mhurhangee/ep-ind-claims huggingface dataset:
A signal collection unit of a battery module, comprising: a circuit board having a circuit thereon; a signal collection terminal comprising a protection cover electrically connected with the circuit and an electric connection sheet connected with the protection cover, the protection cover being disposed on a surface of the circuit board and a chamber being defined by the protection cover and the circuit board, the electric connection sheet being extended beyond an edge of the circuit board; a temperature-sensing element disposed in the chamber and on the surface of the circuit board, and insulated from the protection cover; and a heat conductive-electric isolative material filled within the chamber through an inlet being formed in the protection cover. a circuit board having a circuit thereon; a signal collection terminal comprising a protection cover electrically connected with the circuit and an electric connection sheet connected with the protection cover, the protection cover being disposed on a surface of the circuit board and a chamber being defined by the protection cover and the circuit board, the electric connection sheet being extended beyond an edge of the circuit board; a temperature-sensing element disposed in the chamber and on the surface of the circuit board, and insulated from the protection cover; and a heat conductive-electric isolative material filled within the chamber through an inlet being formed in the protection cover.
An orthopedic implant extraction tool comprising: a handle; a gripping handle pivotably connected to the handle; a movable jaw connected to the gripping handle; and a modular jaw adapted to be connected to the handle, the modular jaw including: an elongated body, a claw about a distal end of the elongated body for engaging an object, and a locking mechanism about a posterior end of the elongated body for engaging the orthopedic implant extraction tool, characterised in that the locking mechanism includes: a dovetail lock, a detent mounted to the dovetail lock, and a distally facing surface about a proximal end of the elongated body; wherein the orthopedic implant extraction tool further comprises a shaft adapted to be connected to the handle for locking the modular jaw in position. a handle; a gripping handle pivotably connected to the handle; a movable jaw connected to the gripping handle; and a modular jaw adapted to be connected to the handle, the modular jaw including: an elongated body, a claw about a distal end of the elongated body for engaging an object, and a locking mechanism about a posterior end of the elongated body for engaging the orthopedic implant extraction tool, characterised in that the locking mechanism includes: a dovetail lock, a detent mounted to the dovetail lock, and a distally facing surface about a proximal end of the elongated body; wherein the orthopedic implant extraction tool further comprises a shaft adapted to be connected to the handle for locking the modular jaw in position. a modular jaw adapted to be connected to the handle, the modular jaw including: an elongated body, a claw about a distal end of the elongated body for engaging an object, and a locking mechanism about a posterior end of the elongated body for engaging the orthopedic implant extraction tool, characterised in that the locking mechanism includes: a dovetail lock, a detent mounted to the dovetail lock, and a distally facing surface about a proximal end of the elongated body; wherein the orthopedic implant extraction tool further comprises an elongated body, a claw about a distal end of the elongated body for engaging an object, and a locking mechanism about a posterior end of the elongated body for engaging the orthopedic implant extraction tool, characterised in that the locking mechanism includes: a dovetail lock, a detent mounted to the dovetail lock, and a distally facing surface about a proximal end of the elongated body; wherein the orthopedic implant extraction tool further comprises a dovetail lock, a detent mounted to the dovetail lock, and a distally facing surface about a proximal end of the elongated body; wherein the orthopedic implant extraction tool further comprises a shaft adapted to be connected to the handle for locking the modular jaw in position.
An electronic device having a reduced propensity for electrostatic discharge, the electronic device comprising: at least two vertically oriented walls (16, 17A, 17B, 76); a circuit board having a peripheral edge positioned in the electronic device; a heat sink contacting the circuit board, the heat sink having orientation features (79, 80) on a periphery of the heat sink, wherein the orientation features orient the heat sink with respect to the circuit board; and a first antenna assembly (15H, 15V) positioned inside the electronic device adjacent to one of the vertically oriented walls, wherein the first antenna assembly is positioned outside the peripheral edge of the circuit board and the periphery of the heat sink. at least two vertically oriented walls (16, 17A, 17B, 76); a circuit board having a peripheral edge positioned in the electronic device; a heat sink contacting the circuit board, the heat sink having orientation features (79, 80) on a periphery of the heat sink, wherein the orientation features orient the heat sink with respect to the circuit board; and a first antenna assembly (15H, 15V) positioned inside the electronic device adjacent to one of the vertically oriented walls, wherein the first antenna assembly is positioned outside the peripheral edge of the circuit board and the periphery of the heat sink.
An architecture for powering aircraft brakes for an aircraft having at least two undercarriages, each having a certain number of wheels (L1, L2, R1, R2), each of the wheels being fitted with brakes, each having a certain number of electromechanical braking actuators (1, 2, 3, 4), the architecture including controllers (EMACs) for delivering power signals to the actuators in response to a braking order, the wheels on each of the undercarriages being grouped together in first and second complementary groups (L1, R1; L2, R2) such that for each group of wheels, a first group of actuators (1, 2) is controlled by one controller (EMAC1/EMAC4/EMAC5/EMAC8) that controls those actuators only, and a complementary second group of actuators (3, 4) is controlled by another controller (EMAC2/EMAC3/EMAC6/EMAC7) that controls only those actuators.
A shoe, comprising: an upper, the upper further comprising: a base material; wherein a lateral side of the upper comprises multiple weld zones having multiple welds; multiple unwelded zones; and multiple eyelet portions overlaid on the base material; wherein a medial side of the upper comprises multiple weld zones having multiple welds; multiple unwelded zones; multiple eyelet portions overlaid on the base material; and a sole structure, characterized in that a first weld zone having intersecting welds is located on the lateral side of the upper below a first eyelet portion wrapping around the ankle to an outer heel support; a second weld zone having intersecting welds on the medial side of the upper from a second eyelet portion wrapping around the ankle to the outer heel support; a third weld zone having intersecting welds is located below a third eyelet portion spanning to the sole structure where the instep meets the toe box; a toe strap is located on the medial side of the upper opposite the third weld zone; and the first weld zone and the second weld zone around the ankle portion of the upper reduces the stretch of the base material in the lateral direction and the longitudinal direction. an upper, the upper further comprising: a base material; wherein a lateral side of the upper comprises multiple weld zones having multiple welds; multiple unwelded zones; and multiple eyelet portions overlaid on the base material; wherein a medial side of the upper comprises multiple weld zones having multiple welds; multiple unwelded zones; multiple eyelet portions overlaid on the base material; and a sole structure, characterized in that a first weld zone having intersecting welds is located on the lateral side of the upper below a first eyelet portion wrapping around the ankle to an outer heel support; a second weld zone having intersecting welds on the medial side of the upper from a second eyelet portion wrapping around the ankle to the outer heel support; a third weld zone having intersecting welds is located below a third eyelet portion spanning to the sole structure where the instep meets the toe box; a toe strap is located on the medial side of the upper opposite the third weld zone; and the first weld zone and the second weld zone around the ankle portion of the upper reduces the stretch of the base material in the lateral direction and the longitudinal direction.
A method of handling and controlling resources in the bearer plane for a plurality of users, the method comprising the steps of: - indicating (S-150) from a policy enforcement device "PCEF" towards a policy decision server "PCRF" the establishment of a session for a user through an IP Connectivity Access Network "IP-CAN session"; and - generating (S-155) at the policy decision server a user session for said user, and policy control rules applicable to said user session; and characterised in that also comprises the steps of: - determining (S-160), at the policy decision server, at least one criterion to monitor this user along with other users in a group of users; - associating (S-165, S-445), at the policy decision server, the user session for the user with a group session for the at least one criterion; - determining (S-170, S-450), at the policy decision server, policy control rules applicable to said group session; - downloading (S-175, S-425, S-455) from the policy decision server towards the policy enforcement device the policy control rules applicable to said user session and the policy control rules applicable to said group session, and indicating from the policy decision server towards the policy enforcement device respective events to be reported; - installing (S-180, S-430, S-460) the received policy control rules and associating the IP-CAN session with a corresponding group session at the policy enforcement device; and - applying (S-185, S-465) at the policy enforcement device the policy control rules applicable to the corresponding group session to all IP-CAN sessions associated with the group session. - indicating (S-150) from a policy enforcement device "PCEF" towards a policy decision server "PCRF" the establishment of a session for a user through an IP Connectivity Access Network "IP-CAN session"; and - generating (S-155) at the policy decision server a user session for said user, and policy control rules applicable to said user session; - determining (S-160), at the policy decision server, at least one criterion to monitor this user along with other users in a group of users; - associating (S-165, S-445), at the policy decision server, the user session for the user with a group session for the at least one criterion; - determining (S-170, S-450), at the policy decision server, policy control rules applicable to said group session; - downloading (S-175, S-425, S-455) from the policy decision server towards the policy enforcement device the policy control rules applicable to said user session and the policy control rules applicable to said group session, and indicating from the policy decision server towards the policy enforcement device respective events to be reported; - installing (S-180, S-430, S-460) the received policy control rules and associating the IP-CAN session with a corresponding group session at the policy enforcement device; and - applying (S-185, S-465) at the policy enforcement device the policy control rules applicable to the corresponding group session to all IP-CAN sessions associated with the group session.
A scroll compressor comprising: a shell having an inner space filled with refrigerant discharged to the inner space, the inner space containing a predetermined amount of oil; a driving motor installed in the shell; a crankshaft coupled to a rotor of the driving motor and having an oil passage formed therethrough; a fixed scroll fixed to the shell and having a fixing wrap; and an orbiting scroll having an orbiting wrap engaged with the fixing wrap, the orbiting scroll forming compression chambers together with the fixed scroll while orbiting with respect to the fixed scroll, wherein the orbiting scroll comprises a differential pressure hole for communicating a high pressure part formed in the inner space of the shell with an intermediate pressure part formed between the fixed scroll and the orbiting scroll, wherein the differential pressure hole comprises a decompression portion having a pin member inserted therein for decompressing oil, and an inner diameter of the decompression portion being greater than an outer diameter of the pin member, and wherein the decompression portion has an inlet communicating with the high pressure part and an outlet communicating with the intermediate pressure part, and a length between the inlet and the outlet being longer than a length of the pin member, characterized in that the fixed scroll comprises a communication hole having a first open end communicating with the high pressure part, and a second open end communicating with the first open end and a low pressure part between the fixed scroll and the orbiting scroll. a shell having an inner space filled with refrigerant discharged to the inner space, the inner space containing a predetermined amount of oil; a driving motor installed in the shell; a crankshaft coupled to a rotor of the driving motor and having an oil passage formed therethrough; a fixed scroll fixed to the shell and having a fixing wrap; and an orbiting scroll having an orbiting wrap engaged with the fixing wrap, the orbiting scroll forming compression chambers together with the fixed scroll while orbiting with respect to the fixed scroll,
Method for manufacturing hydraulic accumulators and parts thereof, at least one lower housing part being manufactured by means of a 3D printing method, plastics materials being used for 3D printing, and, during the 3D printing method itself, a separating diaphragm being moulded directly onto the lower housing part, but without a fixing ring.
Support system for cultivating crops in one or more trays, the support system comprising: - one or more trays configured for holding a crop or a precursor thereof therein; one or more elongate tracks for supporting a number of parallel rows of said trays, wherein each track comprises: a first longitudinal girder positioned on a first longitudinal side of the track; a second longitudinal girder positioned on an opposite second longitudinal side of the track; support parts for supporting the first and second longitudinal girder at substantially constant distance relative to the ground; a number of transverse girders attached to the first and second longitudinal girders; a number of profiles (9,10) attached to the transverse girders and extending parallel to the longitudinal girders; characterized in that the support system comprises at least one tray provided at its underside and in its centre with a receiving space (18,18'), in that the upper side (17,17') of the profile is configured to fixedly clamp the underside of the tray on the profile so as to support the tray in its centre in a stable and centred manner relative to adjacent profiles, and in that the profile is further configured to allow the tray to slide along the profile while the profile is in the fixedly clamped situation wherein the profile is lying in the centre under the tray. - one or more trays configured for holding a crop or a precursor thereof therein; one or more elongate tracks for supporting a number of parallel rows of said trays, a first longitudinal girder positioned on a first longitudinal side of the track; a second longitudinal girder positioned on an opposite second longitudinal side of the track; support parts for supporting the first and second longitudinal girder at substantially constant distance relative to the ground; a number of transverse girders attached to the first and second longitudinal girders; a number of profiles (9,10) attached to the transverse girders and extending parallel to the longitudinal girders; characterized in that the support system comprises at least one tray provided at its underside and in its centre with a receiving space (18,18'), in that the upper side (17,17') of the profile is configured to fixedly clamp the underside of the tray on the profile so as to support the tray in its centre in a stable and centred manner relative to adjacent profiles, and in that the profile is further configured to allow the tray to slide along the profile while the profile is in the fixedly clamped situation wherein the profile is lying in the centre under the tray.
Use of an immersed module in a membrane bioreactor, the immersed membrane module comprising braid supported hollow fiber membranes, the membranes comprising a braided supporting layer and a membrane layer, the membrane layer comprising PVDF, characterized in that the supporting layer comprising yarns made of filaments comprising PVDF, wherein the supporting layer further comprises polyester yarns.
Printing system for printing print material with - a number of digital printing stations, - at least one pre- and/or post-treatment station (20, 22) and - a number of print product carriers for taking up a print product and for transporting the print product to the stations (20, 22), characterized in that - the print product carriers each have their own drive, a steerable chassis and a control unit for independent movement of the print product carriers on a factory floor as a transport surface and - in that the stations (14, 20, 22) are arranged on the transport surface, on which the print product carriers are freely movable. - a number of digital printing stations, - at least one pre- and/or post-treatment station (20, 22) and - a number of print product carriers for taking up a print product and for transporting the print product to the stations (20, 22), characterized in that - the print product carriers each have their own drive, a steerable chassis and a control unit for independent movement of the print product carriers on a factory floor as a transport surface and - in that the stations (14, 20, 22) are arranged on the transport surface, on which the print product carriers are freely movable.
A method for a transmission electron microscope for automatically adjusting an orientation of a sample having a crystal structure, the method comprising: applying (205, 310) an electron beam having a wavelength λ to the sample, wherein the sample has an initial crystal orientation to a zone axis of the sample of -5° < φ < 5°; obtaining (210, 315) an image of the sample with the applied electron beam; automatically determining (215, 320-330) an orientation of the sample relative to the zone axis of the sample based on a distribution of reflections in the image; and automatically adjusting (220, 335) the orientation of the sample relative to a direction of incidence of the electron beam to align with the sample's zone axis based on the determined orientation, characterized in that the automatic determination (215, 320-330) of the orientation of the sample further comprises: determining a zero order Laue circle of the imaged sample based on the distribution of reflections in the image, wherein a radius of the zero order Laue circle is determined based on a distribution of reflections in the image; and determining (325, 330) tilt angle adjustments (φ α, φ β) based on the determined Laue circle, wherein an angle φ of the sample's deviation from zone axis alignment is determined using the radius of the zero order Laue circle, which is approximately equal to sin φ ⋅ 1 λ. applying (205, 310) an electron beam having a wavelength λ to the sample, wherein the sample has an initial crystal orientation to a zone axis of the sample of -5° < φ < 5°; obtaining (210, 315) an image of the sample with the applied electron beam; automatically determining (215, 320-330) an orientation of the sample relative to the zone axis of the sample based on a distribution of reflections in the image; and automatically adjusting (220, 335) the orientation of the sample relative to a direction of incidence of the electron beam to align with the sample's zone axis based on the determined orientation, characterized in that the automatic determination (215, 320-330) of the orientation of the sample further comprises: determining a zero order Laue circle of the imaged sample based on the distribution of reflections in the image, wherein a radius of the zero order Laue circle is determined based on a distribution of reflections in the image; and determining (325, 330) tilt angle adjustments (φ α, φ β) based on the determined Laue circle, wherein an angle φ of the sample's deviation from zone axis alignment is determined using the radius of the zero order Laue circle, which is approximately equal to sin φ ⋅ 1 λ. determining a zero order Laue circle of the imaged sample based on the distribution of reflections in the image, wherein a radius of the zero order Laue circle is determined based on a distribution of reflections in the image; and determining (325, 330) tilt angle adjustments (φ α, φ β) based on the determined Laue circle, wherein an angle φ of the sample's deviation from zone axis alignment is determined using the radius of the zero order Laue circle, which is approximately equal to sin φ ⋅ 1 λ.
An electronically controlled expansion valve, of the type including a controlled valve inserted between a source of fluid at a first pressure and an outlet of fluid at a second pressure, the second pressure being lower than the first pressure, a pressure sensor adapted to measure the second pressure and a control computer adapted to control the valve such that the valve generates a pressure drop between the fluid source and the outlet making it possible to slave the second pressure to a set pressure (P ref); - the controlled valve comprising an actuator adapted to restrict a fluid passage section, between the source and the fluid outlet, so as to vary said passage section, - the restriction being carried out by means of a fluid passage orifice and a shutter member placed in the axis of the orifice and arranged so that an axial displacement of the shutter member causes a variation in the fluid passage section, - the shutter member being driven by the actuator, - the expansion valve including a position sensor of the shutter member, characterized in that the control computer is adapted to converge, according to a first control law, the position (X 1) of the shutter member towards a set position (Y r), the set position (Y r) being determined by a second control law to converge the second pressure towards the set pressure (P ref), on the basis of a model of a flow rate (D col) of the expansion valve, the flow rate (D col) of the expansion valve being the flow rate of the fluid flowing through the passage section between the expansion valve and the fluid outlet, said model of the flow rate (D col) of the expansion valve being defined as a function of the position (X 1) of the shutter member, said second control law being further determined on the basis of a model of the second pressure as a function of the flow rate (D col) of the expansion valve and of a consumption flow rate (D s) downstream of the fluid outlet. - the controlled valve comprising an actuator adapted to restrict a fluid passage section, between the source and the fluid outlet, so as to vary said passage section, - the restriction being carried out by means of a fluid passage orifice and a shutter member placed in the axis of the orifice and arranged so that an axial displacement of the shutter member causes a variation in the fluid passage section, - the shutter member being driven by the actuator, - the expansion valve including a position sensor of the shutter member,