mhurhangee/ep-ind-claims huggingface dataset:
Stator of an electrical machine with an interconnection arrangement for electrically interconnecting stator coils to external terminals by means of connector rings, wherein the interconnection arrangement comprises: - a temperature sensor receiving region which is in the form of a single-piece extension of a busbar or of a connecting conductor of the interconnection arrangement, wherein - a temperature sensor is secured to the temperature sensor receiving region, and wherein - the temperature sensor is in thermal contact with the temperature sensor receiving region in order to detect a temperature of the latter, and wherein - the temperature sensor is arranged in a sensor housing (52, 60) in the temperature sensor receiving region, characterized in that - the temperature sensor is arranged in a sensor housing (52, 60) comprising a hard component and/or a soft component, - wherein the temperature sensor and the sensor housing (52, 60) form a temperature sensor device, and in that - the temperature sensor receiving region is formed by a receiving bar, and in that - the sensor housing (52, 60) has an opening for accommodating the temperature sensor receiving region, and the temperature sensor is arranged on a surface inside the opening, and wherein - the temperature sensor device, with its sensor housing (52, 60), is slipped or pushed onto the receiving bar, and the temperature sensor is arranged in thermal contact with the temperature sensor receiving region. - a temperature sensor receiving region which is in the form of a single-piece extension of a busbar or of a connecting conductor of the interconnection arrangement, wherein - a temperature sensor is secured to the temperature sensor receiving region, and wherein - the temperature sensor is in thermal contact with the temperature sensor receiving region in order to detect a temperature of the latter, and wherein - the temperature sensor is arranged in a sensor housing (52, 60) in the temperature sensor receiving region, characterized in that - the temperature sensor is arranged in a sensor housing (52, 60) comprising a hard component and/or a soft component, - wherein the temperature sensor and the sensor housing (52, 60) form a temperature sensor device, and in that - the temperature sensor receiving region is formed by a receiving bar, and in that - the sensor housing (52, 60) has an opening for accommodating the temperature sensor receiving region, and the temperature sensor is arranged on a surface inside the opening, and wherein - the temperature sensor device, with its sensor housing (52, 60), is slipped or pushed onto the receiving bar, and the temperature sensor is arranged in thermal contact with the temperature sensor receiving region.
A method for producing a dielectric transmission interference filter, in particular a transmission interference filter for semiconductor lithography, wherein a substrate is disposed in an evaporation chamber, and layers (51, 52) having a higher refractive index and a lower refractive index are alternately deposited on the substrate, wherein each of the layers is produced by co-evaporation of at least two of the constituents magnesium fluoride, lead fluoride, and antimony oxide; and wherein after the deposition of the layers the substrate is subjected to a heat treatment at a temperature of at least 50 °C and is irradiated with UV light for a duration of at least 5 hours, wherein during the irradiation the central wavelength of the transmission window in the transmission of the filter for the center transmission wavelength within a spectral transmission window is decreasing.
An air vent dial for an automobile, comprising: an air vent housing having an air path at an inside portion and a damper rotationally provided at the air path so as to open or close the air path; a dial housing provided in the air vent housing and having an opening formed at a front portion thereof; and a dial assembly rotationally coupled to the dial housing and having a dial knob provided at a front portion of the dial assembly so as to be fitted into the opening and exposed to outside, and a rear fixing plate connected to the damper through a link member to control opening and closing degrees of the damper, comprising a dial elongated hole formed in the rear fixing plate, characterized in that the dial housing further comprises a housing elongated hole formed in a rear body, and holding projections respectively formed at a rear outer peripheral surface corresponding to opening and closing positions of the damper along a rear outer peripheral surface of the dial housing, and wherein the dial assembly further comprises fixing projections projecting inwards and contacting the holding projections while being guided and moving along the rear outer peripheral surface of the dial housing outside the rear fixing plate. an air vent housing having an air path at an inside portion and a damper rotationally provided at the air path so as to open or close the air path; a dial housing provided in the air vent housing and having an opening formed at a front portion thereof; and a dial assembly rotationally coupled to the dial housing and having a dial knob provided at a front portion of the dial assembly so as to be fitted into the opening and exposed to outside, and a rear fixing plate connected to the damper through a link member to control opening and closing degrees of the damper, comprising a dial elongated hole formed in the rear fixing plate, characterized in that the dial housing further comprises a housing elongated hole formed in a rear body, and holding projections respectively formed at a rear outer peripheral surface corresponding to opening and closing positions of the damper along a rear outer peripheral surface of the dial housing, and a housing elongated hole formed in a rear body, and holding projections respectively formed at a rear outer peripheral surface corresponding to opening and closing positions of the damper along a rear outer peripheral surface of the dial housing, and wherein the dial assembly further comprises fixing projections projecting inwards and contacting the holding projections while being guided and moving along the rear outer peripheral surface of the dial housing outside the rear fixing plate.
An acoustic warning device for a motor vehicle, comprising: • a base part, • a control part, which is movable with respect to the base part between a rest position and a pressed position, • an electrical control detection circuit having at least two switches, each switch being arranged to change state during the passage of the control part from the rest position to the pressed position, the switches normally being closed switches when the control part is in the rest position, characterized: - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part, and a contact bridge arranged on the control part, the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch, the connecting arch forming an independent part to be attached to the steering wheel. • a base part, • a control part, which is movable with respect to the base part between a rest position and a pressed position, • an electrical control detection circuit having at least two switches, each switch being arranged to change state during the passage of the control part from the rest position to the pressed position, the switches normally being closed switches when the control part is in the rest position, characterized: - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part, and a contact bridge arranged on the control part, the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch, the connecting arch forming an independent part to be attached to the steering wheel. - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part, and a contact bridge arranged on the control part, the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch, the connecting arch forming an independent part to be attached to the steering wheel.
A heterophasic propylene ethylene copolymer having an MFR 2 of 0.5 to 100 g/10min determined according to ISO 1133, and obtained using single site catalysis comprising: (i) a propylene homopolymer or propylene ethylene copolymer matrix having up to 4 wt% ethylene; and (ii) an ethylene propylene rubber dispersed in the matrix; said heterophasic propylene ethylene copolymer having a xylene cold soluble content of 20 to 40 %, determined according to ISO 16152; wherein the ethylene content of the xylene cold soluble fraction of said heterophasic propylene ethylene copolymer is between 70 and 90 wt.%; wherein the xylene cold soluble fraction of said heterophasic propylene ethylene copolymer has an intrinsic viscosity of 3.0 dl/g or more, measured according to ISO 1628/1 and /3; and wherein the melting enthalpy (ΔHm) of the heterophasic propylene ethylene copolymer is between 10 and 30 J/g at a temperature of 0 to 130°C, measured according to ISO 3146. (i) a propylene homopolymer or propylene ethylene copolymer matrix having up to 4 wt% ethylene; and (ii) an ethylene propylene rubber dispersed in the matrix;
An apparatus for containing a die, the apparatus comprising: a die shoe defining an inner recess sized to accommodate a die, the recess sized to mate with an outer surface of the die, the die shoe including a key (50, 50', 50", 50"') provided on one side of the die shoe, wherein the key (50, 50', 50", 50"') has an extension (60, 60', 60", 60"') that projects away from the key and is adapted to slide into a key channel of the die when the die is placed in the die shoe recess, characterized in that the extension (60, 60', 60", 60"') interacts with a back wall of the key channel and is adapted to limit lateral movement of the die so that the die is maintained in workable vertical alignment with the die shoe even in an event when the die is positioned on top of one or more shims in the die shoe recess and raised to a height at which there is a lack of appreciable contact between the die and the one side of the die shoe, wherein the extension (60, 60', 60") includes a member (66, 57, 63) for adjusting length of the extension so as to conform to a depth of the die key channel when the die is placed in the die shoe recess. a die shoe defining an inner recess sized to accommodate a die, the recess sized to mate with an outer surface of the die, the die shoe including a key (50, 50', 50", 50"') provided on one side of the die shoe, wherein the key (50, 50', 50", 50"') has an extension (60, 60', 60", 60"') that projects away from the key and is adapted to slide into a key channel of the die when the die is placed in the die shoe recess, characterized in that the extension (60, 60', 60", 60"') interacts with a back wall of the key channel and is adapted to limit lateral movement of the die so that the die is maintained in workable vertical alignment with the die shoe even in an event when the die is positioned on top of one or more shims in the die shoe recess and raised to a height at which there is a lack of appreciable contact between the die and the one side of the die shoe, wherein the extension (60, 60', 60") includes a member (66, 57, 63) for adjusting length of the extension so as to conform to a depth of the die key channel when the die is placed in the die shoe recess.
An article of apparel, comprising: a garment structure for a human foot, wherein the garment structure includes one or more fabric elements, and wherein the garment structure is structured and arranged so as to provide a close fit to and extend across an arch portion of the foot; and a foot position feedback system engaged with the garment structure at the arch portion, wherein the foot position feedback system includes a first region in the arch portion having a higher compressive force application capability than a compressive force application capability of the fabric element making up a largest proportion of the garment structure, wherein the foot position feedback system includes a first material layer providing the higher compressive force application capability, and wherein the first material layer includes a first opening defined therein. a garment structure for a human foot, wherein the garment structure includes one or more fabric elements, and wherein the garment structure is structured and arranged so as to provide a close fit to and extend across an arch portion of the foot; and a foot position feedback system engaged with the garment structure at the arch portion, wherein the foot position feedback system includes a first region in the arch portion having a higher compressive force application capability than a compressive force application capability of the fabric element making up a largest proportion of the garment structure, wherein the foot position feedback system includes a first material layer providing the higher compressive force application capability, and wherein the first material layer includes a first opening defined therein.
A method of manufacturing a lithium nickel composite oxide using lithium carbonate as a lithium source, the lithium nickel composite oxide being represented by the following Formula: Li x Ni 1-y-z Co y M z O 1.7-2.2 ··· wherein in Formula, 0.90<x<1.10, 0.01<y<0.15, 0.005<z<0.10, and M represents one or more metals selected from the group consisting of Al, Mn, W, Nb, Mg, Zr, and Zn), the method comprising the following steps 1 to 7: (Step 1) a dissolving step of dissolving nickel sulfate and cobalt sulfate in water to prepare a nickel sulfate aqueous solution and a cobalt sulfate aqueous solution; (Step 2) a precipitation step of mixing the nickel sulfate aqueous solution and the cobalt sulfate aqueous solution, which are obtained in Step 1, with each other and adding an alkali aqueous solution to prepare a coprecipitate of nickel hydroxide and cobalt hydroxide; (Step 3) a filtering step of obtaining a precursor cake containing nickel hydroxide and cobalt hydroxide from the coprecipitate which is obtained in Step 2; (Step 4) a drying step of drying the precursor cake, which is obtained in Step 3, to obtain precursor powder; (Step 5) a mixing step of mixing aluminum hydroxide and lithium carbonate with the precursor powder, which is obtained in Step 4, to obtain a mixture; (Step 6) a high-temperature firing step of firing the mixture, which is obtained in Step 5, at a high temperature of higher than 790°C to obtain a fired product; and (Step 7) a low-temperature firing step of firing the fired product, which has undergone Step 6, at a low temperature of lower than 790°C. (Step 1) a dissolving step of dissolving nickel sulfate and cobalt sulfate in water to prepare a nickel sulfate aqueous solution and a cobalt sulfate aqueous solution; (Step 2) a precipitation step of mixing the nickel sulfate aqueous solution and the cobalt sulfate aqueous solution, which are obtained in Step 1, with each other and adding an alkali aqueous solution to prepare a coprecipitate of nickel hydroxide and cobalt hydroxide; (Step 3) a filtering step of obtaining a precursor cake containing nickel hydroxide and cobalt hydroxide from the coprecipitate which is obtained in Step 2; (Step 4) a drying step of drying the precursor cake, which is obtained in Step 3, to obtain precursor powder; (Step 5) a mixing step of mixing aluminum hydroxide and lithium carbonate with the precursor powder, which is obtained in Step 4, to obtain a mixture; (Step 6) a high-temperature firing step of firing the mixture, which is obtained in Step 5, at a high temperature of higher than 790°C to obtain a fired product; and (Step 7) a low-temperature firing step of firing the fired product, which has undergone Step 6, at a low temperature of lower than 790°C.
A system for controlling equipment (50, 62, 80) of a controlled vehicle, comprising: an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to receive and analyze the image data and for generating a control signal that is used to control the equipment (50, 62, 80), said controller configured to generate the control signal in response to analysis of the image data and in response to a selected mode of operation, wherein said controller analyzes the image data to detect at least one characteristic in the image data, wherein said controller is further configured to select a mode of operation from at least the following modes of operation: a dark village mode; a bright village mode; and at least one non-village mode, wherein said controller selects a dark village mode if the at least one characteristic reaches a first threshold, and wherein said controller selects a bright village mode if the at least one characteristic reaches a second threshold, characterized in that said controller selects one of said at least one non-village mode if said controller is not operating in either the dark village mode or the bright village mode, and in that, if the bright village mode or the dark village mode is selected, continuing to receive and analyze image data in order to determine whether to select the non-village mode, wherein a transition from the bright village mode to the dark village mode is prevented. an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to receive and analyze the image data and for generating a control signal that is used to control the equipment (50, 62, 80), said controller configured to generate the control signal in response to analysis of the image data and in response to a selected mode of operation, wherein said controller analyzes the image data to detect at least one characteristic in the image data, wherein said controller is further configured to select a mode of operation from at least the following modes of operation: a dark village mode; a bright village mode; and at least one non-village mode, wherein said controller selects a dark village mode if the at least one characteristic reaches a first threshold, and wherein said controller selects a bright village mode if the at least one characteristic reaches a second threshold, characterized in that said controller selects one of said at least one non-village mode if said controller is not operating in either the dark village mode or the bright village mode, and in that, if the bright village mode or the dark village mode is selected, continuing to receive and analyze image data in order to determine whether to select the non-village mode, wherein a transition from the bright village mode to the dark village mode is prevented.
Method for determining a route for a floor cleaning machine in an overall area, wherein the floor cleaning machine comprises a cleaning element that is able to be activated for an action on a floor surface, wherein, in a first step, a transport path is determined, wherein the overall area contains the transport path, wherein the transport path extends between a first and a second starting/end area, wherein the cleaning element is deactivated while the floor cleaning machine moves along the transport path, wherein, in a second step, a working area is determined, wherein the overall area contains the working area, wherein the working area contains at least one of the starting/end areas, wherein the cleaning element is at least temporarily activated while the floor cleaning machine moves within the working area along a working path, wherein the route contains the transport path, wherein, in the first step, at least one further transport path is determined, wherein the overall area contains each of the further transport paths, wherein each of the further transport paths extends in each case between a first further and a second further starting/end area, wherein the cleaning element is deactivated while the floor cleaning machine moves along each of the further transport paths, wherein, in the second step, at least one further working area is determined, wherein the overall area contains each of the further working areas, wherein each of the further working areas contains at least one of the further starting/end areas, wherein the cleaning element is at least temporarily activated while the floor cleaning machine moves within each of the further working areas along a respective further working path, wherein the route contains each of the further transport paths, wherein the working area contains another of the further starting/end areas.
A method by a network node serving a user equipment, UE, in a wireless communication network, the method comprising: transmitting, to the UE, a Radio Resource Control, RRC, Connection Reconfiguration message comprising an announcement message indicating a Network Type and Software Version Number, N-TSVN for an extended protocol; and receiving, from the UE, in response to the announcement message, an initial message indicating a UE type and Software Version Number, UE-TSVN, that is compatible with the N-TSVN, wherein the UE-TSVN comprises a UE Type and a UE Software Version Number,UE-SVN, the N-TSVN comprises an oldest software version number, O-SVN, and a latest software version number, L-SVN, and wherein the UE-TSVN is compatible with the N-TSVN in that the UE-SVN is greater than or equal to the O-SVN and that the UE-SVN is less than or equal to the L-SVN. transmitting, to the UE, a Radio Resource Control, RRC, Connection Reconfiguration message comprising an announcement message indicating a Network Type and Software Version Number, N-TSVN for an extended protocol; and receiving, from the UE, in response to the announcement message, an initial message indicating a UE type and Software Version Number, UE-TSVN, that is compatible with the N-TSVN, wherein the UE-TSVN comprises a UE Type and a UE Software Version Number,UE-SVN, the N-TSVN comprises an oldest software version number, O-SVN, and a latest software version number, L-SVN, and wherein the UE-TSVN is compatible with the N-TSVN in that the UE-SVN is greater than or equal to the O-SVN and that the UE-SVN is less than or equal to the L-SVN.