mhurhangee/ep-ind-claims huggingface dataset:
An aerosol delivery device (100, 200), comprising: a first outer body (102, 202); a second outer body (104, 204); a power source (136, 236) positioned in the first outer body (102, 202); an atomizer (128, 228) positioned in the second outer body (104, 204); and a coupler (106, 206) having a first engagement portion (108, 208) engaging an inner end (102A, 202A) of the first outer body (102, 202) and a second engagement portion (110, 210) engaging an inner end (104A, 204A) of the second outer body (104, 204), the coupler (106, 206) defining a coupler inlet (156, 256), the coupler (106, 206) being configured to receive air through the coupler inlet (156, 256) from an inlet aperture (150, 250) defined in one of the first outer body (102, 202) and the second outer body (104, 204) and to direct the air to the atomizer (128, 228) in the second outer body (104, 204). a first outer body (102, 202); a second outer body (104, 204); a power source (136, 236) positioned in the first outer body (102, 202); an atomizer (128, 228) positioned in the second outer body (104, 204); and a coupler (106, 206) having a first engagement portion (108, 208) engaging an inner end (102A, 202A) of the first outer body (102, 202) and a second engagement portion (110, 210) engaging an inner end (104A, 204A) of the second outer body (104, 204), the coupler (106, 206) defining a coupler inlet (156, 256), the coupler (106, 206) being configured to receive air through the coupler inlet (156, 256) from an inlet aperture (150, 250) defined in one of the first outer body (102, 202) and the second outer body (104, 204) and to direct the air to the atomizer (128, 228) in the second outer body (104, 204).
A device for checking the delivery capacity of at least at one first delivery means (8, 10, 12) and/or one second delivery means of an apparatus for extracorporeal blood treatment, having a closed container, filled at least partially with air, or a closed container, filled at least partially with air and at least partially with liquid, at least one agent for measuring the pressure in the container, a first delivery means (8, 10, 12), which is in fluid-carrying connection to the container through a first fluid line, a second delivery means, which is in fluid-carrying connection with the container through a second fluid line, a control and processing unit, configured for activating the first delivery means (8, 10, 12) for delivering a first liquid volume into the container filled at least partially with air, or for delivering a first liquid volume out of the container, which is at least partially filled with liquid, activating the second delivery means for delivering a second liquid volume out of the container filled with a first liquid volume by the first delivery means (8, 10, 12), or for delivering a second liquid volume into the container which has been emptied of a first liquid volume by the first delivery means (8, 10, 12), measuring the pressure in the container with a first pressure measurement before starting the delivery of the first liquid volume, measuring the pressure in the container with a second pressure measurement after stopping the delivery of the first liquid volume, measuring the pressure in the container with a third pressure measurement after stopping the delivery of the second liquid volume, analyzing the measured values of the first pressure measurement and the third pressure measurement as a measure for checking the delivery capacity of the first delivery means (8, 10, 12) and/or of the second delivery means.
A microelectronic system comprised of n microelectromechanical or nanoelectromechanical devices, so-called devices, n being greater than or equal to 2, arranged on a connection support configured to electrically connect the n devices, each device comprising an interaction area, at least one mechanical anchor, at least one first electric terminal configured to recover a signal emitted by each device representative of the state of the interaction area, at least a second electrical terminal (c) and a third electrical terminal (a), each terminal having a given function, in which, amongst the n devices, at least some of the devices is arranged in such a way that the geometric location of at least one of the terminals among the first, second and third terminals (O, a, c) of one of the adjacent devices is identical to the geometric location of the other terminal of said other adjacent device having the same function, said terminals of said two adjacent devices being coincident, characterized in that in the system, among the n devices, at least some of the devices is arranged so that the mechanical anchorages of the two adjacent devices are coincident, the geometric location of mechanical anchor of said adjacent devices being identical to the geometric location of the mechanical anchors of the other of said adjacent devices.
Lift braking device for braking a lift cage on a brake surface, preferably on a brake surface integrated in a guide rail, the lift braking device comprising: - a brake housing, - a brake element, which is arranged in the brake housing by means of a rotary bearing to be rotatable and the brake element has a curved shape (25.1, 26), which is so shaped with respect to the rotary bearing that a radial spacing from the rotary bearing to the curve (25.1, 26) increases over a rotational angle (α), - a force store, which is constructed to press the brake element by a force against the brake surface, - an actuator, which acts on the brake element and which is constructed so as to urge, in a first operational setting, the brake element against the force of the force store away from the brake surface or to keep it at a spacing therefrom and to free, in a second operational setting, pressing of the brake element against the brake surface, characterised thereby, that the brake element when it is pressed against the brake surface is moved in such a manner by a relative movement between lift braking device and brake surface that the actuator is moved back into a reset position corresponding with the first operational setting. - a brake housing, - a brake element, which is arranged in the brake housing by means of a rotary bearing to be rotatable and the brake element has a curved shape (25.1, 26), which is so shaped with respect to the rotary bearing that a radial spacing from the rotary bearing to the curve (25.1, 26) increases over a rotational angle (α), - a force store, which is constructed to press the brake element by a force against the brake surface, - an actuator, which acts on the brake element and which is constructed so as to urge, in a first operational setting, the brake element against the force of the force store away from the brake surface or to keep it at a spacing therefrom and to free, in a second operational setting, pressing of the brake element against the brake surface,
A method for indicating a frame mapping way, comprising: a network side obtaining information of whether a mobile station supports a shifted-SACCH frame mapping capability, and determining whether to use a shifted-SACCH frame mapping way or use a traditional SACCH frame mapping way for a mobile station which supports the SACCH frame mapping capability; the network side notifying the mobile station of information of a SACCH frame mapping way used by the mobile station. a network side obtaining information of whether a mobile station supports a shifted-SACCH frame mapping capability, and determining whether to use a shifted-SACCH frame mapping way or use a traditional SACCH frame mapping way for a mobile station which supports the SACCH frame mapping capability; the network side notifying the mobile station of information of a SACCH frame mapping way used by the mobile station.
Bi-coordinated silver complex, having antimicrobial activity and the general formula: Na + 2 [Ag + (L 2-)(M 2-)] wherein L is a ligand consisting of 2-mercaptobenzoic acid and M is a ligand different from the said L ligand and consisting of 2-hydroxybenzoic acid, said complex being incorporable into a hyaluronic acid composition in a stable manner.
A cooler for beverage containers, comprising: a housing defining an interior volume for storing a first beverage container at a first predetermined temperature; a compartment arranged within the interior volume of the housing, wherein the compartment defines a second interior volume for storing a second beverage container at a second predetermined temperature that is at or below a freezing point of a beverage within the second container, wherein the compartment is enclosed; a cooling unit configured to maintain the interior volume of the housing at the first predetermined temperature and the compartment at the second predetermined temperature; a door that is movable from a closed position to an open position in which the interior volume of the housing and the first beverage container is accessible; a user interface for receiving a user input to dispense the second beverage container from the compartment; a delivery portal for providing access to the second beverage container; characterized by a chute that is configured to communicate the second beverage container from the compartment to the delivery portal, wherein the chute is configured to subject the second beverage container to a mechanical impact so as to cause nucleation of the beverage within the second beverage container and form a slush beverage within the second beverage container. a housing defining an interior volume for storing a first beverage container at a first predetermined temperature; a compartment arranged within the interior volume of the housing, wherein the compartment defines a second interior volume for storing a second beverage container at a second predetermined temperature that is at or below a freezing point of a beverage within the second container, wherein the compartment is enclosed; a cooling unit configured to maintain the interior volume of the housing at the first predetermined temperature and the compartment at the second predetermined temperature; a door that is movable from a closed position to an open position in which the interior volume of the housing and the first beverage container is accessible; a user interface for receiving a user input to dispense the second beverage container from the compartment; a delivery portal for providing access to the second beverage container; characterized by a chute that is configured to communicate the second beverage container from the compartment to the delivery portal, wherein the chute is configured to subject the second beverage container to a mechanical impact so as to cause nucleation of the beverage within the second beverage container and form a slush beverage within the second beverage container.
Mechanical securing means for an AC protective contact plug-in connection comprising at least two current-carrying round contact pins and a third pole as protective contact, consisting of a plug, which has a housing, and a coupling part with a protective collar and a locking device which can be operated by a pushbutton, starting from a virtual plane which is formed by opposing contact pins, in a virtual plane which is parallel to the first-mentioned virtual plane, at least one locking lever, which is loaded by a spring, is provided in a plug part, which locking lever, in a manner pivotable about a fulcrum, engages into the plug part by means of a manually operable pushbutton, that the locking lever, when the pushbutton is released, engages by way of its front-side claw into a securing notch in the protective collar of the coupling part and secures the connection, characterized in that the pushbutton has a marking or lateral boundary line, wherein the marking is visible from the side when the pushbutton protrudes too far beyond the housing of the plug.
A transport device, of the noria type, including at least one drive chain having links that is wound at least around two deflection wheels (4, 5) so as to describe a loop circuit comprising at least a first, ascending vertical chain strand and a second, descending vertical chain strand, at least one link of said chain holding a support arm extending in a direction both perpendicular to the chain and to the axes of the links of said chain, a support arm being attached laterally on a link by means of at least one mount, a mount including at least one support surface at each of its ends in the travel direction of said chain, at least across one of these support surfaces, said mount resting on another, contiguous mount of another support arm attached to another link of the chain, on the ascending and descending strands of said chain, characterized in that each mount also includes, at each of its ends, an alignment surface for its arm in a plane along said direction, each alignment surface cooperating with another alignment surface of a following or preceding mount, at least at the ascending and descending strands, each alignment surface extending vertically, arranged at least partially in the thickness of said mount, the alignment surface being arranged by an indentation made in the thickness of the body of the mount, at each of its upper and lower rims.
A method, comprising: receiving, at a computing device, a roadmap of an existing environment that includes a first robot and a second robot; annotating the roadmap with a plurality of lanes (320, 322) connecting a plurality of conflict regions (312, 314) using the computing device, wherein each lane is unidirectional and ends sufficiently distant from a conflict region to avoid blocking the conflict region; determining a first route through the environment along the roadmap for use by the first robot and a second route through the environment along the roadmap for use by the second robot, wherein both the first route and the second route include a first lane, and wherein the first lane connects to a first conflict region; assigning a first priority to the first robot and a second priority to the second robot, wherein the first priority is higher than the second priority; determining that the second robot following the second route will cause the second robot to block the first robot on the first lane before the first robot reaches the first conflict region; and based on the first priority being higher than the second priority, altering the second route to prevent the second robot from blocking the first robot on the first lane. receiving, at a computing device, a roadmap of an existing environment that includes a first robot and a second robot; annotating the roadmap with a plurality of lanes (320, 322) connecting a plurality of conflict regions (312, 314) using the computing device, wherein each lane is unidirectional and ends sufficiently distant from a conflict region to avoid blocking the conflict region; determining a first route through the environment along the roadmap for use by the first robot and a second route through the environment along the roadmap for use by the second robot, wherein both the first route and the second route include a first lane, and wherein the first lane connects to a first conflict region; assigning a first priority to the first robot and a second priority to the second robot, wherein the first priority is higher than the second priority; determining that the second robot following the second route will cause the second robot to block the first robot on the first lane before the first robot reaches the first conflict region; and based on the first priority being higher than the second priority, altering the second route to prevent the second robot from blocking the first robot on the first lane.
A method for analyzing messages by a device connected between a host computer and a peripheral device using a standard bus (87a, 87b), the method comprising: emulating the peripheral device to the host computer using a first processor executing a first firmware stored in a first memory, for receiving messages from, and transmitting messages to, the host computer over a first cable using the standard bus; the method further comprising: emulating the host computer to the peripheral device using a second processor executing a second firmware stored in a second memory, for receiving messages from, and transmitting messages to, the peripheral device over a second cable using the standard bus; characterised by: analyzing messages using a third processor executing a third firmware stored in a third memory; transporting messages between the host computer and the third processor exclusively over a first local bus; and transporting messages between the peripheral device and the third processor exclusively over a second local bus. emulating the peripheral device to the host computer using a first processor executing a first firmware stored in a first memory, for receiving messages from, and transmitting messages to, the host computer over a first cable using the standard bus; the method further comprising: emulating the host computer to the peripheral device using a second processor executing a second firmware stored in a second memory, for receiving messages from, and transmitting messages to, the peripheral device over a second cable using the standard bus; characterised by: analyzing messages using a third processor executing a third firmware stored in a third memory; transporting messages between the host computer and the third processor exclusively over a first local bus; and transporting messages between the peripheral device and the third processor exclusively over a second local bus. emulating the host computer to the peripheral device using a second processor executing a second firmware stored in a second memory, for receiving messages from, and transmitting messages to, the peripheral device over a second cable using the standard bus; characterised by: analyzing messages using a third processor executing a third firmware stored in a third memory; transporting messages between the host computer and the third processor exclusively over a first local bus; and transporting messages between the peripheral device and the third processor exclusively over a second local bus. analyzing messages using a third processor executing a third firmware stored in a third memory; transporting messages between the host computer and the third processor exclusively over a first local bus; and transporting messages between the peripheral device and the third processor exclusively over a second local bus.
A heterophasic propylene ethylene copolymer composition (HECO) having a melt flow rate (MFR 2) measured according to ISO 1133 at 230 °C and 2.16 kg in the range from 1.0 to 5.0 g/10 min, a total ethylene content C, as determined by quantitative IR spectroscopy, in the range from 0.8 to 6.0 mol-%, and a melting temperature (T m) measured by differential scanning calorimetry in the range from 153.0 to 159.0 °C, comprising: a) a crystalline matrix being a propylene homo- or copolymer, preferably a homopolymer; and b) an amorphous propylene-ethylene elastomer; wherein the heterophasic propylene ethylene copolymer composition is characterized in terms of its soluble fraction and crystalline fraction as determined by CRYSTEX QC analysis: i) from 85.0 to 90.0 wt.-%, based on the total weight of the heterophasic propylene ethylene copolymer composition, of a crystalline fraction having an intrinsic viscosity iV measured according to DIN ISO 1628/1, October 1999 (in Decalin at 135 °C) in the range from 2.00 to 3.00 dl/g, an ethylene content C2, as determined by quantitative IR spectroscopy, in the range from 0.0 to 1.5 mol-%; and ii) from 10.0 to 15.0 wt.-%, based on the total weight of the heterophasic propylene ethylene copolymer composition, of a soluble fraction having an intrinsic viscosity iV measured according to DIN ISO 1628/1, October 1999 (in Decalin at 135 °C) in the range from 1.30 to 2.50 dl/g and an ethylene content C2, as determined by quantitative IR spectroscopy, in the range from 25.0 to 40.0 mol-%. a) a crystalline matrix being a propylene homo- or copolymer, preferably a homopolymer; and b) an amorphous propylene-ethylene elastomer; i) from 85.0 to 90.0 wt.-%, based on the total weight of the heterophasic propylene ethylene copolymer composition, of a crystalline fraction having an intrinsic viscosity iV measured according to DIN ISO 1628/1, October 1999 (in Decalin at 135 °C) in the range from 2.00 to 3.00 dl/g, an ethylene content C2, as determined by quantitative IR spectroscopy, in the range from 0.0 to 1.5 mol-%; and ii) from 10.0 to 15.0 wt.-%, based on the total weight of the heterophasic propylene ethylene copolymer composition, of a soluble fraction having an intrinsic viscosity iV measured according to DIN ISO 1628/1, October 1999 (in Decalin at 135 °C) in the range from 1.30 to 2.50 dl/g and an ethylene content C2, as determined by quantitative IR spectroscopy, in the range from 25.0 to 40.0 mol-%.
A method performed by a replacement programmable logic controller, PLC, for replacing a legacy PLC, comprising: connecting to the legacy PLC in an automation environment; generating PLC inputs to the legacy PLC; observing PLC outputs from the legacy PLC; mapping dependencies of the PLC outputs on the PLC inputs of the legacy PLC; training an operational model in the replacement PLC with the PLC inputs and the PLC outputs to cause the replacement PLC to copy legacy PLC behavior; and after training, controlling at least a portion of the automation environment with the replacement PLC instead of the legacy PLC, wherein the training the operational model includes: monitoring which states of the legacy PLC in an output parameter space are tested and which states remain untested; and creating untested scenarios to learn how the legacy PLC responds to the untested scenarios based on the monitoring. connecting to the legacy PLC in an automation environment; generating PLC inputs to the legacy PLC; observing PLC outputs from the legacy PLC; mapping dependencies of the PLC outputs on the PLC inputs of the legacy PLC; training an operational model in the replacement PLC with the PLC inputs and the PLC outputs to cause the replacement PLC to copy legacy PLC behavior; and after training, controlling at least a portion of the automation environment with the replacement PLC instead of the legacy PLC, wherein the training the operational model includes: monitoring which states of the legacy PLC in an output parameter space are tested and which states remain untested; and creating untested scenarios to learn how the legacy PLC responds to the untested scenarios based on the monitoring. monitoring which states of the legacy PLC in an output parameter space are tested and which states remain untested; and creating untested scenarios to learn how the legacy PLC responds to the untested scenarios based on the monitoring.
A method of manufacturing an optoelectronic device comprising assemblies of light-emitting diodes having first and second assemblies and first blocks made of a first photoluminescent material, each covering one of the first assemblies, the method comprising forming a layer covering the first and second assemblies, delimiting first openings in the layer to expose the first assemblies, filling the first openings with the first photoluminescent material, and performing a chemical-mechanical polishing to delimit the first blocks, wherein the device comprises second blocks made of a second photoluminescent material, different from the first photoluminescent material, each covering one of the second assemblies, the method comprising delimiting second openings in the layer to expose the second assemblies, filling the second openings with the second photoluminescent material, and performing a chemical-mechanical polishing to delimit the second blocks.