mhurhangee/ep-ind-claims huggingface dataset:
A magnetic torque sensing device comprising: a generally disk-shaped member having opposite circular spaced apart surfaces (112, 114), and forming a central axis of rotation; first and second ferromagnetic and magnetorestrictive magnetically conditioned regions (142, 144) disposed on or in at least a portion of the disk-shaped member forming a magneto elastically active region for producing a magnetic field that varies with a torque applied to the disk-shaped member, characterized in that the magnetically active region possesses magnetic anisotropy to return the magnetization in the magnetoelastically active region to an initial state when the torque applied to the diskshaped member is reduced to zero; and at least one pair of magnetic field sensors (152, 154), each having a sensitive direction and positioned with no radial gap therebetween and proximate to the magnetoelastically active region, wherein the sensitive direction of the first sensor is opposite the sensitive direction of the second sensor, and perpendicular to the direction of polarization of the first and second magnetically conditioned regions, wherein the magnetic field sensors (152, 154) are configured to provide an output signal that is representative of the torque applied to the disk-shaped member, and wherein variation in the output signal is linear with respect to variation in the torque applied to the disk-shaped member.
A fan motor for an air conditioner comprising: a stator; and a rotor, rotatably installed in an inside of the stator, the rotor including: a rotor shaft, a plurality of rotor cores arranged in a circumferential direction about a centre of the rotor shaft, a plurality of permanent magnets, each of the plurality of permanent magnets being respectively disposed between adjacent rotor cores among the plurality of rotor cores, a bridge configured to couple the plurality of rotor cores, the bridge defining a hole through which the rotor shaft is inserted, and an injection-moulded supporting member comprising a first connection moulding part disposed between the plurality of rotor cores and the rotor shaft in the space between the rotor shaft and the bridge, configured to support the rotor and to couple the rotor shaft to the plurality of rotor cores, wherein the diameter of the rotor shaft is smaller than the inner diameter of the hole, characterised in that the rotor shaft comprises a D-shaped cut formed in the outer circumference of the rotor shaft, and the first connection moulding part includes a protrusion portion configured to protrude into the hole to couple to the D-shaped cut of the rotor shaft. a stator; and a rotor, rotatably installed in an inside of the stator, the rotor including: a rotor shaft, a plurality of rotor cores arranged in a circumferential direction about a centre of the rotor shaft, a plurality of permanent magnets, each of the plurality of permanent magnets being respectively disposed between adjacent rotor cores among the plurality of rotor cores, a bridge configured to couple the plurality of rotor cores, the bridge defining a hole through which the rotor shaft is inserted, and an injection-moulded supporting member comprising a first connection moulding part disposed between the plurality of rotor cores and the rotor shaft in the space between the rotor shaft and the bridge, configured to support the rotor and to couple the rotor shaft to the plurality of rotor cores, a rotor shaft, a plurality of rotor cores arranged in a circumferential direction about a centre of the rotor shaft, a plurality of permanent magnets, each of the plurality of permanent magnets being respectively disposed between adjacent rotor cores among the plurality of rotor cores, a bridge configured to couple the plurality of rotor cores, the bridge defining a hole through which the rotor shaft is inserted, and an injection-moulded supporting member comprising a first connection moulding part disposed between the plurality of rotor cores and the rotor shaft in the space between the rotor shaft and the bridge, configured to support the rotor and to couple the rotor shaft to the plurality of rotor cores, wherein the diameter of the rotor shaft is smaller than the inner diameter of the hole, characterised in that the rotor shaft comprises a D-shaped cut formed in the outer circumference of the rotor shaft, and the first connection moulding part includes a protrusion portion configured to protrude into the hole to couple to the D-shaped cut of the rotor shaft.
Toaster for toasting seeds, in particular soybeans, comprising: a. a toast housing having a toasting area through which seeds can flow from top to bottom; and b. at least one elongated air inlet channel arranged within the toast housing and extending into the toasting area; c. at least one elongated air outlet channel arranged within the toast housing and extending into the toasting area; wherein d. said at least one air inlet channel and said at least one air outlet channel open into the toasting area, such that e. a heated air flow (20, 22) entering the toast housing can exit from the air inlet channel into the toasting area and flow through the seeds to be toasted to the air outlet channel in order to exit from the toast housing by the air outlet channel; f. wherein the toaster further comprises a cyclone, the toaster being arranged to direct the air flow (20, 22) into the cyclone for cleaning the air flow, and the toaster being further arranged such g. the air flow is guided in an air circuit in such a way that the moisture emitted by the seeds accumulates in the air flow, and wherein the toaster does not have an air/air heat exchanger in the air circuit for an increased drying of the seeds, which receives fresh air from the environment, that enters into the air circuit and which emits moist air to the environment. a. a toast housing having a toasting area through which seeds can flow from top to bottom; and b. at least one elongated air inlet channel arranged within the toast housing and extending into the toasting area; c. at least one elongated air outlet channel arranged within the toast housing and extending into the toasting area; wherein d. said at least one air inlet channel and said at least one air outlet channel open into the toasting area, such that e. a heated air flow (20, 22) entering the toast housing can exit from the air inlet channel into the toasting area and flow through the seeds to be toasted to the air outlet channel in order to exit from the toast housing by the air outlet channel; f. wherein the toaster further comprises a cyclone, the toaster being arranged to direct the air flow (20, 22) into the cyclone for cleaning the air flow, and the toaster being further arranged such g. the air flow is guided in an air circuit in such a way that the moisture emitted by the seeds accumulates in the air flow, and wherein the toaster does not have an air/air heat exchanger in the air circuit for an increased drying of the seeds, which receives fresh air from the environment, that enters into the air circuit and which emits moist air to the environment.
A computer-implemented method of facilitating processing within a computing environment, the computer-implemented method characterised as comprising: obtaining an instruction to provide an output to be used in a cryptographic operation, the instruction being a single architected instruction, the single architected instruction using a register to provide a function code of a scalar multiply function to be performed by the instruction of a plurality of scalar multiply functions supported by the instruction, each scalar multiply function of the plurality of scalar multiply functions supported by the instruction having a corresponding function code, and the plurality of scalar multiply functions supported by the instruction including a plurality of elliptic-curve digital signature algorithm functions for a plurality of primes, and a plurality of Edwards-curve digital signature algorithm functions for a plurality of primes; and executing the instruction, the executing comprising: determining, using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation. obtaining an instruction to provide an output to be used in a cryptographic operation, the instruction being a single architected instruction, the single architected instruction using a register to provide a function code of a scalar multiply function to be performed by the instruction of a plurality of scalar multiply functions supported by the instruction, each scalar multiply function of the plurality of scalar multiply functions supported by the instruction having a corresponding function code, and the plurality of scalar multiply functions supported by the instruction including a plurality of elliptic-curve digital signature algorithm functions for a plurality of primes, and a plurality of Edwards-curve digital signature algorithm functions for a plurality of primes; and executing the instruction, the executing comprising: determining, using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation. determining, using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation.
Soft capsule, having in its interior a fill, wherein said fill comprises one or more thyroid hormones and a high-amylose starch, wherein said high-amylose starch comprises between 50 and 85% by weight of amylose with respect to the total weight of the starch.
A cell culture medium for culturing organoid containing at least two types of components selected from the group consisting of insulin-like growth factor 1, fibroblast growth factor 2 and epiregulin (EREG), and at least one type of component among the following components i) to iii): i) Wnt agonist, ii) bone morphogenetic protein inhibitor, and iii) transforming growth factor-β (TGF-β) inhibitor; wherein the cell culture medium: - does not contain EGF at all or only contains EGF at a concentration at which inhibition of the expression of EGFR does not occur; and - does not contain p38 inhibitor at all or only contains p38 inhibitor at a concentration at which inhibition of differentiation and cell death caused by p38 inhibitor do not occur. i) Wnt agonist, ii) bone morphogenetic protein inhibitor, and iii) transforming growth factor-β (TGF-β) inhibitor; - does not contain EGF at all or only contains EGF at a concentration at which inhibition of the expression of EGFR does not occur; and - does not contain p38 inhibitor at all or only contains p38 inhibitor at a concentration at which inhibition of differentiation and cell death caused by p38 inhibitor do not occur.
A double-row cylindrical roller bearing comprising: an outer race consisting of a single member and an inner race; a cross roller bearing section formed on one side in a direction of a bearing center axis line between the outer race and the inner race, and a parallel cylindrical roller bearing section formed on the other side; a plurality of first cylindrical rollers arranged in the cross roller bearing section; and a plurality of second cylindrical rollers arranged in the parallel cylindrical bearing section, wherein, in the cross roller bearing section, the outer race and the inner race are respectively formed with V-shaped raceway grooves (12, 15); each of the V-shaped raceway grooves (12, 15) is defined by inclined raceway surfaces (13, 14, 16, 17) that are inclined in opposite directions at 45° relative to the bearing center axis line and that are orthogonal with each other; and the first cylindrical rollers are arranged along the inclined raceway surfaces (13, 14, 16, 17) in a state in which roller center axis lines (11a, 11b) of the first cylindrical rollers are alternately orthogonal with each other, wherein, in the parallel cylindrical roller bearing section, the outer race and the inner race are respectively formed with rectangular raceway groove (22, 24); parallel raceway surfaces (23, 25) parallel to the bearing center axis line are formed on groove bottom surfaces of the respective rectangular raceway grooves (22, 24); and the second cylindrical rollers are arranged along the parallel raceway surfaces (23, 25) in a state in which roller center axis lines of the second cylindrical rollers are parallel to the bearing center axis line, and wherein, in an assembled state of the cross roller bearing section, a state is established in which pressure in the direction of the bearing center axis is being applied between the outer race and the inner race, characterized in that the inner race consists of a single member, and in that a radial gap is formed between an outer peripheral surface of the second cylindrical rollers and the parallel raceway surfaces (23, 25) in the parallel cylindrical roller bearing section. an outer race consisting of a single member and an inner race; a cross roller bearing section formed on one side in a direction of a bearing center axis line between the outer race and the inner race, and a parallel cylindrical roller bearing section formed on the other side; a plurality of first cylindrical rollers arranged in the cross roller bearing section; and a plurality of second cylindrical rollers arranged in the parallel cylindrical bearing section,
A vortex generator (10;10A;10B) for a wind turbine blade, comprising: a plurality of main fins disposed on a surface of the wind turbine blade, wherein the plurality of main fins are forming a main fin row when mounted to the blade; and at least one sub fin (120A;120B;12b) having a fin chord length (C sub,C' sub) and a fin height (H sub,H' sub) which are smaller than those of each of the main fins, the at least one sub fin (120A;120B;12b) disposed on the surface of the wind turbine blade along a virtual line (L ref1,L ref2) extending from an end portion (102,104) of the main fin row at a side of a blade tip or a blade root of the wind turbine blade, wherein d satisfies an expression d ≤ d max, provided that d is a distance between the main fin row and the sub fin (120A;120B;12b) closest to the main fin row, and d max is a maximum distance between a pair of adjacent two of the main fins in the main fin row, and characterized in that the at least one sub fin (120A;120B;12b) is either a) a single sub fin (120A;120B;12b), or b) a plurality of sub fins (120A;120B;12b) arranged such that the fin chord length (C sub,C' sub) and the fin height (H sub,H' sub) of the plurality of sub fins (120A;120B;12b) decreases with distance from the main fin row. a plurality of main fins disposed on a surface of the wind turbine blade, wherein the plurality of main fins are forming a main fin row when mounted to the blade; and at least one sub fin (120A;120B;12b) having a fin chord length (C sub,C' sub) and a fin height (H sub,H' sub) which are smaller than those of each of the main fins, the at least one sub fin (120A;120B;12b) disposed on the surface of the wind turbine blade along a virtual line (L ref1,L ref2) extending from an end portion (102,104) of the main fin row at a side of a blade tip or a blade root of the wind turbine blade, wherein d satisfies an expression d ≤ d max, provided that d is a distance between the main fin row and the sub fin (120A;120B;12b) closest to the main fin row, and d max is a maximum distance between a pair of adjacent two of the main fins in the main fin row, and characterized in that the at least one sub fin (120A;120B;12b) is either a) a single sub fin (120A;120B;12b), or b) a plurality of sub fins (120A;120B;12b) arranged such that the fin chord length (C sub,C' sub) and the fin height (H sub,H' sub) of the plurality of sub fins (120A;120B;12b) decreases with distance from the main fin row. a) a single sub fin (120A;120B;12b), or b) a plurality of sub fins (120A;120B;12b) arranged such that the fin chord length (C sub,C' sub) and the fin height (H sub,H' sub) of the plurality of sub fins (120A;120B;12b) decreases with distance from the main fin row.
A system comprising: - a simulation stick electrode holder; - a plurality of markers configured to be detected by a position detecting system, characterized by - a stick electrode retraction assembly configured to mechanically retract a simulation stick electrode toward the stick electrode retraction assembly to simulate consumption of the simulation stick electrode during a simulated stick welding process; and - a controller configured to determine a simulated arc length in relation to a simulated workpiece based at least in part on data relating to a position, movement, or orientation of the stick electrode holder, and to continuously adjust a rate of retraction of the stick electrode during the simulated stick welding process based at least in part on the determined simulated arc length, wherein said plurality of markers is fixedly connected to the stick electrode retraction assembly. - a simulation stick electrode holder; - a plurality of markers configured to be detected by a position detecting system, - a stick electrode retraction assembly configured to mechanically retract a simulation stick electrode toward the stick electrode retraction assembly to simulate consumption of the simulation stick electrode during a simulated stick welding process; and - a controller configured to determine a simulated arc length in relation to a simulated workpiece based at least in part on data relating to a position, movement, or orientation of the stick electrode holder, and to continuously adjust a rate of retraction of the stick electrode during the simulated stick welding process based at least in part on the determined simulated arc length,
A method for manufacturing fluid control means for controlling a fluid flow through a valve, said method comprising the steps of • forming nut means with an inner through hole, wherein said nut means are primarily made from a first material, • forming wedge means with a nut cavity, wherein said wedge means are primarily made from a second material and wherein said first material is harder than said second material or said second material is harder than said first material, • arranging said nut means inside said nut cavity, and • connecting said nut means and wedge means by expanding said nut means by means of mandrel means to make said nut means and said wedge means engage each other. • forming nut means with an inner through hole, wherein said nut means are primarily made from a first material, • forming wedge means with a nut cavity, wherein said wedge means are primarily made from a second material and wherein said first material is harder than said second material or said second material is harder than said first material, • arranging said nut means inside said nut cavity, and • connecting said nut means and wedge means by expanding said nut means by means of mandrel means to make said nut means and said wedge means engage each other.
An aluminophosphate glass composition comprising (based on mol %): SiO 2 3.00 - 12.00 B 2 O 3 0.30 - 15.00 Al 2 O 3 6.00 - 11.00 P 2 O 5 55.00 - 67.00 Li 2 O 0.50 - 26.00 K 2 O 0.00 - 4.00 Na 2 O 0.00 - 4.00 Rb 2 O 0.00 - 4.00 Cs 2 O 0.00 - 4.00 MgO 0.00 - 6.00 ZnO 0.00 -6.00 TiO 2 0.00 - 6.00 La 2 O 3 0.00 - 10.00 Nd 2 O 3 0.00 - 6.00 R 2 O (R = Li, Na, K, Rb, Cs) 8.0 - 26.00 MO (M = Mg, Ca, Sr, Ba, Zn) 0.00 - 6.00. wherein a) Ln 2 O 3 (Ln = Nd, Yb, or other lasing rare earth ions) is 0.30- 10.00 mol %; b) the sum of SiO 2, B 2 O 3, and Al 2 O3 is 9.3-28.0 mol %; and c) when R 2 O is ≥ 16.0 mol %, then Al 2 O 3 is 6.0-10.0 mol % and the sum of SiO 2, B 2 O 3, and Al 2 O 3 is 9.3-15.0 mol%. a) Ln 2 O 3 (Ln = Nd, Yb, or other lasing rare earth ions) is 0.30- 10.00 mol %; b) the sum of SiO 2, B 2 O 3, and Al 2 O3 is 9.3-28.0 mol %; and c) when R 2 O is ≥ 16.0 mol %, then Al 2 O 3 is 6.0-10.0 mol % and the sum of SiO 2, B 2 O 3, and Al 2 O 3 is 9.3-15.0 mol%.
Circuit for the bipolar charge recovery of a piezoelectric or electrostatic drive, in which a piezoelectric element (C piezo) is connected in series with a coil (L drive), wherein a first connection of the piezoelectric element (C piezo) is connected to a first switch and to a second switch, wherein a first connection of the coil (L drive) is connected to a third switch and to a fourth switch, wherein a second connection of the piezoelectric element (C piezo) is connected to a second connection of the coil (L drive), wherein the first switch and the third switch are connected to a first connection of a voltage supply, and wherein the second switch and the fourth switch are connected to a second connection of the voltage supply, characterized in that the second switch is connected to a comparator which is designed to determine a Current zero crossing at the second switch, and the fourth switch is connected to a further comparator which is designed to determine a current zero crossing at the fourth switch, and/or at least one of the switches (S1, S2, S3, S4) is connected to an actuation logic which is designed to determine the current zero crossing at the second switch and the fourth switch.
Frame for a drawer with a frame body, opposite fixing elements (6, 7), which protrude beyond the frame body and are provided for attaching a wall component of the frame which extends along the frame body between the fixing elements (6, 7), wherein the fixing elements (6, 7) are arranged on the frame body, characterised in that the fixing elements (6, 7) have a receiving structure pointing to the respective other fixing element (6, 7) with laterally opposite support points (27 - 30, 67 - 70) for the wall component such that a wall component can be inserted in an orientation in the direction of the longitudinal extension of the frame body into the receiving structure on a fixing element (6, 7) arranged on the frame body by a movement parallel to a longitudinal plane of the frame body, in that the wall component fits laterally on the opposite fixing element (6, 7) arranged on the frame body past an external edge and can be inserted by an additional movement in parallel and in the direction of the frame body longitudinal extension and relative to the opposite fixing element (6, 7) arranged on the frame body into its receiving structure and continues to be held in the receiving structure of the other fixing element (6, 7) arranged on the frame body.