mhurhangee/ep-ind-claims huggingface dataset:
A battery cell protecting case for assembling a battery cell having a positive pole and a negative pole in a conductive battery housing being electrically connected to one of the positive pole or the negative pole, characterized in that the battery cell protecting case comprising: a conductive supporting plate (10, 10a, 10b, 10c, 10d) being electrically connected to the other one of the positive pole or the negative pole of the battery cell, and the conductive supporting plate (10,10a,10b,10c,10d) being provided with a layer of insulative material and an exposed portion (100,100a) without insulative material formed thereon; and a nonconductive bracket (12,12a,12b,12c,12d) coupled to the conductive supporting plate (10,10a,10b,10c,10d), the nonconductive bracket (12,12a,12b,12c,12d) having a through slot (14,14a,14b,14c,14d) corresponding to the exposed portion (100, 100a), the exposed portion (100, 100a) being capable of electrically connecting with the conductive battery housing via the through slot (14,14a,14b,14c,14d) due to deformation of the conductive battery housing under pressure. a conductive supporting plate (10, 10a, 10b, 10c, 10d) being electrically connected to the other one of the positive pole or the negative pole of the battery cell, and the conductive supporting plate (10,10a,10b,10c,10d) being provided with a layer of insulative material and an exposed portion (100,100a) without insulative material formed thereon; and a nonconductive bracket (12,12a,12b,12c,12d) coupled to the conductive supporting plate (10,10a,10b,10c,10d), the nonconductive bracket (12,12a,12b,12c,12d) having a through slot (14,14a,14b,14c,14d) corresponding to the exposed portion (100, 100a), the exposed portion (100, 100a) being capable of electrically connecting with the conductive battery housing via the through slot (14,14a,14b,14c,14d) due to deformation of the conductive battery housing under pressure.
A driving-force control device mounted on a saddle-ride type vehicle that transmits a driving force of an engine to a rear wheel generating a rear wheel torque, sequentially via a main clutch and a dog-type transmission, the driving-force control device comprising: a control unit that executes first control to suppress the driving force when it is judged that a front wheel of the saddle-ride type vehicle is in a lifted state in which the front wheel is lifted, and second control to temporarily change the driving force by releasing or weakening engagement of dogs of the dog-type transmission so that gear shift of the dog-type transmission becomes possible, when a shift operation of the dog-type transmission is detected in a state in which connection of the main clutch is being detected, wherein when the first control is executed while the second control is executed, the control unit sets a lower one of a value of the rear wheel torque calculated in the first control (RESETQ) and a value of the rear wheel torque calculated in the second control (SASETQ) as a value of a target rear wheel torque (MTCRQTQLF). a control unit that executes first control to suppress the driving force when it is judged that a front wheel of the saddle-ride type vehicle is in a lifted state in which the front wheel is lifted, and second control to temporarily change the driving force by releasing or weakening engagement of dogs of the dog-type transmission so that gear shift of the dog-type transmission becomes possible, when a shift operation of the dog-type transmission is detected in a state in which connection of the main clutch is being detected, wherein when the first control is executed while the second control is executed, the control unit sets a lower one of a value of the rear wheel torque calculated in the first control (RESETQ) and a value of the rear wheel torque calculated in the second control (SASETQ) as a value of a target rear wheel torque (MTCRQTQLF).
A compensation method for a magnetic field determined on board a vehicle using a magnetic field sensor on board a vehicle in order to calculate the magnetic heading of said vehicle, said method comprising the steps carried out by computer and consisting of: - for each measuring time T i, i= 1 to N with N>1, collecting the values of the 3D magnetic field Hm i coming from the magnetic field sensor and the angles θ i and φ i, where θ i is the pitch of the vehicle φ i is the roll of the vehicle; - determining a matrix A and a vector B as a function at least of said collected magnetic field values Hm i and angles θ i and φ i, i= 1 to N, the matrix A representing the soft iron and nonalignment disruptions between the vehicle and the magnetic field sensor and the vector B representing the hard iron disruptions; and said method being characterized in that the determination of the matrix A and the vector B comprises a step for estimating the pair (A,B) minimizing the expression ∑ i = 1 à N ‖ A Hm i − B ‖ − 1 N ∑ i = 1 à N ‖ A Hm i − B ‖ 2 + ∑ i = 1 à N V i A Hm i − B − 1 N ∑ i = 1 à N V i A Hm i − B 2 where V i = [-sin( θ i); sin( φ i).cos( θ i); cos( φ i).cos( θ i)]. - for each measuring time T i, i= 1 to N with N>1, collecting the values of the 3D magnetic field Hm i coming from the magnetic field sensor and the angles θ i and φ i, where θ i is the pitch of the vehicle φ i is the roll of the vehicle; - determining a matrix A and a vector B as a function at least of said collected magnetic field values Hm i and angles θ i and φ i, i= 1 to N, the matrix A representing the soft iron and nonalignment disruptions between the vehicle and the magnetic field sensor and the vector B representing the hard iron disruptions; and
An induction heating cooktop comprising a bridge rectifier that converts the alternating current into direct current, a filter circuit disposed at the outlet of the bridge rectifier, a resonant circuit having an induction coil that provides the heating of the vessel placed thereon and a resonant capacitor connected in parallel to the induction coil, a power switch that drives the resonant circuit, a freewheeling diode connected in parallel to the power switch and providing continuity of the induction coil current in the resonant circuit during the non-conduction times of the power switch, a collector node whereon resonance voltage (Vce) is generated, and a control unit that regulates the operation of the power switch, the induction heating cooktop being characterized in that - the induction heating cooktop comprises a current detection circuit connected in series to the power switch and the freewheeling diode, - the current detection circuit converts the switch current (Is) passing through the power switch and the freewheeling diode into voltage data and thus provides the monitoring of the switch current (Is), and - the control unit calculates the diode conduction time (Td) of the switch current (Is) passing through the freewheeling diode by monitoring the switch current (Is) and compares the diode conduction time (Td) with a threshold diode conduction time recorded in its memory, thus determining whether or not the vessel is present on the induction coil or whether alignment of the vessel on the induction coil is appropriate.
A method comprising: receiving a first video data stream from a first surveillance camera in a monitored region via a cloud network; a first user interface device of or coupled to a first virtual reality headset displaying the first video data stream; the first user interface device receiving first user input corresponding to a movement of a first user's body to navigate the first video data stream and simulate the first user navigating the monitored region from within the monitored region; the first user interface device displaying a status of one or more access or intrusion devices in the monitored region; and the first user interface device receiving second user input and transmitting an instructions signal corresponding to the second user input to the one or more access or intrusion devices in the monitored region, via the cloud network, to control the one or more access or intrusion devices with the first virtual reality headset. receiving a first video data stream from a first surveillance camera in a monitored region via a cloud network; a first user interface device of or coupled to a first virtual reality headset displaying the first video data stream; the first user interface device receiving first user input corresponding to a movement of a first user's body to navigate the first video data stream and simulate the first user navigating the monitored region from within the monitored region; the first user interface device displaying a status of one or more access or intrusion devices in the monitored region; and the first user interface device receiving second user input and transmitting an instructions signal corresponding to the second user input to the one or more access or intrusion devices in the monitored region, via the cloud network, to control the one or more access or intrusion devices with the first virtual reality headset.
A device for working, in particular stamping and connecting a work piece, in particular plastic components for a motor vehicle, wherein the device includes at least one working tool (10a - 10d; 10a -10f) with an top tool (10a' - 10d"; 10a" -10f) and a bottom tool (10a" - 10d"; 10a" -10f"; 110) cooperating with the top tool (10a' - 10d'; 10a' - 10f') and the working tool includes a bottom tool (10a" or 110) with at least two working units (14a, 14b; or 114a, 114b) which are movable towards the top tool and away from the top tool wherein the bottom tool (10a"'; 110) includes at least one movement device (15'; 115a, 115b) by which at least the first working unit and the second working unit are optionally movable relative to the top tool of the working tool, wherein at least one movement device (15'; 115a; 115b) includes a slide (15; 117; 124) on whose slide table (15a, 117a; 124a) at least one working unit (14a, 14b; 114a; 114b) is arranged and wherein the slide table (15a; 117a; 124a) of the slide (15; 117, 124) is movably arranged on a slide support (15b; 117b; 124b) characterized in that a linear displacement of the slide (15; 117; 124) is performed essentially in a direction of a feed movement of the bottom tool towards the associated upper tool or orthogonal to this direction, and the device includes a pivot table that is pivotable from a loading position into an operating position and which includes an extraction device by which the work piece supported on the pivot table is removable from the device in an operating position of the device.
A system for maintaining a seal about an engine centerline, comprising: a first component; a second component; and a dog-bone seal coupled to the first component and the second component, wherein the first component is configured with at least one spline (4, 8) that is configured to engage a slot in the dog-bone seal to radially center the dog-bone seal relative to the first component and the second component; characterised in that: the at least one spline (4, 8) comprises at least one pin attached to at least one pin slot in the first component. a first component; a second component; and a dog-bone seal coupled to the first component and the second component, wherein the first component is configured with at least one spline (4, 8) that is configured to engage a slot in the dog-bone seal to radially center the dog-bone seal relative to the first component and the second component; characterised in that: the at least one spline (4, 8) comprises at least one pin attached to at least one pin slot in the first component.
A sound determination device, comprising: a frequency analysis unit configured to receive a mixed sound including a to-be-extracted sound and a noise, and to obtain a frequency signal of the mixed sound for each of a plurality of times included in a predetermined duration; and a to-be-extracted sound determination unit configured to determine, when the number of the frequency signals at the plurality of times included in the predetermined duration is equal to or larger than a first threshold value and a phase distance between the frequency signals out of the frequency signals at the plurality of times is equal to or smaller than a second threshold value, each of these frequency signals as a frequency signal of the to-be-extracted sound, wherein the phase distance is a distance between modified phases of the frequency signals when a phase of a frequency signal at a time t is ψ (t) (radian) and the modified phase is represented by ψ' (t) = mod 2 π (ψ (t) - 2 π f t), where f is an analysis-target frequency a frequency analysis unit configured to receive a mixed sound including a to-be-extracted sound and a noise, and to obtain a frequency signal of the mixed sound for each of a plurality of times included in a predetermined duration; and a to-be-extracted sound determination unit configured to determine, when the number of the frequency signals at the plurality of times included in the predetermined duration is equal to or larger than a first threshold value and a phase distance between the frequency signals out of the frequency signals at the plurality of times is equal to or smaller than a second threshold value, each of these frequency signals as a frequency signal of the to-be-extracted sound, wherein the phase distance is a distance between modified phases of the frequency signals when a phase of a frequency signal at a time t is ψ (t) (radian) and the modified phase is represented by ψ' (t) = mod 2 π (ψ (t) - 2 π f t), where f is an analysis-target frequency
A method for determining the likelihood of a living patient having Alzheimer's disease pathology comprising the steps: a) determining the amount of α7nAChR or TLR4 in a FLNA-captured protein complex or of one or more of a protein-protein complex i) α7nAChR/FLNA and ii) TLR4/FLNA present in a body sample preparation from a living patient to be assayed for AD pathology; and b) comparing that determined amount with the amount of the same protein or protein ratio established in a standard body sample preparation from a person free of AD symptoms, wherein a determined value that is significantly greater than the value present in the standard body sample preparation indicates the presence of AD pathology. a) determining the amount of α7nAChR or TLR4 in a FLNA-captured protein complex or of one or more of a protein-protein complex i) α7nAChR/FLNA and ii) TLR4/FLNA present in a body sample preparation from a living patient to be assayed for AD pathology; and b) comparing that determined amount with the amount of the same protein or protein ratio established in a standard body sample preparation from a person free of AD symptoms,
A support for suspending an automotive part, in particular a heat exchanger frame, on an automotive chassis, said support taking the overall shape of a plate including a main plane, and said support comprising: • an outer armature including a member for fastening to said automotive chassis, • an inner armature configured to be fitted onto a pin of said automotive part, in a direction perpendicular to said main plane, • an elastic suspension element disposed between said outer armature and said inner armature, said support being characterized in that it comprises: • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end, onto said pin, said elastic stop and said pin being configured so that said elastic stop is capable of taking a plurality of angular positions around said pin, including at least: • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, said elastic stop being configured to be coupled by the second end thereof to said automotive part when it is in one of the angular positions of use. • an outer armature including a member for fastening to said automotive chassis, • an inner armature configured to be fitted onto a pin of said automotive part, in a direction perpendicular to said main plane, • an elastic suspension element disposed between said outer armature and said inner armature, said support being characterized in that it comprises: • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end, onto said pin, • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end, onto said pin, said elastic stop and said pin being configured so that said elastic stop is capable of taking a plurality of angular positions around said pin, including at least: • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, said elastic stop being configured to be coupled by the second end thereof to said automotive part when it is in one of the angular positions of use.
A radical generator comprising a supply tube for supplying a gas and a plasma-generating tube made of a dielectric material, the plasma-generating tube being connected to the supply tube at the downstream end thereof, characterized in that the radical generator comprises: a coil winding about the outer circumference of the plasma-generating tube, for generating an inductively coupled plasma in the plasma-generating tube; and an electrode which covers the outer wall of the plasma-generating tube and which is disposed between the coil and the supply tube, the radical generator being characterized in that: said electrode is configured for generating a capacitively coupled plasma in the plasma-generating tube, said capacitively coupled plasma being added to the inductively coupled plasma. a coil winding about the outer circumference of the plasma-generating tube, for generating an inductively coupled plasma in the plasma-generating tube; and an electrode which covers the outer wall of the plasma-generating tube and which is disposed between the coil and the supply tube, the radical generator being characterized in that: said electrode is configured for generating a capacitively coupled plasma in the plasma-generating tube, said capacitively coupled plasma being added to the inductively coupled plasma. said electrode is configured for generating a capacitively coupled plasma in the plasma-generating tube, said capacitively coupled plasma being added to the inductively coupled plasma.
A gas turbine engine comprising: a fan section including a plurality of fan blades rotatable about an axis; a core engine including a compressor section, a combustor in fluid communication with the compressor section, a turbine section in fluid communication with the combustor, and a geared architecture driven by the turbine section for rotating the fan; and a lubrication system for directing lubricant to components of the core engine and fan section, the lubricant system including a total flow capacity of lubricant, wherein the total flow capacity includes a primary flow capacity routed to the core engine and the fan section and a bypass flow capacity routed around the core engine and fan section, the gas turbine engine characterized in that the bypass flow capacity is less than about 10% of the total flow capacity. a fan section including a plurality of fan blades rotatable about an axis; a core engine including a compressor section, a combustor in fluid communication with the compressor section, a turbine section in fluid communication with the combustor, and a geared architecture driven by the turbine section for rotating the fan; and a lubrication system for directing lubricant to components of the core engine and fan section, the lubricant system including a total flow capacity of lubricant, wherein the total flow capacity includes a primary flow capacity routed to the core engine and the fan section and a bypass flow capacity routed around the core engine and fan section, the gas turbine engine characterized in that the bypass flow capacity is less than about 10% of the total flow capacity.
An industrial salt manufacturing apparatus comprising: an extracting device for extracting a part of combustion gas from a kiln exhaust gas passage running from an inlet end of a cement kiln to a bottom cyclone; a dust collector for recovering dust in a gas extracted by the extracting device; a washing device for washing dust recovered by the dust collector; and a spray drier for drying a filtrate generated by washing in the washing device in a gas stream to obtain an industrial salt, wherein no electrodeposition device and no crystallizer are comprised. an extracting device for extracting a part of combustion gas from a kiln exhaust gas passage running from an inlet end of a cement kiln to a bottom cyclone; a dust collector for recovering dust in a gas extracted by the extracting device; a washing device for washing dust recovered by the dust collector; and a spray drier for drying a filtrate generated by washing in the washing device in a gas stream to obtain an industrial salt, wherein no electrodeposition device and no crystallizer are comprised.
A method of allocating a resource for a hierarchical cellular system performed by a coordinator, the method comprising: recognizing a usage rate of a macrocell dedicated resource that a macrocell uses and a usage rate of shared resource that the macrocell and a small cell (120, 130) use; controlling the macrocell dedicated resource and the shared resource based on the usage rate of the macrocell dedicated resource and the usage rate of the shared resource; and allocating the controlled macrocell dedicated resource and the controlled shared resource to the macrocell and the small cell (120, 130), wherein the macrocell dedicated resource is a radio resource only for the macrocell and the shared resource is a radio resource for both the macrocell and the small cell (120, 130); and controlling the macrocell to report a usage plan of the shared resource to the small cell (120, 130) before the macrocell uses the shared resource. recognizing a usage rate of a macrocell dedicated resource that a macrocell uses and a usage rate of shared resource that the macrocell and a small cell (120, 130) use; controlling the macrocell dedicated resource and the shared resource based on the usage rate of the macrocell dedicated resource and the usage rate of the shared resource; and allocating the controlled macrocell dedicated resource and the controlled shared resource to the macrocell and the small cell (120, 130),