mhurhangee/ep-ind-claims huggingface dataset:
Electrode device for a capacitive sensor device, comprising - a first electrode structure with at least one transmitting electrode and at least one receiving electrode, and - a second electrode structure with at least one field sensing electrode, wherein: - in a first operation mode, the at least one transmitting electrode is configured to receive a first alternating electrical signal and a first electric signal is tapped from the at least one receiving electrode, and - in a second operation mode, the least one transmitting electrode is configured to receive a first alternating electrical signal, the at least one receiving electrode of the first electrode structure is configured to receive a second alternating electrical signal, wherein the first and second alternating signals may be identical, and a second electric signal is tapped from the at least one field sensing electrode. - a first electrode structure with at least one transmitting electrode and at least one receiving electrode, and - a second electrode structure with at least one field sensing electrode, wherein: - in a first operation mode, the at least one transmitting electrode is configured to receive a first alternating electrical signal and a first electric signal is tapped from the at least one receiving electrode, and - in a second operation mode, the least one transmitting electrode is configured to receive a first alternating electrical signal, the at least one receiving electrode of the first electrode structure is configured to receive a second alternating electrical signal, wherein the first and second alternating signals may be identical, and a second electric signal is tapped from the at least one field sensing electrode.
Road paver with a paving screed, the paving screed comprising a tamper, and the road paver further comprising a GNSS receiver and a material conveyor, the road paver being characterized by an electronic control system comprising a memory and a data processor, wherein in the memory digital construction data, comprising a target height profile of a road surface to be produced, a target layer thickness (d S) of the paving material, a respective on the target layer thickness (d S) depending pre-compaction degree (k B) and, if necessary, a height profile of a roadbase are stored, and the control system is configured to automatically control the compaction performance of the paving screed as a function of the target layer thickness (ds) in order to pave the paving material with the respective pre-compaction degree (k B) for the respective local coordinate point of the road paver determined with the GNSS receiver.
A vacuum insulation glass panel comprising: a pair of insulation glass stacked to face each other; a plurality of spacers (220, 220') to support the pair of insulation glass to be spaced apart from each other; and a sealing portion (250, 250', 250", 350, 350') disposed along edges of the pair of insulation glass, the sealing portion bonding the pair of insulation glass and making a space between the pair of insulation glass air-tight, wherein the sealing portion (250, 250', 250", 350, 350') comprises an epoxy-based sealant, characterized in that the sealing portion (250, 250', 250", 350, 350') further comprises SiO 2. a pair of insulation glass stacked to face each other; a plurality of spacers (220, 220') to support the pair of insulation glass to be spaced apart from each other; and a sealing portion (250, 250', 250", 350, 350') disposed along edges of the pair of insulation glass, the sealing portion bonding the pair of insulation glass and making a space between the pair of insulation glass air-tight, wherein the sealing portion (250, 250', 250", 350, 350') comprises an epoxy-based sealant, characterized in that the sealing portion (250, 250', 250", 350, 350') further comprises SiO 2.
A method for establishing a tunnel direct link setup, TDLS, session between a first TDLS device and a second TDLS device, the method comprising: sending, from the first TDLS device to the second TDLS device, a TDLS discovery request; in response to receiving, at the first TDLS device from the second TDLS device, a response to the TDLS discovery request, sending a TDLS setup request from the first TDLS device to the second TDLS device; in response to receiving, at the first TDLS device from the second TDLS device a response to the TDLS setup request: (i) sending a TDLS setup confirmation from the first TDLS device to the second TDLS device; (ii) establishing the TDLS session between the first TDLS device and the second TDLS device; and (iii) persistently storing, at the first TDLS device, at least a part of information associated with the second TDLS device, received in the TDLS discovery response, and necessary for the establishment of a TDLS session wherein the information is persistently stored at the first TDLS device subsequent to establishment of the TDLS session between the first TDLS device and the second TDLS device; the method further comprising: sharing the persistently stored information with a third TDLS device such that the third TDLS device is enabled to establish a TDLS session with the second TDLS device without performing TDLS discovery. sending, from the first TDLS device to the second TDLS device, a TDLS discovery request; in response to receiving, at the first TDLS device from the second TDLS device, a response to the TDLS discovery request, sending a TDLS setup request from the first TDLS device to the second TDLS device; in response to receiving, at the first TDLS device from the second TDLS device a response to the TDLS setup request: (i) sending a TDLS setup confirmation from the first TDLS device to the second TDLS device; (ii) establishing the TDLS session between the first TDLS device and the second TDLS device; and (iii) persistently storing, at the first TDLS device, at least a part of information associated with the second TDLS device, received in the TDLS discovery response, and necessary for the establishment of a TDLS session wherein the information is persistently stored at the first TDLS device subsequent to establishment of the TDLS session between the first TDLS device and the second TDLS device; (i) sending a TDLS setup confirmation from the first TDLS device to the second TDLS device; (ii) establishing the TDLS session between the first TDLS device and the second TDLS device; and (iii) persistently storing, at the first TDLS device, at least a part of information associated with the second TDLS device, received in the TDLS discovery response, and necessary for the establishment of a TDLS session wherein the information is persistently stored at the first TDLS device subsequent to establishment of the TDLS session between the first TDLS device and the second TDLS device; the method further comprising: sharing the persistently stored information with a third TDLS device such that the third TDLS device is enabled to establish a TDLS session with the second TDLS device without performing TDLS discovery.
A biopsy needle device comprising: - a biopsy needle attachment mechanism arranged to mechanically couple a biopsy needle to the biopsy needle device; - an actuator mechanism comprising a transducer configured to interconnect electrical signals at one port to mechanical motion at another port, the actuator mechanism configured to transmit flexural vibration to the biopsy needle when the biopsy needle is coupled to the biopsy needle device, characterized by - a sensor device configured to measure a power of the flexural vibration transmitted to the biopsy needle via the transducer and a reflected power of flexural vibration received by the biopsy needle device from the biopsy needle, and - circuitry configured to determine a difference between the power of the flexural vibration transmitted to the biopsy needle and the reflected power of flexural vibration received by the biopsy needle device from the biopsy needle. - a biopsy needle attachment mechanism arranged to mechanically couple a biopsy needle to the biopsy needle device; - an actuator mechanism comprising a transducer configured to interconnect electrical signals at one port to mechanical motion at another port, the actuator mechanism configured to transmit flexural vibration to the biopsy needle when the biopsy needle is coupled to the biopsy needle device, characterized by - a sensor device configured to measure a power of the flexural vibration transmitted to the biopsy needle via the transducer and a reflected power of flexural vibration received by the biopsy needle device from the biopsy needle, and - circuitry configured to determine a difference between the power of the flexural vibration transmitted to the biopsy needle and the reflected power of flexural vibration received by the biopsy needle device from the biopsy needle.
Method, implemented by an item of processing equipment, for determining an item of time information that makes it possible to determine an instant of transmission, by a data-providing device, of a request for an end-of-processing notification to be sent, sending the determined item of time information to the data-providing device, and sending an end-of-processing notification to the data-providing device, the item of processing equipment communicating with the data-providing device according to a synchronous mode of communication, which means that each communication from the item of processing equipment to the data-providing device can take place only in response to the item of processing equipment receiving a corresponding request from the data-providing device, and, after the receipt of data transmitted by the data-providing device in a request for data to be sent, the method comprising the following steps: - obtaining items of information representative of the data received and items of information representative of a type of processing operation to be applied to the data received, - obtaining statistics representative of the operating performance of the item of processing equipment, - determining said item of time information on the basis of the items of information representative of the data received, on the basis of the items of information representative of said type of processing operation to be applied to the data received, and on the basis of said statistics, - sending said determined item of time information to the data-providing device in a response to the request for data to be sent, in order to allow the data-providing device to determine the instant of transmission of said request for an end-of-processing notification to be sent, and - sending an end-of-processing notification to the data-providing device in response to the receipt of said request for an end-of-processing notification to be sent. - obtaining items of information representative of the data received and items of information representative of a type of processing operation to be applied to the data received, - obtaining statistics representative of the operating performance of the item of processing equipment, - determining said item of time information on the basis of the items of information representative of the data received, on the basis of the items of information representative of said type of processing operation to be applied to the data received, and on the basis of said statistics, - sending said determined item of time information to the data-providing device in a response to the request for data to be sent, in order to allow the data-providing device to determine the instant of transmission of said request for an end-of-processing notification to be sent, and - sending an end-of-processing notification to the data-providing device in response to the receipt of said request for an end-of-processing notification to be sent.
A method for controlling one or more parameters of a flow cytometer type measurement system, comprising: - setting a voltage of a photomultiplier tube (28, 30) of the measurement system at a first value (V L) and a second value (V H); - measuring an output current (i L, i H) of the photomultiplier tube at the first and second values (V L, V H); - determining a calibration voltage of the photomultiplier tube (28, 30) from a log of the first and second values (V L, V H) versus a log of the output currents (i L, i H) at the first and second values (V L, V H) by computing a slope and an intercept in log-space; - applying the calibration voltage (V cal) to the photomultiplier tube; and - testing the photomultiplier tube (28, 30) to determine if one or more parameters of the photomultiplier tube (28, 30) are within predetermined tolerances, wherein the method is characterized as follows: if the one or more parameters are determined to be outside of the predetermined tolerances, the method further comprises: generating a new slope (m) and intercept (b) in log-space using the previous computed calibration voltage (V cal), corresponding output current (i Cal) and the second value (V H) as well as the corresponding output current (i H) to determine a new calibration voltage. - setting a voltage of a photomultiplier tube (28, 30) of the measurement system at a first value (V L) and a second value (V H); - measuring an output current (i L, i H) of the photomultiplier tube at the first and second values (V L, V H); - determining a calibration voltage of the photomultiplier tube (28, 30) from a log of the first and second values (V L, V H) versus a log of the output currents (i L, i H) at the first and second values (V L, V H) by computing a slope and an intercept in log-space; - applying the calibration voltage (V cal) to the photomultiplier tube; and - testing the photomultiplier tube (28, 30) to determine if one or more parameters of the photomultiplier tube (28, 30) are within predetermined tolerances, wherein the method is characterized as follows: if the one or more parameters are determined to be outside of the predetermined tolerances, the method further comprises: generating a new slope (m) and intercept (b) in log-space using the previous computed calibration voltage (V cal), corresponding output current (i Cal) and the second value (V H) as well as the corresponding output current (i H) to determine a new calibration voltage. generating a new slope (m) and intercept (b) in log-space using the previous computed calibration voltage (V cal), corresponding output current (i Cal) and the second value (V H) as well as the corresponding output current (i H) to determine a new calibration voltage.
Conductor rail comprising a carrier which is at the top when in the installation position and to which two downwardly extending legs (15, 16) are connected, which legs transition into inwardly extending clamping arms (17, 18) for receiving a contact wire, the upper carrier, the two legs (15, 16) and the clamping arms (17, 18) enclosing an intermediate space for receiving connection pieces (20, 21), characterised in that the upper carrier comprises, on the upper side, a recess which extends in the longitudinal direction of the carrier and is undercut at the opposite longitudinal sides (11, 12).
Selection device for a beverage preparation machine for selecting a value for a parameter used in the preparation of the beverage, comprising a fixed selection element (3; 300) and a mobile selection element (4; 400), the fixed selection element (3; 300) comprising a set of marks (33; 33'; 33"; 330) each corresponding to a beverage preparation parameter value, the mobile selection element (4; 400) being movable in relation to the set of marks (33; 33'; 33"; 330) for selecting a parameter value by positioning the mobile selection element (4; 400) in visual association with a selected mark (33 X; 330 X), the selection device being characterized in that it comprises a light-sending layer (21; 21'; 21", 210) which is disposed in the fixed selection device (3; 300), a polarization layer (22; 22'; 22"; 220) for polarizing said sent light, and at least one polarization modifying layer (23a; 23a'; 23a"; 230a) able to modify the polarization of the polarised light such that the visual aspect of a selected mark (33 X; 33 X '; 33 X ";330 X) is modified when the mobile selection element (4; 400) is positioned in visual association with the selected mark (33 X; 33 X '; 33 X ";330 X), the polarization modifying layer (23a; 23a'; 23a"; 230a) being disposed in superposition relative to the polarization layer (22; 22'; 22"; 220) and relative to the selected mark (33 X; 33 X '; 33 X ";330 X), the light-sending layer (21, 21', 21", 210) being selected between one of a. a reflective surface sending reflected light originating from the outside of the selection device and the at least one polarization modifying layer (23a; 23b'; 23a"; 230b) comprises one quarter-wave plate and b. an illuminating surface, the selection device further comprising a second polarization layer disposed in contact with said light-sending layer, and the at least one polarization modifying layer comprises one half-wave plate. a. a reflective surface sending reflected light originating from the outside of the selection device and the at least one polarization modifying layer (23a; 23b'; 23a"; 230b) comprises one quarter-wave plate and b. an illuminating surface, the selection device further comprising a second polarization layer disposed in contact with said light-sending layer, and the at least one polarization modifying layer comprises one half-wave plate.
A bioerodible drug delivery device comprising a non-woven sheet having a length, width and thickness, said sheet in a rolled configuration comprising multiple turns along an axis parallel to the sheet length and perpendicular to the sheet width, wherein the non-woven sheet comprises a bioerodible polymer and at least one active agent, wherein the non-woven sheet is obtainable by electrospinning a solution comprising the bioerodible polymer at a concentration from 1-100mg/ml; and wherein the active agent is etonogestrel.
A device for producing a hologram (45, 45', 121, 126) as a security feature of a security document, comprising a hologram master, a receptacle and/or guide for a holographic recording material, and a light source that emits coherent light (8, 11), a modulator, particularly a spatial light modulator, that is arranged in such a way that the coherent light can be or is modulated locally according to an individualization pattern for encoding individualization information, as well as imaging optics for guiding the coherent light (8, 11), so that the holographic recording material is irradiated with the coherent modulated light (8, 11) and at least a portion of the coherent modulated light is reflected on the hologram master or is diffracted in order to interfere with the coherent light (8, 11) radiating through the holographic recording material and thus expose the hologram (45, 45', 121, 126) in the recording material, wherein the hologram master, in a region in which the modulated coherent light is reflected or diffracted by the hologram master, is embodied such that a background pattern is imprinted on the diffracted or reflected coherent light, so that the background pattern can be perceived or detected in an individualized manner by means of the individualization information during a reconstruction of the exposed hologram (45, 45', 121, 126) with the individualization information, characterized in that the hologram master is a master hologram that comprises at least two different regions (15, 16, 101-104), each having a uniform appearance, and that the at least two different regions (15, 16, 101-104) have a different diffraction efficiency at an exposure angle of incidence at which light that is to be diffracted or reflected is incident on the hologram master, the different diffraction inefficiencies of the different regions (15, 16, 101-104) of the background pattern all being above a predetermined threshold value, and the master hologram and the individualization information being coordinated with one another such that at least a portion of a contour of one of the at least two regions (15, 16, 101-104) of the background pattern is altered by the individualization information and not stored in the hologram (45, 45', 121, 126).
A method for treating a tissue matrix, comprising: selecting a collagen-containing tissue matrix; providing a solid surface having one or more channels configured to allow fluid to flow therethrough; contacting the tissue matrix with the surface; and causing a fluid containing a cross-linking agent to flow through the channels to cross-link select portions of the tissue matrix to produce a tissue matrix having mechanical or biological properties that vary across the tissue matrix. selecting a collagen-containing tissue matrix; providing a solid surface having one or more channels configured to allow fluid to flow therethrough; contacting the tissue matrix with the surface; and causing a fluid containing a cross-linking agent to flow through the channels to cross-link select portions of the tissue matrix to produce a tissue matrix having mechanical or biological properties that vary across the tissue matrix.
An antenna arrangement having a stacked layered structure, the antenna arrangement comprising: a radiation layer having a surface, the surface delimited by a surface boundary, wherein a first and a second slot extending along a first slot axis and second slot axis, respectively, are arranged on the surface, and a distribution layer facing the radiation layer, wherein the distribution layer is arranged to distribute a radio frequency signal to the first and second slots, the distribution layer comprising a distribution layer feed and a ridge arranged to form a first ridge waveguide intermediate the distribution layer and the radiation layer, characterized by the ridge comprising a first section connected to a second section via a curved section, the first section extending along a first ridge axis and the second section extending along a second ridge axis different from the first ridge axis, wherein the first slot is arranged facing the first section with the first slot arranged offset from the first ridge axis in a direction towards the second ridge axis, and wherein the second slot is arranged facing the second section with the second slot arranged offset from the second ridge axis in a direction towards the first ridge axis. a radiation layer having a surface, the surface delimited by a surface boundary, wherein a first and a second slot extending along a first slot axis and second slot axis, respectively, are arranged on the surface, and a distribution layer facing the radiation layer, wherein the distribution layer is arranged to distribute a radio frequency signal to the first and second slots, the distribution layer comprising a distribution layer feed and a ridge arranged to form a first ridge waveguide intermediate the distribution layer and the radiation layer, characterized by the ridge comprising a first section connected to a second section via a curved section, the first section extending along a first ridge axis and the second section extending along a second ridge axis different from the first ridge axis, wherein the first slot is arranged facing the first section with the first slot arranged offset from the first ridge axis in a direction towards the second ridge axis, and wherein the second slot is arranged facing the second section with the second slot arranged offset from the second ridge axis in a direction towards the first ridge axis.