mhurhangee/ep-ind-claims huggingface dataset:
A kitchen appliance, comprising: a base comprising: a motor; a rotary output coupling; and a safety switch (44,46), wherein actuation of the safety switch enables motor rotation to drive the rotary output coupling; and a food container detachably mountable to the base and comprising: a rotary food processing element; a rotary input coupling for coupling to the rotary output coupling of the base; and a safety switch actuator, wherein the motor has at least two speed settings and wherein the food container is mountable to the base with at least first and second angular orientations, characterized in that in each of the at least two angular orientations, the motor is set to a respective one of the at least two speed settings and the safety switch actuator actuates, or can be controlled to actuate, the safety switch. a base comprising: a motor; a rotary output coupling; and a safety switch (44,46), wherein actuation of the safety switch enables motor rotation to drive the rotary output coupling; and a motor; a rotary output coupling; and a safety switch (44,46), wherein actuation of the safety switch enables motor rotation to drive the rotary output coupling; and a food container detachably mountable to the base and comprising: a rotary food processing element; a rotary input coupling for coupling to the rotary output coupling of the base; and a safety switch actuator, a rotary food processing element; a rotary input coupling for coupling to the rotary output coupling of the base; and a safety switch actuator, wherein the motor has at least two speed settings and wherein the food container is mountable to the base with at least first and second angular orientations, characterized in that in each of the at least two angular orientations, the motor is set to a respective one of the at least two speed settings and the safety switch actuator actuates, or can be controlled to actuate, the safety switch.
Straightening machine with a change-over cassette system, which comprises a plurality of respectively interchangeable change-over cassettes (1, 9, 10) of different types and which comprises at least two different types of change-over cassettes (1, 9, 10), wherein at least two of the interchangeable change-over cassettes (1, 9, 10) differ by straightening rollers of different diameter and each type of the interchangeable change-over cassettes (1, 9, 10) has at least one upper row and lower row of straightening rollers adjacent in a direction transverse to the roller longitudinal axes, wherein the predominant number of straightening rollers of the upper and lower rows (3, 4) is arranged to be offset relative to one another and at least one row (3, 4) of straightening rollers is constructed to be adjustable, characterised in that each type of the interchangeable change-over cassettes (1, 9, 10) comprises one or more straightening roller adjusting devices, which carry the straightening rollers of the lower and/or upper row (3, 4) and which in each type of the change-over cassettes (1, 9, 10) is or are constructed with the same straightening roller adjustment pitch, which is independent of the respective straightening roller diameter and which comprises respective individual adjustment pitch regions which are movable relative to one another and formed in each type of the change-over cassettes (1, 9, 10) to be of the same length independently of the respective straightening roller diameter and which are arranged adjacent to one another in a direction transverse to the roller longitudinal axes and respectively enable separate adjustment of the straightening rollers arranged individually or in pairs or groups at or on a respective adjustment pitch region.
An ultrasonic transducer array assembly comprising: an array of transducer elements having a forward desired direction for the transmission of ultrasonic waves and a rearward undesired ultrasonic emission direction; an integrated circuit structurally coupled to the array of transducer elements; a composite foam backing block, located rearward of the array of transducer elements and integrated circuit, the composite foam backing block being formed of a foam material having a porous structure; characterized in that: an epoxy resin is adapted to fill at least some of the porous structure of the foam backing block; and the foam material further comprises a graphite foam; and wherein ultrasonic emissions in the rearward direction are scattered or attenuated by the porous foam structure and epoxy, and heat is conducted away from the array of transducer elements and integrated circuit by the graphite foam in the backing block material. an array of transducer elements having a forward desired direction for the transmission of ultrasonic waves and a rearward undesired ultrasonic emission direction; an integrated circuit structurally coupled to the array of transducer elements; a composite foam backing block, located rearward of the array of transducer elements and integrated circuit, the composite foam backing block being formed of a foam material having a porous structure; characterized in that: an epoxy resin is adapted to fill at least some of the porous structure of the foam backing block; and the foam material further comprises a graphite foam; and an epoxy resin is adapted to fill at least some of the porous structure of the foam backing block; and the foam material further comprises a graphite foam; and wherein ultrasonic emissions in the rearward direction are scattered or attenuated by the porous foam structure and epoxy, and heat is conducted away from the array of transducer elements and integrated circuit by the graphite foam in the backing block material.
Method for determining an orientation of a rotor plane of a wind turbine, - wherein direction information (201, 301, 401) of a moving part of a wind turbine is determined on basis of at least one signal of a positioning system received at the moving part, - wherein the orientation (235, 245,335, 435) of the rotor plane is determined on basis of the determined direction information (201, 301, 401), - wherein speed information (202, 302, 402) of the moving part of the wind turbine is determined on basis of the at least one received signal of the positioning system, - wherein the speed information (202, 302, 402) is corresponding to the respective direction information (201, 301, 401), - wherein the orientation (235, 245,335, 435) of the rotor plane is determined on basis of the determined direction information (201, 301, 401) and the corresponding speed information (202, 302, 402). - wherein direction information (201, 301, 401) of a moving part of a wind turbine is determined on basis of at least one signal of a positioning system received at the moving part, - wherein the orientation (235, 245,335, 435) of the rotor plane is determined on basis of the determined direction information (201, 301, 401), - wherein speed information (202, 302, 402) of the moving part of the wind turbine is determined on basis of the at least one received signal of the positioning system, - wherein the speed information (202, 302, 402) is corresponding to the respective direction information (201, 301, 401), - wherein the orientation (235, 245,335, 435) of the rotor plane is determined on basis of the determined direction information (201, 301, 401) and the corresponding speed information (202, 302, 402).
A high-power device for supplying a radiofrequency electromagnetic field to a waveguide, the device comprising: a magnetron configured to supply a radiofrequency electromagnetic field to a waveguide; and, a control unit configured to control the magnetron to output radiofrequency energy to the waveguide, wherein: the magnetron comprises: a high voltage pulse connection enclosed in an enclosure; a heater connection configured to allow an electrical connection to penetrate the enclosure; and a mechanism configured to transmit data between the magnetron and the control unit, characterised in that the mechanism comprises: an identification chip configured to include the data, wherein the data is about the magnetron; an electronic circuit configured to read the data on the identification chip; and, a communication channel configured to route the data away from the high voltage pulse connection to the control unit. a magnetron configured to supply a radiofrequency electromagnetic field to a waveguide; and, a control unit configured to control the magnetron to output radiofrequency energy to the waveguide, wherein: the magnetron comprises: a high voltage pulse connection enclosed in an enclosure; a heater connection configured to allow an electrical connection to penetrate the enclosure; and a mechanism configured to transmit data between the magnetron and the control unit, characterised in that the mechanism comprises: an identification chip configured to include the data, wherein the data is about the magnetron; an electronic circuit configured to read the data on the identification chip; and, a communication channel configured to route the data away from the high voltage pulse connection to the control unit. a high voltage pulse connection enclosed in an enclosure; a heater connection configured to allow an electrical connection to penetrate the enclosure; and a mechanism configured to transmit data between the magnetron and the control unit, characterised in that the mechanism comprises: an identification chip configured to include the data, wherein the data is about the magnetron; an electronic circuit configured to read the data on the identification chip; and, a communication channel configured to route the data away from the high voltage pulse connection to the control unit. an identification chip configured to include the data, wherein the data is about the magnetron; an electronic circuit configured to read the data on the identification chip; and, a communication channel configured to route the data away from the high voltage pulse connection to the control unit.
A wireless blow dryer comprising: an air duct; a handle connected to the air duct; an energy storage assembly; a fan assembly comprising a motor arranged in the handle and a fan blade connected to the motor; a main control board electrically coupled to the energy storage assembly and the motor; and an air inlet channel and an air outlet channel communicating with each other; wherein the air duct is provided with the air outlet channel; and the handle is provided with the air inlet channel; wherein the energy storage assembly comprises at least one energy storage module arranged in the air outlet channel; the energy storage assembly is configured to supply power to the motor and the main control board; and the main control board is configured to control the motor to drive the fan blade to rotate, so as to cause airflow to enter the air inlet channel and exit the air duct through the air outlet channel. an air duct; a handle connected to the air duct; an energy storage assembly; a fan assembly comprising a motor arranged in the handle and a fan blade connected to the motor; a main control board electrically coupled to the energy storage assembly and the motor; and an air inlet channel and an air outlet channel communicating with each other; wherein the air duct is provided with the air outlet channel; and the handle is provided with the air inlet channel; wherein the energy storage assembly comprises at least one energy storage module arranged in the air outlet channel; the energy storage assembly is configured to supply power to the motor and the main control board; and the main control board is configured to control the motor to drive the fan blade to rotate, so as to cause airflow to enter the air inlet channel and exit the air duct through the air outlet channel.
System on chip, having multiple computing units, in particular computer cores and/or CPUs, at least one input/output unit, a memory unit and an input/output control unit that coordinates the communication between the computing units and the at least one input/output unit, wherein the system on chip further has an attack detection unit (14, 14a, 14b), produced as hardware, that is connected by means of a hardware signal connection to at least the input/output control unit as a component of the system on chip and evaluates input signals received from the input/output control unit for a rule infringement in a set of attack detection rules, which rule infringement needs to be logged and/or responded to with at least one measure, wherein there is a further hardware signal connection of the attack detection unit (14, 14a, 14b) to at least one further component of the system on chip, wherein input signals received from this are also evaluated with regard to a rule infringement in a set of attack detection rules, which rule infringement needs to be logged and/or responded to with at least one measure, wherein at least one further component is a memory access control unit comprising a memory access register and/or is the memory unit, wherein the input signals received by the memory unit describe accesses to guard pages of the memory unit, which are defined in particular on a physical level.
A water and oil proofing composition for paper, which is a composition comprising water and a salified fluorocopolymer dispersed in the water, characterized in that the fluorocopolymer before being salified, is a copolymer which has units based on the following monomer (a), units based on the following monomer (b) and units based on the following monomer (c), which comprises from 74 to 80 mass% of units based on the following monomer (a), from 3 to 5 mass% of units based on the following monomer (b) and from 17 to 21 mass% of units based on the following monomer (c), in all monomer units, and of which the mass average molecular weight is from 80,000 to 300,000: Monomer (a): a compound represented by the following formula, CH 2 =C(CH 3)C OCH 2 CH 2 (CF 2) 6 F, Monomer (b): a compound represented by the following formula, CH 2 =C(CH 3)C OCH2CH 2 N(CH 3) 2, Monomer (c): a compound represented by the following formula, CH 2 =CHC OCH 2 CH 2 OH, and the salified fluorocopolymer is the above copolymer in which at least some of dimethylamino groups in units based on the above monomer (b) are salified by an acid. Monomer (a): a compound represented by the following formula, CH 2 =C(CH 3)C OCH 2 CH 2 (CF 2) 6 F, Monomer (b): a compound represented by the following formula, CH 2 =C(CH 3)C OCH2CH 2 N(CH 3) 2, Monomer (c): a compound represented by the following formula, CH 2 =CHC OCH 2 CH 2 OH,
A porous composite for an anode comprising: a plurality of agglomerated nanocomposites, wherein each of the plurality of nanocomposites comprises: a dendritic particle comprising a three-dimensional, randomly-ordered assembly of nanoparticles of an electrically conducting material; and a plurality of discrete non-porous nanoparticles of a non-carbon Group 4A element or mixture thereof disposed on a surface of the dendritic particle; and wherein each nanocomposite of the plurality of agglomerated nanocomposites has at least a portion of the dendritic particle in electrical communication with at least a portion of a dendritic particle of an adjacent nanocomposite in the plurality of agglomerated nanocomposites, characterized in that the porous composite is characterized by a total pore volume within the porous composite that has a range of 3 to 20 times the volume occupied by all of the nanocomposites in the porous composite. a plurality of agglomerated nanocomposites, wherein each of the plurality of nanocomposites comprises: a dendritic particle comprising a three-dimensional, randomly-ordered assembly of nanoparticles of an electrically conducting material; and a plurality of discrete non-porous nanoparticles of a non-carbon Group 4A element or mixture thereof disposed on a surface of the dendritic particle; and a dendritic particle comprising a three-dimensional, randomly-ordered assembly of nanoparticles of an electrically conducting material; and a plurality of discrete non-porous nanoparticles of a non-carbon Group 4A element or mixture thereof disposed on a surface of the dendritic particle; and wherein each nanocomposite of the plurality of agglomerated nanocomposites has at least a portion of the dendritic particle in electrical communication with at least a portion of a dendritic particle of an adjacent nanocomposite in the plurality of agglomerated nanocomposites, characterized in that the porous composite is characterized by a total pore volume within the porous composite that has a range of 3 to 20 times the volume occupied by all of the nanocomposites in the porous composite.
A method for layer-by-layer formation of a free-standing metallic part comprising: (a) forming an article comprising plurality of layers via a binder jetting process, wherein: each of the plurality of layers comprise metallic alloy particles and a binder; said metallic alloy particles include a metal alloy of the following composition, in weight percent: 17.0<Cr<22.0, 8.0<Mo<12.0. 2.0<B<5.0, 3.0<W<7.0, 0.5<C<2.0, 1.0<Mn<4.0, 1.0<Si<3.0, balance Fe, and inevitable impurities; (b) heating said article to produce a cured article having a porosity of 20 to 60%, wherein said heating cures said binder and forms bonds between said metallic alloy particles; (c) sintering said cured article, wherein said sintering comprises heating said cured article to remove said binder, sintering, and cooling at a rate of less than 5 °C/minute to form a porous metallic skeleton; (d) infiltrating said porous metallic skeleton with a second material and forming said free-standing metallic part wherein said free-standing metallic part has a volume loss of less than or equal to 130 mm3 as measured according to ASTM G65-04. (a) forming an article comprising plurality of layers via a binder jetting process, wherein: each of the plurality of layers comprise metallic alloy particles and a binder; said metallic alloy particles include a metal alloy of the following composition, in weight percent: 17.0<Cr<22.0, 8.0<Mo<12.0. 2.0<B<5.0, 3.0<W<7.0, 0.5<C<2.0, 1.0<Mn<4.0, 1.0<Si<3.0, balance Fe, and inevitable impurities; each of the plurality of layers comprise metallic alloy particles and a binder; said metallic alloy particles include a metal alloy of the following composition, in weight percent: 17.0<Cr<22.0, 8.0<Mo<12.0. 2.0<B<5.0, 3.0<W<7.0, 0.5<C<2.0, 1.0<Mn<4.0, 1.0<Si<3.0, balance Fe, and inevitable impurities; (b) heating said article to produce a cured article having a porosity of 20 to 60%, wherein said heating cures said binder and forms bonds between said metallic alloy particles; (c) sintering said cured article, wherein said sintering comprises heating said cured article to remove said binder, sintering, and cooling at a rate of less than 5 °C/minute to form a porous metallic skeleton; (d) infiltrating said porous metallic skeleton with a second material and forming said free-standing metallic part wherein said free-standing metallic part has a volume loss of less than or equal to 130 mm3 as measured according to ASTM G65-04.
A method performed by a network node in a wireless communication network employing Orthogonal Frequency Division Multiplexing, OFDM, technology, wherein a channel between the network node and a wireless device comprises a set of Resource Block Groups, RBGs, the method comprising: - receiving, from the wireless device, a measurement report indicating a channel quality of the channel between the network node and the wireless device, wherein the channel quality is represented by a geometry, - determining whether the channel quality is acceptable or unacceptable by comparing the geometry to a geometry threshold, G th, and - responsive to determining that the geometry is above the geometry threshold, transmitting, to the wireless device, a bitmap indicating which RBG(s) to report channel quality measurements for and which RBGs to exclude. - receiving, from the wireless device, a measurement report indicating a channel quality of the channel between the network node and the wireless device, wherein the channel quality is represented by a geometry, - determining whether the channel quality is acceptable or unacceptable by comparing the geometry to a geometry threshold, G th, and - responsive to determining that the geometry is above the geometry threshold, transmitting, to the wireless device, a bitmap indicating which RBG(s) to report channel quality measurements for and which RBGs to exclude.
A charging control apparatus that is configured to control a charge operation, using a charging cable that is connected to a charging inlet of a vehicle and supplies power to a storage unit of the vehicle from an external power supply provided outside the vehicle, the charging control apparatus comprising: - a connection state detection section (C21, E17) that is configured to detect connection of the charging cable to the charging inlet; - a disconnection detection section (C21, E17) that is configured to detect a command signal of a disconnection command unit of the charging cable; and characterized by: - a control unit that, when detecting the command signal of the disconnection command unit which indicates the disconnection in a state where the charging cable is connected to the charging inlet, is configured to pause the charge operation to the storage unit while maintaining closed states of all relay switches (C42, E5, E6) provided on a power supply line (C3, C8) for only a predetermined time by pausing AC/DC conversion operation of an AC/DC converter that is provided in the vehicle and performs the AC/DC conversion operation of the power from the external power supply, wherein the control unit is configured to restart the charge operation to the storage unit when the disconnection detection section (C21, E17) detects a command signal of the disconnection command unit which indicates cancel of the disconnection during the predetermined time by restarting the AC/DC conversion operation of the AC/DC converter. - a connection state detection section (C21, E17) that is configured to detect connection of the charging cable to the charging inlet; - a disconnection detection section (C21, E17) that is configured to detect a command signal of a disconnection command unit of the charging cable; and characterized by: - a control unit that, when detecting the command signal of the disconnection command unit which indicates the disconnection in a state where the charging cable is connected to the charging inlet, is configured to pause the charge operation to the storage unit while maintaining closed states of all relay switches (C42, E5, E6) provided on a power supply line (C3, C8) for only a predetermined time by pausing AC/DC conversion operation of an AC/DC converter that is provided in the vehicle and performs the AC/DC conversion operation of the power from the external power supply,