mhurhangee/ep-ind-claims huggingface dataset:
An R-T-B rare earth sintered magnet comprising R which represents a rare earth element; T which represents a transition metal essentially containing Fe; a metal element M; B; Cu; and inevitable impurities; wherein the R-T-B rare earth sintered magnet contains 13.4 to 17 at% of R, 4.5 to 5.5 at% of B, and 0.1 to 2.0 at% of M and T as the balance; wherein the R-T-B rare earth sintered magnet is formed of a sintered body which includes a main phase composed of R 2 Fe 14 B and a grain boundary phase including a larger amount of R than the main phase; wherein a magnetization direction of the main phase is a c-axis direction; wherein crystal grains of the main phase have one of an elliptical shape and an oval shape extended in such a direction so as to cross the c-axis direction; and wherein the grain boundary phase includes an R-rich phase in which a total atomic concentration of the rare earth elements is 70 at% or greater, and a transition metal-rich phase in which a total atomic concentration of the rare earth elements is 25 to 35 at%, characterized in that the metal element M represents Ga. wherein the R-T-B rare earth sintered magnet contains 13.4 to 17 at% of R, 4.5 to 5.5 at% of B, and 0.1 to 2.0 at% of M and T as the balance; wherein the R-T-B rare earth sintered magnet is formed of a sintered body which includes a main phase composed of R 2 Fe 14 B and a grain boundary phase including a larger amount of R than the main phase; wherein a magnetization direction of the main phase is a c-axis direction; wherein crystal grains of the main phase have one of an elliptical shape and an oval shape extended in such a direction so as to cross the c-axis direction; and wherein the grain boundary phase includes an R-rich phase in which a total atomic concentration of the rare earth elements is 70 at% or greater, and a transition metal-rich phase in which a total atomic concentration of the rare earth elements is 25 to 35 at%, characterized in that the metal element M represents Ga.
A computer-generated hologram, wherein a blaze pattern of sawtoothed shape in section is formed on the back surface of a transparent substrate with N steps, N ≥ 2, having differences in level and a depth d of said blaze pattern is d = A /2nN where λ is a wavelength of reference light and n is the light refractive index of the material forming said transparent plate.
A firearm with bolt release mechanism comprising: a longitudinal axis; a receiver defining a longitudinally-extending cavity; a barrel supported by the receiver; a bolt slideably mounted in the receiver for reciprocating axial movement between a forward closed breech position in battery with the barrel and a rearward open breech position; a recoil spring biasing the bolt forward towards the closed breech position; a manually actuated bolt release pivotably movable between an engaged position and a disengaged position; an operating spring which biases the bolt release into the disengaged position; the bolt release including a locking portion configured to selectively 1) engage a locking recess formed on the bolt for holding the bolt in the open breech position when the bolt release is in the engaged position, and 2) to disengage the locking recess for releasing the bolt from the open breech position when the bolt release is in the disengaged position; characterised by the firearm being configured such that manually pulling the bolt rearward when the bolt release is in the engaged position automatically disengages the locking portion from the locking recess, and returns the bolt to the forward closed breech position via the biasing action of the recoil spring. a longitudinal axis; a receiver defining a longitudinally-extending cavity; a barrel supported by the receiver; a bolt slideably mounted in the receiver for reciprocating axial movement between a forward closed breech position in battery with the barrel and a rearward open breech position; a recoil spring biasing the bolt forward towards the closed breech position; a manually actuated bolt release pivotably movable between an engaged position and a disengaged position; an operating spring which biases the bolt release into the disengaged position; the bolt release including a locking portion configured to selectively 1) engage a locking recess formed on the bolt for holding the bolt in the open breech position when the bolt release is in the engaged position, and 2) to disengage the locking recess for releasing the bolt from the open breech position when the bolt release is in the disengaged position; characterised by the firearm being configured such that manually pulling the bolt rearward when the bolt release is in the engaged position automatically disengages the locking portion from the locking recess, and returns the bolt to the forward closed breech position via the biasing action of the recoil spring.
Calender for the treatment of web materials, comprising a fixed structure (10, 11H, 11K, 300) adapted to support two heated rollers (R1, R2) mutually arranged so as to form a nip adapted to be crossed by web-like materials, wherein each roller (R1, R2) has surface reliefs arranged according to a predetermined pattern, wherein the rollers (R1, R2) are mutually arranged in a tip-to-tip configuration, such that in an operational setting of the calender the reliefs of one roller are radially opposed to the reliefs of the other roller in correspondence with said nip, wherein each of said rollers (R1, R2) is connected to a drive unit which determines its rotation with a predetermined angular speed around its own longitudinal axis (r-r), wherein said rollers (R1, R2) are heated by heating means configured to heat individually each roller (R1, R2) of calender, and wherein each roller (R1, R2) undergoes an axial elongation as a consequence of its heating, characterized in that it comprises detection means (E1, E2; IS) adapted to detect the axial elongation of each roller (R1, R2) and a programmable control unit connected to said detection means and to said heating means, said programmable control unit being programmed to determine the difference between the axial elongations of the rollers (R1, R2) detected by said detection means and emitting an alarm signal if the absolute value of this difference is greater than a predetermined limit value.
A method of manufacturing a formed sheet metal structure, comprising the steps of: providing a sheet metal workpiece having first and second surfaces opposed to each other and at least one edge; bending the workpiece to form at least a first sidewall portion defined between the edge and a basal region, the first sidewall portion thereby defining a curved fold region in the sheet metal workpiece adjacent the first sidewall portion; providing a first anvil tool with a tool surface for contact with and constraint of the first surface of the sheet metal workpiece; providing a first forming tool with a tool surface for contact with and constraint of the second surface of the sheet metal workpiece; contacting the sheet metal workpiece with the anvil tool and the forming tool, characterized by: progressively sliding the forming tool and/or the anvil tool along the curved fold region to cause shear material transfer in the curved fold region to further deform the curved fold region; wherein the anvil tool and the forming tool have respective rounded tool surfaces with a curvature equal to the desired curvature of the curved fold region of the sheet metal workpiece after deformation. providing a sheet metal workpiece having first and second surfaces opposed to each other and at least one edge; bending the workpiece to form at least a first sidewall portion defined between the edge and a basal region, the first sidewall portion thereby defining a curved fold region in the sheet metal workpiece adjacent the first sidewall portion; providing a first anvil tool with a tool surface for contact with and constraint of the first surface of the sheet metal workpiece; providing a first forming tool with a tool surface for contact with and constraint of the second surface of the sheet metal workpiece; contacting the sheet metal workpiece with the anvil tool and the forming tool,
A fuel delivery control system for an internal combustion engine, said system comprising: - a primary controller configured to compare a feedback value to a setpoint value and to produce a primary output on the basis of said comparison, wherein said feedback value is an indicator of fuel pressure in a fuel delivery line in said internal combustion engine, - a secondary controller configured to receive an input value and to produce a secondary output according to a transfer function from said input value, wherein said input value is an indicator of injection duration of one or more injectors that inject fuel coming from said fuel delivery line into cylinders of said internal combustion engine, and - a combiner coupled to receive said primary and secondary outputs and to deliver their combination as a control signal to a flow control apparatus configured to regulate the flow of fuel into said fuel delivery line; wherein said secondary controller is coupled to receive a filtered primary output and configured to adapt said transfer function based at least partly on an aim of maintaining said filtered primary output at a fixed value, wherein said filtered primary output represents one of a mean value or a median value of said primary output over a predefined time window. - a primary controller configured to compare a feedback value to a setpoint value and to produce a primary output on the basis of said comparison, wherein said feedback value is an indicator of fuel pressure in a fuel delivery line in said internal combustion engine, - a secondary controller configured to receive an input value and to produce a secondary output according to a transfer function from said input value, wherein said input value is an indicator of injection duration of one or more injectors that inject fuel coming from said fuel delivery line into cylinders of said internal combustion engine, and - a combiner coupled to receive said primary and secondary outputs and to deliver their combination as a control signal to a flow control apparatus configured to regulate the flow of fuel into said fuel delivery line;
Device for facilitating handling of a wind turbine blade, the device comprising an inflatable member (110, 220a, 220b, 310, 410, 510, 610a, 610b, 610c, 710a, 710b1, 710b2, 710c, 820a, 820b, 910) adapted to be arranged at the wind turbine blade (101, 201, 301, 401, 701, 801, 901) such that the inflatable member covers at least a part of the wind turbine blade (101, 201, 301, 401, 701, 801, 901), characterised in that, when the inflatable member (110, 220a, 220b, 310, 410, 510, 610a, 610b, 610c, 710a, 710b1, 710b2, 710c, 820a, 820b, 910) is arranged at the wind turbine blade (101, 201, 301, 401, 701, 801, 901) and inflated, an outer surface of the inflatable member (110, 220a, 220b, 310, 410, 510, 610a, 610b, 610c, 710a, 710b1, 710b2, 710c, 820a, 820b, 910) has a rounded shape such that an aerodynamic drag coefficient of the wind turbine blade (101, 201, 301, 401, 701, 801, 901) with the arranged inflatable member (110, 220a, 220b, 310, 410, 510, 610a, 610b, 610c, 710a, 710b1, 710b2, 710c, 820a, 820b, 910) is less than an aerodynamic drag coefficient of the wind turbine blade (101, 201, 301, 401, 701, 801, 901), wherein the inflatable member (110, 220a, 220b, 310, 410, 510, 610a, 610b, 610c, 710a, 710b1, 710b2, 710c, 820a, 820b, 910) comprises a passage adapted to allow lifting equipment to engage with the wind turbine blade.
An isolated antibody that binds human ErbB3 comprising: (i) an immunoglobulin heavy chain variable region comprising a CDR H1 comprising an amino acid sequence selected from the group consisting of SEQ ID NO: 57 and SEQ ID NO: 75, a CDR H2 comprising an amino acid sequence selected from the group consisting of SEQ ID NO: 58 and SEQ ID NO: 148, and a CDR H3 comprising the amino acid sequence of SEQ ID NO: 59; and (ii) an immunoglobulin light chain variable region comprising a COR L1 comprising the amino acid sequence of SEQ ID NO: 60, a CDR L2 comprising the amino acid sequence of SEQ ID NO: 61, and a CDR L3 comprising the amino acid sequence of SEQ ID NO: 62. (i) an immunoglobulin heavy chain variable region comprising a CDR H1 comprising an amino acid sequence selected from the group consisting of SEQ ID NO: 57 and SEQ ID NO: 75, a CDR H2 comprising an amino acid sequence selected from the group consisting of SEQ ID NO: 58 and SEQ ID NO: 148, and a CDR H3 comprising the amino acid sequence of SEQ ID NO: 59; and (ii) an immunoglobulin light chain variable region comprising a COR L1 comprising the amino acid sequence of SEQ ID NO: 60, a CDR L2 comprising the amino acid sequence of SEQ ID NO: 61, and a CDR L3 comprising the amino acid sequence of SEQ ID NO: 62.
An exhaust gas treatment arrangement for treating exhaust gases flowing along a flow path in an exhaust pipe system, characterised in that said arrangement comprises a supply element being in communication with a source containing an ammonia gas, said supply element comprising at least two discharge apertures (6a, 6b, 6c) being adapted to communicate with the flow path such that the ammonia gas is dispersible from the discharge apertures (6a, 6b, 6c) into the exhaust gases in the flow path in at least two discharge directions (7a, 7b, 7c), wherein the arrangement further comprises a mixing unit for mixing assistant gas with the ammonia gas before said ammonia gas is dispersed into the exhaust gases, wherein the assistant gas is pressurized by using boost pressure, and wherein the mixing unit is arranged for introducing the reductant into the flow path under high pressure.
A solar cell structure comprising: a P-type doped region (101, 301) and an N-type doped region (102, 302) formed on a backside (106, 306) of a silicon substrate (103, 303), the P-type doped region and the N-type doped region comprising polysilicon, each of the P-type and N-type doped regions being formed over a first dielectric layer (113, 313), the substrate comprising an N-type or P-type silicon wafer; a trench structure (104, 304) separating the P-type doped region (101, 301) and the N-type doped region (102, 302); and characterized by a diffused passivation region (112, 312, 315) in the substrate (103, 303) under the trench (104, 304), and the passivation region is doped with an N-type dopant when the substrate comprises N-type silicon wafer. a P-type doped region (101, 301) and an N-type doped region (102, 302) formed on a backside (106, 306) of a silicon substrate (103, 303), the P-type doped region and the N-type doped region comprising polysilicon, each of the P-type and N-type doped regions being formed over a first dielectric layer (113, 313), the substrate comprising an N-type or P-type silicon wafer; a trench structure (104, 304) separating the P-type doped region (101, 301) and the N-type doped region (102, 302); and characterized by a diffused passivation region (112, 312, 315) in the substrate (103, 303) under the trench (104, 304), and the passivation region is doped with an N-type dopant when the substrate comprises N-type silicon wafer.
A method for depolluting and regenerating a catalytic fuel-cell electrode, the reaction of the fuel of the cell and capture of at least one polluting species occurring on said catalytic electrode, characterised in that it comprises the following steps: - a decrease, at a constant current density called the first reference current density, in fuel flow, relative to a nominal fuel flow, for a first length of time, leading to a value for the stoichiometric coefficient (StH 2) of said fuel lower than 1, so as to increase the oxidation potential of said catalytic electrode and reach the oxidation potential of said polluting species, in order to eliminate it; - a cut-off of the current for a length of time called the cut-off time; - an increase in the flow above the nominal flow, leading, once more, to a value of the stoichiometric coefficient higher than or equal to 1; - an increase in the current density until a second current density, chosen by the operator and possibly identical to or different from the initial reference current density, is reached. - a decrease, at a constant current density called the first reference current density, in fuel flow, relative to a nominal fuel flow, for a first length of time, leading to a value for the stoichiometric coefficient (StH 2) of said fuel lower than 1, so as to increase the oxidation potential of said catalytic electrode and reach the oxidation potential of said polluting species, in order to eliminate it; - a cut-off of the current for a length of time called the cut-off time; - an increase in the flow above the nominal flow, leading, once more, to a value of the stoichiometric coefficient higher than or equal to 1; - an increase in the current density until a second current density, chosen by the operator and possibly identical to or different from the initial reference current density, is reached.
A method for producing a grating image (16, 19) having several grating fields (6, 61, 62, 63, 64, 65, 66) which are recognizable separately with the naked eye, with the following steps of: - defining a contour line of a grating field (6, 61, 62, 63, 64, 65, 66), - filling the contour line with a uniform grating pattern from uninterrupted grating lines, wherein the grating pattern within the contour line is described by grating coordinates, - supplying the grating coordinates to a lithography instrument and - producing the grating pattern in a substrate by continuous writing of the grating lines with the lithography instrument and on the basis of the grating coordinates. - defining a contour line of a grating field (6, 61, 62, 63, 64, 65, 66), - filling the contour line with a uniform grating pattern from uninterrupted grating lines, wherein the grating pattern within the contour line is described by grating coordinates, - supplying the grating coordinates to a lithography instrument and - producing the grating pattern in a substrate by continuous writing of the grating lines with the lithography instrument and on the basis of the grating coordinates.
Device for guiding containers (2, 2') in a filling plant, preferably for guiding bottles in a beverage filling plant, comprising a guide star having at least one container receiving slot for receiving a container (2, 2'), wherein the guide star can be rotated around an axis of rotation, wherein the at least one container receiving slot is tapered in the direction of the axis of rotation, characterised in that an external guide comprising a guide surface for guiding the container (2, 2') in the container receiving slot is arranged concentrically around the guide star in at least one section.
A method of operating a network entity within a 3GPP radio access network of a communications network comprising the radio access network and a Wi-Fi wireless network, the radio access network including a base station serving a user equipment, UE, and the wireless network including one or more wireless access points, the method comprising: selecting a set of available wireless access points from the one or more wireless access points based on network information associated with radio access network resources and wireless network resources, wherein said network information associated with radio access network resources comprises one or more of information relating to UE mobility, radio access network load, radio access network cell load, and radio access network radio link performance; generating wireless access point information associated with the characteristics of the set of available wireless access points for use by the UE in accessing an available wireless access point; and transmitting the wireless access point information via the base station to the UE, wherein the transmitted access point information are access rules for accessing the available wireless access points. selecting a set of available wireless access points from the one or more wireless access points based on network information associated with radio access network resources and wireless network resources, wherein said network information associated with radio access network resources comprises one or more of information relating to UE mobility, radio access network load, radio access network cell load, and radio access network radio link performance; generating wireless access point information associated with the characteristics of the set of available wireless access points for use by the UE in accessing an available wireless access point; and transmitting the wireless access point information via the base station to the UE, wherein the transmitted access point information are access rules for accessing the available wireless access points.
A user equipment, comprising: one or more processors configured to cause the UE to prepare to reselect to a macro cell responsive to the UE attempting to place an emergency call in a femtocell, wherein preparing to reselect comprises performing a background search for the macro cell being triggered by the UE, and wherein attempting to place the emergency call being placed in the femtocell is continued while the UE prepares for reselection. one or more processors configured to cause the UE to prepare to reselect to a macro cell responsive to the UE attempting to place an emergency call in a femtocell, wherein preparing to reselect comprises performing a background search for the macro cell being triggered by the UE, and wherein attempting to place the emergency call being placed in the femtocell is continued while the UE prepares for reselection.
Refrigerator with a first storage chamber surrounded by a thermal insulation layer, a refrigerating machine, which comprises an evaporator cooling the first storage chamber and a compressor driving the circulation of refrigerant through the evaporator, and a thermosiphon, which is in thermal contact with the evaporator and with a heat reservoir outside of the thermal insulation layer, wherein a first passage between an inner region in thermal contact with the evaporator and an outer region of the thermosiphon in thermal contact with the heat reservoir can be shut off by a valve, characterised in that the heat reservoir is a condenser of the refrigerating machine, wherein the refrigerating machine comprises a second evaporator for cooling a second storage chamber, to which refrigerant can be applied by the compressor, while the valve is open, and a control unit is designed to measure a quantity of ice collected on the evaporator and to open the valve when the measured quantity of ice exceeds a limit value.
A method of manufacturing an electrothermal heater mat, comprising the steps of: providing a first dielectric layer; depositing a heater element on the first dielectric layer by using a laser blown powder process; forming a stack comprising the first dielectric layer, the heater element and one or more further dielectric layer(s); and laminating the first dielectric layer together with the further dielectric layer(s) of the stack; wherein the heater element has a first length of a first thickness and second length of a second thickness; and during the step of depositing the heater element, a deposition tool is arranged to deposit a greater thickness of powder at the first length than at the second length. providing a first dielectric layer; depositing a heater element on the first dielectric layer by using a laser blown powder process; forming a stack comprising the first dielectric layer, the heater element and one or more further dielectric layer(s); and laminating the first dielectric layer together with the further dielectric layer(s) of the stack; wherein the heater element has a first length of a first thickness and second length of a second thickness; and during the step of depositing the heater element, a deposition tool is arranged to deposit a greater thickness of powder at the first length than at the second length.