , wherein the upper connection means are configured for mounting to two or more electrical devices arranged in a row being perpendicular to the mounting rail, and • wherein the bottom side of the first electrical device is mounted on and electrically connected to the upper connection means of the first connector device , the upper side of the at least one second electrical device is mounted and electrically connected to the lower connection means of the first connector device , and the lower side of the at least one second electrical device is mounted on and electrically connected to the upper connection means of the second connector device . • a first electrical device being configured for installation on the mounting rail , • a first connector device comprising upper connection means (16.1) for mounting and electrically connecting to the bottom side (14.1) of the first electrical device and comprising lower connection means (16.2, 16.3) for mounting and electrically connecting to one or more electrical devices, wherein the lower connection means are configured for mounting two or more electrical devices arranged in a row being perpendicular to the mounting rail, • at least one second electrical device , and • a second connector device comprising upper connection means (22.1, 22.2) for mounting and electrically connecting to the bottom side (18.1, 20.1) of the at least one second electrical device and comprising lower connection means (22.3) for electrically connecting to wires , wherein the upper connection means are configured for mounting to two or more electrical devices arranged in a row being perpendicular to the mounting rail, and • wherein the bottom side of the first electrical device is mounted on and electrically connected to the upper connection means of the first connector device , the upper side of the at least one second electrical device is mounted and electrically connected to the lower connection means of the first connector device , and the lower side of the at least one second electrical device is mounted on and electrically connected to the upper connection means of the second connector device .
An electrochromic device comprising: a substrate ; an electrochromic layer disposed on the substrate, said electrochromic layer comprising a cathodically tinting electrochromic material; and a counter electrode layer also disposed on the substrate, said counter electrode layer comprising: (a) a first sublayer comprising a first anodically tinting material, and (b) a second sublayer comprising a second anodically tinting material, wherein the first anodically tinting material is NiWO and the second anodically tinting material is selected from NiWTaO, NiWSnO, NiWNbO, NiTaO, NiSnO or NiNbO, wherein the first anodically tinting material and second anodically tinting material have different compositions, and, the first sublayer is disposed between the electrochromic layer and the second sublayer, and wherein the first anodically tinting material is lithiated. a substrate ; an electrochromic layer disposed on the substrate, said electrochromic layer comprising a cathodically tinting electrochromic material; and a counter electrode layer also disposed on the substrate, said counter electrode layer comprising: (a) a first sublayer comprising a first anodically tinting material, and (b) a second sublayer comprising a second anodically tinting material, wherein the first anodically tinting material is NiWO and the second anodically tinting material is selected from NiWTaO, NiWSnO, NiWNbO, NiTaO, NiSnO or NiNbO, wherein the first anodically tinting material and second anodically tinting material have different compositions, and, the first sublayer is disposed between the electrochromic layer and the second sublayer, and (a) a first sublayer comprising a first anodically tinting material, and (b) a second sublayer comprising a second anodically tinting material, wherein the first anodically tinting material is NiWO and the second anodically tinting material is selected from NiWTaO, NiWSnO, NiWNbO, NiTaO, NiSnO or NiNbO, wherein the first anodically tinting material and second anodically tinting material have different compositions, and, the first sublayer is disposed between the electrochromic layer and the second sublayer, and wherein the first anodically tinting material is lithiated.
A hot water storage unit comprising a vessel , in which hot water is storable, an outer casing enclosing the vessel ,a hot water outlet for heated water to exit from inside the vessel , a relief device , in use, to relieve excess pressure and/or temperature from inside the vessel by allowing water to escape from inside the vessel and exit from the relief device , wherein the relief device comprises a housing containing operational components of the relief device , and wherein the operational components of relief device include a seat and a seal , such that the seal seats on the seat in a closed condition of the relief device and the seal is spaced from the seat in an open condition of the relief device such that, in use, water can escape from inside the vessel and exit via the relief device in the open condition of the relief device , and wherein the relief device is removably retainable relative to the vessel ; characterised in that insulation material is provided between the vessel and the outer casing , such that the housing of the relief device is located substantially behind the outer casing on the inner side of the outer casing to provide insulation to the housing of the relief device . a vessel , in which hot water is storable, an outer casing enclosing the vessel ,a hot water outlet for heated water to exit from inside the vessel , a relief device , in use, to relieve excess pressure and/or temperature from inside the vessel by allowing water to escape from inside the vessel and exit from the relief device , wherein the relief device comprises a housing containing operational components of the relief device , and wherein the operational components of relief device include a seat and a seal , such that the seal seats on the seat in a closed condition of the relief device and the seal is spaced from the seat in an open condition of the relief device such that, in use, water can escape from inside the vessel and exit via the relief device in the open condition of the relief device , and wherein the relief device is removably retainable relative to the vessel ; characterised in that insulation material is provided between the vessel and the outer casing , such that the housing of the relief device is located substantially behind the outer casing on the inner side of the outer casing to provide insulation to the housing of the relief device .
Dual-clutch transmission for shifting at least six transmission gears (V1a-V6a; V1c-V6c) that can be shifted sequentially, comprising a first input shaft (11a-11c), which is provided for connection to a first power shift clutch (K1a-K1c), comprising a second input shaft (12a-12c), which is provided for connection to a second power shift clutch (K2a-K2c), comprising a first layshaft (13a-13c), comprising a second layshaft (14a-14c), comprising a third layshaft (15a-15c), comprising at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) and comprising at least one first, one second, one third and one fourth gearwheel plane (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), wherein the at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) are arranged between exactly two immediately adjacent gearwheel planes (Z2a-Z2c, Z3a-Z3c) of the at least four gearwheel planes (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), wherein the at least six shifting units (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c) are provided for connecting one loose wheel (Z13a-Z13c, Z22a-Z22c, Z23a-Z23c, Z24a-Z24c, Z32a-Z32c, Z33a-Z33c, Z34a-Z34c, Z43a-Z43c) to one of the layshafts (13a-13c, 14a-14c, 15a-15c) for conjoint rotation therewith in each case, wherein, out of the first, second, third and fourth gearwheel plane (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), the first gearwheel plane (Z1a-Z1c) is closest to the power shift clutches (K1a-K1c, K2a-K2c, K3b), the second gearwheel plane (Z2a-Z2c) is adjacent to the first gearwheel plane (Z1a-Z1c) and the third gearwheel plane (Z3a-Z3c) is adjacent to the second gearwheel plane (Z2a-Z2c), wherein the at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) are arranged exclusively between the second and third gearwheel plane (Z2a-Z2c, Z3a-Z3c) so as to form the at least six transmission gears (V1a-V6a; V1c-V6c), wherein one (Z13a, Z13b, Z13c) of the loose wheels of the first gearwheel plane (Z1a, Z1b, Z1c) and one (Z23a, Z23b, Z23c) of the loose wheels of the second gearwheel plane (Z2a, Z3a, Z4a) are permanently interconnected for conjoint rotation with one another and therefore constitute a first loose wheel pair connected for conjoint rotation, wherein one (Z33a, Z33b, Z33c) of the loose wheels of the third gearwheel plane (Z3a, Z3b, Z3c) and one (Z43a, Z43b, Z43c) of the loose wheels of the fourth gearwheel plane (Z4a, Z4b, Z4c) are permanently interconnected for conjoint rotation with one another and therefore constitute a second loose wheel pair connected for conjoint rotation, wherein the first loose wheel pair connected for conjoint rotation and the second loose wheel pair connected for conjoint rotation are arranged on the second layshaft , wherein the second gearwheel plane (Z2a-Z2c) comprises a fixed wheel (Z21a-Z21c) permanently connected to the second input shaft (12a-12c) for conjoint rotation therewith, characterised in that the third gearwheel plane (Z3a-Z3c) comprises a fixed wheel (Z31a-Z31c) permanently connected to the first input shaft (11a-11c) for conjoint rotation therewith.
An information processing apparatus comprising: a control means configured to perform tilt control for tilting an image capturing element with respect to a plane perpendicular to an optical axis of an image capturing optical system about a rotation axis, and to perform focus control for moving a focus lens in a direction of the optical axis; a setting means configured to set a target region in a captured image obtained by an image capturing unit; and a determining means configured to determine, based on a position corresponding to a position of the rotation axis in the image and a position of the target region in the image, a correction amount (β) of a position of the focus lens , wherein the control means is configured to move the focus lens based on the correction amount (β), wherein, when the distance (k) between the position of the rotation axis in the image and the position of the target region in the image is not equal to zero, the control means is configured to perform the tilt control and the focus control, characterized in that when a distance (k) between the position of the rotation axis in the image and the position of the target region in the image is equal to zero, the control means is configured to perform the tilt control and does not perform the focus control. a control means configured to perform tilt control for tilting an image capturing element with respect to a plane perpendicular to an optical axis of an image capturing optical system about a rotation axis, and to perform focus control for moving a focus lens in a direction of the optical axis; a setting means configured to set a target region in a captured image obtained by an image capturing unit; and a determining means configured to determine, based on a position corresponding to a position of the rotation axis in the image and a position of the target region in the image, a correction amount (β) of a position of the focus lens , wherein the control means is configured to move the focus lens based on the correction amount (β), wherein, when the distance (k) between the position of the rotation axis in the image and the position of the target region in the image is not equal to zero, the control means is configured to perform the tilt control and the focus control, characterized in that when a distance (k) between the position of the rotation axis in the image and the position of the target region in the image is equal to zero, the control means is configured to perform the tilt control and does not perform the focus control.
A molten bath-based process for direct smelting metalliferous material and producing molten metal in a direct smelting vessel that contains a molten bath that has a metal layer that is at least 900 mm deep includes selecting operating parameters of the process including, injecting a feed material with a lance pressure drop of at least 1 bar, an injection velocity of injected feed material of at least 40 m/s, and a solids/gas ratio of an injected solid feed material and a carrier gas of at least 10 kg solids per Nm 3 gas, so that the feed material, including, the solid feed material and the carrier gas, is injected from above the metal layer into the metal layer via at least one solids injection lance with sufficient momentum to penetrate to a depth of at least 100 mm below a nominal quiescent surface of the metal layer , as calculated using a McMaster injection model, to cause upward movement of molten material and gas from the metal layer .