mhurhangee/patent-ind-claim-en huggingface dataset:
Planar positioning apparatus, comprising a stator which comprises a coil arrangement (1; 101) of flat coils, a rotor which is arranged opposite the stator in the operating position of the positioning apparatus and has a planar magnet arrangement comprising a plurality of rows of magnets, wherein the plane which is spanned by the planar magnet arrangement is arranged parallel to the plane of the coil arrangement, a position detecting device for detecting the position of the rotor relative to the stator, and an evaluation and control device for evaluating position signals of the position detecting device and for controlling a current supply to the coil arrangement for controlling the position of the rotor with respect to the stator, wherein the coil arrangement (1; 101) comprises in each case n x 3, with n ≥ 1, elongate flat coils which are interleaved with one another, in a first and second orientation of the coil arrangement, which over the majority of their extent, are designed as conductor tracks of a first plane of a multiple-plane printed circuit board, and the conductor tracks of the three associated flat coils enclose crossover regions (Xa, Xb) which run in a second plane of the multiple-plane printed circuit board, wherein all of the connection ends of the three associated flat coils each are concentrated in a small connection region of the multiple-plane printed circuit board, characterized in that the n x 3 flat coils of the first orientation run over the majority of their extent in the first plane and the associated crossover regions (Xa) in the second plane of the multiple-plane printed circuit board, while the n x 3 flat coils of the second orientation run over the majority of their extent in the second plane and the associated crossover regions in the first plane of the multiple-plane printed circuit board.
A balancer for tools, which comprises a rotary drum for winding and unwinding a cable , which is adapted with a free end thereof to support a tool, and a spring , wound around the main rotation axis (A) of said drum , which is adapted to develop an elastic reaction contrasting the unwinding of said cable , characterized in that it comprises a measurement transducer for measuring at least one parameter correlated to the rotation of said drum about said main axis (A) and a respective assembly for supplying electric power to said transducer .
Method for operating a mixing container with a connected ice reservoir of a latent heat storage unit , a heat storage fluid changing between a liquid phase and a solid phase and in the liquid phase being mixed with a heat transfer fluid , melting heat being transferred between the heat storage fluid and the heat transfer fluid , the liquid heat storage fluid being insoluble in the heat transfer fluid and the liquid heat storage fluid having a higher density than the heat transfer fluid , characterized in that a) via a gas space the heat storage fluid in an upper part of the mixing container is introduced into the heat transfer fluid , b) due to a flow of the heat storage fluid within a flow of the heat transfer fluid , heat is transferred from the heat storage fluid to the heat transfer fluid , c) via a flow deflection, the heat storage fluid is concentrated in liquid as well as in solid form, d) the concentrated heat storage fluid flows through a boundary layer that is situated between the heat transfer fluid and the heat storage fluid , e) the heat storage fluid is withdrawn in the form of a second flow of the heat storage fluid below the boundary layer in the direction of an ice reservoir , f) in the ice reservoir , via a slow horizontal inflow of the heat storage fluid into the lower part of the ice reservoir , the solid and liquid phases of the heat storage fluid are separated due to the difference in density. a) via a gas space the heat storage fluid in an upper part of the mixing container is introduced into the heat transfer fluid , b) due to a flow of the heat storage fluid within a flow of the heat transfer fluid , heat is transferred from the heat storage fluid to the heat transfer fluid , c) via a flow deflection, the heat storage fluid is concentrated in liquid as well as in solid form, d) the concentrated heat storage fluid flows through a boundary layer that is situated between the heat transfer fluid and the heat storage fluid , e) the heat storage fluid is withdrawn in the form of a second flow of the heat storage fluid below the boundary layer in the direction of an ice reservoir , f) in the ice reservoir , via a slow horizontal inflow of the heat storage fluid into the lower part of the ice reservoir , the solid and liquid phases of the heat storage fluid are separated due to the difference in density.
A process for preparing a compound of Formula (II): or a pharmaceutically acceptable salt, hydrate, solvate, or polymorph thereof, which comprises: (a) condensing a chiral auxiliary with an aldehyde having the formula wherein the chiral auxiliary is (R)-(+)-tertiarybutylsulfinamide or (S)-α-methylbenzylamine; (b) adding a nucleophile to the condensed product, wherein the nucleophile is the lithium anion of dimethylsulfone; and (c) deprotecting the addition product, wherein: R 1 is CH 3 ; and each of R 2 , R 3 , R 4 , R 5 , and R 6 is at each occurrence independently hydrogen, halo, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -CF 3 , -CN or -NO 2 . (a) condensing a chiral auxiliary with an aldehyde having the formula wherein the chiral auxiliary is (R)-(+)-tertiarybutylsulfinamide or (S)-α-methylbenzylamine; (b) adding a nucleophile to the condensed product, wherein the nucleophile is the lithium anion of dimethylsulfone; and (c) deprotecting the addition product, wherein: R 1 is CH 3 ; and each of R 2 , R 3 , R 4 , R 5 , and R 6 is at each occurrence independently hydrogen, halo, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -CF 3 , -CN or -NO 2 . R 1 is CH 3 ; and each of R 2 , R 3 , R 4 , R 5 , and R 6 is at each occurrence independently hydrogen, halo, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -CF 3 , -CN or -NO 2 .
A method for detecting slippage when gripping an object with a gripper, in which - the gripper is provided with at least one acceleration sensor on a gripping surface of the gripper , wherein the acceleration sensor is integrated in a rigid main body and the main body , with the aid of an elastic material which supports the main body laterally, is integrated in the gripper so as to be capable of oscillation on the gripping surface such that, in the event of slippage of the object, said main body can be set in oscillation on the gripper only in a plane parallel to the gripping surface , - at least one sensor signal of the acceleration sensor is captured during a gripping process and filtered with one or more frequency filters in order to obtain a filtered sensor signal in a first frequency range, and - the filtered sensor signal or a value derived therefrom is compared with a threshold value (SW 1 , SW 2 ) which, when exceeded, constitutes an indication of slippage of the object, wherein the first frequency range is selected such that oscillation frequencies of oscillations of the main body which occur during slippage of the object, lie within the first frequency range. - the gripper is provided with at least one acceleration sensor on a gripping surface of the gripper , wherein the acceleration sensor is integrated in a rigid main body and the main body , with the aid of an elastic material which supports the main body laterally, is integrated in the gripper so as to be capable of oscillation on the gripping surface such that, in the event of slippage of the object, said main body can be set in oscillation on the gripper only in a plane parallel to the gripping surface , - at least one sensor signal of the acceleration sensor is captured during a gripping process and filtered with one or more frequency filters in order to obtain a filtered sensor signal in a first frequency range, and - the filtered sensor signal or a value derived therefrom is compared with a threshold value (SW 1 , SW 2 ) which, when exceeded, constitutes an indication of slippage of the object,
Vertical flow-wrapper , which produces packages from a packaging material , with a form-fill tube with a form shoulder , with a longitudinal-sealing means , with a cross-sealing means/cutting means and with means to attach a reclosure means to the packaging material , characterized in, that the form shoulder is an asymmetrical form shoulder and that the means are at least partially provided within the vertical boundaries of the asymmetrical form shoulder.
An absorbent article which includes an absorbent core that has superabsorbent polymers, wherein the absorbent article includes a longitudinal direction (L) that has a front side (FD) and a rear side (RD), a width direction (W), and a thickness direction (T), and is partitioned into a front body (FP) and a rear body (RP), the absorbent core includes a first layer and a second layer which are adjacent to each other in the thickness direction (T), the first layer includes (i) a groove portion which extends along the longitudinal direction (L), penetrates in the thickness direction (T), and includes a terminal edge at a position on a rear side of the groove portion , and (ii) a base portion which is arranged adjacent to the position on the rear side of the groove portion with the terminal edge placed in between, the groove portion and the base portion being arranged at the front body (FP), the second layer includes a groove portion corresponding portion and a base portion corresponding portion at positions which overlap with the groove portion and the base portion in the thickness direction (T), respectively, and each of an average density of the superabsorbent polymers included in the base portion and an average density of the superabsorbent polymers included in the base portion corresponding portion is larger than an average density of the superabsorbent polymers included in the groove portion corresponding portion , and the groove portion is arranged so that an axis line of the groove portion has an angle of less than 45° with respect to the longitudinal axis line at an arbitrary position. the absorbent article includes a longitudinal direction (L) that has a front side (FD) and a rear side (RD), a width direction (W), and a thickness direction (T), and is partitioned into a front body (FP) and a rear body (RP), the absorbent core includes a first layer and a second layer which are adjacent to each other in the thickness direction (T), the first layer includes (i) a groove portion which extends along the longitudinal direction (L), penetrates in the thickness direction (T), and includes a terminal edge at a position on a rear side of the groove portion , and (ii) a base portion which is arranged adjacent to the position on the rear side of the groove portion with the terminal edge placed in between, the groove portion and the base portion being arranged at the front body (FP), the second layer includes a groove portion corresponding portion and a base portion corresponding portion at positions which overlap with the groove portion and the base portion in the thickness direction (T), respectively, and each of an average density of the superabsorbent polymers included in the base portion and an average density of the superabsorbent polymers included in the base portion corresponding portion is larger than an average density of the superabsorbent polymers included in the groove portion corresponding portion , and the groove portion is arranged so that an axis line of the groove portion has an angle of less than 45° with respect to the longitudinal axis line at an arbitrary position.
A monolithic stack nut for use in a bearing compartment of a gas turbine engine , the stack nut comprising: a first major portion in the shape of an annular band and including a threaded portion ; a second major portion in the shape of an annular band; a third major portion in the shape of an annular band and including a radially outward extending knife edge seal , wherein the second major portion is disposed axially in between the first and third major portions; a first intermediate portion extending between the first and second major portions; and a second intermediate portion extending between the second and third major portions and comprising a knife edge seal , characterised in that the first intermediate portion includes a frustum and the second intermediate portion includes a frustum; wherein the second major portion includes a lug ; and wherein the third major portion further includes a radially outward extending discourager . a first major portion in the shape of an annular band and including a threaded portion ; a second major portion in the shape of an annular band; a third major portion in the shape of an annular band and including a radially outward extending knife edge seal , wherein the second major portion is disposed axially in between the first and third major portions; a first intermediate portion extending between the first and second major portions; and a second intermediate portion extending between the second and third major portions and comprising a knife edge seal , characterised in that the first intermediate portion includes a frustum and the second intermediate portion includes a frustum; wherein the second major portion includes a lug ; and wherein the third major portion further includes a radially outward extending discourager .
A method for forming a thin film resistor, comprising: forming a thin film resistor structure on a first dielectric layer ; forming a capping layer comprising silicon oxide over said thin film resistor structure ; partially etching vias in said capping layer over said thin film resistor structure using a timed dry etching process comprising 1sccm to 5sccm of O 2 , 120sccm to 300sccm of Ar, and 3sccm to 13sccm of C 4 F 8 , the vias formed by the dry-etch process extending to within 0.01μm (100Å) to 0.03μm (300Å) of the thin film resistor structure ; complete etching of said vias in said capping layer over said thin film resistor structure using a wet etching process comprising buffered hydrofluoric acid; and forming conductive layers in said vias that contact said thin film resistor structure . forming a thin film resistor structure on a first dielectric layer ; forming a capping layer comprising silicon oxide over said thin film resistor structure ; partially etching vias in said capping layer over said thin film resistor structure using a timed dry etching process comprising 1sccm to 5sccm of O 2 , 120sccm to 300sccm of Ar, and 3sccm to 13sccm of C 4 F 8 , the vias formed by the dry-etch process extending to within 0.01μm (100Å) to 0.03μm (300Å) of the thin film resistor structure ; complete etching of said vias in said capping layer over said thin film resistor structure using a wet etching process comprising buffered hydrofluoric acid; and forming conductive layers in said vias that contact said thin film resistor structure .
A circuit delay self-measurement method, comprising: receiving (S101, S302, S202) a first analog signal, and performing a first processing on the first analog signal to generate a first digital signal; obtaining (S102, S303, S203) the first digital signal, performing a second processing on the first digital signal to generate a second analog signal, and sending the second analog signal; receiving (S103, S304, S205) the second analog signal, and performing the first processing on the second analog signal to generate a second digital signal, the second digital signal being identical to the first digital signal; obtaining (S104, S305, S206) the second digital signal; and obtaining (S105, S306, S207) a first processing time period T1, the first processing time period T1 being a difference between a time point when the second digital signal is obtained and a time point when the second analog signal is sent, and determining that the circuit delay is the first processing time period T 1. receiving (S101, S302, S202) a first analog signal, and performing a first processing on the first analog signal to generate a first digital signal; obtaining (S102, S303, S203) the first digital signal, performing a second processing on the first digital signal to generate a second analog signal, and sending the second analog signal; receiving (S103, S304, S205) the second analog signal, and performing the first processing on the second analog signal to generate a second digital signal, the second digital signal being identical to the first digital signal; obtaining (S104, S305, S206) the second digital signal; and obtaining (S105, S306, S207) a first processing time period T1, the first processing time period T1 being a difference between a time point when the second digital signal is obtained and a time point when the second analog signal is sent, and determining that the circuit delay is the first processing time period T 1.
A timer circuit for a radiation device that generates radiation, comprising: a current sensor connected between a main power system and a circuit interrupter , wherein the circuit interrupter is also connected to the radiation device ; and a timing device coupled between the current sensor and a control computer , wherein the timing device is triggered when a current level detected by the current sensor exceeds a predetermined current level and wherein the timing device measures a time period that the predetermined current level is exceeded and wherein when the measured time period exceeds a predetermined time period the circuit interrupter is activated to turn off current flow to the radiation device . a current sensor connected between a main power system and a circuit interrupter , wherein the circuit interrupter is also connected to the radiation device ; and a timing device coupled between the current sensor and a control computer , wherein the timing device is triggered when a current level detected by the current sensor exceeds a predetermined current level and wherein the timing device measures a time period that the predetermined current level is exceeded and wherein when the measured time period exceeds a predetermined time period the circuit interrupter is activated to turn off current flow to the radiation device .
A touch sensor for use in a display device, and adhereable to a component of the display device, the touch sensor comprising: a touch substrate ; a plurality of first touch electrodes over the touch substrate and extending in a first direction; a plurality of second touch electrodes over the touch substrate and extending in a second direction crossing the first direction; and a plurality of protrusions on at least one of the plurality of first and second touch electrodes, wherein, each of the first and second touch electrodes comprises a first surface facing the touch substrate and a second surface located on the opposite side of the first surface, the plurality of protrusions are formed on the second surface, and are shaped to adhere the second surface to the component, the plurality of protrusions have a cilia shape, the plurality of protrusions are inclined at a set angle relative to the touch substrate, and an end of each protrusion is divided into a plurality of strands. a touch substrate ; a plurality of first touch electrodes over the touch substrate and extending in a first direction; a plurality of second touch electrodes over the touch substrate and extending in a second direction crossing the first direction; and a plurality of protrusions on at least one of the plurality of first and second touch electrodes, wherein, each of the first and second touch electrodes comprises a first surface facing the touch substrate and a second surface located on the opposite side of the first surface, the plurality of protrusions are formed on the second surface, and are shaped to adhere the second surface to the component, the plurality of protrusions have a cilia shape, the plurality of protrusions are inclined at a set angle relative to the touch substrate, and an end of each protrusion is divided into a plurality of strands.
Diene polymer including at least one epoxide side group of formula (I) in which: - ∗ represents an attachment to the main polymer chain, - X 1 and X 2 , which may be identical or different, represent a hydrogen atom or a monovalent substituent, - X 3 represents a hydrogen atom, and - at least one from among X 1 and X 2 is other than a hydrogen atom. - ∗ represents an attachment to the main polymer chain, - X 1 and X 2 , which may be identical or different, represent a hydrogen atom or a monovalent substituent, - X 3 represents a hydrogen atom, and - at least one from among X 1 and X 2 is other than a hydrogen atom.
A method for programming a set top box (STB), the method comprising: providing a time of day by a clock; receiving input from a user indicating a user's viewing preferences for showing content of metadata fields, wherein the user's viewing preferences are a function of the time of day; adjusting by a processor the metadata fields to be displayed in an electronic program guide (EPG) at the provided time of day by varying which type of metadata fields are displayed based on the user's viewing preferences and the provided time of day, to show different types of metadata fields at different times of day; and transmitting content for the adjusted metadata fields to be displayed in the EPG depending on the time of day to a display device. providing a time of day by a clock; receiving input from a user indicating a user's viewing preferences for showing content of metadata fields, wherein the user's viewing preferences are a function of the time of day; adjusting by a processor the metadata fields to be displayed in an electronic program guide (EPG) at the provided time of day by varying which type of metadata fields are displayed based on the user's viewing preferences and the provided time of day, to show different types of metadata fields at different times of day; and transmitting content for the adjusted metadata fields to be displayed in the EPG depending on the time of day to a display device.