mhurhangee/ep-ind-claims huggingface dataset:
A vehicle steering device comprising: an electric motor that applies a steering force to a turning mechanism of a vehicle; a first setting portion that sets a target assist torque (T m,mc) in accordance with a steering torque (T d); a second setting portion that sets an angle controlling target torque (T m,ac) for bringing an angular deviation (Δθ) between a target steering angle (θ cmda) and an actual steering angle (θ) close to zero; a restriction processing portion (66, 95) that restricts the angle controlling target torque set by the second setting portion; and a first calculating portion that calculates a target automatic steering torque (T m,ad) using the angle controlling target torque after the restriction process by the restriction processing portion, characterized by comprising a second calculating portion that performs weighted addition of the target automatic steering torque (T m,ad) and the target assist torque (T m,mc) in accordance with a value (Δθ, T d) that changes in accordance with a driver input to calculate a target motor torque (T m) that is a target value of a motor torque of the electric motor. an electric motor that applies a steering force to a turning mechanism of a vehicle; a first setting portion that sets a target assist torque (T m,mc) in accordance with a steering torque (T d); a second setting portion that sets an angle controlling target torque (T m,ac) for bringing an angular deviation (Δθ) between a target steering angle (θ cmda) and an actual steering angle (θ) close to zero; a restriction processing portion (66, 95) that restricts the angle controlling target torque set by the second setting portion; and a first calculating portion that calculates a target automatic steering torque (T m,ad) using the angle controlling target torque after the restriction process by the restriction processing portion, characterized by comprising a second calculating portion that performs weighted addition of the target automatic steering torque (T m,ad) and the target assist torque (T m,mc) in accordance with a value (Δθ, T d) that changes in accordance with a driver input to calculate a target motor torque (T m) that is a target value of a motor torque of the electric motor.
System for monitoring the filling of a set of waste containers which are distributed over a site with a high density of passers-by, the monitoring system comprising: - an autonomous monitoring box which is provided on each waste container, each autonomous monitoring box including a power source which supplies power to at least one fill sensor of the waste container and to a transmitter suitable for transmitting data to a remote processing terminal; - a relay unit which is positioned within a transmission radius of the transmitter of asub-set of waste containers, the relay unit being suitable for relaying, to the remote processing terminal, the data transmitted by the transmitter of each monitoring box; characterized in that the monitoring system comprises: - at least one mobile terminal suitable for receiving, in real time, the fill rate of each waste container provided with an autonomous monitoring box, allowing at least one operator patrolling a site and provided with a mobile terminal to receive, in real time, information regarding the fill rate of the waste containers on the site, and - a monitoring interface which allows the progress of filling and emptying of each waste container to be monitored, the processing terminal being configured to transmit an alert to the mobile terminal when the fill level of a waste container reaches a threshold predefined by the monitoring interface. - an autonomous monitoring box which is provided on each waste container, each autonomous monitoring box including a power source which supplies power to at least one fill sensor of the waste container and to a transmitter suitable for transmitting data to a remote processing terminal; - a relay unit which is positioned within a transmission radius of the transmitter of asub-set of waste containers, the relay unit being suitable for relaying, to the remote processing terminal, the data transmitted by the transmitter of each monitoring box; - at least one mobile terminal suitable for receiving, in real time, the fill rate of each waste container provided with an autonomous monitoring box, allowing at least one operator patrolling a site and provided with a mobile terminal to receive, in real time, information regarding the fill rate of the waste containers on the site, and - a monitoring interface which allows the progress of filling and emptying of each waste container to be monitored, the processing terminal being configured to transmit an alert to the mobile terminal when the fill level of a waste container reaches a threshold predefined by the monitoring interface.
A support device for a cleaner, comprising: a charging stand body provided with a charging port for charging the cleaner; and a plurality of fixing parts disposed to be spaced apart from each other on the charging stand body and each having a fixing groove capable of accommodating a fixing protrusion provided on the cleaner; characterized in that the fixing groove is defined in each of facing surfaces of the plurality of fixing parts. a charging stand body provided with a charging port for charging the cleaner; and a plurality of fixing parts disposed to be spaced apart from each other on the charging stand body and each having a fixing groove capable of accommodating a fixing protrusion provided on the cleaner; characterized in that the fixing groove is defined in each of facing surfaces of the plurality of fixing parts.
A method of manufacturing a curved electronic device, the method comprising - providing a substrate comprising a thermoplastic material; - printing a patterned layer of non-conductive support material to form a support pattern onto the substrate, wherein the support pattern comprises a plurality of support islands interconnected by support lines bridging open areas of the substrate without the support material between the support islands; - applying an electrical circuit (13,14) onto the support pattern, wherein the electrical circuit (13,14) comprises circuit lines comprising a conductive material applied onto the support lines, and electrical components applied onto the support islands which electrical components are electrically interconnected by the circuit lines; and - using a thermoforming process with an elevated processing temperature for deforming a shape of the substrate with the support pattern and electrical circuit (13,14) according to a predefined surface curvature, wherein the support material has a higher resistance to the deforming than the thermoplastic material of the substrate at the processing temperature, wherein the deforming is concentrated to the open areas between the support islands while the higher resistance of the support material to the deforming maintains a structural integrity of the electrical circuit (13,14) applied thereon during the thermoforming process. - providing a substrate comprising a thermoplastic material; - printing a patterned layer of non-conductive support material to form a support pattern onto the substrate, wherein the support pattern comprises a plurality of support islands interconnected by support lines bridging open areas of the substrate without the support material between the support islands; - applying an electrical circuit (13,14) onto the support pattern, wherein the electrical circuit (13,14) comprises circuit lines comprising a conductive material applied onto the support lines, and electrical components applied onto the support islands which electrical components are electrically interconnected by the circuit lines; and - using a thermoforming process with an elevated processing temperature for deforming a shape of the substrate with the support pattern and electrical circuit (13,14) according to a predefined surface curvature, wherein the support material has a higher resistance to the deforming than the thermoplastic material of the substrate at the processing temperature, wherein the deforming is concentrated to the open areas between the support islands while the higher resistance of the support material to the deforming maintains a structural integrity of the electrical circuit (13,14) applied thereon during the thermoforming process.
A pivot joint (100;200;400), comprising: a housing; an adapter at least partially disposed in the housing; a bore extending through the housing and the adapter; a compressive member (120;220;420) having a rectangular cross section disposed between the adapter and the housing, wherein the compressive member axially separates the adapter from the housing and is disposed in recesses formed in the adapter and the housing; a sealing member (130;431,432) disposed between the adapter and the housing, and an annular area between the adapter and the housing and in fluid communication with the bore. a housing; an adapter at least partially disposed in the housing; a bore extending through the housing and the adapter; a compressive member (120;220;420) having a rectangular cross section disposed between the adapter and the housing, wherein the compressive member axially separates the adapter from the housing and is disposed in recesses formed in the adapter and the housing; a sealing member (130;431,432) disposed between the adapter and the housing, and an annular area between the adapter and the housing and in fluid communication with the bore.
An audio signal processing apparatus comprising: a receiver for receiving an audio signal sampled at a first sampling frequency, the audio signal having a maximum frequency not exceeding a threshold frequency being lower than half the first sampling frequency by a first frequency margin; a filter bank for generating subband signals for the digital audio signal, the filter bank comprising a set of overlapping sub-filters providing a set of subbands; a first frequency shifter for applying a frequency shift to at least one subband of the set of subbands; a decimator for decimating the subband signals by a decimation factor resulting in decimated subband signals having a decimated sampling frequency equal to the first sampling frequency divided by the decimation factor, the decimated sampling frequency being at least twice a bandwidth of each of the overlapping sub-filters; and wherein the frequency shift for a subband is arranged to shift the subband to a frequency interval being a multiple of a frequency interval from zero to half the decimated sample frequency. a receiver for receiving an audio signal sampled at a first sampling frequency, the audio signal having a maximum frequency not exceeding a threshold frequency being lower than half the first sampling frequency by a first frequency margin; a filter bank for generating subband signals for the digital audio signal, the filter bank comprising a set of overlapping sub-filters providing a set of subbands; a first frequency shifter for applying a frequency shift to at least one subband of the set of subbands; a decimator for decimating the subband signals by a decimation factor resulting in decimated subband signals having a decimated sampling frequency equal to the first sampling frequency divided by the decimation factor, the decimated sampling frequency being at least twice a bandwidth of each of the overlapping sub-filters; and wherein the frequency shift for a subband is arranged to shift the subband to a frequency interval being a multiple of a frequency interval from zero to half the decimated sample frequency.
3D printing device, in particular FFF printing device, having at least one printing head unit and having at least one feeding device which, in at least one operating state, is provided for the purpose of feeding a printing material to the at least one printing head unit, wherein, by means of the printing head unit, in at least one operating state, a printing material which is at least partially composed of a high-performance plastic, namely a high-performance thermoplastic, can be melted, and wherein the 3D printing device has a base unit having at least one heatable, in particular controllably heatable, printing base plate onto which printing is carried out during a printing process, characterized in that at least one surface heating unit (26, 26') arranged opposite the printing base plate is provided, which is adapted to at least partially heat a printing object arranged on the printing base plate from a direction differing from the printing base plate, and the at least one printing base plate and the at least one surface heating unit (26, 26') are designed to be movable relative to one another, and additionally a local heating unit is provided which, in an operating state, is provided to partially heat a printing object before printing a further layer by the at least one printing head unit, wherein the base unit has at least one cooling device which is provided for active cooling of the at least one printing base plate.
An R-T-B system sintered magnet comprising a sintered body comprising, as a main phase of the sintered body, grains mainly comprising an R 2 T 14 B compound and comprising at least one of Dy and Tb as a heavy rare earth element and at least one of Nd and Pr as a light rare earth element, the R-T-B system sintered magnet being characterized in that: the sintered body has a composition comprising R: 25 to 37 wt%, B: 0.5 to 2.0 wt%, Co: 3.0 wt% or less, Cu: 0.01 to 0.15 wt% and the balance: Fe and inevitable impurities, wherein R contains the heavy rare earth elements in an amount of 0.1 to 10 wt%. the sintered body comprises the grains each having a core-shell structure comprising an inner shell part and an outer shell part surrounding the inner shell part; the concentration of the heavy rare earth element in the inner shell part is lower by 10% or more than the concentration of the heavy rare earth element in the periphery of the outer shell part; and in the grains each comprising the inner shell part and the outer shell part, (L/r) ave falls within a range from 0.03 to 0.40; wherein: R represents rare earth elements inclusive of Y; T represents one or more transition metal elements wherein Fe or Fe and Co are essential; L represents the shortest distance from the periphery of the grain to the inner shell part; r represents the equivalent diameter of the grain; and (L/r) ave represents the average value of L/r for the grains, present in the sintered body, having the core-shell structure. the sintered body has a composition comprising R: 25 to 37 wt%, B: 0.5 to 2.0 wt%, Co: 3.0 wt% or less, Cu: 0.01 to 0.15 wt% and the balance: Fe and inevitable impurities, wherein R contains the heavy rare earth elements in an amount of 0.1 to 10 wt%. the sintered body comprises the grains each having a core-shell structure comprising an inner shell part and an outer shell part surrounding the inner shell part; the concentration of the heavy rare earth element in the inner shell part is lower by 10% or more than the concentration of the heavy rare earth element in the periphery of the outer shell part; and in the grains each comprising the inner shell part and the outer shell part, (L/r) ave falls within a range from 0.03 to 0.40; wherein: R represents rare earth elements inclusive of Y; T represents one or more transition metal elements wherein Fe or Fe and Co are essential; L represents the shortest distance from the periphery of the grain to the inner shell part; r represents the equivalent diameter of the grain; and (L/r) ave represents the average value of L/r for the grains, present in the sintered body, having the core-shell structure.
A method for fabricating a stent comprising: increasing an internal pressure of a tube to a deformation pressure; translating a heat source along an axis of the polymer tube to heat the tube to a deformation temperature; allowing the tube to radially expand as the heat source translates along the axis of the polymer tube, wherein the heating of the tube and the increase in pressure allow the tube to radially expand; controlling one or more process parameters to provide a selected fracture resistance for a stent fabricated from the tube, wherein the process parameters are selected from the group consisting of the deformation pressure, the translation rate of the heat source, and the deformation temperature; and fabricating the stent from the deformed tube, characterized in that the deformation temperature is controlled to be from about Tg to about 0.6 (Tm - Tg) + Tg or from about Tg to about 0.9 (Tm - Tg) + Tg so as to provide a morphology of the deformed polymer tube comprising less than about 40 % crystallinity. increasing an internal pressure of a tube to a deformation pressure; translating a heat source along an axis of the polymer tube to heat the tube to a deformation temperature; allowing the tube to radially expand as the heat source translates along the axis of the polymer tube, wherein the heating of the tube and the increase in pressure allow the tube to radially expand; controlling one or more process parameters to provide a selected fracture resistance for a stent fabricated from the tube, wherein the process parameters are selected from the group consisting of the deformation pressure, the translation rate of the heat source, and the deformation temperature; and fabricating the stent from the deformed tube, the deformation temperature is controlled to be from about Tg to about 0.6 (Tm - Tg) + Tg or from about Tg to about 0.9 (Tm - Tg) + Tg so as to provide a morphology of the deformed polymer tube comprising less than about 40 % crystallinity.
A reactor core, including at least one module comprising at least one heat pipe and at least one fuel element consisting of a shell and nuclear fuel, the core is further provided with the solid neutron moderator with at least one hole, wherein the at least one module with a housing is located, the heat pipe is inside the module housing, characterised in that the heat pipe evaporation zone and fuel elements are enclosed into a casing filled with the liquid coolant, there is heat insulation in the space between the casing and module housing, and the space between the solid neutron moderator and module is filled with a liquid neutron moderator.
A method of managing information, which method comprises tracking actions, by a processor, relative to sensitive information, characterized by: associating a sensitive information identifier and a chron job with the information identified as sensitive, and performing, in response to the tracking step, an action on the sensitive information based on information in the sensitive information identifier and the chron job, wherein the action includes one or more of deletion, sanitization, obfuscation and access restriction, characterised in that the chron job allows the action to be performed on the sensitive information after a period of time, the action being accelerated or delayed based on one or more of an unauthorized access attempt, an incorrect login attempt, and a calendaring function.
A method of determining a position of a mobile device in a wireless communication network, the method comprising: accessing mobile device audio information from the mobile device; and analyzing the mobile device audio information to determine an environmental characteristic of a present environment of the mobile device, characterized in that: accessing the mobile device audio information from the mobile device comprises obtaining noise information from a noise canceling mechanism (37, 92); and the method further comprises using the environmental characteristic to select one or more location information sensors (38, 40, 42) for use in obtaining information for use in determining the position of the mobile device. accessing mobile device audio information from the mobile device; and analyzing the mobile device audio information to determine an environmental characteristic of a present environment of the mobile device, characterized in that: accessing the mobile device audio information from the mobile device comprises obtaining noise information from a noise canceling mechanism (37, 92); and the method further comprises using the environmental characteristic to select one or more location information sensors (38, 40, 42) for use in obtaining information for use in determining the position of the mobile device. accessing the mobile device audio information from the mobile device comprises obtaining noise information from a noise canceling mechanism (37, 92); and the method further comprises using the environmental characteristic to select one or more location information sensors (38, 40, 42) for use in obtaining information for use in determining the position of the mobile device.
A rotary valve comprising a rotary face seal, said rotary face seal comprising: a seal ring comprising a seal face; a seal ring backer; and a sealing surface, wherein the seal face is bonded to a backing ring, and comprises at least one port through both the seal face and the backing ring, wherein the seal face has a coefficient of thermal expansion that is greater than a co-efficient of thermal expansion of the backing ring, and wherein the sealing surface comprises at least one port that comes into and out of alignment with said at least one port of said seal ring as the seal ring rotates relative to the sealing surface such that the rotary face seal acts as a rotary valve, characterised in that the seal ring comprising, as an anti-crowning feature, a thickness of an edge (5a,5b) of the seal face that is different from that of a middle portion of the seal face, and in that the seal face has a thicker edge comprising a periphery of the port in the seal face. a seal ring comprising a seal face; a seal ring backer; and a sealing surface, wherein the seal face is bonded to a backing ring, and comprises at least one port through both the seal face and the backing ring, wherein the seal face has a coefficient of thermal expansion that is greater than a co-efficient of thermal expansion of the backing ring, and wherein the sealing surface comprises at least one port that comes into and out of alignment with said at least one port of said seal ring as the seal ring rotates relative to the sealing surface such that the rotary face seal acts as a rotary valve, characterised in that the seal ring comprising, as an anti-crowning feature, a thickness of an edge (5a,5b) of the seal face that is different from that of a middle portion of the seal face, and in that the seal face has a thicker edge comprising a periphery of the port in the seal face.