mhurhangee/ep-ind-claims huggingface dataset:
A fluid valve comprising: a first input port (2,22, 322, 1522, 2822); a second input port (220, 320, 420, 1520, 2820); and an output port (221, 321, 421, 1521, 2821), an elastomeric portion (102, 202, 302, 1502, 1902, 2802) that allows a fluid path from the second input port to the output port to be open when there is no flow of a high-pressure liquid of a pressure higher than a cracking pressure from the first input port to the output port, wherein the valve is configured such that the fluid path from the second input port to the output port is passively closed by a change of shape of the elastomeric portion when the high-pressure liquid flows through the first input port to the output port; the second input port is located in a first internal taper at an angle from a plane that is normal to a direction of fluid flow from the first input port to the output port; a second internal taper providing room for the change of shape of the elastomeric portion where the second internal taper is wider than the first taper; and characterised in that: the elastomeric portion comprises a valve disc having a slit. a first input port (2,22, 322, 1522, 2822); a second input port (220, 320, 420, 1520, 2820); and an output port (221, 321, 421, 1521, 2821), an elastomeric portion (102, 202, 302, 1502, 1902, 2802) that allows a fluid path from the second input port to the output port to be open when there is no flow of a high-pressure liquid of a pressure higher than a cracking pressure from the first input port to the output port, wherein the valve is configured such that the fluid path from the second input port to the output port is passively closed by a change of shape of the elastomeric portion when the high-pressure liquid flows through the first input port to the output port; the second input port is located in a first internal taper at an angle from a plane that is normal to a direction of fluid flow from the first input port to the output port; a second internal taper providing room for the change of shape of the elastomeric portion where the second internal taper is wider than the first taper; and characterised in that: the elastomeric portion comprises a valve disc having a slit.
Combination including 4-[(1E,3S)-3-ethenyl-3,7-dimethylocta-1,6-dienyl]phenol and a hydro-glycolic Tahiti vanilla pod extract obtained by extraction with at least one hydro-glycolic solvent, a hydro-glycolic solvent being a mixture of water and one or more C3 to C5 glycols.
A method of determining a concentration of at least one analyte in a bodily fluid by using a mobile device and a test element, the mobile device having a camera, and the test element having at least one test field, the method carried out by the mobile device comprising a) determining an angular orientation of the mobile device relative to the test element by using sensor data of at least one sensor device integrated into the mobile device; b) subjecting the angular orientation of the mobile device relative to the test element to at least one validity test; c) capturing at least one image of at least a part of the test element by using the camera, the at least one part of the test element comprising at least one part of the test field; and d) determining the concentration of the analyte in the bodily fluid from the image; wherein at least one of steps c) and d) is performed by taking into account the result of the validity test in step b), wherein the method comprises retrieving an image stream by using the camera, wherein step c) comprises capturing one or more still images separately from the image stream by using a still image mode of the camera of the mobile device, wherein the at least one still image provides enhanced spatial resolution and/or higher dynamics compared to the images from the image stream, wherein at least a part of the images of the image stream are flagged with at least one item of information regarding whether the image was retrieved at a point in time for which the validity test determines the angular orientation of the mobile device relative to the test element to be valid, wherein the capturing of the still image is initiated automatically in case an image of the image stream was flagged with an item of information indicating a valid image at a point in time for which the image of the image stream was flagged as being valid, and wherein step d) is performed at least partially on the at least one still image. a) determining an angular orientation of the mobile device relative to the test element by using sensor data of at least one sensor device integrated into the mobile device; b) subjecting the angular orientation of the mobile device relative to the test element to at least one validity test; c) capturing at least one image of at least a part of the test element by using the camera, the at least one part of the test element comprising at least one part of the test field; and d) determining the concentration of the analyte in the bodily fluid from the image;
A process of cutting a hard, brittle material with a wiresaw used in conjunction with a water-based cutting fluid, the process comprising the step of contacting the material with the wiresaw and cutting fluid under cutting conditions, the cutting fluid comprising: Water-soluble PAG with a cloud point, measured according to ASTM D 2024, from 30°C to 80°C, Water, and at least one of: A wetting agent; A dispersing agent; A defoamer; A corrosion inhibitor; A chelant; and A biocide, wherein the PAG is present in an amount of 0.01 to 20 weight percent based on the weight of the cutting fluid; and wherein the water is present in an amount of at least 60 and less than 98 wt% based on the weight of the cutting fluid. Water-soluble PAG with a cloud point, measured according to ASTM D 2024, from 30°C to 80°C, Water, and at least one of: A wetting agent; A dispersing agent; A defoamer; A corrosion inhibitor; A chelant; and A biocide,
A medium for plant cultivation comprising a thermoplastic resin containing at least one of an ethylene unit and a propylene unit, an extract obtained by treating 10 g of the thermoplastic resin with 50 mL of ion-exchange water at 95°C for 4 hours having a pH at 25°C not less than 4 and not more than 9.
A programmable device for controlling an energy consuming system, the device comprising: high-power consuming circuitry adapted and programmed to perform while in an active state a plurality of high power activities including interfacing with a user, the high-power consuming circuitry using substantially less power while in an inactive state; low-power consuming circuitry adapted and programmed to perform a plurality of low power activities; and power stealing circuitry adapted to harvest power from a triggering circuit for turning on and off a system function of the energy consuming system, the programmable device being characterised in that: the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system. high-power consuming circuitry adapted and programmed to perform while in an active state a plurality of high power activities including interfacing with a user, the high-power consuming circuitry using substantially less power while in an inactive state; low-power consuming circuitry adapted and programmed to perform a plurality of low power activities; and power stealing circuitry adapted to harvest power from a triggering circuit for turning on and off a system function of the energy consuming system, the programmable device being characterised in that: the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system. the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system.
A wireless power transmission apparatus for high efficiency energy charging, the apparatus comprising: a resonator (430, 454, 540, 640, 750) configured to transmit power; a power supply unit (410, 451, 510, 610, 710) comprising an input resistor (452, 563) and being configured to supply power to the resonator; a first switching unit (420, 453, 530, 564, 630, 662, 740) configured to connect the resonator to the power supply unit, and disconnect the resonator from the power supply unit; and a controller (440, 460, 566, 664, 760) configured to control the first switching unit based on voltage applied to the input resistor of the power supply unit characterized by a voltage controller (520, 720) comprising a direct current-to-direct current, DC-DC, converter and being configured to adjust the voltage applied to the input resistor based on voltage supplied by the power supply unit, wherein the DC-DC converter is configured to apply voltage lower than voltage supplied from the power supply unit to the input resistor. a resonator (430, 454, 540, 640, 750) configured to transmit power; a power supply unit (410, 451, 510, 610, 710) comprising an input resistor (452, 563) and being configured to supply power to the resonator; a first switching unit (420, 453, 530, 564, 630, 662, 740) configured to connect the resonator to the power supply unit, and disconnect the resonator from the power supply unit; and a controller (440, 460, 566, 664, 760) configured to control the first switching unit based on voltage applied to the input resistor of the power supply unit characterized by a voltage controller (520, 720) comprising a direct current-to-direct current, DC-DC, converter and being configured to adjust the voltage applied to the input resistor based on voltage supplied by the power supply unit, wherein the DC-DC converter is configured to apply voltage lower than voltage supplied from the power supply unit to the input resistor.
A recombinant tyrosine ammonia lyase, comprising the polypeptide sequence of SEQ ID NO: 10, 12 or 14, or comprising a variant selected from Variant No. 4-9, 12-23, 25-28, 30-35, 38-49, 51, 53-58, 60-63, 65-71, 73, 77-80, 83-85, 87, 89-92, 94, 98, 100-102, 106, 108, 110, 111, 113-122, 125, 126, 128-134, 136-139, 142-144, 146-148, 150-152 or 155-294 as shown in Tables 4-1, 4-2, 4-3, 4-4, 4-5, 4-6 and/or 4-7.
A method for accepting or rejecting hypothesis words in a hypothesis part using an adjustable acceptance threshold as part of a speech recognition system, the method comprising: receiving a speech input from a user with a speech recognition system comprising a microphone, processor, and memory; processing the speech input to generate a hypothesis; determining a hypothesis part corresponding to an expected response part stored in the memory, the hypothesis part having at least one hypothesis word, each hypothesis word having a corresponding confidence score; characterised in adjusting, by lowering, an acceptance threshold for each hypothesis word in the hypothesis part if the hypothesis part matches word-for-word the expected response part, otherwise not adjusting the acceptance threshold for each hypothesis word in the hypothesis part; comparing the confidence score for each hypothesis word in the hypothesis part to its acceptance threshold; and accepting or rejecting each hypothesis word in the hypothesis part based on the results of the comparison; wherein each hypothesis word is assigned a default acceptance threshold prior to adjustment. receiving a speech input from a user with a speech recognition system comprising a microphone, processor, and memory; processing the speech input to generate a hypothesis; determining a hypothesis part corresponding to an expected response part stored in the memory, the hypothesis part having at least one hypothesis word, each hypothesis word having a corresponding confidence score; characterised in adjusting, by lowering, an acceptance threshold for each hypothesis word in the hypothesis part if the hypothesis part matches word-for-word the expected response part, otherwise not adjusting the acceptance threshold for each hypothesis word in the hypothesis part; comparing the confidence score for each hypothesis word in the hypothesis part to its acceptance threshold; and accepting or rejecting each hypothesis word in the hypothesis part based on the results of the comparison; wherein each hypothesis word is assigned a default acceptance threshold prior to adjustment.
Method of producing a compact pushbutton component, comprising the following steps: - putting together an actuating head with a first spring element and a sleeve, in which is arranged at least one locking slide incorporating a second spring element and which has a recess on the underside, to form a pushbutton component; - fitting the pushbutton component, via the recess on the sleeve, onto a protrusion on the upper side of an assembly pin in the production tool, wherein the assembly pin is guided through an exterior housing incorporating a third spring element, - pushing the pushbutton component into the exterior housing and snap-fitting it in place. - putting together an actuating head with a first spring element and a sleeve, in which is arranged at least one locking slide incorporating a second spring element and which has a recess on the underside, to form a pushbutton component; - fitting the pushbutton component, via the recess on the sleeve, onto a protrusion on the upper side of an assembly pin in the production tool, wherein the assembly pin is guided through an exterior housing incorporating a third spring element, - pushing the pushbutton component into the exterior housing and snap-fitting it in place.
A microwave transceiver, comprising a data buffer, an adaptive coding and modulation, ACM, module, a power amplifier, PA, and an antenna, the ACM module being configured to receive buffered data from the data buffer and to modulate the buffered data at a modulation format having a spectral efficiency, the PA being configured to receive modulated buffered data from the ACM module, and to transmit amplified modulated buffered data, via the antenna, to a remote microwave transceiver at an output power, wherein the modulation format is selected from a plurality of modulation formats based on a feedback signal from the remote microwave transceiver, the microwave transceiver further comprising a control module configured to monitor a buffer state of the data buffer, and to control the output power of the PA based on the monitored buffer state, characterized in that the buffer state comprises a predicted future buffer fill level, and in that the control module is configured to control the output power of the PA based on the predicted future buffer fill level.
Crystalline Tigecycline characterized by a powder XRD pattern obtained using Copper radiation of 1.5418 Å having peaks at 6.8, 9.5, 9.8, 12.1, 12.6, 18.1, 20.2, 21.6, 23.3, and 26.8 ± 0.2 degrees 2- theta for use in the treatment of infections.
A power converter comprising a base conductor, an electrically heating member (1, 201) that generates heat due to electrical loss which is provided on the base conductor, a noise reduction capacitor of flat plate-shape in which via an insulator, a first electrode and a second electrode are alternately layered, so as to make a plurality of layers, whereby on one surface of the capacitor, the first electrode of an outermost layer is exposed and functions as a first external electrode and on another surface of the capacitor, the second electrode of an outermost layer is exposed and functions as a second external electrode, and a relay conductor of plate-shape which is electrically connected to another member than the electrically heating member (1, 201) via the noise reduction capacitor, wherein the external electrodes are parallel to the first electrode and the second electrode, wherein the second external electrode of the noise reduction capacitor is face-joined to the base conductor and the electrically heating member (1, 201) is provided so as to be affixed to the base conductor on the same surface of the base conductor, and the first external electrode and the relay conductor are face-joined.
A method of manufacturing a radiation detector comprising: providing a flexible supporting substrate that can transmit radiation there-through; forming a scintillator layer on one principal surface of the substrate, the scintillator layer including an incident surface on which radiation is incident and an emission surface emitting light generated by the incident radiation and on a side opposite to the incident surface; and disposing a light detection portion on an emission surface side of the scintillator layer for detecting light emitted from the emission surface, wherein a side surface of the scintillator layer is inclined outwardly as the side surface advances from the incident surface to the emission surface, the substrate has an outer edge portion that extends to reach the side surface of the scintillator layer and an outer periphery of the scintillator layer is reinforced by the substrate, and characterized in that the substrate and the scintillator layer are deformed by pressing them toward the light detection portion. providing a flexible supporting substrate that can transmit radiation there-through; forming a scintillator layer on one principal surface of the substrate, the scintillator layer including an incident surface on which radiation is incident and an emission surface emitting light generated by the incident radiation and on a side opposite to the incident surface; and disposing a light detection portion on an emission surface side of the scintillator layer for detecting light emitted from the emission surface, wherein a side surface of the scintillator layer is inclined outwardly as the side surface advances from the incident surface to the emission surface, the substrate has an outer edge portion that extends to reach the side surface of the scintillator layer and an outer periphery of the scintillator layer is reinforced by the substrate, and characterized in that the substrate and the scintillator layer are deformed by pressing them toward the light detection portion.
A method implemented in a control entity within a wireless communication system (100, 500), comprising: selecting, at the control entity, a plurality of sectors (105, 505) in response to receiving requests for a multicast service from mobile units located within the plurality of sectors; allocating, at the control entity, at least one of a plurality of interlace-multiplex pairs for providing the multicast service to the mobile units within the plurality of sectors, wherein the interlace-multiplex pairs are air interface resources of the wireless communication system that have been temporally divided into interlaces which are further subdivided into a plurality of multiplexes, wherein said at least one interlace-multiplex pair is allocated based on at least one priority list (305, 310, 315) that ranks priorities of the plurality of interlace-multiplex pairs according to how many of the plurality of sectors provide the multicast service using the corresponding interlace-multiplex pair; and establishing a call flow over an air interface to the mobile units using said at least one allocated interlace-multiplex pair. selecting, at the control entity, a plurality of sectors (105, 505) in response to receiving requests for a multicast service from mobile units located within the plurality of sectors; allocating, at the control entity, at least one of a plurality of interlace-multiplex pairs for providing the multicast service to the mobile units within the plurality of sectors, wherein the interlace-multiplex pairs are air interface resources of the wireless communication system that have been temporally divided into interlaces which are further subdivided into a plurality of multiplexes, wherein said at least one interlace-multiplex pair is allocated based on at least one priority list (305, 310, 315) that ranks priorities of the plurality of interlace-multiplex pairs according to how many of the plurality of sectors provide the multicast service using the corresponding interlace-multiplex pair; and establishing a call flow over an air interface to the mobile units using said at least one allocated interlace-multiplex pair.
An infusion pump system comprising: a syringe having an exit end and a plunger movable within the syringe; at least one temperature determination device for determining the temperature inside the syringe and/or outside the syringe; at least one device to detect the effect of a temperature change on the movement of the plunger, the device comprising an optical displacement sensor for detecting displacement of the plunger; a pump processor (300,400) in communication with the at least one temperature determination device and the at least one device to detect the effect of a temperature change on the movement of the plunger, and an occluder/exit valve located downstream from the syringe exit, wherein the occluder/exit valve occludes a flow path; characterised in that the pump system further comprises a flow sensor located downstream from the syringe exit; and the pump processor (300,400) is adapted, once the temperature determination device has determined that a threshold temperature change has occurred, to close the occluder/exit valve; and wherein where flow is detected and correlated with delivery instructions to determine whether the flow was requested, and wherein the flow is detected but this is not an expected event, the occluder/exit valve may be closed. a syringe having an exit end and a plunger movable within the syringe; at least one temperature determination device for determining the temperature inside the syringe and/or outside the syringe; at least one device to detect the effect of a temperature change on the movement of the plunger, the device comprising an optical displacement sensor for detecting displacement of the plunger; a pump processor (300,400) in communication with the at least one temperature determination device and the at least one device to detect the effect of a temperature change on the movement of the plunger, and an occluder/exit valve located downstream from the syringe exit, wherein the occluder/exit valve occludes a flow path; characterised in that the pump system further comprises a flow sensor located downstream from the syringe exit; and the pump processor (300,400) is adapted, once the temperature determination device has determined that a threshold temperature change has occurred, to close the occluder/exit valve; and wherein where flow is detected and correlated with delivery instructions to determine whether the flow was requested, and wherein the flow is detected but this is not an expected event, the occluder/exit valve may be closed.