mhurhangee/patent-ind-claim-en huggingface dataset:
Device for producing foam for wellness and/or hygiene applications with a vessel to be filled with a mixture of water and a component producing foam, where said vessel comprises a device for blowing air into said mixture to produce foam, wherein said device comprises at least two vessels to be filled with said mixture arranged one above the other in a vertical direction in tiers, where said vessels comprise said device for blowing air into said mixture to produce foam, where said vessels are open towards an outlet region such that the foam produced in said vessels is merged in said outlet region , characterized in that said devices for blowing air in are configured such that the air is introduced over a large area along the bases of said vessels , in that the air is introduced into the container or into the mixture contained therein in the region of an area of at least 40% of the area of the base of a vessel just above the base or from the base.
A lighting device for illuminating an aquarium , comprising: a base layer , a plurality of lighting elements mounted on the base layer and comprising a first and a second subset of lighting elements arranged for emitting a first and a second spectrum of light respectively; a light transmission affecting device arranged for affecting the transmission of light from the plurality of lighting elements; wherein the light transmission affecting device is arranged for passing at least a part of the light from at least one lighting element of the first subset having the first emitting spectrum and processing the light from at least one lighting element of the second subset having the second emitting spectrum; said lighting device being characterized in that the first emitting spectrum comprises white light or a first colored light; wherein the first colored light comprises wavelength in a first range with peak wavelength below 485 nm; and the second emitting spectrum comprises a second colored light; wherein the second colored light comprises wavelength in a second range with a peak wavelength larger than 485 nm. a base layer , a plurality of lighting elements mounted on the base layer and comprising a first and a second subset of lighting elements arranged for emitting a first and a second spectrum of light respectively; a light transmission affecting device arranged for affecting the transmission of light from the plurality of lighting elements; wherein the light transmission affecting device is arranged for passing at least a part of the light from at least one lighting element of the first subset having the first emitting spectrum and processing the light from at least one lighting element of the second subset having the second emitting spectrum; said lighting device being characterized in that the first emitting spectrum comprises white light or a first colored light; wherein the first colored light comprises wavelength in a first range with peak wavelength below 485 nm; and the second emitting spectrum comprises a second colored light; wherein the second colored light comprises wavelength in a second range with a peak wavelength larger than 485 nm.
A method for controlling a filling process of an operating fluid container , which can be filled via a filler pipe opening out into the operating fluid container by means of a filling device , wherein the operating fluid container has a venting valve , which can be electrically actuated between an open position, in which the operating fluid container is fluidically connected to the atmosphere, at least indirectly, by means of the venting valve , and a closed position, in which the operating fluid container is fluidically separated from the atmosphere by means of the venting valve , wherein the method has the following method steps: a) moving the venting valve into its open position; b) determining a filling level of the operating fluid container ; characterized by the further procedural steps: c) reducing a venting volume flow through the venting valve if the filling level of the operating fluid container has reached or exceeded a predetermined shut-off filling level; d) determining a filling stop of the filling device ; and e) moving the venting valve into its closed position after a predetermined time period (t1) after determining the filling stop. a) moving the venting valve into its open position; b) determining a filling level of the operating fluid container ; characterized by the further procedural steps: c) reducing a venting volume flow through the venting valve if the filling level of the operating fluid container has reached or exceeded a predetermined shut-off filling level; d) determining a filling stop of the filling device ; and e) moving the venting valve into its closed position after a predetermined time period (t1) after determining the filling stop.
A musical instrument drum comprising a shell, said shell comprising a laminated plyboard , the laminated plyboard comprising: a first layer portion (S1) including at least one layer; a second layer portion (S2) including at least one layer; and an impregnated layer impregnated with phenol and sandwiched between the first layer portion (S1) and the second layer portion (S2), wherein the first layer portion (S1) is positioned visibly outside the impregnated layer , characterized in that the rigidity coefficient of the impregnated layer is higher than the rigidity coefficients of the layers that configure the first layer portion (S1) and the second layer portion (S2), the first layer portion (S1) is arranged such that a wood grain of the first layer portion goes along a peripheral direction of the shell , thickness and arrangement of layers that configure the first layer portion (Sl) and thickness and arrangement of layers that configure the second layer portion (S2) are not symmetrical about a center of the impregnated layer in a thickness direction, and the bending rigidity of the first layer portion (Sl) with respect to a central axis passing through a center of the impregnated layer in a thickness direction and perpendicular to the thickness direction, and the bending rigidity of the second layer portion (S2) with respect to the central axis are approximately equal. a first layer portion (S1) including at least one layer; a second layer portion (S2) including at least one layer; and an impregnated layer impregnated with phenol and sandwiched between the first layer portion (S1) and the second layer portion (S2), wherein the first layer portion (S1) is positioned visibly outside the impregnated layer , characterized in that the rigidity coefficient of the impregnated layer is higher than the rigidity coefficients of the layers that configure the first layer portion (S1) and the second layer portion (S2), the first layer portion (S1) is arranged such that a wood grain of the first layer portion goes along a peripheral direction of the shell , thickness and arrangement of layers that configure the first layer portion (Sl) and thickness and arrangement of layers that configure the second layer portion (S2) are not symmetrical about a center of the impregnated layer in a thickness direction, and the bending rigidity of the first layer portion (Sl) with respect to a central axis passing through a center of the impregnated layer in a thickness direction and perpendicular to the thickness direction, and the bending rigidity of the second layer portion (S2) with respect to the central axis are approximately equal.
A Compton camera for medical imaging, the Compton camera comprising: a patient bed ; a scatter detector ; a catcher detector ; a motor connected with the scatter detector , catcher detector , or both the scatter detector and the catcher detector , the motor configured to move the scatter detector , catcher detector , or both the scatter detector and the catcher detector closer or further from the patient bed ; and a sensor configured to sense a patient on the patient bed , wherein the motor is configured to move the scatter detector independently of the catcher detector to reduce a distance of the scatter detector from the patient based on an output of the sensor . a patient bed ; a scatter detector ; a catcher detector ; a motor connected with the scatter detector , catcher detector , or both the scatter detector and the catcher detector , the motor configured to move the scatter detector , catcher detector , or both the scatter detector and the catcher detector closer or further from the patient bed ; and a sensor configured to sense a patient on the patient bed , wherein the motor is configured to move the scatter detector independently of the catcher detector to reduce a distance of the scatter detector from the patient based on an output of the sensor .
A packaging apparatus for packaging an article to be packaged (W) by covering the article to be packaged with a film (F) held at a peripheral edge portion thereof and stretched and overlapping the peripheral edge portion of the film below the article to be packaged, the packaging apparatus comprising: a movably mounted first holding unit configured to hold the peripheral edge portion of the film on a front side; a second holding unit provided to be opposed to the first holding unit and configured to hold the peripheral edge portion of the film on a rear side; a lifting unit configured to carry the article to be packaged and press the article to be packaged to the film held and stretched by the first holding unit and the second holding unit; a folding unit configured to fold the peripheral edge portion of the film on the rear side to which the article to be packaged has been pressed by the lifting unit into an underside of the article to be packaged; an extruding unit configured to extrude to the front side the article to be packaged having the peripheral edge portion of the film on the rear side folded under the article to be packaged by the folding unit; and a control unit configured to control operation of the first and second holding units , the lifting unit , the folding unit and the extruding unit , characterized in that the control unit is configured to control the position of the first holding unit to decrease tension of the held film (F) after the peripheral edge portion of the film on the rear side starts to be folded into the underside of the article to be packaged by the folding unit before the extruding unit starts to extrude the article to be packaged from the rear side to the front side. a movably mounted first holding unit configured to hold the peripheral edge portion of the film on a front side; a second holding unit provided to be opposed to the first holding unit and configured to hold the peripheral edge portion of the film on a rear side; a lifting unit configured to carry the article to be packaged and press the article to be packaged to the film held and stretched by the first holding unit and the second holding unit; a folding unit configured to fold the peripheral edge portion of the film on the rear side to which the article to be packaged has been pressed by the lifting unit into an underside of the article to be packaged; an extruding unit configured to extrude to the front side the article to be packaged having the peripheral edge portion of the film on the rear side folded under the article to be packaged by the folding unit; and a control unit configured to control operation of the first and second holding units , the lifting unit , the folding unit and the extruding unit , characterized in that the control unit is configured to control the position of the first holding unit to decrease tension of the held film (F) after the peripheral edge portion of the film on the rear side starts to be folded into the underside of the article to be packaged by the folding unit before the extruding unit starts to extrude the article to be packaged from the rear side to the front side.
A printhead assembly , comprising: a cartridge body comprising a chamber ; a bladder comprising a liquid fill hole and an exit port , the bladder disposed within the chamber of the cartridge body and adapted to receive and contain liquid; a lid disposed over the chamber of the cartridge body ; and a liquid interconnect system comprising: a mating component comprising an inlet port and a liquid outlet , the inlet port configured to support a liquid interconnector and the liquid outlet configured to engage with the cartridge body so that the liquid outlet is aligned with the bladder liquid fill hole for transfer of liquid into the bladder ; and a printhead chip disposed on the cartridge body and in fluid communication with the bladder so as to receive liquid from the bladder for ejection of the liquid onto a print medium, wherein the cartridge body has an opening configured for engagement with the mating component and characterized in that the mating component has a groove configured to engage with the opening of the cartridge body . a cartridge body comprising a chamber ; a bladder comprising a liquid fill hole and an exit port , the bladder disposed within the chamber of the cartridge body and adapted to receive and contain liquid; a lid disposed over the chamber of the cartridge body ; and a liquid interconnect system comprising: a mating component comprising an inlet port and a liquid outlet , the inlet port configured to support a liquid interconnector and the liquid outlet configured to engage with the cartridge body so that the liquid outlet is aligned with the bladder liquid fill hole for transfer of liquid into the bladder ; and a printhead chip disposed on the cartridge body and in fluid communication with the bladder so as to receive liquid from the bladder for ejection of the liquid onto a print medium, wherein the cartridge body has an opening configured for engagement with the mating component and characterized in that the mating component has a groove configured to engage with the opening of the cartridge body .
A system for detecting an ineffective effort of a patient being mechanically ventilated by a ventilator comprising: (i) means for monitoring a respiratory flow of air of the patient after said ventilator has cycled and before it next triggers; (ii) means for creating a signal indicative of said flow; characterized in that the system further comprises: iii) means for determining a peak expiratory flow (PEF) of the patient; iv) means for monitoring said signal for perturbations; and v) means for classifying perturbations to distinguish ineffective efforts from other events and; wherein the means for classifying perturbations includes means for detecting a local maximum and means for detecting a significant declivity, the local maximum detected based on the first derivative of flow, the significant declivity determined to have occurred when the second derivative of flow is greater than a negative threshold. (i) means for monitoring a respiratory flow of air of the patient after said ventilator has cycled and before it next triggers; (ii) means for creating a signal indicative of said flow; characterized in that the system further comprises: iii) means for determining a peak expiratory flow (PEF) of the patient; iv) means for monitoring said signal for perturbations; and v) means for classifying perturbations to distinguish ineffective efforts from other events and; wherein the means for classifying perturbations includes means for detecting a local maximum and means for detecting a significant declivity, the local maximum detected based on the first derivative of flow, the significant declivity determined to have occurred when the second derivative of flow is greater than a negative threshold. iii) means for determining a peak expiratory flow (PEF) of the patient; iv) means for monitoring said signal for perturbations; and v) means for classifying perturbations to distinguish ineffective efforts from other events and;
Method for producing a regenerated plastics material from a used plastics material made up of domestic and/or packaging waste, which comprises a proportion of at least 80 wt.% of HDPE, characterised in that the method comprises the following steps: (a) determining the melt flow rate in accordance with ISO 1133 (230°C; 2.16 kg load) and/or the impact toughness in accordance with ISO 180/1A of the used plastics material; (b) regenerating the starting material to change the melt flow rate and/or the impact toughness, wherein (i) a change to the melt flow rate is brought about by adding 0.05 to 0.5 wt.% of an organic peroxide; and (ii) a change to the impact toughness is brought about by adding 5 to 10 wt.% of an elastomer; wherein, as part of the regeneration process, 0.05 to 0.5 wt.% of a stabiliser is also added, which is a sterically hindered phenol or amine; and wherein step (b) is carried out as part of melt extrusion of the used plastics material, wherein the used plastics material is melted, the peroxide, the elastomer and the stabiliser are sequentially added, and the resulting melt is thoroughly mixed. the method comprises the following steps: (a) determining the melt flow rate in accordance with ISO 1133 (230°C; 2.16 kg load) and/or the impact toughness in accordance with ISO 180/1A of the used plastics material; (b) regenerating the starting material to change the melt flow rate and/or the impact toughness, wherein (i) a change to the melt flow rate is brought about by adding 0.05 to 0.5 wt.% of an organic peroxide; and (ii) a change to the impact toughness is brought about by adding 5 to 10 wt.% of an elastomer; (a) determining the melt flow rate in accordance with ISO 1133 (230°C; 2.16 kg load) and/or the impact toughness in accordance with ISO 180/1A of the used plastics material; (b) regenerating the starting material to change the melt flow rate and/or the impact toughness, wherein (i) a change to the melt flow rate is brought about by adding 0.05 to 0.5 wt.% of an organic peroxide; and (ii) a change to the impact toughness is brought about by adding 5 to 10 wt.% of an elastomer; (i) a change to the melt flow rate is brought about by adding 0.05 to 0.5 wt.% of an organic peroxide; and (ii) a change to the impact toughness is brought about by adding 5 to 10 wt.% of an elastomer; wherein, as part of the regeneration process, 0.05 to 0.5 wt.% of a stabiliser is also added, which is a sterically hindered phenol or amine; and wherein step (b) is carried out as part of melt extrusion of the used plastics material, wherein the used plastics material is melted, the peroxide, the elastomer and the stabiliser are sequentially added, and the resulting melt is thoroughly mixed.
A battery, characterized by comprising: a first box body ; a second box body connected to the first box body ; a battery unit accommodated inside the first box body and the second box body ; and a sealing gasket located between the first box body and the second box body so that the first box body and the second box body are hermetically connected, wherein the sealing gasket has a first thickness (t1) when not compressed and when the first box body and the second box body are connected, the sealing gasket is compressed to a second thickness (t2) that is less than the first thickness (t1); wherein the first box body and/or the second box body is provided with a first protruding portion , a side wall of the sealing gasket is provided with a notch portion , and the notch portion runs through the sealing gasket along a thickness direction of the sealing gasket , and the first protruding portion extends into the notch portion so that the first protruding portion fits with the notch portion , and wherein a protrusion height (h) of the first protruding portion is equal to the second thickness (t2). a first box body ; a second box body connected to the first box body ; a battery unit accommodated inside the first box body and the second box body ; and a sealing gasket located between the first box body and the second box body so that the first box body and the second box body are hermetically connected, wherein the sealing gasket has a first thickness (t1) when not compressed and when the first box body and the second box body are connected, the sealing gasket is compressed to a second thickness (t2) that is less than the first thickness (t1); wherein the first box body and/or the second box body is provided with a first protruding portion , a side wall of the sealing gasket is provided with a notch portion , and the notch portion runs through the sealing gasket along a thickness direction of the sealing gasket , and the first protruding portion extends into the notch portion so that the first protruding portion fits with the notch portion , and
A loudspeaker assembly, comprising: an enclosure having a first end and a second end, the first end including an opening and the enclosure having an acoustic port ; an acoustic driver at the second end of the enclosure ; an acoustic volume between the first end and the second end of the enclosure ; a circuit board at the first end of the enclosure ; a firebox covering the opening at the first end of the enclosure , the firebox providing a natural or forced convection flow path in the acoustic volume over heat-generating components of the circuit board and surrounding the circuit board at the opening to the enclosure ; and a heat sink extending from the circuit board in a direction away from the acoustic volume for providing a conduction flow path through the circuit board , wherein: the firebox includes a plurality of vents positioned between the acoustic volume of the enclosure and the circuit board to provide said convection flow path from the acoustic driver and the acoustic port to the circuit board ; the circuit board is constructed and arranged so that some heat generating electronic components providing high heat generation are positioned at an acoustic volume side of the circuit board , in the acoustic volume of the enclosure and face the acoustic driver in the acoustic volume ; and other electronic components producing lesser amounts of heat and the heat sink are on the opposite side of the circuit board external to the acoustic volume of the enclosure . an enclosure having a first end and a second end, the first end including an opening and the enclosure having an acoustic port ; an acoustic driver at the second end of the enclosure ; an acoustic volume between the first end and the second end of the enclosure ; a circuit board at the first end of the enclosure ; a firebox covering the opening at the first end of the enclosure , the firebox providing a natural or forced convection flow path in the acoustic volume over heat-generating components of the circuit board and surrounding the circuit board at the opening to the enclosure ; and a heat sink extending from the circuit board in a direction away from the acoustic volume for providing a conduction flow path through the circuit board , the firebox includes a plurality of vents positioned between the acoustic volume of the enclosure and the circuit board to provide said convection flow path from the acoustic driver and the acoustic port to the circuit board ; the circuit board is constructed and arranged so that some heat generating electronic components providing high heat generation are positioned at an acoustic volume side of the circuit board , in the acoustic volume of the enclosure and face the acoustic driver in the acoustic volume ; and other electronic components producing lesser amounts of heat and the heat sink are on the opposite side of the circuit board external to the acoustic volume of the enclosure .