mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic brake (34 or 34'), comprising: a hub configured to be disposed about a shaft and configured for rotation with the shaft about a rotational axis ; an electromagnet assembly fixed against rotation about the rotational axis and including a housing (64 or 64') defining axially extending, radially spaced inner and outer poles and a brake plate extending radially between the inner and outer poles ; and a conductor disposed within the housing (64 or 64') between the inner and outer poles on a first side of the brake plate ; and, an armature configured for coupling to a body that is rotabably driven by the shaft , the armature disposed on a second side of the brake plate opposite the conductor ; characterized in that the electromagnet assembly , the armature and the hub form an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the brake plate , a portion of the magnetic flux in the electromagnetic circuit travelling radially inwardly across a first radial air gap from the inner pole of the housing of the electromagnet assembly to the hub and then radially outwardly across a second radial air gap from the hub to the brake plate of the housing of the electromagnet assembly . a hub configured to be disposed about a shaft and configured for rotation with the shaft about a rotational axis ; an electromagnet assembly fixed against rotation about the rotational axis and including a housing (64 or 64') defining axially extending, radially spaced inner and outer poles and a brake plate extending radially between the inner and outer poles ; and a conductor disposed within the housing (64 or 64') between the inner and outer poles on a first side of the brake plate ; and, a housing (64 or 64') defining axially extending, radially spaced inner and outer poles and a brake plate extending radially between the inner and outer poles ; and a conductor disposed within the housing (64 or 64') between the inner and outer poles on a first side of the brake plate ; and, an armature configured for coupling to a body that is rotabably driven by the shaft , the armature disposed on a second side of the brake plate opposite the conductor ; characterized in that the electromagnet assembly , the armature and the hub form an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the brake plate , a portion of the magnetic flux in the electromagnetic circuit travelling radially inwardly across a first radial air gap from the inner pole of the housing of the electromagnet assembly to the hub and then radially outwardly across a second radial air gap from the hub to the brake plate of the housing of the electromagnet assembly .
A test arrangement for an energy storage device having at least one energy storage module with a plurality of energy storage units, having an AC/DC converter which is connected on the input side to a power supply and which is connected on the output side to at least one bidirectional isolated module DC/DC converter (5 1 ... 5 n ), wherein the output of the bidirectional isolated module DC/DC converter (5 1 ... 5 n ) is connected to a plurality of parallel-connected cell DC/DC converters (6 11 ... 6 nm ) and the outputs of the cell DC/DC converters (6 11 ... 6 nm ) are brought out as outputs (A 1+ , A 1- ... A x+ , A x- ) of the test arrangement , characterized in that a plurality of module DC/DC converters (5 1 ... 5 n ) are connected in parallel to the output of the AC/DC converter wherein each module DC/DC converter (5 1 ... 5 n ) is connected to a plurality of parallel-connected cell DC/DC converters (6 11 ... 6 nm ) and the outputs of the module DC/DC converters (5 1 ... 5 n ) are connectable in series by means of switches (SM) or the outputs of a plurality of cell DC/DC converters (6 11 ... 6 nm ) are connectable in series by means of switches (SZ).
A biaxially oriented, multilayered film comprising: a core layer comprising linear, low-density polyethylene (LLDPE) and from 2 wt.% to 30 wt.% based on the total weight of the core layer of one or more cavitating agents, wherein the core layer has a first side and a second side, wherein the first side is on an opposite side of the core layer as compared to the second side; a first skin layer, consisting of LLDPE and optionally additives, that is located on the first side; a second skin layer, consisting of LLDPE and optionally additives, that is located on the second side, a first tie layer, consisting of LLDPE, that is located between the core layer and the first skin layer, and a second tie layer, consisting of LLDPE, that is located between the core layer and the second skin layer, wherein the first tie layer and the second tie layer do not include cavitating agents, and wherein the LLDPE comprises metallocene, linear, low-density polyethylene, wherein the LLDPE in the core layer has a melting index of 1 to 3 g/10 min (measured at 190°C - 2.13 Kg conditions), a density of 0.915 to 0.930 g/cm 3 , and a melting peak of 115 to 135°C, wherein the biaxially oriented, multilayered film is white-opaque and has a sealing strength of at least 400 g/cm at 100°C under a pressure of 41 N/cm 2 at a dwell time of 0.75 s under ASTM F2029. a core layer comprising linear, low-density polyethylene (LLDPE) and from 2 wt.% to 30 wt.% based on the total weight of the core layer of one or more cavitating agents, wherein the core layer has a first side and a second side, wherein the first side is on an opposite side of the core layer as compared to the second side; a first skin layer, consisting of LLDPE and optionally additives, that is located on the first side; a second skin layer, consisting of LLDPE and optionally additives, that is located on the second side, a first tie layer, consisting of LLDPE, that is located between the core layer and the first skin layer, and a second tie layer, consisting of LLDPE, that is located between the core layer and the second skin layer, wherein the first tie layer and the second tie layer do not include cavitating agents, and wherein the LLDPE comprises metallocene, linear, low-density polyethylene, wherein the LLDPE in the core layer has a melting index of 1 to 3 g/10 min (measured at 190°C - 2.13 Kg conditions), a density of 0.915 to 0.930 g/cm 3 , and a melting peak of 115 to 135°C, wherein the biaxially oriented, multilayered film is white-opaque and has a sealing strength of at least 400 g/cm at 100°C under a pressure of 41 N/cm 2 at a dwell time of 0.75 s under ASTM F2029.
Method performed by a mobile terminal configured for provisioning a network-connectable device, the method comprising: - forming a communication tunnel for transmitting data between the network-connectable device , the mobile terminal and a remote server by: -- initiating, using a webview embedded in an application on the mobile terminal , a first communication link between the mobile terminal and the remote server , and -- initiating, using a library attached to the webview and stored on the mobile terminal , a second communication link between the network-connectable device and the remote server through the mobile terminal , -- the first communication link and the second communication link forming the communication tunnel, - through the communication tunnel, receiving from the network-connectable device a data packet indicating that the network-connectable device is ready to be provisioned, - through the communication tunnel, sending to the remote server a request for providing provisioning data based on the data packet indicating that the network-connectable device is ready to be provisioned, - through the communication tunnel, transmitting to the network-connectable device provisioning data for provisioning the network-connectable device in response to sending the request, in view of provisioning the network-connectable device using the provisioning data. - forming a communication tunnel for transmitting data between the network-connectable device , the mobile terminal and a remote server by: -- initiating, using a webview embedded in an application on the mobile terminal , a first communication link between the mobile terminal and the remote server , and -- initiating, using a library attached to the webview and stored on the mobile terminal , a second communication link between the network-connectable device and the remote server through the mobile terminal , -- the first communication link and the second communication link forming the communication tunnel, -- initiating, using a webview embedded in an application on the mobile terminal , a first communication link between the mobile terminal and the remote server , and -- initiating, using a library attached to the webview and stored on the mobile terminal , a second communication link between the network-connectable device and the remote server through the mobile terminal , -- the first communication link and the second communication link forming the communication tunnel, - through the communication tunnel, receiving from the network-connectable device a data packet indicating that the network-connectable device is ready to be provisioned, - through the communication tunnel, sending to the remote server a request for providing provisioning data based on the data packet indicating that the network-connectable device is ready to be provisioned, - through the communication tunnel, transmitting to the network-connectable device provisioning data for provisioning the network-connectable device in response to sending the request, in view of provisioning the network-connectable device using the provisioning data.
A hot-dip Zn-Al-Mg-based plated steel comprising: a steel; and a plating layer formed on a surface of the steel, wherein the plating layer contains, as an average composition, Mg: 1 to 10 mass%, Al: 4 to 22 mass%, and optionally further contains, as the average composition, 0.0001 to 2 mass% of Si, any one or two or more of Ni, Ti, Zr, and Sr in a range of 0.0001 to 2 mass% in total, or any one or two or more of Sb, Pb, Sn, Ca, Co, Mn, P, B, Bi, Cr, Sc, Y, REM, and Hf in a range of 0.0001 to 2 mass% in total and a remainder consisting of Zn and impurities, the plating layer includes an Al-Zn mixed structure in an area ratio of 10% to 70% in a cross section of the plating layer in a matrix of an Al/Zn/MgZn 2 ternary eutectic structure, the Al-Zn mixed structure includes a first region that has a Zn concentration in a range of 75 mass% or more and less than 85 mass% and a second region that is present inside the first region and has a Zn concentration in a range of 67 mass% or more and less than 75 mass%, and an area ratio of the second region in the Al-Zn mixed structure in the cross section of the plating layer is more than 0% and 40% or less, and an adhesion amount of the plating layer is 10 to 300 g/m 2 , wherein the area ratio of the Al-Zn mixed structure, the first region, the second region, and the area ratio of the second region are determined as described in the description. a steel; and a plating layer formed on a surface of the steel, wherein the plating layer contains, as an average composition, Mg: 1 to 10 mass%, Al: 4 to 22 mass%, and optionally further contains, as the average composition, 0.0001 to 2 mass% of Si, any one or two or more of Ni, Ti, Zr, and Sr in a range of 0.0001 to 2 mass% in total, or any one or two or more of Sb, Pb, Sn, Ca, Co, Mn, P, B, Bi, Cr, Sc, Y, REM, and Hf in a range of 0.0001 to 2 mass% in total and a remainder consisting of Zn and impurities, the plating layer includes an Al-Zn mixed structure in an area ratio of 10% to 70% in a cross section of the plating layer in a matrix of an Al/Zn/MgZn 2 ternary eutectic structure, the Al-Zn mixed structure includes a first region that has a Zn concentration in a range of 75 mass% or more and less than 85 mass% and a second region that is present inside the first region and has a Zn concentration in a range of 67 mass% or more and less than 75 mass%, and an area ratio of the second region in the Al-Zn mixed structure in the cross section of the plating layer is more than 0% and 40% or less, and an adhesion amount of the plating layer is 10 to 300 g/m 2 , wherein the area ratio of the Al-Zn mixed structure, the first region, the second region, and the area ratio of the second region are determined as described in the description.
A heat shield panel (300; 400a, 400b, 400c) for use in a gas turbine engine combustor , comprising: a hot side defining a first surface having an outer perimeter; a cold side defining a second surface spaced from the first surface ; a rail member disposed on the cold side proximate a first portion of the outer perimeter, the rail member having an outer wall and an inner wall ; and an orifice extending through the rail member , from the inner wall to the outer wall , the orifice having a cross sectional area that increases from the inner wall to the outer wall ; wherein the orifice includes an inner opening positioned on the inner wall , the inner opening having a portion in contact with and tangent to the second surface and wherein the orifice includes an outer opening positioned on the outer wall , the outer opening positioned and configured to direct a flow of air through the orifice toward a second panel positioned adjacent the rail member . a hot side defining a first surface having an outer perimeter; a cold side defining a second surface spaced from the first surface ; a rail member disposed on the cold side proximate a first portion of the outer perimeter, the rail member having an outer wall and an inner wall ; and an orifice extending through the rail member , from the inner wall to the outer wall , the orifice having a cross sectional area that increases from the inner wall to the outer wall ; wherein the orifice includes an inner opening positioned on the inner wall , the inner opening having a portion in contact with and tangent to the second surface and wherein the orifice includes an outer opening positioned on the outer wall , the outer opening positioned and configured to direct a flow of air through the orifice toward a second panel positioned adjacent the rail member .
A medical apparatus for administering a continuous flow or intermittent bolus of an anesthetic agent to facilitate a continuous or a prolonged nerve block, comprising: a catheter having a catheter hub , a proximal end, a distal end, a lateral port arranged at a location proximal to the distal end, and at least one lumen extending from the proximal end to the distal end; a stimulating cannula having a cannula hub , a proximal end , a distal end and a lumen extending from the proximal end of the cannula to the distal end of the cannula, the cannula configured to be arranged in the at least one lumen of the catheter such that a distal end portion of the cannula extends past the distal end of the catheter, wherein the distal end of the cannula is open and configured to provide a pharmacological agent to a nerve , wherein the catheter hub is provided on a proximal portion of the catheter; and an insert being arranged proximal to the catheter hub of the catheter and abuting and engaging between the proximal cannula end and the catheter hub ; the cannula being adapted to slide into the catheter , through the catheter hub and through the center of the insert ; wherein the insert is configured, for access and connection of a nerve stimulation device to the exposed segment of the cannula thereby allowing for the cannula to become a stimulatable needle, wherein the insert contains openings , which allow the cannula to fit through the insert , and an opening which provides access to the cannula through the insert ; wherein the catheter and the cannula are configured to be inserted into a patient simultaneously, the cannula having a tip including at least one of a sharp tip, a short bevelled tip, and a Touhy tip configured to puncture skin of a patient upon insertion, and wherein the catheter is configured to remain in the patient when the stimulating cannula is removed from the catheter.
A synchronizing ring assembly, comprising: a synchronizing ring portion that has a first distal end and a second distal end , the first distal end and the second distal end each form an integrated surge bumper , wherein the synchronizing ring portion defines a first height throughout a span which increases to a second height at each distal end to form the integrated surge bumper ; and a bumper assembly mounted to the synchronizing ring portion, wherein a build gap of the integrated surge bumper with respect to an outer surface of an outer case is 4-5 times that of a build gap of the bumper assembly with respect to the outer surface of the outer case . a synchronizing ring portion that has a first distal end and a second distal end , the first distal end and the second distal end each form an integrated surge bumper , wherein the synchronizing ring portion defines a first height throughout a span which increases to a second height at each distal end to form the integrated surge bumper ; and a bumper assembly mounted to the synchronizing ring portion, wherein a build gap of the integrated surge bumper with respect to an outer surface of an outer case is 4-5 times that of a build gap of the bumper assembly with respect to the outer surface of the outer case .
A spent fuel dry reprocessing method for directly obtaining a zirconium alloy nuclear fuel, comprising the following steps: determining components and a ratio of a molten salt composition used for melting a spent fuel according to a requirement of reactor design on zirconium alloy fuel and contents of actinium series metals in the spent fuel, the molten salt composition at least comprises zirconium fluoride, potassium fluoride and lithium fluoride, and wherein a mole ratio of zirconium fluoride to potassium fluoride to lithium fluoride is 1: (10-20): (25-80); melting the spent fuel in the above molten salt composition; and selecting an electrode pair for electrodeposition so that zirconium is firstly deposited on a negative pole, then uranium is also deposited on the negative pole through an under-potential deposition principle to form alloy with zirconium, or zirconium is firstly deposited on a negative pole, then uranium is deposited on the negative pole, and then plutonium is also deposited on the negative pole through an under-potential deposition principle to form alloy with zirconium, thereby obtaining the zirconium alloy nuclear fuel meeting a design requirement. determining components and a ratio of a molten salt composition used for melting a spent fuel according to a requirement of reactor design on zirconium alloy fuel and contents of actinium series metals in the spent fuel, the molten salt composition at least comprises zirconium fluoride, potassium fluoride and lithium fluoride, and wherein a mole ratio of zirconium fluoride to potassium fluoride to lithium fluoride is 1: (10-20): (25-80); melting the spent fuel in the above molten salt composition; and selecting an electrode pair for electrodeposition so that zirconium is firstly deposited on a negative pole, then uranium is also deposited on the negative pole through an under-potential deposition principle to form alloy with zirconium, or zirconium is firstly deposited on a negative pole, then uranium is deposited on the negative pole, and then plutonium is also deposited on the negative pole through an under-potential deposition principle to form alloy with zirconium, thereby obtaining the zirconium alloy nuclear fuel meeting a design requirement.
A protection circuit for a lithium-ion secondary battery , the protection circuit for the lithium-ion secondary battery comprising: a controlling IC drivable by electric power of the lithium-ion secondary battery , and configured to detect at least a voltage of the lithium-ion secondary battery , the controlling IC being provided on a line connecting a battery line (BL) connectable to the lithium-ion secondary battery and a ground line (GL) to each other, the controlling IC having a power supply input terminal (Vcc) connected to the battery line (BL) and a ground terminal (GND) connected to the ground line (GL); and an interrupting circuit including at least a fuse and a switch , characterized in that the fuse is arranged on the line at a location between the battery line (BL) and the power supply input terminal (Vcc) of the controlling IC , the switch is arranged so as to electrically connect a node (N1) between the fuse and the controlling IC to the ground line (GL), and the switch is configured to be turned on based on a power fail signal from the controlling IC if an abnormality of the lithium-ion secondary battery is detected, the switch thereby allowing a current not to blow the fuse to flow from the battery line (BL) to the controlling IC through the fuse when the switch is off, and allowing a current capable of blowing the fuse to flow from the battery line (BL) connectable to the lithium-ion secondary battery to the fuse so that the fuse is blown to block electric power supply to the controlling IC when the switch is turned on. a controlling IC drivable by electric power of the lithium-ion secondary battery , and configured to detect at least a voltage of the lithium-ion secondary battery , the controlling IC being provided on a line connecting a battery line (BL) connectable to the lithium-ion secondary battery and a ground line (GL) to each other, the controlling IC having a power supply input terminal (Vcc) connected to the battery line (BL) and a ground terminal (GND) connected to the ground line (GL); and an interrupting circuit including at least a fuse and a switch , characterized in that the fuse is arranged on the line at a location between the battery line (BL) and the power supply input terminal (Vcc) of the controlling IC , the switch is arranged so as to electrically connect a node (N1) between the fuse and the controlling IC to the ground line (GL), and the switch is configured to be turned on based on a power fail signal from the controlling IC if an abnormality of the lithium-ion secondary battery is detected, the switch thereby allowing a current not to blow the fuse to flow from the battery line (BL) to the controlling IC through the fuse when the switch is off, and allowing a current capable of blowing the fuse to flow from the battery line (BL) connectable to the lithium-ion secondary battery to the fuse so that the fuse is blown to block electric power supply to the controlling IC when the switch is turned on.