mhurhangee/ep-ind-claims huggingface dataset:
An onboard optical disc device comprising: a drive unit for an optical disc; a loading unit adapted to convey the optical disc to the drive unit or ejects the optical disc from the drive unit; an optical pickup unit adapted to perform data reading from the optical disc driven by the drive unit or data writing to the optical disc; and a control unit connected to the optical pickup unit, the loading unit and the drive unit, wherein the control unit has: a main CPU connected to the drive unit and the optical pickup unit; a sub CPU connected to the loading unit and the drive unit; and a temperature sensor adapted to detect a temperature of the main CPU, and wherein when in operation, the temperature of the main CPU detected by the temperature sensor exceeds a set temperature, the operation of the main CPU is suspended and the driving of the drive unit is switched from the main CPU to the sub CPU in order to cool the main CPU with the airflow generated by the rotation of the optical disc. a drive unit for an optical disc; a loading unit adapted to convey the optical disc to the drive unit or ejects the optical disc from the drive unit; an optical pickup unit adapted to perform data reading from the optical disc driven by the drive unit or data writing to the optical disc; and a control unit connected to the optical pickup unit, the loading unit and the drive unit, wherein the control unit has: a main CPU connected to the drive unit and the optical pickup unit; a sub CPU connected to the loading unit and the drive unit; and a temperature sensor adapted to detect a temperature of the main CPU, and wherein when in operation, the temperature of the main CPU detected by the temperature sensor exceeds a set temperature, the operation of the main CPU is suspended and the driving of the drive unit is switched from the main CPU to the sub CPU in order to cool the main CPU with the airflow generated by the rotation of the optical disc. a main CPU connected to the drive unit and the optical pickup unit; a sub CPU connected to the loading unit and the drive unit; and a temperature sensor adapted to detect a temperature of the main CPU, and wherein when in operation, the temperature of the main CPU detected by the temperature sensor exceeds a set temperature, the operation of the main CPU is suspended and the driving of the drive unit is switched from the main CPU to the sub CPU in order to cool the main CPU with the airflow generated by the rotation of the optical disc.
Mounting arrangement for a drug-delivery device comprising - a plug element with a longitudinal axis and a housing part having a recess with a side wall which is adapted to receive a front section of the plug element, - wherein the side wall of the recess is provided with a protrusion for fixing the plug element in a given position relative to the housing part by a force-fit engagement, wherein the recess of the housing part has the shape of a hollow cylinder, wherein the longitudinal profile of the protrusion of the recess is inclined along a longitudinal end section of the protrusion for the purpose of facilitating the insertion of the plug element into the recess when establishing the force-fit engagement, wherein the front section of the plug element has the shape of a cylinder, and wherein the protrusion is deformable such that the plug element is fixed in a given position relative to the housing part in the force-fit engagement, characterized in that the plug element and the recess are designed such that with the protrusion arranged on the side wall, the protrusion is deformed during an assembly when the plug element is plugged into the recess, wherein the deformation of the protrusion is plastically or plastically and elastically, and in that the protrusion is formed integrally with the housing part. - a plug element with a longitudinal axis and a housing part having a recess with a side wall which is adapted to receive a front section of the plug element, - wherein the side wall of the recess is provided with a protrusion for fixing the plug element in a given position relative to the housing part by a force-fit engagement, wherein the recess of the housing part has the shape of a hollow cylinder, wherein the longitudinal profile of the protrusion of the recess is inclined along a longitudinal end section of the protrusion for the purpose of facilitating the insertion of the plug element into the recess when establishing the force-fit engagement, wherein the front section of the plug element has the shape of a cylinder, and wherein the protrusion is deformable such that the plug element is fixed in a given position relative to the housing part in the force-fit engagement, characterized in that the plug element and the recess are designed such that with the protrusion arranged on the side wall, the protrusion is deformed during an assembly when the plug element is plugged into the recess, wherein the deformation of the protrusion is plastically or plastically and elastically, and in that the protrusion is formed integrally with the housing part.
A scroll compressor, for compressing refrigerant, comprising: a casing; a fixed scroll fixed to an interior of the casing; an orbiting scroll movably engaged with the fixed scroll so as to form compression chambers therebetween that are consecutively moved as the orbiting scroll moves relative to the fixed scroll; a back pressure chamber formed at a bearing surface formed between the fixed and orbiting scrolls, wherein the back pressure chamber is configured to support a position of the orbiting scroll against the fixed scroll; characterised by a first passage formed in the fixed scroll and configured to guide refrigerant compressed in the compression chambers back into the back pressure chamber; and a second passage formed at the fixed scroll and configured to guide refrigerant into the compression chambers from a refrigerating cycle, an angle between the first passage and the second passage is greater than approximately 30° in a circumferential direction along the wrap of the scroll, and an outlet of the second passage is closer to a discharge side of the compression chambers than an outlet of the first passage is. a casing; a fixed scroll fixed to an interior of the casing; an orbiting scroll movably engaged with the fixed scroll so as to form compression chambers therebetween that are consecutively moved as the orbiting scroll moves relative to the fixed scroll; a back pressure chamber formed at a bearing surface formed between the fixed and orbiting scrolls, wherein the back pressure chamber is configured to support a position of the orbiting scroll against the fixed scroll; characterised by a first passage formed in the fixed scroll and configured to guide refrigerant compressed in the compression chambers back into the back pressure chamber; and a second passage formed at the fixed scroll and configured to guide refrigerant into the compression chambers from a refrigerating cycle, an angle between the first passage and the second passage is greater than approximately 30° in a circumferential direction along the wrap of the scroll, and an outlet of the second passage is closer to a discharge side of the compression chambers than an outlet of the first passage is.
Packaging apparatus for packaging at least one article with a tubular film to be pulled over the article, with a machine frame on which a film supply apparatus, a movable film covering apparatus and a drive for moving the film covering apparatus are arranged, characterized in that the packaging apparatus has at least one releasable drive coupling which is designed in such a manner that the drive can be brought into operative connection optionally either with the film covering apparatus or with at least one subcomponent of the film supply apparatus in such a manner that then either the film covering apparatus or at least the relevant subcomponent of the film supply apparatus can be moved on the machine frame by the drive.
A sterile decellularized amniotic fluid (D-HAF) for use in a method of treating or preventing a lung disorder or injury, wherein the method comprises administering to the lung of a subject the sterile D-HAF in the form of aerosol or with a nebulizer, that generates aerosol droplets with a size between about 1.5 μm to about 5 μm, inclusive, in a dosage unit between about 0.1 mL and about 10.0 mL and in an amount effective to treat, alleviate, or prevent one or more symptoms of the lung disorder or injury, wherein the D-HAF is devoid of amniotic cells, amniotic membrane particulate matter, and chorion particles.
An injection system for a pipe for compressed gas, particularly compressed natural gas, with (a) an injection point that comprises (i) an injection nozzle and (ii) a head part which supports the injection nozzle, characterised in that (b) the injection point (i) comprises a stopcock, particularly a ball valve, and (ii) the injection nozzle passes through the stopcock into the pipe and extends along an injection point longitudinal axis, and that (c) the injection system features a injection nozzle removal device which comprises (i) a frame for reversibly fixing the injection nozzle removal device relative to the injection point, and (ii) a worm drive that has a spindle and a spindle head, (iii) wherein the spindle head is designed to connect to the head part and to move the head part along the injection point longitudinal axis. (a) an injection point that comprises (i) an injection nozzle and (ii) a head part which supports the injection nozzle, characterised in that (i) an injection nozzle and (ii) a head part which supports the injection nozzle, (b) the injection point (i) comprises a stopcock, particularly a ball valve, and (ii) the injection nozzle passes through the stopcock into the pipe and extends along an injection point longitudinal axis, and that (i) comprises a stopcock, particularly a ball valve, and (ii) the injection nozzle passes through the stopcock into the pipe and extends along an injection point longitudinal axis, and that (c) the injection system features a injection nozzle removal device which comprises (i) a frame for reversibly fixing the injection nozzle removal device relative to the injection point, and (ii) a worm drive that has a spindle and a spindle head, (iii) wherein the spindle head is designed to connect to the head part and to move the head part along the injection point longitudinal axis. (i) a frame for reversibly fixing the injection nozzle removal device relative to the injection point, and (ii) a worm drive that has a spindle and a spindle head, (iii) wherein the spindle head is designed to connect to the head part and to move the head part along the injection point longitudinal axis.
A device for aligning magnetic or magnetizable particles which are contained in a coating means applied to a first side of a web-type or sheet-type substrate, comprising - an application device arranged in the transport path of the substrate, by means of which the coating means is applied and/or is applicable to at least one application point on the first side of the substrate, - a first cylinder designed as a magnetic cylinder, which is arranged downstream from the application device in the transport path of the substrate to be conveyed and having a plurality of elements inducing a magnetic field in the region of its outer circumference, - a further cylinder (38*; 39) designed as a magnetic cylinder (38*; 39), which is arranged downstream from the first cylinder designed as a magnetic cylinder in the transport path of the substrate to be conveyed and having a plurality of elements inducing a magnetic field in the region of its outer circumference, - a drying and/or curing device which is arranged on the transport path between the point of the winding-on of the substrate to the first cylinder and the point of winding-on to the further cylinder (38*; 39), characterized in that the first cylinder designed as a magnetic cylinder is arranged in the transport path of the substrate to be conveyed on its second side, and that the drying and/or curing device in the transport path of the substrate to be conveyed is directed to its first side. - an application device arranged in the transport path of the substrate, by means of which the coating means is applied and/or is applicable to at least one application point on the first side of the substrate, - a first cylinder designed as a magnetic cylinder, which is arranged downstream from the application device in the transport path of the substrate to be conveyed and having a plurality of elements inducing a magnetic field in the region of its outer circumference, - a further cylinder (38*; 39) designed as a magnetic cylinder (38*; 39), which is arranged downstream from the first cylinder designed as a magnetic cylinder in the transport path of the substrate to be conveyed and having a plurality of elements inducing a magnetic field in the region of its outer circumference, - a drying and/or curing device which is arranged on the transport path between the point of the winding-on of the substrate to the first cylinder and the point of winding-on to the further cylinder (38*; 39),
A glass container comprising: a body having an inner surface, an outer surface and a wall thickness extending between the outer surface and the inner surface, and a coating positioned around at least a portion of the outer surface of the body, characterised in that the coating is a tenacious organic coating and the outer surface of the body with the coating has a coefficient of friction less than or equal to 0.7; and in that at least the inner surface of the body has a delamination factor less than or equal to 10. a body having an inner surface, an outer surface and a wall thickness extending between the outer surface and the inner surface, and a coating positioned around at least a portion of the outer surface of the body, characterised in that the coating is a tenacious organic coating and the outer surface of the body with the coating has a coefficient of friction less than or equal to 0.7; and in that at least the inner surface of the body has a delamination factor less than or equal to 10.
A bicycle comprising: a front wheel and a rear wheel; a frame supported on the front wheel and the rear wheel and including a frame mount; a battery to provide power to an electric motor, the battery including a battery mount engaged with the frame mount, wherein one of the battery mount and the frame mount includes a depression and the other of the battery mount and the frame mount includes a boss positioned in the depression comprising a slot, characterized in that the boss is an eccentric boss comprising an elongated shaft having a cam profile with a low point defining a first boss width and a high point defining a second boss width larger than the first boss width, the depression designed to receive the eccentric boss at multiple locations to accommodate slight differences in a length of the battery, wherein the slot or the eccentric boss comprises a resilient material to securely hold the eccentric boss in the depression, the slot has a width that is dimensioned to easily receive the first boss width of the eccentric boss, and when the battery is rotated to a fully attached position, the eccentric boss is rotated such that the second boss width of the eccentric boss is presented to the slot, thereby wedging the eccentric boss in the slot and creating an interference fit with the depression. a front wheel and a rear wheel; a frame supported on the front wheel and the rear wheel and including a frame mount; a battery to provide power to an electric motor, the battery including a battery mount engaged with the frame mount, wherein one of the battery mount and the frame mount includes a depression and the other of the battery mount and the frame mount includes a boss positioned in the depression comprising a slot, characterized in that the boss is an eccentric boss comprising an elongated shaft having a cam profile with a low point defining a first boss width and a high point defining a second boss width larger than the first boss width, the depression designed to receive the eccentric boss at multiple locations to accommodate slight differences in a length of the battery, wherein the slot or the eccentric boss comprises a resilient material to securely hold the eccentric boss in the depression, the slot has a width that is dimensioned to easily receive the first boss width of the eccentric boss, and when the battery is rotated to a fully attached position, the eccentric boss is rotated such that the second boss width of the eccentric boss is presented to the slot, thereby wedging the eccentric boss in the slot and creating an interference fit with the depression.
Device for determining the filling height of liquid refrigerant in a refrigerant collecting container of a refrigerant circuit, the device comprising: a plurality of temperature sensors (4a, 4b) arranged in one extension at different, particularly equidistant positions; at least one heating device configured for heating the temperature sensors (4a, 4b); wherein the plurality of temperature sensors (4a, 4b) and the at least one heating device are configured to be positioned along a vertical extension of the container, and an analysing unit connected to the temperature sensors (4a, 4b) for receiving output signals from the temperature sensors (4a, 4b), and configured to determine the filling height of liquid refrigerant within in the container based on the output signals received from the temperature sensors (4a, 4b) characterized in that the device further comprises a measurement pipe arranged to be fluidly connected to the refrigerant collecting container, wherein the temperature sensors (4a, 4b) are attached to the measurement pipe. a plurality of temperature sensors (4a, 4b) arranged in one extension at different, particularly equidistant positions; at least one heating device configured for heating the temperature sensors (4a, 4b); wherein the plurality of temperature sensors (4a, 4b) and the at least one heating device are configured to be positioned along a vertical extension of the container, and an analysing unit connected to the temperature sensors (4a, 4b) for receiving output signals from the temperature sensors (4a, 4b), and configured to determine the filling height of liquid refrigerant within in the container based on the output signals received from the temperature sensors (4a, 4b) connected to the temperature sensors (4a, 4b) for receiving output signals from the temperature sensors (4a, 4b), and configured to determine the filling height of liquid refrigerant within in the container based on the output signals received from the temperature sensors (4a, 4b) characterized in that the device further comprises a measurement pipe arranged to be fluidly connected to the refrigerant collecting container, wherein the temperature sensors (4a, 4b) are attached to the measurement pipe.
An image processing apparatus comprising: a primary transformation section that performs a primary transformation that is a transformation process for a predicted residual that is a difference between an image and a predicted image of the image; a secondary transformation section that performs a secondary transformation that is a transformation process for primary transformation coefficients obtained by the primary transformation of the predicted residual performed by the primary transformation section; and a clip processing section that uses one or both a predetermined upper limit and a predetermined lower limit to clip the secondary transformation coefficients generated by the secondary transformation section; wherein the one or both of the predetermined upper limit and predetermined lower limit are decided based on a bit depth of an input signal comprising the image and on an extended computation precision flag, that is notified to an image decoding apparatus in a parameter set. a primary transformation section that performs a primary transformation that is a transformation process for a predicted residual that is a difference between an image and a predicted image of the image; a secondary transformation section that performs a secondary transformation that is a transformation process for primary transformation coefficients obtained by the primary transformation of the predicted residual performed by the primary transformation section; and a clip processing section that uses one or both a predetermined upper limit and a predetermined lower limit to clip the secondary transformation coefficients generated by the secondary transformation section; wherein the one or both of the predetermined upper limit and predetermined lower limit are decided based on a bit depth of an input signal comprising the image and on an extended computation precision flag, that is notified to an image decoding apparatus in a parameter set.
A method for distributing sample tests in an in vitro diagnostics, IVD, environment comprising: identifying a plurality of expected tests to be performed by a plurality of analyzer modules (step 32); determining information about the capabilities of the plurality of analyzer modules (step 33); receiving, at a processor, data reflecting an identification which of the plurality of expected tests are incompatible (step 34); calculating, using the processor, an optimal distribution of the plurality of expected tests amongst the plurality of analyzer modules (step 36); allocating reagents to each of the plurality of analyzer modules by facilitating distribution of a plurality of reagents to selected analyzer modules in response to the step of calculating (step 37); and scheduling a plurality of samples to undergo tests at the plurality of analyzer modules (step 38), wherein at least a portion of the samples are scheduled to traverse an automation system to undergo tests at more than one of the plurality of analyzer modules to complete a plurality of test panels characterized in that the method further comprises receiving, at the processor, data reflecting which of the plurality of expected tests are chemically incompatible, due to the use of reagents that react poorly with reagents of another test (step 34). identifying a plurality of expected tests to be performed by a plurality of analyzer modules (step 32); determining information about the capabilities of the plurality of analyzer modules (step 33); receiving, at a processor, data reflecting an identification which of the plurality of expected tests are incompatible (step 34); calculating, using the processor, an optimal distribution of the plurality of expected tests amongst the plurality of analyzer modules (step 36); allocating reagents to each of the plurality of analyzer modules by facilitating distribution of a plurality of reagents to selected analyzer modules in response to the step of calculating (step 37); and scheduling a plurality of samples to undergo tests at the plurality of analyzer modules (step 38), wherein at least a portion of the samples are scheduled to traverse an automation system to undergo tests at more than one of the plurality of analyzer modules to complete a plurality of test panels characterized in that the method further comprises receiving, at the processor, data reflecting which of the plurality of expected tests are chemically incompatible, due to the use of reagents that react poorly with reagents of another test (step 34).