mhurhangee/ep-ind-claims huggingface dataset:
An oven muffle defining a cooking chamber with a front opening, wherein the muffle comprises: - a back wall, a roof wall, a floor wall and two side walls (6, 7); - at least one lighting device configured to illuminate the cooking chamber; wherein the lighting device comprises: - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall; characterised in that the lighting device further comprises - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber. - a back wall, a roof wall, a floor wall and two side walls (6, 7); - at least one lighting device configured to illuminate the cooking chamber; wherein the lighting device comprises: - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall; - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall; characterised in that the lighting device further comprises - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber. - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber.
An apparatus for spatial audio signal encoding configured to: derive for each of a plurality of audio direction parameters, wherein each parameter comprises an elevation value and an azimuth value and wherein each parameter has an ordered position, a corresponding derived audio direction parameter comprising an elevation value and an azimuth value; rotate each derived audio direction parameter by the azimuth value of an audio direction parameter in the first position of the plurality of audio direction parameters; change the ordered position of an audio direction parameter to a further position coinciding with a position of a rotated derived audio direction parameter when the azimuth value of the audio direction parameter is closest to the azimuth value of the rotated derived audio direction parameter compared to the azimuth values of other rotated derived audio direction parameters, followed by the apparatus being configured to determine for each of the plurality of audio direction parameters a difference between each repositioned audio direction parameter and a corresponding rotated derived audio direction parameter; and quantise the difference for each of the plurality of audio direction parameters. derive for each of a plurality of audio direction parameters, wherein each parameter comprises an elevation value and an azimuth value and wherein each parameter has an ordered position, a corresponding derived audio direction parameter comprising an elevation value and an azimuth value; rotate each derived audio direction parameter by the azimuth value of an audio direction parameter in the first position of the plurality of audio direction parameters; change the ordered position of an audio direction parameter to a further position coinciding with a position of a rotated derived audio direction parameter when the azimuth value of the audio direction parameter is closest to the azimuth value of the rotated derived audio direction parameter compared to the azimuth values of other rotated derived audio direction parameters, followed by the apparatus being configured to determine for each of the plurality of audio direction parameters a difference between each repositioned audio direction parameter and a corresponding rotated derived audio direction parameter; and quantise the difference for each of the plurality of audio direction parameters.
Sensor unit for monitoring of physical training with a rubber band comprising: • a housing enclosing: ∘ attachment means (7, 9) for attaching the sensor to the rubber band; ∘ power source; ∘ means for measuring the tension of the rubber band, said means being associated with the attachment means (7, 9) as an integral part thereof; ∘ an internal or remote processor for processing data received from the means for measuring the tension of the rubber band; and characterised in that the sensor unit is to be fixed or held on the rubber band by squeezing the rubber band: - with a force generated by a spring or resilient element that may be a separate component or an integral part of the attachment means; - with a force created by magnetism; or - by winding or binding the rubber band around the sensor assembly or components of the sensor assembly. • a housing enclosing: ∘ attachment means (7, 9) for attaching the sensor to the rubber band; ∘ power source; ∘ means for measuring the tension of the rubber band, said means being associated with the attachment means (7, 9) as an integral part thereof; ∘ an internal or remote processor for processing data received from the means for measuring the tension of the rubber band; and ∘ attachment means (7, 9) for attaching the sensor to the rubber band; ∘ power source; ∘ means for measuring the tension of the rubber band, said means being associated with the attachment means (7, 9) as an integral part thereof; ∘ an internal or remote processor for processing data received from the means for measuring the tension of the rubber band; and - with a force generated by a spring or resilient element that may be a separate component or an integral part of the attachment means; - with a force created by magnetism; or - by winding or binding the rubber band around the sensor assembly or components of the sensor assembly.
An insulating filler which comprises a mixed powder in which on a surface of a magnesium oxide powder and/or a nitride-based inorganic powder having an average primary particle size D 2, a hydrophobic fumed oxide powder having an average primary particle size D 1 which is smaller than the average primary particle size D 2 is attached, wherein a ratio D 1 /D 2 of the average primary particle size D 1 to the average primary particle size D 2 is 6 × 10 -5 to 3 × 10 -3, wherein volume resistivity of the mixed powder is 1 × 10 11 Ω·m or more, wherein a content ratio of the hydrophobic fumed oxide powder is 5% by mass to 30% by mass when the mixed powder is made 100% by mass, wherein the nitride-based inorganic powder is one or more kinds selected from the group consisting of an aluminum nitride powder, a boron nitride powder and a silicon nitride powder, and wherein the hydrophobic fumed oxide is hydrophobic fumed silica, hydrophobic fumed alumina or hydrophobic fumed titania. wherein a ratio D 1 /D 2 of the average primary particle size D 1 to the average primary particle size D 2 is 6 × 10 -5 to 3 × 10 -3, wherein volume resistivity of the mixed powder is 1 × 10 11 Ω·m or more, wherein a content ratio of the hydrophobic fumed oxide powder is 5% by mass to 30% by mass when the mixed powder is made 100% by mass, wherein the nitride-based inorganic powder is one or more kinds selected from the group consisting of an aluminum nitride powder, a boron nitride powder and a silicon nitride powder, and wherein the hydrophobic fumed oxide is hydrophobic fumed silica, hydrophobic fumed alumina or hydrophobic fumed titania.
A non-transitory computer-readable medium for storing computer-executable instructions that are executed by a processor to perform operations comprising: unmixing an image data extracted from an assay, the unmixing using one or more initial reference vectors (351, 352, 353); determining a quality metric by applying a plurality of rules to one or more signals obtained from the unmixing of the image data; and adjusting the one or more initial reference vectors (351, 352, 353) based on the quality metric; wherein the plurality of rules is selected based on the assay information. unmixing an image data extracted from an assay, the unmixing using one or more initial reference vectors (351, 352, 353); determining a quality metric by applying a plurality of rules to one or more signals obtained from the unmixing of the image data; and adjusting the one or more initial reference vectors (351, 352, 353) based on the quality metric; wherein the plurality of rules is selected based on the assay information.
Vacuum cleaner (1, 100) having a lower body (20, 200) and an upper body (40, 400) enclosing notably a motor-ventilator and a device for separating waste, characterised in that: - the lower body (20, 200) and the upper body (40, 400) are made from expanded polypropylene, - at least one so-called upper rigid part (80, 190, 510) is supported on the upper body (40, 400), or is integrated into the upper body, - at least one so-called lower rigid part (11, 14, 152, 162) is supported under the lower body (20, 200), or is integrated into the lower body, - at least one rigid connecting element (12, 82, 150, 160, 194, 520) is mechanically connected to at least one upper part (80, 190, 510) and a lower part (11, 14, 152, 162) by passing through the upper body (40, 400) and the lower body (20, 200), in order to hold by compression the upper (40, 400) and the lower (20, 200) bodies. - the lower body (20, 200) and the upper body (40, 400) are made from expanded polypropylene, - at least one so-called upper rigid part (80, 190, 510) is supported on the upper body (40, 400), or is integrated into the upper body, - at least one so-called lower rigid part (11, 14, 152, 162) is supported under the lower body (20, 200), or is integrated into the lower body, - at least one rigid connecting element (12, 82, 150, 160, 194, 520) is mechanically connected to at least one upper part (80, 190, 510) and a lower part (11, 14, 152, 162) by passing through the upper body (40, 400) and the lower body (20, 200),
Ink jet printing method comprising the step of - providing an ensemble of dots to be printed with one to three drops each; and further comprising the steps of: Step-1: run through the ensemble of the dots to be printed; Step-2: for each dot of the ensemble of the dots formed by i drops delete all the neighbouring dots formed by j drops whose distance is less than a predetermined distance value (δij) between a dot formed with i drops and a dot formed with j drops, for all i and j between 1 and 3, i and j being integers, and keep non deleted dots as remaining dots; Step-3: assign the remaining dots to a layer corresponding to the run; Step-4 remove the remaining dots from the ensemble of the dots; Step-5 start again at step-1, for a further run if there are further dots in the ensemble of the dots or stop. - providing an ensemble of dots to be printed with one to three drops each; and further comprising the steps of: Step-1: run through the ensemble of the dots to be printed; Step-2: for each dot of the ensemble of the dots formed by i drops delete all the neighbouring dots formed by j drops whose distance is less than a predetermined distance value (δij) between a dot formed with i drops and a dot formed with j drops, for all i and j between 1 and 3, i and j being integers, and keep non deleted dots as remaining dots; Step-3: assign the remaining dots to a layer corresponding to the run; Step-4 remove the remaining dots from the ensemble of the dots; Step-5 start again at step-1, for a further run if there are further dots in the ensemble of the dots or stop. Step-1: run through the ensemble of the dots to be printed; Step-2: for each dot of the ensemble of the dots formed by i drops delete all the neighbouring dots formed by j drops whose distance is less than a predetermined distance value (δij) between a dot formed with i drops and a dot formed with j drops, for all i and j between 1 and 3, i and j being integers, and keep non deleted dots as remaining dots; Step-3: assign the remaining dots to a layer corresponding to the run; Step-4 remove the remaining dots from the ensemble of the dots; Step-5 start again at step-1, for a further run if there are further dots in the ensemble of the dots or stop.
An abnormality detection device for a sensor, comprising: a bridge circuit including sensor elements of which the impedance changes according to a change in a physical amount of a detection target, a voltage at a first bridge midpoint and a voltage at a second bridge midpoint exhibiting a change of which the amount of change is equal and the polarity is opposite with respect to a predetermined intermediate voltage according to a change in the impedance of the sensor element; an operational amplifier; a feedback resistor (Rf) provided between an output terminal and an inverting input terminal of the operational amplifier; a switch circuit that connects the first bridge midpoint to a non-inverting input terminal of the operational amplifier and connects the second bridge midpoint to the inverting input terminal of the operational amplifier in a first connection state, and connects the first bridge midpoint to the inverting input terminal of the operational amplifier and connects the second bridge midpoint to the non-inverting input terminal of the operational amplifier in a second connection state; and a determination unit that determines abnormality of a detection result of the physical amount acquired from an output of the bridge circuit based on a sum of an output signal of the operational amplifier in the first connection state and an output signal of the operational amplifier in the second connection state. a bridge circuit including sensor elements of which the impedance changes according to a change in a physical amount of a detection target, a voltage at a first bridge midpoint and a voltage at a second bridge midpoint exhibiting a change of which the amount of change is equal and the polarity is opposite with respect to a predetermined intermediate voltage according to a change in the impedance of the sensor element; an operational amplifier; a feedback resistor (Rf) provided between an output terminal and an inverting input terminal of the operational amplifier; a switch circuit that connects the first bridge midpoint to a non-inverting input terminal of the operational amplifier and connects the second bridge midpoint to the inverting input terminal of the operational amplifier in a first connection state, and connects the first bridge midpoint to the inverting input terminal of the operational amplifier and connects the second bridge midpoint to the non-inverting input terminal of the operational amplifier in a second connection state; and a determination unit that determines abnormality of a detection result of the physical amount acquired from an output of the bridge circuit based on a sum of an output signal of the operational amplifier in the first connection state and an output signal of the operational amplifier in the second connection state.
A method of monitoring changes in analyte concentration in a plurality of samples, comprising the steps of: (a) obtaining at least two separate and independent vessels, each defining a single retention chamber and having an analyte sensitive probe within the retention chamber, (b) placing a test sample into each vessel to form filled vessels, and (c) periodically interrogating the probe within each filled vessel employing a single interrogation device wherein (i) interrogations measure changes in the probe reflective of changes in analyte concentration within the retention chamber of the filled vessel, (ii) an initial interrogation of the probe is taken at time t 0 for each filled vessel, (iii) subsequent interrogations of the probe of each filled vessel are taken periodically on a schedule measured from the time to for each filled vessel, (iv) the initial interrogation of each filled vessel is taken at a different time of day, and (v) at least two filled vessels are contemporaneously interrogated, characterized in that (vi) the initial interrogation for at least one filled vessel occurs subsequent to a subsequent interrogation of at least one other filled vessel. (a) obtaining at least two separate and independent vessels, each defining a single retention chamber and having an analyte sensitive probe within the retention chamber, (b) placing a test sample into each vessel to form filled vessels, and (c) periodically interrogating the probe within each filled vessel employing a single interrogation device wherein (i) interrogations measure changes in the probe reflective of changes in analyte concentration within the retention chamber of the filled vessel, (ii) an initial interrogation of the probe is taken at time t 0 for each filled vessel, (iii) subsequent interrogations of the probe of each filled vessel are taken periodically on a schedule measured from the time to for each filled vessel, (iv) the initial interrogation of each filled vessel is taken at a different time of day, and (v) at least two filled vessels are contemporaneously interrogated, characterized in that (vi) the initial interrogation for at least one filled vessel occurs subsequent to a subsequent interrogation of at least one other filled vessel.
A connector comprising: a main body; first to third ports (24, 26, 28) provided at the main body, the first to third ports each having a flow channel allowing inflow or outflow of fluid; an internal flow channel provided in the main body, the internal flow channel configured to communicate between the flow channels of the first port and the second port; a space portion provided in the third port, and connected to the internal flow channel; and a wall surface provided on the internal flow channel, the wall surface configured to guide fluid flowing into the internal flow channel from the first port to the space portion, and reduce the cross-sectional area of the flow channel for the fluid near the space portion, relative to the cross-sectional area of the flow channel of the first port, wherein the wall surface is provided at a protruding portion extending from an axial center of the internal flow channel toward the third port and faces the flow channel of the first port, wherein the wall surface faces substantially perpendicularly to the axial direction of the flow channel of the first port, characterized in that the protruding portion has a notched portion (96, 97) connected to the wall surface, and notched toward the axial center of the internal flow channel, wherein the wall surface has an upper part projecting from the formed height of the flow channel of the first port. a main body; first to third ports (24, 26, 28) provided at the main body, the first to third ports each having a flow channel allowing inflow or outflow of fluid; an internal flow channel provided in the main body, the internal flow channel configured to communicate between the flow channels of the first port and the second port; a space portion provided in the third port, and connected to the internal flow channel; and a wall surface provided on the internal flow channel, the wall surface configured to guide fluid flowing into the internal flow channel from the first port to the space portion, and reduce the cross-sectional area of the flow channel for the fluid near the space portion, relative to the cross-sectional area of the flow channel of the first port, wherein the wall surface is provided at a protruding portion extending from an axial center of the internal flow channel toward the third port and faces the flow channel of the first port, wherein the wall surface faces substantially perpendicularly to the axial direction of the flow channel of the first port, characterized in that the protruding portion has a notched portion (96, 97) connected to the wall surface, and notched toward the axial center of the internal flow channel, wherein the wall surface has an upper part projecting from the formed height of the flow channel of the first port.
A heat exchanger for a domestic boiler or a water heater, the heat exchanger comprising a casing, which comprises a lateral wall extending about a longitudinal axis and a first and a second end wall (6, 7) coupled, on opposite sides, to the lateral wall; a tubular member, which is configured for conveying water, and is housed in the casing; and two clamps, each of which is arranged outside the casing and is connected to the first and the second end wall (6, 7) so as to clamp the lateral wall between the first and second end wall (6, 7); the heat exchanger being characterized in that each clamp is configured for being mounted on a support structure so as to fix the heat exchanger to the support structure.
An apparatus for adjustably positioning a form roll against at least two different sized plate cylinders (12a, 12b) in a variable cutoff printing unit, the form roll having a form roll axis (CL F), the apparatus comprising: a plate cylinder support for interchangeably supporting the at least two different sized plate cylinders (12a, 12b), the plate cylinder support including a plate cylinder axis (CL P); at least two different sized plate cylinder cams (60; 60a, 60b, 60c), the at least two different sized plate cylinder cams (60; 60a, 60b, 60c) being interchangeably removably connectable to the plate cylinder support, the at least two different sized plate cylinder cams (60; 60a, 60b, 60c) including a smaller plate cylinder cam and a larger plate cylinder cam that are removably connectable to the plate cylinder support as alternatives of each other; and a form roll hanger (40, 140, 240) for supporting the form roll, the form roll hanger (40, 140, 240) being adapted for contacting the smaller plate cylinder cam if the smaller plate cylinder cam is coupled to the plate cylinder support to set a smaller distance between the plate cylinder axis (CL P) and the form roll axis (CL F), the form roll hanger (40, 140, 240) being adapted for contacting the larger plate cylinder cam if the larger plate cylinder cam is coupled to the plate cylinder support to set a larger distance between the plate cylinder axis (CL P) and the form roll axis (CL F), characterized in that the plate cylinder axis (CL P) remains fixed as a size of the plate cylinder is changed. a plate cylinder support for interchangeably supporting the at least two different sized plate cylinders (12a, 12b), the plate cylinder support including a plate cylinder axis (CL P); at least two different sized plate cylinder cams (60; 60a, 60b, 60c), the at least two different sized plate cylinder cams (60; 60a, 60b, 60c) being interchangeably removably connectable to the plate cylinder support, the at least two different sized plate cylinder cams (60; 60a, 60b, 60c) including a smaller plate cylinder cam and a larger plate cylinder cam that are removably connectable to the plate cylinder support as alternatives of each other; and a form roll hanger (40, 140, 240) for supporting the form roll, the form roll hanger (40, 140, 240) being adapted for contacting the smaller plate cylinder cam if the smaller plate cylinder cam is coupled to the plate cylinder support to set a smaller distance between the plate cylinder axis (CL P) and the form roll axis (CL F), the form roll hanger (40, 140, 240) being adapted for contacting the larger plate cylinder cam if the larger plate cylinder cam is coupled to the plate cylinder support to set a larger distance between the plate cylinder axis (CL P) and the form roll axis (CL F), characterized in that the plate cylinder axis (CL P) remains fixed as a size of the plate cylinder is changed.