mhurhangee/ep-ind-claims huggingface dataset:
A vacuum pump, comprising: a control apparatus provided with a control board portion equipped with a control circuit for controlling various operations performed in the vacuum pump; and a regenerative resistor for treating regenerative energy generated by controlling the various operations performed in the vacuum pump, wherein the control board portion is disposed inside a control board portion casing which is a casing enclosing the control board portion, and characterized in that the regenerative resistor is inserted into a hollow portion provided in an outer portion of a base of a vacuum pump main body of the vacuum pump, fixed to the base using a screw or the like, and connected to the control board portion by a wire. a control apparatus provided with a control board portion equipped with a control circuit for controlling various operations performed in the vacuum pump; and a regenerative resistor for treating regenerative energy generated by controlling the various operations performed in the vacuum pump, wherein the control board portion is disposed inside a control board portion casing which is a casing enclosing the control board portion, and characterized in that the regenerative resistor is inserted into a hollow portion provided in an outer portion of a base of a vacuum pump main body of the vacuum pump, fixed to the base using a screw or the like, and connected to the control board portion by a wire.
A refrigerator, comprising: a cabinet, in which are defined a cooling chamber and at least one storage compartment; an evaporator, arranged in the cooling chamber and configured to cool an airflow entering the cooling chamber to form a cooled airflow; and an air blower, arranged on a transverse side of the evaporator, located upstream of the evaporator in an airflow path, and configured to cause a return airflow in the at least one storage compartment to flow into the cooling chamber to be cooled by the evaporator, and cause at least part of the cooled airflow to flow into the at least one storage compartment, wherein the term "transverse" refers to a direction parallel to a width direction of the refrigerator, wherein a compressor chamber is further defined in the cabinet and is located behind and below the cooling chamber, characterized in that the refrigerator further comprises: a compressor, a heat dissipation fan and a condenser which are transversely and sequentially arranged in the compressor chamber, wherein a bottom air inlet adjacent to the condenser and a bottom air outlet adjacent to the compressor, which are transversely arranged, are defined on a bottom wall of the cabinet; and the heat dissipation fan is further configured to suck ambient air from the bottom air inlet (1 10a) and cause the air to pass through the condenser and the compressor and then to flow into an ambient environment from the bottom air outlet. a cabinet, in which are defined a cooling chamber and at least one storage compartment; an evaporator, arranged in the cooling chamber and configured to cool an airflow entering the cooling chamber to form a cooled airflow; and an air blower, arranged on a transverse side of the evaporator, located upstream of the evaporator in an airflow path, and configured to cause a return airflow in the at least one storage compartment to flow into the cooling chamber to be cooled by the evaporator, and cause at least part of the cooled airflow to flow into the at least one storage compartment, wherein the term "transverse" refers to a direction parallel to a width direction of the refrigerator, wherein a compressor chamber is further defined in the cabinet and is located behind and below the cooling chamber, characterized in that the refrigerator further comprises: a compressor, a heat dissipation fan and a condenser which are transversely and sequentially arranged in the compressor chamber, wherein a bottom air inlet adjacent to the condenser and a bottom air outlet adjacent to the compressor, which are transversely arranged, are defined on a bottom wall of the cabinet; and the heat dissipation fan is further configured to suck ambient air from the bottom air inlet (1 10a) and cause the air to pass through the condenser and the compressor and then to flow into an ambient environment from the bottom air outlet.
Method for producing an LED module (10, 10', 10") for emitting mixed light, preferably white light, comprising at least the following steps: - providing a module plate having at least one dam which delimits at least one light field, wherein LED chips (14, 14', 14", 14"') are arranged within the at least one light field; - applying a liquid potting compound to the light field such that the LED chips (14, 14', 14", 14′′′) are covered by the potting compound; - applying a phosphor (16, 17) associated with an LED chip (14, 14', 14", 14"') to the liquid potting compound in a region above the LED chip (14, 14', 14", 14′′′) such that the phosphor falls in the liquid potting compound and remains in a region around the LED chip (14, 14', 14", 14′′′), wherein a concentration of the phosphor (16, 17) is greater around the relevant LED chip (14, 14', 14", 14"`) and on its upper face than in a central region between the LED chips (14, 14', 14", 14′′′), wherein phosphor particles dispersed in a liquid or matrix are applied to the liquid potting compound, and wherein the liquid potting compound and/or the phosphor (16, 17) is/are applied by a dispensing method. - providing a module plate having at least one dam which delimits at least one light field, wherein LED chips (14, 14', 14", 14"') are arranged within the at least one light field; - applying a liquid potting compound to the light field such that the LED chips (14, 14', 14", 14′′′) are covered by the potting compound; - applying a phosphor (16, 17) associated with an LED chip (14, 14', 14", 14"') to the liquid potting compound in a region above the LED chip (14, 14', 14", 14′′′) such that the phosphor falls in the liquid potting compound and remains in a region around the LED chip (14, 14', 14", 14′′′), wherein a concentration of the phosphor (16, 17) is greater around the relevant LED chip (14, 14', 14", 14"`) and on its upper face than in a central region between the LED chips (14, 14', 14", 14′′′),
A drug delivery device comprising: - a housing, - a lead screw that is rotatably fixed with respect to the housing during dose setting and during dose delivery and that is axially moveable in a delivery direction relative to the housing for dose delivery, - a number sleeve threadedly engaged with the housing to be screwable relative to the housing, - a dial link which is adapted and arranged to be axially moved and rotated with respect to the housing for dose setting and which is prevented from rotation with respect to the housing for dose delivery, wherein the dial link is rotatably fixed with the number sleeve when the dial link and the number sleeve are in a first arrangement, and wherein the number sleeve and the dial link are rotatable with respect to one another when the dial link and the number sleeve are in a second arrangement, wherein the device further comprises a unidirectional coupling which is adapted and arranged to allow a relative rotation between the dial link and the number sleeve in a first direction while preventing relative rotation between the dial link and the number sleeve in a direction opposite to the first direction when the dial link and the number sleeve are in the second arrangement. - a housing, - a lead screw that is rotatably fixed with respect to the housing during dose setting and during dose delivery and that is axially moveable in a delivery direction relative to the housing for dose delivery, - a number sleeve threadedly engaged with the housing to be screwable relative to the housing, - a dial link which is adapted and arranged to be axially moved and rotated with respect to the housing for dose setting and which is prevented from rotation with respect to the housing for dose delivery,
A method for reprocessing a phase substantially consisting of steryl glycoside/fatty acid alkyl ester/water agglomerates, which was formed when fatty acid alkyl ester generated by transesterification of vegetable oils or animal fats was washed with water, characterized by the sequence of the following method steps: a) evaporation of the water content; b) breakdown of the steryl glycosides into their sterol and sugar fractions in the presence of an acid catalyst either by addition of an anhydrous strong acid or by contacting with an acidically acting solid ion exchanger. a) evaporation of the water content; b) breakdown of the steryl glycosides into their sterol and sugar fractions in the presence of an acid catalyst either by addition of an anhydrous strong acid or by contacting with an acidically acting solid ion exchanger.
An adhesive composition comprising: a) At least one at 25 °C solid poly-α-olefin P, b) At least one tackifying resin TR, and c) At least one organic phosphorus-containing compound PH, wherein the at least one organic phosphorus-containing compound PH is a phosphonate compound of formula wherein R 1 and R 2 represent, independently from each other, substituted or unsubstituted linear or branched alkyl groups having 1 to 10 carbon atoms or substituted or unsubstituted cycloalkyl or aryl groups. a) At least one at 25 °C solid poly-α-olefin P, b) At least one tackifying resin TR, and c) At least one organic phosphorus-containing compound PH, wherein the at least one organic phosphorus-containing compound PH is a phosphonate compound of formula wherein R 1 and R 2 represent, independently from each other, substituted or unsubstituted linear or branched alkyl groups having 1 to 10 carbon atoms or substituted or unsubstituted cycloalkyl or aryl groups.
A method in a cellular system, wherein the cellular system comprises a plurality of devices, wherein a device (101A-H) of the devices is configured to operate in a master or slave mode, wherein in the master mode the device is operable to transmit data more frequent than in the slave mode to a network element of the cellular system; the method comprising in the network element: determining for the device one of the master and slave mode as an operation mode using received dependency values between measurements performed by the devices (101A-H); determining a predefined communication channel for communicating control data to the device, wherein the communication channel is associated with the master or slave mode in which the device is operating, - wherein the communication channel associated with the master mode is a master communication channel and the communication channel associated with the slave mode is a slave communication channel, wherein the master communication channel is periodically established at first time periods between the network element and the device operating in the master mode, wherein the slave communication channel is periodically established at second time periods between the network element and the device (101 E-H) operating in the slave mode; and - communicating the control data to the device via the determined communication channel. determining for the device one of the master and slave mode as an operation mode using received dependency values between measurements performed by the devices (101A-H); determining a predefined communication channel for communicating control data to the device, wherein the communication channel is associated with the master or slave mode in which the device is operating, - wherein the communication channel associated with the master mode is a master communication channel and the communication channel associated with the slave mode is a slave communication channel, wherein the master communication channel is periodically established at first time periods between the network element and the device operating in the master mode, wherein the slave communication channel is periodically established at second time periods between the network element and the device (101 E-H) operating in the slave mode; and - communicating the control data to the device via the determined communication channel. - wherein the communication channel associated with the master mode is a master communication channel and the communication channel associated with the slave mode is a slave communication channel, wherein the master communication channel is periodically established at first time periods between the network element and the device operating in the master mode, wherein the slave communication channel is periodically established at second time periods between the network element and the device (101 E-H) operating in the slave mode; and - communicating the control data to the device via the determined communication channel.
A method for controlling flight of an unmanned aerial vehicle, comprising: (a) sending commands from a mission control module onboard the unmanned aerial vehicle to a flight management system onboard the unmanned aerial vehicle for guiding the unmanned aerial vehicle to perform a mission; (b) monitoring validity of the commands sent from the mission control module to the flight management system to determine when a trigger condition is present based on whether the commands sent from the mission control module to the flight management system are valid or invalid comprising monitoring whether a value of a parameter included in the command issued by the mission control module violates a constraint or not; and wherein the monitored parameter is one of the following group: a heart-beat rate of commands output from the mission control module, a rate of turn, a rate of climb, a rate of descent, a roll rate, a pitch rate, and a yaw rate; and (c) guiding the unmanned aerial vehicle in accordance with the validated commands sent from the mission control module to the flight management system. (a) sending commands from a mission control module onboard the unmanned aerial vehicle to a flight management system onboard the unmanned aerial vehicle for guiding the unmanned aerial vehicle to perform a mission; (b) monitoring validity of the commands sent from the mission control module to the flight management system to determine when a trigger condition is present based on whether the commands sent from the mission control module to the flight management system are valid or invalid comprising monitoring whether a value of a parameter included in the command issued by the mission control module violates a constraint or not; and wherein the monitored parameter is one of the following group: a heart-beat rate of commands output from the mission control module, a rate of turn, a rate of climb, a rate of descent, a roll rate, a pitch rate, and a yaw rate; and (c) guiding the unmanned aerial vehicle in accordance with the validated commands sent from the mission control module to the flight management system.
A bicycle, particularly a mountain bike, having a main frame (14; 76; 116), a sprung rear end (20; 78; 118) for a rear wheel (22; 80; 120) hinged at at least one pivot bearing (58, 60; 92, 98; 124, 136) on the main frame (14; 76; 116) and guiding the hub of the rear wheel (22; 80; 120) along a defined path when springing in and out, an electric drive (12; 72; 112) mounted on the main frame (14; 76; 116), the driving pinion (34; 74; 114) thereof being coupled to the shaft of a bottom bracket bearing, and at least one driven pinion (34; 108; 144) provided coaxial to the hub on the rear wheel (22; 80; 120) and operatively connected to the driving pinion (34; 74; 114) of the electric drive (12; 72; 112) by means of a chain (40; 106; 142), the number of teeth of the driving pinion (34; 74; 114) of the electric drive (12; 72; 112) being less than or equal to 20, the upper chain segment serving for transmitting torque from the driving pinion (34; 74; 114) to the driven pinion (42; 108; 144) is guided under pretension by means of a chain deflector (66; 104; 140) disposed between the driving pinion (34; 74; 114) and the driven pinion (42; 108; 144) of the rear wheel (22; 80; 120), and the chain deflector (66; 104; 140) being positioned between the driving pinion (34; 74; 114) and the driven pinion (42; 108; 144), such that the distance between the point at which the upper chain segment just engages the driven pinion (42; 108; 144) of the rear wheel (22; 80; 120) and the point of the chain deflector (66; 104; 140) about which the chain (40; 106; 142) substantially pivots when the rear wheel (22; 80; 120) springs in and out, changes at most so slightly along the path along which the hub of the rear wheel (22; 80; 120) displaces when springing in and out that the crank arms of the bottom bracket bearing rotate when springing in and out by a maximum permissible angle in a range of ± 20° relative to the non-spring-loaded position of the rear wheel (22; 80; 120).
Radar sensor for sensing the position of reflecting objects as a projection onto a horizontal plane, with a transmitting antenna for radiating a microwave signal, as well as with at least two antennas (7a,7b) for receiving reflected signal portions, which can be operated simultaneously with the transmitting antenna and therefore can receive the reflected signal simultaneously to its radiation, and with a high frequency circuit with transmitting and receiving branches, wherein each receiving antenna branch is hardwired to forward the signals received by the receiving antennas (7a,7b) separate from each other, wherein at least two receiving antennas (7a,7b) apart from each other comprise different antenna patterns, whereby the width of the receiving beam of the main maximum of a receiving antenna (7a;7b) is greater than the width of the receiving beam of the main maximum of another, separate receiving antenna (7a;7b), characterized in that the antenna pattern of the receiving antenna (7a;7b) with the narrower receiving beam in a horizontal plane is completely overlaid by the antenna pattern of the other receiving antenna (7b;7a) with the wider receiving beam.
A system for processing data, the system comprising: a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor data output by the sensor, the sensor electronics coupled to a processor module, the processor module configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data using a first function to determine whether the sensor data meets one or more first criteria comprising a threshold value that is user settable; evaluate sensor data using a second function to determine whether the sensor data is predicted to meet one or more second criteria comprising a predetermined threshold and a prediction horizon; activate a first hypoglycemic indicator if the first one or more criteria and activate a second hypoglycemic indicator if the second one or more criteria are met; and provide an output based on the activated first or second hypoglycemic indicator; characterized in that the predetermined threshold and/or the prediction horizon is fixed such that it cannot be changed by the user. a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor data output by the sensor, the sensor electronics coupled to a processor module, the processor module configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data using a first function to determine whether the sensor data meets one or more first criteria comprising a threshold value that is user settable; evaluate sensor data using a second function to determine whether the sensor data is predicted to meet one or more second criteria comprising a predetermined threshold and a prediction horizon; activate a first hypoglycemic indicator if the first one or more criteria and activate a second hypoglycemic indicator if the second one or more criteria are met; and provide an output based on the activated first or second hypoglycemic indicator; characterized in that the predetermined threshold and/or the prediction horizon is fixed such that it cannot be changed by the user. apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data using a first function to determine whether the sensor data meets one or more first criteria comprising a threshold value that is user settable; evaluate sensor data using a second function to determine whether the sensor data is predicted to meet one or more second criteria comprising a predetermined threshold and a prediction horizon; activate a first hypoglycemic indicator if the first one or more criteria and activate a second hypoglycemic indicator if the second one or more criteria are met; and provide an output based on the activated first or second hypoglycemic indicator; characterized in that the predetermined threshold and/or the prediction horizon is fixed such that it cannot be changed by the user.
Apparatus for the capacitive or conductive determination and/or monitoring at least of the level of a medium in a vessel with at least a probe unit and at least an electronics unit designed to subject the probe unit to a control signal for the reception of a reception signal from the probe unit, with at least an evaluation unit to monitor and/or signal if a predefined limit value for the level is exceeded or undershot, with at least a memory unit in which at least level limit values assigned to the electrical conductivity of the medium are saved via a formula or in the form of a table, wherein the evaluation unit is designed to determine information about the level from the reception signal, information about the electrical conductivity of the medium from the reception signal, and - on the basis of the value determined for the electrical conductivity of the medium - to use the limit value saved in the memory unit, which is assigned to the value determined for the electrical conductivity of the medium, in order to determine and/or monitor the level of the medium.
A document of value, constituted by a support sheet, whereof at least one face comprises, at least on part of its surface, a transparent or translucent protective layer called "first layer", of matt visual appearance, this layer being partially coated with a protective second layer, also transparent or translucent, of visual gloss appearance, characterised in that it consists of a bank note, it comprises a security element consisting of deformation of said sheet and in that this element comprises two contiguous regions (40, 41) of different textures, which confer respectively to these zones a matt appearance and a gloss appearance in specular reflection, and in that said second protective layer is totally in register with said region of gloss appearance.
A loading unit comprising: an elongated body; and a stapling assembly having a first jaw and a second jaw, the first jaw including an anvil assembly, and the second jaw having a releasably mounted cartridge assembly; characterised in that the cartridge assembly includes a carrier configured to receive a staple cartridge, the carrier having a proximal end having a detent connection for selective engagement with the stapling assembly. an elongated body; and a stapling assembly having a first jaw and a second jaw, the first jaw including an anvil assembly, and the second jaw having a releasably mounted cartridge assembly; characterised in that the cartridge assembly includes a carrier configured to receive a staple cartridge, the carrier having a proximal end having a detent connection for selective engagement with the stapling assembly.