mhurhangee/ep-ind-claims huggingface dataset:
A cryocooler controller comprising: a motor driver controller configured to receive operational parameters corresponding to operation of a cryocooler controlled by the cryocooler controller and generate motor driver control signals based, at least in part, on the received operational parameters; and a motor driver configured to receive the motor driver control signals from the motor driver controller and generate drive signals based, at least in part, on the motor driver control signals, to drive a motor of the cryocooler, wherein: the motor driver comprises a first stage comprising a first pair of switches (342, 344) coupled serially between an input of the motor driver and a ground of the motor driver, a second pair of switches (346, 348) coupled serially between an output of the first stage and the ground of the motor driver, and an inductor coupled between the first and second pairs of switches, and wherein the motor driver controller is configured such that the operation of each switch of the first and second pairs of switches is independently controlled by the generated motor driver control signals. a motor driver controller configured to receive operational parameters corresponding to operation of a cryocooler controlled by the cryocooler controller and generate motor driver control signals based, at least in part, on the received operational parameters; and a motor driver configured to receive the motor driver control signals from the motor driver controller and generate drive signals based, at least in part, on the motor driver control signals, to drive a motor of the cryocooler, wherein: the motor driver comprises a first stage comprising a first pair of switches (342, 344) coupled serially between an input of the motor driver and a ground of the motor driver, a second pair of switches (346, 348) coupled serially between an output of the first stage and the ground of the motor driver, and an inductor coupled between the first and second pairs of switches, and wherein the motor driver controller is configured such that the operation of each switch of the first and second pairs of switches is independently controlled by the generated motor driver control signals. the motor driver comprises a first stage comprising a first pair of switches (342, 344) coupled serially between an input of the motor driver and a ground of the motor driver, a second pair of switches (346, 348) coupled serially between an output of the first stage and the ground of the motor driver, and an inductor coupled between the first and second pairs of switches, and wherein the motor driver controller is configured such that the operation of each switch of the first and second pairs of switches is independently controlled by the generated motor driver control signals.
A movable agricultural distribution machine for spreading liquid and/or solid active agents with a distribution apparatus arranged on the distribution machine, which distribution apparatus is mounted approximately parallel to a driving direction and which has a middle part and lateral sections (28, 28') linked thereto on each of both sides and rotatably mounted by way of vertical pivoting and rotation axes (26, 30), wherein the distribution apparatus extends transversely to the driving direction and the lateral sections (28, 28') each have elasticities or a spring deflection (52, 52'), as the case may be, by way of the vertical pivoting and rotation axes (26, 30), wherein actuating and/or damping means are arranged for reducing and/or influencing the elasticities or the spring deflection (52, 52'), as the case may be, which actuating and/or damping means are controllable by a control unit based on the movement type of the distribution machine as determined by means of monitoring devices (54, 56), wherein the actuating and/or damping means for reducing and/or influencing the elasticities or the spring deflection (52, 52'), as the case may be, are variably controllable based on determined movement parameters of the distribution machine, characterised in that a speed monitoring is designed such as to determine whether the distribution machine is being accelerated or decelerated or being moved at a constant speed.
Cooking appliance comprising at least one heatable cooking chamber which can be closed by means of at least one cooking chamber door and comprising at least one processing device, which is fluidically connected to the cooking chamber, for drying air from the cooking chamber, characterised in that the processing device is suitable and designed for drying the air in at least one first operating mode to a lower level of moisture than in at least one second operating mode and for at least partially removing the air dried in the first operating mode from the cooking appliance via at least one outlet device and for returning the air dried in the second operating mode to the cooking chamber via at least one recirculation device.
Method for controlling a water supply installation for use with a machine tool, particularly a core drilling machine, containing - a housing with at least one interface for supplying the machine tool with electrical voltage; - a water reservoir for storing water that may be positioned in the housing; - at least one pipe for transporting water from the water reservoir to the machine tool; - at least one pumping device for conveying water from the water reservoir to the machine tool; - a current measuring device for measuring the motor current on the machine tool; - a water pressure measuring device for measuring a water pressure in the pipe; and - a control device characterised by the steps - activating the pumping device if the machine tool is connected to the interface and the motor current of the machine tool exceeds a predetermined threshold value; as well as - deactivating the pumping device if the machine tool is connected to the interface and the motor current of the machine tool falls below a pre-determined threshold value; or - activating a pumping device if the machine tool is not connected to the interface and a water pressure in the pipe falls below a pre-determined threshold value; as well as - deactivating the pumping device if the machine tool is not connected to the interface and a water pressure in the pipe exceeds a pre-determined threshold value. - a housing with at least one interface for supplying the machine tool with electrical voltage; - a water reservoir for storing water that may be positioned in the housing; - at least one pipe for transporting water from the water reservoir to the machine tool; - at least one pumping device for conveying water from the water reservoir to the machine tool; - a current measuring device for measuring the motor current on the machine tool; - a water pressure measuring device for measuring a water pressure in the pipe; and - a control device - activating the pumping device if the machine tool is connected to the interface and the motor current of the machine tool exceeds a predetermined threshold value; - deactivating the pumping device if the machine tool is connected to the interface and the motor current of the machine tool falls below a pre-determined threshold value; or - activating a pumping device if the machine tool is not connected to the interface and a water pressure in the pipe falls below a pre-determined threshold value; - deactivating the pumping device if the machine tool is not connected to the interface and a water pressure in the pipe exceeds a pre-determined threshold value.
A two-phase alloy comprising Cr as a major component and comprising two phases of a ferrite phase and an austenite phase in a mixed state, wherein the two-phase alloy has a chemical composition consisting of: 34% by mass or more and 70% by mass or less of Cr; 17% by mass or more and 45% by mass or less of Ni; 10% by mass or more and 35% by mass or less of Fe; 0.1% by mass or more and 2% by mass or less of Mn; 0.1% by mass or more and 1% by mass or less of Si; at least one of V, Nb, Ta and Ti;and impurities, wherein the impurities comprise: more than 0% by mass and 0.03% by mass or less of C; more than 0% by mass and 0.02% by mass or less of N; more than 0% by mass and 0.03% by mass or less of O; more than 0% by mass and 0.04% by mass or less of P; and more than 0% by mass and 0.01% by mass or less of S, wherein the total content of the Ni and the Fe is 30% by mass or more and 65% by mass or less, and the total content in atomic % of V, Nb, Ta and Ti being in the range of 0.8 times or more and 2 times or less of the total content in atomic % of the C, N and O. 34% by mass or more and 70% by mass or less of Cr; 17% by mass or more and 45% by mass or less of Ni; 10% by mass or more and 35% by mass or less of Fe; 0.1% by mass or more and 2% by mass or less of Mn; 0.1% by mass or more and 1% by mass or less of Si; at least one of V, Nb, Ta and Ti;and impurities, more than 0% by mass and 0.03% by mass or less of C; more than 0% by mass and 0.02% by mass or less of N; more than 0% by mass and 0.03% by mass or less of O; more than 0% by mass and 0.04% by mass or less of P; and more than 0% by mass and 0.01% by mass or less of S, wherein the total content of the Ni and the Fe is 30% by mass or more and 65% by mass or less, and the total content in atomic % of V, Nb, Ta and Ti being in the range of 0.8 times or more and 2 times or less of the total content in atomic % of the C, N and O.
An electrode consisting of an inorganic material modified with a compound, wherein the compound is selected from Compounds 1 to 16 according to Formula (b) No. Adsorbing moiety Other substituents 1 R1 = (CH 2) 4 Si(OEt) 3 R2-R13 = H 2 R2 = O(CH 2) 4 PO 2 R1, R3-R13 = H 3 R1 = O(CH 2) 3 PC) 2 R7 = Me, R2-R6, R8-R13 = H 4 R2 = (CH 2) 4 PO 2 R7, R9 = Me, R1, R3-R6, R8, R10-R13 = H 5 R1 = OCO(CH 2) 5 PO 2 R2-R13 = H 6 R3 = CO(CH 2) 4 PO 2 R7, R10 = Me, R1, R2, R4-R6, R8, R9, R11-R13 = H 7 R1 = O(CH 2) 3 PO 2 R7 = OMe, R2-R6, R8-R13 = H 8 R1 = O(CH 2) 5 Si(OEt) 3 R7 = Me, R2-R6, R8-R13 = H 9 R1 = (CH 2) 4 PO 2 R7 = Ph, R2-R6, R8-R13 = H 10 R1 = O(CH 2) 2 O(CH 2) 2 PO 2 R7 = F, R2-R6, R8-R13 = H 11 R1 = PO 2 R2-R13 = H 12 R1 = PO 2 R4, R6 = Me, R2, R3, R5, R7-R13 = H 13 R2 = O(CH 2) 4 Si(OMe) 3 R5 = Me, R1, R3-R4, R6-R13 = H 14 R2 = OCONH(CH 2) 4 Si(OMe) 3 R5, R7, R9 = Me, R1, R3, R4, R6, R8, R10-R13 = H 15 R3 = (CH=CH)PO 2 R10, R13 = Me, R1, R2, R4-R9, R11, R12 = H 16 R1 = NHCO(CH 2) 5 PO 2 R11, R12 = Me, R2-R10, R13 =H or wherein the compound is selected from Compounds 17 to 32 according to Formula (c) No. Adsorbing moiety Other substituents 17 R1 = O(CH 2) 5 PO 2 R2-R11 = H 18 R2 = O(CH 2) 4 PO 2 R1, R3-R11 = H 19 R1 = O(CH 2) 3 PO 2 R3 = Me, R2, R4-R11 = H 20 R2 = (CH 2) 4 PO 2 R7, R9 = Me, R1, R3-R6, R8, R10, R11 = H 21 R1 = OCO(CH 2) 5 PO 2 R2-R11 = H 22 R3 = CO(CH 2) 4 PO 2 R7, R10 = Me, R1, R2, R4-R6, R8, R9, R11 = H 23 R1 = O(CH 2) 3 PO 2 R7 = OMe, R2-R6, R8-R11 = H 24 R1 = O(CH 2) 5 PO 2 R7 = Et, R2-R6, R8-R11 =H 25 R1 = (CH 2) 4 Si(OMe) 3 R7 = Ph, R2-R6, R8-R11 = H 26 R1 = O(CH 2) 2 O(CH 2) 2 PO 2 R7 = F, R2-R6, R8-R11 = H 27 R1=PO 2 R2-R11=H 28 R1 = Si(OMe) 3 R7, R8 = Ph, R2-R6, R8, R10, R11 = H 29 R2 = O(CH 2) 4 Si(OEt) 3 R5 = Me, R1, R3-R4, R6-R11 = H 30 R2 = OCONH(CH 2) 3 PO 2 R5, R7, R9 = Me, R1, R3, R4, R6, R8, R10, R11 = H 31 R3 = (CH=CH)Si(OMe) 3 R10 = Me, R1, R2, R4-R9, R11 = H 32 R1 = NHCO(CH 2) 5 PO 2 R11 = Me, R2-R10 =H or wherein the compound is selected from Compounds 33 to 43 according to Formula (d) No. Adsorbing moiety Other substituents 33 R1 = O(CH 2) 5 PO 2 R2-R11 = H 34 R2 = O(CH 2) 4 PO 2 R1, R3-R11 = H 35 R1 = O(CH 2) 3 PO 2 R7 = Me, R2-R6, R8-R11 = H 36 R2 = (CH 2) 4 PO 2 R7, R9 = Me, R1, R3-R6, R8, R10, R11 = H 37 R1 = OCO(CH 2) 4 Si(OMe) 3 R2-R11 = H 38 R3 = CO(CH 2) 4 PO 2 R7, R10 = Me, R1, R2, R4-R6, R8, R9, R11 = H 39 R1 = O(CH 2) 3 PO 2 R7 = OMe, R2-R6, R8-R11 = H 40 R1 = O(CH 2) 4 Si(OMe) 3 R7 = Et, R2-R6, R8-R11 = H 41 R1 = (CH 2) 4 PO 2 R7 = Ph, R2-R6, R8-R11 = H 42 R1 = SiO(Me) 3 R7 = F, R2-R6, R8-R11 = H 43 R1 = PO 2 R2-R11 = H or wherein the compound is selected from Compounds 44 to 51 according to Formula (e) No. Adsorbing moiety Other substituents 44 R1 = O(CH 2) 5 PO 2 R2-R13 = H 45 R2 = O(CH 2) 4 PO 2 R1, R3-R13 = H 46 R1 = O(CH 2) 3 PO 2 R7 = Me, R2-R6, R8-R13 = H 47 R2 = (CH 2) 4 PO, R7, R9 = Me, R1, R3-R6, R8, R10-R13 = H 48 R1 = OCO(CH 2) 5 PO 2 R2-R13 = H 49 R3 = CO(CH 2) 4 PO 2 R7, R10, R13= Me, R1, R2, R4-R6, R8, R9, R11, R12=H 50 R1 = O(CH 2) 4 SiCl 3 R7 = OMe, R2-R6, R8-R13 = H 51 R1 = PO 2 R2-R13 = H
A computer-implemented method to control access to functions of a resource, comprising: establishing, by an access manager of a resource, enrollment information ( e) for each of a plurality of users; encrypting, by the access manager, each received enrollment information ( e) in an authorization data item for the corresponding user; transmitting, by the access manager, each authorization data item to a user computing device of the corresponding user; receiving, by a control point of the resource, from a user computing device having received a transmitted authorization data item, a request for access to a function of the resource, the request for access comprising the received authorization data item and verification information ( v); decrypting, by the control point, the received authorization data item to extract enrollment information ( e); determining, by the control point, a similarity measure between verification information ( v) and enrollment information ( e); for a determined similarity measure greater than or equal to a threshold, authorizing, by the control point, the request for access; and for a determined similarity measure less than the threshold, denying, by control point, the request for access. establishing, by an access manager of a resource, enrollment information ( e) for each of a plurality of users; encrypting, by the access manager, each received enrollment information ( e) in an authorization data item for the corresponding user; transmitting, by the access manager, each authorization data item to a user computing device of the corresponding user; receiving, by a control point of the resource, from a user computing device having received a transmitted authorization data item, a request for access to a function of the resource, the request for access comprising the received authorization data item and verification information ( v); decrypting, by the control point, the received authorization data item to extract enrollment information ( e); determining, by the control point, a similarity measure between verification information ( v) and enrollment information ( e); for a determined similarity measure greater than or equal to a threshold, authorizing, by the control point, the request for access; and for a determined similarity measure less than the threshold, denying, by control point, the request for access.
A process for the manufacturing of the dimeric complex compound 5 of formula which comprises: 1) preparing a solution of DO3A tri-tert-butyl ester of formula 1A in an organic solvent; 2) preparing a solution of a compound of formula 2 in an organic solvent; 3) admixing the solutions prepared according to steps 1) and 2) to obtain a solution of a compound of formula 3 4) without isolating the compound from the solution of step 3), removing the tert-butyl protecting groups from the compound of formula 3 to obtain a solution of a respective free ligand of formula 4 5) without isolating the free ligand of formula of formula 4, adding gadolinium metal ions to the solution of step 4) to obtain a solution of the respective dimeric complex of formula 5; and 6) isolating the dimeric complex, wherein the reaction solvent in all the steps following the preparation of the compound of formula 3 is an aqueous solvent. 1) preparing a solution of DO3A tri-tert-butyl ester of formula 1A in an organic solvent; 2) preparing a solution of a compound of formula 2 in an organic solvent; 3) admixing the solutions prepared according to steps 1) and 2) to obtain a solution of a compound of formula 3 4) without isolating the compound from the solution of step 3), removing the tert-butyl protecting groups from the compound of formula 3 to obtain a solution of a respective free ligand of formula 4 5) without isolating the free ligand of formula of formula 4, adding gadolinium metal ions to the solution of step 4) to obtain a solution of the respective dimeric complex of formula 5; and 6) isolating the dimeric complex,
Transponder, in particular RFID transponder, configured in such a manner that at least one first line of at least two antennas is formed, which antennas are each configured and operated in the backscatter manner and are functionally connected to one another in such a manner that, upon receiving a signal, they scatter the signal back in the backscatter manner by means of a formed radiation characteristic, characterized in that the functional connection is configured in such a manner that individual ones of the antennas can be activated and/or deactivated.
An article of footwear incorporating a sole unit comprising a main portion and a shank formed from a material which is more rigid than the material of the main portion of the sole unit, said article further comprising a mid-strap which extends from one side of the article partway across the article of footwear towards the other side and which is connected to the shank, wherein the article of footwear incorporates a toe-post upstanding from the sole unit.
Vaporizer system for coating a strip-shaped substrate, which is moved in a coating plane, with a coating material, comprising • a vaporizer bank which comprises a plurality of induction vaporizers which are arranged below the coating plane and of which each comprises a crucible for receiving the coating material to be vaporized and an induction heating coil (4; 32) surrounding the crucible • a high-frequency generator which serves to feed a heating alternating current into the heating coil (4; 32) and to generate a primary electromagnetic field which heats the crucible through inductive coupling, • and a setting device which serves to set the heating alternating current for each of the heating coils (4; 32) individually, characterized in that an induction counter-winding (31; 33) is assigned to the upper and/or the lower end of the induction heating coil (4; 32), into which counter-winding an opposing alternating current can be fed, thereby making it possible to generate a secondary electromagnetic field which partially neutralizes the primary electromagnetic field. • a vaporizer bank which comprises a plurality of induction vaporizers which are arranged below the coating plane and of which each comprises a crucible for receiving the coating material to be vaporized and an induction heating coil (4; 32) surrounding the crucible • a high-frequency generator which serves to feed a heating alternating current into the heating coil (4; 32) and to generate a primary electromagnetic field which heats the crucible through inductive coupling, • and a setting device which serves to set the heating alternating current for each of the heating coils (4; 32) individually,
An emulsifier-free process for the preparation of water expandable polymer beads, which process comprises the steps of: a) providing an emulsifier-free starting composition comprising styrene, b) prepolymerizing the starting composition to obtain a prepolymer composition, c) mixing an aqueous blowing agent with the prepolymer composition at an elevated temperature to obtain an inverse emulsion of water droplets in the prepolymer composition, wherein the aqueous blowing agent comprises water and a water soluble initiator dissolved in the water, and wherein the water soluble initiator partly decomposes due to the elevated temperature leading to the water droplets comprising spheres of styrene polymer having a size of 300-500 nm, d) suspending the inverse emulsion in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing monomers in the droplets of the suspension obtained by step d) to obtain the water expandable polymer beads. a) providing an emulsifier-free starting composition comprising styrene, b) prepolymerizing the starting composition to obtain a prepolymer composition, c) mixing an aqueous blowing agent with the prepolymer composition at an elevated temperature to obtain an inverse emulsion of water droplets in the prepolymer composition, wherein the aqueous blowing agent comprises water and a water soluble initiator dissolved in the water, and wherein the water soluble initiator partly decomposes due to the elevated temperature leading to the water droplets comprising spheres of styrene polymer having a size of 300-500 nm, d) suspending the inverse emulsion in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing monomers in the droplets of the suspension obtained by step d) to obtain the water expandable polymer beads.
Fin for a surfboard, designed to be secured, alone or along with other fins, to the underside of a board, having a main body which comprises a first edge which is in contact with the board when said fin is secured to the board, a leading edge at the front and a trailing edge at the rear, a rear curve connecting the leading edge and the trailing edge, the trailing edge comprising a forwardmost front tip (31, 38), the main body being extended rearwards by an arm which extends from a straight line which is perpendicular to the first edge and passes through the front tip (31, 38) of the trailing edge, as far as the rear curve, said arm having a length greater than approximately 8 cm, characterized in that the arm comprises a height reduction, said height corresponding to the dimension of the arm perpendicular with the first edge, the arm comprising at the rear of the height reduction a bearing surface with a height greater than the height reduction.