mhurhangee/ep-ind-claims huggingface dataset:
Coffee machine having at least two brewing sections (4, 5), and having a hot water device (2, 2') which supplies hot water to the brewing sections (4, 5), wherein each brewing section (4, 5) can be activated individually so that while one of the brewing sections (4, 5) is preparing a coffee drink, another brewing section (4, 5) is getting ready to brew the next coffee drink, characterised in that: - the coffee machine has a common coffee dispenser for the brewing sections (4, 5); - the coffee dispensing outlets lead out of the brewing sections (4, 5) to the common coffee dispenser; and - a non-return valve is provided at the opening of each coffee dispensing outlet in the coffee dispenser. - the coffee machine has a common coffee dispenser for the brewing sections (4, 5); - the coffee dispensing outlets lead out of the brewing sections (4, 5) to the common coffee dispenser; and - a non-return valve is provided at the opening of each coffee dispensing outlet in the coffee dispenser.
A method for adjusting a channel quality indicator, CQI, feedback period, the method comprising: receiving, by a wireless transmit/receive unit, WTRU, a radio resource control, RRC, message including a first CQI configuration information; wherein the first CQI configuration information is associated with a first CQI-feedback period between CQI transmissions; transmitting CQI information according to the first CQI configuration information; monitoring, by the WTRU, a physical layer downlink control channel and in response to information on the physical layer downlink control channel indicating a CQI command and including a cyclic redundancy check masked with a WTRU identity associated with the WTRU: changing the CQI-feedback period of the WTRU according to the CQI command, and sending CQI information according to the CQI feedback period associated with the CQI command received on the physical layer downlink control channel instead of the CQI feedback period associated with the first CQI configuration information. receiving, by a wireless transmit/receive unit, WTRU, a radio resource control, RRC, message including a first CQI configuration information; wherein the first CQI configuration information is associated with a first CQI-feedback period between CQI transmissions; transmitting CQI information according to the first CQI configuration information; monitoring, by the WTRU, a physical layer downlink control channel and in response to information on the physical layer downlink control channel indicating a CQI command and including a cyclic redundancy check masked with a WTRU identity associated with the WTRU: changing the CQI-feedback period of the WTRU according to the CQI command, and sending CQI information according to the CQI feedback period associated with the CQI command received on the physical layer downlink control channel instead of the CQI feedback period associated with the first CQI configuration information.
A hydrocarbon monitoring cable for positioning in a downhole environment, the hydrocarbon monitoring cable comprising: a fiber optic assembly comprising a fiber optic core; a carbon layer about said fiber optic core to provide shielding from exposure to hydrogen within the downhole environment, said carbon layer having a first coefficient of thermal expansion; an outer polymer layer about said carbon layer and of a second coefficient of thermal expansion; and an intermediate polymer layer disposed between said carbon layer and said outer polymer layer, said intermediate polymer layer having a third coefficient of thermal expansion selected based on the first and second coefficients of thermal expansion, said intermediate polymer layer and said outer polymer layer including a polymer of the same type; a polymer-based absorbing layer disposed about said fiber optic assembly for absorbing hydrogen, the absorbing layer including a hydrogen absorbing agent disposed therein; and an outer polymer jacket about said fiber assembly and said absorbing polymer layer. a fiber optic assembly comprising a fiber optic core; a carbon layer about said fiber optic core to provide shielding from exposure to hydrogen within the downhole environment, said carbon layer having a first coefficient of thermal expansion; an outer polymer layer about said carbon layer and of a second coefficient of thermal expansion; and an intermediate polymer layer disposed between said carbon layer and said outer polymer layer, said intermediate polymer layer having a third coefficient of thermal expansion selected based on the first and second coefficients of thermal expansion, said intermediate polymer layer and said outer polymer layer including a polymer of the same type; a polymer-based absorbing layer disposed about said fiber optic assembly for absorbing hydrogen, the absorbing layer including a hydrogen absorbing agent disposed therein; and an outer polymer jacket about said fiber assembly and said absorbing polymer layer. a fiber optic core; a carbon layer about said fiber optic core to provide shielding from exposure to hydrogen within the downhole environment, said carbon layer having a first coefficient of thermal expansion; an outer polymer layer about said carbon layer and of a second coefficient of thermal expansion; and an intermediate polymer layer disposed between said carbon layer and said outer polymer layer, said intermediate polymer layer having a third coefficient of thermal expansion selected based on the first and second coefficients of thermal expansion, said intermediate polymer layer and said outer polymer layer including a polymer of the same type; a polymer-based absorbing layer disposed about said fiber optic assembly for absorbing hydrogen, the absorbing layer including a hydrogen absorbing agent disposed therein; and an outer polymer jacket about said fiber assembly and said absorbing polymer layer.
Radar fill level measuring device having a high frequency device for generating and processing radar signals with a predetermined frequency and wavelength, an antenna for emitting and/or receiving the radar signals as well as a switch provided on a printed circuit board and having a micro strip line for connecting the high frequency device to the antenna, characterized in that the micro strip line has a plurality of grounding conductors, that the grounding conductors each have a first section, a radial stub, and a second section, wherein the length of the first section corresponds to a quarter of the predetermined wavelength, wherein each of the radial stubs is provided on the end of the first section, wherein the second section connects to the end of the first section and the radial stub, wherein the length of the second section is less than half of the predetermined wavelength and wherein the second section is grounded.
A bullet, which includes: a bullet-shaped body of a first metal composition, which bullet-shaped body has a hollow cavity defined therein along the axis of the bullet with an opening at the point of the bullet-shaped body; and a plunger of a second metal composition, which second metal composition is harder than the first metal composition, and shaped generally complementary to the hollow cavity, characterized in that the inner surface of the hollow bullet-shaped body is generally conical or cylindrical or combinations thereof and provided with one or more shoulder bearing formations (22, 24; 26), which taper outward towards the opening at the point of the bullet; the hollow cavity and the plunger have a generally complementary conical shape widening towards the point of the bullet; and the plunger is dimensioned in such a way that when it is inserted into the hollow cavity, the plunger will not reach the far end of the hollow cavity to define an empty cavity (32.3; 32). a bullet-shaped body of a first metal composition, which bullet-shaped body has a hollow cavity defined therein along the axis of the bullet with an opening at the point of the bullet-shaped body; and a plunger of a second metal composition, which second metal composition is harder than the first metal composition, and shaped generally complementary to the hollow cavity, characterized in that the inner surface of the hollow bullet-shaped body is generally conical or cylindrical or combinations thereof and provided with one or more shoulder bearing formations (22, 24; 26), which taper outward towards the opening at the point of the bullet; the hollow cavity and the plunger have a generally complementary conical shape widening towards the point of the bullet; and the plunger is dimensioned in such a way that when it is inserted into the hollow cavity, the plunger will not reach the far end of the hollow cavity to define an empty cavity (32.3; 32).
A communication node for a packet-switched data network, which comprises an integrated circuit with a system of electronic components for sending and/or receiving audio and/or video data, particularly of an audio and/or video data stream, wherein at least a media access control component for implementing a media access control and a physical interface with transmitting and receiving means, by way of which the communication node is connectable to a communication line of the data network, are provided as components of the system, wherein the media access control component is connected via an internal first interface to the physical interface for exchanging data, and wherein the system comprises a real-time clock synchronization unit for synchronizing time information with other communication nodes of the data network as well as a queue management unit, characterized in that the real time clock synchronization unit and the queue management unit are fully arranged in the physical interface.
An LED lamp for a vehicle light, the LED lamp comprising: a retrofit body defining a longitudinal direction and configured to dissipate heat, the retrofit body comprising a cavity including a central bore and a duct narrower than the central bore and extending longitudinal from a bottom portion of the central bore to a lateral opening; a conductive structure comprising a printed circuit board or lead frame, the printed circuit board or lead frame comprising a driver circuit arranged in the central bore of the retrofit body and a finger-like portion narrower than and extending from the driver circuit, the finger-like portion arranged in the duct of the retrofit body; at least one LED module being electrically connected to the finger-like portion of the conductive structure and configured to be driven by the driver circuit, the at least one LED module comprising a substrate and a diode semiconductor disposed on the substrate, the substrate being attached to the retrofit body with a joining material between the substrate and the retrofit body. a retrofit body defining a longitudinal direction and configured to dissipate heat, the retrofit body comprising a cavity including a central bore and a duct narrower than the central bore and extending longitudinal from a bottom portion of the central bore to a lateral opening; a conductive structure comprising a printed circuit board or lead frame, the printed circuit board or lead frame comprising a driver circuit arranged in the central bore of the retrofit body and a finger-like portion narrower than and extending from the driver circuit, the finger-like portion arranged in the duct of the retrofit body; at least one LED module being electrically connected to the finger-like portion of the conductive structure and configured to be driven by the driver circuit, the at least one LED module comprising a substrate and a diode semiconductor disposed on the substrate, the substrate being attached to the retrofit body with a joining material between the substrate and the retrofit body.
A single-sided cutting insert, comprising: a rake end surface having four corners (37a-d) and, in a center thereof, a central surface portion; a supporting end surface having four corners (43a-d) and, in a center thereof, a central supporting surface portion; a peripheral side surface extending between the rake end surface and the supporting end surface, the peripheral side surface comprising two opposing major side surfaces (49a-b); and a hole extending through the cutting insert from one of the major side surfaces (49a or 49b) to the other of the major side surfaces (49b or 49a), wherein the central surface portion is disposed at a greater distance from a central axis of the hole than is the central supporting surface portion, characterized in that the single-sided cutting insert has a corner (37a-37d) radius or cutting edge (63a-63b) radius that extends over at least a quarter of a width of the cutting insert. a rake end surface having four corners (37a-d) and, in a center thereof, a central surface portion; a supporting end surface having four corners (43a-d) and, in a center thereof, a central supporting surface portion; a peripheral side surface extending between the rake end surface and the supporting end surface, the peripheral side surface comprising two opposing major side surfaces (49a-b); and a hole extending through the cutting insert from one of the major side surfaces (49a or 49b) to the other of the major side surfaces (49b or 49a), wherein the central surface portion is disposed at a greater distance from a central axis of the hole than is the central supporting surface portion, characterized in that the single-sided cutting insert has a corner (37a-37d) radius or cutting edge (63a-63b) radius that extends over at least a quarter of a width of the cutting insert.
A light emitting diode lamp for a light source of a vehilcle headlamp, comprising: a base unit; a light emitting diode chip for emitting light in an illumination direction, mounted on said base unit; a transparent lens-shaped member or a window glass member disposed on said base unit and covering said light emitting diode chip to thereby seal said light emitting diode chip from outside air; and an opaque shielding member provided on said base unit on the front surface of said lens-shaped member or on at least one of the front surface and the rear surface of said window glass member in said illumination direction and covering a portion of said light emitted by said r light emitting diode chip, said shielding member being provided in a shape allowing to pass, in said illumination direction, a portion of said light emitted by said light emitting diode chip so as to obtain a light distribution pattern suitable for a vehicle headlamp when being magnified and projected in said illumination direction. a base unit; a light emitting diode chip for emitting light in an illumination direction, mounted on said base unit; a transparent lens-shaped member or a window glass member disposed on said base unit and covering said light emitting diode chip to thereby seal said light emitting diode chip from outside air; and an opaque shielding member provided on said base unit on the front surface of said lens-shaped member or on at least one of the front surface and the rear surface of said window glass member in said illumination direction and covering a portion of said light emitted by said r light emitting diode chip, said shielding member being provided in a shape allowing to pass, in said illumination direction, a portion of said light emitted by said light emitting diode chip so as to obtain a light distribution pattern suitable for a vehicle headlamp when being magnified and projected in said illumination direction.
A nonlinear optic chromophore comprising a stabilized radical of the general formula wherein each R independently represents a pendant spacer group and each Acc represents an electron accepting group.
An excipient for use in an admixture with an active ingredient in a delayed-release compressed 3-dimensional (3-D) system, said excipient comprising a protein modified such that it has a decreased isoelectric point (pl) below its native pl wherein the protein is a soy protein or a 3-lactoglobulin protein that is modified at a range of from 1% to 100% by a chemical reaction selected from the group consisting of: succinylation, acetylation, octenyl-succinylation, glutarylation, phosphorylation and modification by EDTAD to achieve said decreased pl.
A method for electrochemical reduction of carbon dioxide into products, comprising: introducing an acidic anolyte to a first compartment of a first electrochemical cell, the first compartment including an anode; introducing a catholyte including an alkali metal bicarbonate to a second compartment of the first electrochemical cell, the catholyte saturated with carbon dioxide, the second compartment including a high surface area cathode, the high surface area cathode having a specific surface area of greater than 2 cm 2 /cm 3 and including an indium coating and having a void volume of between 30% to 98%, at least a portion of the bicarbonate-based catholyte being recycled; applying an electrical potential between the anode and the cathode sufficient to reduce the carbon dioxide to an alkali metal formate; introducing the alkali metal formate to an ion exchange compartment of a second electrochemical cell; applying an electrical potential between an anode of the second electrochemical cell and a cathode of the second electrochemical cell sufficient to produce at least formic acid and an alkali metal hydroxide; and introducing the alkali metal hydroxide with carbon dioxide to generate at least a portion of the alkali metal bicarbonate introduced to the second compartment of the first electrochemical cell. introducing an acidic anolyte to a first compartment of a first electrochemical cell, the first compartment including an anode; introducing a catholyte including an alkali metal bicarbonate to a second compartment of the first electrochemical cell, the catholyte saturated with carbon dioxide, the second compartment including a high surface area cathode, the high surface area cathode having a specific surface area of greater than 2 cm 2 /cm 3 and including an indium coating and having a void volume of between 30% to 98%, at least a portion of the bicarbonate-based catholyte being recycled; applying an electrical potential between the anode and the cathode sufficient to reduce the carbon dioxide to an alkali metal formate; introducing the alkali metal formate to an ion exchange compartment of a second electrochemical cell; applying an electrical potential between an anode of the second electrochemical cell and a cathode of the second electrochemical cell sufficient to produce at least formic acid and an alkali metal hydroxide; and introducing the alkali metal hydroxide with carbon dioxide to generate at least a portion of the alkali metal bicarbonate introduced to the second compartment of the first electrochemical cell.
A modular sensor system, comprising: a sensor interface including multiple receiving portions arranged on a surface thereof to receive one or more modular sensors (109; 111; 113; 107) selected from a plurality of heterogeneous sensors having respective functionalities and operable to generate data representing a state of one or more measurands, respective receiving portions including common power and communications interfaces, the sensor interface comprising a colour sensor adapted to detect a colour coded portion of a modular sensor to be deployed thereon whereby to identify the respective functionality of a sensor from said one or more modular sensors for an initial configuration when said modular sensor is received; and a communications module to transmit data generated by one or more modular sensors (109; 111; 113; 107) to a remote sensor gateway device. a sensor interface including multiple receiving portions arranged on a surface thereof to receive one or more modular sensors (109; 111; 113; 107) selected from a plurality of heterogeneous sensors having respective functionalities and operable to generate data representing a state of one or more measurands, respective receiving portions including common power and communications interfaces, the sensor interface comprising a colour sensor adapted to detect a colour coded portion of a modular sensor to be deployed thereon whereby to identify the respective functionality of a sensor from said one or more modular sensors for an initial configuration when said modular sensor is received; and a communications module to transmit data generated by one or more modular sensors (109; 111; 113; 107) to a remote sensor gateway device.
A system for measuring the wear of carbon brakes of an aircraft, comprising: a 3-axis acceleration sensor module mounted on a brake assembly, the 3-axis acceleration sensor module configured to detect acceleration events of the brake assembly in three different component directions; a memory module operably connected to the 3-axis acceleration sensor module, the memory module configured to store acceleration events detected by the 3-axis acceleration sensor module and to store a pre-determined threshold for determining carbon brake wear based upon a number of acceleration events detected in a single component direction of the three different component directions; and a processor module operably connected to the memory module, the processor module configured to compare the stored acceleration events detected in a single direction of the three different directions to the stored pre-determined threshold. a 3-axis acceleration sensor module mounted on a brake assembly, the 3-axis acceleration sensor module configured to detect acceleration events of the brake assembly in three different component directions; a memory module operably connected to the 3-axis acceleration sensor module, the memory module configured to store acceleration events detected by the 3-axis acceleration sensor module and to store a pre-determined threshold for determining carbon brake wear based upon a number of acceleration events detected in a single component direction of the three different component directions; and a processor module operably connected to the memory module, the processor module configured to compare the stored acceleration events detected in a single direction of the three different directions to the stored pre-determined threshold.
A ram air turbine comprising: a turbine comprising a blade; a strut removably coupled to the turbine and comprising a drive section, a gearbox section, and a generator adapter section, wherein the gearbox section comprises a turbine shaft and a bevel gear; a generator positioned within the generator adapter section of the strut and comprising a turbine side, wherein an exciter is positioned at the turbine side of the generator, and wherein a permanent magnet generator is located at least partially within a stator of the exciter, and a driveshaft having a pinion gear that engages the bevel gear, wherein the driveshaft is removably coupled to the generator; wherein the strut comprises a cone positioned between the drive section and the generator adapter section, and wherein the permanent magnet generator and the exciter are positioned within the cone of the strut. a turbine comprising a blade; a strut removably coupled to the turbine and comprising a drive section, a gearbox section, and a generator adapter section, wherein the gearbox section comprises a turbine shaft and a bevel gear; a generator positioned within the generator adapter section of the strut and comprising a turbine side, wherein an exciter is positioned at the turbine side of the generator, and wherein a permanent magnet generator is located at least partially within a stator of the exciter, and a driveshaft having a pinion gear that engages the bevel gear, wherein the driveshaft is removably coupled to the generator; wherein the strut comprises a cone positioned between the drive section and the generator adapter section, and wherein the permanent magnet generator and the exciter are positioned within the cone of the strut.