mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: - a receiver configured to receive symbols on a downstream channel, - at least one circuitry configured to detect an interference event on the downstream channel, wherein the at least one circuitry is configured to determine a first phase gradient in the frequency domain based on a symbol received at a first point in time prior to a start point of the interference event and to determine a second phase gradient in the frequency domain based on a symbol received at a second point in time subsequent to an end point of the interference event, wherein the at least one circuitry is configured to determine a timing drift between the first point in time and the second point in time based on the first phase gradient and the second phase gradient. - a receiver configured to receive symbols on a downstream channel, - at least one circuitry configured to detect an interference event on the downstream channel,
A compressor comprising: a shell assembly defining a chamber; a compression mechanism disposed within the chamber of the shell assembly and including a first scroll member and a second scroll member in meshing engagement with each other, the second scroll member including an externally located slot and a suction inlet; and a conduit including a first end defining an inlet opening and a second end defining an outlet opening, the conduit directing working fluid into the suction inlet, the second end includes a connecting arm having a first boss extending therefrom, the second end snaps into engagement with the second scroll member such that the first boss is received within the slot of the second scroll member, characterized in that: the conduit includes a resiliently flexible tab extending from the connecting arm, the second scroll member includes an externally located groove formed therein, and wherein the resiliently flexible tab snaps into engagement with the groove to prevent axial movement of the conduit relative to the second scroll member, and the second scroll member includes a wall, and wherein the groove is formed in a lateral surface of the wall and the slot is formed in a top surface of the wall. a shell assembly defining a chamber; a compression mechanism disposed within the chamber of the shell assembly and including a first scroll member and a second scroll member in meshing engagement with each other, the second scroll member including an externally located slot and a suction inlet; and a conduit including a first end defining an inlet opening and a second end defining an outlet opening, the conduit directing working fluid into the suction inlet, the second end includes a connecting arm having a first boss extending therefrom, the second end snaps into engagement with the second scroll member such that the first boss is received within the slot of the second scroll member, characterized in that: the conduit includes a resiliently flexible tab extending from the connecting arm, the second scroll member includes an externally located groove formed therein, and wherein the resiliently flexible tab snaps into engagement with the groove to prevent axial movement of the conduit relative to the second scroll member, and the second scroll member includes a wall, and wherein the groove is formed in a lateral surface of the wall and the slot is formed in a top surface of the wall. the conduit includes a resiliently flexible tab extending from the connecting arm, the second scroll member includes an externally located groove formed therein, and wherein the resiliently flexible tab snaps into engagement with the groove to prevent axial movement of the conduit relative to the second scroll member, and the second scroll member includes a wall, and wherein the groove is formed in a lateral surface of the wall and the slot is formed in a top surface of the wall.
Electronic control and protection system for an output channel of automation equipment, the output channel being capable of controlling an electrical load as a function of a control signal from the automation equipment, the control and protection system comprising: - a device for switching the electrical load comprising an MOS switching transistor, the source of which is connected to a positive voltage terminal via a resistor and the drain of which is connected to the electrical load, the switching transistor being switchable between an on-state in which the electrical load is connected to said resistor and an off-state; - a limiting device limiting the voltage at the terminals of said resistor to a predetermined maximum value (V R5max); - an output channel cut-off device able to switch the switching transistor to the off-state when the current flowing through said resistor passes a predetermined threshold for a predetermined duration, characterized in that the limiting device comprises: - a bipolar transistor, the emitter of which is connected to the source of the switching transistor and the collector of which is used to control the gate of the switching transistor; - a voltage-drop element connected between the positive voltage terminal and the base of said bipolar transistor, the voltage drop at the terminals of the element being equal to the sum of the base-emitter voltage (V BET3) of said bipolar transistor and the voltage value (V R5max) at the terminals of said resistor, said voltage drop at the terminals of the voltage-drop element being determined so as to be able, in all cases, to limit the voltage at the terminals of said resistor to the predetermined maximum value. - a device for switching the electrical load comprising an MOS switching transistor, the source of which is connected to a positive voltage terminal via a resistor and the drain of which is connected to the electrical load, the switching transistor being switchable between an on-state in which the electrical load is connected to said resistor and an off-state; - a limiting device limiting the voltage at the terminals of said resistor to a predetermined maximum value (V R5max); - an output channel cut-off device able to switch the switching transistor to the off-state when the current flowing through said resistor passes a predetermined threshold for a predetermined duration, - a bipolar transistor, the emitter of which is connected to the source of the switching transistor and the collector of which is used to control the gate of the switching transistor; - a voltage-drop element connected between the positive voltage terminal and the base of said bipolar transistor, the voltage drop at the terminals of the element being equal to the sum of the base-emitter voltage (V BET3) of said bipolar transistor and the voltage value (V R5max) at the terminals of said resistor, said voltage drop at the terminals of the voltage-drop element being determined so as to be able, in all cases, to limit the voltage at the terminals of said resistor to the predetermined maximum value.
A method for forming loudspeaker arrays, comprising: providing at least two acoustic horns from a first plurality of acoustic horns each of the plurality of acoustic horns having a different vertical dispersion angle, side walls (18A,18B) and a top having a planar top surface and a bottom having a planar bottom surface regardless of the respective vertical dispersion angle, the top and the bottom having a thickness and being fastened to ends of a keel to which modular assemblies (120A,120B) including an acoustic driver (12A, 12B) and acoustic duct (16A, 16B) are attached, and each horn comprising a diffraction slot, providing slots in the top and bottom of each acoustic horn, the orientation of the slots being varied to vary the horizontal dispersion angle of the acoustic horn, and placing the side walls in the acoustic horn by fastening the side walls to the keel and by inserting top and bottom edges of the side walls into the slots, arranging the plurality of acoustic horns so that a top surface of one acoustic horn is parallel to, and in planar contact with, the bottom surface of an adjacent acoustic horn and so that the horn diffraction slots are aligned to form an array diffraction slot with gaps not substantially larger than the combined thickness of the top of the one horn and the bottom of the adjacent acoustic horn. providing at least two acoustic horns from a first plurality of acoustic horns each of the plurality of acoustic horns having a different vertical dispersion angle, side walls (18A,18B) and a top having a planar top surface and a bottom having a planar bottom surface regardless of the respective vertical dispersion angle, the top and the bottom having a thickness and being fastened to ends of a keel to which modular assemblies (120A,120B) including an acoustic driver (12A, 12B) and acoustic duct (16A, 16B) are attached, and each horn comprising a diffraction slot, providing slots in the top and bottom of each acoustic horn, the orientation of the slots being varied to vary the horizontal dispersion angle of the acoustic horn, and placing the side walls in the acoustic horn by fastening the side walls to the keel and by inserting top and bottom edges of the side walls into the slots, arranging the plurality of acoustic horns so that a top surface of one acoustic horn is parallel to, and in planar contact with, the bottom surface of an adjacent acoustic horn and so that the horn diffraction slots are aligned to form an array diffraction slot with gaps not substantially larger than the combined thickness of the top of the one horn and the bottom of the adjacent acoustic horn.
A display apparatus comprising: a substrate comprising a display area displaying an image and a peripheral area located around the display area; a thin-film encapsulation layer overlapping the display area and comprising at least one inorganic film (410, 430) and at least one organic film; a conductive layer located in the peripheral area and surrounding at least a portion of the display area; and a dam at least partially overlapping an outer edge of the conductive layer, wherein the dam comprises a first inclined portion extending from a top surface of the dam toward the display area and at least partially overlapping the conductive layer and a second inclined portion extending in an opposite direction to the first inclined portion, wherein a shape of the first inclined portion and a shape of the second inclined portion are different to each other, wherein the second inclined portion comprises a recess portion (120b1) having a first height above the substrate and an adhesion-enhancing portion (120b2) located outside the recess portion (120b1), wherein the adhesion-enhancing portion (120b2) has a second height above the substrate that is equal to or greater than the first height above the substrate. a substrate comprising a display area displaying an image and a peripheral area located around the display area; a thin-film encapsulation layer overlapping the display area and comprising at least one inorganic film (410, 430) and at least one organic film; a conductive layer located in the peripheral area and surrounding at least a portion of the display area; and a dam at least partially overlapping an outer edge of the conductive layer, wherein the dam comprises a first inclined portion extending from a top surface of the dam toward the display area and at least partially overlapping the conductive layer and a second inclined portion extending in an opposite direction to the first inclined portion, wherein a shape of the first inclined portion and a shape of the second inclined portion are different to each other, wherein the second inclined portion comprises a recess portion (120b1) having a first height above the substrate and an adhesion-enhancing portion (120b2) located outside the recess portion (120b1), wherein the adhesion-enhancing portion (120b2) has a second height above the substrate that is equal to or greater than the first height above the substrate.
A programmable logic controller having a central processing unit and a non-transitory computer-readable storage medium and configured to allow a remote host to interface with a plurality of remote subsystems to thereby define an integrated node, the programmable logic controller comprising: an input-output unit or units configured to transfer communications between the integrated node, a plurality of time-synchronized remote subsystems, and a remote host; a database server configured to archive data acquired from the plurality of time-synchronized remote subsystems in a plurality of time-stamped archive files; a data acquirer configured to periodically acquire time-stamped data from each of the plurality of time-synchronized remote subsystems and archive the time-stamped data using the database server module; and a data verifier configured to detect out-of-bounds measurements in the time-stamped data with respect to an upper bound and a lower bound and to substitute new measurements for the out-of-bounds measurements to thereby define a plurality of verified measurements, wherein the new measurements comprise a minimal or maximal value of a preselected interval of past measurements, so that the time-stamped data includes the substituted measurements comprising the minimal or maximal value of the preselected interval of past measurements. an input-output unit or units configured to transfer communications between the integrated node, a plurality of time-synchronized remote subsystems, and a remote host; a database server configured to archive data acquired from the plurality of time-synchronized remote subsystems in a plurality of time-stamped archive files; a data acquirer configured to periodically acquire time-stamped data from each of the plurality of time-synchronized remote subsystems and archive the time-stamped data using the database server module; and a data verifier configured to detect out-of-bounds measurements in the time-stamped data with respect to an upper bound and a lower bound and to substitute new measurements for the out-of-bounds measurements to thereby define a plurality of verified measurements, wherein the new measurements comprise a minimal or maximal value of a preselected interval of past measurements, so that the time-stamped data includes the substituted measurements comprising the minimal or maximal value of the preselected interval of past measurements.
Use of compounds having guanidine groups and containing semi-organic silicon groups, of the formula M a M G b D c D G d T e Q f a = greater than 1 to less than 3, b = 0 to 10, c = 0 to 350, d = 1 to 4, e = 0 to 50, f = 0 to 10, where the sum of the indices b and d is greater than or equal to 1 to 20, with the proviso that when the index a is 2 and at the same time the sum of the indices b, c, e and f is zero, the index d is other than 1, M = [R 3 SiO 1/2] M G = [RGR 2 SiO 1/2], D = [R 2 SiO 2/2], D G = [R G RSiO 2/2], T = [RSiO 3/2], Q = [SiO 4/2], R are, independently of one another, identical or different, linear or branched, saturated or else mono- or polyunsaturated hydrocarbon radicals, which may be interrupted by heteroatoms and/or may be substituted one or more times by hydroxyl, amino, carboxyl or aryl radicals, preferably being substituted by amino radicals, R G is a radical containing guanidine groups and of the formula (IIa), (IIb) or (IIc), the tautomers and/or salts thereof, R 3 are divalent radicals which, independently of one another, are identical or different, linear or branched hydrocarbon radicals containing 1 to 50 carbon atoms, and may be interrupted by heteroatoms, preferred heteroatoms being oxygen, nitrogen or sulphur, and/or which may be substituted one or more times by hydroxyl or amino radicals, R 11, R 12, R 21, R 22 and R 31 are, independently of one another, identical or different and are hydrogen, linear or branched or cyclic hydrocarbons containing 1 to 15 carbon atoms, it being possible for the hydrocarbons also to contain 1 or 2 heteroatoms, preferred heteroatoms being nitrogen, oxygen and silicon, for curing compounds containing alkoxysilyl groups. a = greater than 1 to less than 3, b = 0 to 10, c = 0 to 350, d = 1 to 4, e = 0 to 50, f = 0 to 10, where the sum of the indices b and d is greater than or equal to 1 to 20, with the proviso that when the index a is 2 and at the same time the sum of the indices b, c, e and f is zero, the index d is other than 1, M = [R 3 SiO 1/2] M G = [RGR 2 SiO 1/2], D = [R 2 SiO 2/2], D G = [R G RSiO 2/2], T = [RSiO 3/2], Q = [SiO 4/2], R are, independently of one another, identical or different, linear or branched, saturated or else mono- or polyunsaturated hydrocarbon radicals, which may be interrupted by heteroatoms and/or may be substituted one or more times by hydroxyl, amino, carboxyl or aryl radicals, preferably being substituted by amino radicals, R G is a radical containing guanidine groups and of the formula (IIa), (IIb) or (IIc), the tautomers and/or salts thereof, R 3 are divalent radicals which, independently of one another, are identical or different, linear or branched hydrocarbon radicals containing 1 to 50 carbon atoms, and may be interrupted by heteroatoms, preferred heteroatoms being oxygen, nitrogen or sulphur, and/or which may be substituted one or more times by hydroxyl or amino radicals,
Carriage (20, 21) for a guide system, wherein the carriage (20, 21) has a running cage (20a, 20b, 21a, 21b), wherein the running cage (20a, 20b, 21a, 21b) has a cage middle element and two lateral cage side elements (46, 47), wherein the cage side elements (46, 47), lying opposite each other and spaced apart from each other, are each connected to the cage middle element, wherein a plane of extent S1, S2 of a cage side element (46, 47) is at an angle to a plane of extent M1 of the cage middle element, characterized in that the plane of extent S1, S2 of a cage side element (46, 47) and the plane of extent M1 of the cage middle element enclose an angle α, β of less than 90°, wherein the running cage (20a, 20b, 21a, 21b) has holding means (49a-49d, 50a-50d), wherein the holding means (49a-49d, 50a-50d) are configured in such a way that, in an assembly process, a cage side element (46, 47) can be brought from a geometric basic shape of the running cage (20a, 20b, 21a, 21b) to a functional state, wherein, during the assembly process, the cage side element (46, 47) is pivotable about a joint of the running cage (20a, 20b, 21a, 21b), wherein the running cage (20a, 20b, 21a, 21b) in the geometric basic shape is located in a basic production state, and wherein the holding means (49a-49d, 50a-50d) in the functional state determine the angle between the plane of extent of the cage middle element and the plane of extent of the cage side element (46, 47).
A method comprising: - receiving original location data from a location receiver; - selecting, from a set of contextual profiles, a contextual profile based at least in part on the original location data by comparing the original location data with at least one of a geographical area field and an application field of contextual profiles of said set; - selecting a compression method based on the selected contextual profile; and - converting the original location data to a compressed format based on the compression method. - receiving original location data from a location receiver; - selecting, from a set of contextual profiles, a contextual profile based at least in part on the original location data by comparing the original location data with at least one of a geographical area field and an application field of contextual profiles of said set; - selecting a compression method based on the selected contextual profile; and - converting the original location data to a compressed format based on the compression method.
A computer-implemented method for comparing measurements of a device under test to measurements taken of similar equipment, the method comprising: determining, by a mobile computing device, an equipment identifier for the DUT located at a first equipment location; based on the determined equipment identifier for the DUT, retrieving, by the mobile computing device, equipment profile information associated with the equipment identifier; presenting, via an interface of the mobile computing device, measurements of the DUT along with the equipment profile information, wherein the equipment profile information includes measurements of equipment similar to the DUT at one or more second equipment locations that are different from the first equipment location of the DUT; and providing a comparison of a first image of the DUT to a second image of the equipment similar to the DUT by presenting a side-by-side view or a superimposed view of the first image and the second image. determining, by a mobile computing device, an equipment identifier for the DUT located at a first equipment location; based on the determined equipment identifier for the DUT, retrieving, by the mobile computing device, equipment profile information associated with the equipment identifier; presenting, via an interface of the mobile computing device, measurements of the DUT along with the equipment profile information, wherein the equipment profile information includes measurements of equipment similar to the DUT at one or more second equipment locations that are different from the first equipment location of the DUT; and providing a comparison of a first image of the DUT to a second image of the equipment similar to the DUT by presenting a side-by-side view or a superimposed view of the first image and the second image.
A method implemented by a wireless transmit receive unit, WTRU, characterized in that the method comprises: sending (606, 802a, 902), to a server, a message indicating a common multi-user group identifier, ID; receiving (614, 806a, 906), an indication of one or more server instances associated with the common multi-user group ID; and connecting to the one or more server instances.
Marking device for marking electrical components, in particular a plurality of terminal strips arranged next to one another, having a laser head for labelling marking material (2, 2', 2") fastened to the electrical components and having a linear pivoting system, wherein the linear pivoting system has a receiving device for receiving the electrical components, a pivoting device for pivoting the receiving device and a linear feed for linearly moving the electrical components received by the receiving device, characterized in that the pivoting device has two slewing rings (14, 15) situated opposite each other, wherein the receiving device is arranged between the slewing rings (14, 15) and the ends of the receiving device are connected to the slewing rings (14, 15).
A lead-acid battery or cell including at least one electrode comprising: as a current collector a conductive fibrous material comprising: filaments comprising fibres with an average interfibre spacing between fibres of less than 50 microns, and/or filaments which are monofibres and in which the average interfibre spacing between mono fibres is less than 50 microns, and conducting chains of Pb-based particles attached to the fibres. as a current collector a conductive fibrous material comprising: filaments comprising fibres with an average interfibre spacing between fibres of less than 50 microns, and/or filaments which are monofibres and in which the average interfibre spacing between mono fibres is less than 50 microns, and conducting chains of Pb-based particles attached to the fibres. filaments comprising fibres with an average interfibre spacing between fibres of less than 50 microns, and/or filaments which are monofibres and in which the average interfibre spacing between mono fibres is less than 50 microns, and conducting chains of Pb-based particles attached to the fibres.