mhurhangee/patent-ind-claim-en huggingface dataset:
An extrusion device , in particular a blown film extrusion device, for producing an object , in particular a tube, a blown film or a container, having a cavity, comprising - a material feed which opens into an extrusion die , and - a supporting gas supply , which opens into an injection opening , for introducing supporting gas into the interior of the object being formed, wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller , that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve . - a material feed which opens into an extrusion die , and - a supporting gas supply , which opens into an injection opening , for introducing supporting gas into the interior of the object being formed, wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller , that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve . wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller , that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve .
Fire door comprising two leaves , with each leaf comprising a step on one side and an extension of the leaf on the opposite side of the central edge, wherein the fire door comprises at least one latch consisting of a bar to be secured to at least one of said steps , characterized in that - the - at least one latch is an adjustable central latch formed by a first straight side and a second straight side adjacent to one end of the first straight side , with said second straight side forming an angle greater than 0° and less than or equal to 90° with said first straight side , - at least one elongated hole is located on the first straight side , - at least one screw secures the latch to the door through the elongated hole , which adjusts the position of the latch in both the horizontal and vertical planes with respect to the extensions (4, 5 of the leaves such that in the case of deformation caused by thermal expansion of the fire door , the hooking of the at least one latch with the at least one extension prevents the door from opening because the slide of the lock will remain in place; and wherein said first straight side is secured to at least one step by said at least one screw inserted into the at least one hole in the latch , making said latch adjustable with respect to the door . - at least one latch is an adjustable central latch formed by a first straight side and a second straight side adjacent to one end of the first straight side , with said second straight side forming an angle greater than 0° and less than or equal to 90° with said first straight side , - at least one elongated hole is located on the first straight side , - at least one screw secures the latch to the door through the elongated hole , which adjusts the position of the latch in both the horizontal and vertical planes with respect to the extensions (4, 5 of the leaves such that in the case of deformation caused by thermal expansion of the fire door , the hooking of the at least one latch with the at least one extension prevents the door from opening because the slide of the lock will remain in place;
Pipetting device with a pipetting needle and with a metering pump connected to the pipetting needle , wherein the connection between pipetting needle and metering pump has a multi-channel distributor , and wherein the multi-channel distributor comprises two, three, four, five or more channels , wherein a single-channel attachment is provided on the pipetting needle and on the metering pump respectively, said single-channel attachment opening in each case into the multi-channel distributor , characterized in that a photometric measuring device is provided on each channel of the distributor , wherein the sum of the cross-sectional areas of all of the channels of the multi-channel distributor corresponds in each case to the cross-sectional area of a single-channel attachment towards the pipetting needle and of a single-channel attachment towards the metering pump.
A process to provide anhydrous methanesulfonic acid (MSA) from compositions comprising SO3 which includes a reaction set-up comprising the following steps A. generating a first MSA stream ("stream A") which, apart from MSA, still comprises SO3 and methane under pressure; B. adding to this MSA stream under pressure a reactive agent which is capable of reacting with SO3, wherein the reactive agent comprises water, under conditions effective to cause reaction of SO3 with this reactive agent to produce a heavy reaction product having a boiling point higher than the boiling point of MSA, thus generating a stream B; C. separating this stream to provide a light stream comprising hydrocarbons and a heavy stream comprising MSA and a heavy reaction product having a boiling point higher than the boiling point of MSA; D. and separating the heavy stream by distillation to produce a distillate stream consisting essentially of MSA and a bottoms stream comprising the heavy product. A. generating a first MSA stream ("stream A") which, apart from MSA, still comprises SO3 and methane under pressure; B. adding to this MSA stream under pressure a reactive agent which is capable of reacting with SO3, wherein the reactive agent comprises water, under conditions effective to cause reaction of SO3 with this reactive agent to produce a heavy reaction product having a boiling point higher than the boiling point of MSA, thus generating a stream B; C. separating this stream to provide a light stream comprising hydrocarbons and a heavy stream comprising MSA and a heavy reaction product having a boiling point higher than the boiling point of MSA; D. and separating the heavy stream by distillation to produce a distillate stream consisting essentially of MSA and a bottoms stream comprising the heavy product.
A modified T cell, wherein the modified cell has a nucleic acid encoding a modified PD-1, wherein the modified PD-1 is truncated PD-1 that does not include an intracellular domain; has a partial or a complete deletion of the PD-1 gene and a reduced amount of PD-1 as compared to the corresponding wild-type cell, or expresses a modified PD-1, wherein the modified PD-1 is non-functional PD-1; and wherein the modified cell comprises a chimeric antigen receptor (CAR) comprising an antigen recognition domain of a specific antibody and an intracellular domain, or a modified or wild-type T cell receptor. has a nucleic acid encoding a modified PD-1, wherein the modified PD-1 is truncated PD-1 that does not include an intracellular domain; has a partial or a complete deletion of the PD-1 gene and a reduced amount of PD-1 as compared to the corresponding wild-type cell, or expresses a modified PD-1, wherein the modified PD-1 is non-functional PD-1;
A cell culture device , comprising: an incubator part configured to accommodate a closed-system culture container ; a cartridge for culture medium replacement use having a liquid supply flow path and a liquid collection flow path ; a culture medium supply part configured to supply a liquid culture medium to the liquid supply flow path of the cartridge for culture medium replacement use ; a culture medium replacement part configured to cause the liquid culture medium existing in the liquid supply flow path to flow into the culture container and to cause the liquid culture medium existing in the culture container to flow out to the liquid collection flow path in a state in which the cartridge for culture medium replacement use is connected to the culture container ; and a culture medium collection part configured to collect the liquid culture medium from the liquid collection flow path of the cartridge for culture medium replacement use , wherein the cartridge for culture medium replacement use is removably attachable to the closed-system culture container and is movable between the culture medium supply part , the culture medium replacement part and the culture medium collection part . an incubator part configured to accommodate a closed-system culture container ; a cartridge for culture medium replacement use having a liquid supply flow path and a liquid collection flow path ; a culture medium supply part configured to supply a liquid culture medium to the liquid supply flow path of the cartridge for culture medium replacement use ; a culture medium replacement part configured to cause the liquid culture medium existing in the liquid supply flow path to flow into the culture container and to cause the liquid culture medium existing in the culture container to flow out to the liquid collection flow path in a state in which the cartridge for culture medium replacement use is connected to the culture container ; and a culture medium collection part configured to collect the liquid culture medium from the liquid collection flow path of the cartridge for culture medium replacement use , wherein the cartridge for culture medium replacement use is removably attachable to the closed-system culture container and is movable between the culture medium supply part , the culture medium replacement part and the culture medium collection part .
Device for releasably connecting a winding shaft of a roller shutter curtain to an anti-lift locking system , comprising an elongate wire spring having end regions at both ends which are configured to extend through an end member respectively of the anti-lift locking system and positively engage in openings of the winding shaft , characterised in that in order to prevent a movement in the winding shaft longitudinal direction during use as intended, the wire spring has an additional locking projection directed towards the winding shaft which is configured to project into another opening of the winding shaft .
A transmitting station comprising: a transmitting antenna whose orientation direction is changeable, the transmitting antenna emitting a signal in an orientation direction of the antenna ; and a control unit to control the orientation direction of the transmitting antenna in accordance with an orientation direction of the transmitting antenna determined together with receiving stations to receive data transmitted from the transmitting antenna, on a basis of estimate values of received signal quality at candidates for receiving stations to receive data transmitted from the transmitting antenna, wherein the transmitting station holds a table of two types of change patterns, the change patterns being a first code modulation pattern (#0) and a second code modulation pattern (#1); the first code modulation pattern corresponds to a first group of receiving stations in which a reception-quality estimation value is determined by an elevation angle of the transmitting station; the second code modulation pattern corresponds to a second group of receiving stations in which a reception-quality estimation value is determined by the elevation angle; each of the first code modulation pattern and the second code modulation pattern contains indices representing encoding schemes and modulation schemes according to the elevation angle; and the transmitting station determines an encoding scheme and a modulation scheme on the basis of the table , the elevation angle and information on which change pattern to use. a transmitting antenna whose orientation direction is changeable, the transmitting antenna emitting a signal in an orientation direction of the antenna ; and a control unit to control the orientation direction of the transmitting antenna in accordance with an orientation direction of the transmitting antenna determined together with receiving stations to receive data transmitted from the transmitting antenna, on a basis of estimate values of received signal quality at candidates for receiving stations to receive data transmitted from the transmitting antenna, wherein the transmitting station holds a table of two types of change patterns, the change patterns being a first code modulation pattern (#0) and a second code modulation pattern (#1); the first code modulation pattern corresponds to a first group of receiving stations in which a reception-quality estimation value is determined by an elevation angle of the transmitting station; the second code modulation pattern corresponds to a second group of receiving stations in which a reception-quality estimation value is determined by the elevation angle; each of the first code modulation pattern and the second code modulation pattern contains indices representing encoding schemes and modulation schemes according to the elevation angle; and the transmitting station determines an encoding scheme and a modulation scheme on the basis of the table , the elevation angle and information on which change pattern to use.
An elevator system comprising: an elevator car configured to move in an elevator shaft ; a first safety circuit ; a main safety controller comprising a main safety output and a secondary safety output , wherein the main safety output is configured to control machinery brakes of the elevator car based on the first safety circuit ; and a secondary safety circuit connected to the secondary safety output and arranged in the elevator car and comprising at least one safety contact (114A...114N) configured to control stopping means arranged in the elevator car ; wherein when the at least one safety contact (114A...114N) is triggered the secondary safety circuit is configured to control the stopping means to cause stopping of the elevator car , characterized in that the stopping means comprises a solenoid , an engagement mechanism and a safety gear, wherein in response to triggering the at least one contact (114A...114N), the solenoid is configured to cause the engagement mechanism to move to a position enabling contact with a triggering device in the elevator shaft , the triggering device in turn causing activation of the safety gear, and wherein the main safety controller comprises a first input connected to the solenoid , wherein the main safety controller is configured to test the operation of the solenoid by switching off the secondary safety output and determining whether feedback information is received from the solenoid at the first input . an elevator car configured to move in an elevator shaft ; a first safety circuit ; a main safety controller comprising a main safety output and a secondary safety output , wherein the main safety output is configured to control machinery brakes of the elevator car based on the first safety circuit ; and a secondary safety circuit connected to the secondary safety output and arranged in the elevator car and comprising at least one safety contact (114A...114N) configured to control stopping means arranged in the elevator car ; wherein when the at least one safety contact (114A...114N) is triggered the secondary safety circuit is configured to control the stopping means to cause stopping of the elevator car , characterized in that the stopping means comprises a solenoid , an engagement mechanism and a safety gear, wherein in response to triggering the at least one contact (114A...114N), the solenoid is configured to cause the engagement mechanism to move to a position enabling contact with a triggering device in the elevator shaft , the triggering device in turn causing activation of the safety gear, and wherein the main safety controller comprises a first input connected to the solenoid , wherein the main safety controller is configured to test the operation of the solenoid by switching off the secondary safety output and determining whether feedback information is received from the solenoid at the first input .
A seal assembly used in gas turbine engines, comprising: a plurality of spline slots configured and adapted to receive corresponding spline tabs ; a seal ; a static component ; a secondary seal ; and a retainer ; wherein the seal assembly further comprises an annular carrier defining a radially inward face , and an opposed radially outward face defining the plurality of spline slots , the plurality of spline slots being configured and adapted to receive corresponding spline tabs to centre the carrier in a surrounding structure, wherein the carrier is mounted to the static component with the plurality of spline tabs, wherein each spline tab engages a corresponding spline slot in the carrier and a corresponding spline slot in the static component; and in that: the seal is a honeycomb seal, and the honeycomb seal is mounted to the radially inward face of the carrier and is configured for sealing engagement with a rotary seal component rotating relative to the seal; the secondary seal is seated between the static component and the carrier to provide a sealing engagement therebetween; and the retainer axially retains the carrier relative to the static component, wherein the carrier is axially captured between the secondary seal and the retainer. a plurality of spline slots configured and adapted to receive corresponding spline tabs ; a seal ; a static component ; a secondary seal ; and a retainer ; wherein the seal assembly further comprises an annular carrier defining a radially inward face , and an opposed radially outward face defining the plurality of spline slots , the plurality of spline slots being configured and adapted to receive corresponding spline tabs to centre the carrier in a surrounding structure, wherein the carrier is mounted to the static component with the plurality of spline tabs, wherein each spline tab engages a corresponding spline slot in the carrier and a corresponding spline slot in the static component; and in that: the seal is a honeycomb seal, and the honeycomb seal is mounted to the radially inward face of the carrier and is configured for sealing engagement with a rotary seal component rotating relative to the seal; the secondary seal is seated between the static component and the carrier to provide a sealing engagement therebetween; and the retainer axially retains the carrier relative to the static component, wherein the carrier is axially captured between the secondary seal and the retainer. the seal is a honeycomb seal, and the honeycomb seal is mounted to the radially inward face of the carrier and is configured for sealing engagement with a rotary seal component rotating relative to the seal; the secondary seal is seated between the static component and the carrier to provide a sealing engagement therebetween; and the retainer axially retains the carrier relative to the static component, wherein the carrier is axially captured between the secondary seal and the retainer.
A passive illumination device (10a-c) for use with at least one light source unit of an image receiver , the passive illumination device (10a-c) comprising at least one diffuser unit (16a-c) configured to convert light provided by the light source unit into at least substantially diffuse illumination light for illuminating at least one illumination region and comprising at least one diffuser element (20a-c) having at least one diffusion shell (22a-c) for diffusing the light, wherein the diffusion shell (22a-c), seen from the illumination region , has a concave shape, wherein the diffuser unit (16a-c) comprises at least one optical element configured to deflect light provided by at least one light source of the light source unit toward the illumination region , wherein the optical element is implemented as a beamsplitter cube, characterized in that the diffuser element (20a-c) comprises at least one receptacle for positively holding the optical element , wherein the diffuser element (20a-c) comprises at least one subregion configured to feed light provided by the light source into the optical element .
A foamable polyurethane resin composition comprising: a polyisocyanate material, a polyol material, water, and a catalyst, wherein the polyisocyanate material contains 1,4-bis(isocyanatomethyl)cyclohexane; the polyol material contains crystalline polytetramethylene ether glycol and noncrystalline polytetramethylene ether glycol and/or polyoxypropylene glycol; the total amount of the crystalline polytetramethylene ether glycol, the noncrystalline polytetramethylene ether glycol, and the polyoxypropylene glycol is 90% by mass or more with respect to the total amount of the polyol material; and a ratio of the crystalline polytetramethylene ether glycol is 60% by mass or more and 90% by mass or less with respect to the total amount of the crystalline polytetramethylene ether glycol, the noncrystalline polytetramethylene ether glycol, and the polyoxypropylene glycol. a polyisocyanate material, a polyol material, water, and a catalyst, wherein the polyisocyanate material contains 1,4-bis(isocyanatomethyl)cyclohexane; the polyol material contains crystalline polytetramethylene ether glycol and noncrystalline polytetramethylene ether glycol and/or polyoxypropylene glycol; the total amount of the crystalline polytetramethylene ether glycol, the noncrystalline polytetramethylene ether glycol, and the polyoxypropylene glycol is 90% by mass or more with respect to the total amount of the polyol material; and a ratio of the crystalline polytetramethylene ether glycol is 60% by mass or more and 90% by mass or less with respect to the total amount of the crystalline polytetramethylene ether glycol, the noncrystalline polytetramethylene ether glycol, and the polyoxypropylene glycol.
A coffee machine comprising a body ; at least one brewing chamber that is disposed in the body ; at least one brewing pot that is placed into the brewing chamber and wherein water, coffee and as per the preference additional ingredients such as sugar are put and brewed; a heater that is disposed under the brewing chamber and that enables the brewing port to be heated; a level sensor that is disposed at the ceiling of the brewing chamber , that faces towards the brewing pot and that measures the level (L) of the water-coffee mixture in the brewing pot , and a control unit that controls the heater according to the data received from the level sensor and that calculates a brewing height (hson) whereat the brewing process is ended, characterized by the control unit that calculates the brewing height (hson) such that there will be a difference (Δ2) between the brewing height (hson) and a predetermined reference brewing height (hpi ), that is smaller than the difference (Δ1), which is different than zero, between the height measurement value (hölç) taken by means of the sensor a certain time (t) after the start of the brewing process and a predetermined reference value (href) for the same time (t).