mhurhangee/ep-ind-claims huggingface dataset:
Method for complete crystallization of MAP and PMP from a liquid and recovery of MAP and PMP in a reactor, which is equipped with two groups of electrodes (16, 18) of different polarity, wherein the sacrificial electrodes are comprised of a magnesium-containing material, wherein the following method steps are performed - continuous flow of the liquid through the reactor; - precipitation of PMP and MAP from the liquid; - deposition of crystals in the conical bottom of the reactor; and - removal of the crystals via a removal device; as well as - separation of the crystals in a filter from the liquid, characterized in that the reactor is operated galvanically and whereas an outflow of the reactor is returned to an inlet of the reactor and in this way the wastewater that is still to be purified is enriched with crystallization seeds. - continuous flow of the liquid through the reactor; - precipitation of PMP and MAP from the liquid; - deposition of crystals in the conical bottom of the reactor; and - removal of the crystals via a removal device; as well as - separation of the crystals in a filter from the liquid,
A system for determining the position of at least one camera of a camera assembly with respect to a ground plane, comprising an agricultural working machine and an agricultural working unit, wherein the at least one camera is disposed on the agricultural working machine or on the agricultural working unit, wherein the working unit is constructed as an attachment of the working machine for processing a field crop, wherein the camera assembly is configured to generate information regarding the field crop by means of the at least one camera, characterized in that the camera assembly is configured to provide sensor data for a surface by means of a sensor, to analyse the sensor data by means of a computing unit in order to determine the ground plane and, with the aid of the analysed sensor data, to determine the current position with respect to the ground plane specified by the height and/or angle of the camera, wherein the height of the camera can be adjusted by a linear actuator, wherein the computing unit is configured to actuate the linear actuator in order to vary the position of the camera as a function of the determined height with respect to the ground plane, wherein the computing unit is configured to propose a variation in angle as a function of the angle determined with respect to the ground plane, wherein an actuator is provided which automatically causes a pivoting of the camera in order to adapt the angle of the camera on the basis of the determined variation in angle. wherein the height of the camera can be adjusted by a linear actuator, wherein the computing unit is configured to actuate the linear actuator in order to vary the position of the camera as a function of the determined height with respect to the ground plane, wherein the computing unit is configured to propose a variation in angle as a function of the angle determined with respect to the ground plane, wherein an actuator is provided which automatically causes a pivoting of the camera in order to adapt the angle of the camera on the basis of the determined variation in angle.
A method of fabricating a three-dimensional object comprising: forming layers of build material; selectively depositing a functional agent upon the layers of build material based on data derived from a model of the three-dimensional object; and selectively solidifying portions of build material within the layers in accordance with the selective deposit of the functional agent, wherein the method comprises: determining an amount of the functional agent to be deposited on a given portion of build material in a given layer as a function of a distance between the given portion and a surface of the three-dimensional object; characterized in that, the method comprises the step of increasing the amount of functional agent as the distance to the surface of the object decreases, wherein the functional agent is a fusing agent. forming layers of build material; selectively depositing a functional agent upon the layers of build material based on data derived from a model of the three-dimensional object; and selectively solidifying portions of build material within the layers in accordance with the selective deposit of the functional agent, wherein the method comprises: determining an amount of the functional agent to be deposited on a given portion of build material in a given layer as a function of a distance between the given portion and a surface of the three-dimensional object; characterized in that, the method comprises the step of increasing the amount of functional agent as the distance to the surface of the object decreases, wherein the functional agent is a fusing agent. determining an amount of the functional agent to be deposited on a given portion of build material in a given layer as a function of a distance between the given portion and a surface of the three-dimensional object; characterized in that, the method comprises the step of increasing the amount of functional agent as the distance to the surface of the object decreases, wherein the functional agent is a fusing agent.
A syringe pump comprising: a body; a syringe seat coupled to the body; a syringe actuator configured to actuate a syringe secured within the syringe seat; a memory configured to store a plurality of instructions stored thereon; and being characterized by having at least one processor, in accordance with the plurality of instructions, configured to: prime the syringe pump in a prime phase; and determine if an occlusion exists during the prime phase using a first test; stop the prime phase; initiate fluid delivery into a patient; enter into a start-up phase after the prime phase has stopped; determine if an occlusion exists during the start-up phase using a second test; determine whether at least one criterion has occurred; transition from the start-up phase into a steady-state phase when the at least one criterion has occurred; and determine if an occlusion exists during the steady-state phase using a third test, wherein the first, second and third tests determine whether a pressure exceeds a first, second and third threshold, respectively. a body; a syringe seat coupled to the body; a syringe actuator configured to actuate a syringe secured within the syringe seat; a memory configured to store a plurality of instructions stored thereon; and being characterized by having at least one processor, in accordance with the plurality of instructions, configured to: prime the syringe pump in a prime phase; and determine if an occlusion exists during the prime phase using a first test; stop the prime phase; initiate fluid delivery into a patient; enter into a start-up phase after the prime phase has stopped; determine if an occlusion exists during the start-up phase using a second test; determine whether at least one criterion has occurred; transition from the start-up phase into a steady-state phase when the at least one criterion has occurred; and determine if an occlusion exists during the steady-state phase using a third test, wherein the first, second and third tests determine whether a pressure exceeds a first, second and third threshold, respectively. prime the syringe pump in a prime phase; and determine if an occlusion exists during the prime phase using a first test; stop the prime phase; initiate fluid delivery into a patient; enter into a start-up phase after the prime phase has stopped; determine if an occlusion exists during the start-up phase using a second test; determine whether at least one criterion has occurred; transition from the start-up phase into a steady-state phase when the at least one criterion has occurred; and determine if an occlusion exists during the steady-state phase using a third test, wherein the first, second and third tests determine whether a pressure exceeds a first, second and third threshold, respectively.
A method comprising: receiving, a set of encoded audio parameters for an audio frame, wherein the set comprises indices representing at least two quantized line spectral frequency coefficients, wherein the audio frame when decoded comprises audio samples digitally sampled at a sampling frequency, wherein the sampling frequency is one of a plurality of sampling frequencies for an audio decoder; converting the indices to the at least two quantized line spectral frequency coefficients; and determining the sampling frequency for the audio frame by checking the value of a highest order quantized line spectral frequency coefficient of the at least two quantized line spectral frequency coefficients. receiving, a set of encoded audio parameters for an audio frame, wherein the set comprises indices representing at least two quantized line spectral frequency coefficients, wherein the audio frame when decoded comprises audio samples digitally sampled at a sampling frequency, wherein the sampling frequency is one of a plurality of sampling frequencies for an audio decoder; converting the indices to the at least two quantized line spectral frequency coefficients; and determining the sampling frequency for the audio frame by checking the value of a highest order quantized line spectral frequency coefficient of the at least two quantized line spectral frequency coefficients.
A device comprising: a cylindrically shaped dosimeter mount, a piece of optically stimulated luminescence material (OSLM) mounted in the dosimeter mount, a cylindrically shaped dosimeter housing comprising a cylindrical recess in which the dosimeter mount is rotatably mounted, a cylindrically shaped knob extending from a proximal end of the dosimeter mount, wherein the piece of OSLM has an exposed surface, wherein the device has an a reading configuration in which the exposed surface of the piece of OSLM is exposed in an opening of the dosimeter housing, wherein the device has a shielded configuration in which the exposed surface of the piece of OSLM is shield by the dosimeter housing, wherein the device is movable between the shielded configuration and the reading configuration by rotating the dosimeter mount relative to the dosimeter housing about a longitudinal axis by twisting the knob. a cylindrically shaped dosimeter mount, a piece of optically stimulated luminescence material (OSLM) mounted in the dosimeter mount, a cylindrically shaped dosimeter housing comprising a cylindrical recess in which the dosimeter mount is rotatably mounted, a cylindrically shaped knob extending from a proximal end of the dosimeter mount, wherein the piece of OSLM has an exposed surface, wherein the device has an a reading configuration in which the exposed surface of the piece of OSLM is exposed in an opening of the dosimeter housing, wherein the device has a shielded configuration in which the exposed surface of the piece of OSLM is shield by the dosimeter housing, wherein the device is movable between the shielded configuration and the reading configuration by rotating the dosimeter mount relative to the dosimeter housing about a longitudinal axis by twisting the knob.
Composition comprising at least one surfactant and at least one natural material with a Mohs hardness of from 4 to 8, in particular 5 to 6, characterized in that the natural material is embedded in hydrogel particles; the natural material is pumice; and the composition is a composition for cleaning hard surfaces. the natural material is embedded in hydrogel particles; the natural material is pumice; and the composition is a composition for cleaning hard surfaces.
A power apparatus comprising an alternating current power source, a bridge rectifier circuit to subject alternating currents from said alternating current power source to full-wave rectification and a smoothing capacitor connected to two direct current output ends of said bridge rectifier circuit, further comprising: (a) a reactor connected between said alternating current power source and an alternating current input end of said bridge rectifier circuit; (b) a capacitor connected via a bi-directional switch between said alternating current input end and one of said two direct current output ends of said bridge rectifier circuit; (c) a zero-crossing detecting means to detect a zero voltage point of said alternating current power source; (d) a bi-directional switch drive signal generating means to generate a drive signal for said bi-directional switch based on an output of said zero-crossing detecting means; and (e) a bi-directional switch driving means to drive said bi-directional switch based on a signal of said bi-directional switch drive signal generating means, characterised in that no capacitor is connected between the other of said two direct current output ends of said bridge rectifier circuit and a node at which the capacitor is connected to the bi-directional switch. (a) a reactor connected between said alternating current power source and an alternating current input end of said bridge rectifier circuit; (b) a capacitor connected via a bi-directional switch between said alternating current input end and one of said two direct current output ends of said bridge rectifier circuit; (c) a zero-crossing detecting means to detect a zero voltage point of said alternating current power source; (d) a bi-directional switch drive signal generating means to generate a drive signal for said bi-directional switch based on an output of said zero-crossing detecting means; and (e) a bi-directional switch driving means to drive said bi-directional switch based on a signal of said bi-directional switch drive signal generating means, characterised in that no capacitor is connected between the other of said two direct current output ends of said bridge rectifier circuit and a node at which the capacitor is connected to the bi-directional switch.
A flight vehicle, comprising: a solid-propellant rocket motor; control circuitry; and an electrically-interconnective support structure, comprising: a unitary load-bearing frame, to which the solid-propellant rocket motor is mounted, comprising a woven insulative composite material; and a plurality of electrical conductors embedded within the unitary load-bearing frame and electrically coupling the solid-propellant rocket motor to the control circuitry; wherein the woven insulative composite material comprises a plurality of woven layers (100, 102, 104); and the plurality of electrical conductors is embedded within the woven layers. a solid-propellant rocket motor; control circuitry; and an electrically-interconnective support structure, comprising: a unitary load-bearing frame, to which the solid-propellant rocket motor is mounted, comprising a woven insulative composite material; and a plurality of electrical conductors embedded within the unitary load-bearing frame and electrically coupling the solid-propellant rocket motor to the control circuitry; a unitary load-bearing frame, to which the solid-propellant rocket motor is mounted, comprising a woven insulative composite material; and a plurality of electrical conductors embedded within the unitary load-bearing frame and electrically coupling the solid-propellant rocket motor to the control circuitry; wherein the woven insulative composite material comprises a plurality of woven layers (100, 102, 104); and the plurality of electrical conductors is embedded within the woven layers.
A computer-implemented method comprising: generating, by a communication device, a Session Initiation Protocol, SIP, request having a header indicating: a location identifier, ID, that is indicative of a current location of the communication device, wherein the location ID is a cell ID of a cell site within a trusted cellular radio access network and within cellular communication range of the communication device; a first timestamp indicating a time when the cell ID was obtained; and a second timestamp indicating a time when the SIP request is to be transmitted to a node within an Internet Protocol Multimedia Subsystem, IMS, network; and transmitting the SIP request, by the communication device and through an untrusted WiFi radio access network, to the node within the IMS network in order to access an IMS multimedia telephony service over the untrusted WiFi radio access network. a location identifier, ID, that is indicative of a current location of the communication device, wherein the location ID is a cell ID of a cell site within a trusted cellular radio access network and within cellular communication range of the communication device; a first timestamp indicating a time when the cell ID was obtained; and a second timestamp indicating a time when the SIP request is to be transmitted to a node within an Internet Protocol Multimedia Subsystem, IMS, network; and transmitting the SIP request, by the communication device and through an untrusted WiFi radio access network, to the node within the IMS network in order to access an IMS multimedia telephony service over the untrusted WiFi radio access network.
A method of preparing a composition, comprising the compound S p -1 in an amount of at least about 95% by weight wherein the method comprises reacting a compound 61501c with a compound 61501b to produce a compound 61501a: wherein R is H or a hydroxyl protecting group; L is halogen, aryloxide, benzenesulfonate group, camphorsulfonate group, or aryloxide substituted with at least one electron withdrawing group; optionally, when R is not H, the hydroxyl protecting group of the compound 61501a is deprotected to give the compound S p -1. wherein R is H or a hydroxyl protecting group; L is halogen, aryloxide, benzenesulfonate group, camphorsulfonate group, or aryloxide substituted with at least one electron withdrawing group; optionally, when R is not H, the hydroxyl protecting group of the compound 61501a is deprotected to give the compound S p -1.
A traveller (1; 301; 401; 501) for safety line for a fall arrest system, the traveller comprising: a slot (4; 304; 404; 504) extending to the exterior of the traveller, wherein the slot is defined between opposed slot edges (2a, 2b; 302a, 302b; 402a, 402b; 502a, 502b) and wherein the opposed slot edges are movable relative to one another such that the slot is reconfigurable between an open condition in which the slot dimension is of a first size for enabling mounting/de-mounting with respect to a safety line and a closed condition in which the slot remains, but at a smaller size to ensure the traveller remains mounted on the safety line; and a safety line locating shuttle (15; 315; 415; 515) provided on-board the traveller, characterized in that, in both the open condition and the closed condition, the safety line locating shuttle (15; 315; 415; 515) is movable relative to the slot (4; 304; 404; 504) along a predetermined path in a direction across the slot. a slot (4; 304; 404; 504) extending to the exterior of the traveller, wherein the slot is defined between opposed slot edges (2a, 2b; 302a, 302b; 402a, 402b; 502a, 502b) and wherein the opposed slot edges are movable relative to one another such that the slot is reconfigurable between an open condition in which the slot dimension is of a first size for enabling mounting/de-mounting with respect to a safety line and a closed condition in which the slot remains, but at a smaller size to ensure the traveller remains mounted on the safety line; and a safety line locating shuttle (15; 315; 415; 515) provided on-board the traveller, characterized in that, in both the open condition and the closed condition, the safety line locating shuttle (15; 315; 415; 515) is movable relative to the slot (4; 304; 404; 504) along a predetermined path in a direction across the slot.
A combination medicament, comprising - an IL-12 polypeptide, or a nucleic acid expression vector comprising a sequence encoding said IL-12 polypeptide, and - a non-agonist ligand selected from the group consisting of an antibody, an antibody fragment, and an antibody-like molecule, wherein said non-agonist ligand is capable of binding to one of PD-1, PD-L1 or PD-L2 with a dissociation constant of at least 10 -7 M -1, and wherein said non-agonist ligand is provided as a dosage form for systemic delivery, for use in the therapy of a malignant neoplastic disease, wherein - said IL-12 polypeptide, or said nucleic acid expression vector, is provided by administration into a tumour, into the vicinity of a tumour, or to the lymph node associated with a tumour. - an IL-12 polypeptide, or a nucleic acid expression vector comprising a sequence encoding said IL-12 polypeptide, and - a non-agonist ligand selected from the group consisting of an antibody, an antibody fragment, and an antibody-like molecule, wherein said non-agonist ligand is capable of binding to one of PD-1, PD-L1 or PD-L2 with a dissociation constant of at least 10 -7 M -1, and wherein said non-agonist ligand is provided as a dosage form for systemic delivery, - said IL-12 polypeptide, or said nucleic acid expression vector, is provided by administration into a tumour, into the vicinity of a tumour, or to the lymph node associated with a tumour.
A centering device for adjusting a support on which an object to be examined resides so as to center a volume of interest said object contains, said device being configured for acquiring, from each of a plurality of radiation receiving sites, an associated image carried on a respective incoming radiation beam, the acquired associated image including a projection of said volume of interest, said device comprising a centering controller configured for: communicating, to display, on a screen, an image acquired in said acquiring and the included projection; specifying a new position for said support; and characterised by said centering controller being further configured for, without need of further image acquisition, centering the projection of said volume of interest by updating said displayed image in correspondence with the specified new position. communicating, to display, on a screen, an image acquired in said acquiring and the included projection; specifying a new position for said support; and characterised by said centering controller being further configured for, without need of further image acquisition, centering the projection of said volume of interest by updating said displayed image in correspondence with the specified new position.
Method for setting or regulating tire inflation pressure (p) in at least one vehicle tire (2, 3) of a vehicle, in which - the tire inflation pressure (p) in at least one vehicle tire (2, 3) is regulated in measuring and inflating cycles by measuring and inflating, in that in each case a seal is applied in at least one rotary signal transmitter, and when the seal is applied a tire inflation pressure (p) is changed and/or measured, and subsequently the seal is decoupled again, wherein the measuring and inflating cycles can be initiated even during travel of the vehicle, and - in intermediate time periods between the measuring or inflating cycles the seal is not applied, characterized in that the measuring and inflating cycles and the intermediate time periods are set as a function of determined current vehicle variables (v, n, T_Br) of the vehicle. - the tire inflation pressure (p) in at least one vehicle tire (2, 3) is regulated in measuring and inflating cycles by measuring and inflating, in that in each case a seal is applied in at least one rotary signal transmitter, and when the seal is applied a tire inflation pressure (p) is changed and/or measured, and subsequently the seal is decoupled again, wherein the measuring and inflating cycles can be initiated even during travel of the vehicle, and - in intermediate time periods between the measuring or inflating cycles the seal is not applied,