mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a cutting element pocket in an earth-boring tool, comprising: providing an at least partially formed cutting element pocket (16, 16') in a surface of a body of an earth-boring tool; inserting a temporary displacement member into the at least partially formed cutting element pocket (16, 16'); providing a particle-matrix composite material over an area of the surface of the body of the earth-boring tool adjacent the at least partially formed cutting element pocket (16, 16') and over a portion of a surface of the temporary displacement member to complete formation of the cutting element pocket and form a depth-of-cut control feature using the particle-matrix composite material; and removing the temporary displacement member from the completely formed cutting element pocket and securing a cutting element within the completely formed cutting element pocket. providing an at least partially formed cutting element pocket (16, 16') in a surface of a body of an earth-boring tool; inserting a temporary displacement member into the at least partially formed cutting element pocket (16, 16'); providing a particle-matrix composite material over an area of the surface of the body of the earth-boring tool adjacent the at least partially formed cutting element pocket (16, 16') and over a portion of a surface of the temporary displacement member to complete formation of the cutting element pocket and form a depth-of-cut control feature using the particle-matrix composite material; and removing the temporary displacement member from the completely formed cutting element pocket and securing a cutting element within the completely formed cutting element pocket.
An apparatus for controlling data transport via a network connection, said apparatus being adapted to switch a network controller into a power-saving mode by interrupting a supply of power to an output of the network controller and to generate and supply simulated link activation signals to said network connection, when no data is to be transmitted via said network connection.
A vehicle control apparatus comprising: a control circuit that controls power supply to winding groups (52, 53) included in a motor that produces a torque to be applied to a steering mechanism of a vehicle, each of the winding groups belonging to one of a plurality of winding systems, the control circuit independently controlling the power supply for each of the winding systems to cause the motor to produce a target torque which is in accordance with a steering state, wherein the control circuit is configured to transition between a first state in which the control circuit causes the motor to produce the target torque using the winding groups of the plurality of winding systems and a second state in which a part of the plurality of winding systems has failed and the control circuit causes the motor to produce the target torque using the winding group corresponding to the remaining winding system that is normal, characterized in that when the failed winding system has recovered to normal during an operation in the second state, the control circuit carries out initial check that is an inspection of the winding system recovered to normal prior to starting the power supply, the initial check performed on only items of the initial check excluding a specific item that is set as an item susceptible to an induced voltage generated in the winding group of the recovered winding system due to the winding group of the normal winding system driving the motor. a control circuit that controls power supply to winding groups (52, 53) included in a motor that produces a torque to be applied to a steering mechanism of a vehicle, each of the winding groups belonging to one of a plurality of winding systems, the control circuit independently controlling the power supply for each of the winding systems to cause the motor to produce a target torque which is in accordance with a steering state, wherein the control circuit is configured to transition between a first state in which the control circuit causes the motor to produce the target torque using the winding groups of the plurality of winding systems and a second state in which a part of the plurality of winding systems has failed and the control circuit causes the motor to produce the target torque using the winding group corresponding to the remaining winding system that is normal, characterized in that when the failed winding system has recovered to normal during an operation in the second state, the control circuit carries out initial check that is an inspection of the winding system recovered to normal prior to starting the power supply, the initial check performed on only items of the initial check excluding a specific item that is set as an item susceptible to an induced voltage generated in the winding group of the recovered winding system due to the winding group of the normal winding system driving the motor.
An inkjet printing head comprising a nozzle assembly having a pair of nozzles (111A, 111B; 211A, 211B), each nozzle being connected through a channel (112A, 112B; 212A, 212B) with a separate liquid reservoir (116A, 116B; 216A, 216B) for discharging in a downstream direction a primary drop (121A, 121B; 221A, 221B) of liquid at the nozzle outlet (113A, 113B; 213A, 213B) to combine at a connection point (132; 232) into a combined drop (122; 232), characterized in that it further comprises: - a primary enclosure (141; 241) surrounding the nozzle outlets (113A, 113B; 213A, 213B), and having a cross-section narrowing in the downstream direction; and - a source of a gas stream configured to flow in the downstream direction inside the primary enclosure (141; 241); - wherein the connection point (132; 232) is located within the primary enclosure (141; 241). - a primary enclosure (141; 241) surrounding the nozzle outlets (113A, 113B; 213A, 213B), and having a cross-section narrowing in the downstream direction; and - a source of a gas stream configured to flow in the downstream direction inside the primary enclosure (141; 241); - wherein the connection point (132; 232) is located within the primary enclosure (141; 241).
Centering device intended for use in an automatic bar loader for a lathe, comprising a channel with a rectilinear axis, intended for the passage of a bar from the loader to the lathe and with an inlet end for the bar and an opposite outlet end allowing the bar to exit towards the lathe, comprising mobile jaws (17, 18) on the sides of the channel for defining an adjustable through-aperture in the channel, wherein the jaws (17, 18) have thrust surfaces (39, 40) directed towards the inlet end and inside the channel and are mounted on respective sliding guides (19, 20) of the centering device which are configured to guide the jaws for their sliding opening movement in a direction radial to the channel in response to a thrust on the thrust surfaces (39, 40) of the jaws in the channel axial direction towards the said outlet end, characterized in that the jaws (17, 18) are movable between a first position, closer to the inlet end, in which they are closer to the axis of the channel, and a second position, closer to the outlet end, in which they are in a wider radial opening position, wherein the sliding guides (19, 20) comprise a first portion (26, 27) which is parallel to the axis of the channel and inside which sliders (23, 24) of the jaws (17, 18) are located when the jaws are in their first position and a second portion (28, 29), which is inclined with respect to the axis of the channel and in which the sliders (23, 24) of the jaws (17, 18) slide during the movement of the jaws between the first and second positions, wherein the jaws (17, 18) in the first position engaging in a seat, which oppose the mutual spacing movement of the jaws (17, 18) in the radial direction, and/or wherein the jaws (17, 18) in the first position engaging in the first portion (26, 27) of the sliding guides (19, 20), which oppose the mutual spacing movement of the jaws (17, 18) in the radial direction. characterized in that the jaws (17, 18) are movable between a first position, closer to the inlet end, in which they are closer to the axis of the channel, and a second position, closer to the outlet end, in which they are in a wider radial opening position, wherein the sliding guides (19, 20) comprise a first portion (26, 27) which is parallel to the axis of the channel and inside which sliders (23, 24) of the jaws (17, 18) are located when the jaws are in their first position and a second portion (28, 29), which is inclined with respect to the axis of the channel and in which the sliders (23, 24) of the jaws (17, 18) slide during the movement of the jaws between the first and second positions, wherein the jaws (17, 18) in the first position engaging in a seat, which oppose the mutual spacing movement of the jaws (17, 18) in the radial direction, and/or wherein the jaws (17, 18) in the first position engaging in the first portion (26, 27) of the sliding guides (19, 20), which oppose the mutual spacing movement of the jaws (17, 18) in the radial direction.
An electroporation handle assembly configured to deliver a pulse of energy to a desired tissue of a mammal to produce a constant current in the desired tissue similar to a preset current input by a user, comprising: a skin electrode array having a plurality of skin electrodes in a spatial arrangement; and a controller in communication with the skin electrode array, the controller controlling delivery of the pulse of energy through the skin electrodes; characterized in that at least one of the skin electrodes in the skin electrode array is neutral during delivery of the pulse of energy and measures impedance in the desired tissue, and the electroporation handle assembly further comprises a means for performing a feedback mechanism, wherein the feedback mechanism is performed by software or hardware, which receives the measured impedance from the neutral skin electrode and adjusts the pulse of energy delivered, if needed, to maintain the constant current. a skin electrode array having a plurality of skin electrodes in a spatial arrangement; and a controller in communication with the skin electrode array, the controller controlling delivery of the pulse of energy through the skin electrodes; characterized in that at least one of the skin electrodes in the skin electrode array is neutral during delivery of the pulse of energy and measures impedance in the desired tissue, and the electroporation handle assembly further comprises a means for performing a feedback mechanism, wherein the feedback mechanism is performed by software or hardware, which receives the measured impedance from the neutral skin electrode and adjusts the pulse of energy delivered, if needed, to maintain the constant current.
A magnetoresistive sensor comprising: a substrate; a plurality of shorting bars; at least one magnetoresistive thin film element formed over the substrate and the plurality of shorting bars, the at least one magnetoresistive thin film element being in electrical contact with the shorting bars; a metallic layer patterned so as to form a plurality of conductive tracks (6, 7) for interconnecting circuit elements; an insulating layer between the metallic layer and the magneto resistive element, wherein connections between the magneto resistive thin film element and selected ones of the conductive tracks are made by metallic interconnectors extending though the insulating layer so as to connect the magneto resistive thin film element to other circuit components, the magneto resistive thin film element being positioned over the metallic interconnectors; and wherein the shorting bars are surrounded by the insulating layer and the magnetoresistive thin film element, such that the shorting bars do not physically contact with the plurality of conductors in the metallic layer; characterised in that: the magnetoresistive element abuts upon the shorting bars; and in that the magneto resistive element is formed of at least two materials with different Seebeck coefficients, such that the at least two materials form a thermocouple. a substrate; a plurality of shorting bars; at least one magnetoresistive thin film element formed over the substrate and the plurality of shorting bars, the at least one magnetoresistive thin film element being in electrical contact with the shorting bars; a metallic layer patterned so as to form a plurality of conductive tracks (6, 7) for interconnecting circuit elements; an insulating layer between the metallic layer and the magneto resistive element, wherein connections between the magneto resistive thin film element and selected ones of the conductive tracks are made by metallic interconnectors extending though the insulating layer so as to connect the magneto resistive thin film element to other circuit components, the magneto resistive thin film element being positioned over the metallic interconnectors; and wherein the shorting bars are surrounded by the insulating layer and the magnetoresistive thin film element, such that the shorting bars do not physically contact with the plurality of conductors in the metallic layer; characterised in that: the magnetoresistive element abuts upon the shorting bars; and in that the magneto resistive element is formed of at least two materials with different Seebeck coefficients, such that the at least two materials form a thermocouple.
A high strength steel sheet excellent in deep drawability, consisting of, in mass, 0.03 to 0.25% C, 0.001 to 3.0% Si, 0.01 to 3.0% Mn, 0.001 to 0.06% P, 0.05% or less S, 0.0005 to 0.030% N, 0.005 to 0.3% Al, and optionally one or more selected from 0.0001 to 0.01 mass % B, Zr and/or Mg by 0.0001 to 0.5 mass % in total, further optionally one or more of Ti, Nb and V by 0.001 to 0.2 mass % in total, optionally one or more of Sn, Cu, Ni, Co, W and Mo by 0.001 to 2.5 mass % in total and optionally 0.0001 to 0.01 mass % Ca, with the balance consisting of Fe and unavoidable impurities, having an average r-value of 1.3 or more, and containing one or more of bainite, martensite and austenite by 3 to 100% in total in the metallographic microstructure of said steel sheet characterized by containing Mn and C so as to satisfy the expression Mn + 11C > 1.5, wherein the steel sheet has an r-value in the rolling direction (rL) of 1.1 or more, an r-value in the direction of 45 degrees to the rolling direction (rD) of 0.9 or more, and an r-value in the direction of a right angle to the rolling direction (rC) of 1.2 or more.
A fertilizer composition comprising a fertilizer particle having at least a portion of its surface coated with a particulate coating composition comprising a solid acidic particulate material and a solid basic particulate material; wherein the solid acidic particulate material is a phosphate-based fertilizer selected from a solid particulate single superphosphate, a solid particulate triple super-phosphate, or a blend of solid particulate SSP and solid particulate TSP, and wherein the solid basic particulate material comprises MgO, ZnO, CuO, or blends thereof.
A cathode active material for a lithium secondary battery comprising: a lithium-transition metal composite oxide particle including a plurality of primary particles which are aggregated to secondary particles, wherein the lithium-transition metal composite oxide particle comprises a lithium-sulfur-containing portion formed between the primary particles which are aggregated to secondary particles, wherein the lithium-sulfur-containing portion includes at least one selected from the group consisting of lithium sulfate (Li 2 SO 4), lithium sulfate monohydrate (Li 2 SO 4 ·H 2 O), lithium ammonium sulfate (Li(NH 4)SO 4), lithium hydroxylammonium sulfate (Li(NH 3) SO 4), lithium fluorosulfate (LiSO 3 F), lithium hydrogen sulfate (LiHSO 4), and lithium sulfide (Li 2 S), a content of residual lithium carbonate (Li 2 CO 3) on the surface of the lithium-transition metal composite oxide particle is 2,500 ppm or less based on the total weight of the lithium-transition metal composite oxide particle, and a content of residual lithium hydroxide (LiOH) on the surface of the lithium-transition metal composite oxide particle is 2,000 ppm or less based on the total weight of the lithium-transition metal composite oxide particle as measured by the method described in the description, and a sulfur content in the lithium-transition metal composite oxide particle measured through a carbon-sulfur analyzer by the method described in the description is 2,000 to 7,000 ppm based on a total weight of the lithium-transition metal composite oxide particle. a lithium-transition metal composite oxide particle including a plurality of primary particles which are aggregated to secondary particles, wherein the lithium-transition metal composite oxide particle comprises a lithium-sulfur-containing portion formed between the primary particles which are aggregated to secondary particles, wherein the lithium-sulfur-containing portion includes at least one selected from the group consisting of lithium sulfate (Li 2 SO 4), lithium sulfate monohydrate (Li 2 SO 4 ·H 2 O), lithium ammonium sulfate (Li(NH 4)SO 4), lithium hydroxylammonium sulfate (Li(NH 3) SO 4), lithium fluorosulfate (LiSO 3 F), lithium hydrogen sulfate (LiHSO 4), and lithium sulfide (Li 2 S), a content of residual lithium carbonate (Li 2 CO 3) on the surface of the lithium-transition metal composite oxide particle is 2,500 ppm or less based on the total weight of the lithium-transition metal composite oxide particle, and a content of residual lithium hydroxide (LiOH) on the surface of the lithium-transition metal composite oxide particle is 2,000 ppm or less based on the total weight of the lithium-transition metal composite oxide particle as measured by the method described in the description, and a sulfur content in the lithium-transition metal composite oxide particle measured through a carbon-sulfur analyzer by the method described in the description is 2,000 to 7,000 ppm based on a total weight of the lithium-transition metal composite oxide particle.
System for securing a component of a terminal, characterised in that it comprises a flexible mat, said flexible mat comprising an opening for receiving a pressurising deformable element, said system being also characterised in that said flexible mat forms an envelope around at least one portion of said pressurising deformable element when said terminal is assembled.
Method for producing the motor stator of a canned motor pump by injection moulding or transfer moulding, characterized in that, in the two- or multi-component injection-moulding process or transfer-moulding process, first of all a first quantity of plastic is introduced, in particular injected, into the mould, in the process, the first quantity of plastic surrounds the inserts located in the mould, in particular metal parts and windings of the stator, and releases the in particular cylindrical space for the can or the split cage by the fact that movable mould cores or slides fill said space and that the space is then cleared of the mould cores or slides and the second quantity of plastic forming the can/split cage is introduced into the released space, wherein a thermosetting plastic is used for the first quantity of plastic and an elastomeric plastic or thermoplastic is used for the second quantity of plastic.
A method for providing a connection between a communication center and a number of communication units, wherein the communication center has a display unit as well as a selection unit for selecting an area represented by the display unit, and a communication controller, wherein a) the geographical position of the communication units is determined at consecutive instants, b) a map is represented on the display unit, and a symbol is represented on the map for each communication unit in the respectively determined geographical position thereof, c) upon selection of an area of the map of the display unit, the selection unit determines those of the communication units the respectively associated symbols of which are located within the selected area or overlap therewith, and d) a user data link is established between the communication controller [and] the selected communication units, characterized in that the selection of the selected area as well as the respective symbols and the communication units is performed in one or more of the following ways: e) drawing a closed line with the selection unit, wherein the selected area is the inside of the closed line, or f) tapping a point on the map, wherein a previously predefined region (20a... 20f) is selected as the area wherein the tapped point is located. a) the geographical position of the communication units is determined at consecutive instants, b) a map is represented on the display unit, and a symbol is represented on the map for each communication unit in the respectively determined geographical position thereof, c) upon selection of an area of the map of the display unit, the selection unit determines those of the communication units the respectively associated symbols of which are located within the selected area or overlap therewith, and d) a user data link is established between the communication controller [and] the selected communication units, characterized in that the selection of the selected area as well as the respective symbols and the communication units is performed in one or more of the following ways: e) drawing a closed line with the selection unit, wherein the selected area is the inside of the closed line, or f) tapping a point on the map, wherein a previously predefined region (20a... 20f) is selected as the area wherein the tapped point is located.
An automatic machine for drilling and milling substantially flat glass sheets arranged vertically or almost vertically, having a rectangular or other than rectangular shape, comprising: a machine body; an input conveyor provided with a motorized roller conveyor or roller belt that conveys the glass sheet along a longitudinal horizontal direction by means of its lower edge; an input conveyance surface provided with idle gliding wheels; an output conveyor provided with a motorized roller conveyor or motorized belt that conveys the glass sheet by means of its lower edge; an output conveyance surface provided with idle gliding wheels; at least one carriage provided with synchronous horizontal motion along a longitudinal horizontal axis X2; at least one pair of working heads (300, 400) provided independently with a synchronous vertical motion for adjustment and feeding along vertical or almost vertical axes Y1 and Y2, each head bearing a tool (303, 403) provided with rotary motion for cutting and feeding motion along transverse axes Z1 and Z2 that are perpendicular to the face of the glass sheet, each tool being adapted to make contact with the surface and therefore with the body of said glass sheet and arrangeable, with respect to the face of said glass sheet, in any position, characterized in that at least one of the two heads (300, 400) is also provided with a carriage that performs a feeding motion along a longitudinal horizontal axis X1 while the opposite head is provided with at least one sucker that engages the surface of the glass sheet during the processes performed by one head or the other head or by the two heads (300, 400) simultaneously.