mhurhangee/ep-ind-claims huggingface dataset:
A dialysis fluid tubing comprising at least: - a tubing adapter connected with at least one tubing section of the dialysis fluid tubing, wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, - a section provided for being connected, in use, with a bag heating device, - a tubing section to be inserted, in use, into a pump for conveying the dialysis fluid within the dialysis fluid tubing, wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump, and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device. - a tubing adapter connected with at least one tubing section of the dialysis fluid tubing, wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, - a section provided for being connected, in use, with a bag heating device, - a tubing section to be inserted, in use, into a pump for conveying the dialysis fluid within the dialysis fluid tubing, wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump, and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device. wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump, and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device.
Apparatus (11, 21, 31) for acquiring panoramic and optionally CBCT volumetric images, comprising an X-ray imaging group comprising a X-ray source projecting a collimated X-ray bundle through a patient, a bi-dimensional X-ray sensor placed so as to measure the intensity of the radiation after it crossed the patient, a support group supporting said source and sensor, which group comprises a C-arm to which said sensor and said source are fixed/fixable, said C arm hanging from a cantilevered arm of a vertically mobile support which is supported by a post; a mechanical system capable to allow the rotation and the translation of said C-arm around the patient, so as to acquire radiographic images from different positions; a patient positioning device for positioning the patient in an intermediate position between said X-ray source and said sensor; characterized in that said post comprises a stationary internal post and a mobile external post sliding on the internal post with a telescopic movement, the mobile external post being provided on the side of the said mobile external post opposite to the C-arm with a continuous slot extending in the direction of sliding of the said external post on the said internal post forming a passage for fixing means of the internal post to a stationary support such as a wall.
A pulmonary medication dosing device (14, 26, 33, 50, 80, 140) configured to divide a prescribed full medication dose into a plurality of sub-doses, the device comprising: a dosing chamber configured to retain the full dose of medication released by a metering valve (21, 53) of a medication canister (20, 52) coupled to the device upon the medication canister being depressed a single time; a valve (30, 39, 70, 88, 152) coupled to the dosing chamber and configured to control release of at least a portion of the full dose; a sensor (31, 94, 110, 126, 154) configured to generate a signal indicative of an air flow within a portion of the device, the air flow caused by an inhalation; and a processor configured to: receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient. a dosing chamber configured to retain the full dose of medication released by a metering valve (21, 53) of a medication canister (20, 52) coupled to the device upon the medication canister being depressed a single time; a valve (30, 39, 70, 88, 152) coupled to the dosing chamber and configured to control release of at least a portion of the full dose; a sensor (31, 94, 110, 126, 154) configured to generate a signal indicative of an air flow within a portion of the device, the air flow caused by an inhalation; and a processor configured to: receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient. receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient.
A wearing apparatus for wearing by a user, the wearing apparatus comprising: an inertial sensor, wherein the inertial sensor is based on the user's motion to obtain user's motion data; a communication module, wherein the communication module is used to link and transmit data to a server for real-time monitoring through the server; and a processor, wherein the processor is connected with the inertial sensor and the communication module, and wherein, the processor is further configured to acquire the user's motion data when the user is to stand up again via the inertial sensor after the processor detects user's fallback state based on the user's motion data, matches the user's motion data according to normal posture conditions and / or abnormal posture conditions in a database (114, 121) to report severity of the user's injury to a dispenser via the communication module; characterized in that the processor is configured to increase the number of times of the inertia sensor drawing the user's motion data per unit time to obtain more accurate data when the processor detects user's fall state; and in that the processor is further configured to preliminary record the user's motion data obtained by the user or the normal person's normal posture to establish the normal posture condition. an inertial sensor, wherein the inertial sensor is based on the user's motion to obtain user's motion data; a communication module, wherein the communication module is used to link and transmit data to a server for real-time monitoring through the server; and a processor, wherein the processor is connected with the inertial sensor and the communication module, and wherein, the processor is further configured to acquire the user's motion data when the user is to stand up again via the inertial sensor after the processor detects user's fallback state based on the user's motion data, matches the user's motion data according to normal posture conditions and / or abnormal posture conditions in a database (114, 121) to report severity of the user's injury to a dispenser via the communication module; characterized in that the processor is configured to increase the number of times of the inertia sensor drawing the user's motion data per unit time to obtain more accurate data when the processor detects user's fall state; and in that the processor is further configured to preliminary record the user's motion data obtained by the user or the normal person's normal posture to establish the normal posture condition.
A liquefied gas vaporization device comprising: a liquefied gas main pipe for guiding liquefied gas; a vaporizer for vaporizing the liquefied gas guided from the liquefied gas main pipe; a gas outlet pipe for guiding the gas vaporized in the vaporizer; a gas flowmeter that is provided in the gas outlet pipe; a flow rate adjusting valve that is provided in the liquefied gas main pipe for adjusting the flow rate of the liquefied gas guided to the vaporizer; a control unit for controlling the flow rate adjusting valve; a liquefied gas secondary pipe that branches and bypasses from the liquefied gas main pipe, that is provided so as to rejoin the liquefied gas main pipe, and that allows the liquefied gas having a lower flow rate than the liquefied gas main pipe to flow therethrough; a switching valve for switching between the liquefied gas main pipe and the liquefied gas secondary pipe; a liquid flowmeter for measuring the flow rate of the liquefied gas flowing through the liquefied gas secondary pipe; and a pressure-reducing means for reducing,the pressure of the liquefied gas flowing through the liquefied gas secondary pipe, wherein the control unit is arranged to control the flow rate adjusting valve on the basis of a measurement value of the gas flowmeter when the liquefied gas main pipe is selected by the switching valve and to control the flow rate adjusting valve on the basis of a measurement value of the liquid flowmeter when the liquefied gas secondary pipe is selected by the switching valve. a liquefied gas main pipe for guiding liquefied gas; a vaporizer for vaporizing the liquefied gas guided from the liquefied gas main pipe; a gas outlet pipe for guiding the gas vaporized in the vaporizer; a gas flowmeter that is provided in the gas outlet pipe; a flow rate adjusting valve that is provided in the liquefied gas main pipe for adjusting the flow rate of the liquefied gas guided to the vaporizer; a control unit for controlling the flow rate adjusting valve; a liquefied gas secondary pipe that branches and bypasses from the liquefied gas main pipe, that is provided so as to rejoin the liquefied gas main pipe, and that allows the liquefied gas having a lower flow rate than the liquefied gas main pipe to flow therethrough; a switching valve for switching between the liquefied gas main pipe and the liquefied gas secondary pipe; a liquid flowmeter for measuring the flow rate of the liquefied gas flowing through the liquefied gas secondary pipe; and a pressure-reducing means for reducing,the pressure of the liquefied gas flowing through the liquefied gas secondary pipe,
A method of controlling a dishwasher, the method comprising: linking a dishwasher and an air quality detection device, which is provided outside the dishwasher, with each other; determining whether to activate an automatically open door of the dishwasher; determining whether or not quality of indoor air detected from the air quality detection device is within a set range; characterized in that when the quality of the indoor air deviates from the set range, recommending the user to deactivate automatically open door of the dishwasher, and maintaining or deactivating the automatically open door of the dishwasher based on a command input from the user. linking a dishwasher and an air quality detection device, which is provided outside the dishwasher, with each other; determining whether to activate an automatically open door of the dishwasher; determining whether or not quality of indoor air detected from the air quality detection device is within a set range; characterized in that when the quality of the indoor air deviates from the set range, recommending the user to deactivate automatically open door of the dishwasher, and maintaining or deactivating the automatically open door of the dishwasher based on a command input from the user.
Apparatus for treating and cooling foundry moulding sand, comprising a mixing container and a mixing tool rotatable about a drive shaft, wherein there is provided an air feed for the feed of air into the container interior, wherein the mixing tool has at least two mixing vanes spaced from each other in the vertical direction and at least one mixing vane has a mixer blade with a surface which is inclined relative to the horizontal, wherein the container wall is inclined so that the container cross-section becomes larger in an upward direction from the container bottom, characterised in that each mixing vane has a mixer blade, wherein the spacing between mixer blade and container wall is approximately the same for all mixer blades.
A camera system comprising: an interchangeable lens including an image-pickup optical system configured to form an optical image of an object; a camera body including an image sensor configured to photoelectrically convert the optical image of the object formed by the image-pickup optical system; an adapter attachable between the interchangeable lens and the camera body, the adapter including a lens side mount to which the interchangeable lens is detachably attachable, a camera side mount detachably attachable to the camera body, a tilt-shift unit ( 210, 211) configured to provide at least one of a tilt operation and a shift operation vertical to an optical axis of the interchangeable lens, and a detector ( 212, 213) configured to detect at least one of a tilt amount and a shift amount; and a controller, characterized in that a flange focal length ( X b) of the interchangeable lens is longer than a flange focal length ( X a) of the camera body, a length ( X L) of the adapter from the lens side mount to the camera side mount in an optical axis direction is equal to or smaller than a difference between the flange focal length of the interchangeable lens and the flange focal length of the camera body, the image-pickup optical system includes a focus lens unit, and the controller is configured to control a focus driving range of the focus lens unit based on a detection result by the detector. an interchangeable lens including an image-pickup optical system configured to form an optical image of an object; a camera body including an image sensor configured to photoelectrically convert the optical image of the object formed by the image-pickup optical system; an adapter attachable between the interchangeable lens and the camera body, the adapter including a lens side mount to which the interchangeable lens is detachably attachable, a camera side mount detachably attachable to the camera body, a tilt-shift unit ( 210, 211) configured to provide at least one of a tilt operation and a shift operation vertical to an optical axis of the interchangeable lens, and a detector ( 212, 213) configured to detect at least one of a tilt amount and a shift amount; and a controller,
A decoupling device for separating a motor from a drive train, comprising a piston, which is movably mounted in a housing parallel to a longitudinal axis L of the housing and which comprises an arm for actuating the direct or indirect actuation of a coupling element, a first region of the piston being operatively connected to a first pressure chamber such that when pressure is applied to the first pressure chamber the piston is moved in a first direction parallel to the longitudinal axis L, a second pressure chamber being present, which is operatively connected to a second region of the piston such that when pressure is applied to the second pressure chamber the piston is moved in a second direction parallel to the longitudinal axis L, which is opposite the first direction, and the first region being located at a first longitudinal end of the piston and the second region being established by a recess in a lateral surface of the piston, characterised in that the recess is formed on a radially outer half of the lateral surface of the piston when viewed in relation to the longitudinal axis L.
A signal transmission method performed in a terminal device, comprising: generating a first scheduling request, SR, bit sequence, wherein a quantity of bits of the first SR bit sequence is equal to ceil(log 2 (1+N)), wherein ceil represents an operation of rounding up to a next integer, and N is a quantity of a plurality of SR configurations, an SR configuration indicates at least one of the following: a time-domain location of an SR, and a frequency-domain location of an SR; wherein a first state of the first SR bit sequence indicates that all of a plurality of SRs are negative SRs; wherein a second state of the first SR bit sequence indicates that a first SR is a positive SR, and the second state is different from the first state; wherein the first SR is one SR of a plurality of SRs, the first SR is associated with a first SR configuration, and the first SR configuration is one of the plurality of SR configurations; generating a hybrid automatic repeat request, HARQ, ACK/NACK bit sequence; and sending the HARQ ACK/NACK bit sequence and the first SR bit sequence through an uplink control channel. a time-domain location of an SR, and a frequency-domain location of an SR; wherein a first state of the first SR bit sequence indicates that all of a plurality of SRs are negative SRs; wherein a second state of the first SR bit sequence indicates that a first SR is a positive SR, and the second state is different from the first state; wherein the first SR is one SR of a plurality of SRs, the first SR is associated with a first SR configuration, and the first SR configuration is one of the plurality of SR configurations; generating a hybrid automatic repeat request, HARQ, ACK/NACK bit sequence; and sending the HARQ ACK/NACK bit sequence and the first SR bit sequence through an uplink control channel.
A cooling roller way for improving the cooling uniformity of a spinning coil, comprising a roller way body and several guiding mechanisms installed at both sides of the roller way body, wherein the guiding mechanisms at both sides of the roller way body are staggered, the roller way body is used to transport a coil, and the guiding mechanisms are used to change the running trajectory of the coil, so that overlapping points of the coil are uniformly distributed; wherein the guiding mechanism comprises a fixed seat and a guide wheel, the guide wheel is adjustable in position and is installed on the fixed seat, and the position adjustment direction of the guide wheel is staggered with the transmission direction of the roller way body; and wherein guide plates are provided at both sides of the fixed seat.
A method at a primary communication device capable of communicating with a secondary communication device, the method comprising: - recognizing (4:10) a successful log-in of the primary communication device; - receiving (4:50), from the secondary communication device data indicative of the physiological status of the user of the secondary communication device, wherein the received data is data that has been captured by at least one sensor of the secondary communication device, via the body of said user; - capturing (4:60) data indicative of the physiological status of the user, wherein the captured data is sensed by at least one sensor of the primary communication device via the body of said user; - comparing (4:70) the acquired data and determining whether there is a match between the compared data, and - transmitting (4:80), to the secondary communication device, at least one credential, required by the secondary communication device for extending said log-in to the secondary communication device, in case there is a match between the compared data. - recognizing (4:10) a successful log-in of the primary communication device; - receiving (4:50), from the secondary communication device data indicative of the physiological status of the user of the secondary communication device, wherein the received data is data that has been captured by at least one sensor of the secondary communication device, via the body of said user; - capturing (4:60) data indicative of the physiological status of the user, wherein the captured data is sensed by at least one sensor of the primary communication device via the body of said user; - comparing (4:70) the acquired data and determining whether there is a match between the compared data, and - transmitting (4:80), to the secondary communication device, at least one credential, required by the secondary communication device for extending said log-in to the secondary communication device, in case there is a match between the compared data.
A diagnostic method for a Diesel engine for determining whether said engine, or at least one device connected to said engine, is affected by one or several malfunctions negatively impacting the degree of pollution of the exhaust gases produced by said engine, comprising the steps of: - analyzing the level of a first exhaust gas, or the evolution of said exhaust gas level, according to a predetermined state of said engine, and - deducing or characterizing, from said analysis, a malfunction affecting said engine and/or said device connected thereto, wherein said first exhaust gas is carbon dioxide. - analyzing the level of a first exhaust gas, or the evolution of said exhaust gas level, according to a predetermined state of said engine, and - deducing or characterizing, from said analysis, a malfunction affecting said engine and/or said device connected thereto,
A multiple epitope fusion protein comprising epitopes from STEC 0157:H7 Tir, STEC 026:H11 Tir, STEC O103:H2 Tir and STEC 0111:NM Tir, wherein the protein comprises a full-length STEC 0157:H7 Tir sequence corresponding to amino acids 1-558 of SEQ ID NO:52; a STEC 0111:NM Tir epitope comprising a sequence of amino acids corresponding to amino acids 565-644 of SEQ ID NO:52; a STEC 026:H11 Tir epitope comprising a sequence of amino acids corresponding to amino acids 651-705 of SEQ ID NO:52; and a STEC 0103:H2 Tir epitope comprising a sequence of amino acids corresponding to amino acids 712-741 of SEQ ID NO:52.