mhurhangee/ep-ind-claims huggingface dataset:
A sintered, cylindrical ceramic body, comprising: a cylindrical portion defining a major axis; and a plurality of fin portions extending from the cylindrical portion; wherein the fin portions are positioned equidistantly around the cylindrical portion; wherein the fin portions extend radially outwardly from the cylindrical portion; wherein the body has an alumina content of at least 99 weight percent distributed homogeneously therethrough; wherein the body has a silica content of between 0.1 and 0.3 weight percent distributed homogeneously therethroughout; wherein the body has a titania content of between 0.1 and 0.5 weight percent distributed homogeneously therethroughout; wherein the body has a calcia content of between 0.05 and 0.2 weight percent distributed homogeneously therethroughout; wherein the body has a soda content of between 0.1 and 0.5 weight percent distributed homogeneously therethroughout; wherein the body has an iron oxide content of between 0.05 and 0.2 weight percent distributed homogeneously therethroughout; wherein the body has a porosity of less than 3 percent; wherein the body has a thermal conductivity at 100 °C of 0.293 W/cm·°C (0.07 cal/sec cm °C); and wherein the body has a heat capacity of 0.879 J/g. °C (0.21 cal/gm/°C). a cylindrical portion defining a major axis; and a plurality of fin portions extending from the cylindrical portion; wherein the fin portions are positioned equidistantly around the cylindrical portion; wherein the fin portions extend radially outwardly from the cylindrical portion; wherein the body has an alumina content of at least 99 weight percent distributed homogeneously therethrough; wherein the body has a silica content of between 0.1 and 0.3 weight percent distributed homogeneously therethroughout; wherein the body has a titania content of between 0.1 and 0.5 weight percent distributed homogeneously therethroughout; wherein the body has a calcia content of between 0.05 and 0.2 weight percent distributed homogeneously therethroughout; wherein the body has a soda content of between 0.1 and 0.5 weight percent distributed homogeneously therethroughout; wherein the body has an iron oxide content of between 0.05 and 0.2 weight percent distributed homogeneously therethroughout; wherein the body has a porosity of less than 3 percent; wherein the body has a thermal conductivity at 100 °C of 0.293 W/cm·°C (0.07 cal/sec cm °C); and wherein the body has a heat capacity of 0.879 J/g. °C (0.21 cal/gm/°C).
A card comprising: a processor; memory; and a light sensor operable to receive light signals, wherein said processor is configured to decode said light signals, said processor is configured to store said decoded information in memory, characterized in that: pulses of light of said received light signals are frequency double-frequency (F2F) encoded. a processor; memory; and a light sensor operable to receive light signals, wherein said processor is configured to decode said light signals, said processor is configured to store said decoded information in memory, characterized in that: pulses of light of said received light signals are frequency double-frequency (F2F) encoded.
Use of an element for shielding against electromagnetic radiation, wherein the shielding element on an electric motorcycle is integrated into a seat of the electric motorcycle and shields electromagnetic radiation from a driver and/or passenger, wherein the shielding element is designed as a steel sheet and is connected to a conductive discharge element.
Refrigeration system comprising a refrigerant circuit, a main mass flow of a refrigerant being guided in said circuit, a refrigerant-cooling heat exchanger arranged in the refrigerant circuit on the high pressure side, an expansion cooling device (24, 28) arranged in the refrigerant circuit, said device cooling the main mass flow of the refrigerant in the active state and thereby generating an additional mass flow of gaseous refrigerant, a reservoir for liquefied refrigerant arranged in the refrigerant circuit, at least one expansion unit for liquefied refrigerant of the main mass flow, said expansion unit being arranged in the refrigerant circuit and having an expansion element and a post-connected heat exchanger on the low pressure side, said heat exchanger making refrigerating capacity available, and at least one refrigerant compressor arranged in the refrigerant circuit, said compressor having a main compressor stage and at least one additional compressor stage driven together with the main compressor stage, said two stages compressing refrigerant to high pressure, wherein the main compressor stage and the at least one additional compressor stage are usable such that either the main compressor stage compresses refrigerant from the main mass flow and the additional compressor stage refrigerant from the additional mass flow or the main compressor stage and the additional compressor stage compress refrigerant from the main mass flow, wherein at least two refrigerant compressors are arranged in the refrigerant circuit, said compressors able to be switched on individually for the purpose of compressing the main mass flow, and wherein at least two of the refrigerant compressors each have at least one additional compressor stage, characterized in that each of the additional compressor stages is usable electively for the compression of refrigerant from the main mass flow or for the compression of refrigerant from the additional mass flow and that a control is provided for switching on such a number of additional compressor stages for the compression of refrigerant from the additional mass flow in a first operating mode as a function of the operating conditions that the expansion cooling device (24, 28) liquefies the main mass flow and reduces its enthalpy.
A method comprising: performing: transmitting an inductive-charging signal to an inductive-charging receiver, terminating transmission of the inductive-charging signal after elapse of a first transmission duration, and subsequent to the termination of the transmission of the inductive-charging signal, receiving a charge request signal from the inductive-charging receiver, for a first iteration number of iterations until a first duration between the termination of transmission of the inductive charging signal and receipt of the charge request signal exceeds a threshold duration; in response to the charge request signal and the first duration exceeding the threshold duration, transmitting the inductive-charging signal; and terminating transmission of the inductive-charging signal after elapse of a second transmission duration, the second transmission duration being based, at least in part, on the first iteration number multiplied by the first transmission duration. performing: transmitting an inductive-charging signal to an inductive-charging receiver, terminating transmission of the inductive-charging signal after elapse of a first transmission duration, and subsequent to the termination of the transmission of the inductive-charging signal, receiving a charge request signal from the inductive-charging receiver, transmitting an inductive-charging signal to an inductive-charging receiver, terminating transmission of the inductive-charging signal after elapse of a first transmission duration, and subsequent to the termination of the transmission of the inductive-charging signal, receiving a charge request signal from the inductive-charging receiver, for a first iteration number of iterations until a first duration between the termination of transmission of the inductive charging signal and receipt of the charge request signal exceeds a threshold duration; in response to the charge request signal and the first duration exceeding the threshold duration, transmitting the inductive-charging signal; and terminating transmission of the inductive-charging signal after elapse of a second transmission duration, the second transmission duration being based, at least in part, on the first iteration number multiplied by the first transmission duration.
An applicator brush for applying a cosmetic composition, the applicator brush comprising a stem and a single tuft of bristles that are supported by the stem, characterized in that this single tuft of bristle comprises at least 500 bristles having, in cross-section, a greatest dimension comprised between 4/100 mm and 6/100 mm, and in that the bristles are fastened by being stapled in a housing formed in the distal end of the stem or the bristles are held by clamping or by adhesive in the bottom of a housing formed in the distal end of the stem.
A method for the production of stacked sheet cores for transformers by means of stacks of sheets; the method comprising the steps of: - providing a stack of sheets comprising one or more sheets made of grain oriented electrical steel; - grabbing said stack of sheets by means of a gripping system; - placing the stack of sheets on an assembly table (7; 7I; 7II; 7III; 7IV); wherein, during the step of placing, the stack of sheets falls in free fall along a path; wherein the gripping system comprises electromagnetic means configured to selectively produce an electromagnetic field suited to attract, in use, the stack of sheets; wherein, during the step of grabbing, the electromagnetic means are activated to attract the stack of sheets; the method being characterized in that the gripping system further comprises support means configured to receive and support the stack of sheets once placed by the electromagnetic means. - providing a stack of sheets comprising one or more sheets made of grain oriented electrical steel; - grabbing said stack of sheets by means of a gripping system; - placing the stack of sheets on an assembly table (7; 7I; 7II; 7III; 7IV); wherein, during the step of placing, the stack of sheets falls in free fall along a path; wherein the gripping system comprises electromagnetic means configured to selectively produce an electromagnetic field suited to attract, in use, the stack of sheets; wherein, during the step of grabbing, the electromagnetic means are activated to attract the stack of sheets; the method being characterized in that the gripping system further comprises support means configured to receive and support the stack of sheets once placed by the electromagnetic means.
An active material ball electrode layer structure, comprising: a plurality of active material balls, each of the active material balls includes a plurality of first active material particles, a first electrically conductive material, a first binder and a first mixed electrolyte; and a second mixed electrolyte, disposed outside of the active material balls and filled gaps between the active material balls to be against an outer surface of the active material balls to form a resistance of volume expansion of the active material balls; wherein the first mixed electrolyte is mainly composed of an electrolyte, and the second mixed electrolyte is mainly composed of an electrolyte with relatively lesser deformation ability comparing to the mainly electrolyte of the first mixed electrolyte. a plurality of active material balls, each of the active material balls includes a plurality of first active material particles, a first electrically conductive material, a first binder and a first mixed electrolyte; and a second mixed electrolyte, disposed outside of the active material balls and filled gaps between the active material balls to be against an outer surface of the active material balls to form a resistance of volume expansion of the active material balls; wherein the first mixed electrolyte is mainly composed of an electrolyte, and the second mixed electrolyte is mainly composed of an electrolyte with relatively lesser deformation ability comparing to the mainly electrolyte of the first mixed electrolyte.
Method for monitoring the operation of a drive component by means of a coil which is integrated in a mobile terminal, wherein the drive component is an electric rotating machine having a rotor and a stator and the rotor and the stator are accommodated in a housing, characterised in that the coil is configured for contactless charging of the mobile terminal, in particular using the Qi standard, and characterised by the steps: - capturing an electromagnetic variable of the drive component outside the housing of the drive component by means of the integrated coil, - determining at least one first frequency on the basis of the captured electromagnetic variable, wherein the first frequency comprises a stator frequency (fs), - determining a first status variable of the drive component from the at least one first frequency, wherein the capture of the electromagnetic variable takes place outside the housing of the electric rotating machine wherein a flux leakage field of the stator is measured, wherein the stator frequency (fs) is determined from the temporal and in particular periodical change of said flux leakage field. wherein the drive component is an electric rotating machine having a rotor and a stator and the rotor and the stator are accommodated in a housing, characterised in that the coil is configured for contactless charging of the mobile terminal, in particular using the Qi standard, and characterised by the steps: - capturing an electromagnetic variable of the drive component outside the housing of the drive component by means of the integrated coil, - determining at least one first frequency on the basis of the captured electromagnetic variable, wherein the first frequency comprises a stator frequency (fs), - determining a first status variable of the drive component from the at least one first frequency, - capturing an electromagnetic variable of the drive component outside the housing of the drive component by means of the integrated coil, - determining at least one first frequency on the basis of the captured electromagnetic variable, wherein the first frequency comprises a stator frequency (fs), - determining a first status variable of the drive component from the at least one first frequency, wherein the capture of the electromagnetic variable takes place outside the housing of the electric rotating machine wherein a flux leakage field of the stator is measured, wherein the stator frequency (fs) is determined from the temporal and in particular periodical change of said flux leakage field.
A method for establishing an on-demand route, characterized by comprising: determining, by a network node, that a stable route needs to be established according to a received route request command, wherein the route request command carries indication information indicating that a stable route needs to be established and a field indicating a predetermined effective time of a route entry of the stable route, and wherein the stable route is a route that corresponds to a longer effective time than a common route for the network node, and the common route corresponds to a uniform effective time; establishing, by the network node, the stable route, wherein the establishing the stable route comprises: sending, by the network node, the route request command to a next node; receiving, by the network node, a route reply command from the next node; recording, by the network node, a route entry of the established stable route in a route table according to the received route reply command; determining, by the network node, effective time of the route entry of the established stable route according to the predetermined effective time indicated in the field; and performing, by the network node, an aging operation on the route entry of the stable route according to the effective time of the route entry of the established stable route, wherein the route entry of the established stable route is deleted after the effective time of the route entry of the established stable route is exceeded. determining, by a network node, that a stable route needs to be established according to a received route request command, wherein the route request command carries indication information indicating that a stable route needs to be established and a field indicating a predetermined effective time of a route entry of the stable route, and wherein the stable route is a route that corresponds to a longer effective time than a common route for the network node, and the common route corresponds to a uniform effective time; establishing, by the network node, the stable route, wherein the establishing the stable route comprises: sending, by the network node, the route request command to a next node; receiving, by the network node, a route reply command from the next node; sending, by the network node, the route request command to a next node; receiving, by the network node, a route reply command from the next node; recording, by the network node, a route entry of the established stable route in a route table according to the received route reply command; determining, by the network node, effective time of the route entry of the established stable route according to the predetermined effective time indicated in the field; and performing, by the network node, an aging operation on the route entry of the stable route according to the effective time of the route entry of the established stable route, wherein the route entry of the established stable route is deleted after the effective time of the route entry of the established stable route is exceeded.
A medical apparatus (100, 300, 600, 700) comprising: a bar (110, 310, 610, 710) comprising: a first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a first screw (200, 500) for screwing directly into a mandibular jaw or maxillary jaw, the first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a first stem (140, 145, 345); a second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a second screw (200, 500) for screwing directly into the mandibular jaw or maxillary jaw, the second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a second stem (140, 145, 345); and a plurality of hooks (130, 330, 630, 730), wherein: the medical apparatus (100, 300, 600, 700) is an arch bar; and the first stem (140, 145, 345) and the second stem (140, 145, 345) are located distally to one another on the bar (110, 310, 610, 710). a bar (110, 310, 610, 710) comprising: a first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a first screw (200, 500) for screwing directly into a mandibular jaw or maxillary jaw, the first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a first stem (140, 145, 345); a second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a second screw (200, 500) for screwing directly into the mandibular jaw or maxillary jaw, the second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a second stem (140, 145, 345); and a plurality of hooks (130, 330, 630, 730), a first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a first screw (200, 500) for screwing directly into a mandibular jaw or maxillary jaw, the first attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a first stem (140, 145, 345); a second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) to receive a second screw (200, 500) for screwing directly into the mandibular jaw or maxillary jaw, the second attachment loop (120, 121, 122, 123, 320, 350, 360, 361, 362, 370, 555, 620, 720) connected to the bar (110, 310, 610, 710) via a second stem (140, 145, 345); and a plurality of hooks (130, 330, 630, 730), the medical apparatus (100, 300, 600, 700) is an arch bar; and the first stem (140, 145, 345) and the second stem (140, 145, 345) are located distally to one another on the bar (110, 310, 610, 710).
An industrial truck with a holding brake, a travel speed setting unit that generates a desired value for the travel speed, and a travel control device, which controls a travelling drive in response to the desired value for the travel speed, characterised in that • when the travel speed setting unit is not turned on, the travel control device regulates a holding torque for the travelling drive, which keeps the industrial truck in standstill on inclined ground, memorises the control parameters for the generation of the regulated holding torque, actuates the holding brake and deactivates the travelling drive at actuated holding brake, and • when the travel speed setting unit is actuated anew, the travel control device turns on the travelling drive again to generate the holding torque based on the memorised control parameters, and releases the holding brake. • when the travel speed setting unit is not turned on, the travel control device regulates a holding torque for the travelling drive, which keeps the industrial truck in standstill on inclined ground, memorises the control parameters for the generation of the regulated holding torque, actuates the holding brake and deactivates the travelling drive at actuated holding brake, and • when the travel speed setting unit is actuated anew, the travel control device turns on the travelling drive again to generate the holding torque based on the memorised control parameters, and releases the holding brake.
A process for manufacturing the compound of formula I wherein R is H, or a salt thereof, said process comprising the reaction of the compound of formula I-1 wherein X is bromine, chlorine or fluorine, with the compound of formula 1-2 wherein R is H, or a salt of said compound of formula 1-2, said reaction being performed in the presence of a base in a polar aprotic organic solvent or a polar mixture of aprotic organic solvents, and, when X is bromine or chlorine, in the presence of tetra- n -butyl ammonium fluoride hydrate or cesium fluoride.
A laundry treatment apparatus comprising: a housing; a tub provided in the housing and including a tub body configured to store water; a drum provided in the tub to store an object to be washed; a driving unit located at an outside of a bottom surface of the tub to rotate the drum; a heater configured to heat the water stored in the tub; an accommodation unit located at the bottom surface of the tub that defines a recess at the bottom surface of the tub, and that is configured to accommodate the heater in the recess, and a drainage unit connected to a bottom surface of the accommodation unit to discharge water in the tub to the outside of the laundry treatment apparatus; wherein a width of the housing is longer than a height of the housing; and wherein the accommodation unit comprises a protruded portion that protrudes in a radial direction from the bottom surface of the tub to deviate from a radius defined by a curved circumferential part of a side surface of the tub body. a housing; a tub provided in the housing and including a tub body configured to store water; a drum provided in the tub to store an object to be washed; a driving unit located at an outside of a bottom surface of the tub to rotate the drum; a heater configured to heat the water stored in the tub; an accommodation unit located at the bottom surface of the tub that defines a recess at the bottom surface of the tub, and that is configured to accommodate the heater in the recess, and a drainage unit connected to a bottom surface of the accommodation unit to discharge water in the tub to the outside of the laundry treatment apparatus; wherein a width of the housing is longer than a height of the housing; and wherein the accommodation unit comprises a protruded portion that protrudes in a radial direction from the bottom surface of the tub to deviate from a radius defined by a curved circumferential part of a side surface of the tub body.