mhurhangee/ep-ind-claims huggingface dataset:
A contour measuring apparatus comprising: an arm including a stylus in a distal end and being swingable with respect to a cabinet; an attitude change mechanism configured to change an attitude of the arm within a swing range; a stopper configured to make contact with the arm when the arm moves to a mechanical limit position in which the arm moves nearest to a table for mounting an object to be measured within the swing range; and a controller configured to operate the attitude change mechanism when a power-off command is received and return the arm to the mechanical limit position in which the arm makes contact with the stopper. an arm including a stylus in a distal end and being swingable with respect to a cabinet; an attitude change mechanism configured to change an attitude of the arm within a swing range; a stopper configured to make contact with the arm when the arm moves to a mechanical limit position in which the arm moves nearest to a table for mounting an object to be measured within the swing range; and a controller configured to operate the attitude change mechanism when a power-off command is received and return the arm to the mechanical limit position in which the arm makes contact with the stopper.
A process for producing a liquid composition, which comprises cooling a fluorinated polymer having -SO 2 F groups at a temperature of higher than 130°C and at most 320°C, at a cooling rate of at most 45°C/min at least in a temperature region of from 110 to 130°C, converting the -SO 2 F groups in the fluorinated polymer to ion exchange groups to obtain a fluorinated polymer having ion exchange groups, and mixing the fluorinated polymer having ion exchange groups and a liquid medium.
A composition comprising a stable aqueous dispersion of polymer particles having a pH of from 8 to 10, an oxidoreductase, and a cofactor for the oxidoreductase, wherein, when the cofactor is a reducing cofactor, the weight-to-weight ratio of the reducing cofactor to the oxidoreductase is from 0.5:1 to 2.0:1 and, when the cofactor is an oxidising cofactor, the weight-to-weight ratio of oxidizing cofactor to the oxidoreductase is from 0.5:1 to 2.5:1.
A method for hybrid multiplexing in a passive optical network, the method comprising steps of: A. dividing N first intermediate frequency sub-bands evenly into M clusters, wherein each of the clusters contains K first intermediate frequency sub-bands and N = M*K, and wherein each of the K first intermediate frequency sub-bands carries a baseband digital electrical signal; B. selecting, by a software defined first intermediate frequency multiplexer, baseband digital electrical signals of K first intermediate frequency sub-bands from the N first intermediate frequency sub-bands for software defined frequency division multiplexing and forming a cluster; and C. frequency division multiplexing, by an analog hardware cluster multiplexer, analog electrical signals of the M clusters on a second intermediate frequency sub-band.
Method of performing a functional test of at least one embedded sub-element of a wind turbine, said wind turbine being controlled by a control algorithm of a wind turbine controller, said method comprising the steps of - executing a predefined event pattern activating at least one sub-element of the wind turbine, - obtaining measure data on the basis of measurements of at least one sub-element according to said predefined event pattern, - relating said measure data to predefined reference data and establishing a test result indicating the condition of said sub-element on the basis thereof, wherein said predefined event pattern is executed by a test algorithm overriding the control algorithm of the wind turbine controller at least partly. - executing a predefined event pattern activating at least one sub-element of the wind turbine, - obtaining measure data on the basis of measurements of at least one sub-element according to said predefined event pattern, - relating said measure data to predefined reference data and establishing a test result indicating the condition of said sub-element on the basis thereof,
Method for assisting a driver of a commercial vehicle, wherein the commercial vehicle, as seen in the vehicle transverse direction (y), laterally on the outside on each vehicle side has in each case at least one side marker light, and wherein a closed-loop and/or open-loop control device is provided and is used to control the lighting of the side marker lights in a closed-loop and/or open-loop manner, wherein the closed-loop and/or open-loop control device, in the event of a warning situation of the commercial vehicle, is switched into a warning flashing mode in which the side marker lights are controlled in such a way that they display a flashing warning signal, and wherein, so long as the warning flashing mode is switched off and the headlights of the commercial vehicle are switched on, the closed-loop and/or open-loop control device automatically switches into a basic mode in which the side marker lights are controlled in such a way that they display a permanent light signal, wherein the commercial vehicle has a loading and/or unloading mechanism which can be used to load and/or unload the commercial vehicle, and wherein a loading and/or unloading operation of the commercial vehicle constitutes a warning situation, wherein a loading and/or unloading detection device is provided and is used to detect and/or identify a loading and/or unloading operation of the commercial vehicle, wherein the closed-loop and/or open-loop control device automatically switches into the warning flashing mode in the event of a loading and/or unloading operation being detected and/or identified, and wherein the loading and/or unloading mechanism has a level control device which is used to adjust the level of the commercial vehicle in a defined manner starting from a basic position in order to load and/or unload the commercial vehicle.
An optical-wireless access system in which one or more base stations communicating with a wireless terminal are connected to an upper-level device via an optical access system, the optical access system comprising one or more optical network units, ONUs, arranged on the base station side, an optical line terminal, OLT, disposed on the upper-level device side, and optical transmission paths through which the ONUs and the OLT are connected, characterized in that the ONU is arranged to obtain information on dynamic scheduling control of the optical-wireless access system from the base station, the ONU is arranged to receive grant information transmitted from the base station to the wireless terminal and to start a sequence of transmitting uplink data to the OLT once the ONU has received the grant information, and the ONU is arranged to generate and transmit a REPORT signal to the OLT before uplink data has arrived at the ONU.
A gas turbine engine comprising: a fan comprising a plurality of fan blades; a support structure downstream of the fan comprising an engine section stator configured to guide air received from the fan, the fan being rotatable with respect to the engine section stator; an interstage flow region defined between the fan blades and the engine section stator; and characterised in that an acoustic attenuator (60a, 60b, 60c) is provided on at least a portion of a rotatable section (42, 46, 34) of the radially-inner boundary of the interstage flow region to attenuate acoustic waves in the interstage flow region. a fan comprising a plurality of fan blades; a support structure downstream of the fan comprising an engine section stator configured to guide air received from the fan, the fan being rotatable with respect to the engine section stator; an interstage flow region defined between the fan blades and the engine section stator; and characterised in that an acoustic attenuator (60a, 60b, 60c) is provided on at least a portion of a rotatable section (42, 46, 34) of the radially-inner boundary of the interstage flow region to attenuate acoustic waves in the interstage flow region.
Feeding bottle kit comprising at least a first and a second feeding bottle, each of said feeding bottles comprising a container bottom part (110, 210) and a closure part (120, 220), the container bottom part (110, 210) extending in a direction of extension from a closed end (111, 211) to an open end (112, 212), the closure part comprising an open end (121, 221) designed to be removably attached to the open end (112, 212) of the container bottom part, the feeding bottle kit being characterised in that the open end of the container bottom part of the first feeding bottle has a cross-section bigger than the maximum cross-section of the container bottom parts of the other feeding bottles, said cross-sections being viewed perpendicular to the direction of extension, and in that the first feeding bottle completely encloses the container bottom parts of the other feeding bottles when the closure part of the first feeding bottle is attached to the open end of the container bottom part of the first feeding bottle.
A method for processing biometric data, the method comprising: obtaining, by a processing device, transformed enrollment biometric data, transformed backup biometric data, an enrollment random projection transform and a backup random projection transform; determining, by the processing device, reconstructed biometric data corresponding to an enrolling user based on the transformed enrollment biometric data, the transformed backup biometric data, the enrollment random projection transform and the backup random projection transform; and encoding, by the processing device, the reconstructed biometric data using a reenrollment random projection transform to produce transformed reconstructed biometric data, wherein knowledge of the reenrollment random projection transform and the transformed reconstructed biometric data is insufficient to reconstruct the reconstructed biometric data. obtaining, by a processing device, transformed enrollment biometric data, transformed backup biometric data, an enrollment random projection transform and a backup random projection transform; determining, by the processing device, reconstructed biometric data corresponding to an enrolling user based on the transformed enrollment biometric data, the transformed backup biometric data, the enrollment random projection transform and the backup random projection transform; and encoding, by the processing device, the reconstructed biometric data using a reenrollment random projection transform to produce transformed reconstructed biometric data, wherein knowledge of the reenrollment random projection transform and the transformed reconstructed biometric data is insufficient to reconstruct the reconstructed biometric data.
A radiating element for a base station antenna, the radiating element comprising: a support structure, at least a pair of dipole arms in a first layer of the support structure, and at least two parasitic arms in a second layer of the support structure, wherein the distance between the first and the second layer is between 0.0004 and 0.1 of the minimum wavelength of the operating frequency band of the radiating element, wherein each parasitic arm is capacitively coupled to at least one corresponding dipole arm and covers the whole area of the respective dipole arm; wherein the parasitic arms are floating, wherein the support structure comprises a distance holder with a foot for connecting to a reflector of the base station antenna, wherein the distance holder is configured to hold the dipole arms and the parasitic arms at a further predefined distance from the reflector, wherein the distance holder comprises crossed printed circuit boards, PCBs, perpendicular to the first and second layers of the radiating element, wherein each PCB of the crossed PCBs comprises a balun configured to galvanically connect a respective pair of dipole arms to ground and a microstrip line configured to feed the respective pair of dipole arms. a support structure, at least a pair of dipole arms in a first layer of the support structure, and at least two parasitic arms in a second layer of the support structure, wherein the distance between the first and the second layer is between 0.0004 and 0.1 of the minimum wavelength of the operating frequency band of the radiating element, wherein each parasitic arm is capacitively coupled to at least one corresponding dipole arm and covers the whole area of the respective dipole arm; wherein the parasitic arms are floating, wherein the support structure comprises a distance holder with a foot for connecting to a reflector of the base station antenna, wherein the distance holder is configured to hold the dipole arms and the parasitic arms at a further predefined distance from the reflector, wherein the distance holder comprises crossed printed circuit boards, PCBs, perpendicular to the first and second layers of the radiating element, wherein each PCB of the crossed PCBs comprises a balun configured to galvanically connect a respective pair of dipole arms to ground and a microstrip line configured to feed the respective pair of dipole arms.
Use of a catalyst for synthesizing hydrogen peroxide, the catalyst represented by Chemical Formula 1 provided below and in a form of a composite containing Rh and Ag, wherein the Rh and the Ag are mixed together without forming a solid solution alloy and form an interface with each other: [Chemical Formula 1] Rh x Ag (1-x), where 0 < x < 1.
A method for generating a high dynamic range image from a low dynamic range image, comprising the following steps: performing grey-level adjustment on a low dynamic range image to be processed in accordance with a preset mapping relationship to obtain an image after the grey-level adjustment; confirming a plurality of saturation areas in the image after the grey-level adjustment; performing grey-level enhancement of the saturation areas in the image after the grey-level adjustment, to obtain a target high dynamic range image; and outputting the target high dynamic range image; wherein, the grey-level adjustment comprises anti-gamma correction and grey-level value increase; and the grey-level value of pixels in the saturation areas is greater than a preset high dynamic saturation threshold; characterized in that the grey-level adjustment is performed in accordance with the following formula: C i = 2 n − 1 i 2 m − 1 1 γ; wherein, C(i) is a grey-level value of each pixel in the image after the grey-level adjustment, i is a grey-level value of each pixel in the low dynamic range image to be processed, and i ∈ [0,255]; m is a grey-level scale of the low dynamic range image to be processed, n is a grey-level scale of the image after the grey-level adjustment, and m ≤ n; and γ is a preset gamma value. performing grey-level adjustment on a low dynamic range image to be processed in accordance with a preset mapping relationship to obtain an image after the grey-level adjustment; confirming a plurality of saturation areas in the image after the grey-level adjustment; performing grey-level enhancement of the saturation areas in the image after the grey-level adjustment, to obtain a target high dynamic range image; and outputting the target high dynamic range image; wherein, the grey-level adjustment comprises anti-gamma correction and grey-level value increase; and the grey-level value of pixels in the saturation areas is greater than a preset high dynamic saturation threshold; characterized in that the grey-level adjustment is performed in accordance with the following formula: C i = 2 n − 1 i 2 m − 1 1 γ; wherein, C(i) is a grey-level value of each pixel in the image after the grey-level adjustment, i is a grey-level value of each pixel in the low dynamic range image to be processed, and i ∈ [0,255]; m is a grey-level scale of the low dynamic range image to be processed, n is a grey-level scale of the image after the grey-level adjustment, and m ≤ n; and γ is a preset gamma value.
An association of probes comprising a group of probes having at one end of the sequence a tag and at the other end a sequence hybridising to at least one part of the sequence of the HMBS gene said hybridising sequences being SEQ ID NO: 25-47 and a group of probes having at one end of the sequence a tag and at the other end a sequence hybridising to at least one part of the sequence of the HMBS gene said hybridising sequences being SEQ ID NO: 166-188.
A method of decoding a signal in a communication network, the method comprising the steps of: - receiving a signal comprising information, wherein the signal is encoded by a tail-biting convolutional code; - identifying a position in the signal related to a known portion of the information, wherein the known portion of the information includes a subset of a bit string of the information, wherein the length of the bit string is equal to or shorter than the memory of the convolutional code; - initializing a Viterbi state metric (∧ 1,k ini) consistent with the known portion of the information by assigning to the Viterbi states consistent with the known portion Viterbi weights that also account for further a priori knowledge about the information comprising an expected response and which represent a non-uniform probability distribution among the Viterbi states consistent with the known portion; and - decoding the encoded signal by means of a Wrap-Around Viterbi Algorithm (WAVA) using the initialized Viterbi state metric (∧ 1, k ini), wherein the decoding starts at a decoding step (k ini) following the identified position. - receiving a signal comprising information, wherein the signal is encoded by a tail-biting convolutional code; - identifying a position in the signal related to a known portion of the information, wherein the known portion of the information includes a subset of a bit string of the information, wherein the length of the bit string is equal to or shorter than the memory of the convolutional code; - initializing a Viterbi state metric (∧ 1,k ini) consistent with the known portion of the information by assigning to the Viterbi states consistent with the known portion Viterbi weights that also account for further a priori knowledge about the information comprising an expected response and which represent a non-uniform probability distribution among the Viterbi states consistent with the known portion; and - decoding the encoded signal by means of a Wrap-Around Viterbi Algorithm (WAVA) using the initialized Viterbi state metric (∧ 1, k ini), wherein the decoding starts at a decoding step (k ini) following the identified position.
Ankle splint comprising: - a shell intended to be positioned against the external face of the leg; - an L-shaped support comprising an upright intended to be positioned against the external face of the foot and a tongue intended to be positioned under the foot; - a connecting piece connecting the shell and the support, said connecting piece being mounted such that it can pivot with respect to the shell about a first transverse axis of articulation and mounted such that it can pivot with respect to the support about a second transverse axis of articulation; the first and second axes of articulation (47, 48) being offset from one another vertically and in the anteroposterior direction when the splint is positioned on the ankle of a user, said ankle being in the neutral position; the splint further comprising a bearing member arranged opposite the internal face of the connecting piece and attached to the shell and to the support, said bearing member, made from a semi-rigid material, being designed to keep the shell and the support in the neutral position of use when the ankle is in the neutral position, to be able to be elastically deformed so as to allow the pivoting of the connecting piece about the first and second axes of articulation (47, 48) when the ankle is in flexion or in extension and, from this deformed position, to return the splint to its neutral position when the ankle returns to the neutral position. - a shell intended to be positioned against the external face of the leg; - an L-shaped support comprising an upright intended to be positioned against the external face of the foot and a tongue intended to be positioned under the foot; - a connecting piece connecting the shell and the support, said connecting piece being mounted such that it can pivot with respect to the shell about a first transverse axis of articulation and mounted such that it can pivot with respect to the support about a second transverse axis of articulation; the first and second axes of articulation (47, 48) being offset from one another vertically and in the anteroposterior direction when the splint is positioned on the ankle of a user, said ankle being in the neutral position; the splint further comprising a bearing member arranged opposite the internal face of the connecting piece and attached to the shell and to the support, said bearing member, made from a semi-rigid material, being designed to keep the shell and the support in the neutral position of use when the ankle is in the neutral position, to be able to be elastically deformed so as to allow the pivoting of the connecting piece about the first and second axes of articulation (47, 48) when the ankle is in flexion or in extension and, from this deformed position, to return the splint to its neutral position when the ankle returns to the neutral position.
A system configured to support communication between a first environment having a first neutron radiation level and a second environment having a second neutron radiation level, different from the first neutron radiation level, comprising: a first computing device configured to control a treatment system in the first environment; and a second computing device configured to issue a command in the second environment for the treatment system, wherein the first computing device is further configured to determine whether to enable or disable a function supported by the treatment system, if there is pending time-sensitive data to transmit, transmit the pending time-sensitive data with a higher priority than non time-sensitive data, and periodically transmit a first radiation therapy data collected in the first environment and a first interrupt to the second computing device in a servo loop; characterized in that the first computing device is further configured to receive a retransmission request from the second computing device if the second computing device does not receive an expected information within a particular time. a first computing device configured to control a treatment system in the first environment; and a second computing device configured to issue a command in the second environment for the treatment system, wherein the first computing device is further configured to determine whether to enable or disable a function supported by the treatment system, if there is pending time-sensitive data to transmit, transmit the pending time-sensitive data with a higher priority than non time-sensitive data, and periodically transmit a first radiation therapy data collected in the first environment and a first interrupt to the second computing device in a servo loop; characterized in that the first computing device is further configured to receive a retransmission request from the second computing device if the second computing device does not receive an expected information within a particular time.