mhurhangee/ep-ind-claims huggingface dataset:
Turnout for use with a first and a second transport section (61; 62), at least the first transport section comprising two endlessly revolving traction means spaced apart in parallel, all traction means defining a common transport level, the turnout comprising a turnout arm that is supported so as to be swivelable with respect to a first axis of rotation, being guided in a linear movable manner in the direction of the first axis of rotation, being movable back and forth between a first and a second end position, the first axis of rotation being perpendicular to the transport level, being able to be located between the two traction means of the first conveying section, the turnout arm having a concavely curved deflection surface that is embodied in such a manner that, when the turnout arm is in the first end position, a transported item can be transferred from the first to the second transport section or vice versa by means of the deflection surface, the turnout arm being located entirely beneath the transport level in the second end position, such that the transported item can be moved, along the first transport section, beyond the turnout, characterized in that the turnout arm is connected in respect of drive, via a transmission, to a single electric motor in such a manner that it can be moved back and forth between the first and the second end position solely by being driven by the electric motor in two degrees of freedom coupled via the transmission.
A method for locating a mobile device in a network having a plurality of anchor nodes in wireless communication with a plurality of mobile devices, the method comprising: transmitting a request packet by the mobile device; receiving the request packet by a plurality of anchor nodes; transmitting, by a first one of the plurality of anchor nodes receiving the request packet, a response packet; receiving by at least a second one of the plurality of anchor nodes the request packet and the response packet; for the at least the second one of the plurality of anchor nodes that receives both the request packet and the response packet, determining a difference in arrival time between receiving the request packet and the response packet; characterised in that: for at least a third one of the plurality of anchor nodes receiving the request packet that did not receive the response packet, transmitting, after a random backoff period, by the third one of the plurality of anchor nodes a second response packet; for anchor nodes that receive both the request packet and the second response packet, determining a difference in arrival time between receiving the request packet and the second response packet; and determining the location of the mobile device based on the determined differences in arrival time. transmitting a request packet by the mobile device; receiving the request packet by a plurality of anchor nodes; transmitting, by a first one of the plurality of anchor nodes receiving the request packet, a response packet; receiving by at least a second one of the plurality of anchor nodes the request packet and the response packet; for the at least the second one of the plurality of anchor nodes that receives both the request packet and the response packet, determining a difference in arrival time between receiving the request packet and the response packet; for at least a third one of the plurality of anchor nodes receiving the request packet that did not receive the response packet, transmitting, after a random backoff period, by the third one of the plurality of anchor nodes a second response packet; for anchor nodes that receive both the request packet and the second response packet, determining a difference in arrival time between receiving the request packet and the second response packet; and determining the location of the mobile device based on the determined differences in arrival time.
A method comprising: implementing, by a processor for transmitting data in a peer to peer system, a standardized communications protocol, SCP, on a first device, wherein the first device comprises a first chip and a second chip; discovering, by the processor, a second device, wherein the second device comprises a third chip and a fourth chip; selecting, by the processor, a first transmission path between the first chip of the first device and the third chip of the second device, and a second, different transmission path between the second chip of the first device and the fourth chip of the second device, wherein the selecting is in dependence on a speed of the first transmission path and a speed of the second transmission path; dividing, by the processor, a message into a plurality of packets; determining, by the processor, a fastest method of transmitting the message by sending first packets of the message over the first transmission path and second packets of the message over the second transmission path; transmitting, using the first chip, the first packets directly to the third chip on the second device over the first transmission path; and transmitting, using the second chip, the second packets directly to the fourth chip on the second device over the second transmission path, wherein the second device assembles the first packets and the second packets into the message. implementing, by a processor for transmitting data in a peer to peer system, a standardized communications protocol, SCP, on a first device, wherein the first device comprises a first chip and a second chip; discovering, by the processor, a second device, wherein the second device comprises a third chip and a fourth chip; selecting, by the processor, a first transmission path between the first chip of the first device and the third chip of the second device, and a second, different transmission path between the second chip of the first device and the fourth chip of the second device, wherein the selecting is in dependence on a speed of the first transmission path and a speed of the second transmission path; dividing, by the processor, a message into a plurality of packets; determining, by the processor, a fastest method of transmitting the message by sending first packets of the message over the first transmission path and second packets of the message over the second transmission path; transmitting, using the first chip, the first packets directly to the third chip on the second device over the first transmission path; and transmitting, using the second chip, the second packets directly to the fourth chip on the second device over the second transmission path, wherein the second device assembles the first packets and the second packets into the message.
A method of estimating a dimming control value of a thyristor-switched dimmer circuit, wherein the dimming control value represents a duty factor of an output of the thyristor-switched dimmer circuit, the method being characterized by: predicting zero-cross times of a voltage of an AC power source that supplies power to the thyristor-switched dimmer circuit by observing a voltage of the output of the thyristor-switched dimmer circuit; detecting leading edges of a waveform of the voltage of the output of the thyristor-switched dimmer circuit; probing the output of the thyristor-switched dimmer circuit by periodically or intermittently, in response to at least a detected leading edge (t on), applying a minimum conductance across the output of the thyristor-switched dimmer circuit during durations of probing cycles, wherein the durations of the probing cycles extend from the detected leading edge (t on) of the waveform of the voltage of the output of the thyristor-switched dimmer circuit at least until the predicting has predicted a next zero-cross time of the voltage of the AC power source; and determining an estimate of the dimming control value of the thyristor-switched dimmer circuit from a time interval extending from the detected leading edge of the waveform of the voltage of the output of the thyristor-switched dimmer circuit (t on) to the predicted next zero-cross time (t z)of the voltage of the AC power source; wherein the minimum conductance is applied to ensure proper operation of a timing circuit (C T, R T) in the thyristor-switched dimmer circuit while determining the time interval.
A tomographic imaging device, comprising: a radiation detector for measuring radiation traveling through an object to be imaged, the radiation detector being configured to measure radiation traveling along at least one ray path (42a; 42b; 52a; 52b) only at a plurality of selected sampling positions on a curved track around an axis (z); characterised in that the tomographic imaging device further comprises a planning unit configured to determine the selected sampling positions on the basis of an estimated contour (44; 53) of the object in a plane (x-y) substantially perpendicular to the axis (z), and to determine the selected sampling positions in such a way that paths (41; 51) along the contour (44; 53) of the object between intersection points of the same at least one ray path (42a, 42b; 52a, 52b) at neighboring angular sampling positions and the contour (44; 53) of the object have approximately equal lengths (L; L').
Circuit for converting the capacitive signal change of a differential capacitor into a bit stream, - wherein the circuit comprises a sigma-delta modulator, - wherein means are provided by means of which reference voltages are able to be applied to the electrodes (C1E, CME, C2E) of the differential capacitor, wherein the reference voltages are selectable in a specific temporal pattern with a specific amplitude, and wherein the differential capacitor is part of the signal feeding structure, wherein the input signal is formed by the variable capacitances of the differential capacitor and wherein the differential capacitor is part of the reference feedback structure of the sigma-delta modulator, wherein, for the purpose of reference feedback, the means are actuatable depending on the bit stream, characterized in that a change in polarity of the input signal is realized by way of a suitably selected sequence of the reference voltages at the electrodes (C1E, CME, C2E), wherein the offset of the signal processing of the circuit is eliminated by synchronous demodulation of the bit stream at the output of the sigma-delta modulator. - wherein the circuit comprises a sigma-delta modulator, - wherein means are provided by means of which reference voltages are able to be applied to the electrodes (C1E, CME, C2E) of the differential capacitor, wherein the reference voltages are selectable in a specific temporal pattern with a specific amplitude,
A support arrangement (1, 101, 201) for supporting covering elements (4, 5, 125a, 125b, 125c, 204, 205, 225a, 224c) on a soffit and/or a fascia of a building, the support arrangement (1, 101, 201) comprising a backing member (3, 103, 203) that is operable to receive covering elements (4, 5, 125a, 125b, 125c, 204, 205, 225a, 224c) and is formed at least partially from non-metallic material, the support arrangement (1, 101, 201) further comprising an attachment means (10, 110, 210) for attaching the support arrangement (1, 101, 201) to a building or building component such that it forms a part of the building, wherein the attachment means (10, 110, 210) comprises an elongate attachment channel (10, 110, 210)and wherein the backing member (3, 103, 203) is non-combustible and is formed at least partially from cementitious material characterised in that the support arrangement (1, 101, 201) has a soffit-forming face and wherein the soffit forming face is defined by the backing member.
A carton for storing products therein, the carton comprising: Top (20,22), bottom, and side panels (16,18) defining an interior configured to store products therein and an access opening configured to permit the products to be removed from the carton when the carton is in an open configuration, the top panels including a first top panel hingedly attached to one of the side panels and a second top panel hingedly connected to another of the side panels and being removably attached to and overlaying a portion of the first top panel such that the access opening of the carton is obstructed by the first and second top panels when the carton is in a closed configuration; wherein the second top panel includes a handle at least partially defining an opening and a closure tab extending into the opening when coplanar with the handle, the closure tab including at least one locking projection (146,148) extending therefrom; and wherein the first top panel includes a slot configured to receive the at least one locking projection of the closure tab; characterised in that: the slot in the first top panel has a perimeter with a linear portion and an arcuate portion; and the slot includes two linear slits (156, 158) at opposite ends of the slot and extending away from intersections of the linear and arcuate portions of the slot. Top (20,22), bottom, and side panels (16,18) defining an interior configured to store products therein and an access opening configured to permit the products to be removed from the carton when the carton is in an open configuration, the top panels including a first top panel hingedly attached to one of the side panels and a second top panel hingedly connected to another of the side panels and being removably attached to and overlaying a portion of the first top panel such that the access opening of the carton is obstructed by the first and second top panels when the carton is in a closed configuration; wherein the second top panel includes a handle at least partially defining an opening and a closure tab extending into the opening when coplanar with the handle, the closure tab including at least one locking projection (146,148) extending therefrom; and wherein the first top panel includes a slot configured to receive the at least one locking projection of the closure tab; characterised in that: the slot in the first top panel has a perimeter with a linear portion and an arcuate portion; and the slot includes two linear slits (156, 158) at opposite ends of the slot and extending away from intersections of the linear and arcuate portions of the slot. the slot in the first top panel has a perimeter with a linear portion and an arcuate portion; and the slot includes two linear slits (156, 158) at opposite ends of the slot and extending away from intersections of the linear and arcuate portions of the slot.
A display module having therein a heat dissipater, the display module including an LCD panel, an optical membrane, a diffusion plate and a light board sequentially and an installation frame, wherein the LCD panel, the optical membrane, the diffusion plate, and the light board are correspondingly fixed inside the installation frame, a first space being provided between the LCD panel and the optical membrane, wherein the heat dissipater comprises a first inlet, a first outlet, a second inlet and a second outlet, all of which are provided in the installation frame, the first inlet and the first outlet form a first airway inside the first space, the second inlet and the second outlet form a second airway inside a second space which is provided between the diffusion plate and the light board, wherein a first air device is provided on the installation frame at where the first inlet and the second inlet are provided and a second air device is provided on the installation frame at where the first outlet and the second outlet are provided defined and a corresponding filtration screen is provided to each of the first inlet, first outlet, second inlet and second outlet, wherein the first air device includes a first fan whose one end is fixed on the frame and the second end is provided with such a screen, wherein the second air device includes a second fan whose one end is fixed on the frame and second end is provided with such a screen wherein the location of the first inlet is opposite relative to that of the first outlet with respect to the first airway on the installation frame and the location of the second inlet is opposite relative to the second outlet with respect to the second airway such that the first air device as well as the second air device enhances an air convection both in the first space and the second space.
A process for the biological conversion of bisulphide into elemental sulphur, comprising the following steps: a) converting bisulphide as dissolved in an aqueous solution to elemental sulphur in the presence of sulphide-oxidising bacteria and under anaerobic conditions wherein the concentration of molecular oxygen in the aqueous solution is at most 1 μM to obtain a first liquid effluent comprising elemental sulphur and used sulphide-oxidising bacteria; b) regenerating the used sulphide-oxidising bacteria as obtained in step (a) and as comprised in an aqueous solution in the presence of an oxidant to obtain a second liquid effluent comprising regenerated sulphide-oxidising bacteria; c) separating elemental sulphur from either the first and/or the second liquid effluent; d) using the regenerated sulphide-oxidising bacteria in step (a) as the sulphide-oxidising bacteria. a) converting bisulphide as dissolved in an aqueous solution to elemental sulphur in the presence of sulphide-oxidising bacteria and under anaerobic conditions wherein the concentration of molecular oxygen in the aqueous solution is at most 1 μM to obtain a first liquid effluent comprising elemental sulphur and used sulphide-oxidising bacteria; b) regenerating the used sulphide-oxidising bacteria as obtained in step (a) and as comprised in an aqueous solution in the presence of an oxidant to obtain a second liquid effluent comprising regenerated sulphide-oxidising bacteria; c) separating elemental sulphur from either the first and/or the second liquid effluent; d) using the regenerated sulphide-oxidising bacteria in step (a) as the sulphide-oxidising bacteria.
A modular LED-light, having a first module, to which an input voltage can be supplied and which has: - a second sub-module, wherein the second sub-module has a half-bridge inverter and an LLC resonant circuit, wherein he LLC resonant circuit connects to a midpoint of the half-bridge inverter, and - a control unit, further having a second module, which has a further sub-module supplied with the DC output voltage of the first module with a clocked constant current source, which is controlled by a control unit of the second module, and - an LED module, which has at least one LED series and which is supplied by the further sub-module, characterized in that the LED module is provided with an identification tag, which is read out by the control unit of the second module and is stored in a memory associated with the control unit of the second module, wherein the identification tag provides pure identification data, and wherein the second module is designed, in order to determine the identification data, and based thereon, to determine operating data of the LED module from a memory that is independent of the LED module. - a second sub-module, wherein the second sub-module has a half-bridge inverter and an LLC resonant circuit, - a control unit, - an LED module, which has at least one LED series and which is supplied by the further sub-module, characterized in that
A polymer-metal junction, comprising: - a metal substrate having a surface, and - a polymer composition comprising a PEEK-PEoEK copolymer, the copolymer comprising at least 50 mol %, collectively, of repeat units (R PEEK) and repeat units (R PEoEK), relative to the total number of repeat units in the PEEK-PEoEK copolymer, wherein: (a) repeat units (R PEEK) are repeat units of formula: and (b) repeat units (R PEoEK) are repeat units of formula: wherein: each R 1 and R 2, equal to or different from each other, is independently at each occurrence selected from the group consisting of halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl phosphonate, amine and quaternary ammonium, each a and b is independently selected from the group consisting of integers ranging from 0 to 4, and the PEEK-PEoEK copolymer comprises the repeat units R PEEK and R PEoEK in a molar ratio R PEEK /R PEoEK ranging from 95/5 to 5/95, wherein said polymer composition is in contact with at least part of the surface of said metal substrate. - a metal substrate having a surface, and - a polymer composition comprising a PEEK-PEoEK copolymer, the copolymer comprising at least 50 mol %, collectively, of repeat units (R PEEK) and repeat units (R PEoEK), relative to the total number of repeat units in the PEEK-PEoEK copolymer, wherein: (a) repeat units (R PEEK) are repeat units of formula: and (b) repeat units (R PEoEK) are repeat units of formula: (a) repeat units (R PEEK) are repeat units of formula: and (b) repeat units (R PEoEK) are repeat units of formula: each R 1 and R 2, equal to or different from each other, is independently at each occurrence selected from the group consisting of halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl phosphonate, amine and quaternary ammonium, each a and b is independently selected from the group consisting of integers ranging from 0 to 4, and the PEEK-PEoEK copolymer comprises the repeat units R PEEK and R PEoEK in a molar ratio R PEEK /R PEoEK ranging from 95/5 to 5/95, wherein said polymer composition is in contact with at least part of the surface of said metal substrate.
A combination of a chromatography column and a storage container, whereby the chromatography column is stored in the storage container, the storage container comprising a container body for storing the chromatography column, the container body comprising a side wall and a bottom surface, characterized in that the storage container comprises: a cover threadedly engaging with the container body, wherein the container body has a groove, which is formed in the inner side wall thereof, for a threaded engagement of the container body and the cover, wherein the storage container further comprises sealing members arranged on the inner bottom surface of the container body and on a lower surface of the cover, respectively, and wherein the chromatography column and the storage container are adapted such that, when the container body and the cover are threadedly engaged with each other, the cover enters the container body to cause the sealing members on the inner bottom surface of the container body and on the lower surface of the cover to press both a lower surface and an upper surface of the chromatography column, to thereby fix the chromatography column inside the container body and seal a fluid passage hole of the chromatography column. a cover threadedly engaging with the container body, wherein the container body has a groove, which is formed in the inner side wall thereof, for a threaded engagement of the container body and the cover, wherein the storage container further comprises sealing members arranged on the inner bottom surface of the container body and on a lower surface of the cover, respectively, and wherein the chromatography column and the storage container are adapted such that, when the container body and the cover are threadedly engaged with each other, the cover enters the container body to cause the sealing members on the inner bottom surface of the container body and on the lower surface of the cover to press both a lower surface and an upper surface of the chromatography column, to thereby fix the chromatography column inside the container body and seal a fluid passage hole of the chromatography column.