mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the measurement of at least two different components of a fluid , wherein the fluid is fed to a first and a second measuring cell , wherein in the first measuring cell a first component of the fluid is excited by means of a first excitation and a first light emission is triggered as a result, wherein in the second measuring cell at least one second component of the fluid is excited by means of a second excitation, different from the first excitation , and a second light emission is triggered as a result, wherein the first light emission and the second light emission are captured by means of a optical system facility and guided in the direction of a detector facility , wherein the detector facility measures the first light emission and the second light emission , wherein the first excitation is a laser excitation , characterised in that the first light emission is a Raman radiation, and the second excitation takes place by dosing a reactant resulting in a chemiluminescence with the second component of the fluid , wherein the optical system facility has at least one first stage and at least one second stage , different from the first stage , wherein the at least one first stage is provided for spatial filtering of the Raman radiation and the at least one second stage is provided for mapping the spatially filtered Raman radiation onto the detector facility as well as for capturing and mapping the chemiluminescence onto the detector facility , wherein the second measuring cell is arranged between the first measuring cell and the detector facility , and wherein the detector facility is arranged at an end of the second stage that faces away from the first measuring cell , and the second measuring cell is embodied at an end of the second stage , within the second stage , that faces towards the first stage . the first light emission is a Raman radiation, and the second excitation takes place by dosing a reactant resulting in a chemiluminescence with the second component of the fluid , wherein the optical system facility has at least one first stage and at least one second stage , different from the first stage , wherein the at least one first stage is provided for spatial filtering of the Raman radiation and the at least one second stage is provided for mapping the spatially filtered Raman radiation onto the detector facility as well as for capturing and mapping the chemiluminescence onto the detector facility , wherein the second measuring cell is arranged between the first measuring cell and the detector facility , and wherein the detector facility is arranged at an end of the second stage that faces away from the first measuring cell , and the second measuring cell is embodied at an end of the second stage , within the second stage , that faces towards the first stage .
Subsea arrangement comprising: - a main enclosure having a main enclosure volume ; and - at least one main pressure compensator having a variable compensation volume in fluid communication with the main enclosure volume and configured to compensate volume variations of an internal fluid in the main enclosure volume ; characterized in that the subsea arrangement further comprises: - at least one pressure sensor arranged to measure a pressure of the internal fluid ; and - a control system configured to detect a malfunction of the subsea arrangement based on a deviation of the pressure of the internal fluid measured by the at least one pressure sensor from a normal pressure profile; wherein the control system is configured to categorize the type of malfunction based on the deviation of the pressure of the internal fluid . - a main enclosure having a main enclosure volume ; and - at least one main pressure compensator having a variable compensation volume in fluid communication with the main enclosure volume and configured to compensate volume variations of an internal fluid in the main enclosure volume ; - at least one pressure sensor arranged to measure a pressure of the internal fluid ; and - a control system configured to detect a malfunction of the subsea arrangement based on a deviation of the pressure of the internal fluid measured by the at least one pressure sensor from a normal pressure profile;
A restrictive discovery method for a Device to Device service, characterized by comprising: a discovery terminal receiving discovery information from a Proximity-based Services ProSe Function PF to which the discovery terminal belongs , wherein the discovery information comprises a discovery identity, and the discovery information is allocated by a PF to which a discovered terminal belongs to the discovered terminal, the discovery information is transmitted by the PF to which the discovered terminal belongs to the PF to which the discovery terminal belongs , and the discovery information is transmitted by the PF to which the discovered terminal belongs to the discovered terminal ; the discovery terminal performing paging or broadcasting using the discovery identity, wherein a page message or a broadcast message transmitted by the discovery terminal carries the discovery identity ; and the discovery terminal receiving a response returned by the discovered terminal in response to the page message or the broadcast message , and the discovery terminal determining that the discovered terminal is discovered. a discovery terminal receiving discovery information from a Proximity-based Services ProSe Function PF to which the discovery terminal belongs , wherein the discovery information comprises a discovery identity, and the discovery information is allocated by a PF to which a discovered terminal belongs to the discovered terminal, the discovery information is transmitted by the PF to which the discovered terminal belongs to the PF to which the discovery terminal belongs , and the discovery information is transmitted by the PF to which the discovered terminal belongs to the discovered terminal ; the discovery terminal performing paging or broadcasting using the discovery identity, wherein a page message or a broadcast message transmitted by the discovery terminal carries the discovery identity ; and the discovery terminal receiving a response returned by the discovered terminal in response to the page message or the broadcast message , and the discovery terminal determining that the discovered terminal is discovered.
A plant based gelling fibre having water gel strength ranging from 100 g/cm 2 to 1000 g/cm 2 , and antioxidant capacity ranging from 2mg GAE/g dry weight to 10mg GAE/g dry weight.
Force generation system intended to be associated with a pedal rotatably mounted on a motor vehicle dashboard, the said force generation system comprising - a housing intended to be fixed to the vehicle's dashboard, - a cam carrying a cam surface , - a connecting rod having a first end intended to be, in operation, connected to the pedal and a second end rotatably mounted on the cam about an axis of rotation W, - an elastic return device comprising : ∘ a cam follower movable in translation along a sliding direction , ∘ a return member configured to push the cam follower toward the cam surface so that the cam follower exerts a restoring force on the cam in the sliding direction of the cam follower , wherein the cam is rotatably mounted on the housing about an axis of rotation Z distinct from the axis of rotation W of the second end of the connecting rod so that, in displacement, the connecting rod drives said cam in rotation about the axis of rotation Z in a direction of rotation when the pedal is rotated, the cam surface and the cam follower being configured such that the cam follower moves along the cam surface upon rotation of the cam about the axis of rotation Z and such that the restoring force opposes the rotation of the cam in the direction of rotation . - a housing intended to be fixed to the vehicle's dashboard, - a cam carrying a cam surface , - a connecting rod having a first end intended to be, in operation, connected to the pedal and a second end rotatably mounted on the cam about an axis of rotation W, - an elastic return device comprising : ∘ a cam follower movable in translation along a sliding direction , ∘ a return member configured to push the cam follower toward the cam surface so that the cam follower exerts a restoring force on the cam in the sliding direction of the cam follower , ∘ a cam follower movable in translation along a sliding direction , ∘ a return member configured to push the cam follower toward the cam surface so that the cam follower exerts a restoring force on the cam in the sliding direction of the cam follower ,
A composition for generating breathable oxygen, comprising at least one oxygen source, at least one ionic liquid, and at least one metal salt, wherein - the oxygen source comprises a peroxide compound, wherein the oxygen source is in the form of a powder or a powder compact, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the metal salt comprises one single metal or two or more different metals, and an organic and/or an inorganic anion. - the oxygen source comprises a peroxide compound, wherein the oxygen source is in the form of a powder or a powder compact, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the metal salt comprises one single metal or two or more different metals, and an organic and/or an inorganic anion.
Apparatus , comprising: a probe configured to ablate tissue for a time period, the probe having a distal end comprising a force sensor ; a power control module configured to measure an instantaneous power dissipated by the probe during the time period; a force module configured to measure an instantaneous contact force applied to the tissue during the time period, by acquiring and evaluating signals from the force sensor; and a processor configured to: receive the measured contact force, receive the measured power, and cease ablating the tissue when a desired size of a lesion produced in the tissue is reached, characterised in that the lesion size is estimated using ∫ 0 T CF α t P β t dt , wherein: T is time; CF(t) is the value of instantaneous contact force applied to tissue at time t; P(t) is the value of instantaneous power dissipated at time t; and α and β are numerical exponents having values not equal to unity. a probe configured to ablate tissue for a time period, the probe having a distal end comprising a force sensor ; a power control module configured to measure an instantaneous power dissipated by the probe during the time period; a force module configured to measure an instantaneous contact force applied to the tissue during the time period, by acquiring and evaluating signals from the force sensor; and a processor configured to: receive the measured contact force, receive the measured power, and cease ablating the tissue when a desired size of a lesion produced in the tissue is reached, characterised in that the lesion size is estimated using ∫ 0 T CF α t P β t dt , wherein: T is time; CF(t) is the value of instantaneous contact force applied to tissue at time t; P(t) is the value of instantaneous power dissipated at time t; and α and β are numerical exponents having values not equal to unity. receive the measured contact force, receive the measured power, and cease ablating the tissue when a desired size of a lesion produced in the tissue is reached, characterised in that the lesion size is estimated using ∫ 0 T CF α t P β t dt , wherein: T is time; CF(t) is the value of instantaneous contact force applied to tissue at time t; P(t) is the value of instantaneous power dissipated at time t; and α and β are numerical exponents having values not equal to unity.
An apparatus, comprising means configured for performing: - receiving first measurement data obtained on the basis of a first scanner coupled to a first portion of an articulated vehicle , - receiving second measurement data obtained on the basis of a second scanner coupled to a second portion of the articulated vehicle, the second portion being articulably coupled to the first portion, - defining orientation of the first portion on the basis of the first measurement data and orientation of the second portion on the basis of the second measurement data, - defining an angular value between the first portion and the second portion on the basis of the orientation of the first portion and the orientation of the second portion, and - applying the angular value or the angular value after further processing as a steering angle value of the articulated vehicle. - receiving first measurement data obtained on the basis of a first scanner coupled to a first portion of an articulated vehicle , - receiving second measurement data obtained on the basis of a second scanner coupled to a second portion of the articulated vehicle, the second portion being articulably coupled to the first portion, - defining orientation of the first portion on the basis of the first measurement data and orientation of the second portion on the basis of the second measurement data, - defining an angular value between the first portion and the second portion on the basis of the orientation of the first portion and the orientation of the second portion, and - applying the angular value or the angular value after further processing as a steering angle value of the articulated vehicle.
A wireless transmit/receive unit, WTRU , configured for selectively enabling and disabling reception of downlink signaling, the WTRU comprising: means for monitoring a buffer of the WTRU for uplink data to transmit, including monitoring the buffer when the reception of downlink signaling is disabled; means for transmitting an uplink channel allocation request on a condition that the buffer contains uplink data; means for, on a condition that reception of the downlink signaling is disabled and in response to the transmission of the uplink channel allocation request, enabling reception of the downlink signaling to allow the WTRU to receive an uplink channel allocation; means for, in response to receiving an uplink channel allocation, transmitting uplink data on an uplink channel; means for determining a time when hybrid automatic repeat request, HARQ, feedback is expected to be received, based on a preconfigured schedule, in response to the transmitted uplink data; and means for receiving the HARQ feedback at the expected time. means for monitoring a buffer of the WTRU for uplink data to transmit, including monitoring the buffer when the reception of downlink signaling is disabled; means for transmitting an uplink channel allocation request on a condition that the buffer contains uplink data; means for, on a condition that reception of the downlink signaling is disabled and in response to the transmission of the uplink channel allocation request, enabling reception of the downlink signaling to allow the WTRU to receive an uplink channel allocation; means for, in response to receiving an uplink channel allocation, transmitting uplink data on an uplink channel; means for determining a time when hybrid automatic repeat request, HARQ, feedback is expected to be received, based on a preconfigured schedule, in response to the transmitted uplink data; and means for receiving the HARQ feedback at the expected time.
A method for monitoring live aquatic cargo in an aquatic structure the method comprising: receiving, by one or more processing devices, data indicating parameters of a movable underwater sensor system in an aquatic structure, the underwater sensor system including an imaging system ; obtaining, by the one or more processing devices, data indicating a position for the underwater sensor system in the aquatic structure for capturing media by the imaging system ; causing, by the one or more processing devices, the underwater sensor system to be automatically maneuvered to the indicated position, comprising instructing one or more motorized pulley systems to move a line coupled to the underwater sensor system; causing, by the one or more processing devices, the imaging system to capture media of the aquatic cargo at the indicated position; using the sensor system to monitor movement of the aquatic cargo; and moving the sensor system to track the aquatic cargo and to continuously monitor the aquatic cargo. receiving, by one or more processing devices, data indicating parameters of a movable underwater sensor system in an aquatic structure, the underwater sensor system including an imaging system ; obtaining, by the one or more processing devices, data indicating a position for the underwater sensor system in the aquatic structure for capturing media by the imaging system ; causing, by the one or more processing devices, the underwater sensor system to be automatically maneuvered to the indicated position, comprising instructing one or more motorized pulley systems to move a line coupled to the underwater sensor system; causing, by the one or more processing devices, the imaging system to capture media of the aquatic cargo at the indicated position; using the sensor system to monitor movement of the aquatic cargo; and moving the sensor system to track the aquatic cargo and to continuously monitor the aquatic cargo.
Shirring composition for high meat cling of artificial casings comprising one heat curable polycationic resinous component, a polyolic component, inorganic or organic salts of alkali metals or alkaline metal hydroxide for pH adjustment and water, wherein the water activity a w index has a value greater than or equal to 0.70 and the pH of the composition is between 7 and 10.
A dip tube insertion member (A) for facilitating insertion of a dip tube (D) into a liquid container having a sealing cap (B) without removing the sealing cap (B) from the liquid container (C), said dip tube insertion member (A) comprising: a dip tube insertion cap having an upper wall , an outer annular wall and a probe , the probe having a hollow cavity for receiving a dip tube (D), the probe further including an upper opening and a lower opening for facilitating insertion of a dip tube (D) into the liquid container (C); wherein the dip tube insertion cap further includes: a sealing member for forming an air chamber surrounding the probe , the air chamber being configured to receive and direct air to at least one air passageway communicating with an interior of the liquid container (C); characterized in that , the sealing member forms an air chamber between an inner surface of the upper wall and an upper exterior surface of the sealing cap (B), and extends inwardly from the sealing member and completely surrounds the probe ; the upper wall extends horizontally and includes the inner surface and an outer surface, the cap (A) being configured such that, when the dip tube insertion member (A) is installed, the sealing member , which extends downwardly from the inner surface of the upper wall and completely surrounds the probe , engages the uppermost surface of the liquid storage container sealing cap (B), which forms a bottom of said air chamber to form the air chamber. a dip tube insertion cap having an upper wall , an outer annular wall and a probe , the probe having a hollow cavity for receiving a dip tube (D), the probe further including an upper opening and a lower opening for facilitating insertion of a dip tube (D) into the liquid container (C); wherein the dip tube insertion cap further includes: a sealing member for forming an air chamber surrounding the probe , the air chamber being configured to receive and direct air to at least one air passageway communicating with an interior of the liquid container (C); characterized in that , the sealing member forms an air chamber between an inner surface of the upper wall and an upper exterior surface of the sealing cap (B), and extends inwardly from the sealing member and completely surrounds the probe ; the upper wall extends horizontally and includes the inner surface and an outer surface, the cap (A) being configured such that, when the dip tube insertion member (A) is installed, the sealing member , which extends downwardly from the inner surface of the upper wall and completely surrounds the probe , engages the uppermost surface of the liquid storage container sealing cap (B), which forms a bottom of said air chamber to form the air chamber.
A wireless power transfer, WPT, system for an electrical vehicle, EV, the system comprising a ground assembly, GA, and a vehicle assembly, VA , and a conductive charger with a DC link, and a rectifier in the VA to obtain a continuous voltage V dc_VA , the GA comprising a GA transmitter coil , the VA comprising a VA receiver coil magnetically coupled to the GA transmitter coil , characterized in that the WPT system comprises: a compensation strategy stage that comprises a parallel-series compensation network to obtain a voltage Vv A in the VA receiver coil proportional to an effective current I p_rms in the GA transmitter coil ; a control strategy stage with a voltage control loop receiving as inputs the continuous voltage V dc_VA and a reference DC link voltage and a current control loop receiving as input the current flowing through the GA transmitter coil I p_rms and an output from the voltage control loop, wherein the control strategy stage is configured to provide a control command to regulate voltage in the VA to adjust the continuous voltage V dc_VA based on the reference DC link voltage, and wherein the DC link of the conductive charger of the EV connected to the rectifier is configured to be regulated with the adjusted continuous voltage V dc_VA during an inductive charging process of the EV. a compensation strategy stage that comprises a parallel-series compensation network to obtain a voltage Vv A in the VA receiver coil proportional to an effective current I p_rms in the GA transmitter coil ; a control strategy stage with a voltage control loop receiving as inputs the continuous voltage V dc_VA and a reference DC link voltage and a current control loop receiving as input the current flowing through the GA transmitter coil I p_rms and an output from the voltage control loop, wherein the control strategy stage is configured to provide a control command to regulate voltage in the VA to adjust the continuous voltage V dc_VA based on the reference DC link voltage, and wherein the DC link of the conductive charger of the EV connected to the rectifier is configured to be regulated with the adjusted continuous voltage V dc_VA during an inductive charging process of the EV.