mhurhangee/ep-ind-claims huggingface dataset:
A quantum rod composition, comprising: a plurality of quantum rods; a polymer comprising: a main chain; a plurality of dipole side chains attached to the main chain; and a solvent, wherein the plurality of dipole side chains comprises at least one selected from the group consisting of: and wherein R is selected from the group consisting of F, CF 3, and CN. a plurality of quantum rods; a polymer comprising: a main chain; a plurality of dipole side chains attached to the main chain; and a main chain; a plurality of dipole side chains attached to the main chain; and a solvent, wherein the plurality of dipole side chains comprises at least one selected from the group consisting of: and wherein R is selected from the group consisting of F, CF 3, and CN.
Locking device for locking an internal element, in particular a measuring piston, a shut-off piston (32; 158), or a capacity-reducing sleeve of the dough divider chamber, which internal element is received in a dough divider chamber (20a, b, c, d, e, f) of a dough divider chamber holder of a dough dividing machine, characterized by 1) a locking-bolt unit having an engagement bolt which ismovable back and forth between a locked position in which the engagement bolt at least in part protrudes into the dough divider chamber and engages in a receptacle of the internal element, on the one hand, and an unlocked position in which the engagement bolt does not protrude into the dough divider chamber and does not engage in the receptacle of the internal element, on the other hand, 2) wherein the locking-bolt unit is fixable in the locked position and/or in the unlocked position by means of a bayonet coupling (44, 45, 74). 1) a locking-bolt unit having an engagement bolt which ismovable back and forth between a locked position in which the engagement bolt at least in part protrudes into the dough divider chamber and engages in a receptacle of the internal element, on the one hand, and an unlocked position in which the engagement bolt does not protrude into the dough divider chamber and does not engage in the receptacle of the internal element, on the other hand, 2) wherein the locking-bolt unit is fixable in the locked position and/or in the unlocked position by means of a bayonet coupling (44, 45, 74).
An oral pharmaceutical composition comprising an ionic bond complex composed of teriparatide, deoxycholic acid, Nα-deoxycholyl-L-lysyl-methylester, and di-alpha-tocopherol polyethylene glycol 1000 succinate.
Pouring element for an item of packaging, in particular composite packaging for liquid foodstuffs, with a base body, a polyhedral flange whose flange inner surfaces merge into flange lugs in order to connect to a packaging sleeve and at least one retaining element projecting at the flange inner side to operatively connect to a mandrel of a packaging machine, characterised in that the retaining element is designed as a rounded portion in the region of the flange inner-side flange lugs.
A self-aligning connection system comprising: a device (115, 115a-c) comprising a connector receptacle configured to receive a connector plug (120, 120a-c), a connector seal and a bracket fixed to the device; a modular rack comprising the connector plug (120, 120a-c), a connector shell seal (140, 140a-c) and a shelf (160, 160 a-c), wherein the modular rack is configured to receive the bracket and guide the shelf in a plurality of directions; wherein when the bracket of the device (115, 115a-c) is inserted into the shelf (160, 160 a-c) of the modular rack, the shelf is configured to travel in two or more directions to self-align the connector plug (120, 120a-c) of the modular rack to the connector receptacle of the device to ensure engagement of the connector plug to the connector receptacle; wherein in response to the connector receptacle initiating engagement with the connector plug (120, 120a-c), the connector plug travels in the plurality of directions to adjust a spatial position in relation to the connector receptacle; and wherein when the connector shell seal (140, 140a-c) of the modular rack and the connector seal of the device (115, 115a-c) are aligned, the connector seal is biased towards the connector shell seal to create a seal and ensure engagement of the connector plug (120, 120a-c) relative to the connector receptacle. a device (115, 115a-c) comprising a connector receptacle configured to receive a connector plug (120, 120a-c), a connector seal and a bracket fixed to the device; a modular rack comprising the connector plug (120, 120a-c), a connector shell seal (140, 140a-c) and a shelf (160, 160 a-c), wherein the modular rack is configured to receive the bracket and guide the shelf in a plurality of directions; wherein when the bracket of the device (115, 115a-c) is inserted into the shelf (160, 160 a-c) of the modular rack, the shelf is configured to travel in two or more directions to self-align the connector plug (120, 120a-c) of the modular rack to the connector receptacle of the device to ensure engagement of the connector plug to the connector receptacle; wherein in response to the connector receptacle initiating engagement with the connector plug (120, 120a-c), the connector plug travels in the plurality of directions to adjust a spatial position in relation to the connector receptacle; and wherein when the connector shell seal (140, 140a-c) of the modular rack and the connector seal of the device (115, 115a-c) are aligned, the connector seal is biased towards the connector shell seal to create a seal and ensure engagement of the connector plug (120, 120a-c) relative to the connector receptacle.
A mask configured to assist the respiration of a patient, the mask comprising a gas inlet port positioned to connect a gas supply to the mask and direct gas flow towards a patient's skin; a scattering chamber with an inlet port and a plurality of outlet ports, the scattering chamber inlet port fluidly connected to the gas inlet port, and the plurality of outlet ports positioned to scatter the gas flow away from the patient's skin and towards the interior surface of the mask and a region between the patient's skin and the interior surface of the mask; an outgas collector assembly connected adjacent the scattering chamber and positioned to collect an outgas emission expelled from the patient and eject the outgas emission from the mask; wherein the outgas collector assembly comprises an oral outgas collector and at least one nasal outgas collector.
A passively cooled modular electronic system comprising: an open-frame chassis having a bottom opening and a top opening permitting ambient air flow there through; a plurality of modules, each module enclosing electrical components and having a heat sink area, the electrical components in each of the modules being in thermal contact with the heat sink area of the module; a plurality of chassis electrical connections on the open frame chassis for removably electrically connecting the plurality of modules to the open frame chassis; a support for holding each module at the inserted position where each module is in electrical contact with one of the plurality of electrical connections and where the heat sink area of each module is aligned with the bottom opening and the top opening; and, wherein ambient air is permitted to flow from the bottom opening across the heat sink areas of each of the modules and out the top opening to passively cool the electrical components in each of the modules, wherein the plurality of modules are selected from two or more types of modules, each type of module having different electrical components enclosed therein and a different module electrical connection for connecting that type of module to a corresponding type of chassis electrical connection, characterized in that the heat sink area comprises a heat sink fin area having a plurality of fins extending along a vertical axis and wherein the fins are separated by a distance of between 6 mm and 14 mm and the fins having a height of 14mm to 20mm; an open-frame chassis having a bottom opening and a top opening permitting ambient air flow there through; a plurality of modules, each module enclosing electrical components and having a heat sink area, the electrical components in each of the modules being in thermal contact with the heat sink area of the module; a plurality of chassis electrical connections on the open frame chassis for removably electrically connecting the plurality of modules to the open frame chassis; a support for holding each module at the inserted position where each module is in electrical contact with one of the plurality of electrical connections and where the heat sink area of each module is aligned with the bottom opening and the top opening; and, wherein ambient air is permitted to flow from the bottom opening across the heat sink areas of each of the modules and out the top opening to passively cool the electrical components in each of the modules, wherein the plurality of modules are selected from two or more types of modules, each type of module having different electrical components enclosed therein and a different module electrical connection for connecting that type of module to a corresponding type of chassis electrical connection, characterized in that the heat sink area comprises a heat sink fin area having a plurality of fins extending along a vertical axis and wherein the fins are separated by a distance of between 6 mm and 14 mm and the fins having a height of 14mm to 20mm;
A torque sensor that is configured to detect torque based on a torsion displacement between a first shaft and a second shaft coaxially coupled via a torsion bar, the torque sensor comprising: a cylindrical first magnet fixed to the first shaft; a tubular magnetic yoke assembly that includes a magnetic yoke core (28, 29) and a resin member with which the magnetic yoke core (28, 29) is molded, and surrounds the first magnet; a magnetic sensor that is configured to detect a magnetic flux from the first magnet induced by the magnetic yoke core (28, 29); and a second magnet for an index sensor that is fixed to an outer circumference of the magnetic yoke assembly; characterized in that a collar made of a ferromagnetic body that is fixedly fitted to an inner circumference of the magnetic yoke assembly, and to which the second shaft is press-fitted and fixed; wherein the entire collar, or only a part of the collar is disposed between the magnetic yoke core (28, 29) and the second magnet with respect to an axial direction of the magnetic yoke assembly. a cylindrical first magnet fixed to the first shaft; a tubular magnetic yoke assembly that includes a magnetic yoke core (28, 29) and a resin member with which the magnetic yoke core (28, 29) is molded, and surrounds the first magnet; a magnetic sensor that is configured to detect a magnetic flux from the first magnet induced by the magnetic yoke core (28, 29); and a second magnet for an index sensor that is fixed to an outer circumference of the magnetic yoke assembly; characterized in that a collar made of a ferromagnetic body that is fixedly fitted to an inner circumference of the magnetic yoke assembly, and to which the second shaft is press-fitted and fixed; wherein the entire collar, or only a part of the collar is disposed between the magnetic yoke core (28, 29) and the second magnet with respect to an axial direction of the magnetic yoke assembly.
A method of preparing for conducting a phacoemulsification procedure, comprising: querying a lookup table maintained on a control unit of a phacoemulsification device, the lookup table for a series of fluid related parameters, wherein the table comprises a plurality of fluid parameter related conditions potentially expected to be encountered during the phacoemulsification procedure and a plurality of warning entries, each warning entry associated with fluid parameter related conditions potentially expected to be encountered during the phacoemulsification procedure; and before beginning the phacoemulsification procedure issuing a warning to an operator when a warning entry for one fluid parameter related condition potentially expected to be encountered during the phacoemulsification procedure corresponds to a level of performance outside a predetermined range.
Method for determining a micelle formation concentration, wherein the method is carried out in a washing device and the washing device contains an amount of water required for carrying out a washing operation, which method comprises the following steps: - delivering a partial amount of a washing agent to the amount of water to form a washing liquor (step 1), - detecting a magnitude (|Z|) and a phase angle (φ) of an impedance of the washing liquor for a predetermined number (n) of frequencies (fn) of actuation signals and generating a corresponding number of respective measured values (step 2), - determining a gradient (mn) from each measured value of the phase angle (φn) and the respective frequency (f(n)) (step 3), - calculating a respective mean value (ma, |Z|a) from the number of gradients (mn) and the magnitudes of the impedance (|Z|n) (step 4), - determining a determination product from the mean value (ma) of the gradients (mn) and the mean value (|Z|a) of the magnitudes (|Z|n) of the impedances (step 5B), - comparing the determination product with a predetermined threshold value (step 6B), and - repeating steps 1 to 6B until the determination product is equal to or greater than the threshold value (step 7). - delivering a partial amount of a washing agent to the amount of water to form a washing liquor (step 1), - detecting a magnitude (|Z|) and a phase angle (φ) of an impedance of the washing liquor for a predetermined number (n) of frequencies (fn) of actuation signals and generating a corresponding number of respective measured values (step 2), - determining a gradient (mn) from each measured value of the phase angle (φn) and the respective frequency (f(n)) (step 3), - calculating a respective mean value (ma, |Z|a) from the number of gradients (mn) and the magnitudes of the impedance (|Z|n) (step 4), - determining a determination product from the mean value (ma) of the gradients (mn) and the mean value (|Z|a) of the magnitudes (|Z|n) of the impedances (step 5B), - comparing the determination product with a predetermined threshold value (step 6B), and - repeating steps 1 to 6B until the determination product is equal to or greater than the threshold value (step 7).
A method of determining a set of individual HRTF individual for a specific human, wherein an HRTF is a set of two head related transfer functions, one for the left ear and one for the right ear, the method comprising the steps of obtaining a set of approximate HRTF app that are functions of elevation, azimuth and distance, obtaining at least one measured HRTF of the specific human in a direction d, defined by an azimuth θ and an elevation φ, and at a distance a, characterized in calculating at least one ratio between the at least one measured HRTF of the specific human and a corresponding approximate HRTF app by determining a magnitude of a first synthesizing filter H as the ratio between a magnitude of the at least one measured HRTF and a magnitude of the corresponding approximate HRTF app, wherein the corresponding approximate HRTF app is the approximate HRTF app for the same direction d and distance a: | H | = | HRTF | / | HRTF app |, and forming the set of individual HRTF individual for the specific human by modification of the set of approximate HRTF app in accordance with the calculated at least one ratio, by determining a magnitude of an individual HRTF individual of the specific human for the azimuth θ', the elevation φ' and the distance a' to a sound source position by multiplication of a magnitude of the approximate HRTF app for the same azimuth θ', elevation φ' and distance a' with the first synthesizing filter |H|: | HRTF individual θ ′, φ ′, a ′ | = | H | ⋅ | HRTF app θ ′, φ ′, a ′ |.
A laser perforation tool configured for use in a downhole environment of a wellbore within a hydrocarbon bearing formation, the tool comprising: a plurality of perforation means disposed within an elongate tool body, each perforation means configured for perforating the wellbore and comprising: one or more optical transmission media, the one or more optical transmission media being part of an optical path originating at a laser generating unit configured to generate at least one raw laser beam, the one or more optical transmission media configured for passing the at least one raw laser beam; a laser head coupled to the one or more optical transmission media and configured for receiving the at least one raw laser beam, the laser head comprising an optical assembly for controlling at least one characteristic of an output laser beam; and a plurality of orientation nozzles disposed about an outer circumference of the laser head, the plurality of nozzles configured to control motion and orientation of each of the perforation means within the wellbore; and deployment means for extending the plurality of perforation means through one or more exit ports disposed in a side wall of the tool body. a plurality of perforation means disposed within an elongate tool body, each perforation means configured for perforating the wellbore and comprising: one or more optical transmission media, the one or more optical transmission media being part of an optical path originating at a laser generating unit configured to generate at least one raw laser beam, the one or more optical transmission media configured for passing the at least one raw laser beam; a laser head coupled to the one or more optical transmission media and configured for receiving the at least one raw laser beam, the laser head comprising an optical assembly for controlling at least one characteristic of an output laser beam; and a plurality of orientation nozzles disposed about an outer circumference of the laser head, the plurality of nozzles configured to control motion and orientation of each of the perforation means within the wellbore; and one or more optical transmission media, the one or more optical transmission media being part of an optical path originating at a laser generating unit configured to generate at least one raw laser beam, the one or more optical transmission media configured for passing the at least one raw laser beam; a laser head coupled to the one or more optical transmission media and configured for receiving the at least one raw laser beam, the laser head comprising an optical assembly for controlling at least one characteristic of an output laser beam; and a plurality of orientation nozzles disposed about an outer circumference of the laser head, the plurality of nozzles configured to control motion and orientation of each of the perforation means within the wellbore; and deployment means for extending the plurality of perforation means through one or more exit ports disposed in a side wall of the tool body.
A method for applying and fastening a decorative layer on a preform which is provided for the formation of a support part, wherein the preform comprises: a first section which is to be laminated with the decorative layer, a second section, and a connecting section connecting these sections (22, 24), which comprises a groove extending in a longitudinal direction and pronounced in a groove depth direction and is formed from a first region extending along the groove longitudinal direction and the first section and from a second region, forming the groove, adjoining thereto, and extending along the groove longitudinal direction and the second section of the preform, wherein the second region of the connecting section is formed from a material which is deformable under predetermined process conditions, wherein the method comprises the steps of: - moving together a first tool, wherein the first section of the preform together with the decorative layer is inserted into the first tool and wherein an end section of the decorative layer covers at least a portion of the first region of the connecting section, - placing the second section of the preform onto a second tool, - moving the first and a second tool (W1, W2) relative to one another in the groove depth direction, whereby the second region of the connecting section is deformed such that the latter forms a groove with an increasing groove depth and wherein the relative movement of the tools (W1, W2) with respect to one another takes place such that the end section of the decorative layer is introduced in the groove depth direction into the groove, and - pressing together side walls of the groove for fixing the end section of the decorative layer in the groove. - moving together a first tool, wherein the first section of the preform together with the decorative layer is inserted into the first tool and wherein an end section of the decorative layer covers at least a portion of the first region of the connecting section, - placing the second section of the preform onto a second tool, - moving the first and a second tool (W1, W2) relative to one another in the groove depth direction, whereby the second region of the connecting section is deformed such that the latter forms a groove with an increasing groove depth and wherein the relative movement of the tools (W1, W2) with respect to one another takes place such that the end section of the decorative layer is introduced in the groove depth direction into the groove, and - pressing together side walls of the groove for fixing the end section of the decorative layer in the groove.
An electric connecting member for electrical connection between a light source substrate and a driving board of an LED lamp, comprising an input terminal and an output terminal; the LED lamp comprising the driving board and the light source substrate; wherein the output terminal is disposed upon the driving board of the LED lamp, the input terminal is disposed upon the light source substrate and electrically connected to the light source substrate; the output terminal comprises two contacts, one end of the two contacts are electrically connected to the driving board respectively; the input terminal comprises two connection heads, the two connection heads are arranged corresponding to the two contacts, and one end of the two connection heads are electrically connected to the light source substrate respectively; the two contacts of the output terminal are assembled such that they are respectively inserted into the two corresponding connection heads of the input terminal, and the two connection heads are resiliently abutted against the two contacts respectively, characterized in that the output terminal further comprises a supporting sleeve, the contact of the output terminal is an L-shaped metal contact pin, the contact is inserted into the supporting sleeve, and the supporting sleeve is fixed on the driving board.