mhurhangee/patent-ind-claim-en huggingface dataset:
An active airflow control system for an aircraft, comprising: an air conditioning system ; an air conditioning controller configured to control operation of the air conditioning system; a plurality of flow control devices in fluid communication with the air conditioning system and in signal communication with the air conditioning controller , wherein the plurality of flow control devices are configured to increase and decrease an amount of air flowing therethrough in response to receiving a controlling signal from the air conditioning controller ; and a plurality of zones in fluid communication with the air conditioning system , wherein each zone of the plurality of zones is a pressurized zone of the aircraft, and wherein each zone of the plurality of zones is in fluid communication with at least one flow control device of the plurality of flow control devices , wherein the air conditioning controller is configured to direct each flow control device of the plurality of flow control devices to provide a minimum amount of air flow to an associated zone of the plurality of zones; and characterized by the air conditioning controller further being configured to determine an occupant distribution of each zone at a particular time, and evaluate a change of the occupant distribution for each zone; and the air conditioning controller being configured to determine the minimum amount of air flow for each associated zone based on the number of occupants in each associated zone, and further based on the change of the occupant distribution for each zone with respect to time. an air conditioning system ; an air conditioning controller configured to control operation of the air conditioning system; a plurality of flow control devices in fluid communication with the air conditioning system and in signal communication with the air conditioning controller , wherein the plurality of flow control devices are configured to increase and decrease an amount of air flowing therethrough in response to receiving a controlling signal from the air conditioning controller ; and a plurality of zones in fluid communication with the air conditioning system , wherein each zone of the plurality of zones is a pressurized zone of the aircraft, and wherein each zone of the plurality of zones is in fluid communication with at least one flow control device of the plurality of flow control devices , wherein the air conditioning controller is configured to direct each flow control device of the plurality of flow control devices to provide a minimum amount of air flow to an associated zone of the plurality of zones; and characterized by the air conditioning controller further being configured to determine an occupant distribution of each zone at a particular time, and evaluate a change of the occupant distribution for each zone; and the air conditioning controller being configured to determine the minimum amount of air flow for each associated zone based on the number of occupants in each associated zone, and further based on the change of the occupant distribution for each zone with respect to time.
Composition comprising a random copolymer prepared by controlled radical polymerization comprising the following monomers: - styrene, from 28% to 45% by weight, limits included; - methacrylic acid, from 10% to 40% by weight, limits included; - acrylic acid, from 0.5% to 5% by weight, limits included; - butyl acrylate, from 18% to 35% by weight, limits included. - styrene, from 28% to 45% by weight, limits included; - methacrylic acid, from 10% to 40% by weight, limits included; - acrylic acid, from 0.5% to 5% by weight, limits included; - butyl acrylate, from 18% to 35% by weight, limits included.
Method for producing a nonwoven fabric from fibres, in particular from thermoplastic material, wherein the fibres are spun by means of at least one spinneret , then cooled and deposited on a depositing device to form a nonwoven web, characterized in that the nonwoven web is subjected to hot fluid consolidation in each case in at least two consecutive consolidation stages, that in a first consolidation stage the surface of the nonwoven web is subjected to a hot fluid - in particular hot air - and that then in a second consolidation stage - preferably in a double-belt furnace - the surface of the nonwoven web is subjected to a hot fluid, in particular hot air and that additionally and simultaneously here, pressure is applied to the surface of the nonwoven web.
A self-supporting adhesive film comprising: a.) a solid surface-deactivated isocyanate; and b.) greater than 70 % by weight of a first polyurethane having an enthalpy of fusion of at least 35 J/g and a weight average Molecular Weight (Mw) of no greater than 90,000, wherein the weight average Molecular Weight (Mw) is determined by obtaining the GPC molecular weight distribution curve of a dried polyurethane sample using a Waters 2695 Separations Module connected to a Waters 2414 RI detector, running 0.05M LiBr/DMF mobile phase through two Agilent Resipore GPC columns and calculating the molecular weight data versus polymethyl methacrylate standards. a.) a solid surface-deactivated isocyanate; and b.) greater than 70 % by weight of a first polyurethane having an enthalpy of fusion of at least 35 J/g and a weight average Molecular Weight (Mw) of no greater than 90,000, wherein the weight average Molecular Weight (Mw) is determined by obtaining the GPC molecular weight distribution curve of a dried polyurethane sample using a Waters 2695 Separations Module connected to a Waters 2414 RI detector, running 0.05M LiBr/DMF mobile phase through two Agilent Resipore GPC columns and calculating the molecular weight data versus polymethyl methacrylate standards.
Pre-expansion thermoplastic elastomer composition, non-crosslinked, comprising: - from 15 to 37% by weight, with respect to the total weight of the composition, one or more multiblock elastomers including at least one soft block having a glass transition temperature below 25°C and at least one hard block having a glass transition temperature, or a melting point in the case of a semicrystalline polymer, above or equal to 80°C, - heat-expandable polymer particles encapsulating a heat-expandable fluid, being present in a proportion of 0.5 to 2% by weight with respect to the total weight of the composition. - from 15 to 37% by weight, with respect to the total weight of the composition, one or more multiblock elastomers including at least one soft block having a glass transition temperature below 25°C and at least one hard block having a glass transition temperature, or a melting point in the case of a semicrystalline polymer, above or equal to 80°C, - heat-expandable polymer particles encapsulating a heat-expandable fluid, being present in a proportion of 0.5 to 2% by weight with respect to the total weight of the composition.
An injection molding machine comprising: a cover which surrounds a noise generation source of the injection molding machine ; and a soundproof portion which reduces a noise propagating to an outside of the cover , wherein the soundproof portion includes a porous portion which attenuates a sound wave propagating from the noise generation source, between the noise generation source and the cover , characterised in that the soundproof portion includes a rib portion which reinforces the cover to suppress a vibration of the cover , and that the soundproof portion further includes a protection cover portion which protects the porous portion from a side opposite to the cover . a cover which surrounds a noise generation source of the injection molding machine ; and a soundproof portion which reduces a noise propagating to an outside of the cover , wherein the soundproof portion includes a porous portion which attenuates a sound wave propagating from the noise generation source, between the noise generation source and the cover , characterised in that the soundproof portion includes a rib portion which reinforces the cover to suppress a vibration of the cover , and that the soundproof portion further includes a protection cover portion which protects the porous portion from a side opposite to the cover .
A process for treating a surface of an implant made of titanium or its alloys, comprising the successive steps of: - treating said surface with laser radiation coming from a nano- or femtofiber laser source, in such a way that said surface is ablated and assumes a predetermined texture, and - treating said surface with plasma jet at atmospheric pressure, using a process gas containing air, in such a way that a layer of titanium oxide up to 30 nm thick is formed on said surface. - treating said surface with laser radiation coming from a nano- or femtofiber laser source, in such a way that said surface is ablated and assumes a predetermined texture, and - treating said surface with plasma jet at atmospheric pressure, using a process gas containing air, in such a way that a layer of titanium oxide up to 30 nm thick is formed on said surface.
A control and/or regulating apparatus , which is respectively connected via signal link to a first input apparatus , which is in particular operable by a doctor, and to a second input apparatus , which is in particular operable by a patient (P), wherein the control or regulating apparatus is programmed to control and/or to regulate in signal link with a blood treatment apparatus , which in turn is connected to a blood filter , a blood treatment of the patient (P), by performing the following steps: - controlling and/or regulating the blood treatment apparatus for the blood treatment of the patient (P), with a first setting, referred to as original setting, by using the first input apparatus for at least one treatment parameter; - checking, whether an input has occurred using the second input apparatus ; - evaluating the input entered using the second input apparatus and/or specifying a second setting, referred to as target setting, for the at least one treatment parameter based on the input entered using the second input apparatus ; and - controlling or regulating the blood treatment apparatus for the blood treatment of the patient (P) with the second setting and/or controlling or regulating the blood treatment apparatus by adjusting or modifying the original setting according to the input or the target setting; wherein the second input apparatus enables qualitative inputs, and wherein the control or regulating apparatus is programmed to transform the qualitative input entered using the second input apparatus into target settings according to predetermined routines or rules. - controlling and/or regulating the blood treatment apparatus for the blood treatment of the patient (P), with a first setting, referred to as original setting, by using the first input apparatus for at least one treatment parameter; - checking, whether an input has occurred using the second input apparatus ; - evaluating the input entered using the second input apparatus and/or specifying a second setting, referred to as target setting, for the at least one treatment parameter based on the input entered using the second input apparatus ; and - controlling or regulating the blood treatment apparatus for the blood treatment of the patient (P) with the second setting and/or controlling or regulating the blood treatment apparatus by adjusting or modifying the original setting according to the input or the target setting;
Method for controlling confined preforms which are stopped in a heating station during a production interruption, the heating station comprising: - a device for conveying preforms comprising individual supports which move in a closed circuit, each individual support being intended to transport a preform with continuous movement along a predetermined transport path from an input location (A) to an output location (B), - a heating cavity which is bordered by at least one row of transmitters of monochromatic electromagnetic radiation controlled between a switched-off state and a switched-on state, the transport path extending through the heating cavity ; the method comprising a prior step (E1) of restarting the conveying device for transporting the confined preforms in the direction of the output location (B) ; characterized in that the method comprises a step (E3) of heating, by the transmitters of the heating cavity , the confined preforms referred to as "cold" preforms which have been stopped before being exposed to the electromagnetic radiation emitted by the transmitters . - a device for conveying preforms comprising individual supports which move in a closed circuit, each individual support being intended to transport a preform with continuous movement along a predetermined transport path from an input location (A) to an output location (B), - a heating cavity which is bordered by at least one row of transmitters of monochromatic electromagnetic radiation controlled between a switched-off state and a switched-on state, the transport path extending through the heating cavity ; the method comprising a prior step (E1) of restarting the conveying device for transporting the confined preforms in the direction of the output location (B) ; characterized in that the method comprises a step (E3) of heating, by the transmitters of the heating cavity , the confined preforms referred to as "cold" preforms which have been stopped before being exposed to the electromagnetic radiation emitted by the transmitters . the method comprising a prior step (E1) of restarting the conveying device for transporting the confined preforms in the direction of the output location (B) ; characterized in that the method comprises a step (E3) of heating, by the transmitters of the heating cavity , the confined preforms referred to as "cold" preforms which have been stopped before being exposed to the electromagnetic radiation emitted by the transmitters .
A bag (1; 22) for loose material , wherein the bag (1; 22) is formed from a tubular material , which tubular material is a tubular planar assembly or a flat material connected to form a tube, is formed by a fabric, a nonwoven, a film or paper and has a first open end and a second open end opposite each other, wherein sections of the tubular material of at least one of the open ends are shaped by folding to form a bag bottom , wherein the bag bottom exhibits a first cover sheet , which is designed for reinforcing the bag bottom , wherein bag bottom has a second cover sheet , wherein the first cover sheet is connected to the bag bottom and extends in a first region of the bag bottom and characterized in that the second cover sheet is detachably connected to the bag bottom and extends in a second region of the bag bottom , whereby, via the cover sheets , the folded sections of the tubular material are held together in such a way that the bag bottom is sealed.
A computer-implemented method comprising: receiving or capturing an image of a room from a perspective of a non-line-of-sight gesture recognition system ; receiving or determining dimensions of the room ; determining , based at least in part on the image and the dimensions of the room , a volume (120-1, 120-2) of the room in which there is no line-of-sight to the non-line-of-sight gesture-recognition system ; and determining , by providing radar transmissions from the non-line-of-sight gesture-recognition system and into the room , a set of transmission paths sufficient to cause a reflected radar field to be provided within at least a portion of the volume, the reflected radar field enabling capture of gesture interactions with the reflected radar field . receiving or capturing an image of a room from a perspective of a non-line-of-sight gesture recognition system ; receiving or determining dimensions of the room ; determining , based at least in part on the image and the dimensions of the room , a volume (120-1, 120-2) of the room in which there is no line-of-sight to the non-line-of-sight gesture-recognition system ; and determining , by providing radar transmissions from the non-line-of-sight gesture-recognition system and into the room , a set of transmission paths sufficient to cause a reflected radar field to be provided within at least a portion of the volume, the reflected radar field enabling capture of gesture interactions with the reflected radar field .
A method for depth mapping, comprising: illuminating an object with a time-coded pattern comprising a temporal sequence of different spatial light patterns; capturing images of the time-coded pattern on the object using a matrix of detector elements ; decoding the time-coded pattern in the captured images using processing circuitry embedded in each of the detector elements by storing reference values corresponding to an image of the time-coded pattern at a predefined reference frame, by generating respective output words from the detector elements based on the captured images, and by taking differences between the respective output words and the stored reference values, so as to generate respective digital shift values that are indicative of a local shift of the captured images relative to the predefined reference frame; and converting the shift values into depth coordinates. illuminating an object with a time-coded pattern comprising a temporal sequence of different spatial light patterns; capturing images of the time-coded pattern on the object using a matrix of detector elements ; decoding the time-coded pattern in the captured images using processing circuitry embedded in each of the detector elements by storing reference values corresponding to an image of the time-coded pattern at a predefined reference frame, by generating respective output words from the detector elements based on the captured images, and by taking differences between the respective output words and the stored reference values, so as to generate respective digital shift values that are indicative of a local shift of the captured images relative to the predefined reference frame; and converting the shift values into depth coordinates.
An oxygen assembly comprising: a hose configured to be in flow communication with an oxygen source , wherein the hose includes a hose wall , a switch positioned on the hose, wherein an electric lead wire is disposed in the hose wall and is configured to electrically communicate the switch with a power source , wherein the switch includes a plunger , a mask positioned at a distal end of the hose , and a flow indicator , wherein the flow indicator is a light that is positioned on the hose , wherein the electric lead wire is configured to electrically communicate the light with the power source , wherein the hose includes a lumen through which oxygen can flow from the oxygen source to the mask , wherein the switch is switchable between a normal state when oxygen is not flowing from the oxygen source to the mask and a flow state where oxygen flows to the mask , wherein when the switch is in the flow state, the light is switched from a static state to an indication state, wherein when the oxygen flows from the oxygen source to the mask , the plunger closes an electrical circuit thereby switching the light from the static state to the indication state. a hose configured to be in flow communication with an oxygen source , wherein the hose includes a hose wall , a switch positioned on the hose, wherein an electric lead wire is disposed in the hose wall and is configured to electrically communicate the switch with a power source , wherein the switch includes a plunger , a mask positioned at a distal end of the hose , and a flow indicator , wherein the flow indicator is a light that is positioned on the hose , wherein the electric lead wire is configured to electrically communicate the light with the power source , wherein the hose includes a lumen through which oxygen can flow from the oxygen source to the mask , wherein the switch is switchable between a normal state when oxygen is not flowing from the oxygen source to the mask and a flow state where oxygen flows to the mask , wherein when the switch is in the flow state, the light is switched from a static state to an indication state, wherein when the oxygen flows from the oxygen source to the mask , the plunger closes an electrical circuit thereby switching the light from the static state to the indication state.
Medical implant which is vacuum-packed within an air tight cover material, wherein the medical implant comprises one or more cords which extend through a sealing seam area of the cover material, wherein the cover material comprises a sealing seam having been created on the cover material at least in the sealing seam area through which the one or more cords extend.
Drainage fitting, in particular for a walk-in shower, having a cover plate and a housing , through which a drain section is formed, as well as a bar connected to the cover plate , which bar is movable within the drain section both in its longitudinal direction as well as in a transverse direction, wherein a magnetic centring of the end of the bar , which end faces away from the cover plate , is provided, and wherein on the end of the bar a sliding surface inclined to its longitudinal axis is formed, which sliding surface is provided to bear on a sliding surface , also inclined, of the drain section , wherein the two sliding surfaces are magnetically attracted to each other, characterized in that the sliding surface of the bar extends up to its cylindrical peripheral surface and the sliding surface of the drain section extends up to a shoulder formed therein, which shoulder is provided to bear on a section of the peripheral surface of the bar .
Use, for the Fischer-Tropsch reaction, of a catalyst obtained by the deposition of an active phase on a catalyst support, said active phase being metallic cobalt, metallic iron or a mixture of the two, finely divided, said catalyst support being an SiC-based catalyst support at least partially covered with TiO 2 capable of being obtained by a preparation method including the following steps: (a) a highly porous β-SiC support is provided, preferably in the form of extrudates, pellets, beads, microbeads or cellular foam, and of which the specific surface is at least 15 m 2 /g, and preferably at least 20 m 2 /g, (b) a solution of at least one TiO 2 precursor is prepared, (c) said support is impregnated by said solution, (d) said impregnated support is dried, (e) said impregnated support is calcined in order to transform said TiO 2 precursor into TiO 2 , at a temperature of between 400°C and 1000°C, and preferably between 500°C and 900°C. (a) a highly porous β-SiC support is provided, preferably in the form of extrudates, pellets, beads, microbeads or cellular foam, and of which the specific surface is at least 15 m 2 /g, and preferably at least 20 m 2 /g, (b) a solution of at least one TiO 2 precursor is prepared, (c) said support is impregnated by said solution, (d) said impregnated support is dried, (e) said impregnated support is calcined in order to transform said TiO 2 precursor into TiO 2 , at a temperature of between 400°C and 1000°C, and preferably between 500°C and 900°C.