mhurhangee/ep-ind-claims huggingface dataset:
A Co-Mo-Cr Co-based metallic composition for forming a wear- and corrosion-resistant overlay on a metallic substrate, the metallic composition comprising: Si between 0.75 wt% and 1.35 wt%; Cr between 14 wt% and 17 wt%; Mo between 18 wt% and 24 wt%; C between 0.1 wt% and 0.5 wt%; and having a Mo:Si ratio of between 15:1 and 22:1; and optionally a) up to 1 wt% B; b) up to 3 wt% Ni; c) up to 3 wt% Fe; d) additional trace elements wherein the total concentration of B, Ni, Fe, and additional trace elements is less than about 8 wt%; and e) up to 2 wt% of a grain refiner selected from the group of grain refiners consisting of V, Zr, Hf, Nb, Ta, and rare earth elements, and any combination thereof, the balance being Co, wherein the alloy formed by the metallic composition has a hardness between 40 and 52 HRc (Rockwell C scale) and the wear- and corrosion resistant overlay formed by the metallic composition has a microstructure comprising between 8 vol% and 30 vol% Laves phase. Si between 0.75 wt% and 1.35 wt%; Cr between 14 wt% and 17 wt%; Mo between 18 wt% and 24 wt%; C between 0.1 wt% and 0.5 wt%; and having a Mo:Si ratio of between 15:1 and 22:1; a) up to 1 wt% B; b) up to 3 wt% Ni; c) up to 3 wt% Fe; d) additional trace elements wherein the total concentration of B, Ni, Fe, and additional trace elements is less than about 8 wt%; and e) up to 2 wt% of a grain refiner selected from the group of grain refiners consisting of V, Zr, Hf, Nb, Ta, and rare earth elements, and any combination thereof,
Transfer device having a first and at least one further conveyor belt (2, 3) and a moveable switch which has an actuator and which conveys a flow of products on to the first and/or the further conveyor belt (2, 3) or away from it, characterised in that the switch has a preferably reversible predetermined opening point which, in the event of an overload, prevents personal injury and/or property damage, wherein the predetermined opening point is a magnetic coupling and the switch has a front section (4.1) provided to be movable on the switch and the predetermined opening point is arranged between the front section (4.1) and the switch.
A fluid foaming machine for producing foam comprising a fluid container where the fluid is arranged, and a foaming device through which fluid flows and is heated and/or foamed, the machine further comprising at least a cooling unit configured to maintain permanently refrigerated both the fluid container and the foaming device during fluid preparation and during stand-by of the machine, wherein the fluid container is arranged in a primary refrigerated compartment (6, 300) of the machine, and wherein the primary refrigerated compartment (6, 300) comprises cooling walls refrigerating the sides of the fluid container, the fluid foaming machine being characterized in that the primary refrigerated compartment (6, 300) comprises a cooling block cooperating with a cavity in the fluid container. the machine further comprising at least a cooling unit configured to maintain permanently refrigerated both the fluid container and the foaming device during fluid preparation and during stand-by of the machine, wherein the fluid container is arranged in a primary refrigerated compartment (6, 300) of the machine, and wherein the primary refrigerated compartment (6, 300) comprises cooling walls refrigerating the sides of the fluid container, the fluid foaming machine being characterized in that the primary refrigerated compartment (6, 300) comprises a cooling block cooperating with a cavity in the fluid container.
A system for performing MAC Filtering on Ethernet PHY for Wake-On-LAN, the system comprising: a first device comprising: a main system-on-chip, SoC, block comprising a MAC layer and having an associated first Media Access Control MAC, address, and configured to enter a low-power mode when so instructed; and a first Ethernet physical layer, ePHY, block on a network interface controller, NIC, wherein the first ePHY block interfaces with the MAC layer of the main SoC and comprises a MAC filtering block, the ePHY being configured to: detect a Wake-On-LAN, WOL, packet comprising a target MAC address; compare, by the MAC filtering block, the target MAC address with the first MAC address; and initiate a boot up of the main SoC when: the first device resides in low-power mode when the WOL packet is detected by the first ePHY block; and the comparison indicates that the target MAC address matches the first MAC address. a first device comprising: a main system-on-chip, SoC, block comprising a MAC layer and having an associated first Media Access Control MAC, address, and configured to enter a low-power mode when so instructed; and a first Ethernet physical layer, ePHY, block on a network interface controller, NIC, wherein the first ePHY block interfaces with the MAC layer of the main SoC and comprises a MAC filtering block, the ePHY being configured to: detect a Wake-On-LAN, WOL, packet comprising a target MAC address; compare, by the MAC filtering block, the target MAC address with the first MAC address; and initiate a boot up of the main SoC when: the first device resides in low-power mode when the WOL packet is detected by the first ePHY block; and the comparison indicates that the target MAC address matches the first MAC address. a main system-on-chip, SoC, block comprising a MAC layer and having an associated first Media Access Control MAC, address, and configured to enter a low-power mode when so instructed; and a first Ethernet physical layer, ePHY, block on a network interface controller, NIC, wherein the first ePHY block interfaces with the MAC layer of the main SoC and comprises a MAC filtering block, the ePHY being configured to: detect a Wake-On-LAN, WOL, packet comprising a target MAC address; compare, by the MAC filtering block, the target MAC address with the first MAC address; and initiate a boot up of the main SoC when: the first device resides in low-power mode when the WOL packet is detected by the first ePHY block; and the comparison indicates that the target MAC address matches the first MAC address. detect a Wake-On-LAN, WOL, packet comprising a target MAC address; compare, by the MAC filtering block, the target MAC address with the first MAC address; and initiate a boot up of the main SoC when: the first device resides in low-power mode when the WOL packet is detected by the first ePHY block; and the comparison indicates that the target MAC address matches the first MAC address. the first device resides in low-power mode when the WOL packet is detected by the first ePHY block; and the comparison indicates that the target MAC address matches the first MAC address.
Method of identifying the magnetic saturation parameters of an asynchronous electric motor, characterized in that it consists in implementing a sequence comprising one or more iterations, each iteration being defined with a rank i, with i ranging from 1 to n, each iteration of rank i when i is greater than or equal to 2 comprising the following steps: a) Applying a trajectory to a reference voltage or to a reference flux, over a reference range (PLref_i) having a voltage or flux amplitude between a minimum value and a maximum value, b) Acquiring the values of the currents ( i a, i b and i c) in the phases of the electric motor and determining the corresponding magnetization current, c) Estimating the magnetization flux ( φ̂), d) Constructing an actual profile for the iteration of rank i comprising said estimated magnetization flux according to the measured magnetization current, e) Determining the magnetic saturation parameters corresponding to the actual profile of the iteration of rank i, f) Determining a deviation ( E r_i) between said actual profile for the iteration of rank i and a theoretical profile constructed from the magnetic saturation parameters obtained during the iteration of rank i-1, g) Validating the magnetic saturation parameters obtained during the iteration of rank i when said deviation is less than a threshold ( E rmax) and when the reference range (PLref_i) applied at the input has a sufficient amplitude. a) Applying a trajectory to a reference voltage or to a reference flux, over a reference range (PLref_i) having a voltage or flux amplitude between a minimum value and a maximum value, b) Acquiring the values of the currents ( i a, i b and i c) in the phases of the electric motor and determining the corresponding magnetization current, c) Estimating the magnetization flux ( φ̂), d) Constructing an actual profile for the iteration of rank i comprising said estimated magnetization flux according to the measured magnetization current, e) Determining the magnetic saturation parameters corresponding to the actual profile of the iteration of rank i, f) Determining a deviation ( E r_i) between said actual profile for the iteration of rank i and a theoretical profile constructed from the magnetic saturation parameters obtained during the iteration of rank i-1, g) Validating the magnetic saturation parameters obtained during the iteration of rank i when said deviation is less than a threshold ( E rmax) and when the reference range (PLref_i) applied at the input has a sufficient amplitude.
An LED lighting comprising: LEDs (231,232,233) with three different chromaticities of red, blue and green LEDs; an LED controller that controls light emitted from the LED lighting so as to be a desired chromaticity; wherein the LED controller controls drive currents and/or drive voltages of the LEDs based on a predetermined function of LED temperature variation and thus controls the light emitted from the LED lighting so as to be white light, said predetermined function of the temperature variation representing that the drive current is a linear, quadratic or cubic function of the temperature; characterised in that the LED controller drives the red LED at a constant current. LEDs (231,232,233) with three different chromaticities of red, blue and green LEDs; an LED controller that controls light emitted from the LED lighting so as to be a desired chromaticity; wherein the LED controller controls drive currents and/or drive voltages of the LEDs based on a predetermined function of LED temperature variation and thus controls the light emitted from the LED lighting so as to be white light, said predetermined function of the temperature variation representing that the drive current is a linear, quadratic or cubic function of the temperature; characterised in that the LED controller drives the red LED at a constant current.
Microfluidic device for the analysis of a fluid sample comprising - at least one first electrode connected to ground, - at least one second electrode intended to lean on a surface of a capacitive touch screen programmable device when said microfluidic device is placed on said touch screen, - a micro-channel comprising an inlet for introducing said sample, characterized in that said first and second electrodes comprise comb-shaped ends, a part of said micro-channel is superimposed on said comb-shaped ends of said electrodes, said first and second electrodes are arranged to produce a measurable capacitance variation on the touch screen of said capacitive touch screen programmable device when said second electrode lays on said surface of the capacitive touch screen programmable device when said microfluidic device is placed on said capacitive touch screen, so as to allow the analysis of said fluid sample. - at least one first electrode connected to ground, - at least one second electrode intended to lean on a surface of a capacitive touch screen programmable device when said microfluidic device is placed on said touch screen, - a micro-channel comprising an inlet for introducing said sample,
A prosthetic heart valve, comprising: a frame comprising a plurality of strut members, and having an inflow end and an outflow end; a leaflet structure situated at least partially within the frame; and a covering disposed around the frame, the covering comprising a first layer and a second layer, the second layer having a plush surface, the first layer being folded over a circumferential edge portion of the second layer to form a protective portion that extends beyond the strut members in a direction along a longitudinal axis of the prosthetic heart valve. a frame comprising a plurality of strut members, and having an inflow end and an outflow end; a leaflet structure situated at least partially within the frame; and a covering disposed around the frame, the covering comprising a first layer and a second layer, the second layer having a plush surface, the first layer being folded over a circumferential edge portion of the second layer to form a protective portion that extends beyond the strut members in a direction along a longitudinal axis of the prosthetic heart valve.
Method for producing a multilayer film comprising aluminum, chromium, oxygen and nitrogen, in a vacuum coating chamber, the multilayer film comprising individual layers of type A and individual layers of type B deposited alternate one of each other forming a multilayered structure with sequence of individual layers B/A/B/A/B/A..., wherein during deposition of the multilayer film at least one target comprising aluminum and chromium is operated as cathode by means of a PVD technique and used in this manner as material source for supplying aluminum and chromium, and an oxygen gas flow and a nitrogen gas flow are introduced as reactive gases in the vacuum chamber for reacting with aluminum and chromium, thereby supplying oxygen and nitrogen for forming the multilayer film, characterized in that: - The A layers are deposited as oxynitride layers of Al-Cr-O-N by using nitrogen and oxygen as reactive gas at the same time, - The B layers are deposited as nitride layers of Al-Cr-N by reducing the oxygen gas flow and by increasing the nitrogen gas flow in order to use only nitrogen as reactive gas for the formation of the Al-Cr-N layer, and wherein the relation between oxygen content and nitrogen content in the multilayer film correspond to a ratio in atomic percentage having a value between and including 1.8 and 4 and wherein the thickness of the multilayer film is ≥ 0,5 μm. - The A layers are deposited as oxynitride layers of Al-Cr-O-N by using nitrogen and oxygen as reactive gas at the same time, - The B layers are deposited as nitride layers of Al-Cr-N by reducing the oxygen gas flow and by increasing the nitrogen gas flow in order to use only nitrogen as reactive gas for the formation of the Al-Cr-N layer, and
A camera device for being fastened to an eyepiece tube of an optical device, in particular a telescopic sight, a spyglass or a telescope, comprising - an assembly module for fastening the camera device to the eyepiece tube; - a camera module for recording and/or forwarding the image, - a deflection module having a device for deflection of the image from the axis of the optical device to the camera module, said device being arranged in a housing; wherein the device for deflection of the image is semi-permeable and is formed and arranged in such a way that viewing through the optical device is enabled when the camera device is arranged on the optical device, - wherein the assembly module, the deflection module and/or the camera module are detachably connected with each other in such a way that the assembly module is allowed to remain on the eyepiece tube when the deflection module and the camera module (12; 34) are detached from the optical device; - and wherein, in the area of the end of the assembly module pointing towards the deflection module, the assembly module comprises a fastening ring having a fastening device for detachable fastening of the deflection module; characterised in that a locking device is provided at the fastening ring, said locking device preventing an unintentional detachment of the deflection module from the assembly module, the locking device comprising a spring-mounted safety latch which is displaceably mounted in a recess of the fastening ring, wherein the safety latch can be brought, via an actuating element, from a first position, in which a turning of the deflection module relative to the assembly module is blocked, into a second position, in which the deflection module and the assembly module are turnable relative to each other. - an assembly module for fastening the camera device to the eyepiece tube; - a camera module for recording and/or forwarding the image, - a deflection module having a device for deflection of the image from the axis of the optical device to the camera module, said device being arranged in a housing; wherein the device for deflection of the image is semi-permeable and is formed and arranged in such a way that viewing through the optical device is enabled when the camera device is arranged on the optical device, - wherein the assembly module, the deflection module and/or the camera module are detachably connected with each other in such a way that the assembly module is allowed to remain on the eyepiece tube when the deflection module and the camera module (12; 34) are detached from the optical device; - and wherein, in the area of the end of the assembly module pointing towards the deflection module, the assembly module comprises a fastening ring having a fastening device for detachable fastening of the deflection module;
Lamp base element having a transformer having a transformer chamber which holds the transformer, wherein the transformer is held completely in the transformer chamber and has a transformer housing which surrounds a transformer core which is provided with a first winding, and wherein a second winding is arranged around the transformer housing and is fixed on the transformer housing by means of at least one contact element (90, 92), characterized in that the contact pins (90, 92) of the transformer are passed through a contact-making face of the transformer chamber, which contact-making face is opposite an opening face.
Exhaust-gas treatment device having a housing which forms an inlet, wherein the flow cross section formed by the housing increases in size proceeding from the inlet toward a main section, wherein an exhaust-gas treatment element is arranged in the main section, and wherein, in the section between the inlet and the main section, a flow-guiding device is arranged within the interior space delimited by the housing, wherein the flow-guiding device serves for widening an exhaust-gas flow, and wherein an adjustment device for varying the position and/or alignment of the flow-guiding device is provided, characterized in that the flow-guiding device comprises a funnel ring (24, 26) which widens in a flow direction.
Method for electronically coupling a mobile terminal with a housing configured to receive the mobile terminal, the mobile terminal comprising a first radio-communication module (R 1), the housing comprising a second radio communication module (R 2), and an electronic coupling device being configured to implement the method, the method comprising at least: - inhibition of the operation of the first radio-communication module (R 1), the inhibition being triggered when the mobile terminal is secured to the housing, and - activation of the second radio-communication module (R 2), the second radio-communication module (R 2) being a secure radio-communication module that is able to exchange data that are processed according to predetermined information security rules, the second radio-communication module (R 2) comprising different types of dedicated secure radio-communication transceivers (46, 47, 48, 50), the method further comprising a step for selecting the transceiver of the second radio-communication module (R 2) adapted to the specific communication mode corresponding to a mission of the user of the communicating object resulting from the coupling of the mobile terminal and the housing. - inhibition of the operation of the first radio-communication module (R 1), the inhibition being triggered when the mobile terminal is secured to the housing, and - activation of the second radio-communication module (R 2), the second radio-communication module (R 2) being a secure radio-communication module that is able to exchange data that are processed according to predetermined information security rules, the second radio-communication module (R 2) comprising different types of dedicated secure radio-communication transceivers (46, 47, 48, 50), the method further comprising a step for selecting the transceiver of the second radio-communication module (R 2) adapted to the specific communication mode corresponding to a mission of the user of the communicating object resulting from the coupling of the mobile terminal and the housing.
A lead assembly for an implantable medical device, the lead assembly comprising: a lead body having a proximal end and a distal end, wherein a length of the lead body extends from the proximal end to the distal end and a width of the lead body is transverse to the length; one or more electrodes disposed proximate a distal end of the lead body, the one ore more electrodes being configured as band electrodes including conductive material around a perimeter of the distal end of the lead body; and one or more insulative elements (40, 50, 60, 80, 90, 100) coupled to the one or more electrodes to insulate a first portion of the one or more electrodes such that a second portion of the one or more electrodes is exposed for delivering electrical signals, the one or more insulative elements (40, 50, 60, 80, 90, 100) each having a width greater than the width of the lead body, wherein the insulative elements (40, 50, 60, 80, 90, 100) are collapsible around the lead body during implantation, and wherein the insulative elements (40, 50, 60, 80, 90, 100) extend outward from the lead body to an uncollapsed state after implantation. a lead body having a proximal end and a distal end, wherein a length of the lead body extends from the proximal end to the distal end and a width of the lead body is transverse to the length; one or more electrodes disposed proximate a distal end of the lead body, the one ore more electrodes being configured as band electrodes including conductive material around a perimeter of the distal end of the lead body; and one or more insulative elements (40, 50, 60, 80, 90, 100) coupled to the one or more electrodes to insulate a first portion of the one or more electrodes such that a second portion of the one or more electrodes is exposed for delivering electrical signals, the one or more insulative elements (40, 50, 60, 80, 90, 100) each having a width greater than the width of the lead body, wherein the insulative elements (40, 50, 60, 80, 90, 100) are collapsible around the lead body during implantation, and wherein the insulative elements (40, 50, 60, 80, 90, 100) extend outward from the lead body to an uncollapsed state after implantation.
An induction heating assembly for a vapour generating device, the heating assembly comprising: an induction coil, radially inward of which a heating compartment is defined for receiving, in use, a body comprising a vaporisable substance and an induction heatable susceptor; and a temperature sensor located against a side of the heating compartment on the central longitudinal axis of the induction coil at an end of the heating compartment, wherein the induction coil is arranged to heat, in use, the susceptor, and the temperature sensor is arranged to monitor, in use, a temperature related to heat generated from the susceptor. an induction coil, radially inward of which a heating compartment is defined for receiving, in use, a body comprising a vaporisable substance and an induction heatable susceptor; and a temperature sensor located against a side of the heating compartment on the central longitudinal axis of the induction coil at an end of the heating compartment, wherein the induction coil is arranged to heat, in use, the susceptor, and the temperature sensor is arranged to monitor, in use, a temperature related to heat generated from the susceptor.