mhurhangee/ep-ind-claims huggingface dataset:
A production method of an electrode for a discharge surface treatment comprising the steps of: producing a plurality of compressed powder bodies separately by repeating steps of packing and pressurizing powder consisting of any metal or any semiconductor substance or a mixture of any metal or a semiconductor substance and a ceramic in a mold so as to obtain each of the compressed powder bodies; preliminary isostatic pressure, wherein isostatic pressure is applied to each compressed powder body individually; joining the plurality of compressed powder bodies together by arranging the plurality of compressed powder bodies to be mutually in close contact and applying isostatic pressure on the arranged compressed powder bodies; and sintering the joined compressed powder bodies or carrying out hot isostatic press on the arranged compressed powder bodies to bring about sintering simultaneous with joining, so as to obtain a sintered body. producing a plurality of compressed powder bodies separately by repeating steps of packing and pressurizing powder consisting of any metal or any semiconductor substance or a mixture of any metal or a semiconductor substance and a ceramic in a mold so as to obtain each of the compressed powder bodies; preliminary isostatic pressure, wherein isostatic pressure is applied to each compressed powder body individually; joining the plurality of compressed powder bodies together by arranging the plurality of compressed powder bodies to be mutually in close contact and applying isostatic pressure on the arranged compressed powder bodies; and sintering the joined compressed powder bodies or carrying out hot isostatic press on the arranged compressed powder bodies to bring about sintering simultaneous with joining, so as to obtain a sintered body.
An elevator cab for an elevator system, comprising: a floor, a roof, a plurality of side walls, the side walls defining an outer contour of the elevator cab in a top view of the elevator cab, and a fall-prevention arrangement that projects beyond the edge of the roof being provided in the region of at least one edge of the roof, in order to protect people from falling into an elevator shaft of the elevator system, wherein the fall-prevention arrangement consists of a plurality of elongate, freestanding safety bars, the longitudinal extension direction of which safety bars protrudes outward beyond the outer contour of the elevator cab from the roof, transversely to the relevant edge of the roof, characterized in that the safety bars being arranged on the roof so as to be at mutual spacings such that it is possible to prevent the person to be protected from falling through between two adjacent safety bars. a floor, a roof, a plurality of side walls, the side walls defining an outer contour of the elevator cab in a top view of the elevator cab, and a fall-prevention arrangement that projects beyond the edge of the roof being provided in the region of at least one edge of the roof, in order to protect people from falling into an elevator shaft of the elevator system, wherein the fall-prevention arrangement consists of a plurality of elongate, freestanding safety bars, the longitudinal extension direction of which safety bars protrudes outward beyond the outer contour of the elevator cab from the roof, transversely to the relevant edge of the roof, characterized in that the safety bars being arranged on the roof so as to be at mutual spacings such that it is possible to prevent the person to be protected from falling through between two adjacent safety bars.
An equipment for winding medical tubing, comprising: (i) one or more conveying units arranged for conveying medical tubing to one or more bending units; (ii) one or more said bending units arranged for bending medical tubing in a U shape; (iii) one or more loading units adapted for individually picking and transporting each medical tubing after its bending; (iv) one or more winding units for winding medical tubing, comprising a winding nest arranged for receiving medical tubing from said loading unit, and a winding module adapted for winding medical tubing after its deposition into said winding nest. (i) one or more conveying units arranged for conveying medical tubing to one or more bending units; (ii) one or more said bending units arranged for bending medical tubing in a U shape; (iii) one or more loading units adapted for individually picking and transporting each medical tubing after its bending; (iv) one or more winding units for winding medical tubing, comprising a winding nest arranged for receiving medical tubing from said loading unit, and a winding module adapted for winding medical tubing after its deposition into said winding nest.
A load wheel assembly (600, 700, 800, 900) for a pallet truck, comprising: a first load arm (610, 810) that is rotatable about an axis of rotation; a load wheel (540; 942, 944) rotationally coupled to an end of the first load arm (610, 810) opposite from the axis of rotation, wherein the load wheel (540; 942, 944) supports a fork (410, 510) at an elevation above the load wheel (540; 942, 944), characterized in that the load wheel assembly (600, 700, 800, 900) further comprises: a second load arm (640, 840) pivotally coupled to the first load arm (610, 810) at the axis of rotation and forming a load arm angle; and an adjustment mechanism (570, 870) further coupling the second load arm (640, 840) to the first load arm (610, 810), wherein the adjustment mechanism (570, 870) varies the load arm angle formed between the first load arm (610, 810) and the second load arm (640, 840) to adjust the elevation of the fork (410, 510) above the load wheel (540; 942, 944). a first load arm (610, 810) that is rotatable about an axis of rotation; a load wheel (540; 942, 944) rotationally coupled to an end of the first load arm (610, 810) opposite from the axis of rotation, wherein the load wheel (540; 942, 944) supports a fork (410, 510) at an elevation above the load wheel (540; 942, 944), characterized in that the load wheel assembly (600, 700, 800, 900) further comprises: a second load arm (640, 840) pivotally coupled to the first load arm (610, 810) at the axis of rotation and forming a load arm angle; and an adjustment mechanism (570, 870) further coupling the second load arm (640, 840) to the first load arm (610, 810), wherein the adjustment mechanism (570, 870) varies the load arm angle formed between the first load arm (610, 810) and the second load arm (640, 840) to adjust the elevation of the fork (410, 510) above the load wheel (540; 942, 944). a second load arm (640, 840) pivotally coupled to the first load arm (610, 810) at the axis of rotation and forming a load arm angle; and an adjustment mechanism (570, 870) further coupling the second load arm (640, 840) to the first load arm (610, 810), wherein the adjustment mechanism (570, 870) varies the load arm angle formed between the first load arm (610, 810) and the second load arm (640, 840) to adjust the elevation of the fork (410, 510) above the load wheel (540; 942, 944).
Handling system for slender bodies in a production plant of semi-finished products, comprising at least a cutting station apt to separate slender bodies from a continuous wire, a finishing station of the head ends of said slender bodies, at least a dimensional verification station downstream of said finishing station, and a transporting equipment for transporting said slender bodies between each one of said stations, characterized in that at or upstream of said cutting station a marking unit is provided to perform a reference marking on said slender bodies which identifies an original attitude comprising at least an angular position of said slender bodies with respect to the continuous wire from which they were separated, said transporting equipment for transporting said slender bodies between each one of said stations, comprises a gripping and locking assembly for said slender bodies, apt to lock at least said angular position of said reference mark with respect to a relative reference system of said transporting equipment, and in that upstream of said finishing station, wherein said reference marking is eliminated, it is provided a data detecting and storing unit apt to detect and store data of at least said angular position of said reference mark with respect to said relative reference system, and means for determining said original attitude, comprising at least an angular position of said slender bodies, on the basis of said data, are also provided at least in said dimensional verification station. at or upstream of said cutting station a marking unit is provided to perform a reference marking on said slender bodies which identifies an original attitude comprising at least an angular position of said slender bodies with respect to the continuous wire from which they were separated, said transporting equipment for transporting said slender bodies between each one of said stations, comprises a gripping and locking assembly for said slender bodies, apt to lock at least said angular position of said reference mark with respect to a relative reference system of said transporting equipment, and in that upstream of said finishing station, wherein said reference marking is eliminated, it is provided a data detecting and storing unit apt to detect and store data of at least said angular position of said reference mark with respect to said relative reference system, and means for determining said original attitude, comprising at least an angular position of said slender bodies, on the basis of said data, are also provided at least in said dimensional verification station.
An optoelectronic sensor for recognizing objects or object properties, said optoelectronic sensor comprising a light transmitter for transmitting transmission light beams into an illuminated zone; a light receiver for receiving reception light beams; and an evaluation unit which is configured to detect an object located in or projecting into the illuminated zone and/or to determine a property of such an object using the reception light beams received by the light receiver, wherein the optical sensor is configured as an optical sensing element, as a one-way light barrier, as a reflection light barrier or as a color sensor, characterized in that the light transmitter comprises a nanostructure-based light emitting diode, with each nanostructure of the nanostructure-based light emitting diode forming a single light emitting diode which can be individually designed with respect to its radiation properties.
A method for acquiring the coordinates of a triggering point of a projectile or of a burst of projectiles on trajectory and above a plot of land on which a target (5a, 5b, 5c) is located, method characterised in that it comprises the following steps: performing a three-dimensional acquisition of the plot of land using a means for laser observation, constructing by calculation from this acquisition, and then displaying on a means for visualization for an operator, an image of the plot of land from a bird's eye view observation direction, that is, an observation direction from a point located at the vertical and higher than the means for observation, positioning, in a manner changeable by the operator, on the thus-calculated image an area of effectiveness which is an image of a geometrical surface or volume allowing to visualize the area or volume of effectiveness, allowing to ensure a given hit or neutralization probability, of the projectile or of the burst considered when triggered at a triggering point, recovering the coordinates of the triggering point desired for the projectile or the burst when the operator has selected the location that suits him after having moved said area on the image of the land. performing a three-dimensional acquisition of the plot of land using a means for laser observation, constructing by calculation from this acquisition, and then displaying on a means for visualization for an operator, an image of the plot of land from a bird's eye view observation direction, that is, an observation direction from a point located at the vertical and higher than the means for observation, positioning, in a manner changeable by the operator, on the thus-calculated image an area of effectiveness which is an image of a geometrical surface or volume allowing to visualize the area or volume of effectiveness, allowing to ensure a given hit or neutralization probability, of the projectile or of the burst considered when triggered at a triggering point, recovering the coordinates of the triggering point desired for the projectile or the burst when the operator has selected the location that suits him after having moved said area on the image of the land.
A system for reducing the frequency or voltage variation in the power distribution system of a marine vessel, the system comprising: a Dynamic Positioning control system (120.1); a pattern recognition function (120.6); a power control unit being connected to at least one power generator and at least one consumer including at least one thruster or other dynamically controlled heavy consumers (120.1, 120.4), the power control unit being adapted to monitor a measured load in the system from said at least one power generator and power consumption from said at least one consumer; a prediction allocating system adapted to receive information from each consumer related to a planned or predicted power consumption and to calculate expected power consumption of the system, and feeding the allocated power consumption to a motor generator system controller so as to increasing or decreasing the power generation based on the planned or predicted power consumption in order to reduce total frequency variation depending on load variations forced by said at least one consumers; characterised in that the DP control system is adapted to calculate a change in load of said at least one thruster (120.1) or other dynamically controlled heavy consumers (120.4) based on a force demand related to at least one of controlled axes of a marine vessel; in that the pattern recognition function (120.6) is configured to utilize a load consumption pattern from a cyclic load and in that the system is configured to reduce, via the prediction allocating system and MGS, at least one of frequency and voltage variations in the power distribution system in the marine vessel. a Dynamic Positioning control system (120.1); a pattern recognition function (120.6); a power control unit being connected to at least one power generator and at least one consumer including at least one thruster or other dynamically controlled heavy consumers (120.1, 120.4), the power control unit being adapted to monitor a measured load in the system from said at least one power generator and power consumption from said at least one consumer; a prediction allocating system adapted to receive information from each consumer related to a planned or predicted power consumption and to calculate expected power consumption of the system, and feeding the allocated power consumption to a motor generator system controller so as to increasing or decreasing the power generation based on the planned or predicted power consumption in order to reduce total frequency variation depending on load variations forced by said at least one consumers; characterised in that the DP control system is adapted to calculate a change in load of said at least one thruster (120.1) or other dynamically controlled heavy consumers (120.4) based on a force demand related to at least one of controlled axes of a marine vessel; in that the pattern recognition function (120.6) is configured to utilize a load consumption pattern from a cyclic load and in that the system is configured to reduce, via the prediction allocating system and MGS, at least one of frequency and voltage variations in the power distribution system in the marine vessel.
A filtering medium for reducing the content of contaminants in fluids, wherein said filtering medium comprises an acid-washed iron-based powder, wherein the acid-washed iron-based powder is a hydrogen-reduced iron powder formed by washing an iron-based powder in HCI, wherein the BET surface area of the acid-washed iron-based powder is 1.2-10 m 2 /g, preferably 1.4-8 m 2 /g, preferably, 1.6-5 m 2 /g, wherein the acid-washed iron-based powder has a Fe content of at least 90% by weight, preferably at least 93% by weight, preferably at least 97% by weight, wherein the acid-washed iron-based powder has a PSE value of less than -0.03 V, preferably less than -0.04 V, preferably less than -0.05 V, with a range of -0.03 V to -0.5 V in an equilibrium condition after 48 hours, wherein PSE is defined in Volts as Eh/pH, whereby E h =(ORP + E ref) / 1000, wherein ORP is the oxidation reduction potential (mV) and E ref is 220 mV; measured in a total volume of 50 ml of deoxygenated water and 1 gram of said iron-based powder and wherein the average particle size of the acid-washed iron-based powder is 20 to 10,000 μm, preferably 20 to 500 μm, preferably 40 to 350 μm. wherein the acid-washed iron-based powder is a hydrogen-reduced iron powder formed by washing an iron-based powder in HCI, wherein the BET surface area of the acid-washed iron-based powder is 1.2-10 m 2 /g, preferably 1.4-8 m 2 /g, preferably, 1.6-5 m 2 /g, wherein the acid-washed iron-based powder has a Fe content of at least 90% by weight, preferably at least 93% by weight, preferably at least 97% by weight, wherein the acid-washed iron-based powder has a PSE value of less than -0.03 V, preferably less than -0.04 V, preferably less than -0.05 V, with a range of -0.03 V to -0.5 V in an equilibrium condition after 48 hours, wherein PSE is defined in Volts as Eh/pH, whereby E h =(ORP + E ref) / 1000, wherein ORP is the oxidation reduction potential (mV) and E ref is 220 mV; measured in a total volume of 50 ml of deoxygenated water and 1 gram of said iron-based powder and wherein the average particle size of the acid-washed iron-based powder is 20 to 10,000 μm, preferably 20 to 500 μm, preferably 40 to 350 μm.
A method (100, 130) for identifying a suspected ground fault location in a multi-drive system having a plurality of drives, the method being performed using at least one processor, comprising: identifying a set of drives suspected of being the location of a detected ground fault based on proximity of a drive operating frequency to a fault frequency corresponding to a detected ground fault condition in the system by determining, while a given drive is operating, whether an operating frequency of the given drive is within a range including the fault frequency; and if the set includes more than one drive: adjusting an operating frequency of a single drive among the set; and selectively identifying the single drive among the set as the suspected ground fault location if the fault frequency changes more than a threshold amount in response to the adjustment. identifying a set of drives suspected of being the location of a detected ground fault based on proximity of a drive operating frequency to a fault frequency corresponding to a detected ground fault condition in the system by determining, while a given drive is operating, whether an operating frequency of the given drive is within a range including the fault frequency; and if the set includes more than one drive: adjusting an operating frequency of a single drive among the set; and selectively identifying the single drive among the set as the suspected ground fault location if the fault frequency changes more than a threshold amount in response to the adjustment. adjusting an operating frequency of a single drive among the set; and selectively identifying the single drive among the set as the suspected ground fault location if the fault frequency changes more than a threshold amount in response to the adjustment.
A method of associating a first electronic identifier of a first user equipment, UE, with a user of the first UE, the method comprising: the first UE transmitting the first electronic identifier associated with the first UE to a second UE for peer discovery; displaying, at the first UE, a human perceivable cue associated with the first electronic identifier to a second user of the second UE, wherein the second user is remote from but within visual range of the first user; and the first UE transmitting, after transmitting the first electronic identifier, a message providing information from which the second UE which is already in possession of the electronic identifier associated with the first UE through the peer discovery can create a portrayal, on its screen, of the human perceivable cue associated with the first electronic identifier, said human perceivable cue enabling identification of the first UE by the second user of the second UE; wherein the human perceivable cue comprises a view of a camera of the first UE, the camera view comprising one or more UEs including the second UE, wherein the camera view is overlaid with a coordinate grid and wherein coordinates are assigned to the different UEs located in the camera view with respect to the first UE. the first UE transmitting the first electronic identifier associated with the first UE to a second UE for peer discovery; displaying, at the first UE, a human perceivable cue associated with the first electronic identifier to a second user of the second UE, wherein the second user is remote from but within visual range of the first user; and the first UE transmitting, after transmitting the first electronic identifier, a message providing information from which the second UE which is already in possession of the electronic identifier associated with the first UE through the peer discovery can create a portrayal, on its screen, of the human perceivable cue associated with the first electronic identifier, said human perceivable cue enabling identification of the first UE by the second user of the second UE; wherein the human perceivable cue comprises a view of a camera of the first UE, the camera view comprising one or more UEs including the second UE, wherein the camera view is overlaid with a coordinate grid and wherein coordinates are assigned to the different UEs located in the camera view with respect to the first UE.
A process for producing an attrition resistant catalyst additive, comprising: treating an intermediate pore size zeolite with a phosphorus-containing compound so as to incorporate phosphorus therein, calcining the phosphorus-treated zeolite, at a temperature below 650°C in the presence of steam mixing the calcined phosphorus-treated zeolite with kaolin and a phosphorus-containing compound in liquid form, and forming the mixture into microspheres having a size of from about 20 to 200 microns, wherein the calcined phosphorus-treated zeolite is combined with the kaolin as a mixture of two aqueous slurries and wherein the mixture of aqueous slurries of phosphorus-treated zeolite and kaolin are injected with an aqueous phosphorus compound prior to spray drying the injected mixture into said microspheres, and wherein the contact time of the aqueous phosphorus compound and slurry mixture is less than 20 seconds. treating an intermediate pore size zeolite with a phosphorus-containing compound so as to incorporate phosphorus therein, calcining the phosphorus-treated zeolite, at a temperature below 650°C in the presence of steam mixing the calcined phosphorus-treated zeolite with kaolin and a phosphorus-containing compound in liquid form, and forming the mixture into microspheres having a size of from about 20 to 200 microns, wherein the calcined phosphorus-treated zeolite is combined with the kaolin as a mixture of two aqueous slurries and wherein the mixture of aqueous slurries of phosphorus-treated zeolite and kaolin are injected with an aqueous phosphorus compound prior to spray drying the injected mixture into said microspheres, and wherein the contact time of the aqueous phosphorus compound and slurry mixture is less than 20 seconds.