mhurhangee/ep-ind-claims huggingface dataset:
An optical device, comprising: an electro-optical layer, having a local effective index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; a common electrode, positioned over the active area on a first side of the electro-optical layer; an array of excitation electrodes, comprising parallel conductive stripes extending over the active area on a second side of the electro-optical layer, opposite the first side; and control circuitry, which is coupled to apply respective control voltage waveforms to the excitation electrodes and is configured to concurrently modify the respective control voltage waveforms applied to a plurality of the excitation electrodes, thereby modifying a phase modulation profile of the electro-optical layer, characterized in that each excitation electrode is individually connected to and independently controlled by the control circuitry so as to tune the phase modulation profile of the device, and the control circuitry is configured to apply the control voltage waveforms to the excitation electrodes so that the device functions as a cylindrical lens, having focal properties determined by the phase modulation profile; and in that the electro-optical layer has a layer thickness equal to a distance between the first and second sides, and the excitation electrodes have an inter-electrode pitch that is less than four times the layer thickness of the electro-optical layer. an electro-optical layer, having a local effective index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; a common electrode, positioned over the active area on a first side of the electro-optical layer; an array of excitation electrodes, comprising parallel conductive stripes extending over the active area on a second side of the electro-optical layer, opposite the first side; and control circuitry, which is coupled to apply respective control voltage waveforms to the excitation electrodes and is configured to concurrently modify the respective control voltage waveforms applied to a plurality of the excitation electrodes, thereby modifying a phase modulation profile of the electro-optical layer, characterized in that each excitation electrode is individually connected to and independently controlled by the control circuitry so as to tune the phase modulation profile of the device, and the control circuitry is configured to apply the control voltage waveforms to the excitation electrodes so that the device functions as a cylindrical lens, having focal properties determined by the phase modulation profile; and in that the electro-optical layer has a layer thickness equal to a distance between the first and second sides, and the excitation electrodes have an inter-electrode pitch that is less than four times the layer thickness of the electro-optical layer.
A compound of the general formula I where R 1 and R 2, independently of each other, are selected from 2,2,2-trifluoroethyl and 2,2,3,3,3-pentafluoropropyl.
Sensor device comprising an electrically conductive body (120, 520, 720) adapted to accommodate at least a first printed circuit board and a second PCB, the sensor device being characterized in that the first PCB (102, 502, 702) and the second PCB (104, 504, 704) are connected together by a flexible electrically conductive means (106, 506, 706) and the sensor device further comprises at least one electrically conductive spring (200, 400, 600, 600a, 800, 800a) held between the two PCBs by a snap-fit, a form-fit or a press-fit connection such that a first portion (202, 602, 802) of the spring is pressed against one of the PCBs (102, 502, 702) and a second portion (204, 604, 804) of the spring is pressed against the electrically conductive body (120, 520, 720) to maintain an electrical connection between the electrically conductive body and the PCBs. the sensor device being characterized in that the first PCB (102, 502, 702) and the second PCB (104, 504, 704) are connected together by a flexible electrically conductive means (106, 506, 706) and the sensor device further comprises at least one electrically conductive spring (200, 400, 600, 600a, 800, 800a) held between the two PCBs by a snap-fit, a form-fit or a press-fit connection such that a first portion (202, 602, 802) of the spring is pressed against one of the PCBs (102, 502, 702) and a second portion (204, 604, 804) of the spring is pressed against the electrically conductive body (120, 520, 720) to maintain an electrical connection between the electrically conductive body and the PCBs.
An inverter for converting DC power of a generator into grid-conforming AC power, comprising a scanning unit for tracing at least one part of a characteristic curve of the generator for determining an MPP power value (P MPP), characterized in that - the inverter is configured, in the case of a derating to a derated power (P red), to trigger a tracing of the characteristic curve with provision of a first power profile (24', 25', 108) deviating from the derated power (P red) only if an enable signal is present at the inverter, and to indicate a start and an end of the tracing by outputting a start signal and an end signal, respectively, and - the inverter is configured to provide a second power profile as AC power upon receiving a start signal, wherein the first power profile (24', 25',108) has a deviation from the derated power (P red) with a sign that is opposite to a sign of a deviation of the second power profile from the derated power (P red) in order to compensate a power deviation from a predetermined derated power (P red) while determining the MPP. - the inverter is configured, in the case of a derating to a derated power (P red), to trigger a tracing of the characteristic curve with provision of a first power profile (24', 25', 108) deviating from the derated power (P red) only if an enable signal is present at the inverter, and to indicate a start and an end of the tracing by outputting a start signal and an end signal, respectively, and - the inverter is configured to provide a second power profile as AC power upon receiving a start signal,
An operating head for an industrial truck, comprising a horn that extends along a longitudinal axis and that comprises support portions extending from the longitudinal axis on opposite sides of the horn, and comprising handles that are connected to the horn and that comprise gripping portions arranged in each case opposite the support portions, wherein the opposing support portions and gripping portions are in each case spaced apart from one another by means of a handle opening, wherein at least one operating element (40, 42, 43) is arranged on at least one of the support portions, characterized in that the at least one operating element (40, 42, 43) is cylindrical with a protrusion that extends radially from the cylinder longitudinal axis (Z 1, Z 2) and that points toward the opposing gripping portion of the handle at least in a rest position of the operating element (40, 42, 43), wherein the operating element (40, 42, 43) can be pivoted about its cylinder longitudinal axis by means of action on the protrusion.
A method for remotely printing a document on a network comprising a networked client computer comprising an application and an operating system, a target networked printer device and a print server computer, the method comprising: storing, on the client computer, administrative settings for the target networked printer device applied by the print server computer; updating, using a synchronization manager on the client computer, the stored administrative settings to maintain synchronization with current print server computer administrative settings; translating, by the application in conjunction with the operating system, document data of the document stored in the application format into an intermediate data format to create an intermediate file; characterized by placing, on the client computer, the intermediate file on a queue; the synchronization manager being configured to perform the updating at a periodic time interval; determining, on the client computer, whether the print server is available; and if it is determined on the client computer that the print server is available: rendering, on the client computer, the intermediate file in a native printer language of the target networked printer device, wherein the intermediate file is rendered using the administrative settings stored on the client computer; and sending the rendered document to the print server computer for printing. storing, on the client computer, administrative settings for the target networked printer device applied by the print server computer; updating, using a synchronization manager on the client computer, the stored administrative settings to maintain synchronization with current print server computer administrative settings; translating, by the application in conjunction with the operating system, document data of the document stored in the application format into an intermediate data format to create an intermediate file; characterized by placing, on the client computer, the intermediate file on a queue; the synchronization manager being configured to perform the updating at a periodic time interval; determining, on the client computer, whether the print server is available; and rendering, on the client computer, the intermediate file in a native printer language of the target networked printer device, wherein the intermediate file is rendered using the administrative settings stored on the client computer; and sending the rendered document to the print server computer for printing.
A method for requesting, by a user equipment, UE, relay UE, a connection to a network in a wireless communication system, the method comprising: receiving, from another UE, remote UE, a transfer request for data of the remote UE; performing a relay UE access control based on an access class of the remote UE for determining whether an access attempt to the network is allowed; and transmitting, to the network, a connection request if the access attempt to the network is allowed. receiving, from another UE, remote UE, a transfer request for data of the remote UE; performing a relay UE access control based on an access class of the remote UE for determining whether an access attempt to the network is allowed; and transmitting, to the network, a connection request if the access attempt to the network is allowed.
A system comprising a work device and different types of work heads (33A, 33B) comprising: a device main body provided with a first air path (p1, 321, 41, 51) and a second air path (p2, pv2, 53) that are configured to be connected to the different types of work heads (33A, 33B), the work heads (33A, 33B) being a first and a second work head each configured to pick up and transport a component using a nozzle (36A, 36B), and configured to be exchangeable and to perform specified work using air pressure, wherein the work device is configured to mount the component picked up by the nozzle (36A, 36B) on a board, and the first work head is configured to be connected with only the first air path (p1, 321, 41, 51), and the second work head is configured to be connected to at least the second air path (p2, pv2, 53) the system is characterized in that: the second air path (p2, pv2, 53) is provided to allow a greater volume of air than that of the first air path (p1, 321, 41, 51), the first work head is configured to pick up the component and to hold the nozzle (36A, 36B) using air pressure of the first air path (p1, 321, 41, 51), and the second work head is configured to pick up the component using air pressure of the second air path (p2, pv2, 53). a device main body provided with a first air path (p1, 321, 41, 51) and a second air path (p2, pv2, 53) that are configured to be connected to the different types of work heads (33A, 33B), the work heads (33A, 33B) being a first and a second work head each configured to pick up and transport a component using a nozzle (36A, 36B), and configured to be exchangeable and to perform specified work using air pressure, wherein the work device is configured to mount the component picked up by the nozzle (36A, 36B) on a board, and the first work head is configured to be connected with only the first air path (p1, 321, 41, 51), and the second work head is configured to be connected to at least the second air path (p2, pv2, 53) the system is characterized in that: the second air path (p2, pv2, 53) is provided to allow a greater volume of air than that of the first air path (p1, 321, 41, 51), the first work head is configured to pick up the component and to hold the nozzle (36A, 36B) using air pressure of the first air path (p1, 321, 41, 51), and the second work head is configured to pick up the component using air pressure of the second air path (p2, pv2, 53). the second air path (p2, pv2, 53) is provided to allow a greater volume of air than that of the first air path (p1, 321, 41, 51), the first work head is configured to pick up the component and to hold the nozzle (36A, 36B) using air pressure of the first air path (p1, 321, 41, 51), and the second work head is configured to pick up the component using air pressure of the second air path (p2, pv2, 53).
A distributed antenna system comprising: a base station network interface; and a remote antenna unit communicatively coupled to the base station network interface, the remote antenna unit including an antenna, the remote antenna unit configured to: receive a radio frequency band signal from a subscriber unit; convert the radio frequency band signal into a data stream; and communicate the data stream with the base station network interface; wherein the base station network interface is configured to: convert the data stream or a signal derived from the data stream into a digital communication signal, wherein a master reference clock is embedded in the digital communication signal; and communicate the digital communication signal including the master reference clock to an external device external to the distributed antenna system, the external device configured to extract the master reference clock embedded in the digital communication signal to lock its clock to the master reference clock; and wherein the distributed antenna system is configured to: distribute the master reference clock to various components of the distributed antenna system to keep the various components of the distributed antenna system locked to a single clock. a base station network interface; and a remote antenna unit communicatively coupled to the base station network interface, the remote antenna unit including an antenna, the remote antenna unit configured to: receive a radio frequency band signal from a subscriber unit; convert the radio frequency band signal into a data stream; and communicate the data stream with the base station network interface; receive a radio frequency band signal from a subscriber unit; convert the radio frequency band signal into a data stream; and communicate the data stream with the base station network interface; wherein the base station network interface is configured to: convert the data stream or a signal derived from the data stream into a digital communication signal, wherein a master reference clock is embedded in the digital communication signal; and communicate the digital communication signal including the master reference clock to an external device external to the distributed antenna system, the external device configured to extract the master reference clock embedded in the digital communication signal to lock its clock to the master reference clock; and convert the data stream or a signal derived from the data stream into a digital communication signal, wherein a master reference clock is embedded in the digital communication signal; and communicate the digital communication signal including the master reference clock to an external device external to the distributed antenna system, the external device configured to extract the master reference clock embedded in the digital communication signal to lock its clock to the master reference clock; and wherein the distributed antenna system is configured to: distribute the master reference clock to various components of the distributed antenna system to keep the various components of the distributed antenna system locked to a single clock.
An electrolyte comprising an inorganic material embedded in an organic material; wherein the inorganic material comprises particles of inorganic material which form a percolation network for lithium ion conduction through the electrolyte; wherein the organic material comprises a polymer and wherein the polymer has a lithium conductivity of less than 10 -8 S/cm at 80°C, wherein the inorganic material comprises necked-particles of inorganic material, wherein the inorganic material is a solid state electrolyte, and wherein the solid state electrolyte is an LPS:LiI electrolyte, wherein LPS is a mixture of Li 2 S:P 2 S 5 having a molar ratio from 10:1 to 6:4, wherein the molar ratio of LPS:LiI is from 95:5 to 70:30.
Device for guiding the underside of a sliding door suspended from a guide rail, comprising a guide element arranged on the floor below the sliding door and designed to engage a groove in the underside of the sliding door, wherein the guide element comprises a base attachable to the floor, in the center of which base a roller is pivoted on a vertical axle arranged on the base, characterized in that the radius of the roller is elastically variable depending on radially acting forces and rigid guide jaws are arranged at the side of the roller, wherein the periphery of the roller projects over the guide jaws orthogonally to the direction of motion of the sliding door, and the radially elastic roller and the rigid guide jaws are arranged on the base, which is directly or indirectly screw-mountable to the floor.
An implantable medical lead for transmitting electrical impulses to excitable bodily tissue and/or signals tapped at bodily tissue to a detection and evaluation unit, comprising a distal electrode or a distal sensor, or actuator, a proximal electrode connector or sensor/actuator connector, and a lead pole which connects the electrode or the sensor or actuator to the electrode connector or sensor/actuator connector and which runs in a lead body, wherein the lead pole comprises at least two separate conductors insulated with respect to one another which are electrically connected or coupled to one another at least at one point which functions as a transfer point or reversal point in the lead extension from the proximal electrode connector or sensor connector to the distal electrode or the distal sensor, characterised in that at least one of the separate conductors close to the reversal point is not connected at one end.
Method for preparing a solid dispersion, comprising the steps: a.1) melting of a mixture of at least one drug, at least one carrier and at least one acid, at least one carbonate and/or at least one bicarbonate and optionally at least one surfactant under effervescence of CO 2; or a.2) melting of at least one of the constituents of the mixture according to step a.1) and adding the remaining constituents in arbitrary order, wherein either the at least one acid or the at least one bicarbonate and/or the at least one carbonate has/have to be added last, wherein the solid dispersion is prepared by assistance of effervescence, i.e. when adding a carbonate and/or bicarbonate to the melted mixture of drug, carrier and acid, a reaction between acid and carbonate and/or bicarbonate occurs resulting in effervescence; b) solidifying the mixture obtained in step a.1) or a.2), preferably by cooling and optionally drying; c) comminuting the mixture obtained in step b). a.1) melting of a mixture of at least one drug, at least one carrier and at least one acid, at least one carbonate and/or at least one bicarbonate and optionally at least one surfactant under effervescence of CO 2; or a.2) melting of at least one of the constituents of the mixture according to step a.1) and adding the remaining constituents in arbitrary order, wherein either the at least one acid or the at least one bicarbonate and/or the at least one carbonate has/have to be added last, wherein the solid dispersion is prepared by assistance of effervescence, i.e. when adding a carbonate and/or bicarbonate to the melted mixture of drug, carrier and acid, a reaction between acid and carbonate and/or bicarbonate occurs resulting in effervescence; b) solidifying the mixture obtained in step a.1) or a.2), preferably by cooling and optionally drying; c) comminuting the mixture obtained in step b).
A radio communication terminal comprising: a receiving section adapted to receive a control signal including an ACK/NACK Resource Indicator, ARI, via any one Enhanced Physical Downlink Control Channel, E-PDCCH, set among one or a plurality of E-PDCCH sets; a control section adapted to determine an offset value indicated by the ARI depending on whether or not a resource region usable for a dynamic ACK/NACK resource corresponding to the E-PDCCH set via which the control signal has been received overlaps with a resource region useable for a dynamic ACK/NACK resource corresponding to another E-PDCCH set and that gives an offset to the ACK/NACK resource according to the ARI value; and a transmitting section adapted to transmit an ACK/NACK signal using the determined ACK/NACK resource, characterized in that when the resource region usable for a dynamic ACK/NACK resource corresponding to the E-PDCCH set via which the control signal has been received overlaps with the resource region usable for a dynamic ACK/NACK resource corresponding to the other E-PDCCH set, the control section is further adapted to determine the offset value indicated by the ARI based on a difference between an ACK/NACK resource offset value indicated from a higher layer in correspondence to the E-PDCCH set via which the control signal has been received and an ACK/NACK resource offset value indicated from the higher layer in correspondence to the other E-PDCCH set and thereby determines the ACK/NACK resource for transmitting an ACK/NACK signal. a receiving section adapted to receive a control signal including an ACK/NACK Resource Indicator, ARI, via any one Enhanced Physical Downlink Control Channel, E-PDCCH, set among one or a plurality of E-PDCCH sets; a control section adapted to determine an offset value indicated by the ARI depending on whether or not a resource region usable for a dynamic ACK/NACK resource corresponding to the E-PDCCH set via which the control signal has been received overlaps with a resource region useable for a dynamic ACK/NACK resource corresponding to another E-PDCCH set and that gives an offset to the ACK/NACK resource according to the ARI value; and a transmitting section adapted to transmit an ACK/NACK signal using the determined ACK/NACK resource, when the resource region usable for a dynamic ACK/NACK resource corresponding to the E-PDCCH set via which the control signal has been received overlaps with the resource region usable for a dynamic ACK/NACK resource corresponding to the other E-PDCCH set, the control section is further adapted to determine the offset value indicated by the ARI based on a difference between an ACK/NACK resource offset value indicated from a higher layer in correspondence to the E-PDCCH set via which the control signal has been received and an ACK/NACK resource offset value indicated from the higher layer in correspondence to the other E-PDCCH set and thereby determines the ACK/NACK resource for transmitting an ACK/NACK signal.