mhurhangee/ep-ind-claims huggingface dataset:
Automated method for monitoring a CNC-controlled, first multi-axis machine when machining a toothed component with a tool, comprising the following steps of: • performing a relative machining movement of the tool in relation to the component, • recording kinematic information by simultaneously recording the signals of a plurality of sensor means of the first multi-axis machine, wherein the movements specified for the machining of the toothed component, or the corresponding signals, are recorded in the real machining process, wherein the kinematic information comprises path information of the first multi-axis machine, • converting the kinematic information into a digital data set, wherein the digital data set represents a kinematic behavior pattern of the first multi-axis machine, • carrying out a comparison process by i. providing a digital comparison data set from a memory, wherein the digital comparison data set was determined in an identical second multi-axis machine, wherein the digital comparison data set represents a tested kinematic behavior pattern, ii. comparing the digital data set with the digital comparison data set by spatially and/or temporally referencing the data sets in order to determine similarities and/or deviations between the digital data set and the comparison data set. • performing a relative machining movement of the tool in relation to the component, • recording kinematic information by simultaneously recording the signals of a plurality of sensor means of the first multi-axis machine, wherein the movements specified for the machining of the toothed component, or the corresponding signals, are recorded in the real machining process, wherein the kinematic information comprises path information of the first multi-axis machine, • converting the kinematic information into a digital data set, wherein the digital data set represents a kinematic behavior pattern of the first multi-axis machine, • carrying out a comparison process by i. providing a digital comparison data set from a memory, wherein the digital comparison data set was determined in an identical second multi-axis machine, wherein the digital comparison data set represents a tested kinematic behavior pattern, ii. comparing the digital data set with the digital comparison data set by spatially and/or temporally referencing the data sets in order to determine similarities and/or deviations between the digital data set and the comparison data set. i. providing a digital comparison data set from a memory, wherein the digital comparison data set was determined in an identical second multi-axis machine, wherein the digital comparison data set represents a tested kinematic behavior pattern, ii. comparing the digital data set with the digital comparison data set by spatially and/or temporally referencing the data sets in order to determine similarities and/or deviations between the digital data set and the comparison data set.
A mobile wireless communications device comprising: a wireless transceiver; a processor coupled to said wireless transceiver; and a near-field communication device coupled to said processor and comprising an NFC controller, an NFC transceiver coupled to said NFC controller, and a plurality of spaced apart NFC antennas (43a-43f), and a scanning switch coupled between said plurality of spaced apart NFC antennas and said NFC transceiver, said NFC controller configured to operate said scanning switch to successively couple each NFC antenna of said plurality thereof to said NFC transceiver while attempting to establish NFC communication with an adjacent NFC device, lock coupling to a corresponding NFC antenna upon establishing NFC communication with the adjacent NFC device, and unlock coupling to the corresponding NFC antenna upon losing NFC communication with the adjacent NFC device. a wireless transceiver; a processor coupled to said wireless transceiver; and a near-field communication device coupled to said processor and comprising an NFC controller, an NFC transceiver coupled to said NFC controller, and a plurality of spaced apart NFC antennas (43a-43f), and a scanning switch coupled between said plurality of spaced apart NFC antennas and said NFC transceiver, said NFC controller configured to operate said scanning switch to successively couple each NFC antenna of said plurality thereof to said NFC transceiver while attempting to establish NFC communication with an adjacent NFC device, lock coupling to a corresponding NFC antenna upon establishing NFC communication with the adjacent NFC device, and unlock coupling to the corresponding NFC antenna upon losing NFC communication with the adjacent NFC device. an NFC controller, an NFC transceiver coupled to said NFC controller, and a plurality of spaced apart NFC antennas (43a-43f), and a scanning switch coupled between said plurality of spaced apart NFC antennas and said NFC transceiver, said NFC controller configured to operate said scanning switch to successively couple each NFC antenna of said plurality thereof to said NFC transceiver while attempting to establish NFC communication with an adjacent NFC device, lock coupling to a corresponding NFC antenna upon establishing NFC communication with the adjacent NFC device, and unlock coupling to the corresponding NFC antenna upon losing NFC communication with the adjacent NFC device. successively couple each NFC antenna of said plurality thereof to said NFC transceiver while attempting to establish NFC communication with an adjacent NFC device, lock coupling to a corresponding NFC antenna upon establishing NFC communication with the adjacent NFC device, and unlock coupling to the corresponding NFC antenna upon losing NFC communication with the adjacent NFC device.
A machining process for manufacturing titanium motor housing, wherein the said machining process includes the following steps: S1: Use stamping equipment to stamp, by using a press forming process, the base of the titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped; S2: Use stamping equipment to stamp, by using a press forming process, the barrel-shaped titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped, wherein, after stamping, a barrel-shaped housing with a barrel depth to port diameter ratio of 1.2∼1.8:1 is obtained; S3: Spray and cleanse the housing base obtained from stamping in Step S1 and the barrel-shaped motor housing obtained from stamping in Step S2; S4: Assemble the housing base and the barrel-shaped housing obtained in Step S3 to form the motor housing product; S5: Inspect the assembled motor housing obtained in Step S4, wherein the lubricant in said Steps S1 and S2 is cutting oil and calcium hydroxide (Ca 2) mixed into the cutting oil, and the lubricating film is oxalic acid. S1: Use stamping equipment to stamp, by using a press forming process, the base of the titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped; S2: Use stamping equipment to stamp, by using a press forming process, the barrel-shaped titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped, wherein, after stamping, a barrel-shaped housing with a barrel depth to port diameter ratio of 1.2∼1.8:1 is obtained; S3: Spray and cleanse the housing base obtained from stamping in Step S1 and the barrel-shaped motor housing obtained from stamping in Step S2; S4: Assemble the housing base and the barrel-shaped housing obtained in Step S3 to form the motor housing product; S5: Inspect the assembled motor housing obtained in Step S4,
A spout installation apparatus, comprising: a pouch supply unit; a pouch reception/delivery unit; and a spout installation unit, wherein the spout installation apparatus delivers a pouch from the pouch supply unit via the pouch reception/delivery unit to the spout installation unit, the pouch having a spout installation edge portion on a vertical or angled side edge portion where a spout is installed, wherein the spout installation unit installs the spout to the pouch, and wherein the pouch reception/delivery unit receives the pouch in a standing state and delivers the pouch to the spout installation unit with the pouch being tilted such that the spout installation edge lies substantially horizontal. a pouch supply unit; a pouch reception/delivery unit; and a spout installation unit, wherein the spout installation apparatus delivers a pouch from the pouch supply unit via the pouch reception/delivery unit to the spout installation unit, the pouch having a spout installation edge portion on a vertical or angled side edge portion where a spout is installed, wherein the spout installation unit installs the spout to the pouch, and wherein the pouch reception/delivery unit receives the pouch in a standing state and delivers the pouch to the spout installation unit with the pouch being tilted such that the spout installation edge lies substantially horizontal.
A lighting control operating unit for a lighting system, digital adjusting commands being generated in the lighting control operating unit, which commands can be transmitted to a processing unit via a data link, and said lighting control operating unit comprising several control elements, in particular key buttons, slide controls and/or rotary controls, which are disposed at the upper side of a housing and with the aid of which control commands can be entered, characterised in that at least one dual encoder is provided in a control panel of the lighting control operating unit, which dual encoder allows users to enter input values, wherein the dual encoder presents a first shaft being mounted in a housing so as to be rotatable, and wherein a first rotation signal generator, for generating a data signal, is provided at the first shaft, and wherein a second shaft being mounted in the housing of the dual encoder so as to be coaxially rotatable is provided at the dual encoder, and wherein a second rotation signal generator for generating a data signal is provided at the second shaft, and wherein both shafts (09, 10) present actuating elements (11, 12), at which adjusting movements can be transmitted onto the shafts (09, 10) by hand, and wherein the actuating elements, for hand-actuated adjustment of the shafts (09, 10), are embodied in the manner of a rotary disk and/or of a rotary swivel disposed in the control panel of the lighting control operating unit and configured to be coaxially turned in opposite directions, wherein the upper side(s) of the rotary disk and/or of the rotary swivel are/is embodied in the manner of a fingertip contact surface (21, 22), wherein the rotary disk and/or the rotary swivel can rotationally be driven by way of the engagement of a fingertip at the fingertip contact surface (21, 22), and wherein the fingertip contact surface (21, 22) is concave, and wherein the fingertip contact surface presents an annular or a circular shape, and wherein the first fingertip contact surface of the rotary disk and/or of the rotary swivel, with the aid of which the first shaft can be driven, and the second fingertip contact surface of the rotary disk and/or of the rotary swivel, with the aid of which the second shaft can be driven, are disposed on the same level in relation to the outside of the housing of the lighting control operating unit.
A reactive polymer composition comprising: a (co)polymer that forms one or more reactive moieties, either directly or indirectly, upon application of an ionizing radiation, wherein the one or more reactive moieties are free radicals and wherein the ionizing radiation is x-ray radiation; and a multifunctional curing coagent, wherein said multifunctional curing coagent minimizes or curbs chain scission, wherein the multifunctional curing coagent that minimizes or curbs chain scission is a compound that contains two or more terminal carbon-carbon double bonds or triple bonds, wherein the (co)polymer is an aliphatic (co)polymer, and wherein the (co)polymer is polypropylene. a (co)polymer that forms one or more reactive moieties, either directly or indirectly, upon application of an ionizing radiation, wherein the one or more reactive moieties are free radicals and wherein the ionizing radiation is x-ray radiation; and a multifunctional curing coagent, wherein said multifunctional curing coagent minimizes or curbs chain scission, wherein the multifunctional curing coagent that minimizes or curbs chain scission is a compound that contains two or more terminal carbon-carbon double bonds or triple bonds, wherein the (co)polymer is an aliphatic (co)polymer, and wherein the (co)polymer is polypropylene.
A SAP system including a database and a processor configured to, upon receiving a transport request including one or more objects to be imported into the system, perform the steps of: creating a back up transport request comprising a copy of the structure of the objects included within the transport request as they are present in the database of the system at the time the back up transport request is created; storing the back up transport request, characterised in that the processor is configured to identify a back up transport request implementing a change to the structure of an object in the database where there is no record of the previous content of the object, and the importation of which involves a loss of information and, upon identifying the back up transport request, generate an alert to a user. creating a back up transport request comprising a copy of the structure of the objects included within the transport request as they are present in the database of the system at the time the back up transport request is created; storing the back up transport request, characterised in that the processor is configured to identify a back up transport request implementing a change to the structure of an object in the database where there is no record of the previous content of the object, and the importation of which involves a loss of information and, upon identifying the back up transport request, generate an alert to a user.
A method of processing a broadcast signal for displaying multi view in a display panel of a receiver, the method comprising: receiving the broadcast signal including a first service and a second service, wherein the first service includes first images and the second service includes second images; multiplexing multi view video data in which images of the first and second images are multiplexed alternately at a certain frequency in a time domain; encoding a control sequence including information for controlling open/close motion of each lens of first viewing eyeglasses for the first service and second viewing eyeglasses for the second service; transmitting the encoded control sequence to the first and second viewing eyeglasses; characterized by receiving a broadcast channel control signal from the first and second viewing eyeglasses; multiplexing a first On Screen Display, OSD, for broadcast channel controlling based on the received broadcast channel control signal for the first viewing eyeglasses with the first images in the multi view video data, and a second OSD for broadcast channel controlling based on the received broadcast channel control signal for the second viewing eyeglasses with the second images; and displaying the multi view using the multiplexed multi view video data, and the multiplexed first OSD and second OSD. receiving the broadcast signal including a first service and a second service, wherein the first service includes first images and the second service includes second images; multiplexing multi view video data in which images of the first and second images are multiplexed alternately at a certain frequency in a time domain; encoding a control sequence including information for controlling open/close motion of each lens of first viewing eyeglasses for the first service and second viewing eyeglasses for the second service; transmitting the encoded control sequence to the first and second viewing eyeglasses; characterized by receiving a broadcast channel control signal from the first and second viewing eyeglasses; multiplexing a first On Screen Display, OSD, for broadcast channel controlling based on the received broadcast channel control signal for the first viewing eyeglasses with the first images in the multi view video data, and a second OSD for broadcast channel controlling based on the received broadcast channel control signal for the second viewing eyeglasses with the second images; and displaying the multi view using the multiplexed multi view video data, and the multiplexed first OSD and second OSD.
An oil-in-water emulsion liquid product for making up and caring for the lips comprising: - from 25% to 45% of a mixture comprising water and at least one polyol, - from 35% to 60% by weight of a mixture of oils, each oil having a refractive index, measured at a temperature ranging from 20°C to 25°C, which is greater than or equal to 1.460, - from 0.01% to 20% by weight of a coloring material, the percentages being expressed with respect to the weight of the emulsion, characterized in that it comprises a first ether of stearyl alcohol and of a polyethylene glycol comprising from 2 to 5 oxyethylene units, a second ether of stearyl alcohol and of a polyethylene glycol comprising from 15 to 25 oxyethylene units, and an acrylamido-2-methylpropanesulfonate copolymer. - from 25% to 45% of a mixture comprising water and at least one polyol, - from 35% to 60% by weight of a mixture of oils, each oil having a refractive index, measured at a temperature ranging from 20°C to 25°C, which is greater than or equal to 1.460, - from 0.01% to 20% by weight of a coloring material, the percentages being expressed with respect to the weight of the emulsion, characterized in that it comprises a first ether of stearyl alcohol and of a polyethylene glycol comprising from 2 to 5 oxyethylene units, a second ether of stearyl alcohol and of a polyethylene glycol comprising from 15 to 25 oxyethylene units, and an acrylamido-2-methylpropanesulfonate copolymer. the percentages being expressed with respect to the weight of the emulsion, characterized in that it comprises a first ether of stearyl alcohol and of a polyethylene glycol comprising from 2 to 5 oxyethylene units, a second ether of stearyl alcohol and of a polyethylene glycol comprising from 15 to 25 oxyethylene units, and an acrylamido-2-methylpropanesulfonate copolymer.
An oil-in-water emulsion containing no surfactant, characterized in that the emulsion comprises a metabolizable oil phase, an aqueous phase and oil-water amphipathic solid particles dispersed in the aqueous phase and having biocompatibility, wherein the oil phase comprises squalene or/and tocol; the aqueous phase is any one selected from the group consisting of purified water, water for injection, glycerine aqueous solution, buffering salts aqueous solution, or the combination of at least two selected therefrom; and the solid particles have an average particle size of from 50 nm to 10 μm, and are selected from the group consisting of poly(lactide-co-glycolide) particles, aluminium hydroxide particles, calcium phosphate particles, alginic acid particles coated with chitosan, calcium carbonate particles, polylactic acid particles, and chitosan particles, and the solid particles have a mass concentration of from 0.1 to 20 wt% in aqueous phase.
Voltage sensing device (1, 2, 3, 4) for a high-voltage or medium-voltage power-carrying conductor (230, 231, 245) for a power network, such as an inner conductor of a power cable or a cable connector (230, 231) or a bus bar, the voltage sensing device having a tubular shape and an axial passageway defining axial and radial directions (110, 120), which passageway can receive the power-carrying conductor, the voltage sensing device comprising a) a radially-inner electrode, operable as a first sensing electrode of a sensing capacitor for sensing the voltage of the power-carrying conductor, b) a radially-outer electrode (30, 31, 34), operable as a second sensing electrode of the sensing capacitor, c) a solid carrier element (10, 11, 12), at least a first portion of which is arranged between the inner electrode and the outer electrode, the first portion being operable as a dielectric of the sensing capacitor, characterized in that the carrier element comprises a material which has a coefficient of thermal expansion of less than 5x 10 -6 1/K at 20°C, such as a ceramic material. a) a radially-inner electrode, operable as a first sensing electrode of a sensing capacitor for sensing the voltage of the power-carrying conductor, b) a radially-outer electrode (30, 31, 34), operable as a second sensing electrode of the sensing capacitor, c) a solid carrier element (10, 11, 12), at least a first portion of which is arranged between the inner electrode and the outer electrode, the first portion being operable as a dielectric of the sensing capacitor, characterized in that the carrier element comprises a material which has a coefficient of thermal expansion of less than 5x 10 -6 1/K at 20°C, such as a ceramic material.
Method of producing a Vertical Cavity Surface Emitting Laser, comprising: providing a layer stack of semiconductor layers, the semiconductor layers of the layer stack including a first mirror, a second mirror (26a, 28a, 30a), an active region between the first and second mirrors, an Al 1-x Ga x As layer with 0 ≤ x ≤ 0.05, and a contact layer immediately adjacent to the Al 1-x Ga x As layer; etching the layer stack to obtain a first layer sub-stack forming a mesa and a second layer sub-stack adjacent to the mesa in stacking direction of the layer stack, the layers of the second layer sub-stack extend beyond the layers of the first layer sub-stack in direction perpendicular to the stacking direction, and using the Al 1-x Ga x As layer as an etch-stop layer; removing an outer part of the Al 1-x Ga x As layer to expose in part the contact layer; oxidizing the Al 1-x Ga x As layer to obtain an oxide aperture layer. providing a layer stack of semiconductor layers, the semiconductor layers of the layer stack including a first mirror, a second mirror (26a, 28a, 30a), an active region between the first and second mirrors, an Al 1-x Ga x As layer with 0 ≤ x ≤ 0.05, and a contact layer immediately adjacent to the Al 1-x Ga x As layer; etching the layer stack to obtain a first layer sub-stack forming a mesa and a second layer sub-stack adjacent to the mesa in stacking direction of the layer stack, the layers of the second layer sub-stack extend beyond the layers of the first layer sub-stack in direction perpendicular to the stacking direction, and using the Al 1-x Ga x As layer as an etch-stop layer; removing an outer part of the Al 1-x Ga x As layer to expose in part the contact layer; oxidizing the Al 1-x Ga x As layer to obtain an oxide aperture layer.
A three-dimensional flexible calender molded or thermo-formed deep molded non-woven fabric comprising a planar flexible textile non-woven substrate having a multiplicity of compressible projections extending from a planar surface of the substrate which return to their shape after being substantially compressed, wherein the non-woven substrate is a non-woven fabric, manufactured from spun-bonded filaments and/or fibers with a diameter of less than 100 microns and having an anisotropy ratio f p between -1⁄2 to +1⁄2 resulting in random fiber orientation distribution.